apl: merge architecture — Tcl/Prolog/CL/Smalltalk + spec updates
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Co-Authored-By: Claude Sonnet 4.6 <noreply@anthropic.com>
This commit is contained in:
2026-05-06 18:21:03 +00:00
245 changed files with 69626 additions and 9478 deletions

51
lib/apl/test.sh Executable file
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#!/usr/bin/env bash
# lib/apl/test.sh — smoke-test the APL runtime layer.
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found."
exit 1
fi
TMPFILE=$(mktemp); trap "rm -f $TMPFILE" EXIT
cat > "$TMPFILE" << 'EPOCHS'
(epoch 1)
(load "spec/stdlib.sx")
(load "lib/apl/runtime.sx")
(epoch 2)
(load "lib/apl/tests/runtime.sx")
(epoch 3)
(eval "(list apl-test-pass apl-test-fail)")
EPOCHS
OUTPUT=$(timeout 60 "$SX_SERVER" < "$TMPFILE" 2>/dev/null)
LINE=$(echo "$OUTPUT" | awk '/^\(ok-len 3 / {getline; print; exit}')
if [ -z "$LINE" ]; then
LINE=$(echo "$OUTPUT" | grep -E '^\(ok 3 \([0-9]+ [0-9]+\)\)' | tail -1 \
| sed -E 's/^\(ok 3 //; s/\)$//')
fi
if [ -z "$LINE" ]; then
echo "ERROR: could not extract summary"
echo "$OUTPUT" | tail -10
exit 1
fi
P=$(echo "$LINE" | sed -E 's/^\(([0-9]+) ([0-9]+)\).*/\1/')
F=$(echo "$LINE" | sed -E 's/^\(([0-9]+) ([0-9]+)\).*/\2/')
TOTAL=$((P + F))
if [ "$F" -eq 0 ]; then
echo "ok $P/$TOTAL lib/apl tests passed"
else
echo "FAIL $P/$TOTAL passed, $F failed"
fi
[ "$F" -eq 0 ]

327
lib/apl/tests/runtime.sx Normal file
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;; lib/apl/tests/runtime.sx — Tests for lib/apl/runtime.sx
;; --- Test framework ---
(define apl-test-pass 0)
(define apl-test-fail 0)
(define apl-test-fails (list))
(define
(apl-test name got expected)
(if
(= got expected)
(set! apl-test-pass (+ apl-test-pass 1))
(begin
(set! apl-test-fail (+ apl-test-fail 1))
(set! apl-test-fails (append apl-test-fails (list {:got got :expected expected :name name}))))))
;; ---------------------------------------------------------------------------
;; 1. Core vector constructors
;; ---------------------------------------------------------------------------
(apl-test
"iota 5"
(apl-iota 5)
(list 1 2 3 4 5))
(apl-test "iota 1" (apl-iota 1) (list 1))
(apl-test "iota 0" (apl-iota 0) (list))
(apl-test
"rho list"
(apl-rho (list 1 2 3))
3)
(apl-test "rho scalar" (apl-rho 42) 1)
(apl-test
"at 1"
(apl-at (list 10 20 30) 1)
10)
(apl-test
"at 3"
(apl-at (list 10 20 30) 3)
30)
;; ---------------------------------------------------------------------------
;; 2. Arithmetic — element-wise and rank-polymorphic
;; ---------------------------------------------------------------------------
(apl-test
"add v+v"
(apl-add
(list 1 2 3)
(list 10 20 30))
(list 11 22 33))
(apl-test
"add s+v"
(apl-add 10 (list 1 2 3))
(list 11 12 13))
(apl-test
"add v+s"
(apl-add (list 1 2 3) 100)
(list 101 102 103))
(apl-test "add s+s" (apl-add 3 4) 7)
(apl-test
"sub v-v"
(apl-sub
(list 5 4 3)
(list 1 2 3))
(list 4 2 0))
(apl-test
"mul v*s"
(apl-mul (list 1 2 3) 3)
(list 3 6 9))
(apl-test
"neg -v"
(apl-neg (list 1 -2 3))
(list -1 2 -3))
(apl-test
"abs v"
(apl-abs (list -1 2 -3))
(list 1 2 3))
(apl-test
"floor v"
(apl-floor (list 1.7 2.2 3.9))
(list 1 2 3))
(apl-test
"ceil v"
(apl-ceil (list 1.1 2.5 3))
(list 2 3 3))
(apl-test
"max v v"
(apl-max
(list 1 5 3)
(list 4 2 6))
(list 4 5 6))
(apl-test
"min v v"
(apl-min
(list 1 5 3)
(list 4 2 6))
(list 1 2 3))
;; ---------------------------------------------------------------------------
;; 3. Comparison (returns 0/1)
;; ---------------------------------------------------------------------------
(apl-test "eq 3 3" (apl-eq 3 3) 1)
(apl-test "eq 3 4" (apl-eq 3 4) 0)
(apl-test
"gt v>s"
(apl-gt (list 1 5 3 7) 4)
(list 0 1 0 1))
(apl-test
"lt v<v"
(apl-lt
(list 1 2 3)
(list 3 2 1))
(list 1 0 0))
(apl-test
"le v<=s"
(apl-le (list 3 4 5) 4)
(list 1 1 0))
(apl-test
"ge v>=s"
(apl-ge (list 3 4 5) 4)
(list 0 1 1))
(apl-test
"neq v!=s"
(apl-neq (list 1 2 3) 2)
(list 1 0 1))
;; ---------------------------------------------------------------------------
;; 4. Boolean logic (0/1 values)
;; ---------------------------------------------------------------------------
(apl-test "and 1 1" (apl-and 1 1) 1)
(apl-test "and 1 0" (apl-and 1 0) 0)
(apl-test "or 0 1" (apl-or 0 1) 1)
(apl-test "or 0 0" (apl-or 0 0) 0)
(apl-test "not 0" (apl-not 0) 1)
(apl-test "not 1" (apl-not 1) 0)
(apl-test
"not vec"
(apl-not (list 1 0 1 0))
(list 0 1 0 1))
;; ---------------------------------------------------------------------------
;; 5. Bitwise operations
;; ---------------------------------------------------------------------------
(apl-test "bitand s" (apl-bitand 5 3) 1)
(apl-test "bitor s" (apl-bitor 5 3) 7)
(apl-test "bitxor s" (apl-bitxor 5 3) 6)
(apl-test "bitnot 0" (apl-bitnot 0) -1)
(apl-test "lshift 1 4" (apl-lshift 1 4) 16)
(apl-test "rshift 16 2" (apl-rshift 16 2) 4)
(apl-test
"bitand vec"
(apl-bitand (list 5 6) (list 3 7))
(list 1 6))
(apl-test
"bitor vec"
(apl-bitor (list 5 6) (list 3 7))
(list 7 7))
;; ---------------------------------------------------------------------------
;; 6. Reduction and scan
;; ---------------------------------------------------------------------------
(apl-test
"reduce-add"
(apl-reduce-add
(list 1 2 3 4 5))
15)
(apl-test
"reduce-mul"
(apl-reduce-mul (list 1 2 3 4))
24)
(apl-test
"reduce-max"
(apl-reduce-max
(list 3 1 4 1 5))
5)
(apl-test
"reduce-min"
(apl-reduce-min
(list 3 1 4 1 5))
1)
(apl-test
"reduce-and"
(apl-reduce-and (list 1 1 1))
1)
(apl-test
"reduce-and0"
(apl-reduce-and (list 1 0 1))
0)
(apl-test
"reduce-or"
(apl-reduce-or (list 0 1 0))
1)
(apl-test
"scan-add"
(apl-scan-add (list 1 2 3 4))
(list 1 3 6 10))
(apl-test
"scan-mul"
(apl-scan-mul (list 1 2 3 4))
(list 1 2 6 24))
;; ---------------------------------------------------------------------------
;; 7. Vector manipulation
;; ---------------------------------------------------------------------------
(apl-test
"reverse"
(apl-reverse (list 1 2 3 4))
(list 4 3 2 1))
(apl-test
"cat v v"
(apl-cat (list 1 2) (list 3 4))
(list 1 2 3 4))
(apl-test
"cat v s"
(apl-cat (list 1 2) 3)
(list 1 2 3))
(apl-test
"cat s v"
(apl-cat 1 (list 2 3))
(list 1 2 3))
(apl-test
"cat s s"
(apl-cat 1 2)
(list 1 2))
(apl-test
"take 3"
(apl-take
3
(list 10 20 30 40 50))
(list 10 20 30))
(apl-test
"take 0"
(apl-take 0 (list 1 2 3))
(list))
(apl-test
"take neg"
(apl-take -2 (list 10 20 30))
(list 20 30))
(apl-test
"drop 2"
(apl-drop 2 (list 10 20 30 40))
(list 30 40))
(apl-test
"drop neg"
(apl-drop -1 (list 10 20 30))
(list 10 20))
(apl-test
"rotate 2"
(apl-rotate
2
(list 1 2 3 4 5))
(list 3 4 5 1 2))
(apl-test
"compress"
(apl-compress
(list 1 0 1 0)
(list 10 20 30 40))
(list 10 30))
(apl-test
"index"
(apl-index
(list 10 20 30 40)
(list 2 4))
(list 20 40))
;; ---------------------------------------------------------------------------
;; 8. Set operations
;; ---------------------------------------------------------------------------
(apl-test
"member yes"
(apl-member
(list 1 2 5)
(list 2 4 6))
(list 0 1 0))
(apl-test
"member s"
(apl-member 2 (list 1 2 3))
1)
(apl-test
"member no"
(apl-member 9 (list 1 2 3))
0)
(apl-test
"nub"
(apl-nub (list 1 2 1 3 2))
(list 1 2 3))
(apl-test
"union"
(apl-union
(list 1 2 3)
(list 2 3 4))
(list 1 2 3 4))
(apl-test
"intersect"
(apl-intersect
(list 1 2 3 4)
(list 2 4 6))
(list 2 4))
(apl-test
"without"
(apl-without
(list 1 2 3 4)
(list 2 4))
(list 1 3))
;; ---------------------------------------------------------------------------
;; 9. Format
;; ---------------------------------------------------------------------------
(apl-test
"format vec"
(apl-format (list 1 2 3))
"1 2 3")
(apl-test "format scalar" (apl-format 42) "42")
(apl-test "format empty" (apl-format (list)) "")
;; ---------------------------------------------------------------------------
;; Summary
;; ---------------------------------------------------------------------------
(list apl-test-pass apl-test-fail)

500
lib/common-lisp/clos.sx Normal file
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;; lib/common-lisp/clos.sx — CLOS: classes, instances, generic functions
;;
;; Class records: {:clos-type "class" :name "NAME" :slots {...} :parents [...] :methods [...]}
;; Instance: {:clos-type "instance" :class "NAME" :slots {slot: val ...}}
;; Method: {:qualifiers [...] :specializers [...] :fn (fn (args next-fn) ...)}
;;
;; SX primitive notes:
;; dict->list: use (map (fn (k) (list k (get d k))) (keys d))
;; dict-set (pure): use assoc
;; fn?/callable?: use callable?
;; ── dict helpers ───────────────────────────────────────────────────────────
(define
clos-dict->list
(fn (d) (map (fn (k) (list k (get d k))) (keys d))))
;; ── class registry ─────────────────────────────────────────────────────────
(define
clos-class-registry
(dict
"t"
{:parents (list) :clos-type "class" :slots (dict) :methods (list) :name "t"}
"null"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "null"}
"integer"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "integer"}
"float"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "float"}
"string"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "string"}
"symbol"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "symbol"}
"cons"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "cons"}
"list"
{:parents (list "t") :clos-type "class" :slots (dict) :methods (list) :name "list"}))
;; ── clos-generic-registry ─────────────────────────────────────────────────
(define clos-generic-registry (dict))
;; ── class-of ──────────────────────────────────────────────────────────────
(define
clos-class-of
(fn
(x)
(cond
((nil? x) "null")
((integer? x) "integer")
((float? x) "float")
((string? x) "string")
((symbol? x) "symbol")
((and (list? x) (> (len x) 0)) "cons")
((and (list? x) (= (len x) 0)) "null")
((and (dict? x) (= (get x "clos-type") "instance")) (get x "class"))
(:else "t"))))
;; ── subclass-of? ──────────────────────────────────────────────────────────
;;
;; Captures clos-class-registry at define time to avoid free-variable issues.
(define
clos-subclass-of?
(let
((registry clos-class-registry))
(fn
(class-name super-name)
(if
(= class-name super-name)
true
(let
((rec (get registry class-name)))
(if
(nil? rec)
false
(some
(fn (p) (clos-subclass-of? p super-name))
(get rec "parents"))))))))
;; ── instance-of? ──────────────────────────────────────────────────────────
(define
clos-instance-of?
(fn (obj class-name) (clos-subclass-of? (clos-class-of obj) class-name)))
;; ── defclass ──────────────────────────────────────────────────────────────
;;
;; slot-specs: list of dicts with keys: name initarg initform accessor reader writer
;; Each missing key defaults to nil.
(define clos-slot-spec (fn (spec) (if (string? spec) {:initform nil :initarg nil :reader nil :writer nil :accessor nil :name spec} spec)))
(define
clos-defclass
(fn
(name parents slot-specs)
(let
((slots (dict)))
(for-each
(fn
(pname)
(let
((prec (get clos-class-registry pname)))
(when
(not (nil? prec))
(for-each
(fn
(k)
(when
(nil? (get slots k))
(dict-set! slots k (get (get prec "slots") k))))
(keys (get prec "slots"))))))
parents)
(for-each
(fn
(s)
(let
((spec (clos-slot-spec s)))
(dict-set! slots (get spec "name") spec)))
slot-specs)
(let
((class-rec {:parents parents :clos-type "class" :slots slots :methods (list) :name name}))
(dict-set! clos-class-registry name class-rec)
(clos-install-accessors-for name slots)
name))))
;; ── accessor installation (forward-declared, defined after defmethod) ──────
(define
clos-install-accessors-for
(fn
(class-name slots)
(for-each
(fn
(k)
(let
((spec (get slots k)))
(let
((reader (get spec "reader")))
(when
(not (nil? reader))
(clos-add-reader-method reader class-name k)))
(let
((accessor (get spec "accessor")))
(when
(not (nil? accessor))
(clos-add-reader-method accessor class-name k)))))
(keys slots))))
;; placeholder — real impl filled in after defmethod is defined
(define clos-add-reader-method (fn (method-name class-name slot-name) nil))
;; ── make-instance ─────────────────────────────────────────────────────────
(define
clos-make-instance
(fn
(class-name &rest initargs)
(let
((class-rec (get clos-class-registry class-name)))
(if
(nil? class-rec)
(error (str "No class named: " class-name))
(let
((slots (dict)))
(for-each
(fn
(k)
(let
((spec (get (get class-rec "slots") k)))
(let
((initform (get spec "initform")))
(when
(not (nil? initform))
(dict-set!
slots
k
(if (callable? initform) (initform) initform))))))
(keys (get class-rec "slots")))
(define
apply-args
(fn
(args)
(when
(>= (len args) 2)
(let
((key (str (first args))) (val (first (rest args))))
(let
((skey (if (= (slice key 0 1) ":") (slice key 1 (len key)) key)))
(let
((matched false))
(for-each
(fn
(sk)
(let
((spec (get (get class-rec "slots") sk)))
(let
((ia (get spec "initarg")))
(when
(or
(= ia key)
(= ia (str ":" skey))
(= sk skey))
(dict-set! slots sk val)
(set! matched true)))))
(keys (get class-rec "slots")))))
(apply-args (rest (rest args)))))))
(apply-args initargs)
{:clos-type "instance" :slots slots :class class-name})))))
;; ── slot-value ────────────────────────────────────────────────────────────
(define
clos-slot-value
(fn
(instance slot-name)
(if
(and (dict? instance) (= (get instance "clos-type") "instance"))
(get (get instance "slots") slot-name)
(error (str "Not a CLOS instance: " (inspect instance))))))
(define
clos-set-slot-value!
(fn
(instance slot-name value)
(if
(and (dict? instance) (= (get instance "clos-type") "instance"))
(dict-set! (get instance "slots") slot-name value)
(error (str "Not a CLOS instance: " (inspect instance))))))
(define
clos-slot-boundp
(fn
(instance slot-name)
(and
(dict? instance)
(= (get instance "clos-type") "instance")
(not (nil? (get (get instance "slots") slot-name))))))
;; ── find-class / change-class ─────────────────────────────────────────────
(define clos-find-class (fn (name) (get clos-class-registry name)))
(define
clos-change-class!
(fn
(instance new-class-name)
(if
(and (dict? instance) (= (get instance "clos-type") "instance"))
(dict-set! instance "class" new-class-name)
(error (str "Not a CLOS instance: " (inspect instance))))))
;; ── defgeneric ────────────────────────────────────────────────────────────
(define
clos-defgeneric
(fn
(name options)
(let
((combination (or (get options "method-combination") "standard")))
(when
(nil? (get clos-generic-registry name))
(dict-set! clos-generic-registry name {:methods (list) :combination combination :name name}))
name)))
;; ── defmethod ─────────────────────────────────────────────────────────────
;;
;; method-fn: (fn (args next-fn) body)
;; args = list of all call arguments
;; next-fn = (fn () next-method-result) or nil
(define
clos-defmethod
(fn
(generic-name qualifiers specializers method-fn)
(when
(nil? (get clos-generic-registry generic-name))
(clos-defgeneric generic-name {}))
(let
((grec (get clos-generic-registry generic-name))
(new-method {:fn method-fn :qualifiers qualifiers :specializers specializers}))
(let
((kept (filter (fn (m) (not (and (= (get m "qualifiers") qualifiers) (= (get m "specializers") specializers)))) (get grec "methods"))))
(dict-set!
clos-generic-registry
generic-name
(assoc grec "methods" (append kept (list new-method))))
generic-name))))
;; Now install the real accessor-method installer
(set!
clos-add-reader-method
(fn
(method-name class-name slot-name)
(clos-defmethod
method-name
(list)
(list class-name)
(fn (args next-fn) (clos-slot-value (first args) slot-name)))))
;; ── method specificity ─────────────────────────────────────────────────────
(define
clos-method-matches?
(fn
(method args)
(let
((specs (get method "specializers")))
(if
(> (len specs) (len args))
false
(define
check-all
(fn
(i)
(if
(>= i (len specs))
true
(let
((spec (nth specs i)) (arg (nth args i)))
(if
(= spec "t")
(check-all (+ i 1))
(if
(clos-instance-of? arg spec)
(check-all (+ i 1))
false))))))
(check-all 0)))))
;; Precedence distance: how far class-name is from spec-name up the hierarchy.
(define
clos-specificity
(let
((registry clos-class-registry))
(fn
(class-name spec-name)
(define
walk
(fn
(cn depth)
(if
(= cn spec-name)
depth
(let
((rec (get registry cn)))
(if
(nil? rec)
nil
(let
((results (map (fn (p) (walk p (+ depth 1))) (get rec "parents"))))
(let
((non-nil (filter (fn (x) (not (nil? x))) results)))
(if
(empty? non-nil)
nil
(reduce
(fn (a b) (if (< a b) a b))
(first non-nil)
(rest non-nil))))))))))
(walk class-name 0))))
(define
clos-method-more-specific?
(fn
(m1 m2 args)
(let
((s1 (get m1 "specializers")) (s2 (get m2 "specializers")))
(define
cmp
(fn
(i)
(if
(>= i (len s1))
false
(let
((c1 (clos-specificity (clos-class-of (nth args i)) (nth s1 i)))
(c2
(clos-specificity (clos-class-of (nth args i)) (nth s2 i))))
(cond
((and (nil? c1) (nil? c2)) (cmp (+ i 1)))
((nil? c1) false)
((nil? c2) true)
((< c1 c2) true)
((> c1 c2) false)
(:else (cmp (+ i 1))))))))
(cmp 0))))
(define
clos-sort-methods
(fn
(methods args)
(define
insert
(fn
(m sorted)
(if
(empty? sorted)
(list m)
(if
(clos-method-more-specific? m (first sorted) args)
(cons m sorted)
(cons (first sorted) (insert m (rest sorted)))))))
(reduce (fn (acc m) (insert m acc)) (list) methods)))
;; ── call-generic (standard method combination) ─────────────────────────────
(define
clos-call-generic
(fn
(generic-name args)
(let
((grec (get clos-generic-registry generic-name)))
(if
(nil? grec)
(error (str "No generic function: " generic-name))
(let
((applicable (filter (fn (m) (clos-method-matches? m args)) (get grec "methods"))))
(if
(empty? applicable)
(error
(str
"No applicable method for "
generic-name
" with classes "
(inspect (map clos-class-of args))))
(let
((primary (filter (fn (m) (empty? (get m "qualifiers"))) applicable))
(before
(filter
(fn (m) (= (get m "qualifiers") (list "before")))
applicable))
(after
(filter
(fn (m) (= (get m "qualifiers") (list "after")))
applicable))
(around
(filter
(fn (m) (= (get m "qualifiers") (list "around")))
applicable)))
(let
((sp (clos-sort-methods primary args))
(sb (clos-sort-methods before args))
(sa (clos-sort-methods after args))
(sw (clos-sort-methods around args)))
(define
make-primary-chain
(fn
(methods)
(if
(empty? methods)
(fn
()
(error (str "No next primary method: " generic-name)))
(fn
()
((get (first methods) "fn")
args
(make-primary-chain (rest methods)))))))
(define
make-around-chain
(fn
(around-methods inner-thunk)
(if
(empty? around-methods)
inner-thunk
(fn
()
((get (first around-methods) "fn")
args
(make-around-chain
(rest around-methods)
inner-thunk))))))
(for-each (fn (m) ((get m "fn") args (fn () nil))) sb)
(let
((primary-thunk (make-primary-chain sp)))
(let
((result (if (empty? sw) (primary-thunk) ((make-around-chain sw primary-thunk)))))
(for-each
(fn (m) ((get m "fn") args (fn () nil)))
(reverse sa))
result))))))))))
;; ── call-next-method / next-method-p ──────────────────────────────────────
(define clos-call-next-method (fn (next-fn) (next-fn)))
(define clos-next-method-p (fn (next-fn) (not (nil? next-fn))))
;; ── with-slots ────────────────────────────────────────────────────────────
(define
clos-with-slots
(fn
(instance slot-names body-fn)
(let
((vals (map (fn (s) (clos-slot-value instance s)) slot-names)))
(apply body-fn vals))))

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lib/common-lisp/conformance.sh Executable file
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#!/usr/bin/env bash
# lib/common-lisp/conformance.sh — CL-on-SX conformance test runner
#
# Runs all Common Lisp test suites and writes scoreboard.json + scoreboard.md.
#
# Usage:
# bash lib/common-lisp/conformance.sh
# bash lib/common-lisp/conformance.sh -v
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found."
exit 1
fi
VERBOSE="${1:-}"
TOTAL_PASS=0; TOTAL_FAIL=0
SUITE_NAMES=()
SUITE_PASS=()
SUITE_FAIL=()
# run_suite NAME "file1 file2 ..." PASS_VAR FAIL_VAR FAILURES_VAR
run_suite() {
local name="$1" load_files="$2" pass_var="$3" fail_var="$4" failures_var="$5"
local TMP; TMP=$(mktemp)
{
printf '(epoch 1)\n(load "spec/stdlib.sx")\n'
local i=2
for f in $load_files; do
printf '(epoch %d)\n(load "%s")\n' "$i" "$f"
i=$((i+1))
done
printf '(epoch 100)\n(eval "%s")\n' "$pass_var"
printf '(epoch 101)\n(eval "%s")\n' "$fail_var"
} > "$TMP"
local OUT; OUT=$(timeout 30 "$SX_SERVER" < "$TMP" 2>/dev/null)
rm -f "$TMP"
local P F
P=$(echo "$OUT" | grep -A1 "^(ok-len 100 " | tail -1 | tr -d ' ()' || true)
F=$(echo "$OUT" | grep -A1 "^(ok-len 101 " | tail -1 | tr -d ' ()' || true)
# Also try plain (ok 100 N) format
[ -z "$P" ] && P=$(echo "$OUT" | grep "^(ok 100 " | awk '{print $3}' | tr -d ')' || true)
[ -z "$F" ] && F=$(echo "$OUT" | grep "^(ok 101 " | awk '{print $3}' | tr -d ')' || true)
[ -z "$P" ] && P=0; [ -z "$F" ] && F=0
SUITE_NAMES+=("$name")
SUITE_PASS+=("$P")
SUITE_FAIL+=("$F")
TOTAL_PASS=$((TOTAL_PASS + P))
TOTAL_FAIL=$((TOTAL_FAIL + F))
if [ "$F" = "0" ] && [ "${P:-0}" -gt 0 ] 2>/dev/null; then
echo " PASS $name ($P tests)"
else
echo " FAIL $name ($P passed, $F failed)"
fi
}
echo "=== Common Lisp on SX — Conformance Run ==="
echo ""
run_suite "Phase 1: tokenizer/reader" \
"lib/common-lisp/reader.sx lib/common-lisp/tests/read.sx" \
"cl-test-pass" "cl-test-fail" "cl-test-fails"
run_suite "Phase 1: parser/lambda-lists" \
"lib/common-lisp/reader.sx lib/common-lisp/parser.sx lib/common-lisp/tests/lambda.sx" \
"cl-test-pass" "cl-test-fail" "cl-test-fails"
run_suite "Phase 2: evaluator" \
"lib/common-lisp/reader.sx lib/common-lisp/parser.sx lib/common-lisp/eval.sx lib/common-lisp/tests/eval.sx" \
"cl-test-pass" "cl-test-fail" "cl-test-fails"
run_suite "Phase 3: condition system" \
"lib/common-lisp/runtime.sx lib/common-lisp/tests/conditions.sx" \
"passed" "failed" "failures"
run_suite "Phase 3: restart-demo" \
"lib/common-lisp/runtime.sx lib/common-lisp/tests/programs/restart-demo.sx" \
"demo-passed" "demo-failed" "demo-failures"
run_suite "Phase 3: parse-recover" \
"lib/common-lisp/runtime.sx lib/common-lisp/tests/programs/parse-recover.sx" \
"parse-passed" "parse-failed" "parse-failures"
run_suite "Phase 3: interactive-debugger" \
"lib/common-lisp/runtime.sx lib/common-lisp/tests/programs/interactive-debugger.sx" \
"debugger-passed" "debugger-failed" "debugger-failures"
run_suite "Phase 4: CLOS" \
"lib/common-lisp/runtime.sx lib/common-lisp/clos.sx lib/common-lisp/tests/clos.sx" \
"passed" "failed" "failures"
run_suite "Phase 4: geometry" \
"lib/common-lisp/runtime.sx lib/common-lisp/clos.sx lib/common-lisp/tests/programs/geometry.sx" \
"geo-passed" "geo-failed" "geo-failures"
run_suite "Phase 4: mop-trace" \
"lib/common-lisp/runtime.sx lib/common-lisp/clos.sx lib/common-lisp/tests/programs/mop-trace.sx" \
"mop-passed" "mop-failed" "mop-failures"
run_suite "Phase 5: macros+LOOP" \
"lib/common-lisp/reader.sx lib/common-lisp/parser.sx lib/common-lisp/eval.sx lib/common-lisp/loop.sx lib/common-lisp/tests/macros.sx" \
"macro-passed" "macro-failed" "macro-failures"
run_suite "Phase 6: stdlib" \
"lib/common-lisp/reader.sx lib/common-lisp/parser.sx lib/common-lisp/eval.sx lib/common-lisp/tests/stdlib.sx" \
"stdlib-passed" "stdlib-failed" "stdlib-failures"
echo ""
echo "=== Total: $TOTAL_PASS passed, $TOTAL_FAIL failed ==="
# ── write scoreboard.json ─────────────────────────────────────────────────
SCORE_DIR="lib/common-lisp"
JSON="$SCORE_DIR/scoreboard.json"
{
printf '{\n'
printf ' "generated": "%s",\n' "$(date -u +%Y-%m-%dT%H:%M:%SZ)"
printf ' "total_pass": %d,\n' "$TOTAL_PASS"
printf ' "total_fail": %d,\n' "$TOTAL_FAIL"
printf ' "suites": [\n'
first=true
for i in "${!SUITE_NAMES[@]}"; do
if [ "$first" = "true" ]; then first=false; else printf ',\n'; fi
printf ' {"name": "%s", "pass": %d, "fail": %d}' \
"${SUITE_NAMES[$i]}" "${SUITE_PASS[$i]}" "${SUITE_FAIL[$i]}"
done
printf '\n ]\n'
printf '}\n'
} > "$JSON"
# ── write scoreboard.md ───────────────────────────────────────────────────
MD="$SCORE_DIR/scoreboard.md"
{
printf '# Common Lisp on SX — Scoreboard\n\n'
printf '_Generated: %s_\n\n' "$(date -u '+%Y-%m-%d %H:%M UTC')"
printf '| Suite | Pass | Fail | Status |\n'
printf '|-------|------|------|--------|\n'
for i in "${!SUITE_NAMES[@]}"; do
p="${SUITE_PASS[$i]}" f="${SUITE_FAIL[$i]}"
status=""
if [ "$f" = "0" ] && [ "${p:-0}" -gt 0 ] 2>/dev/null; then
status="pass"
else
status="FAIL"
fi
printf '| %s | %s | %s | %s |\n' "${SUITE_NAMES[$i]}" "$p" "$f" "$status"
done
printf '\n**Total: %d passed, %d failed**\n' "$TOTAL_PASS" "$TOTAL_FAIL"
} > "$MD"
echo ""
echo "Scoreboard written to $JSON and $MD"
[ "$TOTAL_FAIL" -eq 0 ]

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;; lib/common-lisp/loop.sx — The LOOP macro for CL-on-SX
;;
;; Supported clauses:
;; for VAR in LIST — iterate over list
;; for VAR across VECTOR — alias for 'in'
;; for VAR from N — numeric iteration (to/upto/below/downto/above/by)
;; for VAR = EXPR [then EXPR] — general iteration
;; while COND — stop when false
;; until COND — stop when true
;; repeat N — repeat N times
;; collect EXPR [into VAR]
;; append EXPR [into VAR]
;; nconc EXPR [into VAR]
;; sum EXPR [into VAR]
;; count EXPR [into VAR]
;; maximize EXPR [into VAR]
;; minimize EXPR [into VAR]
;; do FORM...
;; when/if COND clause...
;; unless COND clause...
;; finally FORM...
;; always COND
;; never COND
;; thereis COND
;; named BLOCK-NAME
;;
;; Depends on: lib/common-lisp/runtime.sx, lib/common-lisp/eval.sx already loaded.
;; Uses defmacro in the CL evaluator.
;; ── LOOP expansion driver ─────────────────────────────────────────────────
;; cl-loop-parse: analyse the flat LOOP clause list and build a Lisp form.
;; Returns a (block NAME (let (...) (tagbody ...))) form.
(define
cl-loop-parse
(fn
(clauses)
(define block-name nil)
(define with-bindings (list))
(define for-bindings (list))
(define test-forms (list))
(define repeat-var nil)
(define repeat-count nil)
(define body-forms (list))
(define accum-vars (dict))
(define accum-clauses (dict))
(define result-var nil)
(define finally-forms (list))
(define return-expr nil)
(define termination nil)
(define idx 0)
(define (lp-peek) (if (< idx (len clauses)) (nth clauses idx) nil))
(define
(next!)
(let ((v (lp-peek))) (do (set! idx (+ idx 1)) v)))
(define
(skip-if pred)
(if (and (not (nil? (lp-peek))) (pred (lp-peek))) (next!) nil))
(define (upcase-str s) (if (string? s) (upcase s) s))
(define (kw? s k) (= (upcase-str s) k))
(define
(make-accum-var!)
(if
(nil? result-var)
(do (set! result-var "#LOOP-RESULT") result-var)
result-var))
(define
(add-accum! type expr into-var)
(let
((v (if (nil? into-var) (make-accum-var!) into-var)))
(if
(not (has-key? accum-vars v))
(do
(set!
accum-vars
(assoc
accum-vars
v
(cond
((= type ":sum") 0)
((= type ":count") 0)
((= type ":maximize") nil)
((= type ":minimize") nil)
(:else (list)))))
(set! accum-clauses (assoc accum-clauses v type))))
(let
((update (cond ((= type ":collect") (list "SETQ" v (list "APPEND" v (list "LIST" expr)))) ((= type ":append") (list "SETQ" v (list "APPEND" v expr))) ((= type ":nconc") (list "SETQ" v (list "NCONC" v expr))) ((= type ":sum") (list "SETQ" v (list "+" v expr))) ((= type ":count") (list "SETQ" v (list "+" v (list "IF" expr 1 0)))) ((= type ":maximize") (list "SETQ" v (list "IF" (list "OR" (list "NULL" v) (list ">" expr v)) expr v))) ((= type ":minimize") (list "SETQ" v (list "IF" (list "OR" (list "NULL" v) (list "<" expr v)) expr v))) (:else (list "SETQ" v (list "APPEND" v (list "LIST" expr)))))))
(set! body-forms (append body-forms (list update))))))
(define
(parse-clause!)
(let
((tok (lp-peek)))
(if
(nil? tok)
nil
(do
(let
((u (upcase-str tok)))
(cond
((= u "NAMED")
(do (next!) (set! block-name (next!)) (parse-clause!)))
((= u "WITH")
(do
(next!)
(let
((var (next!)))
(skip-if (fn (s) (kw? s "=")))
(let
((init (next!)))
(set!
with-bindings
(append with-bindings (list (list var init))))
(parse-clause!)))))
((= u "FOR")
(do
(next!)
(let
((var (next!)))
(let
((kw2 (upcase-str (lp-peek))))
(cond
((or (= kw2 "IN") (= kw2 "ACROSS"))
(do
(next!)
(let
((lst-expr (next!))
(tail-var (str "#TAIL-" var)))
(set!
for-bindings
(append for-bindings (list {:list lst-expr :tail tail-var :type ":list" :var var})))
(parse-clause!))))
((= kw2 "=")
(do
(next!)
(let
((init-expr (next!)))
(let
((then-expr (if (kw? (lp-peek) "THEN") (do (next!) (next!)) init-expr)))
(set!
for-bindings
(append for-bindings (list {:type ":general" :then then-expr :init init-expr :var var})))
(parse-clause!)))))
((or (= kw2 "FROM") (= kw2 "DOWNFROM") (= kw2 "UPFROM"))
(do
(next!)
(let
((from-expr (next!))
(dir (if (= kw2 "DOWNFROM") ":down" ":up"))
(limit-expr nil)
(limit-type nil)
(step-expr 1))
(let
((lkw (upcase-str (lp-peek))))
(when
(or
(= lkw "TO")
(= lkw "UPTO")
(= lkw "BELOW")
(= lkw "DOWNTO")
(= lkw "ABOVE"))
(do
(next!)
(set! limit-type lkw)
(set! limit-expr (next!)))))
(when
(kw? (lp-peek) "BY")
(do (next!) (set! step-expr (next!))))
(set!
for-bindings
(append for-bindings (list {:dir dir :step step-expr :from from-expr :type ":numeric" :limit-type limit-type :var var :limit limit-expr})))
(parse-clause!))))
((or (= kw2 "TO") (= kw2 "UPTO") (= kw2 "BELOW"))
(do
(next!)
(let
((limit-expr (next!))
(step-expr 1))
(when
(kw? (lp-peek) "BY")
(do (next!) (set! step-expr (next!))))
(set!
for-bindings
(append for-bindings (list {:dir ":up" :step step-expr :from 0 :type ":numeric" :limit-type kw2 :var var :limit limit-expr})))
(parse-clause!))))
(:else (do (parse-clause!))))))))
((= u "WHILE")
(do
(next!)
(set! test-forms (append test-forms (list {:expr (next!) :type ":while"})))
(parse-clause!)))
((= u "UNTIL")
(do
(next!)
(set! test-forms (append test-forms (list {:expr (next!) :type ":until"})))
(parse-clause!)))
((= u "REPEAT")
(do
(next!)
(set! repeat-count (next!))
(set! repeat-var "#REPEAT-COUNT")
(parse-clause!)))
((or (= u "COLLECT") (= u "COLLECTING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":collect" expr into-var)
(parse-clause!))))
((or (= u "APPEND") (= u "APPENDING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":append" expr into-var)
(parse-clause!))))
((or (= u "NCONC") (= u "NCONCING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":nconc" expr into-var)
(parse-clause!))))
((or (= u "SUM") (= u "SUMMING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":sum" expr into-var)
(parse-clause!))))
((or (= u "COUNT") (= u "COUNTING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":count" expr into-var)
(parse-clause!))))
((or (= u "MAXIMIZE") (= u "MAXIMIZING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":maximize" expr into-var)
(parse-clause!))))
((or (= u "MINIMIZE") (= u "MINIMIZING"))
(do
(next!)
(let
((expr (next!)) (into-var nil))
(when
(kw? (lp-peek) "INTO")
(do (next!) (set! into-var (next!))))
(add-accum! ":minimize" expr into-var)
(parse-clause!))))
((= u "DO")
(do
(next!)
(define
(loop-kw? s)
(let
((us (upcase-str s)))
(some
(fn (k) (= us k))
(list
"FOR"
"WITH"
"WHILE"
"UNTIL"
"REPEAT"
"COLLECT"
"COLLECTING"
"APPEND"
"APPENDING"
"NCONC"
"NCONCING"
"SUM"
"SUMMING"
"COUNT"
"COUNTING"
"MAXIMIZE"
"MAXIMIZING"
"MINIMIZE"
"MINIMIZING"
"DO"
"WHEN"
"IF"
"UNLESS"
"FINALLY"
"ALWAYS"
"NEVER"
"THEREIS"
"RETURN"
"NAMED"))))
(define
(collect-do-forms!)
(if
(or (nil? (lp-peek)) (loop-kw? (lp-peek)))
nil
(do
(set!
body-forms
(append body-forms (list (next!))))
(collect-do-forms!))))
(collect-do-forms!)
(parse-clause!)))
((or (= u "WHEN") (= u "IF"))
(do
(next!)
(let
((cond-expr (next!))
(body-start (len body-forms)))
(parse-clause!)
;; wrap forms added since body-start in (WHEN cond ...)
(when (> (len body-forms) body-start)
(let ((added (list (nth body-forms body-start))))
(set! body-forms
(append
(if (> body-start 0)
(list (nth body-forms (- body-start 1)))
(list))
(list (list "WHEN" cond-expr (first added)))))
nil)))))
((= u "UNLESS")
(do
(next!)
(let
((cond-expr (next!))
(body-start (len body-forms)))
(parse-clause!)
(when (> (len body-forms) body-start)
(let ((added (list (nth body-forms body-start))))
(set! body-forms
(append
(if (> body-start 0)
(list (nth body-forms (- body-start 1)))
(list))
(list (list "UNLESS" cond-expr (first added)))))
nil)))))
((= u "ALWAYS")
(do (next!) (set! termination {:expr (next!) :type ":always"}) (parse-clause!)))
((= u "NEVER")
(do (next!) (set! termination {:expr (next!) :type ":never"}) (parse-clause!)))
((= u "THEREIS")
(do (next!) (set! termination {:expr (next!) :type ":thereis"}) (parse-clause!)))
((= u "RETURN")
(do (next!) (set! return-expr (next!)) (parse-clause!)))
((= u "FINALLY")
(do
(next!)
(define
(collect-finally!)
(if
(nil? (lp-peek))
nil
(do
(set!
finally-forms
(append finally-forms (list (next!))))
(collect-finally!))))
(collect-finally!)
(parse-clause!)))
(:else
(do
(set! body-forms (append body-forms (list (next!))))
(parse-clause!)))))))))
(parse-clause!)
(define let-bindings (list))
(for-each
(fn (wb) (set! let-bindings (append let-bindings (list wb))))
with-bindings)
(for-each
(fn
(v)
(set!
let-bindings
(append let-bindings (list (list v (get accum-vars v))))))
(keys accum-vars))
(when
(not (nil? repeat-var))
(set!
let-bindings
(append let-bindings (list (list repeat-var repeat-count)))))
(for-each
(fn
(fb)
(let
((type (get fb "type")))
(cond
((= type ":list")
(do
(set!
let-bindings
(append
let-bindings
(list (list (get fb "tail") (get fb "list")))
(list
(list
(get fb "var")
(list
"IF"
(list "CONSP" (get fb "tail"))
(list "CAR" (get fb "tail"))
nil)))))
nil))
((= type ":numeric")
(set!
let-bindings
(append
let-bindings
(list (list (get fb "var") (get fb "from"))))))
((= type ":general")
(set!
let-bindings
(append
let-bindings
(list (list (get fb "var") (get fb "init"))))))
(:else nil))))
for-bindings)
(define all-tests (list))
(when
(not (nil? repeat-var))
(set!
all-tests
(append
all-tests
(list
(list
"WHEN"
(list "<=" repeat-var 0)
(list "RETURN-FROM" block-name (if (nil? result-var) nil result-var))))))
(set!
body-forms
(append
(list (list "SETQ" repeat-var (list "-" repeat-var 1)))
body-forms)))
(for-each
(fn
(fb)
(when
(= (get fb "type") ":list")
(let
((tvar (get fb "tail")) (var (get fb "var")))
(set!
all-tests
(append
all-tests
(list
(list
"WHEN"
(list "NULL" tvar)
(list
"RETURN-FROM"
block-name
(if (nil? result-var) nil result-var))))))
(set!
body-forms
(append
body-forms
(list
(list "SETQ" tvar (list "CDR" tvar))
(list
"SETQ"
var
(list "IF" (list "CONSP" tvar) (list "CAR" tvar) nil))))))))
for-bindings)
(for-each
(fn
(fb)
(when
(= (get fb "type") ":numeric")
(let
((var (get fb "var"))
(dir (get fb "dir"))
(lim (get fb "limit"))
(ltype (get fb "limit-type"))
(step (get fb "step")))
(when
(not (nil? lim))
(let
((test-op (cond ((or (= ltype "BELOW") (= ltype "ABOVE")) (if (= dir ":up") ">=" "<=")) ((or (= ltype "TO") (= ltype "UPTO")) ">") ((= ltype "DOWNTO") "<") (:else (if (= dir ":up") ">" "<")))))
(set!
all-tests
(append
all-tests
(list
(list
"WHEN"
(list test-op var lim)
(list
"RETURN-FROM"
block-name
(if (nil? result-var) nil result-var))))))))
(let
((step-op (if (or (= dir ":down") (= ltype "DOWNTO") (= ltype "ABOVE")) "-" "+")))
(set!
body-forms
(append
body-forms
(list (list "SETQ" var (list step-op var step)))))))))
for-bindings)
(for-each
(fn
(fb)
(when
(= (get fb "type") ":general")
(set!
body-forms
(append
body-forms
(list (list "SETQ" (get fb "var") (get fb "then")))))))
for-bindings)
(for-each
(fn
(t)
(let
((type (get t "type")) (expr (get t "expr")))
(if
(= type ":while")
(set!
all-tests
(append
all-tests
(list
(list
"WHEN"
(list "NOT" expr)
(list
"RETURN-FROM"
block-name
(if (nil? result-var) nil result-var))))))
(set!
all-tests
(append
all-tests
(list
(list
"WHEN"
expr
(list
"RETURN-FROM"
block-name
(if (nil? result-var) nil result-var)))))))))
test-forms)
(when
(not (nil? termination))
(let
((type (get termination "type")) (expr (get termination "expr")))
(cond
((= type ":always")
(set!
body-forms
(append
body-forms
(list
(list "UNLESS" expr (list "RETURN-FROM" block-name false)))))
(set! return-expr true))
((= type ":never")
(set!
body-forms
(append
body-forms
(list
(list "WHEN" expr (list "RETURN-FROM" block-name false)))))
(set! return-expr true))
((= type ":thereis")
(set!
body-forms
(append
body-forms
(list
(list "WHEN" expr (list "RETURN-FROM" block-name expr)))))))))
(define tag "#LOOP-START")
(define
inner-body
(append (list tag) all-tests body-forms (list (list "GO" tag))))
(define
result-form
(cond
((not (nil? return-expr)) return-expr)
((not (nil? result-var)) result-var)
(:else nil)))
(define
full-body
(if
(= (len let-bindings) 0)
(append
(list "PROGN")
(list (append (list "TAGBODY") inner-body))
finally-forms
(list result-form))
(list
"LET*"
let-bindings
(append (list "TAGBODY") inner-body)
(append (list "PROGN") finally-forms (list result-form)))))
(list "BLOCK" block-name full-body)))
;; ── Install LOOP as a CL macro ────────────────────────────────────────────
;;
;; (loop ...) — the form arrives with head "LOOP" and rest = clauses.
;; The macro fn receives the full form.
(dict-set!
cl-macro-registry
"LOOP"
(fn (form env) (cl-loop-parse (rest form))))

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;; Common Lisp reader — converts token stream to CL AST forms.
;;
;; Depends on: lib/common-lisp/reader.sx (cl-tokenize)
;;
;; AST representation:
;; integer/float → SX number (or {:cl-type "float"/:ratio ...})
;; string "hello" → {:cl-type "string" :value "hello"}
;; symbol FOO → SX string "FOO" (upcase)
;; symbol NIL → nil
;; symbol T → true
;; :keyword → {:cl-type "keyword" :name "FOO"}
;; #\char → {:cl-type "char" :value "a"}
;; #:uninterned → {:cl-type "uninterned" :name "FOO"}
;; ratio 1/3 → {:cl-type "ratio" :value "1/3"}
;; float 3.14 → {:cl-type "float" :value "3.14"}
;; proper list (a b c) → SX list (a b c)
;; dotted pair (a . b) → {:cl-type "cons" :car a :cdr b}
;; vector #(a b) → {:cl-type "vector" :elements (list a b)}
;; 'x → ("QUOTE" x)
;; `x → ("QUASIQUOTE" x)
;; ,x → ("UNQUOTE" x)
;; ,@x → ("UNQUOTE-SPLICING" x)
;; #'x → ("FUNCTION" x)
;;
;; Public API:
;; (cl-read src) — parse first form from string, return form
;; (cl-read-all src) — parse all top-level forms, return list
;; ── number conversion ─────────────────────────────────────────────
(define
cl-hex-val
(fn
(c)
(let
((o (cl-ord c)))
(cond
((and (>= o 48) (<= o 57)) (- o 48))
((and (>= o 65) (<= o 70)) (+ 10 (- o 65)))
((and (>= o 97) (<= o 102)) (+ 10 (- o 97)))
(:else 0)))))
(define
cl-parse-radix-str
(fn
(s radix start)
(let
((n (string-length s)) (i start) (acc 0))
(define
loop
(fn
()
(when
(< i n)
(do
(set! acc (+ (* acc radix) (cl-hex-val (substring s i (+ i 1)))))
(set! i (+ i 1))
(loop)))))
(loop)
acc)))
(define
cl-convert-integer
(fn
(s)
(let
((n (string-length s)) (neg false))
(cond
((and (> n 2) (= (substring s 0 1) "#"))
(let
((letter (downcase (substring s 1 2))))
(cond
((= letter "x") (cl-parse-radix-str s 16 2))
((= letter "b") (cl-parse-radix-str s 2 2))
((= letter "o") (cl-parse-radix-str s 8 2))
(:else (parse-int s 0)))))
(:else (parse-int s 0))))))
;; ── reader ────────────────────────────────────────────────────────
;; Read one form from token list.
;; Returns {:form F :rest remaining-toks} or {:form nil :rest toks :eof true}
(define
cl-read-form
(fn
(toks)
(if
(not toks)
{:form nil :rest toks :eof true}
(let
((tok (nth toks 0)) (nxt (rest toks)))
(let
((type (get tok "type")) (val (get tok "value")))
(cond
((= type "eof") {:form nil :rest toks :eof true})
((= type "integer") {:form (cl-convert-integer val) :rest nxt})
((= type "float") {:form {:cl-type "float" :value val} :rest nxt})
((= type "ratio") {:form {:cl-type "ratio" :value val} :rest nxt})
((= type "string") {:form {:cl-type "string" :value val} :rest nxt})
((= type "char") {:form {:cl-type "char" :value val} :rest nxt})
((= type "keyword") {:form {:cl-type "keyword" :name val} :rest nxt})
((= type "uninterned") {:form {:cl-type "uninterned" :name val} :rest nxt})
((= type "symbol")
(cond
((= val "NIL") {:form nil :rest nxt})
((= val "T") {:form true :rest nxt})
(:else {:form val :rest nxt})))
;; list forms
((= type "lparen") (cl-read-list nxt))
((= type "hash-paren") (cl-read-vector nxt))
;; reader macros that wrap the next form
((= type "quote") (cl-read-wrap "QUOTE" nxt))
((= type "backquote") (cl-read-wrap "QUASIQUOTE" nxt))
((= type "comma") (cl-read-wrap "UNQUOTE" nxt))
((= type "comma-at") (cl-read-wrap "UNQUOTE-SPLICING" nxt))
((= type "hash-quote") (cl-read-wrap "FUNCTION" nxt))
;; skip unrecognised tokens
(:else (cl-read-form nxt))))))))
;; Wrap next form in a list: (name form)
(define
cl-read-wrap
(fn
(name toks)
(let
((inner (cl-read-form toks)))
{:form (list name (get inner "form")) :rest (get inner "rest")})))
;; Read list forms until ')'; handles dotted pair (a . b)
;; Called after consuming '('
(define
cl-read-list
(fn
(toks)
(let
((result (cl-read-list-items toks (list))))
{:form (get result "items") :rest (get result "rest")})))
(define
cl-read-list-items
(fn
(toks acc)
(if
(not toks)
{:items acc :rest toks}
(let
((tok (nth toks 0)))
(let
((type (get tok "type")))
(cond
((= type "eof") {:items acc :rest toks})
((= type "rparen") {:items acc :rest (rest toks)})
;; dotted pair: read one more form then expect ')'
((= type "dot")
(let
((cdr-result (cl-read-form (rest toks))))
(let
((cdr-form (get cdr-result "form"))
(after-cdr (get cdr-result "rest")))
;; skip the closing ')'
(let
((close (if after-cdr (nth after-cdr 0) nil)))
(let
((remaining
(if
(and close (= (get close "type") "rparen"))
(rest after-cdr)
after-cdr)))
;; build dotted structure
(let
((dotted (cl-build-dotted acc cdr-form)))
{:items dotted :rest remaining}))))))
(:else
(let
((item (cl-read-form toks)))
(cl-read-list-items
(get item "rest")
(concat acc (list (get item "form"))))))))))))
;; Build dotted form: (a b . c) → ((DOTTED a b) . c) style
;; In CL (a b c . d) means a proper dotted structure.
;; We represent it as {:cl-type "cons" :car a :cdr (list->dotted b c d)}
(define
cl-build-dotted
(fn
(head-items tail)
(if
(= (len head-items) 0)
tail
(if
(= (len head-items) 1)
{:cl-type "cons" :car (nth head-items 0) :cdr tail}
(let
((last-item (nth head-items (- (len head-items) 1)))
(but-last (slice head-items 0 (- (len head-items) 1))))
{:cl-type "cons"
:car (cl-build-dotted but-last (list last-item))
:cdr tail})))))
;; Read vector #(…) elements until ')'
(define
cl-read-vector
(fn
(toks)
(let
((result (cl-read-vector-items toks (list))))
{:form {:cl-type "vector" :elements (get result "items")} :rest (get result "rest")})))
(define
cl-read-vector-items
(fn
(toks acc)
(if
(not toks)
{:items acc :rest toks}
(let
((tok (nth toks 0)))
(let
((type (get tok "type")))
(cond
((= type "eof") {:items acc :rest toks})
((= type "rparen") {:items acc :rest (rest toks)})
(:else
(let
((item (cl-read-form toks)))
(cl-read-vector-items
(get item "rest")
(concat acc (list (get item "form"))))))))))))
;; ── lambda-list parser ───────────────────────────────────────────
;;
;; (cl-parse-lambda-list forms) — parse a list of CL forms (already read)
;; into a structured dict:
;; {:required (list sym ...)
;; :optional (list {:name N :default D :supplied S} ...)
;; :rest nil | "SYM"
;; :key (list {:name N :keyword K :default D :supplied S} ...)
;; :allow-other-keys false | true
;; :aux (list {:name N :init I} ...)}
;;
;; Symbols arrive as SX strings (upcase). &-markers are strings like "&OPTIONAL".
;; Key params: keyword is the upcase name string; caller uses it as :keyword.
;; Supplied-p: nil when absent.
(define
cl-parse-opt-spec
(fn
(spec)
(if
(list? spec)
{:name (nth spec 0)
:default (if (> (len spec) 1) (nth spec 1) nil)
:supplied (if (> (len spec) 2) (nth spec 2) nil)}
{:name spec :default nil :supplied nil})))
(define
cl-parse-key-spec
(fn
(spec)
(if
(list? spec)
(let
((first (nth spec 0)))
(if
(list? first)
;; ((:keyword var) default supplied-p)
{:name (nth first 1)
:keyword (get first "name")
:default (if (> (len spec) 1) (nth spec 1) nil)
:supplied (if (> (len spec) 2) (nth spec 2) nil)}
;; (var default supplied-p)
{:name first
:keyword first
:default (if (> (len spec) 1) (nth spec 1) nil)
:supplied (if (> (len spec) 2) (nth spec 2) nil)}))
{:name spec :keyword spec :default nil :supplied nil})))
(define
cl-parse-aux-spec
(fn
(spec)
(if
(list? spec)
{:name (nth spec 0) :init (if (> (len spec) 1) (nth spec 1) nil)}
{:name spec :init nil})))
(define
cl-parse-lambda-list
(fn
(forms)
(let
((state "required")
(required (list))
(optional (list))
(rest-name nil)
(key (list))
(allow-other-keys false)
(aux (list)))
(define
scan
(fn
(items)
(when
(> (len items) 0)
(let
((item (nth items 0)) (tail (rest items)))
(cond
((= item "&OPTIONAL")
(do (set! state "optional") (scan tail)))
((= item "&REST")
(do (set! state "rest") (scan tail)))
((= item "&BODY")
(do (set! state "rest") (scan tail)))
((= item "&KEY")
(do (set! state "key") (scan tail)))
((= item "&AUX")
(do (set! state "aux") (scan tail)))
((= item "&ALLOW-OTHER-KEYS")
(do (set! allow-other-keys true) (scan tail)))
((= state "required")
(do (append! required item) (scan tail)))
((= state "optional")
(do (append! optional (cl-parse-opt-spec item)) (scan tail)))
((= state "rest")
(do (set! rest-name item) (set! state "done") (scan tail)))
((= state "key")
(do (append! key (cl-parse-key-spec item)) (scan tail)))
((= state "aux")
(do (append! aux (cl-parse-aux-spec item)) (scan tail)))
(:else (scan tail)))))))
(scan forms)
{:required required
:optional optional
:rest rest-name
:key key
:allow-other-keys allow-other-keys
:aux aux})))
;; Convenience: parse lambda list from a CL source string
(define
cl-parse-lambda-list-str
(fn
(src)
(cl-parse-lambda-list (cl-read src))))
;; ── public API ────────────────────────────────────────────────────
(define
cl-read
(fn
(src)
(let
((toks (cl-tokenize src)))
(get (cl-read-form toks) "form"))))
(define
cl-read-all
(fn
(src)
(let
((toks (cl-tokenize src)))
(define
loop
(fn
(toks acc)
(if
(or (not toks) (= (get (nth toks 0) "type") "eof"))
acc
(let
((result (cl-read-form toks)))
(if
(get result "eof")
acc
(loop (get result "rest") (concat acc (list (get result "form")))))))))
(loop toks (list)))))

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;; Common Lisp tokenizer
;;
;; Tokens: {:type T :value V :pos P}
;;
;; Types:
;; "symbol" — FOO, PKG:SYM, PKG::SYM, T, NIL (upcase)
;; "keyword" — :foo (value is upcase name without colon)
;; "integer" — 42, -5, #xFF, #b1010, #o17 (string)
;; "float" — 3.14, 1.0e10 (string)
;; "ratio" — 1/3 (string "N/D")
;; "string" — unescaped content
;; "char" — single-character string
;; "lparen" "rparen" "quote" "backquote" "comma" "comma-at"
;; "hash-quote" — #'
;; "hash-paren" — #(
;; "uninterned" — #:foo (upcase name)
;; "dot" — standalone . (dotted pair separator)
;; "eof"
(define cl-make-tok (fn (type value pos) {:type type :value value :pos pos}))
;; ── char ordinal table ────────────────────────────────────────────
(define
cl-ord-table
(let
((t (dict)) (i 0))
(define
cl-fill
(fn
()
(when
(< i 128)
(do
(dict-set! t (char-from-code i) i)
(set! i (+ i 1))
(cl-fill)))))
(cl-fill)
t))
(define cl-ord (fn (c) (or (get cl-ord-table c) 0)))
;; ── character predicates ──────────────────────────────────────────
(define cl-digit? (fn (c) (and (>= (cl-ord c) 48) (<= (cl-ord c) 57))))
(define
cl-hex?
(fn
(c)
(or
(cl-digit? c)
(and (>= (cl-ord c) 65) (<= (cl-ord c) 70))
(and (>= (cl-ord c) 97) (<= (cl-ord c) 102)))))
(define cl-octal? (fn (c) (and (>= (cl-ord c) 48) (<= (cl-ord c) 55))))
(define cl-binary? (fn (c) (or (= c "0") (= c "1"))))
(define cl-ws? (fn (c) (or (= c " ") (= c "\t") (= c "\n") (= c "\r"))))
(define
cl-alpha?
(fn
(c)
(or
(and (>= (cl-ord c) 65) (<= (cl-ord c) 90))
(and (>= (cl-ord c) 97) (<= (cl-ord c) 122)))))
;; Characters that end a token (whitespace + terminating macro chars)
(define
cl-terminating?
(fn
(c)
(or
(cl-ws? c)
(= c "(")
(= c ")")
(= c "\"")
(= c ";")
(= c "`")
(= c ","))))
;; Symbol constituent: not terminating, not reader-special
(define
cl-sym-char?
(fn
(c)
(not
(or
(cl-terminating? c)
(= c "#")
(= c "|")
(= c "\\")
(= c "'")))))
;; ── named character table ─────────────────────────────────────────
(define
cl-named-chars
{:space " "
:newline "\n"
:tab "\t"
:return "\r"
:backspace (char-from-code 8)
:rubout (char-from-code 127)
:delete (char-from-code 127)
:escape (char-from-code 27)
:altmode (char-from-code 27)
:null (char-from-code 0)
:nul (char-from-code 0)
:page (char-from-code 12)
:formfeed (char-from-code 12)})
;; ── main tokenizer ────────────────────────────────────────────────
(define
cl-tokenize
(fn
(src)
(let
((pos 0) (n (string-length src)) (toks (list)))
(define at (fn () (if (< pos n) (substring src pos (+ pos 1)) nil)))
(define peek1 (fn () (if (< (+ pos 1) n) (substring src (+ pos 1) (+ pos 2)) nil)))
(define adv (fn () (set! pos (+ pos 1))))
;; Advance while predicate holds; return substring from start to end
(define
read-while
(fn
(pred)
(let
((start pos))
(define
rw-loop
(fn
()
(when
(and (at) (pred (at)))
(do (adv) (rw-loop)))))
(rw-loop)
(substring src start pos))))
(define
skip-line
(fn
()
(when
(and (at) (not (= (at) "\n")))
(do (adv) (skip-line)))))
(define
skip-block
(fn
(depth)
(when
(at)
(cond
((and (= (at) "#") (= (peek1) "|"))
(do (adv) (adv) (skip-block (+ depth 1))))
((and (= (at) "|") (= (peek1) "#"))
(do
(adv)
(adv)
(when (> depth 1) (skip-block (- depth 1)))))
(:else (do (adv) (skip-block depth)))))))
;; Read string literal — called with pos just past opening "
(define
read-str
(fn
(acc)
(if
(not (at))
acc
(cond
((= (at) "\"") (do (adv) acc))
((= (at) "\\")
(do
(adv)
(let
((e (at)))
(adv)
(read-str
(str
acc
(cond
((= e "n") "\n")
((= e "t") "\t")
((= e "r") "\r")
((= e "\"") "\"")
((= e "\\") "\\")
(:else e)))))))
(:else
(let
((c (at)))
(adv)
(read-str (str acc c))))))))
;; Read #\ char literal — called with pos just past the backslash
(define
read-char-lit
(fn
()
(let
((first (at)))
(adv)
(let
((rest (if (and (at) (cl-alpha? (at))) (read-while cl-alpha?) "")))
(if
(= rest "")
first
(let
((name (downcase (str first rest))))
(or (get cl-named-chars name) first)))))))
;; Number scanner — called with pos just past first digit(s).
;; acc holds what was already consumed (first digit or sign+digit).
(define
scan-num
(fn
(p acc)
(let
((more (read-while cl-digit?)))
(set! acc (str acc more))
(cond
;; ratio N/D
((and (at) (= (at) "/") (peek1) (cl-digit? (peek1)))
(do
(adv)
(let
((denom (read-while cl-digit?)))
{:type "ratio" :value (str acc "/" denom) :pos p})))
;; float: decimal point N.M[eE]
((and (at) (= (at) ".") (peek1) (cl-digit? (peek1)))
(do
(adv)
(let
((frac (read-while cl-digit?)))
(set! acc (str acc "." frac))
(when
(and (at) (or (= (at) "e") (= (at) "E")))
(do
(set! acc (str acc (at)))
(adv)
(when
(and (at) (or (= (at) "+") (= (at) "-")))
(do (set! acc (str acc (at))) (adv)))
(set! acc (str acc (read-while cl-digit?)))))
{:type "float" :value acc :pos p})))
;; float: exponent only NeE
((and (at) (or (= (at) "e") (= (at) "E")))
(do
(set! acc (str acc (at)))
(adv)
(when
(and (at) (or (= (at) "+") (= (at) "-")))
(do (set! acc (str acc (at))) (adv)))
(set! acc (str acc (read-while cl-digit?)))
{:type "float" :value acc :pos p}))
(:else {:type "integer" :value acc :pos p})))))
(define
read-radix
(fn
(letter p)
(let
((pred
(cond
((or (= letter "x") (= letter "X")) cl-hex?)
((or (= letter "b") (= letter "B")) cl-binary?)
((or (= letter "o") (= letter "O")) cl-octal?)
(:else cl-digit?))))
{:type "integer"
:value (str "#" letter (read-while pred))
:pos p})))
(define emit (fn (tok) (append! toks tok)))
(define
scan
(fn
()
(when
(< pos n)
(let
((c (at)) (p pos))
(cond
((cl-ws? c) (do (adv) (scan)))
((= c ";") (do (adv) (skip-line) (scan)))
((= c "(") (do (adv) (emit (cl-make-tok "lparen" "(" p)) (scan)))
((= c ")") (do (adv) (emit (cl-make-tok "rparen" ")" p)) (scan)))
((= c "'") (do (adv) (emit (cl-make-tok "quote" "'" p)) (scan)))
((= c "`") (do (adv) (emit (cl-make-tok "backquote" "`" p)) (scan)))
((= c ",")
(do
(adv)
(if
(= (at) "@")
(do (adv) (emit (cl-make-tok "comma-at" ",@" p)))
(emit (cl-make-tok "comma" "," p)))
(scan)))
((= c "\"")
(do
(adv)
(emit (cl-make-tok "string" (read-str "") p))
(scan)))
;; :keyword
((= c ":")
(do
(adv)
(emit (cl-make-tok "keyword" (upcase (read-while cl-sym-char?)) p))
(scan)))
;; dispatch macro #
((= c "#")
(do
(adv)
(let
((d (at)))
(cond
((= d "'") (do (adv) (emit (cl-make-tok "hash-quote" "#'" p)) (scan)))
((= d "(") (do (adv) (emit (cl-make-tok "hash-paren" "#(" p)) (scan)))
((= d ":")
(do
(adv)
(emit
(cl-make-tok "uninterned" (upcase (read-while cl-sym-char?)) p))
(scan)))
((= d "|") (do (adv) (skip-block 1) (scan)))
((= d "\\")
(do (adv) (emit (cl-make-tok "char" (read-char-lit) p)) (scan)))
((or (= d "x") (= d "X"))
(do (adv) (emit (read-radix d p)) (scan)))
((or (= d "b") (= d "B"))
(do (adv) (emit (read-radix d p)) (scan)))
((or (= d "o") (= d "O"))
(do (adv) (emit (read-radix d p)) (scan)))
(:else (scan))))))
;; standalone dot, float .5, or symbol starting with dots
((= c ".")
(do
(adv)
(cond
((or (not (at)) (cl-terminating? (at)))
(do (emit (cl-make-tok "dot" "." p)) (scan)))
((cl-digit? (at))
(do
(emit
(cl-make-tok "float" (str "0." (read-while cl-digit?)) p))
(scan)))
(:else
(do
(emit
(cl-make-tok "symbol" (upcase (str "." (read-while cl-sym-char?))) p))
(scan))))))
;; sign followed by digit → number
((and (or (= c "+") (= c "-")) (peek1) (cl-digit? (peek1)))
(do
(adv)
(let
((first-d (at)))
(adv)
(emit (scan-num p (str c first-d))))
(scan)))
;; decimal digit → number
((cl-digit? c)
(do
(adv)
(emit (scan-num p c))
(scan)))
;; symbol constituent (includes bare +, -, etc.)
((cl-sym-char? c)
(do
(emit (cl-make-tok "symbol" (upcase (read-while cl-sym-char?)) p))
(scan)))
(:else (do (adv) (scan))))))))
(scan)
(append! toks (cl-make-tok "eof" nil n))
toks)))

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;; lib/common-lisp/runtime.sx — CL built-ins + condition system on SX
;;
;; Section 1-9: Type predicates, arithmetic, characters, strings, gensym,
;; multiple values, sets, radix formatting, list utilities.
;; Section 10: Condition system (define-condition, signal/error/warn,
;; handler-bind, handler-case, restart-case, invoke-restart).
;;
;; Primitives used from spec:
;; char/char->integer/integer->char/char-upcase/char-downcase
;; format gensym rational/rational? make-set/set-member?/etc
;; modulo/remainder/quotient/gcd/lcm/expt number->string
;; ---------------------------------------------------------------------------
;; 1. Type predicates
;; ---------------------------------------------------------------------------
(define (cl-null? x) (= x nil))
(define (cl-consp? x) (and (list? x) (not (cl-empty? x))))
(define (cl-listp? x) (or (cl-empty? x) (list? x)))
(define (cl-atom? x) (not (cl-consp? x)))
(define
(cl-numberp? x)
(let ((t (type-of x))) (or (= t "number") (= t "rational"))))
(define cl-integerp? integer?)
(define cl-floatp? float?)
(define cl-rationalp? rational?)
(define (cl-realp? x) (or (integer? x) (float? x) (rational? x)))
(define cl-characterp? char?)
(define cl-stringp? (fn (x) (= (type-of x) "string")))
(define cl-symbolp? (fn (x) (= (type-of x) "symbol")))
(define cl-keywordp? (fn (x) (= (type-of x) "keyword")))
(define
(cl-functionp? x)
(let
((t (type-of x)))
(or
(= t "function")
(= t "lambda")
(= t "native-fn")
(= t "component"))))
(define cl-vectorp? vector?)
(define cl-arrayp? vector?)
;; sx_server: (rest (list x)) returns () not nil — cl-empty? handles both
(define
(cl-empty? x)
(or (nil? x) (and (list? x) (= (len x) 0))))
;; ---------------------------------------------------------------------------
;; 2. Arithmetic — thin aliases to spec primitives
;; ---------------------------------------------------------------------------
(define cl-mod modulo)
(define cl-rem remainder)
(define cl-gcd gcd)
(define cl-lcm lcm)
(define cl-expt expt)
(define cl-floor floor)
(define cl-ceiling ceil)
(define cl-truncate truncate)
(define cl-round round)
(define cl-abs (fn (x) (if (< x 0) (- 0 x) x)))
(define cl-min (fn (a b) (if (< a b) a b)))
(define cl-max (fn (a b) (if (> a b) a b)))
(define cl-quotient quotient)
(define
(cl-signum x)
(cond
((> x 0) 1)
((< x 0) -1)
(else 0)))
(define (cl-evenp? n) (= (modulo n 2) 0))
(define (cl-oddp? n) (= (modulo n 2) 1))
(define (cl-zerop? n) (= n 0))
(define (cl-plusp? n) (> n 0))
(define (cl-minusp? n) (< n 0))
;; ---------------------------------------------------------------------------
;; 3. Character functions — alias spec char primitives + CL name mapping
;; ---------------------------------------------------------------------------
(define cl-char->integer char->integer)
(define cl-integer->char integer->char)
(define cl-char-upcase char-upcase)
(define cl-char-downcase char-downcase)
(define cl-char-code char->integer)
(define cl-code-char integer->char)
(define cl-char=? char=?)
(define cl-char<? char<?)
(define cl-char>? char>?)
(define cl-char<=? char<=?)
(define cl-char>=? char>=?)
(define cl-char-ci=? char-ci=?)
(define cl-char-ci<? char-ci<?)
(define cl-char-ci>? char-ci>?)
;; Inline predicates — char-alphabetic?/char-numeric? unreliable in sx_server
(define
(cl-alpha-char-p c)
(let
((n (char->integer c)))
(or
(and (>= n 65) (<= n 90))
(and (>= n 97) (<= n 122)))))
(define
(cl-digit-char-p c)
(let ((n (char->integer c))) (and (>= n 48) (<= n 57))))
(define
(cl-alphanumericp c)
(let
((n (char->integer c)))
(or
(and (>= n 48) (<= n 57))
(and (>= n 65) (<= n 90))
(and (>= n 97) (<= n 122)))))
(define
(cl-upper-case-p c)
(let ((n (char->integer c))) (and (>= n 65) (<= n 90))))
(define
(cl-lower-case-p c)
(let ((n (char->integer c))) (and (>= n 97) (<= n 122))))
;; Named character constants
(define cl-char-space (integer->char 32))
(define cl-char-newline (integer->char 10))
(define cl-char-tab (integer->char 9))
(define cl-char-backspace (integer->char 8))
(define cl-char-return (integer->char 13))
(define cl-char-null (integer->char 0))
(define cl-char-escape (integer->char 27))
(define cl-char-delete (integer->char 127))
;; ---------------------------------------------------------------------------
;; 4. String + IO — use spec format and ports
;; ---------------------------------------------------------------------------
;; CL format: (cl-format nil "~a ~a" x y) — nil destination means return string
(define
(cl-format dest template &rest args)
(let ((s (apply format (cons template args)))) (if (= dest nil) s s)))
(define cl-write-to-string write-to-string)
(define cl-princ-to-string display-to-string)
;; CL read-from-string: parse value from a string using SX port
(define
(cl-read-from-string s)
(let ((p (open-input-string s))) (read p)))
;; String stream (output)
(define cl-make-string-output-stream open-output-string)
(define cl-get-output-stream-string get-output-string)
;; String stream (input)
(define cl-make-string-input-stream open-input-string)
;; ---------------------------------------------------------------------------
;; 5. Gensym
;; ---------------------------------------------------------------------------
(define cl-gensym gensym)
(define cl-gentemp gensym)
;; ---------------------------------------------------------------------------
;; 6. Multiple values (CL: values / nth-value)
;; ---------------------------------------------------------------------------
(define (cl-values &rest args) {:_values true :_list args})
(define
(cl-call-with-values producer consumer)
(let
((mv (producer)))
(if
(and (dict? mv) (get mv :_values))
(apply consumer (get mv :_list))
(consumer mv))))
(define
(cl-nth-value n mv)
(cond
((and (dict? mv) (get mv :_values))
(let
((lst (get mv :_list)))
(if (>= n (len lst)) nil (nth lst n))))
((= n 0) mv)
(else nil)))
;; ---------------------------------------------------------------------------
;; 7. Sets (CL: adjoin / member / union / intersection / set-difference)
;; ---------------------------------------------------------------------------
(define cl-make-set make-set)
(define cl-set? set?)
(define cl-set-add set-add!)
(define cl-set-memberp set-member?)
(define cl-set-remove set-remove!)
(define cl-set-union set-union)
(define cl-set-intersect set-intersection)
(define cl-set-difference set-difference)
(define cl-list->set list->set)
(define cl-set->list set->list)
;; CL: (member item list) — returns tail starting at item, or nil
(define
(cl-member item lst)
(cond
((cl-empty? lst) nil)
((equal? item (first lst)) lst)
(else (cl-member item (rest lst)))))
;; CL: (adjoin item list) — cons only if not already present
(define (cl-adjoin item lst) (if (cl-member item lst) lst (cons item lst)))
;; ---------------------------------------------------------------------------
;; 8. Radix formatting (CL: (write-to-string n :base radix))
;; ---------------------------------------------------------------------------
(define (cl-integer-to-string n radix) (number->string n radix))
(define (cl-string-to-integer s radix) (string->number s radix))
;; CL ~R directive helpers
(define (cl-format-binary n) (number->string n 2))
(define (cl-format-octal n) (number->string n 8))
(define (cl-format-hex n) (number->string n 16))
(define (cl-format-decimal n) (number->string n 10))
;; ---------------------------------------------------------------------------
;; 9. List utilities — cl-empty? guards against () from rest
;; ---------------------------------------------------------------------------
(define
(cl-last lst)
(cond
((cl-empty? lst) nil)
((cl-empty? (rest lst)) lst)
(else (cl-last (rest lst)))))
(define
(cl-butlast lst)
(if
(or (cl-empty? lst) (cl-empty? (rest lst)))
nil
(cons (first lst) (cl-butlast (rest lst)))))
(define
(cl-nthcdr n lst)
(if (= n 0) lst (cl-nthcdr (- n 1) (rest lst))))
(define (cl-nth n lst) (first (cl-nthcdr n lst)))
(define (cl-list-length lst) (len lst))
(define
(cl-copy-list lst)
(if (cl-empty? lst) nil (cons (first lst) (cl-copy-list (rest lst)))))
(define
(cl-flatten lst)
(cond
((cl-empty? lst) nil)
((list? (first lst))
(append (cl-flatten (first lst)) (cl-flatten (rest lst))))
(else (cons (first lst) (cl-flatten (rest lst))))))
;; CL: (assoc key alist) — returns matching pair or nil
(define
(cl-assoc key alist)
(cond
((cl-empty? alist) nil)
((equal? key (first (first alist))) (first alist))
(else (cl-assoc key (rest alist)))))
;; CL: (rassoc val alist) — reverse assoc (match on second element)
(define
(cl-rassoc val alist)
(cond
((cl-empty? alist) nil)
((equal? val (first (rest (first alist)))) (first alist))
(else (cl-rassoc val (rest alist)))))
;; CL: (getf plist key) — property list lookup
(define
(cl-getf plist key)
(cond
((or (cl-empty? plist) (cl-empty? (rest plist))) nil)
((equal? (first plist) key) (first (rest plist)))
(else (cl-getf (rest (rest plist)) key))))
;; ---------------------------------------------------------------------------
;; 10. Condition system (Phase 3)
;;
;; Condition objects:
;; {:cl-type "cl-condition" :class "NAME" :slots {slot-name val ...}}
;;
;; The built-in handler-bind / restart-case expect LITERAL handler specs in
;; source (they operate on the raw AST), so we implement our own handler and
;; restart stacks as mutable SX globals.
;; ---------------------------------------------------------------------------
;; ── condition class registry ───────────────────────────────────────────────
;;
;; Populated at load time with all ANSI standard condition types.
;; Also mutated by cl-define-condition.
(define
cl-condition-classes
(dict
"condition"
{:parents (list) :slots (list) :name "condition"}
"serious-condition"
{:parents (list "condition") :slots (list) :name "serious-condition"}
"error"
{:parents (list "serious-condition") :slots (list) :name "error"}
"warning"
{:parents (list "condition") :slots (list) :name "warning"}
"simple-condition"
{:parents (list "condition") :slots (list "format-control" "format-arguments") :name "simple-condition"}
"simple-error"
{:parents (list "error" "simple-condition") :slots (list "format-control" "format-arguments") :name "simple-error"}
"simple-warning"
{:parents (list "warning" "simple-condition") :slots (list "format-control" "format-arguments") :name "simple-warning"}
"type-error"
{:parents (list "error") :slots (list "datum" "expected-type") :name "type-error"}
"arithmetic-error"
{:parents (list "error") :slots (list "operation" "operands") :name "arithmetic-error"}
"division-by-zero"
{:parents (list "arithmetic-error") :slots (list) :name "division-by-zero"}
"cell-error"
{:parents (list "error") :slots (list "name") :name "cell-error"}
"unbound-variable"
{:parents (list "cell-error") :slots (list) :name "unbound-variable"}
"undefined-function"
{:parents (list "cell-error") :slots (list) :name "undefined-function"}
"program-error"
{:parents (list "error") :slots (list) :name "program-error"}
"storage-condition"
{:parents (list "serious-condition") :slots (list) :name "storage-condition"}))
;; ── condition predicates ───────────────────────────────────────────────────
(define
cl-condition?
(fn (x) (and (dict? x) (= (get x "cl-type") "cl-condition"))))
;; cl-condition-of-type? walks the class hierarchy.
;; We capture cl-condition-classes at define time via let to avoid
;; free-variable scoping issues at call time.
(define
cl-condition-of-type?
(let
((classes cl-condition-classes))
(fn
(c type-name)
(if
(not (cl-condition? c))
false
(let
((class-name (get c "class")))
(define
check
(fn
(n)
(if
(= n type-name)
true
(let
((entry (get classes n)))
(if
(nil? entry)
false
(some (fn (p) (check p)) (get entry "parents")))))))
(check class-name))))))
;; ── condition constructors ─────────────────────────────────────────────────
;; cl-define-condition registers a new condition class.
;; name: string (condition class name)
;; parents: list of strings (parent class names)
;; slot-names: list of strings
(define
cl-define-condition
(fn
(name parents slot-names)
(begin (dict-set! cl-condition-classes name {:parents parents :slots slot-names :name name}) name)))
;; cl-make-condition constructs a condition object.
;; Keyword args (alternating slot-name/value pairs) populate the slots dict.
(define
cl-make-condition
(fn
(name &rest kw-args)
(let
((slots (dict)))
(define
fill
(fn
(args)
(when
(>= (len args) 2)
(begin
(dict-set! slots (first args) (first (rest args)))
(fill (rest (rest args)))))))
(fill kw-args)
{:cl-type "cl-condition" :slots slots :class name})))
;; ── condition accessors ────────────────────────────────────────────────────
(define
cl-condition-slot
(fn
(c slot-name)
(if (cl-condition? c) (get (get c "slots") slot-name) nil)))
(define
cl-condition-message
(fn
(c)
(if
(not (cl-condition? c))
(str c)
(let
((slots (get c "slots")))
(or
(get slots "message")
(get slots "format-control")
(str "Condition: " (get c "class")))))))
(define
cl-simple-condition-format-control
(fn (c) (cl-condition-slot c "format-control")))
(define
cl-simple-condition-format-arguments
(fn (c) (cl-condition-slot c "format-arguments")))
(define cl-type-error-datum (fn (c) (cl-condition-slot c "datum")))
(define
cl-type-error-expected-type
(fn (c) (cl-condition-slot c "expected-type")))
(define
cl-arithmetic-error-operation
(fn (c) (cl-condition-slot c "operation")))
(define
cl-arithmetic-error-operands
(fn (c) (cl-condition-slot c "operands")))
;; ── mutable handler + restart stacks ──────────────────────────────────────
;;
;; Handler entry: {:type "type-name" :fn (fn (condition) result)}
;; Restart entry: {:name "restart-name" :fn (fn (&optional arg) result) :escape k}
;;
;; New handlers are prepended (checked first = most recent handler wins).
(define cl-handler-stack (list))
(define cl-restart-stack (list))
(define
cl-push-handlers
(fn (entries) (set! cl-handler-stack (append entries cl-handler-stack))))
(define
cl-pop-handlers
(fn
(n)
(set! cl-handler-stack (slice cl-handler-stack n (len cl-handler-stack)))))
(define
cl-push-restarts
(fn (entries) (set! cl-restart-stack (append entries cl-restart-stack))))
(define
cl-pop-restarts
(fn
(n)
(set! cl-restart-stack (slice cl-restart-stack n (len cl-restart-stack)))))
;; ── *debugger-hook* + invoke-debugger ────────────────────────────────────
;;
;; cl-debugger-hook: called when an error propagates with no handler.
;; Signature: (fn (condition hook) result). The hook arg is itself
;; (so the hook can rebind it to nil to prevent recursion).
;; nil = use default (re-raise as host error).
(define cl-debugger-hook nil)
(define cl-invoke-debugger
(fn (c)
(if (nil? cl-debugger-hook)
(error (str "Debugger: " (cl-condition-message c)))
(let ((hook cl-debugger-hook))
(set! cl-debugger-hook nil)
(let ((result (hook c hook)))
(set! cl-debugger-hook hook)
result)))))
;; ── *break-on-signals* ────────────────────────────────────────────────────
;;
;; When set to a type name string, cl-signal invokes the debugger hook
;; before walking handlers if the condition is of that type.
;; nil = disabled (ANSI default).
(define cl-break-on-signals nil)
;; ── invoke-restart-interactively ──────────────────────────────────────────
;;
;; Like invoke-restart but calls the restart's fn with no arguments
;; (real CL would prompt the user for each arg via :interactive).
(define cl-invoke-restart-interactively
(fn (name)
(let ((entry (cl-find-restart-entry name cl-restart-stack)))
(if (nil? entry)
(error (str "No active restart: " name))
(let ((restart-fn (get entry "fn"))
(escape (get entry "escape")))
(escape (restart-fn)))))))
;; ── cl-signal (non-unwinding) ─────────────────────────────────────────────
;;
;; Walks cl-handler-stack; for each matching entry, calls the handler fn.
;; Handlers return normally — signal continues to the next matching handler.
(define
cl-signal-obj
(fn
(obj stack)
(if
(empty? stack)
nil
(let
((entry (first stack)))
(if
(cl-condition-of-type? obj (get entry "type"))
(begin ((get entry "fn") obj) (cl-signal-obj obj (rest stack)))
(cl-signal-obj obj (rest stack)))))))
(define cl-signal
(fn (c)
(let ((obj (if (cl-condition? c)
c
(cl-make-condition "simple-condition"
"format-control" (str c)))))
;; *break-on-signals*: invoke debugger hook when type matches
(when (and (not (nil? cl-break-on-signals))
(cl-condition-of-type? obj cl-break-on-signals))
(cl-invoke-debugger obj))
(cl-signal-obj obj cl-handler-stack))))
;; ── cl-error ───────────────────────────────────────────────────────────────
;;
;; Signals an error. If no handler catches it, raises a host-level error.
(define
cl-error
(fn
(c &rest args)
(let
((obj (cond ((cl-condition? c) c) ((string? c) (cl-make-condition "simple-error" "format-control" c "format-arguments" args)) (:else (cl-make-condition "simple-error" "format-control" (str c))))))
(cl-signal-obj obj cl-handler-stack)
(cl-invoke-debugger obj))))
;; ── cl-warn ────────────────────────────────────────────────────────────────
(define
cl-warn
(fn
(c &rest args)
(let
((obj (cond ((cl-condition? c) c) ((string? c) (cl-make-condition "simple-warning" "format-control" c "format-arguments" args)) (:else (cl-make-condition "simple-warning" "format-control" (str c))))))
(cl-signal-obj obj cl-handler-stack))))
;; ── cl-handler-bind (non-unwinding) ───────────────────────────────────────
;;
;; bindings: list of (type-name handler-fn) pairs
;; thunk: (fn () body)
(define
cl-handler-bind
(fn
(bindings thunk)
(let
((entries (map (fn (b) {:fn (first (rest b)) :type (first b)}) bindings)))
(begin
(cl-push-handlers entries)
(let
((result (thunk)))
(begin (cl-pop-handlers (len entries)) result))))))
;; ── cl-handler-case (unwinding) ───────────────────────────────────────────
;;
;; thunk: (fn () body)
;; cases: list of (type-name handler-fn) pairs
;;
;; Uses call/cc for the escape continuation.
(define
cl-handler-case
(fn
(thunk &rest cases)
(call/cc
(fn
(escape)
(let
((entries (map (fn (c) {:fn (fn (x) (escape ((first (rest c)) x))) :type (first c)}) cases)))
(begin
(cl-push-handlers entries)
(let
((result (thunk)))
(begin (cl-pop-handlers (len entries)) result))))))))
;; ── cl-restart-case ────────────────────────────────────────────────────────
;;
;; thunk: (fn () body)
;; restarts: list of (name params body-fn) triples
;; body-fn is (fn () val) or (fn (arg) val)
(define
cl-restart-case
(fn
(thunk &rest restarts)
(call/cc
(fn
(escape)
(let
((entries (map (fn (r) {:fn (first (rest (rest r))) :escape escape :name (first r)}) restarts)))
(begin
(cl-push-restarts entries)
(let
((result (thunk)))
(begin (cl-pop-restarts (len entries)) result))))))))
;; ── cl-with-simple-restart ─────────────────────────────────────────────────
(define
cl-with-simple-restart
(fn
(name description thunk)
(cl-restart-case thunk (list name (list) (fn () nil)))))
;; ── find-restart / invoke-restart / compute-restarts ──────────────────────
(define
cl-find-restart-entry
(fn
(name stack)
(if
(empty? stack)
nil
(let
((entry (first stack)))
(if
(= (get entry "name") name)
entry
(cl-find-restart-entry name (rest stack)))))))
(define
cl-find-restart
(fn (name) (cl-find-restart-entry name cl-restart-stack)))
(define
cl-invoke-restart
(fn
(name &rest args)
(let
((entry (cl-find-restart-entry name cl-restart-stack)))
(if
(nil? entry)
(error (str "No active restart: " name))
(let
((restart-fn (get entry "fn")) (escape (get entry "escape")))
(escape
(if (empty? args) (restart-fn) (restart-fn (first args)))))))))
(define
cl-compute-restarts
(fn () (map (fn (e) (get e "name")) cl-restart-stack)))
;; ── with-condition-restarts (stub — association is advisory) ──────────────
(define cl-with-condition-restarts (fn (c restarts thunk) (thunk)))
;; ── cl-cerror ──────────────────────────────────────────────────────────────
;;
;; Signals a continuable error. The "continue" restart is established;
;; invoke-restart "continue" to proceed past the error.
;; ── cl-cerror ──────────────────────────────────────────────────────────────
;;
;; Signals a continuable error. The "continue" restart is established;
;; invoke-restart "continue" to proceed past the error.
(define cl-cerror
(fn (continue-string c &rest args)
(let ((obj (if (cl-condition? c)
c
(cl-make-condition "simple-error"
"format-control" (str c)
"format-arguments" args))))
(cl-restart-case
(fn () (cl-signal-obj obj cl-handler-stack))
(list "continue" (list) (fn () nil))))))

View File

@@ -0,0 +1,19 @@
{
"generated": "2026-05-05T12:35:09Z",
"total_pass": 518,
"total_fail": 0,
"suites": [
{"name": "Phase 1: tokenizer/reader", "pass": 79, "fail": 0},
{"name": "Phase 1: parser/lambda-lists", "pass": 31, "fail": 0},
{"name": "Phase 2: evaluator", "pass": 182, "fail": 0},
{"name": "Phase 3: condition system", "pass": 59, "fail": 0},
{"name": "Phase 3: restart-demo", "pass": 7, "fail": 0},
{"name": "Phase 3: parse-recover", "pass": 6, "fail": 0},
{"name": "Phase 3: interactive-debugger", "pass": 7, "fail": 0},
{"name": "Phase 4: CLOS", "pass": 41, "fail": 0},
{"name": "Phase 4: geometry", "pass": 12, "fail": 0},
{"name": "Phase 4: mop-trace", "pass": 13, "fail": 0},
{"name": "Phase 5: macros+LOOP", "pass": 27, "fail": 0},
{"name": "Phase 6: stdlib", "pass": 54, "fail": 0}
]
}

View File

@@ -0,0 +1,20 @@
# Common Lisp on SX — Scoreboard
_Generated: 2026-05-05 12:35 UTC_
| Suite | Pass | Fail | Status |
|-------|------|------|--------|
| Phase 1: tokenizer/reader | 79 | 0 | pass |
| Phase 1: parser/lambda-lists | 31 | 0 | pass |
| Phase 2: evaluator | 182 | 0 | pass |
| Phase 3: condition system | 59 | 0 | pass |
| Phase 3: restart-demo | 7 | 0 | pass |
| Phase 3: parse-recover | 6 | 0 | pass |
| Phase 3: interactive-debugger | 7 | 0 | pass |
| Phase 4: CLOS | 41 | 0 | pass |
| Phase 4: geometry | 12 | 0 | pass |
| Phase 4: mop-trace | 13 | 0 | pass |
| Phase 5: macros+LOOP | 27 | 0 | pass |
| Phase 6: stdlib | 54 | 0 | pass |
**Total: 518 passed, 0 failed**

443
lib/common-lisp/test.sh Executable file
View File

@@ -0,0 +1,443 @@
#!/usr/bin/env bash
# lib/common-lisp/test.sh — quick smoke-test the CL runtime layer.
# Uses sx_server.exe epoch protocol (same as lib/lua/test.sh).
#
# Usage:
# bash lib/common-lisp/test.sh
# bash lib/common-lisp/test.sh -v
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found. Run: cd hosts/ocaml && dune build"
exit 1
fi
VERBOSE="${1:-}"
PASS=0; FAIL=0; ERRORS=""
TMPFILE=$(mktemp); trap "rm -f $TMPFILE" EXIT
cat > "$TMPFILE" << 'EPOCHS'
(epoch 1)
(load "spec/stdlib.sx")
(load "lib/common-lisp/runtime.sx")
;; --- Type predicates ---
(epoch 10)
(eval "(cl-null? nil)")
(epoch 11)
(eval "(cl-null? false)")
(epoch 12)
(eval "(cl-consp? (list 1 2))")
(epoch 13)
(eval "(cl-consp? nil)")
(epoch 14)
(eval "(cl-listp? nil)")
(epoch 15)
(eval "(cl-listp? (list 1))")
(epoch 16)
(eval "(cl-atom? nil)")
(epoch 17)
(eval "(cl-atom? (list 1))")
(epoch 18)
(eval "(cl-integerp? 42)")
(epoch 19)
(eval "(cl-floatp? 3.14)")
(epoch 20)
(eval "(cl-characterp? (integer->char 65))")
(epoch 21)
(eval "(cl-stringp? \"hello\")")
;; --- Arithmetic ---
(epoch 30)
(eval "(cl-mod 10 3)")
(epoch 31)
(eval "(cl-rem 10 3)")
(epoch 32)
(eval "(cl-quotient 10 3)")
(epoch 33)
(eval "(cl-gcd 12 8)")
(epoch 34)
(eval "(cl-lcm 4 6)")
(epoch 35)
(eval "(cl-abs -5)")
(epoch 36)
(eval "(cl-abs 5)")
(epoch 37)
(eval "(cl-min 2 7)")
(epoch 38)
(eval "(cl-max 2 7)")
(epoch 39)
(eval "(cl-evenp? 4)")
(epoch 40)
(eval "(cl-evenp? 3)")
(epoch 41)
(eval "(cl-oddp? 7)")
(epoch 42)
(eval "(cl-zerop? 0)")
(epoch 43)
(eval "(cl-plusp? 1)")
(epoch 44)
(eval "(cl-minusp? -1)")
(epoch 45)
(eval "(cl-signum 42)")
(epoch 46)
(eval "(cl-signum -7)")
(epoch 47)
(eval "(cl-signum 0)")
;; --- Characters ---
(epoch 50)
(eval "(cl-char-code (integer->char 65))")
(epoch 51)
(eval "(char? (cl-code-char 65))")
(epoch 52)
(eval "(cl-char=? (integer->char 65) (integer->char 65))")
(epoch 53)
(eval "(cl-char<? (integer->char 65) (integer->char 90))")
(epoch 54)
(eval "(cl-char-code cl-char-space)")
(epoch 55)
(eval "(cl-char-code cl-char-newline)")
(epoch 56)
(eval "(cl-alpha-char-p (integer->char 65))")
(epoch 57)
(eval "(cl-digit-char-p (integer->char 48))")
;; --- Format ---
(epoch 60)
(eval "(cl-format nil \"hello\")")
(epoch 61)
(eval "(cl-format nil \"~a\" \"world\")")
(epoch 62)
(eval "(cl-format nil \"~d\" 42)")
(epoch 63)
(eval "(cl-format nil \"~x\" 255)")
(epoch 64)
(eval "(cl-format nil \"x=~d y=~d\" 3 4)")
;; --- Gensym ---
(epoch 70)
(eval "(= (type-of (cl-gensym)) \"symbol\")")
(epoch 71)
(eval "(not (= (cl-gensym) (cl-gensym)))")
;; --- Sets ---
(epoch 80)
(eval "(cl-set? (cl-make-set))")
(epoch 81)
(eval "(let ((s (cl-make-set))) (do (cl-set-add s 1) (cl-set-memberp s 1)))")
(epoch 82)
(eval "(cl-set-memberp (cl-make-set) 42)")
(epoch 83)
(eval "(cl-set-memberp (cl-list->set (list 1 2 3)) 2)")
;; --- Lists ---
(epoch 90)
(eval "(cl-nth 0 (list 1 2 3))")
(epoch 91)
(eval "(cl-nth 2 (list 1 2 3))")
(epoch 92)
(eval "(cl-last (list 1 2 3))")
(epoch 93)
(eval "(cl-butlast (list 1 2 3))")
(epoch 94)
(eval "(cl-nthcdr 1 (list 1 2 3))")
(epoch 95)
(eval "(cl-assoc \"b\" (list (list \"a\" 1) (list \"b\" 2)))")
(epoch 96)
(eval "(cl-assoc \"z\" (list (list \"a\" 1)))")
(epoch 97)
(eval "(cl-getf (list \"x\" 42 \"y\" 99) \"x\")")
(epoch 98)
(eval "(cl-adjoin 0 (list 1 2))")
(epoch 99)
(eval "(cl-adjoin 1 (list 1 2))")
(epoch 100)
(eval "(cl-member 2 (list 1 2 3))")
(epoch 101)
(eval "(cl-member 9 (list 1 2 3))")
(epoch 102)
(eval "(cl-flatten (list 1 (list 2 3) 4))")
;; --- Radix ---
(epoch 110)
(eval "(cl-format-binary 10)")
(epoch 111)
(eval "(cl-format-octal 15)")
(epoch 112)
(eval "(cl-format-hex 255)")
(epoch 113)
(eval "(cl-format-decimal 42)")
(epoch 114)
(eval "(cl-integer-to-string 31 16)")
(epoch 115)
(eval "(cl-string-to-integer \"1f\" 16)")
EPOCHS
OUTPUT=$(timeout 30 "$SX_SERVER" < "$TMPFILE" 2>/dev/null)
check() {
local epoch="$1" desc="$2" expected="$3"
local actual
# ok-len format: value appears on the line AFTER "(ok-len N length)"
actual=$(echo "$OUTPUT" | grep -A1 "^(ok-len $epoch " | tail -1 || true)
# strip any leading "(ok-len ...)" if grep -A1 returned it instead
if echo "$actual" | grep -q "^(ok-len"; then actual=""; fi
if [ -z "$actual" ]; then
actual=$(echo "$OUTPUT" | grep "^(ok $epoch " | head -1 || true)
fi
if [ -z "$actual" ]; then
actual=$(echo "$OUTPUT" | grep "^(error $epoch " | head -1 || true)
fi
[ -z "$actual" ] && actual="<no output for epoch $epoch>"
if echo "$actual" | grep -qF -- "$expected"; then
PASS=$((PASS+1))
[ "$VERBOSE" = "-v" ] && echo " ok $desc"
else
FAIL=$((FAIL+1))
ERRORS+=" FAIL [$desc] (epoch $epoch) expected: $expected | actual: $actual
"
fi
}
# Type predicates
check 10 "cl-null? nil" "true"
check 11 "cl-null? false" "false"
check 12 "cl-consp? pair" "true"
check 13 "cl-consp? nil" "false"
check 14 "cl-listp? nil" "true"
check 15 "cl-listp? list" "true"
check 16 "cl-atom? nil" "true"
check 17 "cl-atom? pair" "false"
check 18 "cl-integerp?" "true"
check 19 "cl-floatp?" "true"
check 20 "cl-characterp?" "true"
check 21 "cl-stringp?" "true"
# Arithmetic
check 30 "cl-mod 10 3" "1"
check 31 "cl-rem 10 3" "1"
check 32 "cl-quotient 10 3" "3"
check 33 "cl-gcd 12 8" "4"
check 34 "cl-lcm 4 6" "12"
check 35 "cl-abs -5" "5"
check 36 "cl-abs 5" "5"
check 37 "cl-min 2 7" "2"
check 38 "cl-max 2 7" "7"
check 39 "cl-evenp? 4" "true"
check 40 "cl-evenp? 3" "false"
check 41 "cl-oddp? 7" "true"
check 42 "cl-zerop? 0" "true"
check 43 "cl-plusp? 1" "true"
check 44 "cl-minusp? -1" "true"
check 45 "cl-signum pos" "1"
check 46 "cl-signum neg" "-1"
check 47 "cl-signum zero" "0"
# Characters
check 50 "cl-char-code" "65"
check 51 "code-char returns char" "true"
check 52 "cl-char=?" "true"
check 53 "cl-char<?" "true"
check 54 "cl-char-space code" "32"
check 55 "cl-char-newline code" "10"
check 56 "cl-alpha-char-p A" "true"
check 57 "cl-digit-char-p 0" "true"
# Format
check 60 "cl-format plain" '"hello"'
check 61 "cl-format ~a" '"world"'
check 62 "cl-format ~d" '"42"'
check 63 "cl-format ~x" '"ff"'
check 64 "cl-format multi" '"x=3 y=4"'
# Gensym
check 70 "gensym returns symbol" "true"
check 71 "gensyms are unique" "true"
# Sets
check 80 "make-set is set?" "true"
check 81 "set-add + member" "true"
check 82 "member in empty" "false"
check 83 "list->set member" "true"
# Lists
check 90 "cl-nth 0" "1"
check 91 "cl-nth 2" "3"
check 92 "cl-last" "(3)"
check 93 "cl-butlast" "(1 2)"
check 94 "cl-nthcdr 1" "(2 3)"
check 95 "cl-assoc hit" '("b" 2)'
check 96 "cl-assoc miss" "nil"
check 97 "cl-getf hit" "42"
check 98 "cl-adjoin new" "(0 1 2)"
check 99 "cl-adjoin dup" "(1 2)"
check 100 "cl-member hit" "(2 3)"
check 101 "cl-member miss" "nil"
check 102 "cl-flatten" "(1 2 3 4)"
# Radix
check 110 "cl-format-binary 10" '"1010"'
check 111 "cl-format-octal 15" '"17"'
check 112 "cl-format-hex 255" '"ff"'
check 113 "cl-format-decimal 42" '"42"'
check 114 "n->s base 16" '"1f"'
check 115 "s->n base 16" "31"
# ── Phase 2: condition system unit tests ─────────────────────────────────────
# Load runtime.sx then conditions.sx; query the passed/failed/failures globals.
UNIT_FILE=$(mktemp); trap "rm -f $UNIT_FILE" EXIT
cat > "$UNIT_FILE" << 'UNIT'
(epoch 1)
(load "spec/stdlib.sx")
(epoch 2)
(load "lib/common-lisp/runtime.sx")
(epoch 3)
(load "lib/common-lisp/tests/conditions.sx")
(epoch 4)
(eval "passed")
(epoch 5)
(eval "failed")
(epoch 6)
(eval "failures")
UNIT
UNIT_OUT=$(timeout 30 "$SX_SERVER" < "$UNIT_FILE" 2>/dev/null)
# extract passed/failed counts from ok-len lines
UNIT_PASSED=$(echo "$UNIT_OUT" | grep -A1 "^(ok-len 4 " | tail -1 || true)
UNIT_FAILED=$(echo "$UNIT_OUT" | grep -A1 "^(ok-len 5 " | tail -1 || true)
UNIT_ERRS=$(echo "$UNIT_OUT" | grep -A1 "^(ok-len 6 " | tail -1 || true)
# fallback: try plain ok lines
[ -z "$UNIT_PASSED" ] && UNIT_PASSED=$(echo "$UNIT_OUT" | grep "^(ok 4 " | awk '{print $3}' | tr -d ')' || true)
[ -z "$UNIT_FAILED" ] && UNIT_FAILED=$(echo "$UNIT_OUT" | grep "^(ok 5 " | awk '{print $3}' | tr -d ')' || true)
[ -z "$UNIT_PASSED" ] && UNIT_PASSED=0
[ -z "$UNIT_FAILED" ] && UNIT_FAILED=0
if [ "$UNIT_FAILED" = "0" ] && [ "$UNIT_PASSED" -gt 0 ] 2>/dev/null; then
PASS=$((PASS + UNIT_PASSED))
[ "$VERBOSE" = "-v" ] && echo " ok condition tests ($UNIT_PASSED)"
else
FAIL=$((FAIL + 1))
ERRORS+=" FAIL [condition tests] (${UNIT_PASSED} passed, ${UNIT_FAILED} failed) ${UNIT_ERRS}
"
fi
# ── Phase 3: classic program tests ───────────────────────────────────────────
run_program_suite() {
local prog="$1" pass_var="$2" fail_var="$3" failures_var="$4"
local PROG_FILE=$(mktemp)
printf '(epoch 1)\n(load "spec/stdlib.sx")\n(epoch 2)\n(load "lib/common-lisp/runtime.sx")\n(epoch 3)\n(load "%s")\n(epoch 4)\n(eval "%s")\n(epoch 5)\n(eval "%s")\n(epoch 6)\n(eval "%s")\n' \
"$prog" "$pass_var" "$fail_var" "$failures_var" > "$PROG_FILE"
local OUT; OUT=$(timeout 20 "$SX_SERVER" < "$PROG_FILE" 2>/dev/null)
rm -f "$PROG_FILE"
local P F
P=$(echo "$OUT" | grep -A1 "^(ok-len 4 " | tail -1 || true)
F=$(echo "$OUT" | grep -A1 "^(ok-len 5 " | tail -1 || true)
local ERRS; ERRS=$(echo "$OUT" | grep -A1 "^(ok-len 6 " | tail -1 || true)
[ -z "$P" ] && P=0; [ -z "$F" ] && F=0
if [ "$F" = "0" ] && [ "$P" -gt 0 ] 2>/dev/null; then
PASS=$((PASS + P))
[ "$VERBOSE" = "-v" ] && echo " ok $prog ($P)"
else
FAIL=$((FAIL + 1))
ERRORS+=" FAIL [$prog] (${P} passed, ${F} failed) ${ERRS}
"
fi
}
run_program_suite \
"lib/common-lisp/tests/programs/restart-demo.sx" \
"demo-passed" "demo-failed" "demo-failures"
run_program_suite \
"lib/common-lisp/tests/programs/parse-recover.sx" \
"parse-passed" "parse-failed" "parse-failures"
run_program_suite \
"lib/common-lisp/tests/programs/interactive-debugger.sx" \
"debugger-passed" "debugger-failed" "debugger-failures"
# ── Phase 4: CLOS unit tests ─────────────────────────────────────────────────
CLOS_FILE=$(mktemp); trap "rm -f $CLOS_FILE" EXIT
printf '(epoch 1)\n(load "spec/stdlib.sx")\n(epoch 2)\n(load "lib/common-lisp/runtime.sx")\n(epoch 3)\n(load "lib/common-lisp/clos.sx")\n(epoch 4)\n(load "lib/common-lisp/tests/clos.sx")\n(epoch 5)\n(eval "passed")\n(epoch 6)\n(eval "failed")\n(epoch 7)\n(eval "failures")\n' > "$CLOS_FILE"
CLOS_OUT=$(timeout 30 "$SX_SERVER" < "$CLOS_FILE" 2>/dev/null)
rm -f "$CLOS_FILE"
CLOS_PASSED=$(echo "$CLOS_OUT" | grep -A1 "^(ok-len 5 " | tail -1 || true)
CLOS_FAILED=$(echo "$CLOS_OUT" | grep -A1 "^(ok-len 6 " | tail -1 || true)
[ -z "$CLOS_PASSED" ] && CLOS_PASSED=$(echo "$CLOS_OUT" | grep "^(ok 5 " | awk '{print $3}' | tr -d ')' || true)
[ -z "$CLOS_FAILED" ] && CLOS_FAILED=$(echo "$CLOS_OUT" | grep "^(ok 6 " | awk '{print $3}' | tr -d ')' || true)
[ -z "$CLOS_PASSED" ] && CLOS_PASSED=0; [ -z "$CLOS_FAILED" ] && CLOS_FAILED=0
if [ "$CLOS_FAILED" = "0" ] && [ "$CLOS_PASSED" -gt 0 ] 2>/dev/null; then
PASS=$((PASS + CLOS_PASSED))
[ "$VERBOSE" = "-v" ] && echo " ok CLOS unit tests ($CLOS_PASSED)"
else
FAIL=$((FAIL + 1))
ERRORS+=" FAIL [CLOS unit tests] (${CLOS_PASSED} passed, ${CLOS_FAILED} failed)
"
fi
# ── Phase 4: CLOS classic programs ───────────────────────────────────────────
run_clos_suite() {
local prog="$1" pass_var="$2" fail_var="$3" failures_var="$4"
local PROG_FILE=$(mktemp)
printf '(epoch 1)\n(load "spec/stdlib.sx")\n(epoch 2)\n(load "lib/common-lisp/runtime.sx")\n(epoch 3)\n(load "lib/common-lisp/clos.sx")\n(epoch 4)\n(load "%s")\n(epoch 5)\n(eval "%s")\n(epoch 6)\n(eval "%s")\n(epoch 7)\n(eval "%s")\n' \
"$prog" "$pass_var" "$fail_var" "$failures_var" > "$PROG_FILE"
local OUT; OUT=$(timeout 20 "$SX_SERVER" < "$PROG_FILE" 2>/dev/null)
rm -f "$PROG_FILE"
local P F
P=$(echo "$OUT" | grep -A1 "^(ok-len 5 " | tail -1 || true)
F=$(echo "$OUT" | grep -A1 "^(ok-len 6 " | tail -1 || true)
local ERRS; ERRS=$(echo "$OUT" | grep -A1 "^(ok-len 7 " | tail -1 || true)
[ -z "$P" ] && P=0; [ -z "$F" ] && F=0
if [ "$F" = "0" ] && [ "$P" -gt 0 ] 2>/dev/null; then
PASS=$((PASS + P))
[ "$VERBOSE" = "-v" ] && echo " ok $prog ($P)"
else
FAIL=$((FAIL + 1))
ERRORS+=" FAIL [$prog] (${P} passed, ${F} failed) ${ERRS}
"
fi
}
run_clos_suite \
"lib/common-lisp/tests/programs/geometry.sx" \
"geo-passed" "geo-failed" "geo-failures"
run_clos_suite \
"lib/common-lisp/tests/programs/mop-trace.sx" \
"mop-passed" "mop-failed" "mop-failures"
# ── Phase 5: macros + LOOP ───────────────────────────────────────────────────
MACRO_FILE=$(mktemp); trap "rm -f $MACRO_FILE" EXIT
printf '(epoch 1)\n(load "spec/stdlib.sx")\n(epoch 2)\n(load "lib/common-lisp/reader.sx")\n(epoch 3)\n(load "lib/common-lisp/parser.sx")\n(epoch 4)\n(load "lib/common-lisp/eval.sx")\n(epoch 5)\n(load "lib/common-lisp/loop.sx")\n(epoch 6)\n(load "lib/common-lisp/tests/macros.sx")\n(epoch 7)\n(eval "macro-passed")\n(epoch 8)\n(eval "macro-failed")\n(epoch 9)\n(eval "macro-failures")\n' > "$MACRO_FILE"
MACRO_OUT=$(timeout 60 "$SX_SERVER" < "$MACRO_FILE" 2>/dev/null)
rm -f "$MACRO_FILE"
MACRO_PASSED=$(echo "$MACRO_OUT" | grep -A1 "^(ok-len 7 " | tail -1 || true)
MACRO_FAILED=$(echo "$MACRO_OUT" | grep -A1 "^(ok-len 8 " | tail -1 || true)
[ -z "$MACRO_PASSED" ] && MACRO_PASSED=0; [ -z "$MACRO_FAILED" ] && MACRO_FAILED=0
if [ "$MACRO_FAILED" = "0" ] && [ "$MACRO_PASSED" -gt 0 ] 2>/dev/null; then
PASS=$((PASS + MACRO_PASSED))
[ "$VERBOSE" = "-v" ] && echo " ok Phase 5 macros+LOOP ($MACRO_PASSED)"
else
FAIL=$((FAIL + 1))
ERRORS+=" FAIL [Phase 5 macros+LOOP] (${MACRO_PASSED} passed, ${MACRO_FAILED} failed)
"
fi
TOTAL=$((PASS+FAIL))
if [ $FAIL -eq 0 ]; then
echo "ok $PASS/$TOTAL lib/common-lisp tests passed"
else
echo "FAIL $PASS/$TOTAL passed, $FAIL failed:"
echo "$ERRORS"
fi
[ $FAIL -eq 0 ]

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@@ -0,0 +1,334 @@
;; lib/common-lisp/tests/clos.sx — CLOS test suite
;;
;; Loaded after: spec/stdlib.sx, lib/common-lisp/runtime.sx, lib/common-lisp/clos.sx
(define passed 0)
(define failed 0)
(define failures (list))
(define
assert-equal
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
(define
assert-true
(fn
(label got)
(if
got
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str "FAIL [" label "]: expected true, got " (inspect got)))))))))
(define
assert-nil
(fn
(label got)
(if
(nil? got)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list (str "FAIL [" label "]: expected nil, got " (inspect got)))))))))
;; ── 1. class-of for built-in types ────────────────────────────────────────
(assert-equal "class-of integer" (clos-class-of 42) "integer")
(assert-equal "class-of float" (clos-class-of 3.14) "float")
(assert-equal "class-of string" (clos-class-of "hi") "string")
(assert-equal "class-of nil" (clos-class-of nil) "null")
(assert-equal "class-of list" (clos-class-of (list 1)) "cons")
(assert-equal "class-of empty" (clos-class-of (list)) "null")
;; ── 2. subclass-of? ───────────────────────────────────────────────────────
(assert-true "integer subclass-of t" (clos-subclass-of? "integer" "t"))
(assert-true "float subclass-of t" (clos-subclass-of? "float" "t"))
(assert-true "t subclass-of t" (clos-subclass-of? "t" "t"))
(assert-equal
"integer not subclass-of float"
(clos-subclass-of? "integer" "float")
false)
;; ── 3. defclass + make-instance ───────────────────────────────────────────
(clos-defclass "point" (list "t") (list {:initform 0 :initarg ":x" :reader nil :writer nil :accessor "point-x" :name "x"} {:initform 0 :initarg ":y" :reader nil :writer nil :accessor "point-y" :name "y"}))
(let
((p (clos-make-instance "point" ":x" 3 ":y" 4)))
(begin
(assert-equal "make-instance slot x" (clos-slot-value p "x") 3)
(assert-equal "make-instance slot y" (clos-slot-value p "y") 4)
(assert-equal "class-of instance" (clos-class-of p) "point")
(assert-true "instance-of? point" (clos-instance-of? p "point"))
(assert-true "instance-of? t" (clos-instance-of? p "t"))
(assert-equal "instance-of? string" (clos-instance-of? p "string") false)))
;; initform defaults
(let
((p0 (clos-make-instance "point")))
(begin
(assert-equal "initform default x=0" (clos-slot-value p0 "x") 0)
(assert-equal "initform default y=0" (clos-slot-value p0 "y") 0)))
;; ── 4. slot-value / set-slot-value! ──────────────────────────────────────
(let
((p (clos-make-instance "point" ":x" 10 ":y" 20)))
(begin
(clos-set-slot-value! p "x" 99)
(assert-equal "set-slot-value! x" (clos-slot-value p "x") 99)
(assert-equal "slot-value y unchanged" (clos-slot-value p "y") 20)))
;; ── 5. slot-boundp ────────────────────────────────────────────────────────
(let
((p (clos-make-instance "point" ":x" 5)))
(begin
(assert-true "slot-boundp x" (clos-slot-boundp p "x"))
(assert-true "slot-boundp y (initform 0)" (clos-slot-boundp p "y"))))
;; ── 6. find-class ─────────────────────────────────────────────────────────
(assert-equal
"find-class point"
(get (clos-find-class "point") "name")
"point")
(assert-nil "find-class missing" (clos-find-class "no-such-class"))
;; ── 7. inheritance ────────────────────────────────────────────────────────
(clos-defclass "colored-point" (list "point") (list {:initform "white" :initarg ":color" :reader nil :writer nil :accessor nil :name "color"}))
(let
((cp (clos-make-instance "colored-point" ":x" 1 ":y" 2 ":color" "red")))
(begin
(assert-equal "inherited slot x" (clos-slot-value cp "x") 1)
(assert-equal "inherited slot y" (clos-slot-value cp "y") 2)
(assert-equal "own slot color" (clos-slot-value cp "color") "red")
(assert-true
"instance-of? colored-point"
(clos-instance-of? cp "colored-point"))
(assert-true "instance-of? point (parent)" (clos-instance-of? cp "point"))
(assert-true "instance-of? t (root)" (clos-instance-of? cp "t"))))
;; ── 8. defgeneric + primary method ───────────────────────────────────────
(clos-defgeneric "describe-obj" {})
(clos-defmethod
"describe-obj"
(list)
(list "point")
(fn
(args next-fn)
(let
((p (first args)))
(str "(" (clos-slot-value p "x") "," (clos-slot-value p "y") ")"))))
(clos-defmethod
"describe-obj"
(list)
(list "t")
(fn (args next-fn) (str "object:" (inspect (first args)))))
(let
((p (clos-make-instance "point" ":x" 3 ":y" 4)))
(begin
(assert-equal
"primary method for point"
(clos-call-generic "describe-obj" (list p))
"(3,4)")
(assert-equal
"fallback t method"
(clos-call-generic "describe-obj" (list 42))
"object:42")))
;; ── 9. method inheritance + specificity ───────────────────────────────────
(clos-defmethod
"describe-obj"
(list)
(list "colored-point")
(fn
(args next-fn)
(let
((cp (first args)))
(str
(clos-slot-value cp "color")
"@("
(clos-slot-value cp "x")
","
(clos-slot-value cp "y")
")"))))
(let
((cp (clos-make-instance "colored-point" ":x" 5 ":y" 6 ":color" "blue")))
(assert-equal
"most specific method wins"
(clos-call-generic "describe-obj" (list cp))
"blue@(5,6)"))
;; ── 10. :before / :after / :around qualifiers ─────────────────────────────
(clos-defgeneric "logged-action" {})
(clos-defmethod
"logged-action"
(list "before")
(list "t")
(fn (args next-fn) (set! action-log (append action-log (list "before")))))
(clos-defmethod
"logged-action"
(list)
(list "t")
(fn
(args next-fn)
(set! action-log (append action-log (list "primary")))
"result"))
(clos-defmethod
"logged-action"
(list "after")
(list "t")
(fn (args next-fn) (set! action-log (append action-log (list "after")))))
(define action-log (list))
(clos-call-generic "logged-action" (list 1))
(assert-equal
":before/:after order"
action-log
(list "before" "primary" "after"))
;; :around
(define around-log (list))
(clos-defgeneric "wrapped-action" {})
(clos-defmethod
"wrapped-action"
(list "around")
(list "t")
(fn
(args next-fn)
(set! around-log (append around-log (list "around-enter")))
(let
((r (next-fn)))
(set! around-log (append around-log (list "around-exit")))
r)))
(clos-defmethod
"wrapped-action"
(list)
(list "t")
(fn
(args next-fn)
(set! around-log (append around-log (list "primary")))
42))
(let
((r (clos-call-generic "wrapped-action" (list nil))))
(begin
(assert-equal ":around result" r 42)
(assert-equal
":around log"
around-log
(list "around-enter" "primary" "around-exit"))))
;; ── 11. call-next-method ─────────────────────────────────────────────────
(clos-defgeneric "chain-test" {})
(clos-defmethod
"chain-test"
(list)
(list "colored-point")
(fn (args next-fn) (str "colored:" (clos-call-next-method next-fn))))
(clos-defmethod
"chain-test"
(list)
(list "point")
(fn (args next-fn) "point-base"))
(let
((cp (clos-make-instance "colored-point" ":x" 0 ":y" 0 ":color" "green")))
(assert-equal
"call-next-method chains"
(clos-call-generic "chain-test" (list cp))
"colored:point-base"))
;; ── 12. accessor methods ──────────────────────────────────────────────────
(let
((p (clos-make-instance "point" ":x" 7 ":y" 8)))
(begin
(assert-equal
"accessor point-x"
(clos-call-generic "point-x" (list p))
7)
(assert-equal
"accessor point-y"
(clos-call-generic "point-y" (list p))
8)))
;; ── 13. with-slots ────────────────────────────────────────────────────────
(let
((p (clos-make-instance "point" ":x" 3 ":y" 4)))
(assert-equal
"with-slots"
(clos-with-slots p (list "x" "y") (fn (x y) (* x y)))
12))
;; ── 14. change-class ─────────────────────────────────────────────────────
(clos-defclass "special-point" (list "point") (list {:initform "" :initarg ":label" :reader nil :writer nil :accessor nil :name "label"}))
(let
((p (clos-make-instance "point" ":x" 1 ":y" 2)))
(begin
(clos-change-class! p "special-point")
(assert-equal
"change-class updates class"
(clos-class-of p)
"special-point")))
;; ── summary ────────────────────────────────────────────────────────────────
(if
(= failed 0)
(print (str "ok " passed "/" (+ passed failed) " CLOS tests passed"))
(begin
(for-each (fn (f) (print f)) failures)
(print
(str "FAIL " passed "/" (+ passed failed) " passed, " failed " failed"))))

View File

@@ -0,0 +1,478 @@
;; lib/common-lisp/tests/conditions.sx — Phase 3 condition system tests
;;
;; Loaded by lib/common-lisp/test.sh after:
;; (load "spec/stdlib.sx")
;; (load "lib/common-lisp/runtime.sx")
;;
;; Each test resets the handler/restart stacks to ensure isolation.
(define
reset-stacks!
(fn () (set! cl-handler-stack (list)) (set! cl-restart-stack (list))))
;; ── helpers ────────────────────────────────────────────────────────────────
(define passed 0)
(define failed 0)
(define failures (list))
(define
assert-equal
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
(define
assert-true
(fn
(label got)
(if
got
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str "FAIL [" label "]: expected true, got " (inspect got)))))))))
(define
assert-nil
(fn
(label got)
(if
(nil? got)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list (str "FAIL [" label "]: expected nil, got " (inspect got)))))))))
;; ── 1. condition predicates ────────────────────────────────────────────────
(reset-stacks!)
(let
((c (cl-make-condition "simple-error" "format-control" "oops")))
(begin
(assert-true "cl-condition? on condition" (cl-condition? c))
(assert-equal "cl-condition? on string" (cl-condition? "hello") false)
(assert-equal "cl-condition? on number" (cl-condition? 42) false)
(assert-equal "cl-condition? on nil" (cl-condition? nil) false)))
;; ── 2. cl-make-condition + slot access ────────────────────────────────────
(reset-stacks!)
(let
((c (cl-make-condition "simple-error" "format-control" "msg" "format-arguments" (list 1 2))))
(begin
(assert-equal "class field" (get c "class") "simple-error")
(assert-equal "cl-type field" (get c "cl-type") "cl-condition")
(assert-equal
"format-control slot"
(cl-condition-slot c "format-control")
"msg")
(assert-equal
"format-arguments slot"
(cl-condition-slot c "format-arguments")
(list 1 2))
(assert-nil "missing slot is nil" (cl-condition-slot c "no-such-slot"))
(assert-equal "condition-message" (cl-condition-message c) "msg")))
;; ── 3. cl-condition-of-type? — hierarchy walking ─────────────────────────
(reset-stacks!)
(let
((se (cl-make-condition "simple-error" "format-control" "x"))
(w (cl-make-condition "simple-warning" "format-control" "y"))
(te
(cl-make-condition
"type-error"
"datum"
5
"expected-type"
"string"))
(dz (cl-make-condition "division-by-zero")))
(begin
(assert-true
"se isa simple-error"
(cl-condition-of-type? se "simple-error"))
(assert-true "se isa error" (cl-condition-of-type? se "error"))
(assert-true
"se isa serious-condition"
(cl-condition-of-type? se "serious-condition"))
(assert-true "se isa condition" (cl-condition-of-type? se "condition"))
(assert-equal
"se not isa warning"
(cl-condition-of-type? se "warning")
false)
(assert-true
"w isa simple-warning"
(cl-condition-of-type? w "simple-warning"))
(assert-true "w isa warning" (cl-condition-of-type? w "warning"))
(assert-true "w isa condition" (cl-condition-of-type? w "condition"))
(assert-equal "w not isa error" (cl-condition-of-type? w "error") false)
(assert-true "te isa type-error" (cl-condition-of-type? te "type-error"))
(assert-true "te isa error" (cl-condition-of-type? te "error"))
(assert-true
"dz isa division-by-zero"
(cl-condition-of-type? dz "division-by-zero"))
(assert-true
"dz isa arithmetic-error"
(cl-condition-of-type? dz "arithmetic-error"))
(assert-true "dz isa error" (cl-condition-of-type? dz "error"))
(assert-equal
"non-condition not isa anything"
(cl-condition-of-type? 42 "error")
false)))
;; ── 4. cl-define-condition ────────────────────────────────────────────────
(reset-stacks!)
(begin
(cl-define-condition "my-app-error" (list "error") (list "code" "detail"))
(let
((c (cl-make-condition "my-app-error" "code" 404 "detail" "not found")))
(begin
(assert-true "user condition: cl-condition?" (cl-condition? c))
(assert-true
"user condition isa my-app-error"
(cl-condition-of-type? c "my-app-error"))
(assert-true
"user condition isa error"
(cl-condition-of-type? c "error"))
(assert-true
"user condition isa condition"
(cl-condition-of-type? c "condition"))
(assert-equal
"user condition slot code"
(cl-condition-slot c "code")
404)
(assert-equal
"user condition slot detail"
(cl-condition-slot c "detail")
"not found"))))
;; ── 5. cl-handler-bind (non-unwinding) ───────────────────────────────────
(reset-stacks!)
(let
((log (list)))
(begin
(cl-handler-bind
(list
(list
"error"
(fn (c) (set! log (append log (list (cl-condition-message c)))))))
(fn
()
(cl-signal (cl-make-condition "simple-error" "format-control" "oops"))))
(assert-equal "handler-bind: handler fired" log (list "oops"))))
(reset-stacks!)
;; Non-unwinding: body continues after signal
(let
((body-ran false))
(begin
(cl-handler-bind
(list (list "error" (fn (c) nil)))
(fn
()
(cl-signal (cl-make-condition "simple-error" "format-control" "x"))
(set! body-ran true)))
(assert-true "handler-bind: body continues after signal" body-ran)))
(reset-stacks!)
;; Type filtering: warning handler does not fire for error
(let
((w-fired false))
(begin
(cl-handler-bind
(list (list "warning" (fn (c) (set! w-fired true))))
(fn
()
(cl-signal (cl-make-condition "simple-error" "format-control" "e"))))
(assert-equal
"handler-bind: type filter (warning ignores error)"
w-fired
false)))
(reset-stacks!)
;; Multiple handlers: both matching handlers fire
(let
((log (list)))
(begin
(cl-handler-bind
(list
(list "error" (fn (c) (set! log (append log (list "e1")))))
(list "condition" (fn (c) (set! log (append log (list "e2"))))))
(fn
()
(cl-signal (cl-make-condition "simple-error" "format-control" "x"))))
(assert-equal "handler-bind: both handlers fire" log (list "e1" "e2"))))
(reset-stacks!)
;; ── 6. cl-handler-case (unwinding) ───────────────────────────────────────
;; Catches error, returns handler result
(let
((result (cl-handler-case (fn () (cl-error "boom") 99) (list "error" (fn (c) (str "caught: " (cl-condition-message c)))))))
(assert-equal "handler-case: catches error" result "caught: boom"))
(reset-stacks!)
;; Returns body result when no signal
(let
((result (cl-handler-case (fn () 42) (list "error" (fn (c) -1)))))
(assert-equal "handler-case: body result" result 42))
(reset-stacks!)
;; Only first matching handler runs (unwinding)
(let
((result (cl-handler-case (fn () (cl-error "x")) (list "simple-error" (fn (c) "simple")) (list "error" (fn (c) "error")))))
(assert-equal "handler-case: most specific wins" result "simple"))
(reset-stacks!)
;; ── 7. cl-warn ────────────────────────────────────────────────────────────
(let
((warned false))
(begin
(cl-handler-bind
(list (list "warning" (fn (c) (set! warned true))))
(fn () (cl-warn "be careful")))
(assert-true "cl-warn: fires warning handler" warned)))
(reset-stacks!)
;; Warn with condition object
(let
((msg ""))
(begin
(cl-handler-bind
(list (list "warning" (fn (c) (set! msg (cl-condition-message c)))))
(fn
()
(cl-warn
(cl-make-condition "simple-warning" "format-control" "take care"))))
(assert-equal "cl-warn: condition object" msg "take care")))
(reset-stacks!)
;; ── 8. cl-restart-case + cl-invoke-restart ───────────────────────────────
;; Basic restart invocation
(let
((result (cl-restart-case (fn () (cl-invoke-restart "use-zero")) (list "use-zero" (list) (fn () 0)))))
(assert-equal "restart-case: invoke-restart use-zero" result 0))
(reset-stacks!)
;; Restart with argument
(let
((result (cl-restart-case (fn () (cl-invoke-restart "use-value" 77)) (list "use-value" (list "v") (fn (v) v)))))
(assert-equal "restart-case: invoke-restart with arg" result 77))
(reset-stacks!)
;; Body returns normally when restart not invoked
(let
((result (cl-restart-case (fn () 42) (list "never-used" (list) (fn () -1)))))
(assert-equal "restart-case: body result" result 42))
(reset-stacks!)
;; ── 9. cl-with-simple-restart ─────────────────────────────────────────────
(let
((result (cl-with-simple-restart "skip" "Skip this step" (fn () (cl-invoke-restart "skip") 99))))
(assert-nil "with-simple-restart: invoke returns nil" result))
(reset-stacks!)
;; ── 10. cl-find-restart ───────────────────────────────────────────────────
(let
((found (cl-restart-case (fn () (cl-find-restart "retry")) (list "retry" (list) (fn () nil)))))
(assert-true "find-restart: finds active restart" (not (nil? found))))
(reset-stacks!)
(let
((not-found (cl-restart-case (fn () (cl-find-restart "nonexistent")) (list "retry" (list) (fn () nil)))))
(assert-nil "find-restart: nil for inactive restart" not-found))
(reset-stacks!)
;; ── 11. cl-compute-restarts ───────────────────────────────────────────────
(let
((names (cl-restart-case (fn () (cl-restart-case (fn () (cl-compute-restarts)) (list "inner" (list) (fn () nil)))) (list "outer" (list) (fn () nil)))))
(assert-equal
"compute-restarts: both restarts"
names
(list "inner" "outer")))
(reset-stacks!)
;; ── 12. handler-bind + restart-case interop ───────────────────────────────
;; Classic CL pattern: error handler invokes a restart
(let
((result (cl-restart-case (fn () (cl-handler-bind (list (list "error" (fn (c) (cl-invoke-restart "use-zero")))) (fn () (cl-error "divide by zero")))) (list "use-zero" (list) (fn () 0)))))
(assert-equal "interop: handler invokes restart" result 0))
(reset-stacks!)
;; ── 13. cl-cerror ─────────────────────────────────────────────────────────
;; When "continue" restart is invoked, cerror returns nil
(let
((result (cl-restart-case (fn () (cl-cerror "continue anyway" "something bad") 42) (list "continue" (list) (fn () "resumed")))))
(assert-true
"cerror: returns"
(or (nil? result) (= result 42) (= result "resumed"))))
(reset-stacks!)
;; ── 14. slot accessor helpers ─────────────────────────────────────────────
(let
((c (cl-make-condition "simple-error" "format-control" "msg" "format-arguments" (list 1 2))))
(begin
(assert-equal
"simple-condition-format-control"
(cl-simple-condition-format-control c)
"msg")
(assert-equal
"simple-condition-format-arguments"
(cl-simple-condition-format-arguments c)
(list 1 2))))
(let
((c (cl-make-condition "type-error" "datum" 42 "expected-type" "string")))
(begin
(assert-equal "type-error-datum" (cl-type-error-datum c) 42)
(assert-equal
"type-error-expected-type"
(cl-type-error-expected-type c)
"string")))
(let
((c (cl-make-condition "arithmetic-error" "operation" "/" "operands" (list 1 0))))
(begin
(assert-equal
"arithmetic-error-operation"
(cl-arithmetic-error-operation c)
"/")
(assert-equal
"arithmetic-error-operands"
(cl-arithmetic-error-operands c)
(list 1 0))))
;; ── 15. *debugger-hook* ───────────────────────────────────────────────────
(reset-stacks!)
(let ((received nil))
(begin
(set! cl-debugger-hook
(fn (c h)
(set! received (cl-condition-message c))
(cl-invoke-restart "escape")))
(cl-restart-case
(fn () (cl-error "debugger test"))
(list "escape" (list) (fn () nil)))
(set! cl-debugger-hook nil)
(assert-equal "debugger-hook receives condition" received "debugger test")))
(reset-stacks!)
;; ── 16. *break-on-signals* ────────────────────────────────────────────────
(reset-stacks!)
(let ((triggered false))
(begin
(set! cl-break-on-signals "error")
(set! cl-debugger-hook
(fn (c h)
(set! triggered true)
(cl-invoke-restart "abort")))
(cl-restart-case
(fn ()
(cl-signal (cl-make-condition "simple-error" "format-control" "x")))
(list "abort" (list) (fn () nil)))
(set! cl-break-on-signals nil)
(set! cl-debugger-hook nil)
(assert-true "break-on-signals fires hook" triggered)))
(reset-stacks!)
;; break-on-signals: non-matching type does NOT fire hook
(let ((triggered false))
(begin
(set! cl-break-on-signals "error")
(set! cl-debugger-hook
(fn (c h) (set! triggered true) nil))
(cl-handler-bind
(list (list "warning" (fn (c) nil)))
(fn ()
(cl-signal (cl-make-condition "simple-warning" "format-control" "w"))))
(set! cl-break-on-signals nil)
(set! cl-debugger-hook nil)
(assert-equal "break-on-signals: type mismatch not triggered" triggered false)))
(reset-stacks!)
;; ── 17. cl-invoke-restart-interactively ──────────────────────────────────
(let ((result
(cl-restart-case
(fn () (cl-invoke-restart-interactively "use-default"))
(list "use-default" (list) (fn () 99)))))
(assert-equal "invoke-restart-interactively: returns restart value" result 99))
(reset-stacks!)
;; ── summary ────────────────────────────────────────────────────────────────
(if
(= failed 0)
(print (str "ok " passed "/" (+ passed failed) " condition tests passed"))
(begin
(for-each (fn (f) (print f)) failures)
(print
(str "FAIL " passed "/" (+ passed failed) " passed, " failed " failed"))))

View File

@@ -0,0 +1,466 @@
;; CL evaluator tests
(define cl-test-pass 0)
(define cl-test-fail 0)
(define cl-test-fails (list))
(define
cl-deep=
(fn
(a b)
(cond
((= a b) true)
((and (dict? a) (dict? b))
(let
((ak (keys a)) (bk (keys b)))
(if
(not (= (len ak) (len bk)))
false
(every?
(fn (k) (and (has-key? b k) (cl-deep= (get a k) (get b k))))
ak))))
((and (list? a) (list? b))
(if
(not (= (len a) (len b)))
false
(let
((i 0) (ok true))
(define
chk
(fn
()
(when
(and ok (< i (len a)))
(do
(when
(not (cl-deep= (nth a i) (nth b i)))
(set! ok false))
(set! i (+ i 1))
(chk)))))
(chk)
ok)))
(:else false))))
(define
cl-test
(fn
(name actual expected)
(if
(cl-deep= actual expected)
(set! cl-test-pass (+ cl-test-pass 1))
(do
(set! cl-test-fail (+ cl-test-fail 1))
(append! cl-test-fails {:name name :expected expected :actual actual})))))
;; Convenience: evaluate CL string with fresh env each time
(define ev (fn (src) (cl-eval-str src (cl-make-env))))
(define evall (fn (src) (cl-eval-all-str src (cl-make-env))))
;; ── self-evaluating literals ──────────────────────────────────────
(cl-test "lit: nil" (ev "nil") nil)
(cl-test "lit: t" (ev "t") true)
(cl-test "lit: integer" (ev "42") 42)
(cl-test "lit: negative" (ev "-7") -7)
(cl-test "lit: zero" (ev "0") 0)
(cl-test "lit: string" (ev "\"hello\"") "hello")
(cl-test "lit: empty string" (ev "\"\"") "")
(cl-test "lit: keyword type" (get (ev ":foo") "cl-type") "keyword")
(cl-test "lit: keyword name" (get (ev ":foo") "name") "FOO")
(cl-test "lit: float type" (get (ev "3.14") "cl-type") "float")
;; ── QUOTE ─────────────────────────────────────────────────────────
(cl-test "quote: symbol" (ev "'x") "X")
(cl-test "quote: list" (ev "'(a b c)") (list "A" "B" "C"))
(cl-test "quote: nil" (ev "'nil") nil)
(cl-test "quote: integer" (ev "'42") 42)
(cl-test "quote: nested" (ev "'(a (b c))") (list "A" (list "B" "C")))
;; ── IF ────────────────────────────────────────────────────────────
(cl-test "if: true branch" (ev "(if t 1 2)") 1)
(cl-test "if: false branch" (ev "(if nil 1 2)") 2)
(cl-test "if: no else nil" (ev "(if nil 99)") nil)
(cl-test "if: number truthy" (ev "(if 0 'yes 'no)") "YES")
(cl-test "if: empty string truthy" (ev "(if \"\" 'yes 'no)") "YES")
(cl-test "if: nested" (ev "(if t (if nil 1 2) 3)") 2)
;; ── PROGN ────────────────────────────────────────────────────────
(cl-test "progn: single" (ev "(progn 42)") 42)
(cl-test "progn: multiple" (ev "(progn 1 2 3)") 3)
(cl-test "progn: nil last" (ev "(progn 1 nil)") nil)
;; ── AND / OR ─────────────────────────────────────────────────────
(cl-test "and: empty" (ev "(and)") true)
(cl-test "and: all true" (ev "(and 1 2 3)") 3)
(cl-test "and: short-circuit" (ev "(and nil 99)") nil)
(cl-test "and: returns last" (ev "(and 1 2)") 2)
(cl-test "or: empty" (ev "(or)") nil)
(cl-test "or: first truthy" (ev "(or 1 2)") 1)
(cl-test "or: all nil" (ev "(or nil nil)") nil)
(cl-test "or: short-circuit" (ev "(or nil 42)") 42)
;; ── COND ─────────────────────────────────────────────────────────
(cl-test "cond: first match" (ev "(cond (t 1) (t 2))") 1)
(cl-test "cond: second match" (ev "(cond (nil 1) (t 2))") 2)
(cl-test "cond: no match" (ev "(cond (nil 1) (nil 2))") nil)
(cl-test "cond: returns test value" (ev "(cond (42))") 42)
;; ── WHEN / UNLESS ─────────────────────────────────────────────────
(cl-test "when: true" (ev "(when t 1 2 3)") 3)
(cl-test "when: nil" (ev "(when nil 99)") nil)
(cl-test "unless: nil runs" (ev "(unless nil 42)") 42)
(cl-test "unless: true skips" (ev "(unless t 99)") nil)
;; ── LET ──────────────────────────────────────────────────────────
(cl-test "let: empty bindings" (ev "(let () 42)") 42)
(cl-test "let: single binding" (ev "(let ((x 5)) x)") 5)
(cl-test "let: two bindings" (ev "(let ((x 3) (y 4)) (+ x y))") 7)
(cl-test "let: parallel" (ev "(let ((x 1)) (let ((x 2) (y x)) y))") 1)
(cl-test "let: nested" (ev "(let ((x 1)) (let ((y 2)) (+ x y)))") 3)
(cl-test "let: progn body" (ev "(let ((x 5)) (+ x 1) (* x 2))") 10)
(cl-test "let: bare name nil" (ev "(let (x) x)") nil)
;; ── LET* ─────────────────────────────────────────────────────────
(cl-test "let*: sequential" (ev "(let* ((x 1) (y (+ x 1))) y)") 2)
(cl-test "let*: chain" (ev "(let* ((a 2) (b (* a 3)) (c (+ b 1))) c)") 7)
(cl-test "let*: shadow" (ev "(let ((x 1)) (let* ((x 2) (y x)) y))") 2)
;; ── SETQ / SETF ──────────────────────────────────────────────────
(cl-test "setq: basic" (ev "(let ((x 0)) (setq x 5) x)") 5)
(cl-test "setq: returns value" (ev "(let ((x 0)) (setq x 99))") 99)
(cl-test "setf: basic" (ev "(let ((x 0)) (setf x 7) x)") 7)
;; ── LAMBDA ────────────────────────────────────────────────────────
(cl-test "lambda: call" (ev "((lambda (x) x) 42)") 42)
(cl-test "lambda: multi-arg" (ev "((lambda (x y) (+ x y)) 3 4)") 7)
(cl-test "lambda: closure" (ev "(let ((n 10)) ((lambda (x) (+ x n)) 5))") 15)
(cl-test "lambda: rest arg"
(ev "((lambda (x &rest xs) (cons x xs)) 1 2 3)")
{:cl-type "cons" :car 1 :cdr (list 2 3)})
(cl-test "lambda: optional no default"
(ev "((lambda (&optional x) x))")
nil)
(cl-test "lambda: optional with arg"
(ev "((lambda (&optional (x 99)) x) 42)")
42)
(cl-test "lambda: optional default used"
(ev "((lambda (&optional (x 7)) x))")
7)
;; ── FUNCTION ─────────────────────────────────────────────────────
(cl-test "function: lambda" (get (ev "(function (lambda (x) x))") "cl-type") "function")
;; ── DEFUN ────────────────────────────────────────────────────────
(cl-test "defun: returns name" (evall "(defun sq (x) (* x x))") "SQ")
(cl-test "defun: call" (evall "(defun sq (x) (* x x)) (sq 5)") 25)
(cl-test "defun: multi-arg" (evall "(defun add (x y) (+ x y)) (add 3 4)") 7)
(cl-test "defun: recursive factorial"
(evall "(defun fact (n) (if (<= n 1) 1 (* n (fact (- n 1))))) (fact 5)")
120)
(cl-test "defun: multiple calls"
(evall "(defun double (x) (* x 2)) (+ (double 3) (double 5))")
16)
;; ── FLET ─────────────────────────────────────────────────────────
(cl-test "flet: basic"
(ev "(flet ((double (x) (* x 2))) (double 5))")
10)
(cl-test "flet: sees outer vars"
(ev "(let ((n 3)) (flet ((add-n (x) (+ x n))) (add-n 7)))")
10)
(cl-test "flet: non-recursive"
(ev "(flet ((f (x) (+ x 1))) (flet ((f (x) (f (f x)))) (f 5)))")
7)
;; ── LABELS ────────────────────────────────────────────────────────
(cl-test "labels: basic"
(ev "(labels ((greet (x) x)) (greet 42))")
42)
(cl-test "labels: recursive"
(ev "(labels ((count (n) (if (<= n 0) 0 (+ 1 (count (- n 1)))))) (count 5))")
5)
(cl-test "labels: mutual recursion"
(ev "(labels
((even? (n) (if (= n 0) t (odd? (- n 1))))
(odd? (n) (if (= n 0) nil (even? (- n 1)))))
(list (even? 4) (odd? 3)))")
(list true true))
;; ── THE / LOCALLY / EVAL-WHEN ────────────────────────────────────
(cl-test "the: passthrough" (ev "(the integer 42)") 42)
(cl-test "the: string" (ev "(the string \"hi\")") "hi")
(cl-test "locally: body" (ev "(locally 1 2 3)") 3)
(cl-test "eval-when: execute" (ev "(eval-when (:execute) 99)") 99)
(cl-test "eval-when: no execute" (ev "(eval-when (:compile-toplevel) 99)") nil)
;; ── DEFVAR / DEFPARAMETER ────────────────────────────────────────
(cl-test "defvar: returns name" (evall "(defvar *x* 10)") "*X*")
(cl-test "defparameter: sets value" (evall "(defparameter *y* 42) *y*") 42)
(cl-test "defvar: no reinit" (evall "(defvar *z* 1) (defvar *z* 99) *z*") 1)
;; ── built-in arithmetic ───────────────────────────────────────────
(cl-test "arith: +" (ev "(+ 1 2 3)") 6)
(cl-test "arith: + zero" (ev "(+)") 0)
(cl-test "arith: -" (ev "(- 10 3 2)") 5)
(cl-test "arith: - negate" (ev "(- 5)") -5)
(cl-test "arith: *" (ev "(* 2 3 4)") 24)
(cl-test "arith: * one" (ev "(*)") 1)
(cl-test "arith: /" (ev "(/ 12 3)") 4)
(cl-test "arith: max" (ev "(max 3 1 4 1 5)") 5)
(cl-test "arith: min" (ev "(min 3 1 4 1 5)") 1)
(cl-test "arith: abs neg" (ev "(abs -7)") 7)
(cl-test "arith: abs pos" (ev "(abs 7)") 7)
;; ── built-in comparisons ──────────────────────────────────────────
(cl-test "cmp: = true" (ev "(= 3 3)") true)
(cl-test "cmp: = false" (ev "(= 3 4)") nil)
(cl-test "cmp: /=" (ev "(/= 3 4)") true)
(cl-test "cmp: <" (ev "(< 1 2)") true)
(cl-test "cmp: > false" (ev "(> 1 2)") nil)
(cl-test "cmp: <=" (ev "(<= 2 2)") true)
;; ── built-in predicates ───────────────────────────────────────────
(cl-test "pred: null nil" (ev "(null nil)") true)
(cl-test "pred: null non-nil" (ev "(null 5)") nil)
(cl-test "pred: not nil" (ev "(not nil)") true)
(cl-test "pred: not truthy" (ev "(not 5)") nil)
(cl-test "pred: numberp" (ev "(numberp 5)") true)
(cl-test "pred: numberp str" (ev "(numberp \"x\")") nil)
(cl-test "pred: stringp" (ev "(stringp \"hello\")") true)
(cl-test "pred: listp list" (ev "(listp '(1))") true)
(cl-test "pred: listp nil" (ev "(listp nil)") true)
(cl-test "pred: zerop" (ev "(zerop 0)") true)
(cl-test "pred: plusp" (ev "(plusp 3)") true)
(cl-test "pred: evenp" (ev "(evenp 4)") true)
(cl-test "pred: oddp" (ev "(oddp 3)") true)
;; ── built-in list ops ─────────────────────────────────────────────
(cl-test "list: car" (ev "(car '(1 2 3))") 1)
(cl-test "list: cdr" (ev "(cdr '(1 2 3))") (list 2 3))
(cl-test "list: cons" (get (ev "(cons 1 2)") "car") 1)
(cl-test "list: list fn" (ev "(list 1 2 3)") (list 1 2 3))
(cl-test "list: length" (ev "(length '(a b c))") 3)
(cl-test "list: length nil" (ev "(length nil)") 0)
(cl-test "list: append" (ev "(append '(1 2) '(3 4))") (list 1 2 3 4))
(cl-test "list: first" (ev "(first '(10 20 30))") 10)
(cl-test "list: second" (ev "(second '(10 20 30))") 20)
(cl-test "list: third" (ev "(third '(10 20 30))") 30)
(cl-test "list: rest" (ev "(rest '(1 2 3))") (list 2 3))
(cl-test "list: nth" (ev "(nth 1 '(a b c))") "B")
(cl-test "list: reverse" (ev "(reverse '(1 2 3))") (list 3 2 1))
;; ── FUNCALL / APPLY / MAPCAR ─────────────────────────────────────
(cl-test "funcall: lambda"
(ev "(funcall (lambda (x) (* x x)) 5)")
25)
(cl-test "apply: basic"
(ev "(apply #'+ '(1 2 3))")
6)
(cl-test "apply: leading args"
(ev "(apply #'+ 1 2 '(3 4))")
10)
(cl-test "mapcar: basic"
(ev "(mapcar (lambda (x) (* x 2)) '(1 2 3))")
(list 2 4 6))
;; ── BLOCK / RETURN-FROM / RETURN ─────────────────────────────────
(cl-test "block: last form value"
(ev "(block done 1 2 3)")
3)
(cl-test "block: empty body"
(ev "(block done)")
nil)
(cl-test "block: single form"
(ev "(block foo 42)")
42)
(cl-test "block: return-from"
(ev "(block done 1 (return-from done 99) 2)")
99)
(cl-test "block: return-from nil block"
(ev "(block nil 1 (return-from nil 42) 3)")
42)
(cl-test "block: return-from no value"
(ev "(block done (return-from done))")
nil)
(cl-test "block: nested inner return stays inner"
(ev "(block outer (block inner (return-from inner 1) 2) 3)")
3)
(cl-test "block: nested outer return"
(ev "(block outer (block inner 1 2) (return-from outer 99) 3)")
99)
(cl-test "return: shorthand for nil block"
(ev "(block nil (return 77))")
77)
(cl-test "return: no value"
(ev "(block nil 1 (return) 2)")
nil)
(cl-test "block: return-from inside let"
(ev "(block done (let ((x 5)) (when (> x 3) (return-from done x))) 0)")
5)
(cl-test "block: return-from inside progn"
(ev "(block done (progn (return-from done 7) 99))")
7)
(cl-test "block: return-from through function"
(ev "(block done (flet ((f () (return-from done 42))) (f)) nil)")
42)
;; ── TAGBODY / GO ─────────────────────────────────────────────────
(cl-test "tagbody: empty returns nil"
(ev "(tagbody)")
nil)
(cl-test "tagbody: forms only, returns nil"
(ev "(let ((x 0)) (tagbody (setq x 1) (setq x 2)) x)")
2)
(cl-test "tagbody: tag only, returns nil"
(ev "(tagbody done)")
nil)
(cl-test "tagbody: go skips forms"
(ev "(let ((x 0)) (tagbody (go done) (setq x 99) done) x)")
0)
(cl-test "tagbody: go to later tag"
(ev "(let ((x 0)) (tagbody start (setq x (+ x 1)) (go done) (setq x 99) done) x)")
1)
(cl-test "tagbody: loop with counter"
(ev "(let ((n 0)) (tagbody loop (when (>= n 3) (go done)) (setq n (+ n 1)) (go loop) done) n)")
3)
(cl-test "tagbody: go inside when"
(ev "(let ((x 0)) (tagbody (setq x 1) (when t (go done)) (setq x 99) done) x)")
1)
(cl-test "tagbody: go inside progn"
(ev "(let ((x 0)) (tagbody (progn (setq x 1) (go done)) (setq x 99) done) x)")
1)
(cl-test "tagbody: go inside let"
(ev "(let ((acc 0)) (tagbody (let ((y 5)) (when (> y 3) (go done))) (setq acc 99) done) acc)")
0)
(cl-test "tagbody: integer tags"
(ev "(let ((x 0)) (tagbody (go 2) 1 (setq x 1) (go 3) 2 (setq x 2) (go 3) 3) x)")
2)
(cl-test "tagbody: block-return propagates out"
(ev "(block done (tagbody (return-from done 42)) nil)")
42)
;; ── UNWIND-PROTECT ───────────────────────────────────────────────
(cl-test "unwind-protect: normal returns protected"
(ev "(unwind-protect 42 nil)")
42)
(cl-test "unwind-protect: cleanup runs"
(ev "(let ((x 0)) (unwind-protect 1 (setq x 99)) x)")
99)
(cl-test "unwind-protect: cleanup result ignored"
(ev "(unwind-protect 42 777)")
42)
(cl-test "unwind-protect: multiple cleanup forms"
(ev "(let ((x 0)) (unwind-protect 1 (setq x (+ x 1)) (setq x (+ x 1))) x)")
2)
(cl-test "unwind-protect: cleanup on return-from"
(ev "(let ((x 0)) (block done (unwind-protect (return-from done 7) (setq x 99))) x)")
99)
(cl-test "unwind-protect: return-from still propagates"
(ev "(block done (unwind-protect (return-from done 42) nil))")
42)
(cl-test "unwind-protect: cleanup on go"
(ev "(let ((x 0)) (tagbody (unwind-protect (go done) (setq x 1)) done) x)")
1)
(cl-test "unwind-protect: nested, inner cleanup first"
(ev "(let ((n 0)) (unwind-protect (unwind-protect 1 (setq n (+ n 10))) (setq n (+ n 1))) n)")
11)
;; ── VALUES / MULTIPLE-VALUE-BIND / NTH-VALUE ────────────────────
(cl-test "values: single returns plain"
(ev "(values 42)")
42)
(cl-test "values: zero returns nil"
(ev "(values)")
nil)
(cl-test "values: multi — primary via funcall"
(ev "(car (list (values 1 2)))")
1)
(cl-test "multiple-value-bind: basic"
(ev "(multiple-value-bind (a b) (values 1 2) (+ a b))")
3)
(cl-test "multiple-value-bind: extra vars get nil"
(ev "(multiple-value-bind (a b c) (values 10 20) (list a b c))")
(list 10 20 nil))
(cl-test "multiple-value-bind: extra values ignored"
(ev "(multiple-value-bind (a) (values 1 2 3) a)")
1)
(cl-test "multiple-value-bind: single value source"
(ev "(multiple-value-bind (a b) 42 (list a b))")
(list 42 nil))
(cl-test "nth-value: 0"
(ev "(nth-value 0 (values 10 20 30))")
10)
(cl-test "nth-value: 1"
(ev "(nth-value 1 (values 10 20 30))")
20)
(cl-test "nth-value: out of range"
(ev "(nth-value 5 (values 10 20))")
nil)
(cl-test "multiple-value-call: basic"
(ev "(multiple-value-call #'+ (values 1 2) (values 3 4))")
10)
(cl-test "multiple-value-prog1: returns first"
(ev "(multiple-value-prog1 1 2 3)")
1)
(cl-test "multiple-value-prog1: side effects run"
(ev "(let ((x 0)) (multiple-value-prog1 99 (setq x 7)) x)")
7)
(cl-test "values: nil primary in if"
(ev "(if (values nil t) 'yes 'no)")
"NO")
(cl-test "values: truthy primary in if"
(ev "(if (values 42 nil) 'yes 'no)")
"YES")
;; --- Dynamic variables ---
(cl-test "defvar marks special"
(do (ev "(defvar *dv* 10)")
(cl-special? "*DV*"))
true)
(cl-test "defvar: let rebinds dynamically"
(ev "(progn (defvar *x* 1) (defun get-x () *x*) (let ((*x* 99)) (get-x)))")
99)
(cl-test "defvar: binding restores after let"
(ev "(progn (defvar *yrst* 5) (let ((*yrst* 42)) *yrst*) *yrst*)")
5)
(cl-test "defparameter marks special"
(do (ev "(defparameter *dp* 0)")
(cl-special? "*DP*"))
true)
(cl-test "defparameter: let rebinds dynamically"
(ev "(progn (defparameter *z* 10) (defun get-z () *z*) (let ((*z* 77)) (get-z)))")
77)
(cl-test "defparameter: always assigns"
(ev "(progn (defparameter *p* 1) (defparameter *p* 2) *p*)")
2)
(cl-test "dynamic binding: nested lets"
(ev "(progn (defvar *n* 0) (let ((*n* 1)) (let ((*n* 2)) *n*)))")
2)
(cl-test "dynamic binding: restores across nesting"
(ev "(progn (defvar *m* 10) (let ((*m* 20)) (let ((*m* 30)) nil)) *m*)")
10)

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@@ -0,0 +1,204 @@
;; Lambda list parser tests
(define cl-test-pass 0)
(define cl-test-fail 0)
(define cl-test-fails (list))
;; Deep structural equality for dicts and lists
(define
cl-deep=
(fn
(a b)
(cond
((= a b) true)
((and (dict? a) (dict? b))
(let
((ak (keys a)) (bk (keys b)))
(if
(not (= (len ak) (len bk)))
false
(every?
(fn (k) (and (has-key? b k) (cl-deep= (get a k) (get b k))))
ak))))
((and (list? a) (list? b))
(if
(not (= (len a) (len b)))
false
(let
((i 0) (ok true))
(define
chk
(fn
()
(when
(and ok (< i (len a)))
(do
(when
(not (cl-deep= (nth a i) (nth b i)))
(set! ok false))
(set! i (+ i 1))
(chk)))))
(chk)
ok)))
(:else false))))
(define
cl-test
(fn
(name actual expected)
(if
(cl-deep= actual expected)
(set! cl-test-pass (+ cl-test-pass 1))
(do
(set! cl-test-fail (+ cl-test-fail 1))
(append! cl-test-fails {:name name :expected expected :actual actual})))))
;; Helper: parse lambda list from string "(x y ...)"
(define ll (fn (src) (cl-parse-lambda-list-str src)))
(define ll-req (fn (src) (get (ll src) "required")))
(define ll-opt (fn (src) (get (ll src) "optional")))
(define ll-rest (fn (src) (get (ll src) "rest")))
(define ll-key (fn (src) (get (ll src) "key")))
(define ll-aok (fn (src) (get (ll src) "allow-other-keys")))
(define ll-aux (fn (src) (get (ll src) "aux")))
;; ── required parameters ───────────────────────────────────────────
(cl-test "required: empty" (ll-req "()") (list))
(cl-test "required: one" (ll-req "(x)") (list "X"))
(cl-test "required: two" (ll-req "(x y)") (list "X" "Y"))
(cl-test "required: three" (ll-req "(a b c)") (list "A" "B" "C"))
(cl-test "required: upcased" (ll-req "(foo bar)") (list "FOO" "BAR"))
;; ── &optional ─────────────────────────────────────────────────────
(cl-test "optional: none" (ll-opt "(x)") (list))
(cl-test
"optional: bare symbol"
(ll-opt "(x &optional z)")
(list {:name "Z" :default nil :supplied nil}))
(cl-test
"optional: with default"
(ll-opt "(x &optional (z 0))")
(list {:name "Z" :default 0 :supplied nil}))
(cl-test
"optional: with supplied-p"
(ll-opt "(x &optional (z 0 z-p))")
(list {:name "Z" :default 0 :supplied "Z-P"}))
(cl-test
"optional: two params"
(ll-opt "(&optional a (b 1))")
(list {:name "A" :default nil :supplied nil} {:name "B" :default 1 :supplied nil}))
(cl-test
"optional: string default"
(ll-opt "(&optional (name \"world\"))")
(list {:name "NAME" :default {:cl-type "string" :value "world"} :supplied nil}))
;; ── &rest ─────────────────────────────────────────────────────────
(cl-test "rest: none" (ll-rest "(x)") nil)
(cl-test "rest: present" (ll-rest "(x &rest args)") "ARGS")
(cl-test "rest: with required" (ll-rest "(a b &rest tail)") "TAIL")
;; &body is an alias for &rest
(cl-test "body: alias for rest" (ll-rest "(&body forms)") "FORMS")
;; rest doesn't consume required params
(cl-test "rest: required still there" (ll-req "(a b &rest rest)") (list "A" "B"))
;; ── &key ──────────────────────────────────────────────────────────
(cl-test "key: none" (ll-key "(x)") (list))
(cl-test
"key: bare symbol"
(ll-key "(&key x)")
(list {:name "X" :keyword "X" :default nil :supplied nil}))
(cl-test
"key: with default"
(ll-key "(&key (x 42))")
(list {:name "X" :keyword "X" :default 42 :supplied nil}))
(cl-test
"key: with supplied-p"
(ll-key "(&key (x 42 x-p))")
(list {:name "X" :keyword "X" :default 42 :supplied "X-P"}))
(cl-test
"key: two params"
(ll-key "(&key a b)")
(list
{:name "A" :keyword "A" :default nil :supplied nil}
{:name "B" :keyword "B" :default nil :supplied nil}))
;; ── &allow-other-keys ─────────────────────────────────────────────
(cl-test "aok: absent" (ll-aok "(x)") false)
(cl-test "aok: present" (ll-aok "(&key x &allow-other-keys)") true)
;; ── &aux ──────────────────────────────────────────────────────────
(cl-test "aux: none" (ll-aux "(x)") (list))
(cl-test
"aux: bare symbol"
(ll-aux "(&aux temp)")
(list {:name "TEMP" :init nil}))
(cl-test
"aux: with init"
(ll-aux "(&aux (count 0))")
(list {:name "COUNT" :init 0}))
(cl-test
"aux: two vars"
(ll-aux "(&aux a (b 1))")
(list {:name "A" :init nil} {:name "B" :init 1}))
;; ── combined ──────────────────────────────────────────────────────
(cl-test
"combined: full lambda list"
(let
((parsed (ll "(x y &optional (z 0 z-p) &rest args &key a (b nil b-p) &aux temp)")))
(list
(get parsed "required")
(get (nth (get parsed "optional") 0) "name")
(get (nth (get parsed "optional") 0) "default")
(get (nth (get parsed "optional") 0) "supplied")
(get parsed "rest")
(get (nth (get parsed "key") 0) "name")
(get (nth (get parsed "key") 1) "supplied")
(get (nth (get parsed "aux") 0) "name")))
(list
(list "X" "Y")
"Z"
0
"Z-P"
"ARGS"
"A"
"B-P"
"TEMP"))
(cl-test
"combined: required only stops before &"
(ll-req "(a b &optional c)")
(list "A" "B"))
(cl-test
"combined: required only with &key"
(ll-req "(x &key y)")
(list "X"))
(cl-test
"combined: &rest and &key together"
(let
((parsed (ll "(&rest args &key verbose)")))
(list (get parsed "rest") (get (nth (get parsed "key") 0) "name")))
(list "ARGS" "VERBOSE"))

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@@ -0,0 +1,204 @@
;; lib/common-lisp/tests/macros.sx — Phase 5: defmacro, gensym, LOOP tests
;;
;; Depends on: runtime.sx, eval.sx, loop.sx already loaded.
;; Tests via (ev "...") using the CL evaluator.
(define ev (fn (src) (cl-eval-str src (cl-make-env))))
(define evall (fn (src) (cl-eval-all-str src (cl-make-env))))
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
;; ── defmacro basics ──────────────────────────────────────────────────────────
(check
"defmacro returns name"
(ev "(defmacro my-or (a b) (list 'if a a b))")
"MY-OR")
(check
"defmacro expansion works"
(ev "(progn (defmacro my-inc (x) (list '+ x 1)) (my-inc 5))")
6)
(check
"defmacro with &rest"
(ev "(progn (defmacro my-list (&rest xs) (cons 'list xs)) (my-list 1 2 3))")
(list 1 2 3))
(check
"nested macro expansion"
(ev "(progn (defmacro sq (x) (list '* x x)) (sq 7))")
49)
(check
"macro in conditional"
(ev
"(progn (defmacro my-when (c &rest body) (list 'if c (cons 'progn body) nil)) (my-when t 10 20))")
20)
(check
"macro returns nil branch"
(ev
"(progn (defmacro my-when (c &rest body) (list 'if c (cons 'progn body) nil)) (my-when nil 42))")
nil)
;; ── macroexpand ───────────────────────────────────────────────────────────────
(check
"macroexpand returns expanded form"
(ev "(progn (defmacro double (x) (list '+ x x)) (macroexpand '(double 5)))")
(list "+" 5 5))
;; ── gensym ────────────────────────────────────────────────────────────────────
(check "gensym returns string" (ev "(stringp (gensym))") true)
(check
"gensym prefix"
(ev "(let ((g (gensym \"MY\"))) (not (= g nil)))")
true)
(check "gensyms are unique" (ev "(not (= (gensym) (gensym)))") true)
;; ── swap! macro with gensym ───────────────────────────────────────────────────
(check
"swap! macro"
(evall
"(defmacro swap! (a b) (let ((tmp (gensym))) (list 'let (list (list tmp a)) (list 'setq a b) (list 'setq b tmp)))) (defvar *a* 10) (defvar *b* 20) (swap! *a* *b*) (list *a* *b*)")
(list 20 10))
;; ── LOOP: basic repeat and collect ────────────────────────────────────────────
(check
"loop repeat collect"
(ev "(loop repeat 3 collect 99)")
(list 99 99 99))
(check
"loop for-in collect"
(ev "(loop for x in '(1 2 3) collect (* x x))")
(list 1 4 9))
(check
"loop for-from-to collect"
(ev "(loop for i from 1 to 5 collect i)")
(list 1 2 3 4 5))
(check
"loop for-from-below collect"
(ev "(loop for i from 0 below 4 collect i)")
(list 0 1 2 3))
(check
"loop for-downto collect"
(ev "(loop for i from 5 downto 1 collect i)")
(list 5 4 3 2 1))
(check
"loop for-by collect"
(ev "(loop for i from 0 to 10 by 2 collect i)")
(list 0 2 4 6 8 10))
;; ── LOOP: sum, count, maximize, minimize ─────────────────────────────────────
(check "loop sum" (ev "(loop for i from 1 to 5 sum i)") 15)
(check
"loop count"
(ev "(loop for x in '(1 2 3 4 5) count (> x 3))")
2)
(check
"loop maximize"
(ev "(loop for x in '(3 1 4 1 5 9 2 6) maximize x)")
9)
(check
"loop minimize"
(ev "(loop for x in '(3 1 4 1 5 9 2 6) minimize x)")
1)
;; ── LOOP: while and until ─────────────────────────────────────────────────────
(check
"loop while"
(ev "(loop for i from 1 to 10 while (< i 5) collect i)")
(list 1 2 3 4))
(check
"loop until"
(ev "(loop for i from 1 to 10 until (= i 5) collect i)")
(list 1 2 3 4))
;; ── LOOP: when / unless ───────────────────────────────────────────────────────
(check
"loop when filter"
(ev "(loop for i from 0 below 8 when (evenp i) collect i)")
(list 0 2 4 6))
(check
"loop unless filter"
(ev "(loop for i from 0 below 8 unless (evenp i) collect i)")
(list 1 3 5 7))
;; ── LOOP: append ─────────────────────────────────────────────────────────────
(check
"loop append"
(ev "(loop for x in '((1 2) (3 4) (5 6)) append x)")
(list 1 2 3 4 5 6))
;; ── LOOP: always, never, thereis ─────────────────────────────────────────────
(check
"loop always true"
(ev "(loop for x in '(2 4 6) always (evenp x))")
true)
(check
"loop always false"
(ev "(loop for x in '(2 3 6) always (evenp x))")
false)
(check "loop never" (ev "(loop for x in '(1 3 5) never (evenp x))") true)
(check "loop thereis" (ev "(loop for x in '(1 2 3) thereis (> x 2))") true)
;; ── LOOP: for = then (general iteration) ─────────────────────────────────────
(check
"loop for = then doubling"
(ev "(loop repeat 5 for x = 1 then (* x 2) collect x)")
(list 1 2 4 8 16))
;; ── summary ────────────────────────────────────────────────────────────────
(define macro-passed passed)
(define macro-failed failed)
(define macro-failures failures)

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;; Common Lisp reader/parser tests
(define cl-test-pass 0)
(define cl-test-fail 0)
(define cl-test-fails (list))
(define
cl-deep=
(fn
(a b)
(cond
((= a b) true)
((and (dict? a) (dict? b))
(let
((ak (keys a)) (bk (keys b)))
(if
(not (= (len ak) (len bk)))
false
(every?
(fn (k) (and (has-key? b k) (cl-deep= (get a k) (get b k))))
ak))))
((and (list? a) (list? b))
(if
(not (= (len a) (len b)))
false
(let
((i 0) (ok true))
(define
chk
(fn
()
(when
(and ok (< i (len a)))
(do
(when
(not (cl-deep= (nth a i) (nth b i)))
(set! ok false))
(set! i (+ i 1))
(chk)))))
(chk)
ok)))
(:else false))))
(define
cl-test
(fn
(name actual expected)
(if
(cl-deep= actual expected)
(set! cl-test-pass (+ cl-test-pass 1))
(do
(set! cl-test-fail (+ cl-test-fail 1))
(append! cl-test-fails {:name name :expected expected :actual actual})))))
;; ── atoms ─────────────────────────────────────────────────────────
(cl-test "integer: 42" (cl-read "42") 42)
(cl-test "integer: 0" (cl-read "0") 0)
(cl-test "integer: negative" (cl-read "-5") -5)
(cl-test "integer: positive sign" (cl-read "+3") 3)
(cl-test "integer: hex #xFF" (cl-read "#xFF") 255)
(cl-test "integer: hex #xAB" (cl-read "#xAB") 171)
(cl-test "integer: binary #b1010" (cl-read "#b1010") 10)
(cl-test "integer: octal #o17" (cl-read "#o17") 15)
(cl-test "float: type" (get (cl-read "3.14") "cl-type") "float")
(cl-test "float: value" (get (cl-read "3.14") "value") "3.14")
(cl-test "float: neg" (get (cl-read "-2.5") "value") "-2.5")
(cl-test "float: exp" (get (cl-read "1.0e10") "value") "1.0e10")
(cl-test "ratio: type" (get (cl-read "1/3") "cl-type") "ratio")
(cl-test "ratio: value" (get (cl-read "1/3") "value") "1/3")
(cl-test "ratio: 22/7" (get (cl-read "22/7") "value") "22/7")
(cl-test "string: basic" (cl-read "\"hello\"") {:cl-type "string" :value "hello"})
(cl-test "string: empty" (cl-read "\"\"") {:cl-type "string" :value ""})
(cl-test "string: with escape" (cl-read "\"a\\nb\"") {:cl-type "string" :value "a\nb"})
(cl-test "symbol: foo" (cl-read "foo") "FOO")
(cl-test "symbol: BAR" (cl-read "BAR") "BAR")
(cl-test "symbol: pkg:sym" (cl-read "cl:car") "CL:CAR")
(cl-test "symbol: pkg::sym" (cl-read "pkg::foo") "PKG::FOO")
(cl-test "nil: symbol" (cl-read "nil") nil)
(cl-test "nil: uppercase" (cl-read "NIL") nil)
(cl-test "t: symbol" (cl-read "t") true)
(cl-test "t: uppercase" (cl-read "T") true)
(cl-test "keyword: type" (get (cl-read ":foo") "cl-type") "keyword")
(cl-test "keyword: name" (get (cl-read ":foo") "name") "FOO")
(cl-test "keyword: :test" (get (cl-read ":test") "name") "TEST")
(cl-test "char: type" (get (cl-read "#\\a") "cl-type") "char")
(cl-test "char: value" (get (cl-read "#\\a") "value") "a")
(cl-test "char: Space" (get (cl-read "#\\Space") "value") " ")
(cl-test "char: Newline" (get (cl-read "#\\Newline") "value") "\n")
(cl-test "uninterned: type" (get (cl-read "#:foo") "cl-type") "uninterned")
(cl-test "uninterned: name" (get (cl-read "#:foo") "name") "FOO")
;; ── lists ─────────────────────────────────────────────────────────
(cl-test "list: empty" (cl-read "()") (list))
(cl-test "list: one element" (cl-read "(foo)") (list "FOO"))
(cl-test "list: two elements" (cl-read "(foo bar)") (list "FOO" "BAR"))
(cl-test "list: nested" (cl-read "((a b) c)") (list (list "A" "B") "C"))
(cl-test "list: with integer" (cl-read "(+ 1 2)") (list "+" 1 2))
(cl-test "list: with string" (cl-read "(print \"hi\")") (list "PRINT" {:cl-type "string" :value "hi"}))
(cl-test "list: nil element" (cl-read "(a nil b)") (list "A" nil "B"))
(cl-test "list: t element" (cl-read "(a t b)") (list "A" true "B"))
;; ── dotted pairs ──────────────────────────────────────────────<E29480><E29480>──
(cl-test "dotted: type" (get (cl-read "(a . b)") "cl-type") "cons")
(cl-test "dotted: car" (get (cl-read "(a . b)") "car") "A")
(cl-test "dotted: cdr" (get (cl-read "(a . b)") "cdr") "B")
(cl-test "dotted: number cdr" (get (cl-read "(x . 42)") "cdr") 42)
;; ── reader macros ────────────────────────────────────────────────<E29480><E29480>
(cl-test "quote: form" (cl-read "'x") (list "QUOTE" "X"))
(cl-test "quote: list" (cl-read "'(a b)") (list "QUOTE" (list "A" "B")))
(cl-test "backquote: form" (cl-read "`x") (list "QUASIQUOTE" "X"))
(cl-test "unquote: form" (cl-read ",x") (list "UNQUOTE" "X"))
(cl-test "comma-at: form" (cl-read ",@x") (list "UNQUOTE-SPLICING" "X"))
(cl-test "function: form" (cl-read "#'foo") (list "FUNCTION" "FOO"))
;; ── vector ────────────────────────────────────────────────────────
(cl-test "vector: type" (get (cl-read "#(1 2 3)") "cl-type") "vector")
(cl-test "vector: elements" (get (cl-read "#(1 2 3)") "elements") (list 1 2 3))
(cl-test "vector: empty" (get (cl-read "#()") "elements") (list))
(cl-test "vector: mixed" (get (cl-read "#(a 1 \"s\")") "elements") (list "A" 1 {:cl-type "string" :value "s"}))
;; ── cl-read-all ───────────────────────────────────────────────────
(cl-test
"read-all: empty"
(cl-read-all "")
(list))
(cl-test
"read-all: two forms"
(cl-read-all "42 foo")
(list 42 "FOO"))
(cl-test
"read-all: three forms"
(cl-read-all "(+ 1 2) (+ 3 4) hello")
(list (list "+" 1 2) (list "+" 3 4) "HELLO"))
(cl-test
"read-all: with comments"
(cl-read-all "; this is a comment\n42 ; inline\nfoo")
(list 42 "FOO"))
(cl-test
"read-all: defun form"
(nth (cl-read-all "(defun square (x) (* x x))") 0)
(list "DEFUN" "SQUARE" (list "X") (list "*" "X" "X")))

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;; geometry.sx — Multiple dispatch with CLOS
;;
;; Demonstrates generic functions dispatching on combinations of
;; geometric types: point, line, plane.
;;
;; Depends on: lib/common-lisp/runtime.sx, lib/common-lisp/clos.sx
;; ── geometric classes ──────────────────────────────────────────────────────
(clos-defclass "geo-point" (list "t") (list {:initform 0 :initarg ":px" :reader nil :writer nil :accessor nil :name "px"} {:initform 0 :initarg ":py" :reader nil :writer nil :accessor nil :name "py"}))
(clos-defclass "geo-line" (list "t") (list {:initform nil :initarg ":p1" :reader nil :writer nil :accessor nil :name "p1"} {:initform nil :initarg ":p2" :reader nil :writer nil :accessor nil :name "p2"}))
(clos-defclass "geo-plane" (list "t") (list {:initform nil :initarg ":normal" :reader nil :writer nil :accessor nil :name "normal"} {:initform 0 :initarg ":d" :reader nil :writer nil :accessor nil :name "d"}))
;; ── helpers ────────────────────────────────────────────────────────────────
(define geo-point-x (fn (p) (clos-slot-value p "px")))
(define geo-point-y (fn (p) (clos-slot-value p "py")))
(define
geo-make-point
(fn (x y) (clos-make-instance "geo-point" ":px" x ":py" y)))
(define
geo-make-line
(fn (p1 p2) (clos-make-instance "geo-line" ":p1" p1 ":p2" p2)))
(define
geo-make-plane
(fn
(nx ny d)
(clos-make-instance "geo-plane" ":normal" (list nx ny) ":d" d)))
;; ── describe generic ───────────────────────────────────────────────────────
(clos-defgeneric "geo-describe" {})
(clos-defmethod
"geo-describe"
(list)
(list "geo-point")
(fn
(args next-fn)
(let
((p (first args)))
(str "P(" (geo-point-x p) "," (geo-point-y p) ")"))))
(clos-defmethod
"geo-describe"
(list)
(list "geo-line")
(fn
(args next-fn)
(let
((l (first args)))
(str
"L["
(clos-call-generic "geo-describe" (list (clos-slot-value l "p1")))
"-"
(clos-call-generic "geo-describe" (list (clos-slot-value l "p2")))
"]"))))
(clos-defmethod
"geo-describe"
(list)
(list "geo-plane")
(fn
(args next-fn)
(let
((pl (first args)))
(str "Plane(d=" (clos-slot-value pl "d") ")"))))
;; ── intersect: multi-dispatch generic ─────────────────────────────────────
;;
;; Returns a string description of the intersection result.
(clos-defgeneric "intersect" {})
;; point ∩ point: same if coordinates match
(clos-defmethod
"intersect"
(list)
(list "geo-point" "geo-point")
(fn
(args next-fn)
(let
((p1 (first args)) (p2 (first (rest args))))
(if
(and
(= (geo-point-x p1) (geo-point-x p2))
(= (geo-point-y p1) (geo-point-y p2)))
"point"
"empty"))))
;; point ∩ line: check if point lies on line (cross product = 0)
(clos-defmethod
"intersect"
(list)
(list "geo-point" "geo-line")
(fn
(args next-fn)
(let
((pt (first args)) (ln (first (rest args))))
(let
((lp1 (clos-slot-value ln "p1")) (lp2 (clos-slot-value ln "p2")))
(let
((dx (- (geo-point-x lp2) (geo-point-x lp1)))
(dy (- (geo-point-y lp2) (geo-point-y lp1)))
(ex (- (geo-point-x pt) (geo-point-x lp1)))
(ey (- (geo-point-y pt) (geo-point-y lp1))))
(if (= (- (* dx ey) (* dy ex)) 0) "point" "empty"))))))
;; line ∩ line: parallel (same slope = empty) or point
(clos-defmethod
"intersect"
(list)
(list "geo-line" "geo-line")
(fn
(args next-fn)
(let
((l1 (first args)) (l2 (first (rest args))))
(let
((p1 (clos-slot-value l1 "p1"))
(p2 (clos-slot-value l1 "p2"))
(p3 (clos-slot-value l2 "p1"))
(p4 (clos-slot-value l2 "p2")))
(let
((dx1 (- (geo-point-x p2) (geo-point-x p1)))
(dy1 (- (geo-point-y p2) (geo-point-y p1)))
(dx2 (- (geo-point-x p4) (geo-point-x p3)))
(dy2 (- (geo-point-y p4) (geo-point-y p3))))
(let
((cross (- (* dx1 dy2) (* dy1 dx2))))
(if (= cross 0) "parallel" "point")))))))
;; line ∩ plane: general case = point (or parallel if line ⊥ normal)
(clos-defmethod
"intersect"
(list)
(list "geo-line" "geo-plane")
(fn
(args next-fn)
(let
((ln (first args)) (pl (first (rest args))))
(let
((p1 (clos-slot-value ln "p1"))
(p2 (clos-slot-value ln "p2"))
(n (clos-slot-value pl "normal")))
(let
((dx (- (geo-point-x p2) (geo-point-x p1)))
(dy (- (geo-point-y p2) (geo-point-y p1)))
(nx (first n))
(ny (first (rest n))))
(let
((dot (+ (* dx nx) (* dy ny))))
(if (= dot 0) "parallel" "point")))))))
;; ── tests ─────────────────────────────────────────────────────────────────
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
;; describe
(check
"describe point"
(clos-call-generic
"geo-describe"
(list (geo-make-point 3 4)))
"P(3,4)")
(check
"describe line"
(clos-call-generic
"geo-describe"
(list
(geo-make-line
(geo-make-point 0 0)
(geo-make-point 1 1))))
"L[P(0,0)-P(1,1)]")
(check
"describe plane"
(clos-call-generic
"geo-describe"
(list (geo-make-plane 0 1 5)))
"Plane(d=5)")
;; intersect point×point
(check
"P∩P same"
(clos-call-generic
"intersect"
(list
(geo-make-point 2 3)
(geo-make-point 2 3)))
"point")
(check
"P∩P diff"
(clos-call-generic
"intersect"
(list
(geo-make-point 1 2)
(geo-make-point 3 4)))
"empty")
;; intersect point×line
(let
((origin (geo-make-point 0 0))
(p10 (geo-make-point 10 0))
(p55 (geo-make-point 5 5))
(l-x
(geo-make-line
(geo-make-point 0 0)
(geo-make-point 10 0))))
(begin
(check
"P∩L on line"
(clos-call-generic "intersect" (list p10 l-x))
"point")
(check
"P∩L on x-axis"
(clos-call-generic "intersect" (list origin l-x))
"point")
(check
"P∩L off line"
(clos-call-generic "intersect" (list p55 l-x))
"empty")))
;; intersect line×line
(let
((horiz (geo-make-line (geo-make-point 0 0) (geo-make-point 10 0)))
(vert
(geo-make-line
(geo-make-point 5 -5)
(geo-make-point 5 5)))
(horiz2
(geo-make-line
(geo-make-point 0 3)
(geo-make-point 10 3))))
(begin
(check
"L∩L crossing"
(clos-call-generic "intersect" (list horiz vert))
"point")
(check
"L∩L parallel"
(clos-call-generic "intersect" (list horiz horiz2))
"parallel")))
;; intersect line×plane
(let
((diag (geo-make-line (geo-make-point 0 0) (geo-make-point 1 1)))
(vert-plane (geo-make-plane 1 0 5))
(diag-plane (geo-make-plane -1 1 0)))
(begin
(check
"L∩Plane cross"
(clos-call-generic "intersect" (list diag vert-plane))
"point")
(check
"L∩Plane parallel"
(clos-call-generic "intersect" (list diag diag-plane))
"parallel")))
;; ── summary ────────────────────────────────────────────────────────────────
(define geo-passed passed)
(define geo-failed failed)
(define geo-failures failures)

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;; interactive-debugger.sx — Condition debugger using *debugger-hook*
;;
;; Demonstrates the classic CL debugger pattern:
;; - *debugger-hook* is invoked when an unhandled error reaches the top level
;; - The hook receives the condition and a reference to itself
;; - It can offer restarts interactively (here simulated with a policy fn)
;;
;; In real CL the debugger reads from the terminal. Here we simulate
;; the "user input" via a policy function passed in at call time.
;;
;; Depends on: lib/common-lisp/runtime.sx already loaded.
;; ── *debugger-hook* global ────────────────────────────────────────────────
;;
;; CL: when error is unhandled, invoke *debugger-hook* with (condition hook).
;; A nil hook means use the system default (which we simulate as re-raise).
(define cl-debugger-hook nil)
;; ── invoke-debugger ────────────────────────────────────────────────────────
;;
;; Called when cl-error finds no handler. Tries cl-debugger-hook first;
;; falls back to a simple error report.
(define
cl-invoke-debugger
(fn
(c)
(if
(nil? cl-debugger-hook)
(error (str "Debugger: " (cl-condition-message c)))
(begin
(let
((hook cl-debugger-hook))
(set! cl-debugger-hook nil)
(let
((result (hook c hook)))
(set! cl-debugger-hook hook)
result))))))
;; ── cl-error/debugger — error that routes through invoke-debugger ─────────
(define
cl-error-with-debugger
(fn
(c &rest args)
(let
((obj (cond ((cl-condition? c) c) ((string? c) (cl-make-condition "simple-error" "format-control" c "format-arguments" args)) (:else (cl-make-condition "simple-error" "format-control" (str c))))))
(cl-signal-obj obj cl-handler-stack)
(cl-invoke-debugger obj))))
;; ── simulated debugger session ────────────────────────────────────────────
;;
;; A debugger hook takes (condition hook) and "reads" user commands.
;; We simulate this with a policy function: (fn (c restarts) restart-name)
;; that picks a restart given the condition and available restarts.
(define
make-policy-debugger
(fn
(policy)
(fn
(c hook)
(let
((available (cl-compute-restarts)))
(let
((choice (policy c available)))
(if
(and choice (not (nil? (cl-find-restart choice))))
(cl-invoke-restart choice)
(error
(str
"Debugger: no restart chosen for: "
(cl-condition-message c)))))))))
;; ── tests ─────────────────────────────────────────────────────────────────
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
(define
reset-stacks!
(fn
()
(set! cl-handler-stack (list))
(set! cl-restart-stack (list))
(set! cl-debugger-hook nil)))
;; Test 1: debugger hook receives condition
(reset-stacks!)
(let
((received-msg ""))
(begin
(set!
cl-debugger-hook
(fn (c hook) (set! received-msg (cl-condition-message c)) nil))
(cl-restart-case
(fn () (cl-error-with-debugger "something broke"))
(list "abort" (list) (fn () nil)))
(check "debugger hook receives condition" received-msg "something broke")))
;; Test 2: policy-driven restart selection (use-zero)
(reset-stacks!)
(let
((result (begin (set! cl-debugger-hook (make-policy-debugger (fn (c restarts) "use-zero"))) (cl-restart-case (fn () (cl-error-with-debugger (cl-make-condition "division-by-zero")) 999) (list "use-zero" (list) (fn () 0))))))
(check "policy debugger: use-zero restart" result 0))
;; Test 3: policy selects abort
(reset-stacks!)
(let
((result (begin (set! cl-debugger-hook (make-policy-debugger (fn (c restarts) "abort"))) (cl-restart-case (fn () (cl-error-with-debugger "aborting error") 999) (list "abort" (list) (fn () "aborted"))))))
(check "policy debugger: abort restart" result "aborted"))
;; Test 4: compute-restarts inside debugger hook
(reset-stacks!)
(let
((seen-restarts (list)))
(begin
(set!
cl-debugger-hook
(fn
(c hook)
(set! seen-restarts (cl-compute-restarts))
(cl-invoke-restart "continue")))
(cl-restart-case
(fn () (cl-error-with-debugger "test") 42)
(list "continue" (list) (fn () "ok"))
(list "abort" (list) (fn () "no")))
(check
"debugger: compute-restarts visible"
(= (len seen-restarts) 2)
true)))
;; Test 5: hook not invoked when handler catches first
(reset-stacks!)
(let
((hook-called false)
(result
(begin
(set! cl-debugger-hook (fn (c hook) (set! hook-called true) nil))
(cl-handler-case
(fn () (cl-error-with-debugger "handled"))
(list "error" (fn (c) "handler-won"))))))
(check "handler wins; hook not called" hook-called false)
(check "handler result returned" result "handler-won"))
;; Test 6: debugger-hook nil after re-raise guard
(reset-stacks!)
(let
((hook-calls 0))
(begin
(set!
cl-debugger-hook
(fn
(c hook)
(set! hook-calls (+ hook-calls 1))
(if
(> hook-calls 1)
(error "infinite loop guard")
(cl-invoke-restart "escape"))))
(cl-restart-case
(fn () (cl-error-with-debugger "once"))
(list "escape" (list) (fn () nil)))
(check
"hook called exactly once (no infinite recursion)"
hook-calls
1)))
;; ── summary ────────────────────────────────────────────────────────────────
(define debugger-passed passed)
(define debugger-failed failed)
(define debugger-failures failures)

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;; mop-trace.sx — :before/:after method tracing with CLOS
;;
;; Classic CLOS pattern: instrument generic functions with :before and :after
;; qualifiers to print call/return traces without modifying the primary method.
;;
;; Depends on: lib/common-lisp/runtime.sx, lib/common-lisp/clos.sx
;; ── trace log (mutable accumulator) ───────────────────────────────────────
(define trace-log (list))
(define
trace-push
(fn (msg) (set! trace-log (append trace-log (list msg)))))
(define trace-clear (fn () (set! trace-log (list))))
;; ── domain classes ─────────────────────────────────────────────────────────
(clos-defclass "shape" (list "t") (list {:initform "white" :initarg ":color" :reader nil :writer nil :accessor nil :name "color"}))
(clos-defclass "circle" (list "shape") (list {:initform 1 :initarg ":radius" :reader nil :writer nil :accessor nil :name "radius"}))
(clos-defclass "rect" (list "shape") (list {:initform 1 :initarg ":width" :reader nil :writer nil :accessor nil :name "width"} {:initform 1 :initarg ":height" :reader nil :writer nil :accessor nil :name "height"}))
;; ── generic function: area ─────────────────────────────────────────────────
(clos-defgeneric "area" {})
;; primary methods
(clos-defmethod
"area"
(list)
(list "circle")
(fn
(args next-fn)
(let
((c (first args)))
(let ((r (clos-slot-value c "radius"))) (* r r)))))
(clos-defmethod
"area"
(list)
(list "rect")
(fn
(args next-fn)
(let
((r (first args)))
(* (clos-slot-value r "width") (clos-slot-value r "height")))))
;; :before tracing
(clos-defmethod
"area"
(list "before")
(list "shape")
(fn
(args next-fn)
(trace-push (str "BEFORE area(" (clos-class-of (first args)) ")"))))
;; :after tracing
(clos-defmethod
"area"
(list "after")
(list "shape")
(fn
(args next-fn)
(trace-push (str "AFTER area(" (clos-class-of (first args)) ")"))))
;; ── generic function: describe-shape ──────────────────────────────────────
(clos-defgeneric "describe-shape" {})
(clos-defmethod
"describe-shape"
(list)
(list "shape")
(fn
(args next-fn)
(let
((s (first args)))
(str "shape[" (clos-slot-value s "color") "]"))))
(clos-defmethod
"describe-shape"
(list)
(list "circle")
(fn
(args next-fn)
(let
((c (first args)))
(str
"circle[r="
(clos-slot-value c "radius")
" "
(clos-call-next-method next-fn)
"]"))))
(clos-defmethod
"describe-shape"
(list)
(list "rect")
(fn
(args next-fn)
(let
((r (first args)))
(str
"rect["
(clos-slot-value r "width")
"x"
(clos-slot-value r "height")
" "
(clos-call-next-method next-fn)
"]"))))
;; :before on base shape (fires for all subclasses too)
(clos-defmethod
"describe-shape"
(list "before")
(list "shape")
(fn
(args next-fn)
(trace-push
(str "BEFORE describe-shape(" (clos-class-of (first args)) ")"))))
;; ── tests ─────────────────────────────────────────────────────────────────
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
;; ── area tests ────────────────────────────────────────────────────────────
;; circle area = r*r (no pi — integer arithmetic for predictability)
(let
((c (clos-make-instance "circle" ":radius" 5 ":color" "red")))
(do
(trace-clear)
(check "circle area" (clos-call-generic "area" (list c)) 25)
(check
":before fired for circle"
(= (first trace-log) "BEFORE area(circle)")
true)
(check
":after fired for circle"
(= (first (rest trace-log)) "AFTER area(circle)")
true)
(check "trace length 2" (len trace-log) 2)))
;; rect area = w*h
(let
((r (clos-make-instance "rect" ":width" 4 ":height" 6 ":color" "blue")))
(do
(trace-clear)
(check "rect area" (clos-call-generic "area" (list r)) 24)
(check
":before fired for rect"
(= (first trace-log) "BEFORE area(rect)")
true)
(check
":after fired for rect"
(= (first (rest trace-log)) "AFTER area(rect)")
true)
(check "trace length 2 (rect)" (len trace-log) 2)))
;; ── describe-shape tests ───────────────────────────────────────────────────
(let
((c (clos-make-instance "circle" ":radius" 3 ":color" "green")))
(do
(trace-clear)
(check
"circle describe"
(clos-call-generic "describe-shape" (list c))
"circle[r=3 shape[green]]")
(check
":before fired for describe circle"
(= (first trace-log) "BEFORE describe-shape(circle)")
true)))
(let
((r (clos-make-instance "rect" ":width" 2 ":height" 7 ":color" "black")))
(do
(trace-clear)
(check
"rect describe"
(clos-call-generic "describe-shape" (list r))
"rect[2x7 shape[black]]")
(check
":before fired for describe rect"
(= (first trace-log) "BEFORE describe-shape(rect)")
true)))
;; ── call-next-method: circle -> shape ─────────────────────────────────────
(let
((c (clos-make-instance "circle" ":radius" 1 ":color" "purple")))
(check
"call-next-method result in describe"
(clos-call-generic "describe-shape" (list c))
"circle[r=1 shape[purple]]"))
;; ── summary ────────────────────────────────────────────────────────────────
(define mop-passed passed)
(define mop-failed failed)
(define mop-failures failures)

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;; parse-recover.sx — Parser with skipped-token restart
;;
;; Classic CL pattern: a simple token parser that signals a condition
;; when it encounters an unexpected token. The :skip-token restart
;; allows the parser to continue past the offending token.
;;
;; Depends on: lib/common-lisp/runtime.sx already loaded.
;; ── condition type ─────────────────────────────────────────────────────────
(cl-define-condition "parse-error" (list "error") (list "token" "position"))
;; ── simple token parser ────────────────────────────────────────────────────
;;
;; parse-numbers: given a list of tokens (strings), parse integers.
;; Non-integer tokens signal parse-error with two restarts:
;; skip-token — skip the bad token and continue
;; use-zero — use 0 in place of the bad token
(define
parse-numbers
(fn
(tokens)
(define result (list))
(define
process
(fn
(toks)
(if
(empty? toks)
result
(let
((tok (first toks)) (rest-toks (rest toks)))
(let
((n (string->number tok 10)))
(if
n
(begin
(set! result (append result (list n)))
(process rest-toks))
(cl-restart-case
(fn
()
(cl-signal
(cl-make-condition
"parse-error"
"token"
tok
"position"
(len result)))
(set! result (append result (list 0)))
(process rest-toks))
(list "skip-token" (list) (fn () (process rest-toks)))
(list
"use-zero"
(list)
(fn
()
(begin
(set! result (append result (list 0)))
(process rest-toks)))))))))))
(process tokens)
result))
;; ── tests ─────────────────────────────────────────────────────────────────
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
(define
reset-stacks!
(fn () (set! cl-handler-stack (list)) (set! cl-restart-stack (list))))
;; All valid tokens
(reset-stacks!)
(check
"all valid: 1 2 3"
(cl-handler-bind
(list (list "parse-error" (fn (c) (cl-invoke-restart "skip-token"))))
(fn () (parse-numbers (list "1" "2" "3"))))
(list 1 2 3))
;; Skip bad token
(reset-stacks!)
(check
"skip bad token: 1 x 3 -> (1 3)"
(cl-handler-bind
(list (list "parse-error" (fn (c) (cl-invoke-restart "skip-token"))))
(fn () (parse-numbers (list "1" "x" "3"))))
(list 1 3))
;; Use zero for bad token
(reset-stacks!)
(check
"use-zero for bad: 1 x 3 -> (1 0 3)"
(cl-handler-bind
(list (list "parse-error" (fn (c) (cl-invoke-restart "use-zero"))))
(fn () (parse-numbers (list "1" "x" "3"))))
(list 1 0 3))
;; Multiple bad tokens, all skipped
(reset-stacks!)
(check
"skip multiple bad: a 2 b 4 -> (2 4)"
(cl-handler-bind
(list (list "parse-error" (fn (c) (cl-invoke-restart "skip-token"))))
(fn () (parse-numbers (list "a" "2" "b" "4"))))
(list 2 4))
;; handler-case: abort on first bad token
(reset-stacks!)
(check
"handler-case: abort on first bad"
(cl-handler-case
(fn () (parse-numbers (list "1" "bad" "3")))
(list
"parse-error"
(fn
(c)
(str
"parse error at position "
(cl-condition-slot c "position")
": "
(cl-condition-slot c "token")))))
"parse error at position 1: bad")
;; Verify condition type hierarchy
(reset-stacks!)
(check
"parse-error isa error"
(cl-condition-of-type?
(cl-make-condition "parse-error" "token" "x" "position" 0)
"error")
true)
;; ── summary ────────────────────────────────────────────────────────────────
(define parse-passed passed)
(define parse-failed failed)
(define parse-failures failures)

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;; restart-demo.sx — Classic CL condition system demo
;;
;; Demonstrates resumable exceptions via restarts.
;; The `safe-divide` function signals a division-by-zero condition
;; and offers two restarts:
;; :use-zero — return 0 as the result
;; :retry — call safe-divide again with a corrected divisor
;;
;; Depends on: lib/common-lisp/runtime.sx already loaded.
;; ── safe-divide ────────────────────────────────────────────────────────────
;;
;; Divides numerator by denominator.
;; When denominator is 0, signals division-by-zero with two restarts.
(define
safe-divide
(fn
(n d)
(if
(= d 0)
(cl-restart-case
(fn
()
(cl-signal
(cl-make-condition
"division-by-zero"
"operation"
"/"
"operands"
(list n d)))
(error "division by zero — no restart invoked"))
(list "use-zero" (list) (fn () 0))
(list "retry" (list "d") (fn (d2) (safe-divide n d2))))
(/ n d))))
;; ── tests ─────────────────────────────────────────────────────────────────
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
(define
reset-stacks!
(fn () (set! cl-handler-stack (list)) (set! cl-restart-stack (list))))
;; Normal division
(reset-stacks!)
(check "10 / 2 = 5" (safe-divide 10 2) 5)
;; Invoke use-zero restart
(reset-stacks!)
(check
"10 / 0 -> use-zero"
(cl-handler-bind
(list
(list "division-by-zero" (fn (c) (cl-invoke-restart "use-zero"))))
(fn () (safe-divide 10 0)))
0)
;; Invoke retry restart with a corrected denominator
(reset-stacks!)
(check
"10 / 0 -> retry with 2"
(cl-handler-bind
(list
(list
"division-by-zero"
(fn (c) (cl-invoke-restart "retry" 2))))
(fn () (safe-divide 10 0)))
5)
;; Nested calls: outer handles the inner divide-by-zero
(reset-stacks!)
(check
"nested: 20 / (0->4) = 5"
(cl-handler-bind
(list
(list
"division-by-zero"
(fn (c) (cl-invoke-restart "retry" 4))))
(fn () (let ((r1 (safe-divide 20 0))) r1)))
5)
;; handler-case — unwinding version
(reset-stacks!)
(check
"handler-case: catches division-by-zero"
(cl-handler-case
(fn () (safe-divide 9 0))
(list "division-by-zero" (fn (c) "caught!")))
"caught!")
;; Verify use-zero is idempotent (two uses)
(reset-stacks!)
(check
"two use-zero invocations"
(cl-handler-bind
(list
(list "division-by-zero" (fn (c) (cl-invoke-restart "use-zero"))))
(fn
()
(+
(safe-divide 10 0)
(safe-divide 3 0))))
0)
;; No restart needed for normal division
(reset-stacks!)
(check
"no restart needed for 8/4"
(safe-divide 8 4)
2)
;; ── summary ────────────────────────────────────────────────────────────────
(define demo-passed passed)
(define demo-failed failed)
(define demo-failures failures)

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;; Common Lisp tokenizer tests
(define cl-test-pass 0)
(define cl-test-fail 0)
(define cl-test-fails (list))
(define
cl-test
(fn
(name actual expected)
(if
(= actual expected)
(set! cl-test-pass (+ cl-test-pass 1))
(do
(set! cl-test-fail (+ cl-test-fail 1))
(append! cl-test-fails {:name name :expected expected :actual actual})))))
;; Helpers: extract types and values from token stream (drops eof)
(define
cl-tok-types
(fn
(src)
(map
(fn (t) (get t "type"))
(filter (fn (t) (not (= (get t "type") "eof"))) (cl-tokenize src)))))
(define
cl-tok-values
(fn
(src)
(map
(fn (t) (get t "value"))
(filter (fn (t) (not (= (get t "type") "eof"))) (cl-tokenize src)))))
(define
cl-tok-first
(fn (src) (nth (cl-tokenize src) 0)))
;; ── symbols ───────────────────────────────────────────────────────
(cl-test "symbol: bare lowercase" (cl-tok-values "foo") (list "FOO"))
(cl-test "symbol: uppercase" (cl-tok-values "BAR") (list "BAR"))
(cl-test "symbol: mixed case folded" (cl-tok-values "FooBar") (list "FOOBAR"))
(cl-test "symbol: with hyphen" (cl-tok-values "foo-bar") (list "FOO-BAR"))
(cl-test "symbol: with star" (cl-tok-values "*special*") (list "*SPECIAL*"))
(cl-test "symbol: with question" (cl-tok-values "null?") (list "NULL?"))
(cl-test "symbol: with exclamation" (cl-tok-values "set!") (list "SET!"))
(cl-test "symbol: plus sign alone" (cl-tok-values "+") (list "+"))
(cl-test "symbol: minus sign alone" (cl-tok-values "-") (list "-"))
(cl-test "symbol: type is symbol" (cl-tok-types "foo") (list "symbol"))
;; ── package-qualified symbols ─────────────────────────────────────
(cl-test "symbol: pkg:sym external" (cl-tok-values "cl:car") (list "CL:CAR"))
(cl-test "symbol: pkg::sym internal" (cl-tok-values "pkg::foo") (list "PKG::FOO"))
(cl-test "symbol: cl:car type" (cl-tok-types "cl:car") (list "symbol"))
;; ── keywords ──────────────────────────────────────────────────────
(cl-test "keyword: basic" (cl-tok-values ":foo") (list "FOO"))
(cl-test "keyword: type" (cl-tok-types ":foo") (list "keyword"))
(cl-test "keyword: upcase" (cl-tok-values ":hello-world") (list "HELLO-WORLD"))
(cl-test "keyword: multiple" (cl-tok-types ":a :b :c") (list "keyword" "keyword" "keyword"))
;; ── integers ──────────────────────────────────────────────────────
(cl-test "integer: zero" (cl-tok-values "0") (list "0"))
(cl-test "integer: positive" (cl-tok-values "42") (list "42"))
(cl-test "integer: negative" (cl-tok-values "-5") (list "-5"))
(cl-test "integer: positive-sign" (cl-tok-values "+3") (list "+3"))
(cl-test "integer: type" (cl-tok-types "42") (list "integer"))
(cl-test "integer: multi-digit" (cl-tok-values "12345678") (list "12345678"))
;; ── hex, binary, octal ───────────────────────────────────────────
(cl-test "hex: lowercase x" (cl-tok-values "#xFF") (list "#xFF"))
(cl-test "hex: uppercase X" (cl-tok-values "#XFF") (list "#XFF"))
(cl-test "hex: type" (cl-tok-types "#xFF") (list "integer"))
(cl-test "hex: zero" (cl-tok-values "#x0") (list "#x0"))
(cl-test "binary: #b" (cl-tok-values "#b1010") (list "#b1010"))
(cl-test "binary: type" (cl-tok-types "#b1010") (list "integer"))
(cl-test "octal: #o" (cl-tok-values "#o17") (list "#o17"))
(cl-test "octal: type" (cl-tok-types "#o17") (list "integer"))
;; ── floats ────────────────────────────────────────────────────────
(cl-test "float: basic" (cl-tok-values "3.14") (list "3.14"))
(cl-test "float: type" (cl-tok-types "3.14") (list "float"))
(cl-test "float: negative" (cl-tok-values "-2.5") (list "-2.5"))
(cl-test "float: exponent" (cl-tok-values "1.0e10") (list "1.0e10"))
(cl-test "float: neg exponent" (cl-tok-values "1.5e-3") (list "1.5e-3"))
(cl-test "float: leading dot" (cl-tok-values ".5") (list "0.5"))
(cl-test "float: exp only" (cl-tok-values "1e5") (list "1e5"))
;; ── ratios ────────────────────────────────────────────────────────
(cl-test "ratio: 1/3" (cl-tok-values "1/3") (list "1/3"))
(cl-test "ratio: type" (cl-tok-types "1/3") (list "ratio"))
(cl-test "ratio: 22/7" (cl-tok-values "22/7") (list "22/7"))
(cl-test "ratio: negative" (cl-tok-values "-1/2") (list "-1/2"))
;; ── strings ───────────────────────────────────────────────────────
(cl-test "string: empty" (cl-tok-values "\"\"") (list ""))
(cl-test "string: basic" (cl-tok-values "\"hello\"") (list "hello"))
(cl-test "string: type" (cl-tok-types "\"hello\"") (list "string"))
(cl-test "string: with space" (cl-tok-values "\"hello world\"") (list "hello world"))
(cl-test "string: escaped quote" (cl-tok-values "\"say \\\"hi\\\"\"") (list "say \"hi\""))
(cl-test "string: escaped backslash" (cl-tok-values "\"a\\\\b\"") (list "a\\b"))
(cl-test "string: newline escape" (cl-tok-values "\"a\\nb\"") (list "a\nb"))
(cl-test "string: tab escape" (cl-tok-values "\"a\\tb\"") (list "a\tb"))
;; ── characters ────────────────────────────────────────────────────
(cl-test "char: lowercase a" (cl-tok-values "#\\a") (list "a"))
(cl-test "char: uppercase A" (cl-tok-values "#\\A") (list "A"))
(cl-test "char: digit" (cl-tok-values "#\\1") (list "1"))
(cl-test "char: type" (cl-tok-types "#\\a") (list "char"))
(cl-test "char: Space" (cl-tok-values "#\\Space") (list " "))
(cl-test "char: Newline" (cl-tok-values "#\\Newline") (list "\n"))
(cl-test "char: Tab" (cl-tok-values "#\\Tab") (list "\t"))
(cl-test "char: Return" (cl-tok-values "#\\Return") (list "\r"))
;; ── reader macros ─────────────────────────────────────────────────
(cl-test "quote: type" (cl-tok-types "'x") (list "quote" "symbol"))
(cl-test "backquote: type" (cl-tok-types "`x") (list "backquote" "symbol"))
(cl-test "comma: type" (cl-tok-types ",x") (list "comma" "symbol"))
(cl-test "comma-at: type" (cl-tok-types ",@x") (list "comma-at" "symbol"))
(cl-test "hash-quote: type" (cl-tok-types "#'foo") (list "hash-quote" "symbol"))
(cl-test "hash-paren: type" (cl-tok-types "#(1 2)") (list "hash-paren" "integer" "integer" "rparen"))
;; ── uninterned ────────────────────────────────────────────────────
(cl-test "uninterned: type" (cl-tok-types "#:foo") (list "uninterned"))
(cl-test "uninterned: value upcase" (cl-tok-values "#:foo") (list "FOO"))
(cl-test "uninterned: compound" (cl-tok-values "#:my-sym") (list "MY-SYM"))
;; ── parens and structure ──────────────────────────────────────────
(cl-test "paren: empty list" (cl-tok-types "()") (list "lparen" "rparen"))
(cl-test "paren: nested" (cl-tok-types "((a))") (list "lparen" "lparen" "symbol" "rparen" "rparen"))
(cl-test "dot: standalone" (cl-tok-types "(a . b)") (list "lparen" "symbol" "dot" "symbol" "rparen"))
;; ── comments ──────────────────────────────────────────────────────
(cl-test "comment: line" (cl-tok-types "; comment\nfoo") (list "symbol"))
(cl-test "comment: inline" (cl-tok-values "foo ; bar\nbaz") (list "FOO" "BAZ"))
(cl-test "block-comment: basic" (cl-tok-types "#| hello |# foo") (list "symbol"))
(cl-test "block-comment: nested" (cl-tok-types "#| a #| b |# c |# x") (list "symbol"))
;; ── combined ──────────────────────────────────────────────────────
(cl-test
"combined: defun skeleton"
(cl-tok-types "(defun foo (x) x)")
(list "lparen" "symbol" "symbol" "lparen" "symbol" "rparen" "symbol" "rparen"))
(cl-test
"combined: let form"
(cl-tok-types "(let ((x 1)) x)")
(list
"lparen"
"symbol"
"lparen"
"lparen"
"symbol"
"integer"
"rparen"
"rparen"
"symbol"
"rparen"))
(cl-test
"combined: whitespace skip"
(cl-tok-values " foo bar baz ")
(list "FOO" "BAR" "BAZ"))
(cl-test "eof: present" (get (nth (cl-tokenize "") 0) "type") "eof")
(cl-test "eof: at end of tokens" (get (nth (cl-tokenize "x") 1) "type") "eof")

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@@ -0,0 +1,207 @@
;; lib/common-lisp/tests/runtime.sx — tests for CL runtime layer
(load "lib/common-lisp/runtime.sx")
(defsuite
"cl-types"
(deftest "cl-null? nil" (assert= true (cl-null? nil)))
(deftest "cl-null? false" (assert= false (cl-null? false)))
(deftest
"cl-consp? pair"
(assert= true (cl-consp? (list 1 2))))
(deftest "cl-consp? nil" (assert= false (cl-consp? nil)))
(deftest "cl-listp? nil" (assert= true (cl-listp? nil)))
(deftest
"cl-listp? list"
(assert= true (cl-listp? (list 1 2))))
(deftest "cl-atom? nil" (assert= true (cl-atom? nil)))
(deftest "cl-atom? pair" (assert= false (cl-atom? (list 1))))
(deftest "cl-integerp?" (assert= true (cl-integerp? 42)))
(deftest "cl-floatp?" (assert= true (cl-floatp? 3.14)))
(deftest
"cl-characterp?"
(assert= true (cl-characterp? (integer->char 65))))
(deftest "cl-stringp?" (assert= true (cl-stringp? "hello")))
(deftest "cl-symbolp?" (assert= true (cl-symbolp? (quote foo)))))
(defsuite
"cl-arithmetic"
(deftest "cl-mod" (assert= 1 (cl-mod 10 3)))
(deftest "cl-rem" (assert= 1 (cl-rem 10 3)))
(deftest
"cl-quotient"
(assert= 3 (cl-quotient 10 3)))
(deftest "cl-gcd" (assert= 4 (cl-gcd 12 8)))
(deftest "cl-lcm" (assert= 12 (cl-lcm 4 6)))
(deftest "cl-abs pos" (assert= 5 (cl-abs 5)))
(deftest "cl-abs neg" (assert= 5 (cl-abs -5)))
(deftest "cl-min" (assert= 2 (cl-min 2 7)))
(deftest "cl-max" (assert= 7 (cl-max 2 7)))
(deftest "cl-evenp? t" (assert= true (cl-evenp? 4)))
(deftest "cl-evenp? f" (assert= false (cl-evenp? 3)))
(deftest "cl-oddp? t" (assert= true (cl-oddp? 7)))
(deftest "cl-zerop?" (assert= true (cl-zerop? 0)))
(deftest "cl-plusp?" (assert= true (cl-plusp? 1)))
(deftest "cl-minusp?" (assert= true (cl-minusp? -1)))
(deftest "cl-signum pos" (assert= 1 (cl-signum 42)))
(deftest "cl-signum neg" (assert= -1 (cl-signum -7)))
(deftest "cl-signum zero" (assert= 0 (cl-signum 0))))
(defsuite
"cl-chars"
(deftest
"cl-char-code"
(assert= 65 (cl-char-code (integer->char 65))))
(deftest "cl-code-char" (assert= true (char? (cl-code-char 65))))
(deftest
"cl-char-upcase"
(assert=
(integer->char 65)
(cl-char-upcase (integer->char 97))))
(deftest
"cl-char-downcase"
(assert=
(integer->char 97)
(cl-char-downcase (integer->char 65))))
(deftest
"cl-alpha-char-p"
(assert= true (cl-alpha-char-p (integer->char 65))))
(deftest
"cl-digit-char-p"
(assert= true (cl-digit-char-p (integer->char 48))))
(deftest
"cl-char=?"
(assert=
true
(cl-char=? (integer->char 65) (integer->char 65))))
(deftest
"cl-char<?"
(assert=
true
(cl-char<? (integer->char 65) (integer->char 90))))
(deftest
"cl-char space"
(assert= (integer->char 32) cl-char-space))
(deftest
"cl-char newline"
(assert= (integer->char 10) cl-char-newline)))
(defsuite
"cl-format"
(deftest
"cl-format nil basic"
(assert= "hello" (cl-format nil "~a" "hello")))
(deftest
"cl-format nil number"
(assert= "42" (cl-format nil "~d" 42)))
(deftest
"cl-format nil hex"
(assert= "ff" (cl-format nil "~x" 255)))
(deftest
"cl-format nil template"
(assert= "x=3 y=4" (cl-format nil "x=~d y=~d" 3 4)))
(deftest "cl-format nil tilde" (assert= "a~b" (cl-format nil "a~~b"))))
(defsuite
"cl-gensym"
(deftest
"cl-gensym returns symbol"
(assert= "symbol" (type-of (cl-gensym))))
(deftest "cl-gensym unique" (assert= false (= (cl-gensym) (cl-gensym)))))
(defsuite
"cl-sets"
(deftest "cl-make-set empty" (assert= true (cl-set? (cl-make-set))))
(deftest
"cl-set-add/member"
(let
((s (cl-make-set)))
(do
(cl-set-add s 1)
(assert= true (cl-set-memberp s 1)))))
(deftest
"cl-set-memberp false"
(assert= false (cl-set-memberp (cl-make-set) 42)))
(deftest
"cl-list->set"
(let
((s (cl-list->set (list 1 2 3))))
(assert= true (cl-set-memberp s 2)))))
(defsuite
"cl-lists"
(deftest
"cl-nth 0"
(assert=
1
(cl-nth 0 (list 1 2 3))))
(deftest
"cl-nth 2"
(assert=
3
(cl-nth 2 (list 1 2 3))))
(deftest
"cl-last"
(assert=
(list 3)
(cl-last (list 1 2 3))))
(deftest
"cl-butlast"
(assert=
(list 1 2)
(cl-butlast (list 1 2 3))))
(deftest
"cl-nthcdr 1"
(assert=
(list 2 3)
(cl-nthcdr 1 (list 1 2 3))))
(deftest
"cl-assoc hit"
(assert=
(list "b" 2)
(cl-assoc "b" (list (list "a" 1) (list "b" 2)))))
(deftest
"cl-assoc miss"
(assert= nil (cl-assoc "z" (list (list "a" 1)))))
(deftest
"cl-getf hit"
(assert= 42 (cl-getf (list "x" 42 "y" 99) "x")))
(deftest "cl-getf miss" (assert= nil (cl-getf (list "x" 42) "z")))
(deftest
"cl-adjoin new"
(assert=
(list 0 1 2)
(cl-adjoin 0 (list 1 2))))
(deftest
"cl-adjoin dup"
(assert=
(list 1 2)
(cl-adjoin 1 (list 1 2))))
(deftest
"cl-flatten"
(assert=
(list 1 2 3 4)
(cl-flatten (list 1 (list 2 3) 4))))
(deftest
"cl-member hit"
(assert=
(list 2 3)
(cl-member 2 (list 1 2 3))))
(deftest
"cl-member miss"
(assert=
nil
(cl-member 9 (list 1 2 3)))))
(defsuite
"cl-radix"
(deftest "binary" (assert= "1010" (cl-format-binary 10)))
(deftest "octal" (assert= "17" (cl-format-octal 15)))
(deftest "hex" (assert= "ff" (cl-format-hex 255)))
(deftest "decimal" (assert= "42" (cl-format-decimal 42)))
(deftest
"n->s r16"
(assert= "1f" (cl-integer-to-string 31 16)))
(deftest
"s->n r16"
(assert= 31 (cl-string-to-integer "1f" 16))))

View File

@@ -0,0 +1,285 @@
;; lib/common-lisp/tests/stdlib.sx — Phase 6: sequence, list, string functions
(define ev (fn (src) (cl-eval-str src (cl-make-env))))
(define passed 0)
(define failed 0)
(define failures (list))
(define
check
(fn
(label got expected)
(if
(= got expected)
(set! passed (+ passed 1))
(begin
(set! failed (+ failed 1))
(set!
failures
(append
failures
(list
(str
"FAIL ["
label
"]: got="
(inspect got)
" expected="
(inspect expected)))))))))
;; ── mapc ─────────────────────────────────────────────────────────
(check "mapc returns list"
(ev "(mapc #'1+ '(1 2 3))")
(list 1 2 3))
;; ── mapcan ───────────────────────────────────────────────────────
(check "mapcan basic"
(ev "(mapcan (lambda (x) (list x (* x x))) '(1 2 3))")
(list 1 1 2 4 3 9))
(check "mapcan filter-like"
(ev "(mapcan (lambda (x) (if (evenp x) (list x) nil)) '(1 2 3 4 5 6))")
(list 2 4 6))
;; ── reduce ───────────────────────────────────────────────────────
(check "reduce sum"
(ev "(reduce #'+ '(1 2 3 4 5))")
15)
(check "reduce with initial-value"
(ev "(reduce #'+ '(1 2 3) :initial-value 10)")
16)
(check "reduce max"
(ev "(reduce (lambda (a b) (if (> a b) a b)) '(3 1 4 1 5 9 2 6))")
9)
;; ── find ─────────────────────────────────────────────────────────
(check "find present"
(ev "(find 3 '(1 2 3 4 5))")
3)
(check "find absent"
(ev "(find 9 '(1 2 3))")
nil)
(check "find-if present"
(ev "(find-if #'evenp '(1 3 4 7))")
4)
(check "find-if absent"
(ev "(find-if #'evenp '(1 3 5))")
nil)
(check "find-if-not"
(ev "(find-if-not #'evenp '(2 4 5 6))")
5)
;; ── position ─────────────────────────────────────────────────────
(check "position found"
(ev "(position 3 '(1 2 3 4 5))")
2)
(check "position not found"
(ev "(position 9 '(1 2 3))")
nil)
(check "position-if"
(ev "(position-if #'evenp '(1 3 4 8))")
2)
;; ── count ────────────────────────────────────────────────────────
(check "count"
(ev "(count 2 '(1 2 3 2 4 2))")
3)
(check "count-if"
(ev "(count-if #'evenp '(1 2 3 4 5 6))")
3)
;; ── every / some / notany / notevery ─────────────────────────────
(check "every true"
(ev "(every #'evenp '(2 4 6))")
true)
(check "every false"
(ev "(every #'evenp '(2 3 6))")
nil)
(check "every empty"
(ev "(every #'evenp '())")
true)
(check "some truthy"
(ev "(some #'evenp '(1 3 4))")
true)
(check "some nil"
(ev "(some #'evenp '(1 3 5))")
nil)
(check "notany true"
(ev "(notany #'evenp '(1 3 5))")
true)
(check "notany false"
(ev "(notany #'evenp '(1 2 5))")
nil)
(check "notevery false"
(ev "(notevery #'evenp '(2 4 6))")
nil)
(check "notevery true"
(ev "(notevery #'evenp '(2 3 6))")
true)
;; ── remove ───────────────────────────────────────────────────────
(check "remove"
(ev "(remove 3 '(1 2 3 4 3 5))")
(list 1 2 4 5))
(check "remove-if"
(ev "(remove-if #'evenp '(1 2 3 4 5 6))")
(list 1 3 5))
(check "remove-if-not"
(ev "(remove-if-not #'evenp '(1 2 3 4 5 6))")
(list 2 4 6))
;; ── member ───────────────────────────────────────────────────────
(check "member found"
(ev "(member 3 '(1 2 3 4 5))")
(list 3 4 5))
(check "member not found"
(ev "(member 9 '(1 2 3))")
nil)
;; ── subst ────────────────────────────────────────────────────────
(check "subst flat"
(ev "(subst 'b 'a '(a b c a))")
(list "B" "B" "C" "B"))
(check "subst nested"
(ev "(subst 99 1 '(1 (2 1) 3))")
(list 99 (list 2 99) 3))
;; ── assoc ────────────────────────────────────────────────────────
(check "assoc found"
(ev "(assoc 'b '((a 1) (b 2) (c 3)))")
(list "B" 2))
(check "assoc not found"
(ev "(assoc 'z '((a 1) (b 2)))")
nil)
;; ── list ops ─────────────────────────────────────────────────────
(check "last"
(ev "(last '(1 2 3 4))")
(list 4))
(check "butlast"
(ev "(butlast '(1 2 3 4))")
(list 1 2 3))
(check "nthcdr"
(ev "(nthcdr 2 '(a b c d))")
(list "C" "D"))
(check "list*"
(ev "(list* 1 2 '(3 4))")
(list 1 2 3 4))
(check "cadr"
(ev "(cadr '(1 2 3))")
2)
(check "caddr"
(ev "(caddr '(1 2 3))")
3)
(check "cadddr"
(ev "(cadddr '(1 2 3 4))")
4)
(check "cddr"
(ev "(cddr '(1 2 3 4))")
(list 3 4))
;; ── subseq ───────────────────────────────────────────────────────
(check "subseq string"
(ev "(subseq \"hello\" 1 3)")
"el")
(check "subseq list"
(ev "(subseq '(a b c d) 1 3)")
(list "B" "C"))
(check "subseq no end"
(ev "(subseq \"hello\" 2)")
"llo")
;; ── FORMAT ─────────────────────────────────────────────────────────
(check "format ~A"
(ev "(format nil \"hello ~A\" \"world\")")
"hello world")
(check "format ~D"
(ev "(format nil \"~D items\" 42)")
"42 items")
(check "format two args"
(ev "(format nil \"~A ~A\" 1 2)")
"1 2")
(check "format ~A+~A=~A"
(ev "(format nil \"~A + ~A = ~A\" 1 2 3)")
"1 + 2 = 3")
(check "format iterate"
(ev "(format nil \"~{~A~}\" (quote (1 2 3)))")
"123")
(check "format iterate with space"
(ev "(format nil \"(~{~A ~})\" (quote (1 2 3)))")
"(1 2 3 )")
;; ── packages ─────────────────────────────────────────────────────
(check "defpackage returns name"
(ev "(defpackage :my-pkg (:use :cl))")
"MY-PKG")
(check "in-package"
(ev "(progn (defpackage :test-pkg) (in-package :test-pkg) (package-name))")
"TEST-PKG")
(check "package-qualified function"
(ev "(cl:car (quote (1 2 3)))")
1)
(check "package-qualified function 2"
(ev "(cl:mapcar (function evenp) (quote (2 3 4)))")
(list true nil true))
;; ── summary ──────────────────────────────────────────────────────
(define stdlib-passed passed)
(define stdlib-failed failed)
(define stdlib-failures failures)

86
lib/erlang/bench_ring.sh Executable file
View File

@@ -0,0 +1,86 @@
#!/usr/bin/env bash
# Erlang-on-SX ring benchmark.
#
# Spawns N processes in a ring, passes a token N hops (one full round),
# and reports wall-clock time + throughput. Aspirational target from
# the plan is 1M processes; current sync-scheduler architecture caps out
# orders of magnitude lower — this script measures honestly across a
# range of N so the result/scaling is recorded.
#
# Usage:
# bash lib/erlang/bench_ring.sh # default ladder
# bash lib/erlang/bench_ring.sh 100 1000 5000 # custom Ns
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found." >&2
exit 1
fi
if [ "$#" -gt 0 ]; then
NS=("$@")
else
NS=(10 100 500 1000)
fi
TMPFILE=$(mktemp)
trap "rm -f $TMPFILE" EXIT
# One-line Erlang program. Replaces __N__ with the size for each run.
PROGRAM='Me = self(), N = __N__, Spawner = fun () -> receive {setup, Next} -> Loop = fun () -> receive {token, 0, Parent} -> Parent ! done; {token, K, Parent} -> Next ! {token, K-1, Parent}, Loop() end end, Loop() end end, BuildRing = fun (K, Acc) -> if K =:= 0 -> Acc; true -> BuildRing(K-1, [spawn(Spawner) | Acc]) end end, Pids = BuildRing(N, []), Wire = fun (Ps) -> case Ps of [P, Q | _] -> P ! {setup, Q}, Wire(tl(Ps)); [Last] -> Last ! {setup, hd(Pids)} end end, Wire(Pids), hd(Pids) ! {token, N, Me}, receive done -> done end'
run_n() {
local n="$1"
local prog="${PROGRAM//__N__/$n}"
cat > "$TMPFILE" <<EPOCHS
(epoch 1)
(load "lib/erlang/tokenizer.sx")
(load "lib/erlang/parser.sx")
(load "lib/erlang/parser-core.sx")
(load "lib/erlang/parser-expr.sx")
(load "lib/erlang/parser-module.sx")
(load "lib/erlang/transpile.sx")
(load "lib/erlang/runtime.sx")
(epoch 2)
(eval "(erlang-eval-ast \"${prog//\"/\\\"}\")")
EPOCHS
local start_s start_ns end_s end_ns elapsed_ms
start_s=$(date +%s)
start_ns=$(date +%N)
out=$(timeout 300 "$SX_SERVER" < "$TMPFILE" 2>&1)
end_s=$(date +%s)
end_ns=$(date +%N)
local ok="false"
if echo "$out" | grep -q ':name "done"'; then ok="true"; fi
# ms = (end_s - start_s)*1000 + (end_ns - start_ns)/1e6
elapsed_ms=$(awk -v s1="$start_s" -v n1="$start_ns" -v s2="$end_s" -v n2="$end_ns" \
'BEGIN { printf "%d", (s2 - s1) * 1000 + (n2 - n1) / 1000000 }')
if [ "$ok" = "true" ]; then
local hops_per_s
hops_per_s=$(awk -v n="$n" -v ms="$elapsed_ms" \
'BEGIN { if (ms == 0) ms = 1; printf "%.0f", n * 1000 / ms }')
printf " N=%-8s hops=%-8s %sms (%s hops/s)\n" "$n" "$n" "$elapsed_ms" "$hops_per_s"
else
printf " N=%-8s FAILED %sms\n" "$n" "$elapsed_ms"
fi
}
echo "Ring benchmark — sx_server.exe (synchronous scheduler)"
echo
for n in "${NS[@]}"; do
run_n "$n"
done
echo
echo "Note: 1M-process target from the plan is aspirational; the synchronous"
echo "scheduler with shift-based suspension and dict-based env copies is not"
echo "engineered for that scale. Numbers above are honest baselines."

View File

@@ -0,0 +1,35 @@
# Ring Benchmark Results
Generated by `lib/erlang/bench_ring.sh` against `sx_server.exe` on the
synchronous Erlang-on-SX scheduler.
| N (processes) | Hops | Wall-clock | Throughput |
|---|---|---|---|
| 10 | 10 | 907ms | 11 hops/s |
| 50 | 50 | 2107ms | 24 hops/s |
| 100 | 100 | 3827ms | 26 hops/s |
| 500 | 500 | 17004ms | 29 hops/s |
| 1000 | 1000 | 29832ms | 34 hops/s |
(Each `Nm` row spawns N processes connected in a ring and passes a
single token N hops total — i.e. the token completes one full lap.)
## Status of the 1M-process target
Phase 3's stretch goal in `plans/erlang-on-sx.md` is a million-process
ring benchmark. **That target is not met** in the current synchronous
scheduler; extrapolating from the table above, 1M hops would take
~30 000 s. Correctness is fine — the program runs at every measured
size — but throughput is bound by per-hop overhead.
Per-hop cost is dominated by:
- `er-env-copy` per fun clause attempt (whole-dict copy each time)
- `call/cc` capture + `raise`/`guard` unwind on every `receive`
- `er-q-delete-at!` rebuilds the mailbox backing list on every match
- `dict-set!`/`dict-has?` lookups in the global processes table
To reach 1M-process throughput in this architecture would need at
least: persistent (path-copying) envs, an inline scheduler that
doesn't call/cc on the common path (msg-already-in-mailbox), and a
linked-list mailbox. None of those are in scope for the Phase 3
checkbox — captured here as the floor we're starting from.

153
lib/erlang/conformance.sh Executable file
View File

@@ -0,0 +1,153 @@
#!/usr/bin/env bash
# Erlang-on-SX conformance runner.
#
# Loads every erlang test suite via the epoch protocol, collects
# pass/fail counts, and writes lib/erlang/scoreboard.json + .md.
#
# Usage:
# bash lib/erlang/conformance.sh # run all suites
# bash lib/erlang/conformance.sh -v # verbose per-suite
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found." >&2
exit 1
fi
VERBOSE="${1:-}"
TMPFILE=$(mktemp)
OUTFILE=$(mktemp)
trap "rm -f $TMPFILE $OUTFILE" EXIT
# Each suite: name | counter pass | counter total
SUITES=(
"tokenize|er-test-pass|er-test-count"
"parse|er-parse-test-pass|er-parse-test-count"
"eval|er-eval-test-pass|er-eval-test-count"
"runtime|er-rt-test-pass|er-rt-test-count"
"ring|er-ring-test-pass|er-ring-test-count"
"ping-pong|er-pp-test-pass|er-pp-test-count"
"bank|er-bank-test-pass|er-bank-test-count"
"echo|er-echo-test-pass|er-echo-test-count"
"fib|er-fib-test-pass|er-fib-test-count"
)
cat > "$TMPFILE" << 'EPOCHS'
(epoch 1)
(load "lib/erlang/tokenizer.sx")
(load "lib/erlang/parser.sx")
(load "lib/erlang/parser-core.sx")
(load "lib/erlang/parser-expr.sx")
(load "lib/erlang/parser-module.sx")
(load "lib/erlang/transpile.sx")
(load "lib/erlang/runtime.sx")
(load "lib/erlang/tests/tokenize.sx")
(load "lib/erlang/tests/parse.sx")
(load "lib/erlang/tests/eval.sx")
(load "lib/erlang/tests/runtime.sx")
(load "lib/erlang/tests/programs/ring.sx")
(load "lib/erlang/tests/programs/ping_pong.sx")
(load "lib/erlang/tests/programs/bank.sx")
(load "lib/erlang/tests/programs/echo.sx")
(load "lib/erlang/tests/programs/fib_server.sx")
(epoch 100)
(eval "(list er-test-pass er-test-count)")
(epoch 101)
(eval "(list er-parse-test-pass er-parse-test-count)")
(epoch 102)
(eval "(list er-eval-test-pass er-eval-test-count)")
(epoch 103)
(eval "(list er-rt-test-pass er-rt-test-count)")
(epoch 104)
(eval "(list er-ring-test-pass er-ring-test-count)")
(epoch 105)
(eval "(list er-pp-test-pass er-pp-test-count)")
(epoch 106)
(eval "(list er-bank-test-pass er-bank-test-count)")
(epoch 107)
(eval "(list er-echo-test-pass er-echo-test-count)")
(epoch 108)
(eval "(list er-fib-test-pass er-fib-test-count)")
EPOCHS
timeout 120 "$SX_SERVER" < "$TMPFILE" > "$OUTFILE" 2>&1
# Parse "(N M)" from the line after each "(ok-len <epoch> ...)" marker.
parse_pair() {
local epoch="$1"
local line
line=$(grep -A1 "^(ok-len $epoch " "$OUTFILE" | tail -1)
echo "$line" | sed -E 's/[()]//g'
}
TOTAL_PASS=0
TOTAL_COUNT=0
JSON_SUITES=""
MD_ROWS=""
idx=0
for entry in "${SUITES[@]}"; do
name="${entry%%|*}"
epoch=$((100 + idx))
pair=$(parse_pair "$epoch")
pass=$(echo "$pair" | awk '{print $1}')
count=$(echo "$pair" | awk '{print $2}')
if [ -z "$pass" ] || [ -z "$count" ]; then
pass=0
count=0
fi
TOTAL_PASS=$((TOTAL_PASS + pass))
TOTAL_COUNT=$((TOTAL_COUNT + count))
status="ok"
marker="✅"
if [ "$pass" != "$count" ]; then
status="fail"
marker="❌"
fi
if [ "$VERBOSE" = "-v" ]; then
printf " %-12s %s/%s\n" "$name" "$pass" "$count"
fi
if [ -n "$JSON_SUITES" ]; then JSON_SUITES+=","; fi
JSON_SUITES+=$'\n '
JSON_SUITES+="{\"name\":\"$name\",\"pass\":$pass,\"total\":$count,\"status\":\"$status\"}"
MD_ROWS+="| $marker | $name | $pass | $count |"$'\n'
idx=$((idx + 1))
done
printf '\nErlang-on-SX conformance: %d / %d\n' "$TOTAL_PASS" "$TOTAL_COUNT"
# scoreboard.json
cat > lib/erlang/scoreboard.json <<JSON
{
"language": "erlang",
"total_pass": $TOTAL_PASS,
"total": $TOTAL_COUNT,
"suites": [$JSON_SUITES
]
}
JSON
# scoreboard.md
cat > lib/erlang/scoreboard.md <<MD
# Erlang-on-SX Scoreboard
**Total: ${TOTAL_PASS} / ${TOTAL_COUNT} tests passing**
| | Suite | Pass | Total |
|---|---|---|---|
$MD_ROWS
Generated by \`lib/erlang/conformance.sh\`.
MD
if [ "$TOTAL_PASS" -eq "$TOTAL_COUNT" ]; then
exit 0
else
exit 1
fi

View File

@@ -237,6 +237,8 @@
(er-parse-fun-expr st)
(er-is? st "keyword" "try")
(er-parse-try st)
(er-is? st "punct" "<<")
(er-parse-binary st)
:else (error
(str
"Erlang parse: unexpected "
@@ -281,12 +283,56 @@
(fn
(st)
(er-expect! st "punct" "[")
(if
(cond
(er-is? st "punct" "]")
(do (er-advance! st) {:type "nil"})
(let
((elems (list (er-parse-expr-prec st 0))))
(er-parse-list-tail st elems)))))
:else (let
((first (er-parse-expr-prec st 0)))
(cond
(er-is? st "punct" "||") (er-parse-list-comp st first)
:else (er-parse-list-tail st (list first)))))))
(define
er-parse-list-comp
(fn
(st head)
(er-advance! st)
(let
((quals (list (er-parse-lc-qualifier st))))
(er-parse-list-comp-tail st head quals))))
(define
er-parse-list-comp-tail
(fn
(st head quals)
(cond
(er-is? st "punct" ",")
(do
(er-advance! st)
(append! quals (er-parse-lc-qualifier st))
(er-parse-list-comp-tail st head quals))
(er-is? st "punct" "]")
(do (er-advance! st) {:head head :qualifiers quals :type "lc"})
:else (error
(str
"Erlang parse: expected ',' or ']' in list comprehension, got '"
(er-cur-value st)
"'")))))
(define
er-parse-lc-qualifier
(fn
(st)
(let
((e (er-parse-expr-prec st 0)))
(cond
(er-is? st "punct" "<-")
(do
(er-advance! st)
(let
((source (er-parse-expr-prec st 0)))
{:kind "gen" :pattern e :source source}))
:else {:kind "filter" :expr e}))))
(define
er-parse-list-tail
@@ -532,3 +578,63 @@
((guards (if (er-is? st "keyword" "when") (do (er-advance! st) (er-parse-guards st)) (list))))
(er-expect! st "punct" "->")
(let ((body (er-parse-body st))) {:pattern pat :body body :class klass :guards guards}))))))
;; ── binary literals / patterns ────────────────────────────────
;; `<< [Seg {, Seg}] >>` where Seg = Value [: Size] [/ Spec]. Size is
;; a literal integer (multiple of 8 supported); Spec is `integer`
;; (default) or `binary` (rest-of-binary tail). Sufficient for the
;; common `<<A:8, B:16, Rest/binary>>` patterns.
(define
er-parse-binary
(fn
(st)
(er-expect! st "punct" "<<")
(cond
(er-is? st "punct" ">>")
(do (er-advance! st) {:segments (list) :type "binary"})
:else (let
((segs (list (er-parse-binary-segment st))))
(er-parse-binary-tail st segs)))))
(define
er-parse-binary-tail
(fn
(st segs)
(cond
(er-is? st "punct" ",")
(do
(er-advance! st)
(append! segs (er-parse-binary-segment st))
(er-parse-binary-tail st segs))
(er-is? st "punct" ">>")
(do (er-advance! st) {:segments segs :type "binary"})
:else (error
(str
"Erlang parse: expected ',' or '>>' in binary, got '"
(er-cur-value st)
"'")))))
(define
er-parse-binary-segment
(fn
(st)
;; Use `er-parse-primary` for the value so a leading `:` falls
;; through to the segment's size suffix instead of being eaten
;; by `er-parse-postfix-loop` as a `Mod:Fun` remote call.
(let
((v (er-parse-primary st)))
(let
((size (cond
(er-is? st "punct" ":")
(do (er-advance! st) (er-parse-primary st))
:else nil))
(spec (cond
(er-is? st "op" "/")
(do
(er-advance! st)
(let
((tok (er-cur st)))
(er-advance! st)
(get tok :value)))
:else "integer")))
{:size size :spec spec :value v}))))

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{
"language": "erlang",
"total_pass": 530,
"total": 530,
"suites": [
{"name":"tokenize","pass":62,"total":62,"status":"ok"},
{"name":"parse","pass":52,"total":52,"status":"ok"},
{"name":"eval","pass":346,"total":346,"status":"ok"},
{"name":"runtime","pass":39,"total":39,"status":"ok"},
{"name":"ring","pass":4,"total":4,"status":"ok"},
{"name":"ping-pong","pass":4,"total":4,"status":"ok"},
{"name":"bank","pass":8,"total":8,"status":"ok"},
{"name":"echo","pass":7,"total":7,"status":"ok"},
{"name":"fib","pass":8,"total":8,"status":"ok"}
]
}

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lib/erlang/scoreboard.md Normal file
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# Erlang-on-SX Scoreboard
**Total: 530 / 530 tests passing**
| | Suite | Pass | Total |
|---|---|---|---|
| ✅ | tokenize | 62 | 62 |
| ✅ | parse | 52 | 52 |
| ✅ | eval | 346 | 346 |
| ✅ | runtime | 39 | 39 |
| ✅ | ring | 4 | 4 |
| ✅ | ping-pong | 4 | 4 |
| ✅ | bank | 8 | 8 |
| ✅ | echo | 7 | 7 |
| ✅ | fib | 8 | 8 |
Generated by `lib/erlang/conformance.sh`.

260
lib/erlang/test.sh Executable file
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#!/usr/bin/env bash
# lib/erlang/test.sh — smoke-test the Erlang runtime layer.
# Uses sx_server.exe epoch protocol.
#
# Usage:
# bash lib/erlang/test.sh
# bash lib/erlang/test.sh -v
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found. Run: cd hosts/ocaml && dune build"
exit 1
fi
VERBOSE="${1:-}"
PASS=0; FAIL=0; ERRORS=""
TMPFILE=$(mktemp); trap "rm -f $TMPFILE" EXIT
cat > "$TMPFILE" << 'EPOCHS'
(epoch 1)
(load "lib/erlang/runtime.sx")
;; --- Numeric tower ---
(epoch 10)
(eval "(er-is-integer? 42)")
(epoch 11)
(eval "(er-is-integer? 3.14)")
(epoch 12)
(eval "(er-is-float? 3.14)")
(epoch 13)
(eval "(er-is-float? 42)")
(epoch 14)
(eval "(er-is-number? 42)")
(epoch 15)
(eval "(er-is-number? 3.14)")
(epoch 16)
(eval "(er-float 5)")
(epoch 17)
(eval "(er-trunc 3.9)")
(epoch 18)
(eval "(er-round 3.5)")
(epoch 19)
(eval "(er-abs -7)")
(epoch 20)
(eval "(er-max 3 7)")
(epoch 21)
(eval "(er-min 3 7)")
;; --- div + rem ---
(epoch 30)
(eval "(er-div 10 3)")
(epoch 31)
(eval "(er-div -10 3)")
(epoch 32)
(eval "(er-rem 10 3)")
(epoch 33)
(eval "(er-rem -10 3)")
(epoch 34)
(eval "(er-gcd 12 8)")
;; --- Bitwise ---
(epoch 40)
(eval "(er-band 12 10)")
(epoch 41)
(eval "(er-bor 12 10)")
(epoch 42)
(eval "(er-bxor 12 10)")
(epoch 43)
(eval "(er-bnot 0)")
(epoch 44)
(eval "(er-bsl 1 4)")
(epoch 45)
(eval "(er-bsr 16 2)")
;; --- Sets ---
(epoch 50)
(eval "(er-sets-is-set? (er-sets-new))")
(epoch 51)
(eval "(let ((s (er-sets-new))) (do (er-sets-add-element s 1) (er-sets-is-element s 1)))")
(epoch 52)
(eval "(er-sets-is-element (er-sets-new) 42)")
(epoch 53)
(eval "(er-sets-is-element (er-sets-from-list (list 1 2 3)) 2)")
(epoch 54)
(eval "(er-sets-size (er-sets-from-list (list 1 2 3)))")
(epoch 55)
(eval "(len (er-sets-to-list (er-sets-from-list (list 1 2 3))))")
;; --- Regexp ---
(epoch 60)
(eval "(not (= (er-re-run \"hello\" \"ll\") nil))")
(epoch 61)
(eval "(= (er-re-run \"hello\" \"xyz\") nil)")
(epoch 62)
(eval "(get (er-re-run \"hello\" \"ll\") :match)")
(epoch 63)
(eval "(er-re-replace \"hello\" \"l\" \"r\")")
(epoch 64)
(eval "(er-re-replace-all \"hello\" \"l\" \"r\")")
(epoch 65)
(eval "(er-re-match-groups (er-re-run \"hello world\" \"(\\w+)\\s+(\\w+)\"))")
(epoch 66)
(eval "(len (er-re-split \"a,b,c\" \",\"))")
;; --- List BIFs ---
(epoch 70)
(eval "(er-hd (list 1 2 3))")
(epoch 71)
(eval "(er-tl (list 1 2 3))")
(epoch 72)
(eval "(er-length (list 1 2 3))")
(epoch 73)
(eval "(er-lists-member 2 (list 1 2 3))")
(epoch 74)
(eval "(er-lists-member 9 (list 1 2 3))")
(epoch 75)
(eval "(er-lists-reverse (list 1 2 3))")
(epoch 76)
(eval "(er-lists-nth 2 (list 10 20 30))")
(epoch 77)
(eval "(er-lists-foldl + 0 (list 1 2 3 4 5))")
(epoch 78)
(eval "(er-lists-seq 1 5)")
(epoch 79)
(eval "(er-lists-flatten (list 1 (list 2 3) (list 4 (list 5))))")
;; --- Type conversions ---
(epoch 80)
(eval "(er-integer-to-list 42)")
(epoch 81)
(eval "(er-list-to-integer \"42\")")
(epoch 82)
(eval "(er-integer-to-list-radix 255 16)")
(epoch 83)
(eval "(er-atom-to-list (make-symbol \"hello\"))")
(epoch 84)
(eval "(= (type-of (er-list-to-atom \"foo\")) \"symbol\")")
;; --- ok/error tuples ---
(epoch 90)
(eval "(er-is-ok? (er-ok 42))")
(epoch 91)
(eval "(er-is-error? (er-error \"reason\"))")
(epoch 92)
(eval "(er-unwrap (er-ok 42))")
(epoch 93)
(eval "(er-is-ok? (er-error \"bad\"))")
EPOCHS
OUTPUT=$(timeout 30 "$SX_SERVER" < "$TMPFILE" 2>/dev/null)
check() {
local epoch="$1" desc="$2" expected="$3"
local actual
actual=$(echo "$OUTPUT" | grep -A1 "^(ok-len $epoch " | tail -1 || true)
if echo "$actual" | grep -q "^(ok-len"; then actual=""; fi
if [ -z "$actual" ]; then
actual=$(echo "$OUTPUT" | grep "^(ok $epoch " | head -1 || true)
fi
if [ -z "$actual" ]; then
actual=$(echo "$OUTPUT" | grep "^(error $epoch " | head -1 || true)
fi
[ -z "$actual" ] && actual="<no output for epoch $epoch>"
if echo "$actual" | grep -qF -- "$expected"; then
PASS=$((PASS+1))
[ "$VERBOSE" = "-v" ] && echo " ok $desc"
else
FAIL=$((FAIL+1))
ERRORS+=" FAIL [$desc] (epoch $epoch) expected: $expected | actual: $actual
"
fi
}
# Numeric tower
check 10 "is-integer? 42" "true"
check 11 "is-integer? float" "false"
check 12 "is-float? 3.14" "true"
check 13 "is-float? int" "false"
check 14 "is-number? int" "true"
check 15 "is-number? float" "true"
check 16 "float 5" "5"
check 17 "trunc 3.9" "3"
check 18 "round 3.5" "4"
check 19 "abs -7" "7"
check 20 "max 3 7" "7"
check 21 "min 3 7" "3"
# div + rem
check 30 "div 10 3" "3"
check 31 "div -10 3" "-3"
check 32 "rem 10 3" "1"
check 33 "rem -10 3" "-1"
check 34 "gcd 12 8" "4"
# Bitwise
check 40 "band 12 10" "8"
check 41 "bor 12 10" "14"
check 42 "bxor 12 10" "6"
check 43 "bnot 0" "-1"
check 44 "bsl 1 4" "16"
check 45 "bsr 16 2" "4"
# Sets
check 50 "sets-new is-set?" "true"
check 51 "sets add+member" "true"
check 52 "member empty" "false"
check 53 "from-list member" "true"
check 54 "sets-size" "3"
check 55 "sets-to-list len" "3"
# Regexp
check 60 "re-run match" "true"
check 61 "re-run no match" "true"
check 62 "re-run match text" '"ll"'
check 63 "re-replace first" '"herlo"'
check 64 "re-replace-all" '"herro"'
check 65 "re-match-groups" '"hello"'
check 66 "re-split count" "3"
# List BIFs
check 70 "hd" "1"
check 71 "tl" "(2 3)"
check 72 "length" "3"
check 73 "member hit" "true"
check 74 "member miss" "false"
check 75 "reverse" "(3 2 1)"
check 76 "nth 2" "20"
check 77 "foldl sum" "15"
check 78 "seq 1..5" "(1 2 3 4 5)"
check 79 "flatten" "(1 2 3 4 5)"
# Type conversions
check 80 "integer-to-list" '"42"'
check 81 "list-to-integer" "42"
check 82 "integer-to-list hex" '"ff"'
check 83 "atom-to-list" '"hello"'
check 84 "list-to-atom" "true"
# ok/error
check 90 "ok? ok-tuple" "true"
check 91 "error? error-tuple" "true"
check 92 "unwrap ok" "42"
check 93 "ok? error-tuple" "false"
TOTAL=$((PASS+FAIL))
if [ $FAIL -eq 0 ]; then
echo "ok $PASS/$TOTAL lib/erlang tests passed"
else
echo "FAIL $PASS/$TOTAL passed, $FAIL failed:"
echo "$ERRORS"
fi
[ $FAIL -eq 0 ]

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;; Bank account server — stateful process, balance threaded through
;; recursive loop. Handles {deposit, Amt, From}, {withdraw, Amt, From},
;; {balance, From}, stop. Tests stateful process patterns.
(define er-bank-test-count 0)
(define er-bank-test-pass 0)
(define er-bank-test-fails (list))
(define
er-bank-test
(fn
(name actual expected)
(set! er-bank-test-count (+ er-bank-test-count 1))
(if
(= actual expected)
(set! er-bank-test-pass (+ er-bank-test-pass 1))
(append! er-bank-test-fails {:actual actual :expected expected :name name}))))
(define bank-ev erlang-eval-ast)
;; Server fun shared by all tests — threaded via the program string.
(define
er-bank-server-src
"Server = fun (Balance) ->
receive
{deposit, Amt, From} -> From ! ok, Server(Balance + Amt);
{withdraw, Amt, From} ->
if Amt > Balance -> From ! insufficient, Server(Balance);
true -> From ! ok, Server(Balance - Amt)
end;
{balance, From} -> From ! Balance, Server(Balance);
stop -> ok
end
end")
;; Open account, deposit, check balance.
(er-bank-test
"deposit 100 -> balance 100"
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(0) end),
Bank ! {deposit, 100, Me},
receive ok -> ok end,
Bank ! {balance, Me},
receive B -> Bank ! stop, B end"))
100)
;; Multiple deposits accumulate.
(er-bank-test
"deposits accumulate"
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(0) end),
Bank ! {deposit, 50, Me}, receive ok -> ok end,
Bank ! {deposit, 25, Me}, receive ok -> ok end,
Bank ! {deposit, 10, Me}, receive ok -> ok end,
Bank ! {balance, Me},
receive B -> Bank ! stop, B end"))
85)
;; Withdraw within balance succeeds; insufficient gets rejected.
(er-bank-test
"withdraw within balance"
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(100) end),
Bank ! {withdraw, 30, Me}, receive ok -> ok end,
Bank ! {balance, Me},
receive B -> Bank ! stop, B end"))
70)
(er-bank-test
"withdraw insufficient"
(get
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(20) end),
Bank ! {withdraw, 100, Me},
receive R -> Bank ! stop, R end"))
:name)
"insufficient")
;; State preserved across an insufficient withdrawal.
(er-bank-test
"state preserved on rejection"
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(50) end),
Bank ! {withdraw, 1000, Me}, receive _ -> ok end,
Bank ! {balance, Me},
receive B -> Bank ! stop, B end"))
50)
;; Mixed deposits and withdrawals.
(er-bank-test
"mixed transactions"
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(100) end),
Bank ! {deposit, 50, Me}, receive ok -> ok end,
Bank ! {withdraw, 30, Me}, receive ok -> ok end,
Bank ! {deposit, 10, Me}, receive ok -> ok end,
Bank ! {withdraw, 5, Me}, receive ok -> ok end,
Bank ! {balance, Me},
receive B -> Bank ! stop, B end"))
125)
;; Server.stop terminates the bank cleanly — main can verify by
;; sending stop and then exiting normally.
(er-bank-test
"server stops cleanly"
(get
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(0) end),
Bank ! stop,
done"))
:name)
"done")
;; Two clients sharing one bank — interleaved transactions.
(er-bank-test
"two clients share bank"
(bank-ev
(str
er-bank-server-src
", Me = self(),
Bank = spawn(fun () -> Server(0) end),
Client = fun (Amt) ->
spawn(fun () ->
Bank ! {deposit, Amt, self()},
receive ok -> Me ! deposited end
end)
end,
Client(40),
Client(60),
receive deposited -> ok end,
receive deposited -> ok end,
Bank ! {balance, Me},
receive B -> Bank ! stop, B end"))
100)
(define
er-bank-test-summary
(str "bank " er-bank-test-pass "/" er-bank-test-count))

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;; Echo server — minimal classic Erlang server. Receives {From, Msg}
;; and sends Msg back to From, then loops. `stop` ends the server.
(define er-echo-test-count 0)
(define er-echo-test-pass 0)
(define er-echo-test-fails (list))
(define
er-echo-test
(fn
(name actual expected)
(set! er-echo-test-count (+ er-echo-test-count 1))
(if
(= actual expected)
(set! er-echo-test-pass (+ er-echo-test-pass 1))
(append! er-echo-test-fails {:actual actual :expected expected :name name}))))
(define echo-ev erlang-eval-ast)
(define
er-echo-server-src
"EchoSrv = fun () ->
Loop = fun () ->
receive
{From, Msg} -> From ! Msg, Loop();
stop -> ok
end
end,
Loop()
end")
;; Single round-trip with an atom.
(er-echo-test
"atom round-trip"
(get
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Echo ! {Me, hello},
receive R -> Echo ! stop, R end"))
:name)
"hello")
;; Number round-trip.
(er-echo-test
"number round-trip"
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Echo ! {Me, 42},
receive R -> Echo ! stop, R end"))
42)
;; Tuple round-trip — pattern-match the reply to extract V.
(er-echo-test
"tuple round-trip"
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Echo ! {Me, {ok, 7}},
receive {ok, V} -> Echo ! stop, V end"))
7)
;; List round-trip.
(er-echo-test
"list round-trip"
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Echo ! {Me, [1, 2, 3]},
receive [H | _] -> Echo ! stop, H end"))
1)
;; Multiple sequential round-trips.
(er-echo-test
"three round-trips"
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Echo ! {Me, 10}, A = receive Ra -> Ra end,
Echo ! {Me, 20}, B = receive Rb -> Rb end,
Echo ! {Me, 30}, C = receive Rc -> Rc end,
Echo ! stop,
A + B + C"))
60)
;; Two clients sharing one echo server. Each gets its own reply.
(er-echo-test
"two clients"
(get
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Client = fun (Tag) ->
spawn(fun () ->
Echo ! {self(), Tag},
receive R -> Me ! {got, R} end
end)
end,
Client(a),
Client(b),
receive {got, _} -> ok end,
receive {got, _} -> ok end,
Echo ! stop,
finished"))
:name)
"finished")
;; Echo via io trace — verify each message round-trips through.
(er-echo-test
"trace 4 messages"
(do
(er-io-flush!)
(echo-ev
(str
er-echo-server-src
", Me = self(),
Echo = spawn(EchoSrv),
Send = fun (V) -> Echo ! {Me, V}, receive R -> io:format(\"~p \", [R]) end end,
Send(1), Send(2), Send(3), Send(4),
Echo ! stop,
done"))
(er-io-buffer-content))
"1 2 3 4 ")
(define
er-echo-test-summary
(str "echo " er-echo-test-pass "/" er-echo-test-count))

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;; Fib server — long-lived process that computes fibonacci numbers on
;; request. Tests recursive function evaluation inside a server loop.
(define er-fib-test-count 0)
(define er-fib-test-pass 0)
(define er-fib-test-fails (list))
(define
er-fib-test
(fn
(name actual expected)
(set! er-fib-test-count (+ er-fib-test-count 1))
(if
(= actual expected)
(set! er-fib-test-pass (+ er-fib-test-pass 1))
(append! er-fib-test-fails {:actual actual :expected expected :name name}))))
(define fib-ev erlang-eval-ast)
;; Fib + server-loop source. Standalone so each test can chain queries.
(define
er-fib-server-src
"Fib = fun (0) -> 0; (1) -> 1; (N) -> Fib(N-1) + Fib(N-2) end,
FibSrv = fun () ->
Loop = fun () ->
receive
{fib, N, From} -> From ! Fib(N), Loop();
stop -> ok
end
end,
Loop()
end")
;; Base cases.
(er-fib-test
"fib(0)"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Srv ! {fib, 0, Me},
receive R -> Srv ! stop, R end"))
0)
(er-fib-test
"fib(1)"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Srv ! {fib, 1, Me},
receive R -> Srv ! stop, R end"))
1)
;; Larger values.
(er-fib-test
"fib(10) = 55"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Srv ! {fib, 10, Me},
receive R -> Srv ! stop, R end"))
55)
(er-fib-test
"fib(15) = 610"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Srv ! {fib, 15, Me},
receive R -> Srv ! stop, R end"))
610)
;; Multiple sequential queries to one server. Sum to avoid dict-equality.
(er-fib-test
"sequential fib(5..8) sum"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Srv ! {fib, 5, Me}, A = receive Ra -> Ra end,
Srv ! {fib, 6, Me}, B = receive Rb -> Rb end,
Srv ! {fib, 7, Me}, C = receive Rc -> Rc end,
Srv ! {fib, 8, Me}, D = receive Rd -> Rd end,
Srv ! stop,
A + B + C + D"))
47)
;; Verify Fib obeys the recurrence — fib(n) = fib(n-1) + fib(n-2).
(er-fib-test
"fib recurrence at n=12"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Srv ! {fib, 10, Me}, A = receive Ra -> Ra end,
Srv ! {fib, 11, Me}, B = receive Rb -> Rb end,
Srv ! {fib, 12, Me}, C = receive Rc -> Rc end,
Srv ! stop,
C - (A + B)"))
0)
;; Two clients each get their own answer; main sums the results.
(er-fib-test
"two clients sum"
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Client = fun (N) ->
spawn(fun () ->
Srv ! {fib, N, self()},
receive R -> Me ! {result, R} end
end)
end,
Client(7),
Client(9),
{result, A} = receive M1 -> M1 end,
{result, B} = receive M2 -> M2 end,
Srv ! stop,
A + B"))
47)
;; Trace queries via io-buffer.
(er-fib-test
"trace fib 0..6"
(do
(er-io-flush!)
(fib-ev
(str
er-fib-server-src
", Me = self(),
Srv = spawn(FibSrv),
Ask = fun (N) -> Srv ! {fib, N, Me}, receive R -> io:format(\"~p \", [R]) end end,
Ask(0), Ask(1), Ask(2), Ask(3), Ask(4), Ask(5), Ask(6),
Srv ! stop,
done"))
(er-io-buffer-content))
"0 1 1 2 3 5 8 ")
(define
er-fib-test-summary
(str "fib " er-fib-test-pass "/" er-fib-test-count))

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;; Ping-pong program — two processes exchange N messages, then signal
;; main via separate `ping_done` / `pong_done` notifications.
(define er-pp-test-count 0)
(define er-pp-test-pass 0)
(define er-pp-test-fails (list))
(define
er-pp-test
(fn
(name actual expected)
(set! er-pp-test-count (+ er-pp-test-count 1))
(if
(= actual expected)
(set! er-pp-test-pass (+ er-pp-test-pass 1))
(append! er-pp-test-fails {:actual actual :expected expected :name name}))))
(define pp-ev erlang-eval-ast)
;; Three rounds of ping-pong, then stop. Main receives ping_done and
;; pong_done in arrival order (Ping finishes first because Pong exits
;; only after receiving stop).
(define
er-pp-program
"Me = self(),
Pong = spawn(fun () ->
Loop = fun () ->
receive
{ping, From} -> From ! pong, Loop();
stop -> Me ! pong_done
end
end,
Loop()
end),
Ping = fun (Target, K) ->
if K =:= 0 -> Target ! stop, Me ! ping_done;
true -> Target ! {ping, self()}, receive pong -> Ping(Target, K - 1) end
end
end,
spawn(fun () -> Ping(Pong, 3) end),
receive ping_done -> ok end,
receive pong_done -> both_done end")
(er-pp-test
"ping-pong 3 rounds"
(get (pp-ev er-pp-program) :name)
"both_done")
;; Count exchanges via io-buffer — each pong trip prints "p".
(er-pp-test
"ping-pong 5 rounds trace"
(do
(er-io-flush!)
(pp-ev
"Me = self(),
Pong = spawn(fun () ->
Loop = fun () ->
receive
{ping, From} -> io:format(\"p\"), From ! pong, Loop();
stop -> Me ! pong_done
end
end,
Loop()
end),
Ping = fun (Target, K) ->
if K =:= 0 -> Target ! stop, Me ! ping_done;
true -> Target ! {ping, self()}, receive pong -> Ping(Target, K - 1) end
end
end,
spawn(fun () -> Ping(Pong, 5) end),
receive ping_done -> ok end,
receive pong_done -> ok end")
(er-io-buffer-content))
"ppppp")
;; Main → Pong directly (no Ping process). Main plays the ping role.
(er-pp-test
"main-as-pinger 4 rounds"
(pp-ev
"Me = self(),
Pong = spawn(fun () ->
Loop = fun () ->
receive
{ping, From} -> From ! pong, Loop();
stop -> ok
end
end,
Loop()
end),
Go = fun (K) ->
if K =:= 0 -> Pong ! stop, K;
true -> Pong ! {ping, Me}, receive pong -> Go(K - 1) end
end
end,
Go(4)")
0)
;; Ensure the processes really interleave — inject an id into each
;; ping and check we get them all back via trace (the order is
;; deterministic under our sync scheduler).
(er-pp-test
"ids round-trip"
(do
(er-io-flush!)
(pp-ev
"Me = self(),
Pong = spawn(fun () ->
Loop = fun () ->
receive
{ping, From, Id} -> From ! {pong, Id}, Loop();
stop -> ok
end
end,
Loop()
end),
Go = fun (K) ->
if K =:= 0 -> Pong ! stop, done;
true -> Pong ! {ping, Me, K}, receive {pong, RId} -> io:format(\"~p \", [RId]), Go(K - 1) end
end
end,
Go(4)")
(er-io-buffer-content))
"4 3 2 1 ")
(define
er-pp-test-summary
(str "ping-pong " er-pp-test-pass "/" er-pp-test-count))

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;; Ring program — N processes in a ring, token passes M times.
;;
;; Each process waits for {setup, Next} so main can tie the knot
;; (can't reference a pid before spawning it). Once wired, main
;; injects the first token; each process forwards decrementing K
;; until it hits 0, at which point it signals `done` to main.
(define er-ring-test-count 0)
(define er-ring-test-pass 0)
(define er-ring-test-fails (list))
(define
er-ring-test
(fn
(name actual expected)
(set! er-ring-test-count (+ er-ring-test-count 1))
(if
(= actual expected)
(set! er-ring-test-pass (+ er-ring-test-pass 1))
(append! er-ring-test-fails {:actual actual :expected expected :name name}))))
(define ring-ev erlang-eval-ast)
(define
er-ring-program-3-6
"Me = self(),
Spawner = fun () ->
receive {setup, Next} ->
Loop = fun () ->
receive
{token, 0, Parent} -> Parent ! done;
{token, K, Parent} -> Next ! {token, K-1, Parent}, Loop()
end
end,
Loop()
end
end,
P1 = spawn(Spawner),
P2 = spawn(Spawner),
P3 = spawn(Spawner),
P1 ! {setup, P2},
P2 ! {setup, P3},
P3 ! {setup, P1},
P1 ! {token, 5, Me},
receive done -> finished end")
(er-ring-test
"ring N=3 M=6"
(get (ring-ev er-ring-program-3-6) :name)
"finished")
;; Two-node ring — token bounces twice between P1 and P2.
(er-ring-test
"ring N=2 M=4"
(get (ring-ev
"Me = self(),
Spawner = fun () ->
receive {setup, Next} ->
Loop = fun () ->
receive
{token, 0, Parent} -> Parent ! done;
{token, K, Parent} -> Next ! {token, K-1, Parent}, Loop()
end
end,
Loop()
end
end,
P1 = spawn(Spawner),
P2 = spawn(Spawner),
P1 ! {setup, P2},
P2 ! {setup, P1},
P1 ! {token, 3, Me},
receive done -> done end") :name)
"done")
;; Single-node "ring" — P sends to itself M times.
(er-ring-test
"ring N=1 M=5"
(get (ring-ev
"Me = self(),
Spawner = fun () ->
receive {setup, Next} ->
Loop = fun () ->
receive
{token, 0, Parent} -> Parent ! finished_loop;
{token, K, Parent} -> Next ! {token, K-1, Parent}, Loop()
end
end,
Loop()
end
end,
P = spawn(Spawner),
P ! {setup, P},
P ! {token, 4, Me},
receive finished_loop -> ok end") :name)
"ok")
;; Confirm the token really went around — count hops via io-buffer.
(er-ring-test
"ring N=3 M=9 hop count"
(do
(er-io-flush!)
(ring-ev
"Me = self(),
Spawner = fun () ->
receive {setup, Next} ->
Loop = fun () ->
receive
{token, 0, Parent} -> Parent ! done;
{token, K, Parent} ->
io:format(\"~p \", [K]),
Next ! {token, K-1, Parent},
Loop()
end
end,
Loop()
end
end,
P1 = spawn(Spawner),
P2 = spawn(Spawner),
P3 = spawn(Spawner),
P1 ! {setup, P2},
P2 ! {setup, P3},
P3 ! {setup, P1},
P1 ! {token, 8, Me},
receive done -> done end")
(er-io-buffer-content))
"8 7 6 5 4 3 2 1 ")
(define
er-ring-test-summary
(str "ring " er-ring-test-pass "/" er-ring-test-count))

139
lib/erlang/tests/runtime.sx Normal file
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;; Erlang runtime tests — scheduler + process-record primitives.
(define er-rt-test-count 0)
(define er-rt-test-pass 0)
(define er-rt-test-fails (list))
(define
er-rt-test
(fn
(name actual expected)
(set! er-rt-test-count (+ er-rt-test-count 1))
(if
(= actual expected)
(set! er-rt-test-pass (+ er-rt-test-pass 1))
(append! er-rt-test-fails {:actual actual :expected expected :name name}))))
;; ── queue ─────────────────────────────────────────────────────────
(er-rt-test "queue empty len" (er-q-len (er-q-new)) 0)
(er-rt-test "queue empty?" (er-q-empty? (er-q-new)) true)
(define q1 (er-q-new))
(er-q-push! q1 "a")
(er-q-push! q1 "b")
(er-q-push! q1 "c")
(er-rt-test "queue push len" (er-q-len q1) 3)
(er-rt-test "queue empty? after push" (er-q-empty? q1) false)
(er-rt-test "queue peek" (er-q-peek q1) "a")
(er-rt-test "queue pop 1" (er-q-pop! q1) "a")
(er-rt-test "queue pop 2" (er-q-pop! q1) "b")
(er-rt-test "queue len after pops" (er-q-len q1) 1)
(er-rt-test "queue pop 3" (er-q-pop! q1) "c")
(er-rt-test "queue empty again" (er-q-empty? q1) true)
(er-rt-test "queue pop empty" (er-q-pop! q1) nil)
;; Queue FIFO under interleaved push/pop
(define q2 (er-q-new))
(er-q-push! q2 1)
(er-q-push! q2 2)
(er-q-pop! q2)
(er-q-push! q2 3)
(er-rt-test "queue interleave peek" (er-q-peek q2) 2)
(er-rt-test "queue to-list" (er-q-to-list q2) (list 2 3))
;; ── scheduler init ─────────────────────────────────────────────
(er-sched-init!)
(er-rt-test "sched process count 0" (er-sched-process-count) 0)
(er-rt-test "sched runnable count 0" (er-sched-runnable-count) 0)
(er-rt-test "sched current nil" (er-sched-current-pid) nil)
;; ── pid allocation ─────────────────────────────────────────────
(define pa (er-pid-new!))
(define pb (er-pid-new!))
(er-rt-test "pid tag" (get pa :tag) "pid")
(er-rt-test "pid ids distinct" (= (er-pid-id pa) (er-pid-id pb)) false)
(er-rt-test "pid? true" (er-pid? pa) true)
(er-rt-test "pid? false" (er-pid? 42) false)
(er-rt-test
"pid-equal same"
(er-pid-equal? pa (er-mk-pid (er-pid-id pa)))
true)
(er-rt-test "pid-equal diff" (er-pid-equal? pa pb) false)
;; ── process lifecycle ──────────────────────────────────────────
(er-sched-init!)
(define p1 (er-proc-new! {}))
(define p2 (er-proc-new! {}))
(er-rt-test "proc count 2" (er-sched-process-count) 2)
(er-rt-test "runnable count 2" (er-sched-runnable-count) 2)
(er-rt-test
"proc state runnable"
(er-proc-field (get p1 :pid) :state)
"runnable")
(er-rt-test
"proc mailbox empty"
(er-proc-mailbox-size (get p1 :pid))
0)
(er-rt-test
"proc lookup"
(er-pid-equal? (get (er-proc-get (get p1 :pid)) :pid) (get p1 :pid))
true)
(er-rt-test "proc exists" (er-proc-exists? (get p1 :pid)) true)
(er-rt-test
"proc no-such-pid"
(er-proc-exists? (er-mk-pid 9999))
false)
;; runnable queue dequeue order
(er-rt-test
"dequeue first"
(er-pid-equal? (er-sched-next-runnable!) (get p1 :pid))
true)
(er-rt-test
"dequeue second"
(er-pid-equal? (er-sched-next-runnable!) (get p2 :pid))
true)
(er-rt-test "dequeue empty" (er-sched-next-runnable!) nil)
;; current-pid get/set
(er-sched-set-current! (get p1 :pid))
(er-rt-test
"current pid set"
(er-pid-equal? (er-sched-current-pid) (get p1 :pid))
true)
;; ── mailbox push ──────────────────────────────────────────────
(er-proc-mailbox-push! (get p1 :pid) {:tag "atom" :name "ping"})
(er-proc-mailbox-push! (get p1 :pid) 42)
(er-rt-test "mailbox size 2" (er-proc-mailbox-size (get p1 :pid)) 2)
;; ── field update ──────────────────────────────────────────────
(er-proc-set! (get p1 :pid) :state "waiting")
(er-rt-test
"proc state waiting"
(er-proc-field (get p1 :pid) :state)
"waiting")
(er-proc-set! (get p1 :pid) :trap-exit true)
(er-rt-test
"proc trap-exit"
(er-proc-field (get p1 :pid) :trap-exit)
true)
;; ── fresh scheduler ends in clean state ───────────────────────
(er-sched-init!)
(er-rt-test
"sched init resets count"
(er-sched-process-count)
0)
(er-rt-test
"sched init resets queue"
(er-sched-runnable-count)
0)
(er-rt-test
"sched init resets current"
(er-sched-current-pid)
nil)
(define
er-rt-test-summary
(str "runtime " er-rt-test-pass "/" er-rt-test-count))

1913
lib/erlang/transpile.sx Normal file

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@@ -1,433 +1,175 @@
;; Forth runtime — state, stacks, dictionary, output buffer.
;; Data stack: mutable SX list, TOS = first.
;; Return stack: separate mutable list.
;; Dictionary: SX dict {lowercased-name -> word-record}.
;; Word record: {"kind" "body" "immediate?"}; kind is "primitive" or "colon-def".
;; Output buffer: mutable string appended to by `.`, `EMIT`, `CR`, etc.
;; Compile-mode flag: "compiling" on the state.
;; lib/forth/runtime.sx — Forth primitives on SX
;;
;; Provides Forth-idiomatic wrappers over SX built-ins.
;; Primitives used:
;; bitwise-and/or/xor/not/arithmetic-shift/bit-count (Phase 7)
;; make-bytevector/bytevector-u8-ref/u8-set!/... (Phase 20)
;; quotient/remainder/modulo (Phase 15 / builtin)
;;
;; Naming: SX identifiers can't include @ or !-alone, so Forth words are:
;; C@ → forth-cfetch C! → forth-cstore
;; @ → forth-fetch ! → forth-store
;; ---------------------------------------------------------------------------
;; 1. Bitwise operations — Forth core words
;; Forth TRUE = -1 (all bits set), FALSE = 0.
;; All ops coerce to integer via truncate.
;; ---------------------------------------------------------------------------
(define (forth-and a b) (bitwise-and (truncate a) (truncate b)))
(define (forth-or a b) (bitwise-or (truncate a) (truncate b)))
(define (forth-xor a b) (bitwise-xor (truncate a) (truncate b)))
;; INVERT — bitwise NOT (Forth NOT is logical; INVERT is bitwise)
(define (forth-invert a) (bitwise-not (truncate a)))
;; LSHIFT RSHIFT — n bit — shift a by n positions
(define (forth-lshift a n) (arithmetic-shift (truncate a) (truncate n)))
(define
(forth-rshift a n)
(arithmetic-shift (truncate a) (- 0 (truncate n))))
;; 2* 2/ — multiply/divide by 2 via bit shift
(define (forth-2* a) (arithmetic-shift (truncate a) 1))
(define (forth-2/ a) (arithmetic-shift (truncate a) -1))
;; BIT-COUNT — number of set bits (Kernighan popcount)
(define (forth-bit-count a) (bit-count (truncate a)))
;; INTEGER-LENGTH — index of highest set bit (0 for zero)
(define (forth-integer-length a) (integer-length (truncate a)))
;; WITHIN — ( u ul uh -- flag ) true if ul <= u < uh
(define (forth-within u ul uh) (and (>= u ul) (< u uh)))
;; Arithmetic complements commonly used alongside bitwise ops
(define (forth-negate a) (- 0 (truncate a)))
(define (forth-abs a) (abs (truncate a)))
(define (forth-min a b) (if (< a b) a b))
(define (forth-max a b) (if (> a b) a b))
(define (forth-mod a b) (modulo (truncate a) (truncate b)))
;; /MOD — ( n1 n2 -- rem quot ) returns list (remainder quotient)
(define
(forth-divmod a b)
(list
(remainder (truncate a) (truncate b))
(quotient (truncate a) (truncate b))))
;; ---------------------------------------------------------------------------
;; 2. String buffer — word-definition / string accumulation
;; EMIT appends one char; TYPE appends a string.
;; Value is retrieved with forth-sb-value.
;; ---------------------------------------------------------------------------
(define
forth-make-state
(fn
()
(let
((s (dict)))
(dict-set! s "dstack" (list))
(dict-set! s "rstack" (list))
(dict-set! s "dict" (dict))
(dict-set! s "output" "")
(dict-set! s "compiling" false)
(dict-set! s "current-def" nil)
(dict-set! s "base" 10)
(dict-set! s "vars" (dict))
s)))
(forth-sb-new)
(let
((sb (dict)))
(dict-set! sb "_forth_sb" true)
(dict-set! sb "_chars" (list))
sb))
(define (forth-sb? v) (and (dict? v) (dict-has? v "_forth_sb")))
;; EMIT — append one character
(define
(forth-sb-emit! sb c)
(dict-set! sb "_chars" (append (get sb "_chars") (list c)))
sb)
;; TYPE — append a string
(define
(forth-sb-type! sb s)
(dict-set! sb "_chars" (append (get sb "_chars") (string->list s)))
sb)
(define (forth-sb-value sb) (list->string (get sb "_chars")))
(define (forth-sb-length sb) (len (get sb "_chars")))
(define (forth-sb-clear! sb) (dict-set! sb "_chars" (list)) sb)
;; Emit integer as decimal digits
(define (forth-sb-emit-int! sb n) (forth-sb-type! sb (str (truncate n))))
;; ---------------------------------------------------------------------------
;; 3. Memory / Bytevectors — Forth raw memory model
;; ALLOT allocates a bytevector. Byte and cell (32-bit LE) access.
;; ---------------------------------------------------------------------------
;; ALLOT — allocate n bytes zero-initialised
(define (forth-mem-new n) (make-bytevector (truncate n) 0))
(define (forth-mem? v) (bytevector? v))
(define (forth-mem-size v) (bytevector-length v))
;; C@ C! — byte fetch/store
(define (forth-cfetch mem addr) (bytevector-u8-ref mem (truncate addr)))
(define
forth-error
(fn (state msg) (dict-set! state "error" msg) (raise msg)))
(forth-cstore mem addr val)
(bytevector-u8-set!
mem
(truncate addr)
(modulo (truncate val) 256))
mem)
;; @ ! — 32-bit little-endian cell fetch/store
(define
(forth-fetch mem addr)
(let
((a (truncate addr)))
(+
(bytevector-u8-ref mem a)
(* 256 (bytevector-u8-ref mem (+ a 1)))
(* 65536 (bytevector-u8-ref mem (+ a 2)))
(* 16777216 (bytevector-u8-ref mem (+ a 3))))))
(define
forth-push
(fn (state v) (dict-set! state "dstack" (cons v (get state "dstack")))))
(forth-store mem addr val)
(let
((a (truncate addr)) (v (truncate val)))
(bytevector-u8-set! mem a (modulo v 256))
(bytevector-u8-set!
mem
(+ a 1)
(modulo (quotient v 256) 256))
(bytevector-u8-set!
mem
(+ a 2)
(modulo (quotient v 65536) 256))
(bytevector-u8-set!
mem
(+ a 3)
(modulo (quotient v 16777216) 256)))
mem)
;; MOVE — copy count bytes from src[src-addr] to dst[dst-addr]
(define
forth-pop
(fn
(state)
(let
((st (get state "dstack")))
(if
(= (len st) 0)
(forth-error state "stack underflow")
(let ((top (first st))) (dict-set! state "dstack" (rest st)) top)))))
(forth-move! src src-addr dst dst-addr count)
(letrec
((go (fn (i) (when (< i (truncate count)) (bytevector-u8-set! dst (+ (truncate dst-addr) i) (bytevector-u8-ref src (+ (truncate src-addr) i))) (go (+ i 1))))))
(go 0))
dst)
;; FILL — fill count bytes at addr with byte value
(define
forth-peek
(fn
(state)
(let
((st (get state "dstack")))
(if (= (len st) 0) (forth-error state "stack underflow") (first st)))))
(define forth-depth (fn (state) (len (get state "dstack"))))
(forth-fill! mem addr count byte)
(letrec
((go (fn (i) (when (< i (truncate count)) (bytevector-u8-set! mem (+ (truncate addr) i) (modulo (truncate byte) 256)) (go (+ i 1))))))
(go 0))
mem)
;; ERASE — fill with zeros (Forth: ERASE)
(define
forth-rpush
(fn (state v) (dict-set! state "rstack" (cons v (get state "rstack")))))
(forth-erase! mem addr count)
(forth-fill! mem addr count 0))
;; Dump memory region as list of byte values
(define
forth-rpop
(fn
(state)
(let
((st (get state "rstack")))
(if
(= (len st) 0)
(forth-error state "return stack underflow")
(let ((top (first st))) (dict-set! state "rstack" (rest st)) top)))))
(define
forth-rpeek
(fn
(state)
(let
((st (get state "rstack")))
(if
(= (len st) 0)
(forth-error state "return stack underflow")
(first st)))))
(define
forth-emit-str
(fn (state s) (dict-set! state "output" (str (get state "output") s))))
(define
forth-make-word
(fn
(kind body immediate?)
(let
((w (dict)))
(dict-set! w "kind" kind)
(dict-set! w "body" body)
(dict-set! w "immediate?" immediate?)
w)))
(define
forth-def-prim!
(fn
(state name body)
(dict-set!
(get state "dict")
(downcase name)
(forth-make-word "primitive" body false))))
(define
forth-def-prim-imm!
(fn
(state name body)
(dict-set!
(get state "dict")
(downcase name)
(forth-make-word "primitive" body true))))
(define
forth-lookup
(fn (state name) (get (get state "dict") (downcase name))))
(define
forth-binop
(fn
(op)
(fn
(state)
(let
((b (forth-pop state)) (a (forth-pop state)))
(forth-push state (op a b))))))
(define
forth-unop
(fn
(op)
(fn (state) (let ((a (forth-pop state))) (forth-push state (op a))))))
(define
forth-cmp
(fn
(op)
(fn
(state)
(let
((b (forth-pop state)) (a (forth-pop state)))
(forth-push state (if (op a b) -1 0))))))
(define
forth-cmp0
(fn
(op)
(fn
(state)
(let ((a (forth-pop state))) (forth-push state (if (op a) -1 0))))))
(define
forth-trunc
(fn (x) (if (< x 0) (- 0 (floor (- 0 x))) (floor x))))
(define
forth-div
(fn
(a b)
(if (= b 0) (raise "division by zero") (forth-trunc (/ a b)))))
(define
forth-mod
(fn
(a b)
(if (= b 0) (raise "division by zero") (- a (* b (forth-div a b))))))
(define forth-bits-width 32)
(define
forth-to-unsigned
(fn (n w) (let ((m (pow 2 w))) (mod (+ (mod n m) m) m))))
(define
forth-from-unsigned
(fn
(n w)
(let ((half (pow 2 (- w 1)))) (if (>= n half) (- n (pow 2 w)) n))))
(define
forth-bitwise-step
(fn
(op ua ub out place i w)
(if
(>= i w)
out
(let
((da (mod ua 2)) (db (mod ub 2)))
(forth-bitwise-step
op
(floor (/ ua 2))
(floor (/ ub 2))
(+ out (* place (op da db)))
(* place 2)
(+ i 1)
w)))))
(define
forth-bitwise-uu
(fn
(op)
(fn
(a b)
(let
((ua (forth-to-unsigned a forth-bits-width))
(ub (forth-to-unsigned b forth-bits-width)))
(forth-from-unsigned
(forth-bitwise-step op ua ub 0 1 0 forth-bits-width)
forth-bits-width)))))
(define
forth-bit-and
(forth-bitwise-uu (fn (x y) (if (and (= x 1) (= y 1)) 1 0))))
(define
forth-bit-or
(forth-bitwise-uu (fn (x y) (if (or (= x 1) (= y 1)) 1 0))))
(define forth-bit-xor (forth-bitwise-uu (fn (x y) (if (= x y) 0 1))))
(define forth-bit-invert (fn (a) (- 0 (+ a 1))))
(define
forth-install-primitives!
(fn
(state)
(forth-def-prim! state "DUP" (fn (s) (forth-push s (forth-peek s))))
(forth-def-prim! state "DROP" (fn (s) (forth-pop s)))
(forth-def-prim!
state
"SWAP"
(fn
(s)
(let
((b (forth-pop s)) (a (forth-pop s)))
(forth-push s b)
(forth-push s a))))
(forth-def-prim!
state
"OVER"
(fn
(s)
(let
((b (forth-pop s)) (a (forth-pop s)))
(forth-push s a)
(forth-push s b)
(forth-push s a))))
(forth-def-prim!
state
"ROT"
(fn
(s)
(let
((c (forth-pop s)) (b (forth-pop s)) (a (forth-pop s)))
(forth-push s b)
(forth-push s c)
(forth-push s a))))
(forth-def-prim!
state
"-ROT"
(fn
(s)
(let
((c (forth-pop s)) (b (forth-pop s)) (a (forth-pop s)))
(forth-push s c)
(forth-push s a)
(forth-push s b))))
(forth-def-prim!
state
"NIP"
(fn (s) (let ((b (forth-pop s))) (forth-pop s) (forth-push s b))))
(forth-def-prim!
state
"TUCK"
(fn
(s)
(let
((b (forth-pop s)) (a (forth-pop s)))
(forth-push s b)
(forth-push s a)
(forth-push s b))))
(forth-def-prim!
state
"?DUP"
(fn
(s)
(let ((a (forth-peek s))) (when (not (= a 0)) (forth-push s a)))))
(forth-def-prim! state "DEPTH" (fn (s) (forth-push s (forth-depth s))))
(forth-def-prim!
state
"PICK"
(fn
(s)
(let
((n (forth-pop s)) (st (get s "dstack")))
(if
(or (< n 0) (>= n (len st)))
(forth-error s "PICK out of range")
(forth-push s (nth st n))))))
(forth-def-prim!
state
"ROLL"
(fn
(s)
(let
((n (forth-pop s)) (st (get s "dstack")))
(if
(or (< n 0) (>= n (len st)))
(forth-error s "ROLL out of range")
(let
((taken (nth st n))
(before (take st n))
(after (drop st (+ n 1))))
(dict-set! s "dstack" (concat before after))
(forth-push s taken))))))
(forth-def-prim!
state
"2DUP"
(fn
(s)
(let
((b (forth-pop s)) (a (forth-pop s)))
(forth-push s a)
(forth-push s b)
(forth-push s a)
(forth-push s b))))
(forth-def-prim! state "2DROP" (fn (s) (forth-pop s) (forth-pop s)))
(forth-def-prim!
state
"2SWAP"
(fn
(s)
(let
((d (forth-pop s))
(c (forth-pop s))
(b (forth-pop s))
(a (forth-pop s)))
(forth-push s c)
(forth-push s d)
(forth-push s a)
(forth-push s b))))
(forth-def-prim!
state
"2OVER"
(fn
(s)
(let
((d (forth-pop s))
(c (forth-pop s))
(b (forth-pop s))
(a (forth-pop s)))
(forth-push s a)
(forth-push s b)
(forth-push s c)
(forth-push s d)
(forth-push s a)
(forth-push s b))))
(forth-def-prim! state "+" (forth-binop (fn (a b) (+ a b))))
(forth-def-prim! state "-" (forth-binop (fn (a b) (- a b))))
(forth-def-prim! state "*" (forth-binop (fn (a b) (* a b))))
(forth-def-prim! state "/" (forth-binop forth-div))
(forth-def-prim! state "MOD" (forth-binop forth-mod))
(forth-def-prim!
state
"/MOD"
(fn
(s)
(let
((b (forth-pop s)) (a (forth-pop s)))
(forth-push s (forth-mod a b))
(forth-push s (forth-div a b)))))
(forth-def-prim! state "NEGATE" (forth-unop (fn (a) (- 0 a))))
(forth-def-prim! state "ABS" (forth-unop abs))
(forth-def-prim!
state
"MIN"
(forth-binop (fn (a b) (if (< a b) a b))))
(forth-def-prim!
state
"MAX"
(forth-binop (fn (a b) (if (> a b) a b))))
(forth-def-prim! state "1+" (forth-unop (fn (a) (+ a 1))))
(forth-def-prim! state "1-" (forth-unop (fn (a) (- a 1))))
(forth-def-prim! state "2+" (forth-unop (fn (a) (+ a 2))))
(forth-def-prim! state "2-" (forth-unop (fn (a) (- a 2))))
(forth-def-prim! state "2*" (forth-unop (fn (a) (* a 2))))
(forth-def-prim! state "2/" (forth-unop (fn (a) (floor (/ a 2)))))
(forth-def-prim! state "=" (forth-cmp (fn (a b) (= a b))))
(forth-def-prim! state "<>" (forth-cmp (fn (a b) (not (= a b)))))
(forth-def-prim! state "<" (forth-cmp (fn (a b) (< a b))))
(forth-def-prim! state ">" (forth-cmp (fn (a b) (> a b))))
(forth-def-prim! state "<=" (forth-cmp (fn (a b) (<= a b))))
(forth-def-prim! state ">=" (forth-cmp (fn (a b) (>= a b))))
(forth-def-prim! state "0=" (forth-cmp0 (fn (a) (= a 0))))
(forth-def-prim! state "0<>" (forth-cmp0 (fn (a) (not (= a 0)))))
(forth-def-prim! state "0<" (forth-cmp0 (fn (a) (< a 0))))
(forth-def-prim! state "0>" (forth-cmp0 (fn (a) (> a 0))))
(forth-def-prim! state "AND" (forth-binop forth-bit-and))
(forth-def-prim! state "OR" (forth-binop forth-bit-or))
(forth-def-prim! state "XOR" (forth-binop forth-bit-xor))
(forth-def-prim! state "INVERT" (forth-unop forth-bit-invert))
(forth-def-prim!
state
"."
(fn (s) (forth-emit-str s (str (forth-pop s) " "))))
(forth-def-prim!
state
".S"
(fn
(s)
(let
((st (reverse (get s "dstack"))))
(forth-emit-str s "<")
(forth-emit-str s (str (len st)))
(forth-emit-str s "> ")
(for-each (fn (v) (forth-emit-str s (str v " "))) st))))
(forth-def-prim!
state
"EMIT"
(fn (s) (forth-emit-str s (code-char (forth-pop s)))))
(forth-def-prim! state "CR" (fn (s) (forth-emit-str s "\n")))
(forth-def-prim! state "SPACE" (fn (s) (forth-emit-str s " ")))
(forth-def-prim!
state
"SPACES"
(fn
(s)
(let
((n (forth-pop s)))
(when
(> n 0)
(for-each (fn (_) (forth-emit-str s " ")) (range 0 n))))))
(forth-def-prim! state "BL" (fn (s) (forth-push s 32)))
state))
(forth-mem->list mem addr count)
(letrec
((go (fn (i acc) (if (= i 0) acc (go (- i 1) (cons (bytevector-u8-ref mem (+ (truncate addr) (- i 1))) acc))))))
(go (truncate count) (list))))

62
lib/forth/test.sh Executable file
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#!/usr/bin/env bash
# lib/forth/test.sh — smoke-test the Forth runtime layer.
set -uo pipefail
cd "$(git rev-parse --show-toplevel)"
SX_SERVER="${SX_SERVER:-hosts/ocaml/_build/default/bin/sx_server.exe}"
if [ ! -x "$SX_SERVER" ]; then
SX_SERVER="/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe"
fi
if [ ! -x "$SX_SERVER" ]; then
echo "ERROR: sx_server.exe not found."
exit 1
fi
TMPFILE=$(mktemp); trap "rm -f $TMPFILE" EXIT
cat > "$TMPFILE" << 'EPOCHS'
(epoch 1)
(load "lib/forth/runtime.sx")
(epoch 2)
(load "lib/forth/tests/runtime.sx")
(epoch 3)
(eval "(list forth-test-pass forth-test-fail)")
EPOCHS
OUTPUT=$(timeout 60 "$SX_SERVER" < "$TMPFILE" 2>/dev/null)
LINE=$(echo "$OUTPUT" | awk '/^\(ok-len 3 / {getline; print; exit}')
if [ -z "$LINE" ]; then
LINE=$(echo "$OUTPUT" | grep -E '^\(ok 3 \([0-9]+ [0-9]+\)\)' | tail -1 \
| sed -E 's/^\(ok 3 //; s/\)$//')
fi
if [ -z "$LINE" ]; then
echo "ERROR: could not extract summary"
echo "$OUTPUT" | tail -20
exit 1
fi
P=$(echo "$LINE" | sed -E 's/^\(([0-9]+) ([0-9]+)\).*/\1/')
F=$(echo "$LINE" | sed -E 's/^\(([0-9]+) ([0-9]+)\).*/\2/')
TOTAL=$((P + F))
if [ "$F" -eq 0 ]; then
echo "ok $P/$TOTAL lib/forth tests passed"
else
echo "FAIL $P/$TOTAL passed, $F failed"
TMPFILE2=$(mktemp)
cat > "$TMPFILE2" << 'EPOCHS2'
(epoch 1)
(load "lib/forth/runtime.sx")
(epoch 2)
(load "lib/forth/tests/runtime.sx")
(epoch 3)
(eval "(map (fn (f) (list (get f :name) (get f :got) (get f :expected))) forth-test-fails)")
EPOCHS2
FAILS=$(timeout 60 "$SX_SERVER" < "$TMPFILE2" 2>/dev/null | grep -E '^\(ok-len 3' -A1 | tail -1 || true)
echo " Details: $FAILS"
rm -f "$TMPFILE2"
fi
[ "$F" -eq 0 ]

201
lib/forth/tests/runtime.sx Normal file
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;; lib/forth/tests/runtime.sx — Tests for lib/forth/runtime.sx
(define forth-test-pass 0)
(define forth-test-fail 0)
(define forth-test-fails (list))
(define
(forth-test name got expected)
(if
(= got expected)
(set! forth-test-pass (+ forth-test-pass 1))
(begin
(set! forth-test-fail (+ forth-test-fail 1))
(set! forth-test-fails (append forth-test-fails (list {:got got :expected expected :name name}))))))
;; ---------------------------------------------------------------------------
;; 1. Bitwise operations
;; ---------------------------------------------------------------------------
;; AND
(forth-test "and 0b1100 0b1010" (forth-and 12 10) 8)
(forth-test "and 0xFF 0x0F" (forth-and 255 15) 15)
(forth-test "and 0 any" (forth-and 0 42) 0)
;; OR
(forth-test "or 0b1100 0b1010" (forth-or 12 10) 14)
(forth-test "or 0 x" (forth-or 0 7) 7)
;; XOR
(forth-test "xor 0b1100 0b1010" (forth-xor 12 10) 6)
(forth-test "xor x x" (forth-xor 42 42) 0)
;; INVERT
(forth-test "invert 0" (forth-invert 0) -1)
(forth-test "invert -1" (forth-invert -1) 0)
(forth-test "invert 1" (forth-invert 1) -2)
;; LSHIFT RSHIFT
(forth-test "lshift 1 3" (forth-lshift 1 3) 8)
(forth-test "lshift 3 2" (forth-lshift 3 2) 12)
(forth-test "rshift 8 3" (forth-rshift 8 3) 1)
(forth-test "rshift 16 2" (forth-rshift 16 2) 4)
;; 2* 2/
(forth-test "2* 5" (forth-2* 5) 10)
(forth-test "2/ 10" (forth-2/ 10) 5)
(forth-test "2/ 7" (forth-2/ 7) 3)
;; BIT-COUNT
(forth-test "bit-count 0" (forth-bit-count 0) 0)
(forth-test "bit-count 1" (forth-bit-count 1) 1)
(forth-test "bit-count 7" (forth-bit-count 7) 3)
(forth-test "bit-count 255" (forth-bit-count 255) 8)
(forth-test "bit-count 256" (forth-bit-count 256) 1)
;; INTEGER-LENGTH
(forth-test "integer-length 0" (forth-integer-length 0) 0)
(forth-test "integer-length 1" (forth-integer-length 1) 1)
(forth-test "integer-length 4" (forth-integer-length 4) 3)
(forth-test "integer-length 255" (forth-integer-length 255) 8)
;; WITHIN
(forth-test
"within 5 0 10"
(forth-within 5 0 10)
true)
(forth-test
"within 0 0 10"
(forth-within 0 0 10)
true)
(forth-test
"within 10 0 10"
(forth-within 10 0 10)
false)
(forth-test
"within -1 0 10"
(forth-within -1 0 10)
false)
;; Arithmetic ops
(forth-test "negate 5" (forth-negate 5) -5)
(forth-test "negate -3" (forth-negate -3) 3)
(forth-test "abs -7" (forth-abs -7) 7)
(forth-test "min 3 5" (forth-min 3 5) 3)
(forth-test "max 3 5" (forth-max 3 5) 5)
(forth-test "mod 7 3" (forth-mod 7 3) 1)
(forth-test
"divmod 7 3"
(forth-divmod 7 3)
(list 1 2))
(forth-test
"divmod 10 5"
(forth-divmod 10 5)
(list 0 2))
;; ---------------------------------------------------------------------------
;; 2. String buffer
;; ---------------------------------------------------------------------------
(define sb1 (forth-sb-new))
(forth-test "sb? new" (forth-sb? sb1) true)
(forth-test "sb? non-sb" (forth-sb? 42) false)
(forth-test "sb value empty" (forth-sb-value sb1) "")
(forth-test "sb length empty" (forth-sb-length sb1) 0)
(forth-sb-type! sb1 "HELLO")
(forth-test "sb type" (forth-sb-value sb1) "HELLO")
(forth-test "sb length after type" (forth-sb-length sb1) 5)
;; EMIT one char
(define sb2 (forth-sb-new))
(forth-sb-emit! sb2 (nth (string->list "A") 0))
(forth-sb-emit! sb2 (nth (string->list "B") 0))
(forth-sb-emit! sb2 (nth (string->list "C") 0))
(forth-test "sb emit chars" (forth-sb-value sb2) "ABC")
;; Emit integer
(define sb3 (forth-sb-new))
(forth-sb-type! sb3 "n=")
(forth-sb-emit-int! sb3 42)
(forth-test "sb emit-int" (forth-sb-value sb3) "n=42")
(forth-sb-clear! sb1)
(forth-test "sb clear" (forth-sb-value sb1) "")
(forth-test "sb length after clear" (forth-sb-length sb1) 0)
;; Build a word definition-style name
(define sb4 (forth-sb-new))
(forth-sb-type! sb4 ": ")
(forth-sb-type! sb4 "SQUARE")
(forth-sb-type! sb4 " DUP * ;")
(forth-test "sb word def" (forth-sb-value sb4) ": SQUARE DUP * ;")
;; ---------------------------------------------------------------------------
;; 3. Memory / Bytevectors
;; ---------------------------------------------------------------------------
(define m1 (forth-mem-new 8))
(forth-test "mem? yes" (forth-mem? m1) true)
(forth-test "mem? no" (forth-mem? 42) false)
(forth-test "mem size" (forth-mem-size m1) 8)
(forth-test "mem cfetch zero" (forth-cfetch m1 0) 0)
;; C! C@
(forth-cstore m1 0 65)
(forth-cstore m1 1 66)
(forth-test "mem cstore/cfetch 0" (forth-cfetch m1 0) 65)
(forth-test "mem cstore/cfetch 1" (forth-cfetch m1 1) 66)
(forth-cstore m1 2 256)
(forth-test
"mem cstore wraps 256→0"
(forth-cfetch m1 2)
0)
(forth-cstore m1 2 257)
(forth-test
"mem cstore wraps 257→1"
(forth-cfetch m1 2)
1)
;; @ ! (32-bit LE cell)
(define m2 (forth-mem-new 8))
(forth-store m2 0 305419896)
(forth-test "mem store/fetch" (forth-fetch m2 0) 305419896)
(forth-store m2 4 1)
(forth-test "mem fetch byte 4" (forth-cfetch m2 4) 1)
(forth-test "mem fetch byte 5" (forth-cfetch m2 5) 0)
;; FILL ERASE
(define m3 (forth-mem-new 4))
(forth-fill! m3 0 4 42)
(forth-test
"mem fill"
(forth-mem->list m3 0 4)
(list 42 42 42 42))
(forth-erase! m3 1 2)
(forth-test
"mem erase middle"
(forth-mem->list m3 0 4)
(list 42 0 0 42))
;; MOVE
(define m4 (forth-mem-new 4))
(forth-cstore m4 0 1)
(forth-cstore m4 1 2)
(forth-cstore m4 2 3)
(define m5 (forth-mem-new 4))
(forth-move! m4 0 m5 0 3)
(forth-test
"mem move"
(forth-mem->list m5 0 3)
(list 1 2 3))
;; mem->list
(define m6 (forth-mem-new 3))
(forth-cstore m6 0 10)
(forth-cstore m6 1 20)
(forth-cstore m6 2 30)
(forth-test
"mem->list"
(forth-mem->list m6 0 3)
(list 10 20 30))

507
lib/haskell/runtime.sx Normal file
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@@ -0,0 +1,507 @@
;; lib/haskell/runtime.sx — Haskell-on-SX runtime layer
;;
;; Covers the Haskell primitives now reachable via SX spec:
;; 1. Numeric type class helpers (Num / Integral / Fractional)
;; 2. Rational numbers (dict-based: {:_rational true :num n :den d})
;; 3. Lazy evaluation — hk-force for promises created by delay
;; 4. Char utilities (Data.Char)
;; 5. Data.Set wrappers
;; 6. Data.List utilities
;; 7. Maybe / Either ADTs
;; 8. Tuples (lists, since list->vector unreliable in sx_server)
;; 9. String helpers (words/lines/isPrefixOf/etc.)
;; 10. Show helper
;; ===========================================================================
;; 1. Numeric type class helpers
;; ===========================================================================
(define hk-is-integer? integer?)
(define hk-is-float? float?)
(define hk-is-num? number?)
;; fromIntegral — coerce integer to Float
(define (hk-to-float x) (exact->inexact x))
;; truncate / round toward zero
(define hk-to-integer truncate)
(define hk-from-integer (fn (n) n))
;; Haskell div: floor division (rounds toward -inf)
(define
(hk-div a b)
(let
((q (quotient a b)) (r (remainder a b)))
(if
(and
(not (= r 0))
(or
(and (< a 0) (> b 0))
(and (> a 0) (< b 0))))
(- q 1)
q)))
;; Haskell mod: result has same sign as divisor
(define hk-mod modulo)
;; Haskell rem: result has same sign as dividend
(define hk-rem remainder)
;; Haskell quot: truncation division
(define hk-quot quotient)
;; divMod and quotRem return pairs (lists)
(define (hk-div-mod a b) (list (hk-div a b) (hk-mod a b)))
(define (hk-quot-rem a b) (list (hk-quot a b) (hk-rem a b)))
(define (hk-abs x) (if (< x 0) (- 0 x) x))
(define
(hk-signum x)
(cond
((> x 0) 1)
((< x 0) -1)
(else 0)))
(define hk-gcd gcd)
(define hk-lcm lcm)
(define (hk-even? n) (= (modulo n 2) 0))
(define (hk-odd? n) (not (= (modulo n 2) 0)))
;; ===========================================================================
;; 2. Rational numbers (dict implementation — no built-in rational in sx_server)
;; ===========================================================================
(define
(hk-make-rational n d)
(let
((g (gcd (hk-abs n) (hk-abs d))))
(if (< d 0) {:num (quotient (- 0 n) g) :den (quotient (- 0 d) g) :_rational true} {:num (quotient n g) :den (quotient d g) :_rational true})))
(define
(hk-rational? x)
(and (dict? x) (not (= (get x :_rational) nil))))
(define (hk-numerator r) (get r :num))
(define (hk-denominator r) (get r :den))
(define
(hk-rational-add r1 r2)
(hk-make-rational
(+
(* (hk-numerator r1) (hk-denominator r2))
(* (hk-numerator r2) (hk-denominator r1)))
(* (hk-denominator r1) (hk-denominator r2))))
(define
(hk-rational-sub r1 r2)
(hk-make-rational
(-
(* (hk-numerator r1) (hk-denominator r2))
(* (hk-numerator r2) (hk-denominator r1)))
(* (hk-denominator r1) (hk-denominator r2))))
(define
(hk-rational-mul r1 r2)
(hk-make-rational
(* (hk-numerator r1) (hk-numerator r2))
(* (hk-denominator r1) (hk-denominator r2))))
(define
(hk-rational-div r1 r2)
(hk-make-rational
(* (hk-numerator r1) (hk-denominator r2))
(* (hk-denominator r1) (hk-numerator r2))))
(define
(hk-rational-to-float r)
(exact->inexact (/ (hk-numerator r) (hk-denominator r))))
(define (hk-show-rational r) (str (hk-numerator r) "%" (hk-denominator r)))
;; ===========================================================================
;; 3. Lazy evaluation — promises (created via SX delay)
;; ===========================================================================
(define
(hk-force p)
(if
(and (dict? p) (not (= (get p :_promise) nil)))
(if (get p :forced) (get p :value) ((get p :thunk)))
p))
;; ===========================================================================
;; 4. Char utilities (Data.Char)
;; ===========================================================================
(define hk-ord char->integer)
(define hk-chr integer->char)
;; Inline ASCII predicates — char-alphabetic?/char-numeric? unreliable in sx_server
(define
(hk-is-alpha? c)
(let
((n (char->integer c)))
(or
(and (>= n 65) (<= n 90))
(and (>= n 97) (<= n 122)))))
(define
(hk-is-digit? c)
(let ((n (char->integer c))) (and (>= n 48) (<= n 57))))
(define
(hk-is-alnum? c)
(let
((n (char->integer c)))
(or
(and (>= n 48) (<= n 57))
(and (>= n 65) (<= n 90))
(and (>= n 97) (<= n 122)))))
(define
(hk-is-upper? c)
(let ((n (char->integer c))) (and (>= n 65) (<= n 90))))
(define
(hk-is-lower? c)
(let ((n (char->integer c))) (and (>= n 97) (<= n 122))))
(define
(hk-is-space? c)
(let
((n (char->integer c)))
(or
(= n 32)
(= n 9)
(= n 10)
(= n 13)
(= n 12)
(= n 11))))
(define hk-to-upper char-upcase)
(define hk-to-lower char-downcase)
;; digitToInt: '0'-'9' → 0-9, 'a'-'f'/'A'-'F' → 10-15
(define
(hk-digit-to-int c)
(let
((n (char->integer c)))
(cond
((and (>= n 48) (<= n 57)) (- n 48))
((and (>= n 65) (<= n 70)) (- n 55))
((and (>= n 97) (<= n 102)) (- n 87))
(else (error (str "hk-digit-to-int: not a hex digit: " c))))))
;; intToDigit: 0-15 → char
(define
(hk-int-to-digit n)
(cond
((and (>= n 0) (<= n 9))
(integer->char (+ n 48)))
((and (>= n 10) (<= n 15))
(integer->char (+ n 87)))
(else (error (str "hk-int-to-digit: out of range: " n)))))
;; ===========================================================================
;; 5. Data.Set wrappers
;; ===========================================================================
(define (hk-set-empty) (make-set))
(define hk-set? set?)
(define hk-set-member? set-member?)
(define (hk-set-insert x s) (begin (set-add! s x) s))
(define (hk-set-delete x s) (begin (set-remove! s x) s))
(define hk-set-union set-union)
(define hk-set-intersection set-intersection)
(define hk-set-difference set-difference)
(define hk-set-from-list list->set)
(define hk-set-to-list set->list)
(define (hk-set-null? s) (= (len (set->list s)) 0))
(define (hk-set-size s) (len (set->list s)))
(define (hk-set-singleton x) (let ((s (make-set))) (set-add! s x) s))
;; ===========================================================================
;; 6. Data.List utilities
;; ===========================================================================
(define hk-head first)
(define hk-tail rest)
(define (hk-null? lst) (= (len lst) 0))
(define hk-length len)
(define
(hk-take n lst)
(if
(or (= n 0) (= (len lst) 0))
(list)
(cons (first lst) (hk-take (- n 1) (rest lst)))))
(define
(hk-drop n lst)
(if
(or (= n 0) (= (len lst) 0))
lst
(hk-drop (- n 1) (rest lst))))
(define
(hk-take-while pred lst)
(if
(or (= (len lst) 0) (not (pred (first lst))))
(list)
(cons (first lst) (hk-take-while pred (rest lst)))))
(define
(hk-drop-while pred lst)
(if
(or (= (len lst) 0) (not (pred (first lst))))
lst
(hk-drop-while pred (rest lst))))
(define
(hk-zip a b)
(if
(or (= (len a) 0) (= (len b) 0))
(list)
(cons (list (first a) (first b)) (hk-zip (rest a) (rest b)))))
(define
(hk-zip-with f a b)
(if
(or (= (len a) 0) (= (len b) 0))
(list)
(cons (f (first a) (first b)) (hk-zip-with f (rest a) (rest b)))))
(define
(hk-unzip pairs)
(list
(map (fn (p) (first p)) pairs)
(map (fn (p) (nth p 1)) pairs)))
(define
(hk-elem x lst)
(cond
((= (len lst) 0) false)
((= x (first lst)) true)
(else (hk-elem x (rest lst)))))
(define (hk-not-elem x lst) (not (hk-elem x lst)))
(define
(hk-nub lst)
(letrec
((go (fn (seen acc items) (if (= (len items) 0) (reverse acc) (let ((h (first items)) (t (rest items))) (if (hk-elem h seen) (go seen acc t) (go (cons h seen) (cons h acc) t)))))))
(go (list) (list) lst)))
(define (hk-sum lst) (reduce + 0 lst))
(define (hk-product lst) (reduce * 1 lst))
(define
(hk-maximum lst)
(reduce (fn (a b) (if (> a b) a b)) (first lst) (rest lst)))
(define
(hk-minimum lst)
(reduce (fn (a b) (if (< a b) a b)) (first lst) (rest lst)))
(define (hk-concat lsts) (reduce append (list) lsts))
(define (hk-concat-map f lst) (hk-concat (map f lst)))
(define hk-sort sort)
(define
(hk-span pred lst)
(list (hk-take-while pred lst) (hk-drop-while pred lst)))
(define (hk-break pred lst) (hk-span (fn (x) (not (pred x))) lst))
(define
(hk-foldl f acc lst)
(if
(= (len lst) 0)
acc
(hk-foldl f (f acc (first lst)) (rest lst))))
(define
(hk-foldr f z lst)
(if
(= (len lst) 0)
z
(f (first lst) (hk-foldr f z (rest lst)))))
(define
(hk-scanl f acc lst)
(if
(= (len lst) 0)
(list acc)
(cons acc (hk-scanl f (f acc (first lst)) (rest lst)))))
(define
(hk-replicate n x)
(if (= n 0) (list) (cons x (hk-replicate (- n 1) x))))
(define
(hk-intersperse sep lst)
(if
(or (= (len lst) 0) (= (len lst) 1))
lst
(cons (first lst) (cons sep (hk-intersperse sep (rest lst))))))
;; ===========================================================================
;; 7. Maybe / Either ADTs
;; ===========================================================================
(define hk-nothing {:_maybe true :_tag "nothing"})
(define (hk-just x) {:_maybe true :value x :_tag "just"})
(define (hk-is-nothing? m) (= (get m :_tag) "nothing"))
(define (hk-is-just? m) (= (get m :_tag) "just"))
(define (hk-from-just m) (get m :value))
(define (hk-from-maybe def m) (if (hk-is-nothing? m) def (hk-from-just m)))
(define
(hk-maybe def f m)
(if (hk-is-nothing? m) def (f (hk-from-just m))))
(define (hk-left x) {:value x :_either true :_tag "left"})
(define (hk-right x) {:value x :_either true :_tag "right"})
(define (hk-is-left? e) (= (get e :_tag) "left"))
(define (hk-is-right? e) (= (get e :_tag) "right"))
(define (hk-from-left e) (get e :value))
(define (hk-from-right e) (get e :value))
(define
(hk-either f g e)
(if (hk-is-left? e) (f (hk-from-left e)) (g (hk-from-right e))))
;; ===========================================================================
;; 8. Tuples (lists — list->vector unreliable in sx_server)
;; ===========================================================================
(define (hk-pair a b) (list a b))
(define hk-fst first)
(define (hk-snd t) (nth t 1))
(define (hk-triple a b c) (list a b c))
(define hk-fst3 first)
(define (hk-snd3 t) (nth t 1))
(define (hk-thd3 t) (nth t 2))
(define (hk-curry f) (fn (a) (fn (b) (f a b))))
(define (hk-uncurry f) (fn (p) (f (hk-fst p) (hk-snd p))))
;; ===========================================================================
;; 9. String helpers (Data.List / Data.Char for strings)
;; ===========================================================================
;; words: split on whitespace
(define
(hk-words s)
(letrec
((slen (len s))
(skip-ws
(fn
(i)
(if
(>= i slen)
(list)
(let
((c (substring s i (+ i 1))))
(if
(or (= c " ") (= c "\t") (= c "\n"))
(skip-ws (+ i 1))
(collect-word i (+ i 1)))))))
(collect-word
(fn
(start i)
(if
(>= i slen)
(list (substring s start i))
(let
((c (substring s i (+ i 1))))
(if
(or (= c " ") (= c "\t") (= c "\n"))
(cons (substring s start i) (skip-ws (+ i 1)))
(collect-word start (+ i 1))))))))
(skip-ws 0)))
;; unwords: join with spaces
(define
(hk-unwords lst)
(if
(= (len lst) 0)
""
(reduce (fn (a b) (str a " " b)) (first lst) (rest lst))))
;; lines: split on newline
(define
(hk-lines s)
(letrec
((slen (len s))
(go
(fn
(start i acc)
(if
(>= i slen)
(reverse (cons (substring s start i) acc))
(if
(= (substring s i (+ i 1)) "\n")
(go
(+ i 1)
(+ i 1)
(cons (substring s start i) acc))
(go start (+ i 1) acc))))))
(if (= slen 0) (list) (go 0 0 (list)))))
;; unlines: join, each with trailing newline
(define (hk-unlines lst) (reduce (fn (a b) (str a b "\n")) "" lst))
;; isPrefixOf
(define
(hk-is-prefix-of pre s)
(and (<= (len pre) (len s)) (= pre (substring s 0 (len pre)))))
;; isSuffixOf
(define
(hk-is-suffix-of suf s)
(let
((sl (len suf)) (tl (len s)))
(and (<= sl tl) (= suf (substring s (- tl sl) tl)))))
;; isInfixOf — linear scan
(define
(hk-is-infix-of pat s)
(let
((plen (len pat)) (slen (len s)))
(letrec
((go (fn (i) (if (> (+ i plen) slen) false (if (= pat (substring s i (+ i plen))) true (go (+ i 1)))))))
(if (= plen 0) true (go 0)))))
;; ===========================================================================
;; 10. Show helper
;; ===========================================================================
(define
(hk-show x)
(cond
((= x nil) "Nothing")
((= x true) "True")
((= x false) "False")
((hk-rational? x) (hk-show-rational x))
((integer? x) (str x))
((float? x) (str x))
((= (type-of x) "string") (str "\"" x "\""))
((= (type-of x) "char") (str "'" (str x) "'"))
((list? x)
(str
"["
(if
(= (len x) 0)
""
(reduce
(fn (a b) (str a "," (hk-show b)))
(hk-show (first x))
(rest x)))
"]"))
(else (str x))))

View File

@@ -46,6 +46,7 @@ for FILE in "${FILES[@]}"; do
cat > "$TMPFILE" <<EPOCHS
(epoch 1)
(load "lib/haskell/tokenizer.sx")
(load "lib/haskell/runtime.sx")
(epoch 2)
(load "$FILE")
(epoch 3)
@@ -81,6 +82,7 @@ EPOCHS
cat > "$TMPFILE2" <<EPOCHS
(epoch 1)
(load "lib/haskell/tokenizer.sx")
(load "lib/haskell/runtime.sx")
(epoch 2)
(load "$FILE")
(epoch 3)

View File

@@ -0,0 +1,451 @@
;; lib/haskell/tests/runtime.sx — smoke-tests for lib/haskell/runtime.sx
;;
;; Uses the same hk-test framework as tests/parse.sx.
;; Loaded by test.sh after: tokenizer.sx + runtime.sx are pre-loaded.
;; ---------------------------------------------------------------------------
;; Test framework boilerplate (mirrors parse.sx)
;; ---------------------------------------------------------------------------
(define hk-test-pass 0)
(define hk-test-fail 0)
(define hk-test-fails (list))
(define
(hk-test name actual expected)
(if
(= actual expected)
(set! hk-test-pass (+ hk-test-pass 1))
(do
(set! hk-test-fail (+ hk-test-fail 1))
(append! hk-test-fails {:actual actual :expected expected :name name}))))
;; ---------------------------------------------------------------------------
;; 1. Numeric type class helpers
;; ---------------------------------------------------------------------------
(hk-test "is-integer? int" (hk-is-integer? 42) true)
(hk-test "is-integer? float" (hk-is-integer? 1.5) false)
(hk-test "is-float? float" (hk-is-float? 3.14) true)
(hk-test "is-float? int" (hk-is-float? 3) false)
(hk-test "is-num? int" (hk-is-num? 10) true)
(hk-test "is-num? float" (hk-is-num? 1) true)
(hk-test "to-float" (hk-to-float 5) 5)
(hk-test "to-integer trunc" (hk-to-integer 3.7) 3)
(hk-test "div pos pos" (hk-div 7 2) 3)
(hk-test "div neg pos" (hk-div -7 2) -4)
(hk-test "div pos neg" (hk-div 7 -2) -4)
(hk-test "div neg neg" (hk-div -7 -2) 3)
(hk-test "div exact" (hk-div 6 2) 3)
(hk-test "mod pos pos" (hk-mod 10 3) 1)
(hk-test "mod neg pos" (hk-mod -7 3) 2)
(hk-test "rem pos pos" (hk-rem 10 3) 1)
(hk-test "rem neg pos" (hk-rem -7 3) -1)
(hk-test "abs pos" (hk-abs 5) 5)
(hk-test "abs neg" (hk-abs -5) 5)
(hk-test "signum pos" (hk-signum 42) 1)
(hk-test "signum neg" (hk-signum -7) -1)
(hk-test "signum zero" (hk-signum 0) 0)
(hk-test "gcd" (hk-gcd 12 8) 4)
(hk-test "lcm" (hk-lcm 4 6) 12)
(hk-test "even?" (hk-even? 4) true)
(hk-test "even? odd" (hk-even? 3) false)
(hk-test "odd?" (hk-odd? 7) true)
;; ---------------------------------------------------------------------------
;; 2. Rational numbers
;; ---------------------------------------------------------------------------
(let
((r (hk-make-rational 1 2)))
(do
(hk-test "rational?" (hk-rational? r) true)
(hk-test "numerator" (hk-numerator r) 1)
(hk-test "denominator" (hk-denominator r) 2)))
(let
((r (hk-make-rational 2 4)))
(do
(hk-test "rat normalise num" (hk-numerator r) 1)
(hk-test "rat normalise den" (hk-denominator r) 2)))
(let
((sum (hk-rational-add (hk-make-rational 1 2) (hk-make-rational 1 3))))
(do
(hk-test "rat-add num" (hk-numerator sum) 5)
(hk-test "rat-add den" (hk-denominator sum) 6)))
(hk-test
"rat-to-float"
(hk-rational-to-float (hk-make-rational 1 2))
0.5)
(hk-test "rational? int" (hk-rational? 42) false)
;; ---------------------------------------------------------------------------
;; 3. Lazy evaluation (promises via SX delay)
;; ---------------------------------------------------------------------------
(let
((p (delay 42)))
(hk-test "force promise" (hk-force p) 42))
(hk-test "force non-promise" (hk-force 99) 99)
;; ---------------------------------------------------------------------------
;; 4. Char utilities — compare via hk-ord to avoid = on char type
;; ---------------------------------------------------------------------------
(hk-test "ord A" (hk-ord (integer->char 65)) 65)
(hk-test "chr 65" (hk-ord (hk-chr 65)) 65)
(hk-test "is-alpha? A" (hk-is-alpha? (integer->char 65)) true)
(hk-test "is-alpha? 0" (hk-is-alpha? (integer->char 48)) false)
(hk-test "is-digit? 5" (hk-is-digit? (integer->char 53)) true)
(hk-test "is-digit? A" (hk-is-digit? (integer->char 65)) false)
(hk-test "is-upper? A" (hk-is-upper? (integer->char 65)) true)
(hk-test "is-upper? a" (hk-is-upper? (integer->char 97)) false)
(hk-test "is-lower? a" (hk-is-lower? (integer->char 97)) true)
(hk-test "is-space? spc" (hk-is-space? (integer->char 32)) true)
(hk-test "is-space? A" (hk-is-space? (integer->char 65)) false)
(hk-test
"to-upper a"
(hk-ord (hk-to-upper (integer->char 97)))
65)
(hk-test
"to-lower A"
(hk-ord (hk-to-lower (integer->char 65)))
97)
(hk-test
"digit-to-int 0"
(hk-digit-to-int (integer->char 48))
0)
(hk-test
"digit-to-int 9"
(hk-digit-to-int (integer->char 57))
9)
(hk-test
"digit-to-int a"
(hk-digit-to-int (integer->char 97))
10)
(hk-test
"digit-to-int F"
(hk-digit-to-int (integer->char 70))
15)
(hk-test "int-to-digit 0" (hk-ord (hk-int-to-digit 0)) 48)
(hk-test "int-to-digit 10" (hk-ord (hk-int-to-digit 10)) 97)
;; ---------------------------------------------------------------------------
;; 5. Data.Set
;; ---------------------------------------------------------------------------
(hk-test "set-empty is set?" (hk-set? (hk-set-empty)) true)
(hk-test "set-null? empty" (hk-set-null? (hk-set-empty)) true)
(let
((s (hk-set-singleton 42)))
(do
(hk-test "singleton member" (hk-set-member? 42 s) true)
(hk-test "singleton size" (hk-set-size s) 1)))
(let
((s (hk-set-from-list (list 1 2 3))))
(do
(hk-test "from-list member" (hk-set-member? 2 s) true)
(hk-test "from-list absent" (hk-set-member? 9 s) false)
(hk-test "from-list size" (hk-set-size s) 3)))
;; ---------------------------------------------------------------------------
;; 6. Data.List
;; ---------------------------------------------------------------------------
(hk-test "head" (hk-head (list 1 2 3)) 1)
(hk-test
"tail length"
(len (hk-tail (list 1 2 3)))
2)
(hk-test "null? empty" (hk-null? (list)) true)
(hk-test "null? non-empty" (hk-null? (list 1)) false)
(hk-test
"length"
(hk-length (list 1 2 3))
3)
(hk-test
"take 2"
(hk-take 2 (list 1 2 3))
(list 1 2))
(hk-test "take 0" (hk-take 0 (list 1 2)) (list))
(hk-test
"take overflow"
(hk-take 5 (list 1 2))
(list 1 2))
(hk-test
"drop 1"
(hk-drop 1 (list 1 2 3))
(list 2 3))
(hk-test
"drop 0"
(hk-drop 0 (list 1 2))
(list 1 2))
(hk-test
"take-while"
(hk-take-while
(fn (x) (< x 3))
(list 1 2 3 4))
(list 1 2))
(hk-test
"drop-while"
(hk-drop-while
(fn (x) (< x 3))
(list 1 2 3 4))
(list 3 4))
(hk-test
"zip"
(hk-zip (list 1 2) (list 3 4))
(list (list 1 3) (list 2 4)))
(hk-test
"zip uneven"
(hk-zip
(list 1 2 3)
(list 4 5))
(list (list 1 4) (list 2 5)))
(hk-test
"zip-with +"
(hk-zip-with
+
(list 1 2 3)
(list 10 20 30))
(list 11 22 33))
(hk-test
"unzip fst"
(first
(hk-unzip
(list (list 1 3) (list 2 4))))
(list 1 2))
(hk-test
"unzip snd"
(nth
(hk-unzip
(list (list 1 3) (list 2 4)))
1)
(list 3 4))
(hk-test
"elem hit"
(hk-elem 2 (list 1 2 3))
true)
(hk-test
"elem miss"
(hk-elem 9 (list 1 2 3))
false)
(hk-test
"not-elem"
(hk-not-elem 9 (list 1 2 3))
true)
(hk-test
"nub"
(hk-nub (list 1 2 1 3 2))
(list 1 2 3))
(hk-test
"sum"
(hk-sum (list 1 2 3 4))
10)
(hk-test
"product"
(hk-product (list 1 2 3 4))
24)
(hk-test
"maximum"
(hk-maximum (list 3 1 4 1 5))
5)
(hk-test
"minimum"
(hk-minimum (list 3 1 4 1 5))
1)
(hk-test
"concat"
(hk-concat
(list (list 1 2) (list 3 4)))
(list 1 2 3 4))
(hk-test
"concat-map"
(hk-concat-map
(fn (x) (list x (* x x)))
(list 1 2 3))
(list 1 1 2 4 3 9))
(hk-test
"sort"
(hk-sort (list 3 1 4 1 5))
(list 1 1 3 4 5))
(hk-test
"replicate"
(hk-replicate 3 0)
(list 0 0 0))
(hk-test "replicate 0" (hk-replicate 0 99) (list))
(hk-test
"intersperse"
(hk-intersperse 0 (list 1 2 3))
(list 1 0 2 0 3))
(hk-test
"intersperse 1"
(hk-intersperse 0 (list 1))
(list 1))
(hk-test "intersperse empty" (hk-intersperse 0 (list)) (list))
(hk-test
"span"
(hk-span
(fn (x) (< x 3))
(list 1 2 3 4))
(list (list 1 2) (list 3 4)))
(hk-test
"break"
(hk-break
(fn (x) (>= x 3))
(list 1 2 3 4))
(list (list 1 2) (list 3 4)))
(hk-test
"foldl"
(hk-foldl
(fn (a b) (- a b))
10
(list 1 2 3))
4)
(hk-test
"foldr"
(hk-foldr cons (list) (list 1 2 3))
(list 1 2 3))
(hk-test
"scanl"
(hk-scanl + 0 (list 1 2 3))
(list 0 1 3 6))
;; ---------------------------------------------------------------------------
;; 7. Maybe / Either
;; ---------------------------------------------------------------------------
(hk-test "nothing is-nothing?" (hk-is-nothing? hk-nothing) true)
(hk-test "nothing is-just?" (hk-is-just? hk-nothing) false)
(hk-test "just is-just?" (hk-is-just? (hk-just 42)) true)
(hk-test "just is-nothing?" (hk-is-nothing? (hk-just 42)) false)
(hk-test "from-just" (hk-from-just (hk-just 99)) 99)
(hk-test
"from-maybe nothing"
(hk-from-maybe 0 hk-nothing)
0)
(hk-test
"from-maybe just"
(hk-from-maybe 0 (hk-just 42))
42)
(hk-test
"maybe nothing"
(hk-maybe 0 (fn (x) (* x 2)) hk-nothing)
0)
(hk-test
"maybe just"
(hk-maybe 0 (fn (x) (* x 2)) (hk-just 5))
10)
(hk-test "left is-left?" (hk-is-left? (hk-left "e")) true)
(hk-test "right is-right?" (hk-is-right? (hk-right 42)) true)
(hk-test "from-right" (hk-from-right (hk-right 7)) 7)
(hk-test
"either left"
(hk-either (fn (x) (str "L" x)) (fn (x) (str "R" x)) (hk-left "err"))
"Lerr")
(hk-test
"either right"
(hk-either
(fn (x) (str "L" x))
(fn (x) (str "R" x))
(hk-right 42))
"R42")
;; ---------------------------------------------------------------------------
;; 8. Tuples
;; ---------------------------------------------------------------------------
(hk-test "pair" (hk-pair 1 2) (list 1 2))
(hk-test "fst" (hk-fst (hk-pair 3 4)) 3)
(hk-test "snd" (hk-snd (hk-pair 3 4)) 4)
(hk-test
"triple"
(hk-triple 1 2 3)
(list 1 2 3))
(hk-test
"fst3"
(hk-fst3 (hk-triple 7 8 9))
7)
(hk-test
"thd3"
(hk-thd3 (hk-triple 7 8 9))
9)
(hk-test "curry" ((hk-curry +) 3 4) 7)
(hk-test
"uncurry"
((hk-uncurry (fn (a b) (* a b))) (list 3 4))
12)
;; ---------------------------------------------------------------------------
;; 9. String helpers
;; ---------------------------------------------------------------------------
(hk-test "words" (hk-words "hello world") (list "hello" "world"))
(hk-test "words leading ws" (hk-words " foo bar") (list "foo" "bar"))
(hk-test "words empty" (hk-words "") (list))
(hk-test "unwords" (hk-unwords (list "a" "b" "c")) "a b c")
(hk-test "unwords single" (hk-unwords (list "x")) "x")
(hk-test "lines" (hk-lines "a\nb\nc") (list "a" "b" "c"))
(hk-test "lines single" (hk-lines "hello") (list "hello"))
(hk-test "unlines" (hk-unlines (list "a" "b")) "a\nb\n")
(hk-test "is-prefix-of yes" (hk-is-prefix-of "he" "hello") true)
(hk-test "is-prefix-of no" (hk-is-prefix-of "wo" "hello") false)
(hk-test "is-prefix-of eq" (hk-is-prefix-of "hi" "hi") true)
(hk-test "is-prefix-of empty" (hk-is-prefix-of "" "hi") true)
(hk-test "is-suffix-of yes" (hk-is-suffix-of "lo" "hello") true)
(hk-test "is-suffix-of no" (hk-is-suffix-of "he" "hello") false)
(hk-test "is-suffix-of empty" (hk-is-suffix-of "" "hi") true)
(hk-test "is-infix-of yes" (hk-is-infix-of "ell" "hello") true)
(hk-test "is-infix-of no" (hk-is-infix-of "xyz" "hello") false)
(hk-test "is-infix-of empty" (hk-is-infix-of "" "hello") true)
;; ---------------------------------------------------------------------------
;; 10. Show
;; ---------------------------------------------------------------------------
(hk-test "show nil" (hk-show nil) "Nothing")
(hk-test "show true" (hk-show true) "True")
(hk-test "show false" (hk-show false) "False")
(hk-test "show int" (hk-show 42) "42")
(hk-test "show string" (hk-show "hi") "\"hi\"")
(hk-test
"show list"
(hk-show (list 1 2 3))
"[1,2,3]")
(hk-test "show empty list" (hk-show (list)) "[]")
;; ---------------------------------------------------------------------------
;; Summary (required by test.sh — last expression is the return value)
;; ---------------------------------------------------------------------------
(list hk-test-pass hk-test-fail)

View File

@@ -48,6 +48,15 @@
prop
value))
(list (quote hs-query-all) (nth base-ast 1))))
((and (list? base-ast) (= (first base-ast) (quote query)))
(list
(quote dom-set-prop)
(list
(quote hs-named-target)
(nth base-ast 1)
(list (quote hs-query-first) (nth base-ast 1)))
prop
value))
((and (list? base-ast) (= (first base-ast) dot-sym) (let ((inner (nth base-ast 1))) (and (list? inner) (= (first inner) (quote query)) (let ((s (nth inner 1))) (and (string? s) (> (len s) 0) (= (substring s 0 1) "."))))))
(let
((inner (nth base-ast 1))
@@ -146,6 +155,14 @@
(nth prop-ast 1)
value)
(list (quote set!) (hs-to-sx target) value))))))
((= th (quote query))
(list
(quote hs-set-inner-html!)
(list
(quote hs-named-target)
(nth target 1)
(list (quote hs-query-first) (nth target 1)))
value))
(true (list (quote set!) (hs-to-sx target) value)))))))
(define
emit-on
@@ -274,17 +291,33 @@
((name (nth ast 1)) (rest-parts (rest (rest ast))))
(cond
((and (= (len ast) 4) (list? (nth ast 2)) (= (first (nth ast 2)) (quote dict)))
(list
(quote dom-dispatch)
(hs-to-sx (nth ast 3))
name
(hs-to-sx (nth ast 2))))
(let
((tgt-ast (nth ast 3)))
(list
(quote dom-dispatch)
(if
(and (list? tgt-ast) (= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast))
name
(hs-to-sx (nth ast 2)))))
((= (len ast) 3)
(list
(quote dom-dispatch)
(hs-to-sx (nth ast 2))
name
(list (quote dict) "sender" (quote me))))
(let
((tgt-ast (nth ast 2)))
(list
(quote dom-dispatch)
(if
(and (list? tgt-ast) (= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast))
name
(list (quote dict) "sender" (quote me)))))
(true
(list
(quote dom-dispatch)
@@ -706,6 +739,33 @@
(quote fn)
(cons (quote me) (map make-symbol params))
(cons (quote do) (map hs-to-sx body)))))))
(define
hs-safe-obj
(fn
(obj-ast)
(if
(and (list? obj-ast) (= (first obj-ast) (quote ref)))
(list (quote host-global) (nth obj-ast 1))
(if
(and (list? obj-ast) (= (first obj-ast) dot-sym))
(let
((inner (nth obj-ast 1)) (prop (nth obj-ast 2)))
(list (quote host-get) (hs-safe-obj inner) prop))
(hs-to-sx obj-ast)))))
(define
hs-chain-name
(fn
(obj-ast)
(if
(and (list? obj-ast) (= (first obj-ast) (quote ref)))
(nth obj-ast 1)
(if
(and (list? obj-ast) (= (first obj-ast) dot-sym))
(str (hs-chain-name (nth obj-ast 1)) "." (nth obj-ast 2))
(if
(and (list? obj-ast) (= (first obj-ast) (quote query)))
(nth obj-ast 1)
nil)))))
(fn
(ast)
(cond
@@ -1226,12 +1286,21 @@
(if
(and (list? raw-tgt) (= (first raw-tgt) (quote query)))
(list
(quote for-each)
(quote let)
(list
(quote fn)
(list (quote _el))
(list (quote dom-add-class) (quote _el) (nth ast 1)))
(list (quote hs-query-all) (nth raw-tgt 1)))
(list
(quote _tgt)
(list (quote hs-query-named-all) (nth raw-tgt 1))))
(list
(quote for-each)
(list
(quote fn)
(list (quote _el))
(list
(quote dom-add-class)
(quote _el)
(nth ast 1)))
(quote _tgt)))
(list
(quote dom-add-class)
(hs-to-sx raw-tgt)
@@ -1244,14 +1313,20 @@
(nth ast 2)))
((= head (quote set-styles))
(let
((pairs (nth ast 1)) (tgt (hs-to-sx (nth ast 2))))
(cons
(quote do)
(map
(fn
(p)
(list (quote dom-set-style) tgt (first p) (nth p 1)))
pairs))))
((pairs (nth ast 1)) (tgt-ast (nth ast 2)))
(let
((tgt (if (and (list? tgt-ast) (= (first tgt-ast) (quote query))) (list (quote hs-named-target) (nth tgt-ast 1) (list (quote hs-query-first) (nth tgt-ast 1))) (hs-to-sx tgt-ast))))
(cons
(quote do)
(map
(fn
(p)
(list
(quote dom-set-style)
tgt
(first p)
(nth p 1)))
pairs)))))
((= head (quote multi-add-class))
(let
((target (hs-to-sx (nth ast 1)))
@@ -1349,15 +1424,21 @@
(if
(and (list? raw-tgt) (= (first raw-tgt) (quote query)))
(list
(quote for-each)
(quote let)
(list
(quote fn)
(list (quote _el))
(list
(quote dom-remove-class)
(quote _el)
(nth ast 1)))
(list (quote hs-query-all) (nth raw-tgt 1)))
(quote _tgt)
(list (quote hs-query-named-all) (nth raw-tgt 1))))
(list
(quote for-each)
(list
(quote fn)
(list (quote _el))
(list
(quote dom-remove-class)
(quote _el)
(nth ast 1)))
(quote _tgt)))
(list
(quote dom-remove-class)
(if (nil? raw-tgt) (quote me) (hs-to-sx raw-tgt))
@@ -1401,15 +1482,32 @@
((tgt (nth ast 3)))
(list
(quote hs-set-attr!)
(hs-to-sx tgt)
(if
(and (list? tgt) (= (first tgt) (quote query)))
(list
(quote hs-named-target)
(nth tgt 1)
(list (quote hs-query-first) (nth tgt 1)))
(hs-to-sx tgt))
(nth ast 1)
(hs-to-sx (nth ast 2)))))
((= head (quote remove-value))
(let
((val (hs-to-sx (nth ast 1))) (tgt (nth ast 2)))
((val (hs-to-sx (nth ast 1))) (raw-tgt (nth ast 2)))
(emit-set
tgt
(list (quote hs-remove-from!) val (hs-to-sx tgt)))))
raw-tgt
(list
(quote hs-remove-from!)
val
(if
(and
(list? raw-tgt)
(= (first raw-tgt) (quote query)))
(list
(quote hs-named-target)
(nth raw-tgt 1)
(list (quote hs-query-first) (nth raw-tgt 1)))
(hs-to-sx raw-tgt))))))
((= head (quote empty-target))
(let
((tgt (nth ast 1)))
@@ -1440,8 +1538,19 @@
(hs-to-sx (nth ast 2))))
((= head (quote remove-attr))
(let
((tgt (if (nil? (nth ast 2)) (quote me) (hs-to-sx (nth ast 2)))))
(list (quote dom-remove-attr) tgt (nth ast 1))))
((raw-tgt (nth ast 2)))
(list
(quote dom-remove-attr)
(if
(and
(list? raw-tgt)
(= (first raw-tgt) (quote query)))
(list
(quote hs-named-target)
(nth raw-tgt 1)
(list (quote hs-query-first) (nth raw-tgt 1)))
(if (nil? raw-tgt) (quote me) (hs-to-sx raw-tgt)))
(nth ast 1))))
((= head (quote remove-css))
(let
((tgt (if (nil? (nth ast 2)) (quote me) (hs-to-sx (nth ast 2))))
@@ -1452,10 +1561,20 @@
(fn (p) (list (quote dom-set-style) tgt p ""))
props))))
((= head (quote toggle-class))
(list
(quote hs-toggle-class!)
(hs-to-sx (nth ast 2))
(nth ast 1)))
(let
((tgt-ast (nth ast 2)))
(list
(quote hs-toggle-class!)
(if
(and
(list? tgt-ast)
(= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast))
(nth ast 1))))
((= head (quote toggle-class-for))
(list
(quote do)
@@ -1510,11 +1629,21 @@
(hs-to-sx tgt-ast)
(hs-to-sx val-ast)))))
((= head (quote toggle-between))
(list
(quote hs-toggle-between!)
(hs-to-sx (nth ast 3))
(nth ast 1)
(nth ast 2)))
(let
((tgt-ast (nth ast 3)))
(list
(quote hs-toggle-between!)
(if
(and
(list? tgt-ast)
(= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast))
(nth ast 1)
(nth ast 2))))
((= head (quote toggle-style))
(let
((raw-tgt (nth ast 2)))
@@ -1538,10 +1667,20 @@
(quote list)
(map hs-to-sx (slice ast 3 (len ast))))))
((= head (quote toggle-attr))
(list
(quote hs-toggle-attr!)
(hs-to-sx (nth ast 2))
(nth ast 1)))
(let
((tgt-ast (nth ast 2)))
(list
(quote hs-toggle-attr!)
(if
(and
(list? tgt-ast)
(= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast))
(nth ast 1))))
((= head (quote toggle-attr-between))
(list
(quote hs-toggle-attr-between!)
@@ -1575,7 +1714,22 @@
(emit-set
raw-tgt
(list (quote hs-put-at!) val pos (hs-to-sx raw-tgt))))
(true (list (quote hs-put!) val pos (hs-to-sx raw-tgt))))))
(true
(let
((tgt-ast raw-tgt))
(list
(quote hs-put!)
val
pos
(if
(and
(list? tgt-ast)
(= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast))))))))
((= head (quote if))
(if
(> (len ast) 3)
@@ -1651,12 +1805,22 @@
(detail (if (= (len ast) 4) (nth ast 2) nil)))
(list
(quote dom-dispatch)
(hs-to-sx tgt)
(let
((tgt-ast tgt))
(if
(and
(list? tgt-ast)
(= (first tgt-ast) (quote query)))
(list
(quote hs-named-target)
(nth tgt-ast 1)
(list (quote hs-query-first) (nth tgt-ast 1)))
(hs-to-sx tgt-ast)))
name
(if has-detail (hs-to-sx detail) nil))))
((= head (quote hide))
(let
((tgt (let ((raw-tgt (nth ast 1))) (if (and (list? raw-tgt) (= (first raw-tgt) (quote query))) (list (quote hs-query-all) (nth raw-tgt 1)) (hs-to-sx raw-tgt))))
((tgt (let ((raw-tgt (nth ast 1))) (if (and (list? raw-tgt) (= (first raw-tgt) (quote query))) (list (quote hs-query-named-all) (nth raw-tgt 1)) (hs-to-sx raw-tgt))))
(strategy (if (> (len ast) 2) (nth ast 2) "display"))
(when-cond (if (> (len ast) 3) (nth ast 3) nil)))
(if
@@ -1672,7 +1836,7 @@
(hs-to-sx when-cond))))))
((= head (quote show))
(let
((tgt (let ((raw-tgt (nth ast 1))) (if (and (list? raw-tgt) (= (first raw-tgt) (quote query))) (list (quote hs-query-all) (nth raw-tgt 1)) (hs-to-sx raw-tgt))))
((tgt (let ((raw-tgt (nth ast 1))) (if (and (list? raw-tgt) (= (first raw-tgt) (quote query))) (list (quote hs-query-named-all) (nth raw-tgt 1)) (hs-to-sx raw-tgt))))
(strategy (if (> (len ast) 2) (nth ast 2) "display"))
(when-cond (if (> (len ast) 3) (nth ast 3) nil)))
(if
@@ -1735,13 +1899,28 @@
((= head (quote call))
(let
((raw-fn (nth ast 1))
(fn-expr
(if
(string? raw-fn)
(make-symbol raw-fn)
(hs-to-sx raw-fn)))
(args (map hs-to-sx (rest (rest ast)))))
(cons fn-expr args)))
(if
(and (list? raw-fn) (= (first raw-fn) (quote ref)))
(let
((name (nth raw-fn 1)))
(list
(quote let)
(list
(list
(quote __hs-fn)
(list (quote host-global) name)))
(cons
(quote do)
(list
(list
(quote if)
(list (quote nil?) (quote __hs-fn))
(list (quote raise) (str "'" name "' is null"))
(cons (quote __hs-fn) args))))))
(let
((fn-expr (if (string? raw-fn) (make-symbol raw-fn) (hs-to-sx raw-fn))))
(cons fn-expr args)))))
((= head (quote return))
(let
((val (nth ast 1)))
@@ -1754,7 +1933,22 @@
((= head (quote throw))
(list (quote raise) (hs-to-sx (nth ast 1))))
((= head (quote settle))
(list (quote hs-settle) (quote me)))
(let
((raw-tgt (nth ast 1)))
(list
(quote hs-settle)
(if
(nil? raw-tgt)
(quote me)
(if
(and
(list? raw-tgt)
(= (first raw-tgt) (quote query)))
(list
(quote hs-named-target)
(nth raw-tgt 1)
(list (quote hs-query-first) (nth raw-tgt 1)))
(hs-to-sx raw-tgt))))))
((= head (quote go))
(list (quote hs-navigate!) (hs-to-sx (nth ast 1))))
((= head (quote ask))
@@ -1874,7 +2068,11 @@
((= head (quote install))
(cons (quote hs-install) (map hs-to-sx (rest ast))))
((= head (quote measure))
(list (quote hs-measure) (hs-to-sx (nth ast 1))))
(let
((raw-tgt (nth ast 1)))
(let
((compiled-tgt (if (and (list? raw-tgt) (= (first raw-tgt) (quote query))) (list (quote hs-named-target) (nth raw-tgt 1) (list (quote hs-query-first) (nth raw-tgt 1))) (hs-to-sx raw-tgt))))
(list (quote hs-measure) compiled-tgt))))
((= head (quote increment!))
(if
(= (len ast) 3)

View File

@@ -2455,7 +2455,16 @@
((and (= typ "keyword") (= val "answer"))
(do (adv!) (parse-answer-cmd)))
((and (= typ "keyword") (= val "settle"))
(do (adv!) (list (quote settle))))
(do
(adv!)
(if
(or
(at-end?)
(and
(= (tp-type) "keyword")
(or (= (tp-val) "then") (= (tp-val) "end"))))
(list (quote settle))
(list (quote settle) (parse-expr)))))
((and (= typ "keyword") (= val "go"))
(do (adv!) (parse-go-cmd)))
((and (= typ "keyword") (= val "return"))

View File

@@ -12,37 +12,14 @@
;; Register an event listener. Returns unlisten function.
;; (hs-on target event-name handler) → unlisten-fn
(begin
(define _hs-config-log-all false)
(define _hs-log-captured (list))
(define
hs-set-log-all!
(fn (flag) (set! _hs-config-log-all (if flag true false))))
(define hs-get-log-captured (fn () _hs-log-captured))
(define
hs-clear-log-captured!
(fn () (begin (set! _hs-log-captured (list)) nil)))
(define
hs-log-event!
(fn
(msg)
(when
_hs-config-log-all
(begin
(set! _hs-log-captured (append _hs-log-captured (list msg)))
(host-call (host-global "console") "log" msg)
nil)))))
;; Register for every occurrence (no queuing — each fires independently).
;; Stock hyperscript queues by default; "every" disables queuing.
(define
hs-each
(fn
(target action)
(if (list? target) (for-each action target) (action target))))
;; Run an initializer function immediately.
;; (hs-init thunk) — called at element boot time
;; Register for every occurrence (no queuing — each fires independently).
;; Stock hyperscript queues by default; "every" disables queuing.
(define
hs-on
(fn
@@ -55,17 +32,17 @@
(dom-set-data target "hs-unlisteners" (append prev (list unlisten)))
unlisten))))
;; Run an initializer function immediately.
;; (hs-init thunk) — called at element boot time
(define
hs-on-every
(fn (target event-name handler) (dom-listen target event-name handler)))
;; ── Async / timing ──────────────────────────────────────────────
;; Wait for a duration in milliseconds.
;; In hyperscript, wait is async-transparent — execution pauses.
;; Here we use perform/IO suspension for true pause semantics.
(define
hs-on-every
(fn (target event-name handler) (dom-listen target event-name handler)))
;; Wait for a DOM event on a target.
;; (hs-wait-for target event-name) — suspends until event fires
(define
hs-on-intersection-attach!
(fn
@@ -81,15 +58,16 @@
(host-call observer "observe" target)
observer)))))
;; Wait for CSS transitions/animations to settle on an element.
;; Wait for a DOM event on a target.
;; (hs-wait-for target event-name) — suspends until event fires
(define hs-init (fn (thunk) (thunk)))
;; Wait for CSS transitions/animations to settle on an element.
(define hs-wait (fn (ms) (perform (list (quote io-sleep) ms))))
;; ── Class manipulation ──────────────────────────────────────────
;; Toggle a single class on an element.
(define hs-wait (fn (ms) (perform (list (quote io-sleep) ms))))
;; Toggle between two classes — exactly one is active at a time.
(begin
(define
hs-wait-for
@@ -102,21 +80,19 @@
(target event-name timeout-ms)
(perform (list (quote io-wait-event) target event-name timeout-ms)))))
;; Toggle between two classes — exactly one is active at a time.
(define hs-settle (fn (target) (perform (list (quote io-settle) target))))
;; Take a class from siblings — add to target, remove from others.
;; (hs-take! target cls) — like radio button class behavior
(define hs-settle (fn (target) (perform (list (quote io-settle) target))))
(define
hs-toggle-class!
(fn (target cls) (host-call (host-get target "classList") "toggle" cls)))
;; ── DOM insertion ───────────────────────────────────────────────
;; Put content at a position relative to a target.
;; pos: "into" | "before" | "after"
(define
hs-toggle-class!
(fn (target cls) (host-call (host-get target "classList") "toggle" cls)))
;; ── Navigation / traversal ──────────────────────────────────────
;; Navigate to a URL.
(define
hs-toggle-between!
(fn
@@ -126,7 +102,9 @@
(do (dom-remove-class target cls1) (dom-add-class target cls2))
(do (dom-remove-class target cls2) (dom-add-class target cls1)))))
;; Find next sibling matching a selector (or any sibling).
;; ── Navigation / traversal ──────────────────────────────────────
;; Navigate to a URL.
(define
hs-toggle-style!
(fn
@@ -150,7 +128,7 @@
(dom-set-style target prop "hidden")
(dom-set-style target prop "")))))))
;; Find previous sibling matching a selector.
;; Find next sibling matching a selector (or any sibling).
(define
hs-toggle-style-between!
(fn
@@ -162,7 +140,7 @@
(dom-set-style target prop val2)
(dom-set-style target prop val1)))))
;; First element matching selector within a scope.
;; Find previous sibling matching a selector.
(define
hs-toggle-style-cycle!
(fn
@@ -183,7 +161,7 @@
(true (find-next (rest remaining))))))
(dom-set-style target prop (find-next vals)))))
;; Last element matching selector.
;; First element matching selector within a scope.
(define
hs-take!
(fn
@@ -206,7 +184,8 @@
(when with-cls (dom-remove-class target with-cls))))
(let
((attr-val (if (> (len extra) 0) (first extra) nil))
(with-val (if (> (len extra) 1) (nth extra 1) nil)))
(with-val
(if (> (len extra) 1) (nth extra 1) nil)))
(do
(for-each
(fn
@@ -223,7 +202,7 @@
(dom-set-attr target name attr-val)
(dom-set-attr target name ""))))))))
;; First/last within a specific scope.
;; Last element matching selector.
(begin
(define
hs-element?
@@ -335,6 +314,7 @@
(dom-insert-adjacent-html target "beforeend" value)
(hs-boot-subtree! target)))))))))
;; First/last within a specific scope.
(define
hs-add-to!
(fn
@@ -347,9 +327,6 @@
(append target (list value))))
(true (do (host-call target "push" value) target)))))
;; ── Iteration ───────────────────────────────────────────────────
;; Repeat a thunk N times.
(define
hs-remove-from!
(fn
@@ -357,9 +334,15 @@
(if
(list? target)
(filter (fn (x) (not (= x value))) target)
(host-call target "splice" (host-call target "indexOf" value) 1))))
(host-call
target
"splice"
(host-call target "indexOf" value)
1))))
;; Repeat forever (until break — relies on exception/continuation).
;; ── Iteration ───────────────────────────────────────────────────
;; Repeat a thunk N times.
(define
hs-splice-at!
(fn
@@ -372,7 +355,10 @@
((i (if (< idx 0) (+ n idx) idx)))
(cond
((or (< i 0) (>= i n)) target)
(true (concat (slice target 0 i) (slice target (+ i 1) n))))))
(true
(concat
(slice target 0 i)
(slice target (+ i 1) n))))))
(do
(when
target
@@ -383,10 +369,7 @@
(host-call target "splice" i 1))))
target))))
;; ── Fetch ───────────────────────────────────────────────────────
;; Fetch a URL, parse response according to format.
;; (hs-fetch url format) — format is "json" | "text" | "html"
;; Repeat forever (until break — relies on exception/continuation).
(define
hs-index
(fn
@@ -398,10 +381,10 @@
((string? obj) (nth obj key))
(true (host-get obj key)))))
;; ── Type coercion ───────────────────────────────────────────────
;; ── Fetch ───────────────────────────────────────────────────────
;; Coerce a value to a type by name.
;; (hs-coerce value type-name) — type-name is "Int", "Float", "String", etc.
;; Fetch a URL, parse response according to format.
;; (hs-fetch url format) — format is "json" | "text" | "html"
(define
hs-put-at!
(fn
@@ -423,10 +406,10 @@
((= pos "start") (host-call target "unshift" value)))
target)))))))
;; ── Object creation ─────────────────────────────────────────────
;; ── Type coercion ───────────────────────────────────────────────
;; Make a new object of a given type.
;; (hs-make type-name) — creates empty object/collection
;; Coerce a value to a type by name.
;; (hs-coerce value type-name) — type-name is "Int", "Float", "String", etc.
(define
hs-dict-without
(fn
@@ -447,27 +430,27 @@
(host-call (host-global "Reflect") "deleteProperty" out key)
out)))))
;; ── Behavior installation ───────────────────────────────────────
;; ── Object creation ─────────────────────────────────────────────
;; Install a behavior on an element.
;; A behavior is a function that takes (me ...params) and sets up features.
;; (hs-install behavior-fn me ...args)
;; Make a new object of a given type.
;; (hs-make type-name) — creates empty object/collection
(define
hs-set-on!
(fn
(props target)
(for-each (fn (k) (host-set! target k (get props k))) (keys props))))
;; ── Behavior installation ───────────────────────────────────────
;; Install a behavior on an element.
;; A behavior is a function that takes (me ...params) and sets up features.
;; (hs-install behavior-fn me ...args)
(define hs-navigate! (fn (url) (perform (list (quote io-navigate) url))))
;; ── Measurement ─────────────────────────────────────────────────
;; Measure an element's bounding rect, store as local variables.
;; Returns a dict with x, y, width, height, top, left, right, bottom.
(define hs-navigate! (fn (url) (perform (list (quote io-navigate) url))))
;; Return the current text selection as a string. In the browser this is
;; `window.getSelection().toString()`. In the mock test runner, a test
;; setup stashes the desired selection text at `window.__test_selection`
;; and the fallback path returns that so tests can assert on the result.
(define
hs-ask
(fn
@@ -476,11 +459,10 @@
((w (host-global "window")))
(if w (host-call w "prompt" msg) nil))))
;; ── Transition ──────────────────────────────────────────────────
;; Transition a CSS property to a value, optionally with duration.
;; (hs-transition target prop value duration)
;; Return the current text selection as a string. In the browser this is
;; `window.getSelection().toString()`. In the mock test runner, a test
;; setup stashes the desired selection text at `window.__test_selection`
;; and the fallback path returns that so tests can assert on the result.
(define
hs-answer
(fn
@@ -489,6 +471,11 @@
((w (host-global "window")))
(if w (if (host-call w "confirm" msg) yes-val no-val) no-val))))
;; ── Transition ──────────────────────────────────────────────────
;; Transition a CSS property to a value, optionally with duration.
;; (hs-transition target prop value duration)
(define
hs-answer-alert
(fn
@@ -643,25 +630,25 @@
(hs-query-all sel)
(host-call target "querySelectorAll" sel))))
(define
hs-list-set
(fn
(lst idx val)
(append (take lst idx) (cons val (drop lst (+ idx 1))))))
(define
hs-to-number
(fn (v) (if (number? v) v (or (parse-number (str v)) 0))))
;; ── Sandbox/test runtime additions ──────────────────────────────
;; Property access — dot notation and .length
(define
hs-query-first
(fn (sel) (host-call (host-global "document") "querySelector" sel)))
;; DOM query stub — sandbox returns empty list
;; ── Sandbox/test runtime additions ──────────────────────────────
;; Property access — dot notation and .length
(define
hs-query-last
(fn
@@ -669,11 +656,9 @@
(let
((all (dom-query-all (dom-body) sel)))
(if (> (len all) 0) (nth all (- (len all) 1)) nil))))
;; Method dispatch — obj.method(args)
;; DOM query stub — sandbox returns empty list
(define hs-first (fn (scope sel) (dom-query-all scope sel)))
;; ── 0.9.90 features ─────────────────────────────────────────────
;; beep! — debug logging, returns value unchanged
;; Method dispatch — obj.method(args)
(define
hs-last
(fn
@@ -681,7 +666,9 @@
(let
((all (dom-query-all scope sel)))
(if (> (len all) 0) (nth all (- (len all) 1)) nil))))
;; Property-based is — check obj.key truthiness
;; ── 0.9.90 features ─────────────────────────────────────────────
;; beep! — debug logging, returns value unchanged
(define
hs-repeat-times
(fn
@@ -699,7 +686,7 @@
((= signal "hs-continue") (do-repeat (+ i 1)))
(true (do-repeat (+ i 1))))))))
(do-repeat 0)))
;; Array slicing (inclusive both ends)
;; Property-based is — check obj.key truthiness
(define
hs-repeat-forever
(fn
@@ -715,7 +702,7 @@
((= signal "hs-continue") (do-forever))
(true (do-forever))))))
(do-forever)))
;; Collection: sorted by
;; Array slicing (inclusive both ends)
(define
hs-repeat-while
(fn
@@ -728,7 +715,7 @@
((= signal "hs-break") nil)
((= signal "hs-continue") (hs-repeat-while cond-fn thunk))
(true (hs-repeat-while cond-fn thunk)))))))
;; Collection: sorted by descending
;; Collection: sorted by
(define
hs-repeat-until
(fn
@@ -740,7 +727,7 @@
((= signal "hs-continue")
(if (cond-fn) nil (hs-repeat-until cond-fn thunk)))
(true (if (cond-fn) nil (hs-repeat-until cond-fn thunk)))))))
;; Collection: split by
;; Collection: sorted by descending
(define
hs-for-each
(fn
@@ -760,7 +747,7 @@
((= signal "hs-continue") (do-loop (rest remaining)))
(true (do-loop (rest remaining))))))))
(do-loop items))))
;; Collection: joined by
;; Collection: split by
(begin
(define
hs-append
@@ -788,7 +775,7 @@
((hs-element? target)
(dom-insert-adjacent-html target "beforeend" (str value)))
(true nil)))))
;; Collection: joined by
(define
hs-sender
(fn
@@ -1310,10 +1297,14 @@
((ch (substring sel i (+ i 1))))
(cond
((= ch ".")
(do (flush!) (set! mode "class") (walk (+ i 1))))
(do
(flush!)
(set! mode "class")
(walk (+ i 1))))
((= ch "#")
(do (flush!) (set! mode "id") (walk (+ i 1))))
(true (do (set! cur (str cur ch)) (walk (+ i 1)))))))))
(true
(do (set! cur (str cur ch)) (walk (+ i 1)))))))))
(walk 0)
(flush!)
{:tag tag :classes classes :id id}))))
@@ -1398,6 +1389,7 @@
hs-strict-eq
(fn (a b) (and (= (type-of a) (type-of b)) (= a b))))
(define
hs-eq-ignore-case
(fn (a b) (= (downcase (str a)) (downcase (str b)))))
@@ -1438,7 +1430,10 @@
((and (dict? a) (dict? b))
(let
((pos (host-call a "compareDocumentPosition" b)))
(if (number? pos) (not (= 0 (mod (/ pos 4) 2))) false)))
(if
(number? pos)
(not (= 0 (mod (/ pos 4) 2)))
false)))
(true (< (str a) (str b))))))
(define
@@ -1540,7 +1535,10 @@
((and (dict? a) (dict? b))
(let
((pos (host-call a "compareDocumentPosition" b)))
(if (number? pos) (not (= 0 (mod (/ pos 4) 2))) false)))
(if
(number? pos)
(not (= 0 (mod (/ pos 4) 2)))
false)))
(true (< (str a) (str b))))))
(define
@@ -1591,7 +1589,9 @@
(define
hs-morph-char
(fn (s p) (if (or (< p 0) (>= p (string-length s))) nil (nth s p))))
(fn
(s p)
(if (or (< p 0) (>= p (string-length s))) nil (nth s p))))
(define
hs-morph-index-from
@@ -1619,7 +1619,10 @@
(q)
(let
((c (hs-morph-char s q)))
(if (and c (< (index-of stop c) 0)) (loop (+ q 1)) q))))
(if
(and c (< (index-of stop c) 0))
(loop (+ q 1))
q))))
(let ((e (loop p))) (list (substring s p e) e))))
(define
@@ -1661,7 +1664,9 @@
(append
acc
(list
(list name (substring s (+ p4 1) close)))))))
(list
name
(substring s (+ p4 1) close)))))))
((= c2 "'")
(let
((close (hs-morph-index-from s "'" (+ p4 1))))
@@ -1671,7 +1676,9 @@
(append
acc
(list
(list name (substring s (+ p4 1) close)))))))
(list
name
(substring s (+ p4 1) close)))))))
(true
(let
((r2 (hs-morph-read-until s p4 " \t\n/>")))
@@ -1755,7 +1762,9 @@
(for-each
(fn
(c)
(when (> (string-length c) 0) (dom-add-class el c)))
(when
(> (string-length c) 0)
(dom-add-class el c)))
(split v " ")))
((and keep-id (= n "id")) nil)
(true (dom-set-attr el n v)))))
@@ -1856,7 +1865,8 @@
((parts (split resolved ":")))
(let
((prop (first parts))
(val (if (> (len parts) 1) (nth parts 1) nil)))
(val
(if (> (len parts) 1) (nth parts 1) nil)))
(cond
((and (not (= prop "display")) (not (= prop "opacity")) (not (= prop "visibility")) (not (= prop "hidden")) (not (= prop "class-hidden")) (not (= prop "class-invisible")) (not (= prop "class-opacity")) (not (= prop "details")) (not (= prop "dialog")) (dict-has? _hs-hide-strategies prop))
(let
@@ -1895,7 +1905,8 @@
((parts (split resolved ":")))
(let
((prop (first parts))
(val (if (> (len parts) 1) (nth parts 1) nil)))
(val
(if (> (len parts) 1) (nth parts 1) nil)))
(cond
((and (not (= prop "display")) (not (= prop "opacity")) (not (= prop "visibility")) (not (= prop "hidden")) (not (= prop "class-hidden")) (not (= prop "class-invisible")) (not (= prop "class-opacity")) (not (= prop "details")) (not (= prop "dialog")) (dict-has? _hs-hide-strategies prop))
(let
@@ -1999,10 +2010,14 @@
(if
(= depth 1)
j
(find-close (+ j 1) (- depth 1)))
(find-close
(+ j 1)
(- depth 1)))
(if
(= (nth raw j) "{")
(find-close (+ j 1) (+ depth 1))
(find-close
(+ j 1)
(+ depth 1))
(find-close (+ j 1) depth))))))
(let
((close (find-close start 1)))
@@ -2093,7 +2108,10 @@
(if
(= (len lst) 0)
-1
(if (= (first lst) item) i (idx-loop (rest lst) (+ i 1))))))
(if
(= (first lst) item)
i
(idx-loop (rest lst) (+ i 1))))))
(idx-loop obj 0)))
(true nil))))
@@ -2179,7 +2197,8 @@
(cond
((= end "hs-pick-end") n)
((= end "hs-pick-start") 0)
((and (number? end) (< end 0)) (max 0 (+ n end)))
((and (number? end) (< end 0))
(max 0 (+ n end)))
(true end))))
(cond
((string? col) (slice col s e))
@@ -2466,6 +2485,50 @@
((nth entry 2) val)))
_hs-dom-watchers)))
(define hs-prolog-hook nil)
(define hs-set-prolog-hook! (fn (f) (set! hs-prolog-hook f)))
(define
prolog
(fn
(db goal)
(if
(nil? hs-prolog-hook)
(raise "prolog hook not installed")
(hs-prolog-hook db goal))))
(define
hs-null-error!
(fn (selector) (raise (str "'" selector "' is null"))))
(define
hs-named-target
(fn (selector value) (if (nil? value) (hs-null-error! selector) value)))
(define
hs-named-target-list
(fn
(selector values)
(if (nil? values) (hs-null-error! selector) values)))
(define
hs-query-named-all
(fn
(selector)
(let
((results (hs-query-all selector)))
(if
(and
(or
(nil? results)
(and (list? results) (= (len results) 0)))
(string? selector)
(> (len selector) 0)
(= (substring selector 0 1) "#"))
(hs-null-error! selector)
results))))
(define
hs-dom-is-ancestor?
(fn

View File

@@ -49,6 +49,8 @@ trap "rm -f $TMPFILE" EXIT
echo '(load "lib/js/transpile.sx")'
echo '(epoch 5)'
echo '(load "lib/js/runtime.sx")'
echo '(epoch 6)'
echo '(load "lib/js/regex.sx")'
epoch=100
for f in "${FIXTURES[@]}"; do

943
lib/js/regex.sx Normal file
View File

@@ -0,0 +1,943 @@
;; lib/js/regex.sx — pure-SX recursive backtracking regex engine
;;
;; Installed via (js-regex-platform-override! ...) at load time.
;; Covers: character classes (\d\w\s . [abc] [^abc] [a-z]),
;; anchors (^ $ \b \B), quantifiers (* + ? {n,m} lazy variants),
;; groups (capturing + non-capturing), alternation (a|b),
;; flags: i (case-insensitive), g (global), m (multiline).
;;
;; Architecture:
;; 1. rx-parse-pattern — pattern string → compiled node list
;; 2. rx-match-nodes — recursive backtracker
;; 3. rx-exec / rx-test — public interface
;; 4. Install as {:test rx-test :exec rx-exec}
;; ── Utilities ─────────────────────────────────────────────────────
(define
rx-char-at
(fn (s i) (if (and (>= i 0) (< i (len s))) (char-at s i) "")))
(define
rx-digit?
(fn
(c)
(and (not (= c "")) (>= (char-code c) 48) (<= (char-code c) 57))))
(define
rx-word?
(fn
(c)
(and
(not (= c ""))
(or
(and (>= (char-code c) 65) (<= (char-code c) 90))
(and (>= (char-code c) 97) (<= (char-code c) 122))
(and (>= (char-code c) 48) (<= (char-code c) 57))
(= c "_")))))
(define
rx-space?
(fn
(c)
(or (= c " ") (= c "\t") (= c "\n") (= c "\r") (= c "\\f") (= c ""))))
(define rx-newline? (fn (c) (or (= c "\n") (= c "\r"))))
(define
rx-downcase-char
(fn
(c)
(let
((cc (char-code c)))
(if (and (>= cc 65) (<= cc 90)) (char-from-code (+ cc 32)) c))))
(define
rx-char-eq?
(fn
(a b ci?)
(if ci? (= (rx-downcase-char a) (rx-downcase-char b)) (= a b))))
(define
rx-parse-int
(fn
(pat i acc)
(let
((c (rx-char-at pat i)))
(if
(rx-digit? c)
(rx-parse-int pat (+ i 1) (+ (* acc 10) (- (char-code c) 48)))
(list acc i)))))
(define
rx-hex-digit-val
(fn
(c)
(cond
((and (>= (char-code c) 48) (<= (char-code c) 57))
(- (char-code c) 48))
((and (>= (char-code c) 65) (<= (char-code c) 70))
(+ 10 (- (char-code c) 65)))
((and (>= (char-code c) 97) (<= (char-code c) 102))
(+ 10 (- (char-code c) 97)))
(else -1))))
(define
rx-parse-hex-n
(fn
(pat i n acc)
(if
(= n 0)
(list (char-from-code acc) i)
(let
((v (rx-hex-digit-val (rx-char-at pat i))))
(if
(< v 0)
(list (char-from-code acc) i)
(rx-parse-hex-n pat (+ i 1) (- n 1) (+ (* acc 16) v)))))))
;; ── Pattern compiler ──────────────────────────────────────────────
;; Node types (stored in dicts with "__t__" key):
;; literal : {:__t__ "literal" :__c__ char}
;; any : {:__t__ "any"}
;; class-d : {:__t__ "class-d" :__neg__ bool}
;; class-w : {:__t__ "class-w" :__neg__ bool}
;; class-s : {:__t__ "class-s" :__neg__ bool}
;; char-class: {:__t__ "char-class" :__neg__ bool :__items__ list}
;; anchor-start / anchor-end / anchor-word / anchor-nonword
;; quant : {:__t__ "quant" :__node__ n :__min__ m :__max__ mx :__lazy__ bool}
;; group : {:__t__ "group" :__idx__ i :__nodes__ list}
;; ncgroup : {:__t__ "ncgroup" :__nodes__ list}
;; alt : {:__t__ "alt" :__branches__ list-of-node-lists}
;; parse one escape after `\`, returns (node new-i)
(define
rx-parse-escape
(fn
(pat i)
(let
((c (rx-char-at pat i)))
(cond
((= c "d") (list (dict "__t__" "class-d" "__neg__" false) (+ i 1)))
((= c "D") (list (dict "__t__" "class-d" "__neg__" true) (+ i 1)))
((= c "w") (list (dict "__t__" "class-w" "__neg__" false) (+ i 1)))
((= c "W") (list (dict "__t__" "class-w" "__neg__" true) (+ i 1)))
((= c "s") (list (dict "__t__" "class-s" "__neg__" false) (+ i 1)))
((= c "S") (list (dict "__t__" "class-s" "__neg__" true) (+ i 1)))
((= c "b") (list (dict "__t__" "anchor-word") (+ i 1)))
((= c "B") (list (dict "__t__" "anchor-nonword") (+ i 1)))
((= c "n") (list (dict "__t__" "literal" "__c__" "\n") (+ i 1)))
((= c "r") (list (dict "__t__" "literal" "__c__" "\r") (+ i 1)))
((= c "t") (list (dict "__t__" "literal" "__c__" "\t") (+ i 1)))
((= c "f") (list (dict "__t__" "literal" "__c__" "\\f") (+ i 1)))
((= c "v") (list (dict "__t__" "literal" "__c__" "") (+ i 1)))
((= c "u")
(let
((res (rx-parse-hex-n pat (+ i 1) 4 0)))
(list (dict "__t__" "literal" "__c__" (nth res 0)) (nth res 1))))
((= c "x")
(let
((res (rx-parse-hex-n pat (+ i 1) 2 0)))
(list (dict "__t__" "literal" "__c__" (nth res 0)) (nth res 1))))
(else (list (dict "__t__" "literal" "__c__" c) (+ i 1)))))))
;; parse a char-class item inside [...], returns (item new-i)
(define
rx-parse-class-item
(fn
(pat i)
(let
((c (rx-char-at pat i)))
(cond
((= c "\\")
(let
((esc (rx-parse-escape pat (+ i 1))))
(let
((node (nth esc 0)) (ni (nth esc 1)))
(let
((t (get node "__t__")))
(cond
((= t "class-d")
(list
(dict "kind" "class-d" "neg" (get node "__neg__"))
ni))
((= t "class-w")
(list
(dict "kind" "class-w" "neg" (get node "__neg__"))
ni))
((= t "class-s")
(list
(dict "kind" "class-s" "neg" (get node "__neg__"))
ni))
(else
(let
((lc (get node "__c__")))
(if
(and
(= (rx-char-at pat ni) "-")
(not (= (rx-char-at pat (+ ni 1)) "]")))
(let
((hi-c (rx-char-at pat (+ ni 1))))
(list
(dict "kind" "range" "lo" lc "hi" hi-c)
(+ ni 2)))
(list (dict "kind" "lit" "c" lc) ni)))))))))
(else
(if
(and
(not (= c ""))
(= (rx-char-at pat (+ i 1)) "-")
(not (= (rx-char-at pat (+ i 2)) "]"))
(not (= (rx-char-at pat (+ i 2)) "")))
(let
((hi-c (rx-char-at pat (+ i 2))))
(list (dict "kind" "range" "lo" c "hi" hi-c) (+ i 3)))
(list (dict "kind" "lit" "c" c) (+ i 1))))))))
(define
rx-parse-class-items
(fn
(pat i items)
(let
((c (rx-char-at pat i)))
(if
(or (= c "]") (= c ""))
(list items i)
(let
((res (rx-parse-class-item pat i)))
(begin
(append! items (nth res 0))
(rx-parse-class-items pat (nth res 1) items)))))))
;; parse a sequence until stop-ch or EOF; returns (nodes new-i groups-count)
(define
rx-parse-seq
(fn
(pat i stop-ch ds)
(let
((c (rx-char-at pat i)))
(cond
((= c "") (list (get ds "nodes") i (get ds "groups")))
((= c stop-ch) (list (get ds "nodes") i (get ds "groups")))
((= c "|") (rx-parse-alt-rest pat i ds))
(else
(let
((res (rx-parse-atom pat i ds)))
(let
((node (nth res 0)) (ni (nth res 1)) (ds2 (nth res 2)))
(let
((qres (rx-parse-quant pat ni node)))
(begin
(append! (get ds2 "nodes") (nth qres 0))
(rx-parse-seq pat (nth qres 1) stop-ch ds2))))))))))
;; when we hit | inside a sequence, collect all alternatives
(define
rx-parse-alt-rest
(fn
(pat i ds)
(let
((left-branch (get ds "nodes")) (branches (list)))
(begin
(append! branches left-branch)
(rx-parse-alt-branches pat i (get ds "groups") branches)))))
(define
rx-parse-alt-branches
(fn
(pat i n-groups branches)
(let
((new-nodes (list)) (ds2 (dict "groups" n-groups "nodes" new-nodes)))
(let
((res (rx-parse-seq pat (+ i 1) "|" ds2)))
(begin
(append! branches (nth res 0))
(let
((ni2 (nth res 1)) (g2 (nth res 2)))
(if
(= (rx-char-at pat ni2) "|")
(rx-parse-alt-branches pat ni2 g2 branches)
(list
(list (dict "__t__" "alt" "__branches__" branches))
ni2
g2))))))))
;; parse quantifier suffix, returns (node new-i)
(define
rx-parse-quant
(fn
(pat i node)
(let
((c (rx-char-at pat i)))
(cond
((= c "*")
(let
((lazy? (= (rx-char-at pat (+ i 1)) "?")))
(list
(dict
"__t__"
"quant"
"__node__"
node
"__min__"
0
"__max__"
-1
"__lazy__"
lazy?)
(if lazy? (+ i 2) (+ i 1)))))
((= c "+")
(let
((lazy? (= (rx-char-at pat (+ i 1)) "?")))
(list
(dict
"__t__"
"quant"
"__node__"
node
"__min__"
1
"__max__"
-1
"__lazy__"
lazy?)
(if lazy? (+ i 2) (+ i 1)))))
((= c "?")
(let
((lazy? (= (rx-char-at pat (+ i 1)) "?")))
(list
(dict
"__t__"
"quant"
"__node__"
node
"__min__"
0
"__max__"
1
"__lazy__"
lazy?)
(if lazy? (+ i 2) (+ i 1)))))
((= c "{")
(let
((mres (rx-parse-int pat (+ i 1) 0)))
(let
((mn (nth mres 0)) (mi (nth mres 1)))
(let
((sep (rx-char-at pat mi)))
(cond
((= sep "}")
(let
((lazy? (= (rx-char-at pat (+ mi 1)) "?")))
(list
(dict
"__t__"
"quant"
"__node__"
node
"__min__"
mn
"__max__"
mn
"__lazy__"
lazy?)
(if lazy? (+ mi 2) (+ mi 1)))))
((= sep ",")
(let
((c2 (rx-char-at pat (+ mi 1))))
(if
(= c2 "}")
(let
((lazy? (= (rx-char-at pat (+ mi 2)) "?")))
(list
(dict
"__t__"
"quant"
"__node__"
node
"__min__"
mn
"__max__"
-1
"__lazy__"
lazy?)
(if lazy? (+ mi 3) (+ mi 2))))
(let
((mxres (rx-parse-int pat (+ mi 1) 0)))
(let
((mx (nth mxres 0)) (mxi (nth mxres 1)))
(let
((lazy? (= (rx-char-at pat (+ mxi 1)) "?")))
(list
(dict
"__t__"
"quant"
"__node__"
node
"__min__"
mn
"__max__"
mx
"__lazy__"
lazy?)
(if lazy? (+ mxi 2) (+ mxi 1)))))))))
(else (list node i)))))))
(else (list node i))))))
;; parse one atom, returns (node new-i new-ds)
(define
rx-parse-atom
(fn
(pat i ds)
(let
((c (rx-char-at pat i)))
(cond
((= c ".") (list (dict "__t__" "any") (+ i 1) ds))
((= c "^") (list (dict "__t__" "anchor-start") (+ i 1) ds))
((= c "$") (list (dict "__t__" "anchor-end") (+ i 1) ds))
((= c "\\")
(let
((esc (rx-parse-escape pat (+ i 1))))
(list (nth esc 0) (nth esc 1) ds)))
((= c "[")
(let
((neg? (= (rx-char-at pat (+ i 1)) "^")))
(let
((start (if neg? (+ i 2) (+ i 1))) (items (list)))
(let
((res (rx-parse-class-items pat start items)))
(let
((ci (nth res 1)))
(list
(dict
"__t__"
"char-class"
"__neg__"
neg?
"__items__"
items)
(+ ci 1)
ds))))))
((= c "(")
(let
((c2 (rx-char-at pat (+ i 1))))
(if
(and (= c2 "?") (= (rx-char-at pat (+ i 2)) ":"))
(let
((inner-nodes (list))
(inner-ds
(dict "groups" (get ds "groups") "nodes" inner-nodes)))
(let
((res (rx-parse-seq pat (+ i 3) ")" inner-ds)))
(list
(dict "__t__" "ncgroup" "__nodes__" (nth res 0))
(+ (nth res 1) 1)
(dict "groups" (nth res 2) "nodes" (get ds "nodes")))))
(let
((gidx (+ (get ds "groups") 1)) (inner-nodes (list)))
(let
((inner-ds (dict "groups" gidx "nodes" inner-nodes)))
(let
((res (rx-parse-seq pat (+ i 1) ")" inner-ds)))
(list
(dict
"__t__"
"group"
"__idx__"
gidx
"__nodes__"
(nth res 0))
(+ (nth res 1) 1)
(dict "groups" (nth res 2) "nodes" (get ds "nodes")))))))))
(else (list (dict "__t__" "literal" "__c__" c) (+ i 1) ds))))))
;; top-level compile
(define
rx-compile
(fn
(pattern)
(let
((nodes (list)) (ds (dict "groups" 0 "nodes" nodes)))
(let
((res (rx-parse-seq pattern 0 "" ds)))
(dict "nodes" (nth res 0) "ngroups" (nth res 2))))))
;; ── Matcher ───────────────────────────────────────────────────────
;; Match a char-class item against character c
(define
rx-item-matches?
(fn
(item c ci?)
(let
((kind (get item "kind")))
(cond
((= kind "lit") (rx-char-eq? c (get item "c") ci?))
((= kind "range")
(let
((lo (if ci? (rx-downcase-char (get item "lo")) (get item "lo")))
(hi
(if ci? (rx-downcase-char (get item "hi")) (get item "hi")))
(dc (if ci? (rx-downcase-char c) c)))
(and
(>= (char-code dc) (char-code lo))
(<= (char-code dc) (char-code hi)))))
((= kind "class-d")
(let ((m (rx-digit? c))) (if (get item "neg") (not m) m)))
((= kind "class-w")
(let ((m (rx-word? c))) (if (get item "neg") (not m) m)))
((= kind "class-s")
(let ((m (rx-space? c))) (if (get item "neg") (not m) m)))
(else false)))))
(define
rx-class-items-any?
(fn
(items c ci?)
(if
(empty? items)
false
(if
(rx-item-matches? (first items) c ci?)
true
(rx-class-items-any? (rest items) c ci?)))))
(define
rx-class-matches?
(fn
(node c ci?)
(let
((neg? (get node "__neg__")) (items (get node "__items__")))
(let
((hit (rx-class-items-any? items c ci?)))
(if neg? (not hit) hit)))))
;; Word boundary check
(define
rx-is-word-boundary?
(fn
(s i slen)
(let
((before (if (> i 0) (rx-word? (char-at s (- i 1))) false))
(after (if (< i slen) (rx-word? (char-at s i)) false)))
(not (= before after)))))
;; ── Core matcher ──────────────────────────────────────────────────
;;
;; rx-match-nodes : nodes s i slen ci? mi? groups → end-pos or -1
;;
;; Matches `nodes` starting at position `i` in string `s`.
;; Returns the position after the last character consumed, or -1 on failure.
;; Mutates `groups` dict to record captures.
(define
rx-match-nodes
(fn
(nodes s i slen ci? mi? groups)
(if
(empty? nodes)
i
(let
((node (first nodes)) (rest-nodes (rest nodes)))
(let
((t (get node "__t__")))
(cond
((= t "literal")
(if
(and
(< i slen)
(rx-char-eq? (char-at s i) (get node "__c__") ci?))
(rx-match-nodes rest-nodes s (+ i 1) slen ci? mi? groups)
-1))
((= t "any")
(if
(and (< i slen) (not (rx-newline? (char-at s i))))
(rx-match-nodes rest-nodes s (+ i 1) slen ci? mi? groups)
-1))
((= t "class-d")
(let
((m (and (< i slen) (rx-digit? (char-at s i)))))
(if
(if (get node "__neg__") (not m) m)
(rx-match-nodes rest-nodes s (+ i 1) slen ci? mi? groups)
-1)))
((= t "class-w")
(let
((m (and (< i slen) (rx-word? (char-at s i)))))
(if
(if (get node "__neg__") (not m) m)
(rx-match-nodes rest-nodes s (+ i 1) slen ci? mi? groups)
-1)))
((= t "class-s")
(let
((m (and (< i slen) (rx-space? (char-at s i)))))
(if
(if (get node "__neg__") (not m) m)
(rx-match-nodes rest-nodes s (+ i 1) slen ci? mi? groups)
-1)))
((= t "char-class")
(if
(and (< i slen) (rx-class-matches? node (char-at s i) ci?))
(rx-match-nodes rest-nodes s (+ i 1) slen ci? mi? groups)
-1))
((= t "anchor-start")
(if
(or
(= i 0)
(and mi? (rx-newline? (rx-char-at s (- i 1)))))
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1))
((= t "anchor-end")
(if
(or (= i slen) (and mi? (rx-newline? (rx-char-at s i))))
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1))
((= t "anchor-word")
(if
(rx-is-word-boundary? s i slen)
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1))
((= t "anchor-nonword")
(if
(not (rx-is-word-boundary? s i slen))
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1))
((= t "group")
(let
((gidx (get node "__idx__"))
(inner (get node "__nodes__")))
(let
((g-end (rx-match-nodes inner s i slen ci? mi? groups)))
(if
(>= g-end 0)
(begin
(dict-set!
groups
(js-to-string gidx)
(substring s i g-end))
(let
((final-end (rx-match-nodes rest-nodes s g-end slen ci? mi? groups)))
(if
(>= final-end 0)
final-end
(begin
(dict-set! groups (js-to-string gidx) nil)
-1))))
-1))))
((= t "ncgroup")
(let
((inner (get node "__nodes__")))
(rx-match-nodes
(append inner rest-nodes)
s
i
slen
ci?
mi?
groups)))
((= t "alt")
(let
((branches (get node "__branches__")))
(rx-try-branches branches rest-nodes s i slen ci? mi? groups)))
((= t "quant")
(let
((inner-node (get node "__node__"))
(mn (get node "__min__"))
(mx (get node "__max__"))
(lazy? (get node "__lazy__")))
(if
lazy?
(rx-quant-lazy
inner-node
mn
mx
rest-nodes
s
i
slen
ci?
mi?
groups
0)
(rx-quant-greedy
inner-node
mn
mx
rest-nodes
s
i
slen
ci?
mi?
groups
0))))
(else -1)))))))
(define
rx-try-branches
(fn
(branches rest-nodes s i slen ci? mi? groups)
(if
(empty? branches)
-1
(let
((res (rx-match-nodes (append (first branches) rest-nodes) s i slen ci? mi? groups)))
(if
(>= res 0)
res
(rx-try-branches (rest branches) rest-nodes s i slen ci? mi? groups))))))
;; Greedy: expand as far as possible, then try rest from the longest match
;; Strategy: recurse forward (extend first); only try rest when extension fails
(define
rx-quant-greedy
(fn
(inner-node mn mx rest-nodes s i slen ci? mi? groups count)
(let
((can-extend (and (< i slen) (or (= mx -1) (< count mx)))))
(if
can-extend
(let
((ni (rx-match-one inner-node s i slen ci? mi? groups)))
(if
(>= ni 0)
(let
((res (rx-quant-greedy inner-node mn mx rest-nodes s ni slen ci? mi? groups (+ count 1))))
(if
(>= res 0)
res
(if
(>= count mn)
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1)))
(if
(>= count mn)
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1)))
(if
(>= count mn)
(rx-match-nodes rest-nodes s i slen ci? mi? groups)
-1)))))
;; Lazy: try rest first, extend only if rest fails
(define
rx-quant-lazy
(fn
(inner-node mn mx rest-nodes s i slen ci? mi? groups count)
(if
(>= count mn)
(let
((res (rx-match-nodes rest-nodes s i slen ci? mi? groups)))
(if
(>= res 0)
res
(if
(and (< i slen) (or (= mx -1) (< count mx)))
(let
((ni (rx-match-one inner-node s i slen ci? mi? groups)))
(if
(>= ni 0)
(rx-quant-lazy
inner-node
mn
mx
rest-nodes
s
ni
slen
ci?
mi?
groups
(+ count 1))
-1))
-1)))
(if
(< i slen)
(let
((ni (rx-match-one inner-node s i slen ci? mi? groups)))
(if
(>= ni 0)
(rx-quant-lazy
inner-node
mn
mx
rest-nodes
s
ni
slen
ci?
mi?
groups
(+ count 1))
-1))
-1))))
;; Match a single node at position i, return new pos or -1
(define
rx-match-one
(fn
(node s i slen ci? mi? groups)
(rx-match-nodes (list node) s i slen ci? mi? groups)))
;; ── Engine entry points ───────────────────────────────────────────
;; Try matching at exactly position i. Returns result dict or nil.
(define
rx-try-at
(fn
(compiled s i slen ci? mi?)
(let
((nodes (get compiled "nodes")) (ngroups (get compiled "ngroups")))
(let
((groups (dict)))
(let
((end (rx-match-nodes nodes s i slen ci? mi? groups)))
(if
(>= end 0)
(dict "start" i "end" end "groups" groups "ngroups" ngroups)
nil))))))
;; Find first match scanning from search-start.
(define
rx-find-from
(fn
(compiled s search-start slen ci? mi?)
(if
(> search-start slen)
nil
(let
((res (rx-try-at compiled s search-start slen ci? mi?)))
(if
res
res
(rx-find-from compiled s (+ search-start 1) slen ci? mi?))))))
;; Build exec result dict from raw match result
(define
rx-build-exec-result
(fn
(s match-res)
(let
((start (get match-res "start"))
(end (get match-res "end"))
(groups (get match-res "groups"))
(ngroups (get match-res "ngroups")))
(let
((matched (substring s start end))
(caps (rx-build-captures groups ngroups 1)))
(dict "match" matched "index" start "input" s "groups" caps)))))
(define
rx-build-captures
(fn
(groups ngroups idx)
(if
(> idx ngroups)
(list)
(let
((cap (get groups (js-to-string idx))))
(cons
(if (= cap nil) :js-undefined cap)
(rx-build-captures groups ngroups (+ idx 1)))))))
;; ── Public interface ──────────────────────────────────────────────
;; Lazy compile: build NFA on first use, cache under "__compiled__"
(define
rx-ensure-compiled!
(fn
(rx)
(if
(dict-has? rx "__compiled__")
(get rx "__compiled__")
(let
((c (rx-compile (get rx "source"))))
(begin (dict-set! rx "__compiled__" c) c)))))
(define
rx-test
(fn
(rx s)
(let
((compiled (rx-ensure-compiled! rx))
(ci? (get rx "ignoreCase"))
(mi? (get rx "multiline"))
(slen (len s)))
(let
((start (if (get rx "global") (let ((li (get rx "lastIndex"))) (if (number? li) li 0)) 0)))
(let
((res (rx-find-from compiled s start slen ci? mi?)))
(if
(get rx "global")
(begin
(dict-set! rx "lastIndex" (if res (get res "end") 0))
(if res true false))
(if res true false)))))))
(define
rx-exec
(fn
(rx s)
(let
((compiled (rx-ensure-compiled! rx))
(ci? (get rx "ignoreCase"))
(mi? (get rx "multiline"))
(slen (len s)))
(let
((start (if (get rx "global") (let ((li (get rx "lastIndex"))) (if (number? li) li 0)) 0)))
(let
((res (rx-find-from compiled s start slen ci? mi?)))
(if
res
(begin
(when
(get rx "global")
(dict-set! rx "lastIndex" (get res "end")))
(rx-build-exec-result s res))
(begin
(when (get rx "global") (dict-set! rx "lastIndex" 0))
nil)))))))
;; match-all for String.prototype.matchAll
(define
js-regex-match-all
(fn
(rx s)
(let
((compiled (rx-ensure-compiled! rx))
(ci? (get rx "ignoreCase"))
(mi? (get rx "multiline"))
(slen (len s))
(results (list)))
(rx-match-all-loop compiled s 0 slen ci? mi? results))))
(define
rx-match-all-loop
(fn
(compiled s i slen ci? mi? results)
(if
(> i slen)
results
(let
((res (rx-find-from compiled s i slen ci? mi?)))
(if
res
(begin
(append! results (rx-build-exec-result s res))
(let
((next (get res "end")))
(rx-match-all-loop
compiled
s
(if (= next i) (+ i 1) next)
slen
ci?
mi?
results)))
results)))))
;; ── Install platform ──────────────────────────────────────────────
(js-regex-platform-override! "test" rx-test)
(js-regex-platform-override! "exec" rx-exec)

View File

@@ -2032,7 +2032,15 @@
(&rest args)
(cond
((= (len args) 0) nil)
((js-regex? (nth args 0)) (js-regex-stub-exec (nth args 0) s))
((js-regex? (nth args 0))
(let
((rx (nth args 0)))
(let
((impl (get __js_regex_platform__ "exec")))
(if
(js-undefined? impl)
(js-regex-stub-exec rx s)
(impl rx s)))))
(else
(let
((needle (js-to-string (nth args 0))))
@@ -2041,7 +2049,7 @@
(if
(= idx -1)
nil
(let ((res (list))) (append! res needle) res))))))))
(let ((res (list))) (begin (append! res needle) res)))))))))
((= name "at")
(fn
(i)
@@ -2099,6 +2107,20 @@
((= name "toWellFormed") (fn () s))
(else js-undefined))))
(define __js_tdz_sentinel__ (dict "__tdz__" true))
(define js-tdz? (fn (v) (and (dict? v) (dict-has? v "__tdz__"))))
(define
js-tdz-check
(fn
(name val)
(if
(js-tdz? val)
(raise
(TypeError (str "Cannot access '" name "' before initialization")))
val)))
(define
js-string-slice
(fn

239
lib/js/stdlib.sx Normal file
View File

@@ -0,0 +1,239 @@
;; lib/js/stdlib.sx — Phase 22 JS additions
;;
;; Adds to lib/js/runtime.sx (already loaded):
;; 1. Bitwise binary ops (js-bitand/bitor/bitxor/lshift/rshift/urshift/bitnot)
;; 2. Map class (arbitrary-key hash map via list of pairs)
;; 3. Set class (uniqueness collection via SX make-set)
;; 4. RegExp constructor (wraps js-regex-new already in runtime)
;; 5. Wires Map / Set / RegExp into js-global
;; ---------------------------------------------------------------------------
;; 1. Bitwise binary ops
;; JS coerces operands to 32-bit signed int before applying the op.
;; Use truncate (not js-num-to-int) since integer / 0 crashes the evaluator.
;; ---------------------------------------------------------------------------
(define
(js-bitand a b)
(bitwise-and (truncate (js-to-number a)) (truncate (js-to-number b))))
(define
(js-bitor a b)
(bitwise-or (truncate (js-to-number a)) (truncate (js-to-number b))))
(define
(js-bitxor a b)
(bitwise-xor (truncate (js-to-number a)) (truncate (js-to-number b))))
;; << : left-shift by (b mod 32) positions
(define
(js-lshift a b)
(arithmetic-shift
(truncate (js-to-number a))
(modulo (truncate (js-to-number b)) 32)))
;; >> : arithmetic right-shift (sign-extending)
(define
(js-rshift a b)
(arithmetic-shift
(truncate (js-to-number a))
(- 0 (modulo (truncate (js-to-number b)) 32))))
;; >>> : logical right-shift (zero-extending)
;; Convert to uint32 first, then divide by 2^n.
(define
(js-urshift a b)
(let
((u32 (modulo (truncate (js-to-number a)) 4294967296))
(n (modulo (truncate (js-to-number b)) 32)))
(quotient u32 (arithmetic-shift 1 n))))
;; ~ : bitwise NOT — equivalent to -(n+1) in 32-bit signed arithmetic
(define (js-bitnot a) (bitwise-not (truncate (js-to-number a))))
;; ---------------------------------------------------------------------------
;; 2. Map class
;; Stored as {:__js_map__ true :size N :_pairs (list (list key val) ...)}
;; Mutation via dict-set! on the underlying dict.
;; ---------------------------------------------------------------------------
(define
(js-map-new)
(let
((m (dict)))
(dict-set! m "__js_map__" true)
(dict-set! m "size" 0)
(dict-set! m "_pairs" (list))
m))
(define (js-map? v) (and (dict? v) (dict-has? v "__js_map__")))
;; Linear scan for key using ===; returns index or -1
(define
(js-map-find-idx pairs k)
(letrec
((go (fn (ps i) (cond ((= (len ps) 0) -1) ((js-strict-eq (first (first ps)) k) i) (else (go (rest ps) (+ i 1)))))))
(go pairs 0)))
(define
(js-map-get m k)
(letrec
((go (fn (ps) (if (= (len ps) 0) js-undefined (if (js-strict-eq (first (first ps)) k) (nth (first ps) 1) (go (rest ps)))))))
(go (get m "_pairs"))))
;; Replace element at index i in list
(define
(js-list-set-nth lst i newval)
(letrec
((go (fn (ps j) (if (= (len ps) 0) (list) (cons (if (= j i) newval (first ps)) (go (rest ps) (+ j 1)))))))
(go lst 0)))
;; Remove element at index i from list
(define
(js-list-remove-nth lst i)
(letrec
((go (fn (ps j) (if (= (len ps) 0) (list) (if (= j i) (go (rest ps) (+ j 1)) (cons (first ps) (go (rest ps) (+ j 1))))))))
(go lst 0)))
(define
(js-map-set! m k v)
(let
((pairs (get m "_pairs")) (idx (js-map-find-idx (get m "_pairs") k)))
(if
(= idx -1)
(begin
(dict-set! m "_pairs" (append pairs (list (list k v))))
(dict-set! m "size" (+ (get m "size") 1)))
(dict-set! m "_pairs" (js-list-set-nth pairs idx (list k v)))))
m)
(define
(js-map-has m k)
(not (= (js-map-find-idx (get m "_pairs") k) -1)))
(define
(js-map-delete! m k)
(let
((idx (js-map-find-idx (get m "_pairs") k)))
(when
(not (= idx -1))
(dict-set! m "_pairs" (js-list-remove-nth (get m "_pairs") idx))
(dict-set! m "size" (- (get m "size") 1))))
m)
(define
(js-map-clear! m)
(dict-set! m "_pairs" (list))
(dict-set! m "size" 0)
m)
(define (js-map-keys m) (map first (get m "_pairs")))
(define
(js-map-vals m)
(map (fn (p) (nth p 1)) (get m "_pairs")))
(define (js-map-entries m) (get m "_pairs"))
(define
(js-map-for-each m cb)
(for-each
(fn (p) (cb (nth p 1) (first p) m))
(get m "_pairs"))
js-undefined)
;; Map method dispatch (called from js-object-method-call in runtime)
(define
(js-map-method m name args)
(cond
((= name "set")
(js-map-set! m (nth args 0) (nth args 1)))
((= name "get") (js-map-get m (nth args 0)))
((= name "has") (js-map-has m (nth args 0)))
((= name "delete") (js-map-delete! m (nth args 0)))
((= name "clear") (js-map-clear! m))
((= name "keys") (js-map-keys m))
((= name "values") (js-map-vals m))
((= name "entries") (js-map-entries m))
((= name "forEach") (js-map-for-each m (nth args 0)))
((= name "toString") "[object Map]")
(else js-undefined)))
(define Map {:__callable__ (fn (&rest args) (let ((m (js-map-new))) (when (and (> (len args) 0) (list? (nth args 0))) (for-each (fn (entry) (js-map-set! m (nth entry 0) (nth entry 1))) (nth args 0))) m)) :prototype {:entries (fn (&rest a) (js-map-entries (js-this))) :delete (fn (&rest a) (js-map-delete! (js-this) (nth a 0))) :get (fn (&rest a) (js-map-get (js-this) (nth a 0))) :values (fn (&rest a) (js-map-vals (js-this))) :toString (fn () "[object Map]") :has (fn (&rest a) (js-map-has (js-this) (nth a 0))) :set (fn (&rest a) (js-map-set! (js-this) (nth a 0) (nth a 1))) :forEach (fn (&rest a) (js-map-for-each (js-this) (nth a 0))) :clear (fn (&rest a) (js-map-clear! (js-this))) :keys (fn (&rest a) (js-map-keys (js-this)))}})
;; ---------------------------------------------------------------------------
;; 3. Set class
;; {:__js_set__ true :size N :_set <sx-set>}
;; Note: set-member?/set-add!/set-remove! all take (set item) order.
;; ---------------------------------------------------------------------------
(define
(js-set-new)
(let
((s (dict)))
(dict-set! s "__js_set__" true)
(dict-set! s "size" 0)
(dict-set! s "_set" (make-set))
s))
(define (js-set? v) (and (dict? v) (dict-has? v "__js_set__")))
(define
(js-set-add! s v)
(let
((sx (get s "_set")))
(when
(not (set-member? sx v))
(set-add! sx v)
(dict-set! s "size" (+ (get s "size") 1))))
s)
(define (js-set-has s v) (set-member? (get s "_set") v))
(define
(js-set-delete! s v)
(let
((sx (get s "_set")))
(when
(set-member? sx v)
(set-remove! sx v)
(dict-set! s "size" (- (get s "size") 1))))
s)
(define
(js-set-clear! s)
(dict-set! s "_set" (make-set))
(dict-set! s "size" 0)
s)
(define (js-set-vals s) (set->list (get s "_set")))
(define
(js-set-for-each s cb)
(for-each (fn (v) (cb v v s)) (set->list (get s "_set")))
js-undefined)
(define Set {:__callable__ (fn (&rest args) (let ((s (js-set-new))) (when (and (> (len args) 0) (list? (nth args 0))) (for-each (fn (v) (js-set-add! s v)) (nth args 0))) s)) :prototype {:entries (fn (&rest a) (map (fn (v) (list v v)) (js-set-vals (js-this)))) :delete (fn (&rest a) (js-set-delete! (js-this) (nth a 0))) :values (fn (&rest a) (js-set-vals (js-this))) :add (fn (&rest a) (js-set-add! (js-this) (nth a 0))) :toString (fn () "[object Set]") :has (fn (&rest a) (js-set-has (js-this) (nth a 0))) :forEach (fn (&rest a) (js-set-for-each (js-this) (nth a 0))) :clear (fn (&rest a) (js-set-clear! (js-this))) :keys (fn (&rest a) (js-set-vals (js-this)))}})
;; ---------------------------------------------------------------------------
;; 4. RegExp constructor — callable lambda wrapping js-regex-new
;; ---------------------------------------------------------------------------
(define
RegExp
(fn
(&rest args)
(cond
((= (len args) 0) (js-regex-new "" ""))
((= (len args) 1)
(js-regex-new (js-to-string (nth args 0)) ""))
(else
(js-regex-new
(js-to-string (nth args 0))
(js-to-string (nth args 1)))))))
;; ---------------------------------------------------------------------------
;; 5. Wire new globals into js-global
;; ---------------------------------------------------------------------------
(dict-set! js-global "Map" Map)
(dict-set! js-global "Set" Set)
(dict-set! js-global "RegExp" RegExp)

View File

@@ -33,6 +33,10 @@ cat > "$TMPFILE" << 'EPOCHS'
(load "lib/js/transpile.sx")
(epoch 5)
(load "lib/js/runtime.sx")
(epoch 6)
(load "lib/js/regex.sx")
(epoch 7)
(load "lib/js/stdlib.sx")
;; ── Phase 0: stubs still behave ─────────────────────────────────
(epoch 10)
@@ -1323,6 +1327,166 @@ cat > "$TMPFILE" << 'EPOCHS'
(epoch 3505)
(eval "(js-eval \"var a = {length: 3, 0: 10, 1: 20, 2: 30}; var sum = 0; Array.prototype.forEach.call(a, function(x){sum += x;}); sum\")")
;; ── Phase 12: Regex engine ────────────────────────────────────────
;; Platform is installed (test key is a function, not undefined)
(epoch 5000)
(eval "(js-undefined? (get __js_regex_platform__ \"test\"))")
(epoch 5001)
(eval "(js-eval \"/foo/.test('hi foo bar')\")")
(epoch 5002)
(eval "(js-eval \"/foo/.test('hi bar')\")")
;; Case-insensitive flag
(epoch 5003)
(eval "(js-eval \"/FOO/i.test('hello foo world')\")")
;; Anchors
(epoch 5004)
(eval "(js-eval \"/^hello/.test('hello world')\")")
(epoch 5005)
(eval "(js-eval \"/^hello/.test('say hello')\")")
(epoch 5006)
(eval "(js-eval \"/world$/.test('hello world')\")")
;; Character classes
(epoch 5007)
(eval "(js-eval \"/\\\\d+/.test('abc 123')\")")
(epoch 5008)
(eval "(js-eval \"/\\\\w+/.test('hello')\")")
(epoch 5009)
(eval "(js-eval \"/[abc]/.test('dog')\")")
(epoch 5010)
(eval "(js-eval \"/[abc]/.test('cat')\")")
;; Quantifiers
(epoch 5011)
(eval "(js-eval \"/a*b/.test('b')\")")
(epoch 5012)
(eval "(js-eval \"/a+b/.test('b')\")")
(epoch 5013)
(eval "(js-eval \"/a{2,3}/.test('aa')\")")
(epoch 5014)
(eval "(js-eval \"/a{2,3}/.test('a')\")")
;; Dot
(epoch 5015)
(eval "(js-eval \"/h.llo/.test('hello')\")")
(epoch 5016)
(eval "(js-eval \"/h.llo/.test('hllo')\")")
;; exec result
(epoch 5017)
(eval "(js-eval \"var m = /foo(\\\\w+)/.exec('foobar'); m.match\")")
(epoch 5018)
(eval "(js-eval \"var m = /foo(\\\\w+)/.exec('foobar'); m.index\")")
(epoch 5019)
(eval "(js-eval \"var m = /foo(\\\\w+)/.exec('foobar'); m.groups[0]\")")
;; Alternation
(epoch 5020)
(eval "(js-eval \"/cat|dog/.test('I have a dog')\")")
(epoch 5021)
(eval "(js-eval \"/cat|dog/.test('I have a fish')\")")
;; Non-capturing group
(epoch 5022)
(eval "(js-eval \"/(?:foo)+/.test('foofoo')\")")
;; Negated char class
(epoch 5023)
(eval "(js-eval \"/[^abc]/.test('d')\")")
(epoch 5024)
(eval "(js-eval \"/[^abc]/.test('a')\")")
;; Range inside char class
(epoch 5025)
(eval "(js-eval \"/[a-z]+/.test('hello')\")")
;; Word boundary
(epoch 5026)
(eval "(js-eval \"/\\\\bword\\\\b/.test('a word here')\")")
(epoch 5027)
(eval "(js-eval \"/\\\\bword\\\\b/.test('password')\")")
;; Lazy quantifier
(epoch 5028)
(eval "(js-eval \"var m = /a+?/.exec('aaa'); m.match\")")
;; Global flag exec
(epoch 5029)
(eval "(js-eval \"var r=/\\\\d+/g; r.exec('a1b2'); r.exec('a1b2').match\")")
;; String.prototype.match with regex
(epoch 5030)
(eval "(js-eval \"'hello world'.match(/\\\\w+/).match\")")
;; String.prototype.search
(epoch 5031)
(eval "(js-eval \"'hello world'.search(/world/)\")")
;; String.prototype.replace with regex
(epoch 5032)
(eval "(js-eval \"'hello world'.replace(/world/, 'there')\")")
;; multiline anchor
(epoch 5033)
(eval "(js-eval \"/^bar/m.test('foo\\nbar')\")")
;; ── Phase 13: let/const TDZ infrastructure ───────────────────────
;; The TDZ sentinel and checker are defined in runtime.sx.
;; let/const bindings work normally after initialization.
(epoch 5100)
(eval "(js-eval \"let x = 5; x\")")
(epoch 5101)
(eval "(js-eval \"const y = 42; y\")")
;; TDZ sentinel exists and is detectable
(epoch 5102)
(eval "(js-tdz? __js_tdz_sentinel__)")
;; js-tdz-check passes through non-sentinel values
(epoch 5103)
(eval "(js-tdz-check \"x\" 42)")
;; ── Phase 22: Bitwise ops ────────────────────────────────────────
(epoch 6000)
(eval "(js-bitand 5 3)")
(epoch 6001)
(eval "(js-bitor 5 3)")
(epoch 6002)
(eval "(js-bitxor 5 3)")
(epoch 6003)
(eval "(js-lshift 1 4)")
(epoch 6004)
(eval "(js-rshift 32 2)")
(epoch 6005)
(eval "(js-rshift -8 1)")
(epoch 6006)
(eval "(js-urshift 4294967292 2)")
(epoch 6007)
(eval "(js-bitnot 0)")
;; ── Phase 22: Map ─────────────────────────────────────────────────
(epoch 6010)
(eval "(js-map? (js-map-new))")
(epoch 6011)
(eval "(get (js-map-set! (js-map-new) \"k\" 42) \"size\")")
(epoch 6012)
(eval "(let ((m (js-map-new))) (js-map-set! m \"a\" 1) (js-map-get m \"a\"))")
(epoch 6013)
(eval "(let ((m (js-map-new))) (js-map-set! m \"x\" 9) (js-map-has m \"x\"))")
(epoch 6014)
(eval "(let ((m (js-map-new))) (js-map-set! m \"x\" 9) (js-map-has m \"y\"))")
(epoch 6015)
(eval "(let ((m (js-map-new))) (js-map-set! m \"a\" 1) (js-map-set! m \"b\" 2) (get m \"size\"))")
(epoch 6016)
(eval "(let ((m (js-map-new))) (js-map-set! m \"a\" 1) (js-map-delete! m \"a\") (get m \"size\"))")
(epoch 6017)
(eval "(let ((m (js-map-new))) (js-map-set! m \"a\" 1) (js-map-set! m \"a\" 99) (js-map-get m \"a\"))")
;; ── Phase 22: Set ─────────────────────────────────────────────────
(epoch 6020)
(eval "(js-set? (js-set-new))")
(epoch 6021)
(eval "(let ((s (js-set-new))) (js-set-add! s 1) (js-set-has s 1))")
(epoch 6022)
(eval "(let ((s (js-set-new))) (js-set-add! s 1) (js-set-has s 2))")
(epoch 6023)
(eval "(let ((s (js-set-new))) (js-set-add! s 1) (js-set-add! s 1) (get s \"size\"))")
(epoch 6024)
(eval "(let ((s (js-set-new))) (js-set-add! s 1) (js-set-add! s 2) (get s \"size\"))")
(epoch 6025)
(eval "(let ((s (js-set-new))) (js-set-add! s 1) (js-set-delete! s 1) (get s \"size\"))")
;; ── Phase 22: RegExp constructor ──────────────────────────────────
(epoch 6030)
(eval "(js-regex? (RegExp \"ab\" \"i\"))")
(epoch 6031)
(eval "(get (RegExp \"hello\" \"gi\") \"global\")")
(epoch 6032)
(eval "(get (RegExp \"foo\" \"i\") \"ignoreCase\")")
EPOCHS
@@ -2042,6 +2206,81 @@ check 3503 "indexOf.call arrLike" '1'
check 3504 "filter.call arrLike" '"2,3"'
check 3505 "forEach.call arrLike sum" '60'
# ── Phase 12: Regex engine ────────────────────────────────────────
check 5000 "regex platform installed" 'false'
check 5001 "/foo/ matches" 'true'
check 5002 "/foo/ no match" 'false'
check 5003 "/FOO/i case-insensitive" 'true'
check 5004 "/^hello/ anchor match" 'true'
check 5005 "/^hello/ anchor no-match" 'false'
check 5006 "/world$/ end anchor" 'true'
check 5007 "/\\d+/ digit class" 'true'
check 5008 "/\\w+/ word class" 'true'
check 5009 "/[abc]/ class no-match" 'false'
check 5010 "/[abc]/ class match" 'true'
check 5011 "/a*b/ zero-or-more" 'true'
check 5012 "/a+b/ one-or-more no-match" 'false'
check 5013 "/a{2,3}/ quant match" 'true'
check 5014 "/a{2,3}/ quant no-match" 'false'
check 5015 "dot matches any" 'true'
check 5016 "dot requires char" 'false'
check 5017 "exec match string" '"foobar"'
check 5018 "exec match index" '0'
check 5019 "exec capture group" '"bar"'
check 5020 "alternation cat|dog match" 'true'
check 5021 "alternation cat|dog no-match" 'false'
check 5022 "non-capturing group" 'true'
check 5023 "negated class match" 'true'
check 5024 "negated class no-match" 'false'
check 5025 "range [a-z]+" 'true'
check 5026 "word boundary match" 'true'
check 5027 "word boundary no-match" 'false'
check 5028 "lazy quantifier" '"a"'
check 5029 "global exec advances" '"2"'
check 5030 "String.match regex" '"hello"'
check 5031 "String.search regex" '6'
check 5032 "String.replace regex" '"hello there"'
check 5033 "multiline anchor" 'true'
# ── Phase 13: let/const TDZ infrastructure ───────────────────────
check 5100 "let binding initialized" '5'
check 5101 "const binding initialized" '42'
check 5102 "TDZ sentinel is detectable" 'true'
check 5103 "tdz-check passes non-sentinel" '42'
# ── Phase 22: Bitwise ops ─────────────────────────────────────────
check 6000 "bitand 5&3" '1'
check 6001 "bitor 5|3" '7'
check 6002 "bitxor 5^3" '6'
check 6003 "lshift 1<<4" '16'
check 6004 "rshift 32>>2" '8'
check 6005 "rshift -8>>1" '-4'
check 6006 "urshift >>>" '1073741823'
check 6007 "bitnot ~0" '-1'
# ── Phase 22: Map ─────────────────────────────────────────────────
check 6010 "map? new map" 'true'
check 6011 "map set→size 1" '1'
check 6012 "map get existing" '1'
check 6013 "map has key yes" 'true'
check 6014 "map has key no" 'false'
check 6015 "map size 2 entries" '2'
check 6016 "map delete→size 0" '0'
check 6017 "map set overwrites" '99'
# ── Phase 22: Set ─────────────────────────────────────────────────
check 6020 "set? new set" 'true'
check 6021 "set has after add" 'true'
check 6022 "set has absent" 'false'
check 6023 "set dedup size" '1'
check 6024 "set size 2" '2'
check 6025 "set delete→size 0" '0'
# ── Phase 22: RegExp ──────────────────────────────────────────────
check 6030 "RegExp? result" 'true'
check 6031 "RegExp global flag" 'true'
check 6032 "RegExp ignoreCase" 'true'
TOTAL=$((PASS + FAIL))
if [ $FAIL -eq 0 ]; then
echo "$PASS/$TOTAL JS-on-SX tests passed"

View File

@@ -798,6 +798,7 @@ class ServerSession:
self._run_and_collect(3, '(load "lib/js/parser.sx")', timeout=60.0)
self._run_and_collect(4, '(load "lib/js/transpile.sx")', timeout=60.0)
self._run_and_collect(5, '(load "lib/js/runtime.sx")', timeout=60.0)
self._run_and_collect(50, '(load "lib/js/regex.sx")', timeout=60.0)
# Preload the stub harness — use precomputed SX cache when available
# (huge win: ~15s js-eval HARNESS_STUB → ~0s load precomputed .sx).
cache_rel = _harness_cache_rel_path()

View File

@@ -935,12 +935,12 @@
(define
js-transpile-var
(fn (kind decls) (cons (js-sym "begin") (js-vardecl-forms decls))))
(fn (kind decls) (cons (js-sym "begin") (js-vardecl-forms kind decls))))
(define
js-vardecl-forms
(fn
(decls)
(kind decls)
(cond
((empty? decls) (list))
(else
@@ -953,7 +953,7 @@
(js-sym "define")
(js-sym (nth d 1))
(js-transpile (nth d 2)))
(js-vardecl-forms (rest decls))))
(js-vardecl-forms kind (rest decls))))
((js-tag? d "js-vardecl-obj")
(let
((names (nth d 1))
@@ -964,7 +964,7 @@
(js-vardecl-obj-forms
names
tmp-sym
(js-vardecl-forms (rest decls))))))
(js-vardecl-forms kind (rest decls))))))
((js-tag? d "js-vardecl-arr")
(let
((names (nth d 1))
@@ -976,7 +976,7 @@
names
tmp-sym
0
(js-vardecl-forms (rest decls))))))
(js-vardecl-forms kind (rest decls))))))
(else (error "js-vardecl-forms: unexpected decl"))))))))
(define

View File

@@ -123,7 +123,7 @@
(fn
(i)
(if
(has? a (str i))
(not (= (get a (str i)) nil))
(begin (set! n i) (count-loop (+ i 1)))
n)))
(count-loop 1))))
@@ -152,7 +152,9 @@
(cond
((= (first f) "pos")
(begin
(set! t (assoc t (str array-idx) (nth f 1)))
(set!
t
(assoc t (str array-idx) (nth f 1)))
(set! array-idx (+ array-idx 1))))
((= (first f) "kv")
(let
@@ -169,3 +171,108 @@
(if (= t nil) nil (let ((v (get t (str k)))) (if (= v nil) nil v)))))
(define lua-set! (fn (t k v) (assoc t (str k) v)))
;; ---------------------------------------------------------------------------
;; Helpers for stdlib
;; ---------------------------------------------------------------------------
;; Apply a char function to every character in a string
(define (lua-str-map s fn) (list->string (map fn (string->list s))))
;; Repeat string s n times
(define
(lua-str-rep s n)
(letrec
((go (fn (acc i) (if (= i 0) acc (go (str acc s) (- i 1))))))
(go "" n)))
;; Force a promise created by delay
(define
(lua-force p)
(if
(and (dict? p) (get p :_promise))
(if (get p :forced) (get p :value) ((get p :thunk)))
p))
;; ---------------------------------------------------------------------------
;; math — Lua math library
;; ---------------------------------------------------------------------------
(define math {:asin asin :floor floor :exp exp :huge 1e+308 :tan tan :sqrt sqrt :log log :abs abs :ceil ceil :sin sin :max (fn (a b) (if (> a b) a b)) :acos acos :min (fn (a b) (if (< a b) a b)) :cos cos :pi 3.14159 :atan atan})
;; ---------------------------------------------------------------------------
;; string — Lua string library
;; ---------------------------------------------------------------------------
(define
(lua-string-find s pat)
(let
((m (regexp-match (make-regexp pat) s)))
(if (= m nil) nil (list (+ (get m :start) 1) (get m :end)))))
(define
(lua-string-match s pat)
(let
((m (regexp-match (make-regexp pat) s)))
(if
(= m nil)
nil
(let
((groups (get m :groups)))
(if (= (len groups) 0) (get m :match) (first groups))))))
(define
(lua-string-gmatch s pat)
(map (fn (m) (get m :match)) (regexp-match-all (make-regexp pat) s)))
(define
(lua-string-gsub s pat repl)
(regexp-replace-all (make-regexp pat) s repl))
(define string {:rep lua-str-rep :sub (fn (s i &rest j-args) (let ((slen (len s)) (j (if (= (len j-args) 0) -1 (first j-args)))) (let ((from (if (< i 0) (let ((r (+ slen i))) (if (< r 0) 0 r)) (- i 1))) (to (if (< j 0) (let ((r (+ slen j 1))) (if (< r 0) 0 r)) (if (> j slen) slen j)))) (if (> from to) "" (substring s from to))))) :len (fn (s) (len s)) :upper (fn (s) (lua-str-map s char-upcase)) :char (fn (&rest codes) (list->string (map (fn (c) (integer->char (truncate c))) codes))) :gmatch lua-string-gmatch :gsub lua-string-gsub :lower (fn (s) (lua-str-map s char-downcase)) :byte (fn (s &rest args) (char->integer (nth (string->list s) (- (if (= (len args) 0) 1 (first args)) 1)))) :match lua-string-match :find lua-string-find :reverse (fn (s) (list->string (reverse (string->list s))))})
;; ---------------------------------------------------------------------------
;; table — Lua table library
;; ---------------------------------------------------------------------------
(define
(lua-table-insert t v)
(assoc t (str (+ (lua-len t) 1)) v))
(define
(lua-table-remove t &rest args)
(let
((n (lua-len t))
(pos (if (= (len args) 0) (lua-len t) (first args))))
(letrec
((slide (fn (t i) (if (< i n) (assoc (slide t (+ i 1)) (str i) (lua-get t (+ i 1))) (assoc t (str n) nil)))))
(slide t pos))))
(define
(lua-table-concat t &rest args)
(let
((sep (if (= (len args) 0) "" (first args)))
(n (lua-len t)))
(letrec
((go (fn (acc i) (if (> i n) acc (go (str acc (if (= i 1) "" sep) (lua-to-string (lua-get t i))) (+ i 1))))))
(go "" 1))))
(define
(lua-table-sort t)
(let
((n (lua-len t)))
(letrec
((collect (fn (i acc) (if (< i 1) acc (collect (- i 1) (cons (lua-get t i) acc)))))
(rebuild
(fn
(t i items)
(if
(= (len items) 0)
t
(rebuild
(assoc t (str i) (first items))
(+ i 1)
(rest items))))))
(rebuild t 1 (sort (collect n (list)))))))
(define table {:sort lua-table-sort :concat lua-table-concat :insert lua-table-insert :remove lua-table-remove})

View File

@@ -633,6 +633,116 @@ check 482 "while i<5 count" '5'
check 483 "repeat until i>=3" '3'
check 484 "for 1..100 sum" '5050'
# ── Phase 3: stdlib — math, string, table ──────────────────────────────────
cat >> "$TMPFILE" << 'EPOCHS2'
;; ── math library ───────────────────────────────────────────────
(epoch 500)
(eval "(lua-eval-ast \"return math.abs(-7)\")")
(epoch 501)
(eval "(lua-eval-ast \"return math.floor(3.9)\")")
(epoch 502)
(eval "(lua-eval-ast \"return math.ceil(3.1)\")")
(epoch 503)
(eval "(lua-eval-ast \"return math.sqrt(9)\")")
(epoch 504)
(eval "(lua-eval-ast \"return math.sin(0)\")")
(epoch 505)
(eval "(lua-eval-ast \"return math.cos(0)\")")
(epoch 506)
(eval "(lua-eval-ast \"return math.max(3, 7)\")")
(epoch 507)
(eval "(lua-eval-ast \"return math.min(3, 7)\")")
(epoch 508)
(eval "(lua-eval-ast \"return math.pi > 3\")")
(epoch 509)
(eval "(lua-eval-ast \"return math.huge > 0\")")
;; ── string library ─────────────────────────────────────────────
(epoch 520)
(eval "(lua-eval-ast \"return string.len(\\\"hello\\\")\")")
(epoch 521)
(eval "(lua-eval-ast \"return string.upper(\\\"hello\\\")\")")
(epoch 522)
(eval "(lua-eval-ast \"return string.lower(\\\"WORLD\\\")\")")
(epoch 523)
(eval "(lua-eval-ast \"return string.sub(\\\"hello\\\", 2, 4)\")")
(epoch 524)
(eval "(lua-eval-ast \"return string.rep(\\\"ab\\\", 3)\")")
(epoch 525)
(eval "(lua-eval-ast \"return string.reverse(\\\"hello\\\")\")")
(epoch 526)
(eval "(lua-eval-ast \"return string.byte(\\\"A\\\")\")")
(epoch 527)
(eval "(lua-eval-ast \"return string.char(72, 105)\")")
(epoch 528)
(eval "(lua-eval-ast \"return string.find(\\\"hello\\\", \\\"ll\\\")\")")
(epoch 529)
(eval "(lua-eval-ast \"return string.match(\\\"hello\\\", \\\"ell\\\")\")")
(epoch 530)
(eval "(lua-eval-ast \"return string.gsub(\\\"hello\\\", \\\"l\\\", \\\"r\\\")\")")
;; ── table library ──────────────────────────────────────────────
(epoch 540)
(eval "(lua-eval-ast \"local t = {10, 20, 30} t = table.insert(t, 40) return t[4]\")")
(epoch 541)
(eval "(lua-eval-ast \"local t = {10, 20, 30} t = table.remove(t) return t[3]\")")
(epoch 542)
(eval "(lua-eval-ast \"local t = {\\\"a\\\", \\\"b\\\", \\\"c\\\"} return table.concat(t, \\\",\\\")\")")
(epoch 543)
(eval "(lua-eval-ast \"local t = {3, 1, 2} t = table.sort(t) return t[1]\")")
(epoch 544)
(eval "(lua-eval-ast \"local t = {3, 1, 2} t = table.sort(t) return t[3]\")")
;; ── delay / force ──────────────────────────────────────────────
(epoch 550)
(eval "(lua-force (delay (+ 10 5)))")
(epoch 551)
(eval "(lua-force 42)")
EPOCHS2
OUTPUT2=$(timeout 30 "$SX_SERVER" < "$TMPFILE" 2>/dev/null)
OUTPUT="$OUTPUT
$OUTPUT2"
# math
check 500 "math.abs(-7)" '7'
check 501 "math.floor(3.9)" '3'
check 502 "math.ceil(3.1)" '4'
check 503 "math.sqrt(9)" '3'
check 504 "math.sin(0)" '0'
check 505 "math.cos(0)" '1'
check 506 "math.max(3,7)" '7'
check 507 "math.min(3,7)" '3'
check 508 "math.pi > 3" 'true'
check 509 "math.huge > 0" 'true'
# string
check 520 "string.len" '5'
check 521 "string.upper" '"HELLO"'
check 522 "string.lower" '"world"'
check 523 "string.sub(2,4)" '"ell"'
check 524 "string.rep(ab,3)" '"ababab"'
check 525 "string.reverse" '"olleh"'
check 526 "string.byte(A)" '65'
check 527 "string.char(72,105)" '"Hi"'
check 528 "string.find ll" '3'
check 529 "string.match ell" '"ell"'
check 530 "string.gsub l->r" '"herro"'
# table
check 540 "table.insert" '40'
check 541 "table.remove" 'nil'
check 542 "table.concat ," '"a,b,c"'
check 543 "table.sort [1]" '1'
check 544 "table.sort [3]" '3'
# delay/force
check 550 "lua-force delay" '15'
check 551 "lua-force non-promise" '42'
TOTAL=$((PASS + FAIL))
if [ $FAIL -eq 0 ]; then
echo "ok $PASS/$TOTAL Lua-on-SX tests passed"

176
lib/prolog/compiler.sx Normal file
View File

@@ -0,0 +1,176 @@
;; lib/prolog/compiler.sx — clause compiler: parse-AST clauses → SX closures
;;
;; Each compiled clause is a lambda (fn (goal trail db cut-box k) bool)
;; that creates fresh vars, builds the instantiated head/body, and calls
;; pl-unify! + pl-solve! directly — no AST walk at solve time.
;;
;; Usage:
;; (pl-db-load! db (pl-parse src))
;; (pl-compile-db! db)
;; ; pl-solve-user! in runtime.sx automatically prefers compiled clauses
;; (pl-solve-once! db goal trail)
;; Collect unique variable names from a parse-AST clause into a dict.
(define
pl-cmp-vars-into!
(fn
(ast seen)
(cond
((not (list? ast)) nil)
((empty? ast) nil)
((= (first ast) "var")
(let
((name (nth ast 1)))
(when
(and (not (= name "_")) (not (dict-has? seen name)))
(dict-set! seen name true))))
((= (first ast) "compound")
(for-each (fn (a) (pl-cmp-vars-into! a seen)) (nth ast 2)))
((= (first ast) "clause")
(begin
(pl-cmp-vars-into! (nth ast 1) seen)
(pl-cmp-vars-into! (nth ast 2) seen))))))
;; Return list of unique var names in a clause (head + body, excluding _).
(define
pl-cmp-collect-vars
(fn
(clause)
(let ((seen {})) (pl-cmp-vars-into! clause seen) (keys seen))))
;; Create a fresh runtime var for each name in the list; return name->var dict.
(define
pl-cmp-make-var-map
(fn
(var-names)
(let
((m {}))
(for-each
(fn (name) (dict-set! m name (pl-mk-rt-var name)))
var-names)
m)))
;; Instantiate a parse-AST term using a pre-built var-map.
;; ("var" "_") always gets a fresh anonymous var.
(define
pl-cmp-build-term
(fn
(ast var-map)
(cond
((pl-var? ast) ast)
((not (list? ast)) ast)
((empty? ast) ast)
((= (first ast) "var")
(let
((name (nth ast 1)))
(if (= name "_") (pl-mk-rt-var "_") (dict-get var-map name))))
((or (= (first ast) "atom") (= (first ast) "num") (= (first ast) "str"))
ast)
((= (first ast) "compound")
(list
"compound"
(nth ast 1)
(map (fn (a) (pl-cmp-build-term a var-map)) (nth ast 2))))
((= (first ast) "clause")
(list
"clause"
(pl-cmp-build-term (nth ast 1) var-map)
(pl-cmp-build-term (nth ast 2) var-map)))
(true ast))))
;; Compile one parse-AST clause to a lambda.
;; Pre-computes var names at compile time; creates fresh vars per call.
(define
pl-compile-clause
(fn
(clause)
(let
((var-names (pl-cmp-collect-vars clause))
(head-ast (nth clause 1))
(body-ast (nth clause 2)))
(fn
(goal trail db cut-box k)
(let
((var-map (pl-cmp-make-var-map var-names)))
(let
((fresh-head (pl-cmp-build-term head-ast var-map))
(fresh-body (pl-cmp-build-term body-ast var-map)))
(let
((mark (pl-trail-mark trail)))
(if
(pl-unify! goal fresh-head trail)
(let
((r (pl-solve! db fresh-body trail cut-box k)))
(if r true (begin (pl-trail-undo-to! trail mark) false)))
(begin (pl-trail-undo-to! trail mark) false)))))))))
;; Try a list of compiled clause lambdas — same cut semantics as pl-try-clauses!.
(define
pl-try-compiled-clauses!
(fn
(db
goal
trail
compiled-clauses
outer-cut-box
outer-was-cut
inner-cut-box
k)
(cond
((empty? compiled-clauses) false)
(true
(let
((r ((first compiled-clauses) goal trail db inner-cut-box k)))
(cond
(r true)
((dict-get inner-cut-box :cut) false)
((and (not outer-was-cut) (dict-get outer-cut-box :cut)) false)
(true
(pl-try-compiled-clauses!
db
goal
trail
(rest compiled-clauses)
outer-cut-box
outer-was-cut
inner-cut-box
k))))))))
;; Compile all clauses in DB and store in :compiled table.
;; After this call, pl-solve-user! will dispatch via compiled lambdas.
;; Note: clauses assert!-ed after this call are not compiled.
(define
pl-compile-db!
(fn
(db)
(let
((src-table (dict-get db :clauses)) (compiled-table {}))
(for-each
(fn
(key)
(dict-set!
compiled-table
key
(map pl-compile-clause (dict-get src-table key))))
(keys src-table))
(dict-set! db :compiled compiled-table)
db)))
;; Cross-validate: load src into both a plain and a compiled DB,
;; run goal-str through each, return true iff solution counts match.
;; Use this to keep the interpreter as the reference implementation.
(define
pl-compiled-matches-interp?
(fn
(src goal-str)
(let
((db-interp (pl-mk-db)) (db-comp (pl-mk-db)))
(pl-db-load! db-interp (pl-parse src))
(pl-db-load! db-comp (pl-parse src))
(pl-compile-db! db-comp)
(let
((gi (pl-instantiate (pl-parse-goal goal-str) {}))
(gc (pl-instantiate (pl-parse-goal goal-str) {})))
(=
(pl-solve-count! db-interp gi (pl-mk-trail))
(pl-solve-count! db-comp gc (pl-mk-trail)))))))

129
lib/prolog/conformance.sh Executable file
View File

@@ -0,0 +1,129 @@
#!/usr/bin/env bash
# Run every Prolog test suite via sx_server and refresh scoreboard.{json,md}.
# Exit 0 if all green, 1 if any failures.
set -euo pipefail
HERE="$(cd "$(dirname "$0")" && pwd)"
ROOT="$(cd "$HERE/../.." && pwd)"
SX="${SX_SERVER:-/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe}"
if [[ ! -x "$SX" ]]; then
echo "sx_server not found at $SX (set SX_SERVER env to override)" >&2
exit 2
fi
cd "$ROOT"
# name : test-file : runner-fn
SUITES=(
"parse:lib/prolog/tests/parse.sx:pl-parse-tests-run!"
"unify:lib/prolog/tests/unify.sx:pl-unify-tests-run!"
"clausedb:lib/prolog/tests/clausedb.sx:pl-clausedb-tests-run!"
"solve:lib/prolog/tests/solve.sx:pl-solve-tests-run!"
"operators:lib/prolog/tests/operators.sx:pl-operators-tests-run!"
"dynamic:lib/prolog/tests/dynamic.sx:pl-dynamic-tests-run!"
"findall:lib/prolog/tests/findall.sx:pl-findall-tests-run!"
"term_inspect:lib/prolog/tests/term_inspect.sx:pl-term-inspect-tests-run!"
"append:lib/prolog/tests/programs/append.sx:pl-append-tests-run!"
"reverse:lib/prolog/tests/programs/reverse.sx:pl-reverse-tests-run!"
"member:lib/prolog/tests/programs/member.sx:pl-member-tests-run!"
"nqueens:lib/prolog/tests/programs/nqueens.sx:pl-nqueens-tests-run!"
"family:lib/prolog/tests/programs/family.sx:pl-family-tests-run!"
"atoms:lib/prolog/tests/atoms.sx:pl-atom-tests-run!"
"query_api:lib/prolog/tests/query_api.sx:pl-query-api-tests-run!"
"iso_predicates:lib/prolog/tests/iso_predicates.sx:pl-iso-predicates-tests-run!"
"meta_predicates:lib/prolog/tests/meta_predicates.sx:pl-meta-predicates-tests-run!"
"list_predicates:lib/prolog/tests/list_predicates.sx:pl-list-predicates-tests-run!"
"meta_call:lib/prolog/tests/meta_call.sx:pl-meta-call-tests-run!"
"set_predicates:lib/prolog/tests/set_predicates.sx:pl-set-predicates-tests-run!"
"char_predicates:lib/prolog/tests/char_predicates.sx:pl-char-predicates-tests-run!"
"io_predicates:lib/prolog/tests/io_predicates.sx:pl-io-predicates-tests-run!"
"assert_rules:lib/prolog/tests/assert_rules.sx:pl-assert-rules-tests-run!"
"string_agg:lib/prolog/tests/string_agg.sx:pl-string-agg-tests-run!"
"advanced:lib/prolog/tests/advanced.sx:pl-advanced-tests-run!"
"compiler:lib/prolog/tests/compiler.sx:pl-compiler-tests-run!"
"cross_validate:lib/prolog/tests/cross_validate.sx:pl-cross-validate-tests-run!"
"integration:lib/prolog/tests/integration.sx:pl-integration-tests-run!"
"hs_bridge:lib/prolog/tests/hs_bridge.sx:pl-hs-bridge-tests-run!"
)
SCRIPT='(epoch 1)
(load "lib/prolog/tokenizer.sx")
(load "lib/prolog/parser.sx")
(load "lib/prolog/runtime.sx")
(load "lib/prolog/query.sx")
(load "lib/prolog/compiler.sx")
(load "lib/prolog/hs-bridge.sx")'
for entry in "${SUITES[@]}"; do
IFS=: read -r _ file _ <<< "$entry"
SCRIPT+=$'\n(load "'"$file"$'")'
done
for entry in "${SUITES[@]}"; do
IFS=: read -r _ _ fn <<< "$entry"
SCRIPT+=$'\n(eval "('"$fn"$')")'
done
OUTPUT="$(printf '%s\n' "$SCRIPT" | "$SX" 2>&1)"
mapfile -t LINES < <(printf '%s\n' "$OUTPUT" | grep -E '^\{:failed')
if [[ ${#LINES[@]} -ne ${#SUITES[@]} ]]; then
echo "Expected ${#SUITES[@]} suite results, got ${#LINES[@]}" >&2
echo "---- raw output ----" >&2
printf '%s\n' "$OUTPUT" >&2
exit 3
fi
TOTAL_PASS=0
TOTAL_FAIL=0
TOTAL=0
JSON_SUITES=""
MD_ROWS=""
for i in "${!SUITES[@]}"; do
IFS=: read -r name _ _ <<< "${SUITES[$i]}"
line="${LINES[$i]}"
passed=$(grep -oE ':passed [0-9]+' <<< "$line" | grep -oE '[0-9]+')
total=$(grep -oE ':total [0-9]+' <<< "$line" | grep -oE '[0-9]+')
failed=$(grep -oE ':failed [0-9]+' <<< "$line" | grep -oE '[0-9]+')
TOTAL_PASS=$((TOTAL_PASS + passed))
TOTAL_FAIL=$((TOTAL_FAIL + failed))
TOTAL=$((TOTAL + total))
status="ok"
[[ "$failed" -gt 0 ]] && status="FAIL"
[[ -n "$JSON_SUITES" ]] && JSON_SUITES+=","
JSON_SUITES+="\"$name\":{\"passed\":$passed,\"total\":$total,\"failed\":$failed}"
MD_ROWS+="| $name | $passed | $total | $status |"$'\n'
done
WHEN="$(date -Iseconds 2>/dev/null || date)"
cat > "$HERE/scoreboard.json" <<JSON
{
"total_passed": $TOTAL_PASS,
"total_failed": $TOTAL_FAIL,
"total": $TOTAL,
"suites": {$JSON_SUITES},
"generated": "$WHEN"
}
JSON
cat > "$HERE/scoreboard.md" <<MD
# Prolog scoreboard
**$TOTAL_PASS / $TOTAL passing** ($TOTAL_FAIL failure(s)).
Generated $WHEN.
| Suite | Passed | Total | Status |
|-------|--------|-------|--------|
$MD_ROWS
Run \`bash lib/prolog/conformance.sh\` to refresh. Override the binary
with \`SX_SERVER=path/to/sx_server.exe bash …\`.
MD
if [[ "$TOTAL_FAIL" -gt 0 ]]; then
echo "$TOTAL_FAIL failure(s) across $TOTAL tests" >&2
exit 1
fi
echo "All $TOTAL tests pass."

84
lib/prolog/hs-bridge.sx Normal file
View File

@@ -0,0 +1,84 @@
;; lib/prolog/hs-bridge.sx — Prolog ↔ Hyperscript bridge
;;
;; Two complementary integration styles:
;;
;; 1. Hook style — for `prolog(db, "goal(args)")` call syntax in Hyperscript:
;; (pl-install-hs-hook!) ;; call once at startup
;; Requires lib/hyperscript/runtime.sx (provides hs-set-prolog-hook!)
;;
;; 2. Factory style — for named conditions like `when allowed(user, action)`:
;; (define allowed (pl-hs-predicate/2 pl-db "allowed"))
;; No parser/compiler changes needed: Hyperscript compiles
;; `allowed(user, action)` to `(allowed user action)` — a plain SX call.
;;
;; Requires tokenizer.sx, parser.sx, runtime.sx, query.sx loaded first.
;; --- Hook style ---
(define
pl-install-hs-hook!
(fn
()
(hs-set-prolog-hook!
(fn (db goal) (not (= nil (pl-query-one db goal)))))))
;; --- Factory style ---
;; Test whether a ground Prolog goal succeeds against db.
;; Returns true/false (not a solution dict).
(define
pl-hs-query
(fn (db goal-str) (not (nil? (pl-query-one db goal-str)))))
;; Build a Prolog goal string from a predicate name and arg list.
;; SX values: strings/keywords pass through; numbers are stringified via str.
(define
pl-hs-build-goal
(fn
(pred-name args)
(str pred-name "(" (join ", " (map (fn (a) (str a)) args)) ")")))
;; Return a 1-arg SX function that succeeds iff pred(a) holds in db.
(define
pl-hs-predicate/1
(fn
(db pred-name)
(fn (a) (pl-hs-query db (pl-hs-build-goal pred-name (list a))))))
;; Return a 2-arg SX function that succeeds iff pred(a, b) holds in db.
(define
pl-hs-predicate/2
(fn
(db pred-name)
(fn (a b) (pl-hs-query db (pl-hs-build-goal pred-name (list a b))))))
;; Return a 3-arg SX function that succeeds iff pred(a, b, c) holds in db.
(define
pl-hs-predicate/3
(fn
(db pred-name)
(fn (a b c) (pl-hs-query db (pl-hs-build-goal pred-name (list a b c))))))
;; Install every predicate in install-list as a named SX function backed by db.
;; install-list: list of (name arity) pairs.
;; Returns a dict {name → fn} for the caller to destructure.
(define
pl-hs-install
(fn
(db install-list)
(reduce
(fn
(acc entry)
(let
((pred-name (first entry)) (arity (nth entry 1)))
(dict-set!
acc
pred-name
(cond
((= arity 1) (pl-hs-predicate/1 db pred-name))
((= arity 2) (pl-hs-predicate/2 db pred-name))
((= arity 3) (pl-hs-predicate/3 db pred-name))
(true (fn (a b) false))))
acc))
{}
install-list)))

View File

@@ -1,28 +1,20 @@
;; lib/prolog/parser.sx — tokens → Prolog AST
;;
;; Phase 1 grammar (NO operator table yet):
;; Phase 4 grammar (with operator table):
;; Program := Clause* EOF
;; Clause := Term "." | Term ":-" Term "."
;; Term := Atom | Var | Number | String | Compound | List
;; Compound := atom "(" ArgList ")"
;; ArgList := Term ("," Term)*
;; List := "[" "]" | "[" Term ("," Term)* ("|" Term)? "]"
;; Clause := Term[999] "." | Term[999] ":-" Term[1200] "."
;; Term[Pmax] uses precedence climbing on the operator table:
;; primary = Atom | Var | Number | String | Compound | List | "(" Term[1200] ")"
;; while next token is infix op `op` with prec(op) ≤ Pmax:
;; consume op; parse rhs at right-prec(op); fold into compound(op-name,[lhs,rhs])
;;
;; Term AST shapes (all tagged lists for uniform dispatch):
;; ("atom" name) — atom
;; ("var" name) — variable template (parser-time only)
;; ("num" value) — integer or float
;; ("str" value) — string literal
;; ("compound" functor args) — compound term, args is list of term-ASTs
;; ("cut") — the cut atom !
;; Op type → right-prec for op at precedence P:
;; xfx → P-1 strict-both
;; xfy → P right-associative
;; yfx → P-1 left-associative
;;
;; A clause is (list "clause" head body). A fact is head with body = ("atom" "true").
;;
;; The empty list is (atom "[]"). Cons is compound "." with two args:
;; [1, 2, 3] → .(1, .(2, .(3, [])))
;; [H|T] → .(H, T)
;; AST shapes are unchanged — operators just become compound terms.
;; ── Parser state helpers ────────────────────────────────────────────
(define
pp-peek
(fn
@@ -66,7 +58,6 @@
(if (= (get t :value) nil) "" (get t :value))
"'"))))))
;; ── AST constructors ────────────────────────────────────────────────
(define pl-mk-atom (fn (name) (list "atom" name)))
(define pl-mk-var (fn (name) (list "var" name)))
(define pl-mk-num (fn (n) (list "num" n)))
@@ -74,18 +65,14 @@
(define pl-mk-compound (fn (f args) (list "compound" f args)))
(define pl-mk-cut (fn () (list "cut")))
;; Term tag extractors
(define pl-term-tag (fn (t) (if (list? t) (first t) nil)))
(define pl-term-val (fn (t) (nth t 1)))
(define pl-compound-functor (fn (t) (nth t 1)))
(define pl-compound-args (fn (t) (nth t 2)))
;; Empty-list atom and cons helpers
(define pl-nil-term (fn () (pl-mk-atom "[]")))
(define pl-mk-cons (fn (h t) (pl-mk-compound "." (list h t))))
;; Build cons list from a list of terms + optional tail
(define
pl-mk-list-term
(fn
@@ -95,9 +82,61 @@
tail
(pl-mk-cons (first items) (pl-mk-list-term (rest items) tail)))))
;; ── Term parser ─────────────────────────────────────────────────────
;; ── Operator table (Phase 4) ──────────────────────────────────────
;; Each entry: (name precedence type). Type ∈ "xfx" "xfy" "yfx".
(define
pp-parse-term
pl-op-table
(list
(list "," 1000 "xfy")
(list ";" 1100 "xfy")
(list "->" 1050 "xfy")
(list "=" 700 "xfx")
(list "\\=" 700 "xfx")
(list "is" 700 "xfx")
(list "<" 700 "xfx")
(list ">" 700 "xfx")
(list "=<" 700 "xfx")
(list ">=" 700 "xfx")
(list "+" 500 "yfx")
(list "-" 500 "yfx")
(list "*" 400 "yfx")
(list "/" 400 "yfx")
(list ":-" 1200 "xfx")
(list "mod" 400 "yfx")))
(define
pl-op-find
(fn
(name table)
(cond
((empty? table) nil)
((= (first (first table)) name) (rest (first table)))
(true (pl-op-find name (rest table))))))
(define pl-op-lookup (fn (name) (pl-op-find name pl-op-table)))
;; Token → (name prec type) for known infix ops, else nil.
(define
pl-token-op
(fn
(t)
(let
((ty (get t :type)) (vv (get t :value)))
(cond
((and (= ty "punct") (= vv ","))
(let
((info (pl-op-lookup ",")))
(if (nil? info) nil (cons "," info))))
((or (= ty "atom") (= ty "op"))
(let
((info (pl-op-lookup vv)))
(if (nil? info) nil (cons vv info))))
(true nil)))))
;; ── Term parser ─────────────────────────────────────────────────────
;; Primary term: atom, var, num, str, compound (atom + paren), list, cut, parens.
(define
pp-parse-primary
(fn
(st)
(let
@@ -111,6 +150,12 @@
((and (= ty "op") (= vv "!"))
(do (pp-advance! st) (pl-mk-cut)))
((and (= ty "punct") (= vv "[")) (pp-parse-list st))
((and (= ty "punct") (= vv "("))
(do
(pp-advance! st)
(let
((inner (pp-parse-term-prec st 1200)))
(do (pp-expect! st "punct" ")") inner))))
((= ty "atom")
(do
(pp-advance! st)
@@ -133,13 +178,51 @@
(if (= vv nil) "" vv)
"'"))))))))
;; Parse one or more comma-separated terms (arguments).
;; Operator-aware term parser: precedence climbing.
(define
pp-parse-term-prec
(fn
(st max-prec)
(let ((left (pp-parse-primary st))) (pp-parse-op-rhs st left max-prec))))
(define
pp-parse-op-rhs
(fn
(st left max-prec)
(let
((op-info (pl-token-op (pp-peek st))))
(cond
((nil? op-info) left)
(true
(let
((name (first op-info))
(prec (nth op-info 1))
(ty (nth op-info 2)))
(cond
((> prec max-prec) left)
(true
(let
((right-prec (if (= ty "xfy") prec (- prec 1))))
(do
(pp-advance! st)
(let
((right (pp-parse-term-prec st right-prec)))
(pp-parse-op-rhs
st
(pl-mk-compound name (list left right))
max-prec))))))))))))
;; Backwards-compat alias.
(define pp-parse-term (fn (st) (pp-parse-term-prec st 999)))
;; Args inside parens: parse at prec 999 so comma-as-operator (1000)
;; is not consumed; the explicit comma loop handles separation.
(define
pp-parse-arg-list
(fn
(st)
(let
((first-arg (pp-parse-term st)) (args (list)))
((first-arg (pp-parse-term-prec st 999)) (args (list)))
(do
(append! args first-arg)
(define
@@ -150,12 +233,12 @@
(pp-at? st "punct" ",")
(do
(pp-advance! st)
(append! args (pp-parse-term st))
(append! args (pp-parse-term-prec st 999))
(loop)))))
(loop)
args))))
;; Parse a [ ... ] list literal. Consumes the "[".
;; List literal.
(define
pp-parse-list
(fn
@@ -168,7 +251,7 @@
(let
((items (list)))
(do
(append! items (pp-parse-term st))
(append! items (pp-parse-term-prec st 999))
(define
comma-loop
(fn
@@ -177,52 +260,17 @@
(pp-at? st "punct" ",")
(do
(pp-advance! st)
(append! items (pp-parse-term st))
(append! items (pp-parse-term-prec st 999))
(comma-loop)))))
(comma-loop)
(let
((tail (if (pp-at? st "punct" "|") (do (pp-advance! st) (pp-parse-term st)) (pl-nil-term))))
((tail (if (pp-at? st "punct" "|") (do (pp-advance! st) (pp-parse-term-prec st 999)) (pl-nil-term))))
(do (pp-expect! st "punct" "]") (pl-mk-list-term items tail)))))))))
;; ── Body parsing ────────────────────────────────────────────────────
;; A clause body is a comma-separated list of goals. We flatten into a
;; right-associative `,` compound: (A, B, C) → ','(A, ','(B, C))
;; If only one goal, it's that goal directly.
(define
pp-parse-body
(fn
(st)
(let
((first-goal (pp-parse-term st)) (rest-goals (list)))
(do
(define
gloop
(fn
()
(when
(pp-at? st "punct" ",")
(do
(pp-advance! st)
(append! rest-goals (pp-parse-term st))
(gloop)))))
(gloop)
(if
(= (len rest-goals) 0)
first-goal
(pp-build-conj first-goal rest-goals))))))
(define
pp-build-conj
(fn
(first-goal rest-goals)
(if
(= (len rest-goals) 0)
first-goal
(pl-mk-compound
","
(list
first-goal
(pp-build-conj (first rest-goals) (rest rest-goals)))))))
;; A body is a single term parsed at prec 1200 — operator parser folds
;; `,`, `;`, `->` automatically into right-associative compounds.
(define pp-parse-body (fn (st) (pp-parse-term-prec st 1200)))
;; ── Clause parsing ──────────────────────────────────────────────────
(define
@@ -230,12 +278,11 @@
(fn
(st)
(let
((head (pp-parse-term st)))
((head (pp-parse-term-prec st 999)))
(let
((body (if (pp-at? st "op" ":-") (do (pp-advance! st) (pp-parse-body st)) (pl-mk-atom "true"))))
(do (pp-expect! st "punct" ".") (list "clause" head body))))))
;; Parse an entire program — returns list of clauses.
(define
pl-parse-program
(fn
@@ -253,13 +300,9 @@
(ploop)
clauses))))
;; Parse a single query term (no trailing "."). Returns the term.
(define
pl-parse-query
(fn (tokens) (let ((st {:idx 0 :tokens tokens})) (pp-parse-body st))))
;; Convenience: source → clauses
(define pl-parse (fn (src) (pl-parse-program (pl-tokenize src))))
;; Convenience: source → query term
(define pl-parse-goal (fn (src) (pl-parse-query (pl-tokenize src))))

114
lib/prolog/query.sx Normal file
View File

@@ -0,0 +1,114 @@
;; lib/prolog/query.sx — high-level Prolog query API for SX/Hyperscript callers.
;;
;; Requires tokenizer.sx, parser.sx, runtime.sx to be loaded first.
;;
;; Public API:
;; (pl-load source-str) → db
;; (pl-query-all db query-str) → list of solution dicts {var-name → term-string}
;; (pl-query-one db query-str) → first solution dict or nil
;; (pl-query source-str query-str) → list of solution dicts (convenience)
;; Collect variable name strings from a parse-time AST (pre-instantiation).
;; Returns list of unique strings, excluding anonymous "_".
(define
pl-query-extract-vars
(fn
(ast)
(let
((seen {}))
(let
((collect!
(fn
(t)
(cond
((not (list? t)) nil)
((empty? t) nil)
((= (first t) "var")
(if
(not (= (nth t 1) "_"))
(dict-set! seen (nth t 1) true)
nil))
((= (first t) "compound")
(for-each collect! (nth t 2)))
(true nil)))))
(collect! ast)
(keys seen)))))
;; Build a solution dict from a var-env after a successful solve.
;; Maps each variable name string to its formatted term value.
(define
pl-query-solution-dict
(fn
(var-names var-env)
(let
((d {}))
(for-each
(fn (name) (dict-set! d name (pl-format-term (dict-get var-env name))))
var-names)
d)))
;; Parse source-str and load clauses into a fresh DB.
;; Returns the DB for reuse across multiple queries.
(define
pl-load
(fn
(source-str)
(let
((db (pl-mk-db)))
(if
(and (string? source-str) (not (= source-str "")))
(pl-db-load! db (pl-parse source-str))
nil)
db)))
;; Run query-str against db, returning a list of solution dicts.
;; Each dict maps variable name strings to their formatted term values.
;; Returns an empty list if no solutions.
(define
pl-query-all
(fn
(db query-str)
(let
((parsed (pl-parse (str "q_ :- " query-str "."))))
(let
((body-ast (nth (first parsed) 2)))
(let
((var-names (pl-query-extract-vars body-ast))
(var-env {}))
(let
((goal (pl-instantiate body-ast var-env))
(trail (pl-mk-trail))
(solutions (list)))
(let
((mark (pl-trail-mark trail)))
(pl-solve!
db
goal
trail
{:cut false}
(fn
()
(begin
(append!
solutions
(pl-query-solution-dict var-names var-env))
false)))
(pl-trail-undo-to! trail mark)
solutions)))))))
;; Return the first solution dict, or nil if no solutions.
(define
pl-query-one
(fn
(db query-str)
(let
((all (pl-query-all db query-str)))
(if (empty? all) nil (first all)))))
;; Convenience: parse source-str, then run query-str against it.
;; Returns a list of solution dicts. Creates a fresh DB each call.
(define
pl-query
(fn
(source-str query-str)
(pl-query-all (pl-load source-str) query-str)))

File diff suppressed because it is too large Load Diff

View File

@@ -0,0 +1,7 @@
{
"total_passed": 590,
"total_failed": 0,
"total": 590,
"suites": {"parse":{"passed":25,"total":25,"failed":0},"unify":{"passed":47,"total":47,"failed":0},"clausedb":{"passed":14,"total":14,"failed":0},"solve":{"passed":62,"total":62,"failed":0},"operators":{"passed":19,"total":19,"failed":0},"dynamic":{"passed":11,"total":11,"failed":0},"findall":{"passed":11,"total":11,"failed":0},"term_inspect":{"passed":14,"total":14,"failed":0},"append":{"passed":6,"total":6,"failed":0},"reverse":{"passed":6,"total":6,"failed":0},"member":{"passed":7,"total":7,"failed":0},"nqueens":{"passed":6,"total":6,"failed":0},"family":{"passed":10,"total":10,"failed":0},"atoms":{"passed":34,"total":34,"failed":0},"query_api":{"passed":16,"total":16,"failed":0},"iso_predicates":{"passed":29,"total":29,"failed":0},"meta_predicates":{"passed":25,"total":25,"failed":0},"list_predicates":{"passed":33,"total":33,"failed":0},"meta_call":{"passed":15,"total":15,"failed":0},"set_predicates":{"passed":15,"total":15,"failed":0},"char_predicates":{"passed":27,"total":27,"failed":0},"io_predicates":{"passed":24,"total":24,"failed":0},"assert_rules":{"passed":15,"total":15,"failed":0},"string_agg":{"passed":25,"total":25,"failed":0},"advanced":{"passed":21,"total":21,"failed":0},"compiler":{"passed":17,"total":17,"failed":0},"cross_validate":{"passed":17,"total":17,"failed":0},"integration":{"passed":20,"total":20,"failed":0},"hs_bridge":{"passed":19,"total":19,"failed":0}},
"generated": "2026-05-06T08:29:09+00:00"
}

39
lib/prolog/scoreboard.md Normal file
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@@ -0,0 +1,39 @@
# Prolog scoreboard
**590 / 590 passing** (0 failure(s)).
Generated 2026-05-06T08:29:09+00:00.
| Suite | Passed | Total | Status |
|-------|--------|-------|--------|
| parse | 25 | 25 | ok |
| unify | 47 | 47 | ok |
| clausedb | 14 | 14 | ok |
| solve | 62 | 62 | ok |
| operators | 19 | 19 | ok |
| dynamic | 11 | 11 | ok |
| findall | 11 | 11 | ok |
| term_inspect | 14 | 14 | ok |
| append | 6 | 6 | ok |
| reverse | 6 | 6 | ok |
| member | 7 | 7 | ok |
| nqueens | 6 | 6 | ok |
| family | 10 | 10 | ok |
| atoms | 34 | 34 | ok |
| query_api | 16 | 16 | ok |
| iso_predicates | 29 | 29 | ok |
| meta_predicates | 25 | 25 | ok |
| list_predicates | 33 | 33 | ok |
| meta_call | 15 | 15 | ok |
| set_predicates | 15 | 15 | ok |
| char_predicates | 27 | 27 | ok |
| io_predicates | 24 | 24 | ok |
| assert_rules | 15 | 15 | ok |
| string_agg | 25 | 25 | ok |
| advanced | 21 | 21 | ok |
| compiler | 17 | 17 | ok |
| cross_validate | 17 | 17 | ok |
| integration | 20 | 20 | ok |
| hs_bridge | 19 | 19 | ok |
Run `bash lib/prolog/conformance.sh` to refresh. Override the binary
with `SX_SERVER=path/to/sx_server.exe bash …`.

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@@ -0,0 +1,254 @@
;; lib/prolog/tests/advanced.sx — predsort/3, term_variables/2, arith extensions
(define pl-adv-test-count 0)
(define pl-adv-test-pass 0)
(define pl-adv-test-fail 0)
(define pl-adv-test-failures (list))
(define
pl-adv-test!
(fn
(name got expected)
(begin
(set! pl-adv-test-count (+ pl-adv-test-count 1))
(if
(= got expected)
(set! pl-adv-test-pass (+ pl-adv-test-pass 1))
(begin
(set! pl-adv-test-fail (+ pl-adv-test-fail 1))
(append!
pl-adv-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-adv-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-adv-db (pl-mk-db))
;; Load a numeric comparator for predsort tests
(pl-db-load!
pl-adv-db
(pl-parse
"cmp_num(Order, X, Y) :- (X < Y -> Order = '<' ; (X > Y -> Order = '>' ; Order = '='))."))
;; ── Arithmetic extensions ──────────────────────────────────────────
(define pl-adv-arith-env-1 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is floor(3.7)" pl-adv-arith-env-1)
(pl-mk-trail))
(pl-adv-test!
"floor(3.7) = 3"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-1 "X")))
3)
(define pl-adv-arith-env-2 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is ceiling(3.2)" pl-adv-arith-env-2)
(pl-mk-trail))
(pl-adv-test!
"ceiling(3.2) = 4"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-2 "X")))
4)
(define pl-adv-arith-env-3 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is truncate(3.9)" pl-adv-arith-env-3)
(pl-mk-trail))
(pl-adv-test!
"truncate(3.9) = 3"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-3 "X")))
3)
(define pl-adv-arith-env-4 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is truncate(0 - 3.9)" pl-adv-arith-env-4)
(pl-mk-trail))
(pl-adv-test!
"truncate(0-3.9) = -3"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-4 "X")))
-3)
(define pl-adv-arith-env-5 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is round(3.5)" pl-adv-arith-env-5)
(pl-mk-trail))
(pl-adv-test!
"round(3.5) = 4"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-5 "X")))
4)
(define pl-adv-arith-env-6 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is sqrt(4.0)" pl-adv-arith-env-6)
(pl-mk-trail))
(pl-adv-test!
"sqrt(4.0) = 2"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-6 "X")))
2)
(define pl-adv-arith-env-7 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is sign(0 - 5)" pl-adv-arith-env-7)
(pl-mk-trail))
(pl-adv-test!
"sign(0-5) = -1"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-7 "X")))
-1)
(define pl-adv-arith-env-8 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is sign(0)" pl-adv-arith-env-8)
(pl-mk-trail))
(pl-adv-test!
"sign(0) = 0"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-8 "X")))
0)
(define pl-adv-arith-env-9 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is sign(3)" pl-adv-arith-env-9)
(pl-mk-trail))
(pl-adv-test!
"sign(3) = 1"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-9 "X")))
1)
(define pl-adv-arith-env-10 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is pow(2, 3)" pl-adv-arith-env-10)
(pl-mk-trail))
(pl-adv-test!
"pow(2,3) = 8"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-10 "X")))
8)
(define pl-adv-arith-env-11 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is floor(0 - 3.7)" pl-adv-arith-env-11)
(pl-mk-trail))
(pl-adv-test!
"floor(0-3.7) = -4"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-11 "X")))
-4)
(define pl-adv-arith-env-12 {:X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "X is ceiling(0 - 3.2)" pl-adv-arith-env-12)
(pl-mk-trail))
(pl-adv-test!
"ceiling(0-3.2) = -3"
(pl-num-val (pl-walk-deep (dict-get pl-adv-arith-env-12 "X")))
-3)
;; ── term_variables/2 ──────────────────────────────────────────────
(define pl-adv-tv-env-1 {:Vs (pl-mk-rt-var "Vs")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "term_variables(hello, Vs)" pl-adv-tv-env-1)
(pl-mk-trail))
(pl-adv-test!
"term_variables(hello,Vs) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-adv-tv-env-1 "Vs")))
"[]")
(define pl-adv-tv-env-2 {:Vs (pl-mk-rt-var "Vs")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "term_variables(f(a, g(b)), Vs)" pl-adv-tv-env-2)
(pl-mk-trail))
(pl-adv-test!
"term_variables(f(a,g(b)),Vs) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-adv-tv-env-2 "Vs")))
"[]")
(define pl-adv-tv-env-3 {:Y (pl-mk-rt-var "Y") :Vs (pl-mk-rt-var "Vs") :X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "term_variables(f(X, Y), Vs)" pl-adv-tv-env-3)
(pl-mk-trail))
(pl-adv-test!
"term_variables(f(X,Y),Vs) has 2 vars"
(pl-list-length (pl-walk-deep (dict-get pl-adv-tv-env-3 "Vs")))
2)
(define pl-adv-tv-env-4 {:Vs (pl-mk-rt-var "Vs") :X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "term_variables(X, Vs)" pl-adv-tv-env-4)
(pl-mk-trail))
(pl-adv-test!
"term_variables(X,Vs) has 1 var"
(pl-list-length (pl-walk-deep (dict-get pl-adv-tv-env-4 "Vs")))
1)
(define pl-adv-tv-env-5 {:Y (pl-mk-rt-var "Y") :Vs (pl-mk-rt-var "Vs") :X (pl-mk-rt-var "X")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "term_variables(foo(X, Y, X), Vs)" pl-adv-tv-env-5)
(pl-mk-trail))
(pl-adv-test!
"term_variables(foo(X,Y,X),Vs) deduplicates X -> 2 vars"
(pl-list-length (pl-walk-deep (dict-get pl-adv-tv-env-5 "Vs")))
2)
;; ── predsort/3 ────────────────────────────────────────────────────
(define pl-adv-ps-env-1 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "predsort(cmp_num, [], R)" pl-adv-ps-env-1)
(pl-mk-trail))
(pl-adv-test!
"predsort([]) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-adv-ps-env-1 "R")))
"[]")
(define pl-adv-ps-env-2 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "predsort(cmp_num, [1], R)" pl-adv-ps-env-2)
(pl-mk-trail))
(pl-adv-test!
"predsort([1]) -> [1]"
(pl-format-term (pl-walk-deep (dict-get pl-adv-ps-env-2 "R")))
".(1, [])")
(define pl-adv-ps-env-3 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "predsort(cmp_num, [3,1,2], R)" pl-adv-ps-env-3)
(pl-mk-trail))
(pl-adv-test!
"predsort([3,1,2]) -> [1,2,3]"
(pl-format-term (pl-walk-deep (dict-get pl-adv-ps-env-3 "R")))
".(1, .(2, .(3, [])))")
(define pl-adv-ps-env-4 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-adv-db
(pl-adv-goal "predsort(cmp_num, [3,1,2,1,3], R)" pl-adv-ps-env-4)
(pl-mk-trail))
(pl-adv-test!
"predsort([3,1,2,1,3]) dedup -> [1,2,3]"
(pl-format-term (pl-walk-deep (dict-get pl-adv-ps-env-4 "R")))
".(1, .(2, .(3, [])))")
;; ── Runner ─────────────────────────────────────────────────────────
(define pl-advanced-tests-run! (fn () {:failed pl-adv-test-fail :passed pl-adv-test-pass :total pl-adv-test-count :failures pl-adv-test-failures}))

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@@ -0,0 +1,215 @@
;; lib/prolog/tests/assert_rules.sx — assert/assertz/asserta with rule terms (head :- body)
;; Tests that :- is in the op table (prec 1200 xfx) and pl-build-clause handles rule form.
(define pl-ar-test-count 0)
(define pl-ar-test-pass 0)
(define pl-ar-test-fail 0)
(define pl-ar-test-failures (list))
(define
pl-ar-test!
(fn
(name got expected)
(begin
(set! pl-ar-test-count (+ pl-ar-test-count 1))
(if
(= got expected)
(set! pl-ar-test-pass (+ pl-ar-test-pass 1))
(begin
(set! pl-ar-test-fail (+ pl-ar-test-fail 1))
(append!
pl-ar-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-ar-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
;; ── DB1: assertz a simple rule then query ──────────────────────────
(define pl-ar-db1 (pl-mk-db))
(pl-solve-once!
pl-ar-db1
(pl-ar-goal "assertz((double(X, Y) :- Y is X * 2))" {})
(pl-mk-trail))
(pl-ar-test!
"assertz rule: double(3, Y) succeeds"
(pl-solve-once!
pl-ar-db1
(pl-ar-goal "double(3, Y)" {})
(pl-mk-trail))
true)
(define pl-ar-env1 {})
(pl-solve-once!
pl-ar-db1
(pl-ar-goal "double(3, Y)" pl-ar-env1)
(pl-mk-trail))
(pl-ar-test!
"assertz rule: double(3, Y) binds Y to 6"
(pl-num-val (pl-walk-deep (dict-get pl-ar-env1 "Y")))
6)
(define pl-ar-env1b {})
(pl-solve-once!
pl-ar-db1
(pl-ar-goal "double(10, Y)" pl-ar-env1b)
(pl-mk-trail))
(pl-ar-test!
"assertz rule: double(10, Y) yields 20"
(pl-num-val (pl-walk-deep (dict-get pl-ar-env1b "Y")))
20)
;; ── DB2: assert a rule with multiple facts, count solutions ─────────
(define pl-ar-db2 (pl-mk-db))
(pl-solve-once!
pl-ar-db2
(pl-ar-goal "assert(fact(a))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db2
(pl-ar-goal "assert(fact(b))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db2
(pl-ar-goal "assertz((copy(X) :- fact(X)))" {})
(pl-mk-trail))
(pl-ar-test!
"rule copy/1 using fact/1: 2 solutions"
(pl-solve-count! pl-ar-db2 (pl-ar-goal "copy(X)" {}) (pl-mk-trail))
2)
(define pl-ar-env2a {})
(pl-solve-once! pl-ar-db2 (pl-ar-goal "copy(X)" pl-ar-env2a) (pl-mk-trail))
(pl-ar-test!
"rule copy/1: first solution is a"
(pl-atom-name (pl-walk-deep (dict-get pl-ar-env2a "X")))
"a")
;; ── DB3: asserta rule is tried before existing clauses ─────────────
(define pl-ar-db3 (pl-mk-db))
(pl-solve-once!
pl-ar-db3
(pl-ar-goal "assert(ord(a))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db3
(pl-ar-goal "asserta((ord(b) :- true))" {})
(pl-mk-trail))
(define pl-ar-env3 {})
(pl-solve-once! pl-ar-db3 (pl-ar-goal "ord(X)" pl-ar-env3) (pl-mk-trail))
(pl-ar-test!
"asserta rule ord(b) is tried before ord(a)"
(pl-atom-name (pl-walk-deep (dict-get pl-ar-env3 "X")))
"b")
(pl-ar-test!
"asserta: total solutions for ord/1 is 2"
(pl-solve-count! pl-ar-db3 (pl-ar-goal "ord(X)" {}) (pl-mk-trail))
2)
;; ── DB4: rule with conjunction in body ─────────────────────────────
(define pl-ar-db4 (pl-mk-db))
(pl-solve-once!
pl-ar-db4
(pl-ar-goal "assert(num(1))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db4
(pl-ar-goal "assert(num(2))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db4
(pl-ar-goal "assertz((big(X) :- num(X), X > 1))" {})
(pl-mk-trail))
(pl-ar-test!
"conjunction in rule body: big(1) fails"
(pl-solve-once! pl-ar-db4 (pl-ar-goal "big(1)" {}) (pl-mk-trail))
false)
(pl-ar-test!
"conjunction in rule body: big(2) succeeds"
(pl-solve-once! pl-ar-db4 (pl-ar-goal "big(2)" {}) (pl-mk-trail))
true)
;; ── DB5: recursive rule ─────────────────────────────────────────────
(define pl-ar-db5 (pl-mk-db))
(pl-solve-once!
pl-ar-db5
(pl-ar-goal "assert((nat(0) :- true))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db5
(pl-ar-goal "assertz((nat(s(X)) :- nat(X)))" {})
(pl-mk-trail))
(pl-ar-test!
"recursive rule: nat(0) succeeds"
(pl-solve-once! pl-ar-db5 (pl-ar-goal "nat(0)" {}) (pl-mk-trail))
true)
(pl-ar-test!
"recursive rule: nat(s(0)) succeeds"
(pl-solve-once!
pl-ar-db5
(pl-ar-goal "nat(s(0))" {})
(pl-mk-trail))
true)
(pl-ar-test!
"recursive rule: nat(s(s(0))) succeeds"
(pl-solve-once!
pl-ar-db5
(pl-ar-goal "nat(s(s(0)))" {})
(pl-mk-trail))
true)
(pl-ar-test!
"recursive rule: nat(bad) fails"
(pl-solve-once! pl-ar-db5 (pl-ar-goal "nat(bad)" {}) (pl-mk-trail))
false)
;; ── DB6: rule with true body (explicit) ────────────────────────────
(define pl-ar-db6 (pl-mk-db))
(pl-solve-once!
pl-ar-db6
(pl-ar-goal "assertz((always(X) :- true))" {})
(pl-mk-trail))
(pl-solve-once!
pl-ar-db6
(pl-ar-goal "assert(always(extra))" {})
(pl-mk-trail))
(pl-ar-test!
"rule body=true: always(foo) succeeds"
(pl-solve-once!
pl-ar-db6
(pl-ar-goal "always(foo)" {})
(pl-mk-trail))
true)
(pl-ar-test!
"rule body=true: always/1 has 2 clauses (1 rule + 1 fact)"
(pl-solve-count!
pl-ar-db6
(pl-ar-goal "always(X)" {})
(pl-mk-trail))
2)
;; ── Runner ──────────────────────────────────────────────────────────
(define pl-assert-rules-tests-run! (fn () {:failed pl-ar-test-fail :passed pl-ar-test-pass :total pl-ar-test-count :failures pl-ar-test-failures}))

305
lib/prolog/tests/atoms.sx Normal file
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;; lib/prolog/tests/atoms.sx — type predicates + string/atom built-ins
(define pl-at-test-count 0)
(define pl-at-test-pass 0)
(define pl-at-test-fail 0)
(define pl-at-test-failures (list))
(define
pl-at-test!
(fn
(name got expected)
(begin
(set! pl-at-test-count (+ pl-at-test-count 1))
(if
(= got expected)
(set! pl-at-test-pass (+ pl-at-test-pass 1))
(begin
(set! pl-at-test-fail (+ pl-at-test-fail 1))
(append!
pl-at-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-at-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-at-db (pl-mk-db))
;; ── var/1 + nonvar/1 ──
(pl-at-test!
"var(X) for unbound var"
(pl-solve-once! pl-at-db (pl-at-goal "var(X)" {}) (pl-mk-trail))
true)
(pl-at-test!
"var(foo) fails"
(pl-solve-once! pl-at-db (pl-at-goal "var(foo)" {}) (pl-mk-trail))
false)
(pl-at-test!
"nonvar(foo) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "nonvar(foo)" {})
(pl-mk-trail))
true)
(pl-at-test!
"nonvar(X) for unbound var fails"
(pl-solve-once! pl-at-db (pl-at-goal "nonvar(X)" {}) (pl-mk-trail))
false)
;; ── atom/1 ──
(pl-at-test!
"atom(foo) succeeds"
(pl-solve-once! pl-at-db (pl-at-goal "atom(foo)" {}) (pl-mk-trail))
true)
(pl-at-test!
"atom([]) succeeds"
(pl-solve-once! pl-at-db (pl-at-goal "atom([])" {}) (pl-mk-trail))
true)
(pl-at-test!
"atom(42) fails"
(pl-solve-once! pl-at-db (pl-at-goal "atom(42)" {}) (pl-mk-trail))
false)
(pl-at-test!
"atom(f(x)) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "atom(f(x))" {})
(pl-mk-trail))
false)
;; ── number/1 + integer/1 ──
(pl-at-test!
"number(42) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "number(42)" {})
(pl-mk-trail))
true)
(pl-at-test!
"number(foo) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "number(foo)" {})
(pl-mk-trail))
false)
(pl-at-test!
"integer(7) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "integer(7)" {})
(pl-mk-trail))
true)
;; ── compound/1 + callable/1 + atomic/1 ──
(pl-at-test!
"compound(f(x)) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "compound(f(x))" {})
(pl-mk-trail))
true)
(pl-at-test!
"compound(foo) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "compound(foo)" {})
(pl-mk-trail))
false)
(pl-at-test!
"callable(foo) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "callable(foo)" {})
(pl-mk-trail))
true)
(pl-at-test!
"callable(f(x)) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "callable(f(x))" {})
(pl-mk-trail))
true)
(pl-at-test!
"callable(42) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "callable(42)" {})
(pl-mk-trail))
false)
(pl-at-test!
"atomic(foo) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "atomic(foo)" {})
(pl-mk-trail))
true)
(pl-at-test!
"atomic(42) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "atomic(42)" {})
(pl-mk-trail))
true)
(pl-at-test!
"atomic(f(x)) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "atomic(f(x))" {})
(pl-mk-trail))
false)
;; ── is_list/1 ──
(pl-at-test!
"is_list([]) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "is_list([])" {})
(pl-mk-trail))
true)
(pl-at-test!
"is_list([1,2,3]) succeeds"
(pl-solve-once!
pl-at-db
(pl-at-goal "is_list([1,2,3])" {})
(pl-mk-trail))
true)
(pl-at-test!
"is_list(foo) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "is_list(foo)" {})
(pl-mk-trail))
false)
;; ── atom_length/2 ──
(define pl-at-env-al {})
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_length(hello, N)" pl-at-env-al)
(pl-mk-trail))
(pl-at-test!
"atom_length(hello, N) -> N=5"
(pl-num-val (pl-walk-deep (dict-get pl-at-env-al "N")))
5)
(pl-at-test!
"atom_length empty atom"
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_length('', 0)" {})
(pl-mk-trail))
true)
;; ── atom_concat/3 ──
(define pl-at-env-ac {})
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_concat(foo, bar, X)" pl-at-env-ac)
(pl-mk-trail))
(pl-at-test!
"atom_concat(foo, bar, X) -> X=foobar"
(pl-atom-name (pl-walk-deep (dict-get pl-at-env-ac "X")))
"foobar")
(pl-at-test!
"atom_concat(foo, bar, foobar) check"
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_concat(foo, bar, foobar)" {})
(pl-mk-trail))
true)
(pl-at-test!
"atom_concat(foo, bar, foobaz) fails"
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_concat(foo, bar, foobaz)" {})
(pl-mk-trail))
false)
(define pl-at-env-ac2 {})
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_concat(foo, Y, foobar)" pl-at-env-ac2)
(pl-mk-trail))
(pl-at-test!
"atom_concat(foo, Y, foobar) -> Y=bar"
(pl-atom-name (pl-walk-deep (dict-get pl-at-env-ac2 "Y")))
"bar")
;; ── atom_chars/2 ──
(define pl-at-env-ach {})
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_chars(cat, Cs)" pl-at-env-ach)
(pl-mk-trail))
(pl-at-test!
"atom_chars(cat, Cs) -> Cs=[c,a,t]"
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_chars(cat, [c,a,t])" {})
(pl-mk-trail))
true)
(define pl-at-env-ach2 {})
(pl-solve-once!
pl-at-db
(pl-at-goal "atom_chars(A, [h,i])" pl-at-env-ach2)
(pl-mk-trail))
(pl-at-test!
"atom_chars(A, [h,i]) -> A=hi"
(pl-atom-name (pl-walk-deep (dict-get pl-at-env-ach2 "A")))
"hi")
;; ── char_code/2 ──
(define pl-at-env-cc {})
(pl-solve-once!
pl-at-db
(pl-at-goal "char_code(a, N)" pl-at-env-cc)
(pl-mk-trail))
(pl-at-test!
"char_code(a, N) -> N=97"
(pl-num-val (pl-walk-deep (dict-get pl-at-env-cc "N")))
97)
(define pl-at-env-cc2 {})
(pl-solve-once!
pl-at-db
(pl-at-goal "char_code(C, 65)" pl-at-env-cc2)
(pl-mk-trail))
(pl-at-test!
"char_code(C, 65) -> C='A'"
(pl-atom-name (pl-walk-deep (dict-get pl-at-env-cc2 "C")))
"A")
;; ── number_codes/2 ──
(pl-at-test!
"number_codes(42, [52,50])"
(pl-solve-once!
pl-at-db
(pl-at-goal "number_codes(42, [52,50])" {})
(pl-mk-trail))
true)
;; ── number_chars/2 ──
(pl-at-test!
"number_chars(42, ['4','2'])"
(pl-solve-once!
pl-at-db
(pl-at-goal "number_chars(42, ['4','2'])" {})
(pl-mk-trail))
true)
(define pl-atom-tests-run! (fn () {:failed pl-at-test-fail :passed pl-at-test-pass :total pl-at-test-count :failures pl-at-test-failures}))

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;; lib/prolog/tests/char_predicates.sx — char_type/2, upcase_atom/2, downcase_atom/2,
;; string_upper/2, string_lower/2
(define pl-cp-test-count 0)
(define pl-cp-test-pass 0)
(define pl-cp-test-fail 0)
(define pl-cp-test-failures (list))
(define
pl-cp-test!
(fn
(name got expected)
(begin
(set! pl-cp-test-count (+ pl-cp-test-count 1))
(if
(= got expected)
(set! pl-cp-test-pass (+ pl-cp-test-pass 1))
(begin
(set! pl-cp-test-fail (+ pl-cp-test-fail 1))
(append!
pl-cp-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-cp-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-cp-db (pl-mk-db))
;; ─── char_type/2 — alpha ──────────────────────────────────────────
(pl-cp-test!
"char_type(a, alpha) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, alpha)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"char_type('1', alpha) fails"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('1', alpha)" {})
(pl-mk-trail))
false)
(pl-cp-test!
"char_type('A', alpha) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('A', alpha)" {})
(pl-mk-trail))
true)
;; ─── char_type/2 — alnum ─────────────────────────────────────────
(pl-cp-test!
"char_type('5', alnum) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('5', alnum)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"char_type(a, alnum) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, alnum)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"char_type(' ', alnum) fails"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(' ', alnum)" {})
(pl-mk-trail))
false)
;; ─── char_type/2 — digit ─────────────────────────────────────────
(pl-cp-test!
"char_type('5', digit) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('5', digit)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"char_type(a, digit) fails"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, digit)" {})
(pl-mk-trail))
false)
;; ─── char_type/2 — digit(Weight) ─────────────────────────────────
(define pl-cp-env-dw {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('5', digit(N))" pl-cp-env-dw)
(pl-mk-trail))
(pl-cp-test!
"char_type('5', digit(N)) -> N=5"
(pl-num-val (pl-walk-deep (dict-get pl-cp-env-dw "N")))
5)
(define pl-cp-env-dw0 {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('0', digit(N))" pl-cp-env-dw0)
(pl-mk-trail))
(pl-cp-test!
"char_type('0', digit(N)) -> N=0"
(pl-num-val (pl-walk-deep (dict-get pl-cp-env-dw0 "N")))
0)
;; ─── char_type/2 — space/white ───────────────────────────────────
(pl-cp-test!
"char_type(' ', space) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(' ', space)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"char_type(a, space) fails"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, space)" {})
(pl-mk-trail))
false)
;; ─── char_type/2 — upper(Lower) ──────────────────────────────────
(define pl-cp-env-ul {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('A', upper(L))" pl-cp-env-ul)
(pl-mk-trail))
(pl-cp-test!
"char_type('A', upper(L)) -> L=a"
(pl-atom-name (pl-walk-deep (dict-get pl-cp-env-ul "L")))
"a")
(pl-cp-test!
"char_type(a, upper(L)) fails — not uppercase"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, upper(_))" {})
(pl-mk-trail))
false)
;; ─── char_type/2 — lower(Upper) ──────────────────────────────────
(define pl-cp-env-lu {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, lower(U))" pl-cp-env-lu)
(pl-mk-trail))
(pl-cp-test!
"char_type(a, lower(U)) -> U='A'"
(pl-atom-name (pl-walk-deep (dict-get pl-cp-env-lu "U")))
"A")
;; ─── char_type/2 — ascii(Code) ───────────────────────────────────
(define pl-cp-env-as {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, ascii(C))" pl-cp-env-as)
(pl-mk-trail))
(pl-cp-test!
"char_type(a, ascii(C)) -> C=97"
(pl-num-val (pl-walk-deep (dict-get pl-cp-env-as "C")))
97)
;; ─── char_type/2 — punct ─────────────────────────────────────────
(pl-cp-test!
"char_type('.', punct) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type('.', punct)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"char_type(a, punct) fails"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "char_type(a, punct)" {})
(pl-mk-trail))
false)
;; ─── upcase_atom/2 ───────────────────────────────────────────────
(define pl-cp-env-ua {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "upcase_atom(hello, X)" pl-cp-env-ua)
(pl-mk-trail))
(pl-cp-test!
"upcase_atom(hello, X) -> X='HELLO'"
(pl-atom-name (pl-walk-deep (dict-get pl-cp-env-ua "X")))
"HELLO")
(pl-cp-test!
"upcase_atom(hello, 'HELLO') succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "upcase_atom(hello, 'HELLO')" {})
(pl-mk-trail))
true)
(pl-cp-test!
"upcase_atom('Hello World', 'HELLO WORLD') succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "upcase_atom('Hello World', 'HELLO WORLD')" {})
(pl-mk-trail))
true)
(pl-cp-test!
"upcase_atom('', '') succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "upcase_atom('', '')" {})
(pl-mk-trail))
true)
;; ─── downcase_atom/2 ─────────────────────────────────────────────
(define pl-cp-env-da {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "downcase_atom('HELLO', X)" pl-cp-env-da)
(pl-mk-trail))
(pl-cp-test!
"downcase_atom('HELLO', X) -> X=hello"
(pl-atom-name (pl-walk-deep (dict-get pl-cp-env-da "X")))
"hello")
(pl-cp-test!
"downcase_atom('HELLO', hello) succeeds"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "downcase_atom('HELLO', hello)" {})
(pl-mk-trail))
true)
(pl-cp-test!
"downcase_atom(hello, hello) succeeds — already lowercase"
(pl-solve-once!
pl-cp-db
(pl-cp-goal "downcase_atom(hello, hello)" {})
(pl-mk-trail))
true)
;; ─── string_upper/2 + string_lower/2 (aliases) ───────────────────
(define pl-cp-env-su {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "string_upper(hello, X)" pl-cp-env-su)
(pl-mk-trail))
(pl-cp-test!
"string_upper(hello, X) -> X='HELLO'"
(pl-atom-name (pl-walk-deep (dict-get pl-cp-env-su "X")))
"HELLO")
(define pl-cp-env-sl {})
(pl-solve-once!
pl-cp-db
(pl-cp-goal "string_lower('WORLD', X)" pl-cp-env-sl)
(pl-mk-trail))
(pl-cp-test!
"string_lower('WORLD', X) -> X=world"
(pl-atom-name (pl-walk-deep (dict-get pl-cp-env-sl "X")))
"world")
(define pl-char-predicates-tests-run! (fn () {:failed pl-cp-test-fail :passed pl-cp-test-pass :total pl-cp-test-count :failures pl-cp-test-failures}))

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;; lib/prolog/tests/clausedb.sx — Clause DB unit tests
(define pl-db-test-count 0)
(define pl-db-test-pass 0)
(define pl-db-test-fail 0)
(define pl-db-test-failures (list))
(define
pl-db-test!
(fn
(name got expected)
(begin
(set! pl-db-test-count (+ pl-db-test-count 1))
(if
(= got expected)
(set! pl-db-test-pass (+ pl-db-test-pass 1))
(begin
(set! pl-db-test-fail (+ pl-db-test-fail 1))
(append!
pl-db-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(pl-db-test!
"head-key atom arity 0"
(pl-head-key (nth (first (pl-parse "foo.")) 1))
"foo/0")
(pl-db-test!
"head-key compound arity 2"
(pl-head-key (nth (first (pl-parse "bar(a, b).")) 1))
"bar/2")
(pl-db-test!
"clause-key of :- clause"
(pl-clause-key (first (pl-parse "likes(mary, X) :- friendly(X).")))
"likes/2")
(pl-db-test!
"empty db lookup returns empty list"
(len (pl-db-lookup (pl-mk-db) "parent/2"))
0)
(define pl-db-t1 (pl-mk-db))
(pl-db-load! pl-db-t1 (pl-parse "foo(a). foo(b). foo(c)."))
(pl-db-test!
"three facts same functor"
(len (pl-db-lookup pl-db-t1 "foo/1"))
3)
(pl-db-test!
"mismatching key returns empty"
(len (pl-db-lookup pl-db-t1 "foo/2"))
0)
(pl-db-test!
"first clause has arg a"
(pl-atom-name
(first (pl-args (nth (first (pl-db-lookup pl-db-t1 "foo/1")) 1))))
"a")
(pl-db-test!
"third clause has arg c"
(pl-atom-name
(first (pl-args (nth (nth (pl-db-lookup pl-db-t1 "foo/1") 2) 1))))
"c")
(define pl-db-t2 (pl-mk-db))
(pl-db-load! pl-db-t2 (pl-parse "foo. bar. foo. parent(a, b). parent(c, d)."))
(pl-db-test!
"atom heads keyed as foo/0"
(len (pl-db-lookup pl-db-t2 "foo/0"))
2)
(pl-db-test!
"atom heads keyed as bar/0"
(len (pl-db-lookup pl-db-t2 "bar/0"))
1)
(pl-db-test!
"compound heads keyed as parent/2"
(len (pl-db-lookup pl-db-t2 "parent/2"))
2)
(pl-db-test!
"lookup-goal extracts functor/arity"
(len
(pl-db-lookup-goal pl-db-t2 (nth (first (pl-parse "parent(X, Y).")) 1)))
2)
(pl-db-test!
"lookup-goal on atom goal"
(len (pl-db-lookup-goal pl-db-t2 (nth (first (pl-parse "foo.")) 1)))
2)
(pl-db-test!
"stored clause is clause form"
(first (first (pl-db-lookup pl-db-t2 "parent/2")))
"clause")
(define pl-clausedb-tests-run! (fn () {:failed pl-db-test-fail :passed pl-db-test-pass :total pl-db-test-count :failures pl-db-test-failures}))

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;; lib/prolog/tests/compiler.sx — compiled clause dispatch tests
(define pl-cmp-test-count 0)
(define pl-cmp-test-pass 0)
(define pl-cmp-test-fail 0)
(define pl-cmp-test-failures (list))
(define
pl-cmp-test!
(fn
(name got expected)
(set! pl-cmp-test-count (+ pl-cmp-test-count 1))
(if
(= got expected)
(set! pl-cmp-test-pass (+ pl-cmp-test-pass 1))
(begin
(set! pl-cmp-test-fail (+ pl-cmp-test-fail 1))
(append! pl-cmp-test-failures name)))))
;; Load src, compile, return DB.
(define
pl-cmp-mk
(fn
(src)
(let
((db (pl-mk-db)))
(pl-db-load! db (pl-parse src))
(pl-compile-db! db)
db)))
;; Run goal string against compiled DB; return bool (instantiates vars).
(define
pl-cmp-once
(fn
(db src)
(pl-solve-once!
db
(pl-instantiate (pl-parse-goal src) {})
(pl-mk-trail))))
;; Count solutions for goal string against compiled DB.
(define
pl-cmp-count
(fn
(db src)
(pl-solve-count!
db
(pl-instantiate (pl-parse-goal src) {})
(pl-mk-trail))))
;; ── 1. Simple facts ──────────────────────────────────────────────
(define pl-cmp-db1 (pl-cmp-mk "color(red). color(green). color(blue)."))
(pl-cmp-test! "compiled fact hit" (pl-cmp-once pl-cmp-db1 "color(red)") true)
(pl-cmp-test!
"compiled fact miss"
(pl-cmp-once pl-cmp-db1 "color(yellow)")
false)
(pl-cmp-test! "compiled fact count" (pl-cmp-count pl-cmp-db1 "color(X)") 3)
;; ── 2. Recursive rule: append ────────────────────────────────────
(define
pl-cmp-db2
(pl-cmp-mk "append([], L, L). append([H|T], L, [H|R]) :- append(T, L, R)."))
(pl-cmp-test!
"compiled append build"
(pl-cmp-once pl-cmp-db2 "append([1,2],[3],[1,2,3])")
true)
(pl-cmp-test!
"compiled append fail"
(pl-cmp-once pl-cmp-db2 "append([1,2],[3],[1,2])")
false)
(pl-cmp-test!
"compiled append split count"
(pl-cmp-count pl-cmp-db2 "append(X, Y, [a,b])")
3)
;; ── 3. Cut ───────────────────────────────────────────────────────
(define
pl-cmp-db3
(pl-cmp-mk "first(X, [X|_]) :- !. first(X, [_|T]) :- first(X, T)."))
(pl-cmp-test!
"compiled cut: only one solution"
(pl-cmp-count pl-cmp-db3 "first(X, [a,b,c])")
1)
(let
((db pl-cmp-db3) (trail (pl-mk-trail)) (env {}))
(let
((x (pl-mk-rt-var "X")))
(dict-set! env "X" x)
(pl-solve-once!
db
(pl-instantiate (pl-parse-goal "first(X, [a,b,c])") env)
trail)
(pl-cmp-test!
"compiled cut: correct binding"
(pl-atom-name (pl-walk x))
"a")))
;; ── 4. member ────────────────────────────────────────────────────
(define
pl-cmp-db4
(pl-cmp-mk "member(X, [X|_]). member(X, [_|T]) :- member(X, T)."))
(pl-cmp-test!
"compiled member hit"
(pl-cmp-once pl-cmp-db4 "member(b, [a,b,c])")
true)
(pl-cmp-test!
"compiled member miss"
(pl-cmp-once pl-cmp-db4 "member(d, [a,b,c])")
false)
(pl-cmp-test!
"compiled member count"
(pl-cmp-count pl-cmp-db4 "member(X, [a,b,c])")
3)
;; ── 5. Arithmetic in body ────────────────────────────────────────
(define pl-cmp-db5 (pl-cmp-mk "double(X, Y) :- Y is X * 2."))
(let
((db pl-cmp-db5) (trail (pl-mk-trail)) (env {}))
(let
((y (pl-mk-rt-var "Y")))
(dict-set! env "Y" y)
(pl-solve-once!
db
(pl-instantiate (pl-parse-goal "double(5, Y)") env)
trail)
(pl-cmp-test! "compiled arithmetic in body" (pl-num-val (pl-walk y)) 10)))
;; ── 6. Transitive ancestor ───────────────────────────────────────
(define
pl-cmp-db6
(pl-cmp-mk
(str
"parent(a,b). parent(b,c). parent(c,d)."
"ancestor(X,Y) :- parent(X,Y)."
"ancestor(X,Y) :- parent(X,Z), ancestor(Z,Y).")))
(pl-cmp-test!
"compiled ancestor direct"
(pl-cmp-once pl-cmp-db6 "ancestor(a,b)")
true)
(pl-cmp-test!
"compiled ancestor 3-step"
(pl-cmp-once pl-cmp-db6 "ancestor(a,d)")
true)
(pl-cmp-test!
"compiled ancestor fail"
(pl-cmp-once pl-cmp-db6 "ancestor(d,a)")
false)
;; ── 7. Fallback: uncompiled predicate calls compiled sub-predicate
(define
pl-cmp-db7
(let
((db (pl-mk-db)))
(pl-db-load! db (pl-parse "q(1). q(2)."))
(pl-compile-db! db)
(pl-db-load! db (pl-parse "r(X) :- q(X)."))
db))
(pl-cmp-test!
"uncompiled predicate resolves"
(pl-cmp-once pl-cmp-db7 "r(1)")
true)
(pl-cmp-test!
"uncompiled calls compiled sub-pred count"
(pl-cmp-count pl-cmp-db7 "r(X)")
2)
;; ── Runner ───────────────────────────────────────────────────────
(define pl-compiler-tests-run! (fn () {:failed pl-cmp-test-fail :passed pl-cmp-test-pass :total pl-cmp-test-count :failures pl-cmp-test-failures}))

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;; lib/prolog/tests/cross_validate.sx
;; Verifies that the compiled solver produces the same solution counts as the
;; interpreter for each classic program + built-in exercise.
;; Interpreter is the reference: if they disagree, the compiler is wrong.
(define pl-xv-test-count 0)
(define pl-xv-test-pass 0)
(define pl-xv-test-fail 0)
(define pl-xv-test-failures (list))
(define
pl-xv-test!
(fn
(name got expected)
(set! pl-xv-test-count (+ pl-xv-test-count 1))
(if
(= got expected)
(set! pl-xv-test-pass (+ pl-xv-test-pass 1))
(begin
(set! pl-xv-test-fail (+ pl-xv-test-fail 1))
(append! pl-xv-test-failures name)))))
;; Shorthand: assert compiled result matches interpreter.
(define
pl-xv-match!
(fn
(name src goal)
(pl-xv-test! name (pl-compiled-matches-interp? src goal) true)))
;; ── 1. append/3 ─────────────────────────────────────────────────
(define
pl-xv-append
"append([], L, L). append([H|T], L, [H|R]) :- append(T, L, R).")
(pl-xv-match! "append build 2+2" pl-xv-append "append([1,2],[3,4],X)")
(pl-xv-match! "append split [a,b,c]" pl-xv-append "append(X, Y, [a,b,c])")
(pl-xv-match! "append member-mode" pl-xv-append "append(_, [3], [1,2,3])")
;; ── 2. member/2 ─────────────────────────────────────────────────
(define pl-xv-member "member(X, [X|_]). member(X, [_|T]) :- member(X, T).")
(pl-xv-match! "member check hit" pl-xv-member "member(b, [a,b,c])")
(pl-xv-match! "member count" pl-xv-member "member(X, [a,b,c])")
(pl-xv-match! "member empty" pl-xv-member "member(X, [])")
;; ── 3. facts + transitive rules ─────────────────────────────────
(define
pl-xv-ancestor
(str
"parent(a,b). parent(b,c). parent(c,d). parent(a,c)."
"ancestor(X,Y) :- parent(X,Y)."
"ancestor(X,Y) :- parent(X,Z), ancestor(Z,Y)."))
(pl-xv-match! "ancestor direct" pl-xv-ancestor "ancestor(a,b)")
(pl-xv-match! "ancestor transitive" pl-xv-ancestor "ancestor(a,d)")
(pl-xv-match! "ancestor all from a" pl-xv-ancestor "ancestor(a,Y)")
;; ── 4. cut semantics ────────────────────────────────────────────
(define pl-xv-cut "first(X,[X|_]) :- !. first(X,[_|T]) :- first(X,T).")
(pl-xv-match! "cut one solution" pl-xv-cut "first(X,[a,b,c])")
(pl-xv-match! "cut empty list" pl-xv-cut "first(X,[])")
;; ── 5. arithmetic ───────────────────────────────────────────────
(define pl-xv-arith "sq(X,Y) :- Y is X * X. even(X) :- 0 is X mod 2.")
(pl-xv-match! "sq(3,Y) count" pl-xv-arith "sq(3,Y)")
(pl-xv-match! "sq(3,9) check" pl-xv-arith "sq(3,9)")
(pl-xv-match! "even(4) check" pl-xv-arith "even(4)")
(pl-xv-match! "even(3) check" pl-xv-arith "even(3)")
;; ── 6. if-then-else ─────────────────────────────────────────────
(define pl-xv-ite "classify(X, pos) :- X > 0, !. classify(_, nonpos).")
(pl-xv-match! "classify positive" pl-xv-ite "classify(5, C)")
(pl-xv-match! "classify zero" pl-xv-ite "classify(0, C)")
;; ── Runner ───────────────────────────────────────────────────────
(define pl-cross-validate-tests-run! (fn () {:failed pl-xv-test-fail :passed pl-xv-test-pass :total pl-xv-test-count :failures pl-xv-test-failures}))

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;; lib/prolog/tests/dynamic.sx — assert/asserta/assertz/retract.
(define pl-dy-test-count 0)
(define pl-dy-test-pass 0)
(define pl-dy-test-fail 0)
(define pl-dy-test-failures (list))
(define
pl-dy-test!
(fn
(name got expected)
(begin
(set! pl-dy-test-count (+ pl-dy-test-count 1))
(if
(= got expected)
(set! pl-dy-test-pass (+ pl-dy-test-pass 1))
(begin
(set! pl-dy-test-fail (+ pl-dy-test-fail 1))
(append!
pl-dy-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-dy-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
;; assertz then query
(define pl-dy-db1 (pl-mk-db))
(pl-solve-once!
pl-dy-db1
(pl-dy-goal "assertz(foo(1))" {})
(pl-mk-trail))
(pl-dy-test!
"assertz(foo(1)) + foo(1)"
(pl-solve-once! pl-dy-db1 (pl-dy-goal "foo(1)" {}) (pl-mk-trail))
true)
(pl-dy-test!
"after one assertz, foo/1 has 1 clause"
(pl-solve-count! pl-dy-db1 (pl-dy-goal "foo(X)" {}) (pl-mk-trail))
1)
;; assertz appends — order preserved
(define pl-dy-db2 (pl-mk-db))
(pl-solve-once!
pl-dy-db2
(pl-dy-goal "assertz(p(1))" {})
(pl-mk-trail))
(pl-solve-once!
pl-dy-db2
(pl-dy-goal "assertz(p(2))" {})
(pl-mk-trail))
(pl-dy-test!
"assertz twice — count 2"
(pl-solve-count! pl-dy-db2 (pl-dy-goal "p(X)" {}) (pl-mk-trail))
2)
(define pl-dy-env-a {})
(pl-solve-once! pl-dy-db2 (pl-dy-goal "p(X)" pl-dy-env-a) (pl-mk-trail))
(pl-dy-test!
"assertz: first solution is the first asserted (1)"
(pl-num-val (pl-walk-deep (dict-get pl-dy-env-a "X")))
1)
;; asserta prepends
(define pl-dy-db3 (pl-mk-db))
(pl-solve-once!
pl-dy-db3
(pl-dy-goal "assertz(p(1))" {})
(pl-mk-trail))
(pl-solve-once!
pl-dy-db3
(pl-dy-goal "asserta(p(99))" {})
(pl-mk-trail))
(define pl-dy-env-b {})
(pl-solve-once! pl-dy-db3 (pl-dy-goal "p(X)" pl-dy-env-b) (pl-mk-trail))
(pl-dy-test!
"asserta: prepended clause is first solution"
(pl-num-val (pl-walk-deep (dict-get pl-dy-env-b "X")))
99)
;; assert/1 = assertz/1
(define pl-dy-db4 (pl-mk-db))
(pl-solve-once!
pl-dy-db4
(pl-dy-goal "assert(g(7))" {})
(pl-mk-trail))
(pl-dy-test!
"assert/1 alias"
(pl-solve-once! pl-dy-db4 (pl-dy-goal "g(7)" {}) (pl-mk-trail))
true)
;; retract removes a fact
(define pl-dy-db5 (pl-mk-db))
(pl-solve-once!
pl-dy-db5
(pl-dy-goal "assertz(q(1))" {})
(pl-mk-trail))
(pl-solve-once!
pl-dy-db5
(pl-dy-goal "assertz(q(2))" {})
(pl-mk-trail))
(pl-solve-once!
pl-dy-db5
(pl-dy-goal "assertz(q(3))" {})
(pl-mk-trail))
(pl-dy-test!
"before retract: 3 clauses"
(pl-solve-count! pl-dy-db5 (pl-dy-goal "q(X)" {}) (pl-mk-trail))
3)
(pl-solve-once!
pl-dy-db5
(pl-dy-goal "retract(q(2))" {})
(pl-mk-trail))
(pl-dy-test!
"after retract(q(2)): 2 clauses left"
(pl-solve-count! pl-dy-db5 (pl-dy-goal "q(X)" {}) (pl-mk-trail))
2)
(define pl-dy-env-c {})
(pl-solve-once! pl-dy-db5 (pl-dy-goal "q(X)" pl-dy-env-c) (pl-mk-trail))
(pl-dy-test!
"after retract(q(2)): first remaining is 1"
(pl-num-val (pl-walk-deep (dict-get pl-dy-env-c "X")))
1)
;; retract of non-existent
(pl-dy-test!
"retract(missing(0)) on empty db fails"
(pl-solve-once!
(pl-mk-db)
(pl-dy-goal "retract(missing(0))" {})
(pl-mk-trail))
false)
;; retract with unbound var matches first
(define pl-dy-db6 (pl-mk-db))
(pl-solve-once!
pl-dy-db6
(pl-dy-goal "assertz(r(11))" {})
(pl-mk-trail))
(pl-solve-once!
pl-dy-db6
(pl-dy-goal "assertz(r(22))" {})
(pl-mk-trail))
(define pl-dy-env-d {})
(pl-solve-once!
pl-dy-db6
(pl-dy-goal "retract(r(X))" pl-dy-env-d)
(pl-mk-trail))
(pl-dy-test!
"retract(r(X)) binds X to first match"
(pl-num-val (pl-walk-deep (dict-get pl-dy-env-d "X")))
11)
(define pl-dynamic-tests-run! (fn () {:failed pl-dy-test-fail :passed pl-dy-test-pass :total pl-dy-test-count :failures pl-dy-test-failures}))

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;; lib/prolog/tests/findall.sx — findall/3, bagof/3, setof/3.
(define pl-fb-test-count 0)
(define pl-fb-test-pass 0)
(define pl-fb-test-fail 0)
(define pl-fb-test-failures (list))
(define
pl-fb-test!
(fn
(name got expected)
(begin
(set! pl-fb-test-count (+ pl-fb-test-count 1))
(if
(= got expected)
(set! pl-fb-test-pass (+ pl-fb-test-pass 1))
(begin
(set! pl-fb-test-fail (+ pl-fb-test-fail 1))
(append!
pl-fb-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-fb-term-to-sx
(fn
(t)
(cond
((pl-num? t) (pl-num-val t))
((pl-atom? t) (pl-atom-name t))
(true (list :complex)))))
(define
pl-fb-list-walked
(fn
(w)
(cond
((and (pl-atom? w) (= (pl-atom-name w) "[]")) (list))
((and (pl-compound? w) (= (pl-fun w) ".") (= (len (pl-args w)) 2))
(cons
(pl-fb-term-to-sx (first (pl-args w)))
(pl-fb-list-walked (nth (pl-args w) 1))))
(true (list :not-list)))))
(define pl-fb-list-to-sx (fn (t) (pl-fb-list-walked (pl-walk-deep t))))
(define
pl-fb-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-fb-prog-src "member(X, [X|_]). member(X, [_|T]) :- member(X, T).")
(define pl-fb-db (pl-mk-db))
(pl-db-load! pl-fb-db (pl-parse pl-fb-prog-src))
;; ── findall ──
(define pl-fb-env-1 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal "findall(X, member(X, [a, b, c]), L)" pl-fb-env-1)
(pl-mk-trail))
(pl-fb-test!
"findall member [a, b, c]"
(pl-fb-list-to-sx (dict-get pl-fb-env-1 "L"))
(list "a" "b" "c"))
(define pl-fb-env-2 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal "findall(X, (member(X, [1, 2, 3]), X >= 2), L)" pl-fb-env-2)
(pl-mk-trail))
(pl-fb-test!
"findall with comparison filter"
(pl-fb-list-to-sx (dict-get pl-fb-env-2 "L"))
(list 2 3))
(define pl-fb-env-3 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal "findall(X, fail, L)" pl-fb-env-3)
(pl-mk-trail))
(pl-fb-test!
"findall on fail succeeds with empty list"
(pl-fb-list-to-sx (dict-get pl-fb-env-3 "L"))
(list))
(pl-fb-test!
"findall(X, fail, L) the goal succeeds"
(pl-solve-once!
pl-fb-db
(pl-fb-goal "findall(X, fail, L)" {})
(pl-mk-trail))
true)
(define pl-fb-env-4 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal
"findall(p(X, Y), (member(X, [1, 2]), member(Y, [a, b])), L)"
pl-fb-env-4)
(pl-mk-trail))
(pl-fb-test!
"findall over compound template — count = 4"
(len (pl-fb-list-to-sx (dict-get pl-fb-env-4 "L")))
4)
;; ── bagof ──
(pl-fb-test!
"bagof succeeds when results exist"
(pl-solve-once!
pl-fb-db
(pl-fb-goal "bagof(X, member(X, [1, 2, 3]), L)" {})
(pl-mk-trail))
true)
(pl-fb-test!
"bagof fails on empty"
(pl-solve-once!
pl-fb-db
(pl-fb-goal "bagof(X, fail, L)" {})
(pl-mk-trail))
false)
(define pl-fb-env-5 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal "bagof(X, member(X, [c, a, b]), L)" pl-fb-env-5)
(pl-mk-trail))
(pl-fb-test!
"bagof preserves order"
(pl-fb-list-to-sx (dict-get pl-fb-env-5 "L"))
(list "c" "a" "b"))
;; ── setof ──
(define pl-fb-env-6 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal "setof(X, member(X, [c, a, b, a, c]), L)" pl-fb-env-6)
(pl-mk-trail))
(pl-fb-test!
"setof sorts + dedupes atoms"
(pl-fb-list-to-sx (dict-get pl-fb-env-6 "L"))
(list "a" "b" "c"))
(pl-fb-test!
"setof fails on empty"
(pl-solve-once!
pl-fb-db
(pl-fb-goal "setof(X, fail, L)" {})
(pl-mk-trail))
false)
(define pl-fb-env-7 {})
(pl-solve-once!
pl-fb-db
(pl-fb-goal "setof(X, member(X, [3, 1, 2, 1, 3]), L)" pl-fb-env-7)
(pl-mk-trail))
(pl-fb-test!
"setof sorts + dedupes nums"
(pl-fb-list-to-sx (dict-get pl-fb-env-7 "L"))
(list 1 2 3))
(define pl-findall-tests-run! (fn () {:failed pl-fb-test-fail :passed pl-fb-test-pass :total pl-fb-test-count :failures pl-fb-test-failures}))

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;; lib/prolog/tests/hs_bridge.sx — tests for Prolog↔Hyperscript bridge
;;
;; Verifies pl-hs-query, pl-hs-predicate/N, and pl-hs-install.
;; Also demonstrates the end-to-end DSL pattern:
;; (define allowed (pl-hs-predicate/2 db "allowed"))
;; → (allowed "alice" "edit") is what Hyperscript compiles
;; `when allowed(alice, edit)` to.
(define pl-hsb-test-count 0)
(define pl-hsb-test-pass 0)
(define pl-hsb-test-fail 0)
(define pl-hsb-test-failures (list))
(define
pl-hsb-test!
(fn
(name got expected)
(begin
(set! pl-hsb-test-count (+ pl-hsb-test-count 1))
(if
(= got expected)
(set! pl-hsb-test-pass (+ pl-hsb-test-pass 1))
(begin
(set! pl-hsb-test-fail (+ pl-hsb-test-fail 1))
(append!
pl-hsb-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── shared KB ──
(define
pl-hsb-perm-src
"role(alice, admin). role(bob, editor). role(charlie, viewer). permission(admin, read). permission(admin, write). permission(admin, delete). permission(editor, read). permission(editor, write). permission(viewer, read). allowed(U, A) :- role(U, R), permission(R, A).")
(define pl-hsb-db (pl-load pl-hsb-perm-src))
;; ── pl-hs-query ──
(pl-hsb-test!
"pl-hs-query: ground fact succeeds"
(pl-hs-query pl-hsb-db "role(alice, admin)")
true)
(pl-hsb-test!
"pl-hs-query: absent fact fails"
(pl-hs-query pl-hsb-db "role(alice, viewer)")
false)
(pl-hsb-test!
"pl-hs-query: rule derivation succeeds"
(pl-hs-query pl-hsb-db "allowed(alice, delete)")
true)
(pl-hsb-test!
"pl-hs-query: rule derivation fails"
(pl-hs-query pl-hsb-db "allowed(charlie, delete)")
false)
(pl-hsb-test!
"pl-hs-query: arithmetic goal"
(pl-hs-query pl-hsb-db "X is 3 + 4, X = 7")
true)
;; ── pl-hs-predicate/2 ──
(define pl-hsb-allowed (pl-hs-predicate/2 pl-hsb-db "allowed"))
(pl-hsb-test!
"predicate/2: alice can read"
(pl-hsb-allowed "alice" "read")
true)
(pl-hsb-test!
"predicate/2: alice can delete"
(pl-hsb-allowed "alice" "delete")
true)
(pl-hsb-test!
"predicate/2: charlie cannot write"
(pl-hsb-allowed "charlie" "write")
false)
(pl-hsb-test!
"predicate/2: bob can write"
(pl-hsb-allowed "bob" "write")
true)
(pl-hsb-test!
"predicate/2: unknown user fails"
(pl-hsb-allowed "eve" "read")
false)
;; ── DSL simulation ──
;; Hyperscript compiles `when allowed(user, action) then …`
;; to `(allowed user action)` — a direct SX function call.
;; Here we verify that pattern works end-to-end.
(define pl-hsb-user "alice")
(define pl-hsb-action "write")
(pl-hsb-test!
"DSL simulation: (allowed user action) true path"
(pl-hsb-allowed pl-hsb-user pl-hsb-action)
true)
(define pl-hsb-user2 "charlie")
(pl-hsb-test!
"DSL simulation: (allowed user action) false path"
(pl-hsb-allowed pl-hsb-user2 pl-hsb-action)
false)
;; ── pl-hs-predicate/1 ──
(define pl-hsb-viewer-src "color(red). color(green). color(blue).")
(define pl-hsb-color-db (pl-load pl-hsb-viewer-src))
(define pl-hsb-color? (pl-hs-predicate/1 pl-hsb-color-db "color"))
(pl-hsb-test! "predicate/1: color(red) succeeds" (pl-hsb-color? "red") true)
(pl-hsb-test!
"predicate/1: color(purple) fails"
(pl-hsb-color? "purple")
false)
;; ── pl-hs-predicate/3 ──
(define pl-hsb-3ary-src "between_vals(X, Lo, Hi) :- X >= Lo, X =< Hi.")
(define pl-hsb-3ary-db (pl-load pl-hsb-3ary-src))
(define pl-hsb-in-range? (pl-hs-predicate/3 pl-hsb-3ary-db "between_vals"))
(pl-hsb-test!
"predicate/3: 5 in range [1,10]"
(pl-hsb-in-range? "5" "1" "10")
true)
(pl-hsb-test!
"predicate/3: 15 not in range [1,10]"
(pl-hsb-in-range? "15" "1" "10")
false)
;; ── pl-hs-install ──
(define
pl-hsb-installed
(pl-hs-install
pl-hsb-db
(list (list "allowed" 2) (list "role" 2) (list "permission" 2))))
(pl-hsb-test!
"pl-hs-install: returns dict with allowed key"
(not (nil? (dict-get pl-hsb-installed "allowed")))
true)
(pl-hsb-test!
"pl-hs-install: installed allowed fn works"
((dict-get pl-hsb-installed "allowed") "alice" "delete")
true)
(pl-hsb-test!
"pl-hs-install: installed role fn works"
((dict-get pl-hsb-installed "role") "bob" "editor")
true)
(define pl-hs-bridge-tests-run! (fn () {:failed pl-hsb-test-fail :passed pl-hsb-test-pass :total pl-hsb-test-count :failures pl-hsb-test-failures}))

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;; lib/prolog/tests/integration.sx — end-to-end integration tests via pl-query-* API
;;
;; Tests the full source→parse→load→solve pipeline with real programs.
;; Covers: permission system, graph reachability, quicksort, fibonacci, dynamic KB.
(define pl-int-test-count 0)
(define pl-int-test-pass 0)
(define pl-int-test-fail 0)
(define pl-int-test-failures (list))
(define
pl-int-test!
(fn
(name got expected)
(begin
(set! pl-int-test-count (+ pl-int-test-count 1))
(if
(= got expected)
(set! pl-int-test-pass (+ pl-int-test-pass 1))
(begin
(set! pl-int-test-fail (+ pl-int-test-fail 1))
(append!
pl-int-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── Permission system ──
;; role/2 + permission/2 facts, allowed/2 rule
(define
pl-int-perm-src
"role(alice, admin). role(bob, editor). role(charlie, viewer). permission(admin, read). permission(admin, write). permission(admin, delete). permission(editor, read). permission(editor, write). permission(viewer, read). allowed(U, A) :- role(U, R), permission(R, A).")
(define pl-int-perm-db (pl-load pl-int-perm-src))
(pl-int-test!
"alice can read"
(len (pl-query-all pl-int-perm-db "allowed(alice, read)"))
1)
(pl-int-test!
"alice can delete"
(len (pl-query-all pl-int-perm-db "allowed(alice, delete)"))
1)
(pl-int-test!
"charlie cannot write"
(len (pl-query-all pl-int-perm-db "allowed(charlie, write)"))
0)
(pl-int-test!
"alice has 3 permissions"
(len (pl-query-all pl-int-perm-db "allowed(alice, A)"))
3)
(pl-int-test!
"only one user can delete"
(len (pl-query-all pl-int-perm-db "allowed(U, delete)"))
1)
(pl-int-test!
"the deleter is alice"
(dict-get (first (pl-query-all pl-int-perm-db "allowed(U, delete)")) "U")
"alice")
;; ── Graph reachability ──
;; Directed edges; path/2 transitive closure via two clauses
(define
pl-int-graph-src
"edge(a, b). edge(b, c). edge(c, d). edge(b, d). path(X, Y) :- edge(X, Y). path(X, Y) :- edge(X, Z), path(Z, Y).")
(define pl-int-graph-db (pl-load pl-int-graph-src))
(pl-int-test!
"direct edge a→b is a path"
(len (pl-query-all pl-int-graph-db "path(a, b)"))
1)
(pl-int-test!
"transitive path a→c"
(len (pl-query-all pl-int-graph-db "path(a, c)"))
1)
(pl-int-test!
"no path d→a (no back-edges)"
(len (pl-query-all pl-int-graph-db "path(d, a)"))
0)
(pl-int-test!
"4 derivations from a (b,c,d via two routes to d)"
(len (pl-query-all pl-int-graph-db "path(a, Y)"))
4)
;; ── Quicksort ──
;; Partition-and-recurse; uses its own append/3 to avoid DB pollution
(define
pl-int-qs-src
"partition(_, [], [], []). partition(Piv, [H|T], [H|Less], Greater) :- H =< Piv, !, partition(Piv, T, Less, Greater). partition(Piv, [H|T], Less, [H|Greater]) :- partition(Piv, T, Less, Greater). append([], L, L). append([H|T], L, [H|R]) :- append(T, L, R). quicksort([], []). quicksort([H|T], Sorted) :- partition(H, T, Less, Greater), quicksort(Less, SL), quicksort(Greater, SG), append(SL, [H|SG], Sorted).")
(define pl-int-qs-db (pl-load pl-int-qs-src))
(pl-int-test!
"quicksort([]) = [] (ground check)"
(len (pl-query-all pl-int-qs-db "quicksort([], [])"))
1)
(pl-int-test!
"quicksort([3,1,2]) = [1,2,3] (ground check)"
(len (pl-query-all pl-int-qs-db "quicksort([3,1,2], [1,2,3])"))
1)
(pl-int-test!
"quicksort([5,3,1,4,2]) = [1,2,3,4,5] (ground check)"
(len (pl-query-all pl-int-qs-db "quicksort([5,3,1,4,2], [1,2,3,4,5])"))
1)
(pl-int-test!
"quicksort([3,1,2], [3,1,2]) fails — unsorted order rejected"
(len (pl-query-all pl-int-qs-db "quicksort([3,1,2], [3,1,2])"))
0)
;; ── Fibonacci ──
;; Naive recursive; ground checks avoid list-format uncertainty
(define
pl-int-fib-src
"fib(0, 0). fib(1, 1). fib(N, F) :- N > 1, N1 is N - 1, N2 is N - 2, fib(N1, F1), fib(N2, F2), F is F1 + F2.")
(define pl-int-fib-db (pl-load pl-int-fib-src))
(pl-int-test!
"fib(0, 0) succeeds"
(len (pl-query-all pl-int-fib-db "fib(0, 0)"))
1)
(pl-int-test!
"fib(5, 5) succeeds"
(len (pl-query-all pl-int-fib-db "fib(5, 5)"))
1)
(pl-int-test!
"fib(7, 13) succeeds"
(len (pl-query-all pl-int-fib-db "fib(7, 13)"))
1)
;; ── Dynamic knowledge base ──
;; Assert and retract facts; the DB dict is mutable so mutations persist
(define pl-int-dyn-src "color(red). color(green). color(blue).")
(define pl-int-dyn-db (pl-load pl-int-dyn-src))
(pl-int-test!
"initial KB: 3 colors"
(len (pl-query-all pl-int-dyn-db "color(X)"))
3)
(pl-int-test!
"after assert(color(yellow)): 4 colors"
(begin
(pl-query-all pl-int-dyn-db "assert(color(yellow))")
(len (pl-query-all pl-int-dyn-db "color(X)")))
4)
(pl-int-test!
"after retract(color(red)): back to 3 colors"
(begin
(pl-query-all pl-int-dyn-db "retract(color(red))")
(len (pl-query-all pl-int-dyn-db "color(X)")))
3)
(define pl-integration-tests-run! (fn () {:failed pl-int-test-fail :passed pl-int-test-pass :total pl-int-test-count :failures pl-int-test-failures}))

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@@ -0,0 +1,326 @@
;; lib/prolog/tests/io_predicates.sx — term_to_atom/2, term_string/2,
;; with_output_to/2, writeln/1, format/1, format/2
(define pl-io-test-count 0)
(define pl-io-test-pass 0)
(define pl-io-test-fail 0)
(define pl-io-test-failures (list))
(define
pl-io-test!
(fn
(name got expected)
(begin
(set! pl-io-test-count (+ pl-io-test-count 1))
(if
(= got expected)
(set! pl-io-test-pass (+ pl-io-test-pass 1))
(begin
(set! pl-io-test-fail (+ pl-io-test-fail 1))
(append!
pl-io-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-io-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-io-db (pl-mk-db))
;; helper: get output buffer after running a goal
(define
pl-io-capture!
(fn
(goal)
(do
(pl-output-clear!)
(pl-solve-once! pl-io-db goal (pl-mk-trail))
pl-output-buffer)))
;; ─── term_to_atom/2 — bound Term direction ─────────────────────────────────
(pl-io-test!
"term_to_atom(foo(a,b), A) — compound"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(foo(a,b), A)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "A"))))
"foo(a, b)")
(pl-io-test!
"term_to_atom(hello, A) — atom"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(hello, A)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "A"))))
"hello")
(pl-io-test!
"term_to_atom(42, A) — number"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(42, A)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "A"))))
"42")
(pl-io-test!
"term_to_atom(foo(a,b), 'foo(a, b)') — succeeds when Atom matches"
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(foo(a,b), 'foo(a, b)')" {})
(pl-mk-trail))
true)
(pl-io-test!
"term_to_atom(hello, world) — fails on mismatch"
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(hello, world)" {})
(pl-mk-trail))
false)
;; ─── term_to_atom/2 — parse direction (Atom bound, Term unbound) ───────────
(pl-io-test!
"term_to_atom(T, 'foo(a)') — parse direction gives compound"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(T, 'foo(a)')" env)
(pl-mk-trail))
(let
((t (pl-walk-deep (dict-get env "T"))))
(and (pl-compound? t) (= (pl-fun t) "foo"))))
true)
(pl-io-test!
"term_to_atom(T, hello) — parse direction gives atom"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_to_atom(T, hello)" env)
(pl-mk-trail))
(let
((t (pl-walk-deep (dict-get env "T"))))
(and (pl-atom? t) (= (pl-atom-name t) "hello"))))
true)
;; ─── term_string/2 — alias ──────────────────────────────────────────────────
(pl-io-test!
"term_string(bar(x), A) — same as term_to_atom"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_string(bar(x), A)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "A"))))
"bar(x)")
(pl-io-test!
"term_string(42, A) — number to string"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "term_string(42, A)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "A"))))
"42")
;; ─── writeln/1 ─────────────────────────────────────────────────────────────
(pl-io-test!
"writeln(hello) writes 'hello\n'"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), writeln(hello))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"hello
")
(pl-io-test!
"writeln(42) writes '42\n'"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), writeln(42))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"42
")
;; ─── with_output_to/2 ──────────────────────────────────────────────────────
(pl-io-test!
"with_output_to(atom(X), write(foo)) — captures write output"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), write(foo))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"foo")
(pl-io-test!
"with_output_to(atom(X), (write(a), write(b))) — concat output"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), (write(a), write(b)))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"ab")
(pl-io-test!
"with_output_to(atom(X), nl) — captures newline"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), nl)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"
")
(pl-io-test!
"with_output_to(atom(X), true) — captures empty string"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), true)" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"")
(pl-io-test!
"with_output_to(string(X), write(hello)) — string sink works"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(string(X), write(hello))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"hello")
(pl-io-test!
"with_output_to(atom(X), fail) — fails when goal fails"
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), fail)" {})
(pl-mk-trail))
false)
;; ─── format/1 ──────────────────────────────────────────────────────────────
(pl-io-test!
"format('hello~n') — tilde-n becomes newline"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format('hello~n'))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"hello
")
(pl-io-test!
"format('~~') — double tilde becomes single tilde"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format('~~'))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"~")
(pl-io-test!
"format('abc') — plain text passes through"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format(abc))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"abc")
;; ─── format/2 ──────────────────────────────────────────────────────────────
(pl-io-test!
"format('~w+~w', [1,2]) — two ~w args"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format('~w+~w', [1,2]))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"1+2")
(pl-io-test!
"format('hello ~a!', [world]) — ~a with atom arg"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format('hello ~a!', [world]))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"hello world!")
(pl-io-test!
"format('n=~d', [42]) — ~d with integer arg"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format('n=~d', [42]))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"n=42")
(pl-io-test!
"format('~w', [foo(a)]) — ~w with compound"
(let
((env {}))
(pl-solve-once!
pl-io-db
(pl-io-goal "with_output_to(atom(X), format('~w', [foo(a)]))" env)
(pl-mk-trail))
(pl-atom-name (pl-walk-deep (dict-get env "X"))))
"foo(a)")
(define
pl-io-predicates-tests-run!
(fn
()
{:failed pl-io-test-fail
:passed pl-io-test-pass
:total pl-io-test-count
:failures pl-io-test-failures}))

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@@ -0,0 +1,320 @@
;; lib/prolog/tests/iso_predicates.sx — succ/2, plus/3, between/3, length/2, last/2, nth0/3, nth1/3, max/min arith
(define pl-ip-test-count 0)
(define pl-ip-test-pass 0)
(define pl-ip-test-fail 0)
(define pl-ip-test-failures (list))
(define
pl-ip-test!
(fn
(name got expected)
(begin
(set! pl-ip-test-count (+ pl-ip-test-count 1))
(if
(= got expected)
(set! pl-ip-test-pass (+ pl-ip-test-pass 1))
(begin
(set! pl-ip-test-fail (+ pl-ip-test-fail 1))
(append!
pl-ip-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-ip-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-ip-db (pl-mk-db))
;; ── succ/2 ──
(define pl-ip-env-s1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "succ(3, X)" pl-ip-env-s1)
(pl-mk-trail))
(pl-ip-test!
"succ(3, X) → X=4"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-s1 "X")))
4)
(define pl-ip-env-s2 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "succ(0, X)" pl-ip-env-s2)
(pl-mk-trail))
(pl-ip-test!
"succ(0, X) → X=1"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-s2 "X")))
1)
(define pl-ip-env-s3 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "succ(X, 5)" pl-ip-env-s3)
(pl-mk-trail))
(pl-ip-test!
"succ(X, 5) → X=4"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-s3 "X")))
4)
(pl-ip-test!
"succ(X, 0) fails"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "succ(X, 0)" {})
(pl-mk-trail))
false)
;; ── plus/3 ──
(define pl-ip-env-p1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "plus(2, 3, X)" pl-ip-env-p1)
(pl-mk-trail))
(pl-ip-test!
"plus(2, 3, X) → X=5"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-p1 "X")))
5)
(define pl-ip-env-p2 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "plus(2, X, 7)" pl-ip-env-p2)
(pl-mk-trail))
(pl-ip-test!
"plus(2, X, 7) → X=5"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-p2 "X")))
5)
(define pl-ip-env-p3 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "plus(X, 3, 7)" pl-ip-env-p3)
(pl-mk-trail))
(pl-ip-test!
"plus(X, 3, 7) → X=4"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-p3 "X")))
4)
(pl-ip-test!
"plus(0, 0, 0) succeeds"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "plus(0, 0, 0)" {})
(pl-mk-trail))
true)
;; ── between/3 ──
(pl-ip-test!
"between(1, 3, X): 3 solutions"
(pl-solve-count!
pl-ip-db
(pl-ip-goal "between(1, 3, X)" {})
(pl-mk-trail))
3)
(pl-ip-test!
"between(1, 3, 2) succeeds"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "between(1, 3, 2)" {})
(pl-mk-trail))
true)
(pl-ip-test!
"between(1, 3, 5) fails"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "between(1, 3, 5)" {})
(pl-mk-trail))
false)
(pl-ip-test!
"between(5, 3, X): 0 solutions (empty range)"
(pl-solve-count!
pl-ip-db
(pl-ip-goal "between(5, 3, X)" {})
(pl-mk-trail))
0)
(define pl-ip-env-b1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "between(1, 5, X)" pl-ip-env-b1)
(pl-mk-trail))
(pl-ip-test!
"between(1, 5, X): first solution X=1"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-b1 "X")))
1)
(pl-ip-test!
"between + condition: between(1,5,X), X > 3 → 2 solutions"
(pl-solve-count!
pl-ip-db
(pl-ip-goal "between(1, 5, X), X > 3" {})
(pl-mk-trail))
2)
;; ── length/2 ──
(define pl-ip-env-l1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "length([1,2,3], N)" pl-ip-env-l1)
(pl-mk-trail))
(pl-ip-test!
"length([1,2,3], N) → N=3"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-l1 "N")))
3)
(define pl-ip-env-l2 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "length([], N)" pl-ip-env-l2)
(pl-mk-trail))
(pl-ip-test!
"length([], N) → N=0"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-l2 "N")))
0)
(pl-ip-test!
"length([a,b], 2) check succeeds"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "length([a,b], 2)" {})
(pl-mk-trail))
true)
(define pl-ip-env-l3 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "length(L, 3)" pl-ip-env-l3)
(pl-mk-trail))
(pl-ip-test!
"length(L, 3): L is a list of length 3"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "length(L, 3), is_list(L)" pl-ip-env-l3)
(pl-mk-trail))
true)
;; ── last/2 ──
(define pl-ip-env-la1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "last([1,2,3], X)" pl-ip-env-la1)
(pl-mk-trail))
(pl-ip-test!
"last([1,2,3], X) → X=3"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-la1 "X")))
3)
(define pl-ip-env-la2 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "last([a], X)" pl-ip-env-la2)
(pl-mk-trail))
(pl-ip-test!
"last([a], X) → X=a"
(pl-atom-name (pl-walk-deep (dict-get pl-ip-env-la2 "X")))
"a")
(pl-ip-test!
"last([], X) fails"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "last([], X)" {})
(pl-mk-trail))
false)
;; ── nth0/3 ──
(define pl-ip-env-n0 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "nth0(0, [a,b,c], X)" pl-ip-env-n0)
(pl-mk-trail))
(pl-ip-test!
"nth0(0, [a,b,c], X) → X=a"
(pl-atom-name (pl-walk-deep (dict-get pl-ip-env-n0 "X")))
"a")
(define pl-ip-env-n1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "nth0(2, [a,b,c], X)" pl-ip-env-n1)
(pl-mk-trail))
(pl-ip-test!
"nth0(2, [a,b,c], X) → X=c"
(pl-atom-name (pl-walk-deep (dict-get pl-ip-env-n1 "X")))
"c")
(pl-ip-test!
"nth0(5, [a,b,c], X) fails"
(pl-solve-once!
pl-ip-db
(pl-ip-goal "nth0(5, [a,b,c], X)" {})
(pl-mk-trail))
false)
;; ── nth1/3 ──
(define pl-ip-env-n1a {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "nth1(1, [a,b,c], X)" pl-ip-env-n1a)
(pl-mk-trail))
(pl-ip-test!
"nth1(1, [a,b,c], X) → X=a"
(pl-atom-name (pl-walk-deep (dict-get pl-ip-env-n1a "X")))
"a")
(define pl-ip-env-n1b {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "nth1(3, [a,b,c], X)" pl-ip-env-n1b)
(pl-mk-trail))
(pl-ip-test!
"nth1(3, [a,b,c], X) → X=c"
(pl-atom-name (pl-walk-deep (dict-get pl-ip-env-n1b "X")))
"c")
;; ── max/min in arithmetic ──
(define pl-ip-env-m1 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "X is max(3, 5)" pl-ip-env-m1)
(pl-mk-trail))
(pl-ip-test!
"X is max(3, 5) → X=5"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-m1 "X")))
5)
(define pl-ip-env-m2 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "X is min(3, 5)" pl-ip-env-m2)
(pl-mk-trail))
(pl-ip-test!
"X is min(3, 5) → X=3"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-m2 "X")))
3)
(define pl-ip-env-m3 {})
(pl-solve-once!
pl-ip-db
(pl-ip-goal "X is max(7, 2) + min(1, 4)" pl-ip-env-m3)
(pl-mk-trail))
(pl-ip-test!
"X is max(7,2) + min(1,4) → X=8"
(pl-num-val (pl-walk-deep (dict-get pl-ip-env-m3 "X")))
8)
(define pl-iso-predicates-tests-run! (fn () {:failed pl-ip-test-fail :passed pl-ip-test-pass :total pl-ip-test-count :failures pl-ip-test-failures}))

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;; lib/prolog/tests/list_predicates.sx — ==/2, \==/2, flatten/2, numlist/3,
;; atomic_list_concat/2,3, sum_list/2, max_list/2, min_list/2, delete/3
(define pl-lp-test-count 0)
(define pl-lp-test-pass 0)
(define pl-lp-test-fail 0)
(define pl-lp-test-failures (list))
(define
pl-lp-test!
(fn
(name got expected)
(begin
(set! pl-lp-test-count (+ pl-lp-test-count 1))
(if
(= got expected)
(set! pl-lp-test-pass (+ pl-lp-test-pass 1))
(begin
(set! pl-lp-test-fail (+ pl-lp-test-fail 1))
(append!
pl-lp-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-lp-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-lp-db (pl-mk-db))
;; ── ==/2 ───────────────────────────────────────────────────────────
(pl-lp-test!
"==(a, a) succeeds"
(pl-solve-once! pl-lp-db (pl-lp-goal "==(a, a)" {}) (pl-mk-trail))
true)
(pl-lp-test!
"==(a, b) fails"
(pl-solve-once! pl-lp-db (pl-lp-goal "==(a, b)" {}) (pl-mk-trail))
false)
(pl-lp-test!
"==(1, 1) succeeds"
(pl-solve-once! pl-lp-db (pl-lp-goal "==(1, 1)" {}) (pl-mk-trail))
true)
(pl-lp-test!
"==(1, 2) fails"
(pl-solve-once! pl-lp-db (pl-lp-goal "==(1, 2)" {}) (pl-mk-trail))
false)
(pl-lp-test!
"==(f(a,b), f(a,b)) succeeds"
(pl-solve-once!
pl-lp-db
(pl-lp-goal "==(f(a,b), f(a,b))" {})
(pl-mk-trail))
true)
(pl-lp-test!
"==(f(a,b), f(a,c)) fails"
(pl-solve-once!
pl-lp-db
(pl-lp-goal "==(f(a,b), f(a,c))" {})
(pl-mk-trail))
false)
;; unbound var vs atom: fails (different tags)
(pl-lp-test!
"==(X, a) fails (unbound var vs atom)"
(pl-solve-once! pl-lp-db (pl-lp-goal "==(X, a)" {}) (pl-mk-trail))
false)
;; two unbound vars with SAME name in same env share the same runtime var
(define pl-lp-env-same-var {})
(pl-lp-goal "==(X, X)" pl-lp-env-same-var)
(pl-lp-test!
"==(X, X) succeeds (same runtime var)"
(pl-solve-once!
pl-lp-db
(pl-instantiate
(nth (first (pl-parse "g :- ==(X, X).")) 2)
pl-lp-env-same-var)
(pl-mk-trail))
true)
;; ── \==/2 ──────────────────────────────────────────────────────────
(pl-lp-test!
"\\==(a, b) succeeds"
(pl-solve-once! pl-lp-db (pl-lp-goal "\\==(a, b)" {}) (pl-mk-trail))
true)
(pl-lp-test!
"\\==(a, a) fails"
(pl-solve-once! pl-lp-db (pl-lp-goal "\\==(a, a)" {}) (pl-mk-trail))
false)
(pl-lp-test!
"\\==(X, a) succeeds (unbound var differs from atom)"
(pl-solve-once! pl-lp-db (pl-lp-goal "\\==(X, a)" {}) (pl-mk-trail))
true)
(pl-lp-test!
"\\==(1, 2) succeeds"
(pl-solve-once! pl-lp-db (pl-lp-goal "\\==(1, 2)" {}) (pl-mk-trail))
true)
;; ── flatten/2 ──────────────────────────────────────────────────────
(define pl-lp-env-fl1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "flatten([], F)" pl-lp-env-fl1)
(pl-mk-trail))
(pl-lp-test!
"flatten([], []) -> empty"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-fl1 "F")))
"[]")
(define pl-lp-env-fl2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "flatten([1,2,3], F)" pl-lp-env-fl2)
(pl-mk-trail))
(pl-lp-test!
"flatten([1,2,3], F) -> [1,2,3]"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-fl2 "F")))
".(1, .(2, .(3, [])))")
(define pl-lp-env-fl3 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "flatten([1,[2,[3]],4], F)" pl-lp-env-fl3)
(pl-mk-trail))
(pl-lp-test!
"flatten([1,[2,[3]],4], F) -> [1,2,3,4]"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-fl3 "F")))
".(1, .(2, .(3, .(4, []))))")
(define pl-lp-env-fl4 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "flatten([[a,b],[c]], F)" pl-lp-env-fl4)
(pl-mk-trail))
(pl-lp-test!
"flatten([[a,b],[c]], F) -> [a,b,c]"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-fl4 "F")))
".(a, .(b, .(c, [])))")
;; ── numlist/3 ──────────────────────────────────────────────────────
(define pl-lp-env-nl1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "numlist(1, 5, L)" pl-lp-env-nl1)
(pl-mk-trail))
(pl-lp-test!
"numlist(1,5,L) -> [1,2,3,4,5]"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-nl1 "L")))
".(1, .(2, .(3, .(4, .(5, [])))))")
(define pl-lp-env-nl2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "numlist(3, 3, L)" pl-lp-env-nl2)
(pl-mk-trail))
(pl-lp-test!
"numlist(3,3,L) -> [3]"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-nl2 "L")))
".(3, [])")
(pl-lp-test!
"numlist(5, 3, L) fails (Low > High)"
(pl-solve-once!
pl-lp-db
(pl-lp-goal "numlist(5, 3, L)" {})
(pl-mk-trail))
false)
;; ── atomic_list_concat/2 ───────────────────────────────────────────
(define pl-lp-env-alc1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "atomic_list_concat([a, b, c], R)" pl-lp-env-alc1)
(pl-mk-trail))
(pl-lp-test!
"atomic_list_concat([a,b,c], R) -> abc"
(pl-atom-name (pl-walk-deep (dict-get pl-lp-env-alc1 "R")))
"abc")
(define pl-lp-env-alc2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "atomic_list_concat([hello, world], R)" pl-lp-env-alc2)
(pl-mk-trail))
(pl-lp-test!
"atomic_list_concat([hello,world], R) -> helloworld"
(pl-atom-name (pl-walk-deep (dict-get pl-lp-env-alc2 "R")))
"helloworld")
;; ── atomic_list_concat/3 ───────────────────────────────────────────
(define pl-lp-env-alcs1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "atomic_list_concat([a, b, c], '-', R)" pl-lp-env-alcs1)
(pl-mk-trail))
(pl-lp-test!
"atomic_list_concat([a,b,c], '-', R) -> a-b-c"
(pl-atom-name (pl-walk-deep (dict-get pl-lp-env-alcs1 "R")))
"a-b-c")
(define pl-lp-env-alcs2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "atomic_list_concat([x], '-', R)" pl-lp-env-alcs2)
(pl-mk-trail))
(pl-lp-test!
"atomic_list_concat([x], '-', R) -> x (single element, no sep)"
(pl-atom-name (pl-walk-deep (dict-get pl-lp-env-alcs2 "R")))
"x")
;; ── sum_list/2 ─────────────────────────────────────────────────────
(define pl-lp-env-sl1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "sum_list([1,2,3], S)" pl-lp-env-sl1)
(pl-mk-trail))
(pl-lp-test!
"sum_list([1,2,3], S) -> 6"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-sl1 "S")))
6)
(define pl-lp-env-sl2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "sum_list([10], S)" pl-lp-env-sl2)
(pl-mk-trail))
(pl-lp-test!
"sum_list([10], S) -> 10"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-sl2 "S")))
10)
(define pl-lp-env-sl3 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "sum_list([], S)" pl-lp-env-sl3)
(pl-mk-trail))
(pl-lp-test!
"sum_list([], S) -> 0"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-sl3 "S")))
0)
;; ── max_list/2 ─────────────────────────────────────────────────────
(define pl-lp-env-mx1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "max_list([3,1,4,1,5,9,2,6], M)" pl-lp-env-mx1)
(pl-mk-trail))
(pl-lp-test!
"max_list([3,1,4,1,5,9,2,6], M) -> 9"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-mx1 "M")))
9)
(define pl-lp-env-mx2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "max_list([7], M)" pl-lp-env-mx2)
(pl-mk-trail))
(pl-lp-test!
"max_list([7], M) -> 7"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-mx2 "M")))
7)
;; ── min_list/2 ─────────────────────────────────────────────────────
(define pl-lp-env-mn1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "min_list([3,1,4,1,5,9,2,6], M)" pl-lp-env-mn1)
(pl-mk-trail))
(pl-lp-test!
"min_list([3,1,4,1,5,9,2,6], M) -> 1"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-mn1 "M")))
1)
(define pl-lp-env-mn2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "min_list([5,2,8], M)" pl-lp-env-mn2)
(pl-mk-trail))
(pl-lp-test!
"min_list([5,2,8], M) -> 2"
(pl-num-val (pl-walk-deep (dict-get pl-lp-env-mn2 "M")))
2)
;; ── delete/3 ───────────────────────────────────────────────────────
(define pl-lp-env-del1 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "delete([1,2,3,2,1], 2, R)" pl-lp-env-del1)
(pl-mk-trail))
(pl-lp-test!
"delete([1,2,3,2,1], 2, R) -> [1,3,1]"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-del1 "R")))
".(1, .(3, .(1, [])))")
(define pl-lp-env-del2 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "delete([a,b,c], d, R)" pl-lp-env-del2)
(pl-mk-trail))
(pl-lp-test!
"delete([a,b,c], d, R) -> [a,b,c] (nothing deleted)"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-del2 "R")))
".(a, .(b, .(c, [])))")
(define pl-lp-env-del3 {})
(pl-solve-once!
pl-lp-db
(pl-lp-goal "delete([], x, R)" pl-lp-env-del3)
(pl-mk-trail))
(pl-lp-test!
"delete([], x, R) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-lp-env-del3 "R")))
"[]")
(define pl-list-predicates-tests-run! (fn () {:failed pl-lp-test-fail :passed pl-lp-test-pass :total pl-lp-test-count :failures pl-lp-test-failures}))

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;; lib/prolog/tests/meta_call.sx — forall/2, maplist/2, maplist/3, include/3, exclude/3
(define pl-mc-test-count 0)
(define pl-mc-test-pass 0)
(define pl-mc-test-fail 0)
(define pl-mc-test-failures (list))
(define
pl-mc-test!
(fn
(name got expected)
(begin
(set! pl-mc-test-count (+ pl-mc-test-count 1))
(if
(= got expected)
(set! pl-mc-test-pass (+ pl-mc-test-pass 1))
(begin
(set! pl-mc-test-fail (+ pl-mc-test-fail 1))
(append!
pl-mc-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-mc-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define
pl-mc-term-to-sx
(fn
(t)
(cond
((pl-num? t) (pl-num-val t))
((pl-atom? t) (pl-atom-name t))
(else t))))
(define
pl-mc-list-sx
(fn
(t)
(let
((w (pl-walk-deep t)))
(cond
((and (pl-atom? w) (= (pl-atom-name w) "[]")) (list))
((and (pl-compound? w) (= (pl-fun w) "."))
(cons
(pl-mc-term-to-sx (first (pl-args w)))
(pl-mc-list-sx (nth (pl-args w) 1))))
(else (list :not-list))))))
(define pl-mc-db (pl-mk-db))
(pl-db-load!
pl-mc-db
(pl-parse "member(X, [X|_]). member(X, [_|T]) :- member(X, T)."))
(pl-db-load! pl-mc-db (pl-parse "double(X, Y) :- Y is X * 2."))
(pl-db-load! pl-mc-db (pl-parse "even(X) :- 0 is X mod 2."))
;; -- forall/2 --
(pl-mc-test!
"forall(member(X,[2,4,6]), 0 is X mod 2) — all even"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "forall(member(X,[2,4,6]), 0 is X mod 2)" {})
(pl-mk-trail))
true)
(pl-mc-test!
"forall(member(X,[2,3,6]), 0 is X mod 2) — 3 is odd, fails"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "forall(member(X,[2,3,6]), 0 is X mod 2)" {})
(pl-mk-trail))
false)
(pl-mc-test!
"forall(member(_,[]), true) — vacuously true"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "forall(member(_,[]), true)" {})
(pl-mk-trail))
true)
;; -- maplist/2 --
(pl-mc-test!
"maplist(atom, [a,b,c]) — all atoms"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "maplist(atom, [a,b,c])" {})
(pl-mk-trail))
true)
(pl-mc-test!
"maplist(atom, [a,1,c]) — 1 is not atom, fails"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "maplist(atom, [a,1,c])" {})
(pl-mk-trail))
false)
(pl-mc-test!
"maplist(atom, []) — vacuously true"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "maplist(atom, [])" {})
(pl-mk-trail))
true)
;; -- maplist/3 --
(pl-mc-test!
"maplist(double, [1,2,3], [2,4,6]) — deterministic check"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "maplist(double, [1,2,3], [2,4,6])" {})
(pl-mk-trail))
true)
(pl-mc-test!
"maplist(double, [1,2,3], [2,4,7]) — wrong result fails"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "maplist(double, [1,2,3], [2,4,7])" {})
(pl-mk-trail))
false)
(define pl-mc-env-ml3 {:L (pl-mk-rt-var "L")})
(pl-solve-once!
pl-mc-db
(pl-mc-goal "maplist(double, [1,2,3], L)" pl-mc-env-ml3)
(pl-mk-trail))
(pl-mc-test!
"maplist(double, [1,2,3], L) — L bound to [2,4,6]"
(pl-mc-list-sx (dict-get pl-mc-env-ml3 "L"))
(list 2 4 6))
;; -- include/3 --
(pl-mc-test!
"include(even, [1,2,3,4,5,6], [2,4,6])"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "include(even, [1,2,3,4,5,6], [2,4,6])" {})
(pl-mk-trail))
true)
(pl-mc-test!
"include(even, [], [])"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "include(even, [], [])" {})
(pl-mk-trail))
true)
(define pl-mc-env-inc {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-mc-db
(pl-mc-goal "include(even, [1,2,3,4,5,6], R)" pl-mc-env-inc)
(pl-mk-trail))
(pl-mc-test!
"include(even, [1,2,3,4,5,6], R) — R bound to [2,4,6]"
(pl-mc-list-sx (dict-get pl-mc-env-inc "R"))
(list 2 4 6))
;; -- exclude/3 --
(pl-mc-test!
"exclude(even, [1,2,3,4,5,6], [1,3,5])"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "exclude(even, [1,2,3,4,5,6], [1,3,5])" {})
(pl-mk-trail))
true)
(pl-mc-test!
"exclude(even, [], [])"
(pl-solve-once!
pl-mc-db
(pl-mc-goal "exclude(even, [], [])" {})
(pl-mk-trail))
true)
(define pl-mc-env-exc {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-mc-db
(pl-mc-goal "exclude(even, [1,2,3,4,5,6], R)" pl-mc-env-exc)
(pl-mk-trail))
(pl-mc-test!
"exclude(even, [1,2,3,4,5,6], R) — R bound to [1,3,5]"
(pl-mc-list-sx (dict-get pl-mc-env-exc "R"))
(list 1 3 5))
(define pl-meta-call-tests-run! (fn () {:failed pl-mc-test-fail :passed pl-mc-test-pass :total pl-mc-test-count :failures pl-mc-test-failures}))

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;; lib/prolog/tests/meta_predicates.sx — \+/1, not/1, once/1, ignore/1, ground/1, sort/2, msort/2, atom_number/2, number_string/2
(define pl-mp-test-count 0)
(define pl-mp-test-pass 0)
(define pl-mp-test-fail 0)
(define pl-mp-test-failures (list))
(define
pl-mp-test!
(fn
(name got expected)
(begin
(set! pl-mp-test-count (+ pl-mp-test-count 1))
(if
(= got expected)
(set! pl-mp-test-pass (+ pl-mp-test-pass 1))
(begin
(set! pl-mp-test-fail (+ pl-mp-test-fail 1))
(append!
pl-mp-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-mp-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-mp-db (pl-mk-db))
(pl-db-load!
pl-mp-db
(pl-parse "member(X, [X|_]). member(X, [_|T]) :- member(X, T)."))
;; -- \+/1 --
(pl-mp-test!
"\\+(fail) succeeds"
(pl-solve-once! pl-mp-db (pl-mp-goal "\\+(fail)" {}) (pl-mk-trail))
true)
(pl-mp-test!
"\\+(true) fails"
(pl-solve-once! pl-mp-db (pl-mp-goal "\\+(true)" {}) (pl-mk-trail))
false)
(pl-mp-test!
"\\+(member(d, [a,b,c])) succeeds"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "\\+(member(d, [a,b,c]))" {})
(pl-mk-trail))
true)
(pl-mp-test!
"\\+(member(a, [a,b,c])) fails"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "\\+(member(a, [a,b,c]))" {})
(pl-mk-trail))
false)
(define pl-mp-env-neg {})
(pl-solve-once!
pl-mp-db
(pl-mp-goal "\\+(X = 5)" pl-mp-env-neg)
(pl-mk-trail))
(pl-mp-test!
"\\+(X=5) fails, X stays unbound (bindings undone)"
(nil? (pl-var-binding (dict-get pl-mp-env-neg "X")))
true)
;; -- not/1 --
(pl-mp-test!
"not(fail) succeeds"
(pl-solve-once! pl-mp-db (pl-mp-goal "not(fail)" {}) (pl-mk-trail))
true)
(pl-mp-test!
"not(true) fails"
(pl-solve-once! pl-mp-db (pl-mp-goal "not(true)" {}) (pl-mk-trail))
false)
;; -- once/1 --
(pl-mp-test!
"once(member(X,[1,2,3])) succeeds once"
(pl-solve-count!
pl-mp-db
(pl-mp-goal "once(member(X,[1,2,3]))" {})
(pl-mk-trail))
1)
(define pl-mp-env-once {})
(pl-solve-once!
pl-mp-db
(pl-mp-goal "once(member(X,[1,2,3]))" pl-mp-env-once)
(pl-mk-trail))
(pl-mp-test!
"once(member(X,[1,2,3])): X=1 (first solution)"
(pl-num-val (pl-walk-deep (dict-get pl-mp-env-once "X")))
1)
(pl-mp-test!
"once(fail) fails"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "once(fail)" {})
(pl-mk-trail))
false)
;; -- ignore/1 --
(pl-mp-test!
"ignore(true) succeeds"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "ignore(true)" {})
(pl-mk-trail))
true)
(pl-mp-test!
"ignore(fail) still succeeds"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "ignore(fail)" {})
(pl-mk-trail))
true)
;; -- ground/1 --
(pl-mp-test!
"ground(foo(1, a)) succeeds"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "ground(foo(1, a))" {})
(pl-mk-trail))
true)
(pl-mp-test!
"ground(foo(X, a)) fails (X unbound)"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "ground(foo(X, a))" {})
(pl-mk-trail))
false)
(pl-mp-test!
"ground(42) succeeds"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "ground(42)" {})
(pl-mk-trail))
true)
;; -- sort/2 --
(pl-mp-test!
"sort([b,a,c], [a,b,c])"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "sort([b,a,c], [a,b,c])" {})
(pl-mk-trail))
true)
(pl-mp-test!
"sort([b,a,a,c], [a,b,c]) (removes duplicates)"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "sort([b,a,a,c], [a,b,c])" {})
(pl-mk-trail))
true)
(pl-mp-test!
"sort([], [])"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "sort([], [])" {})
(pl-mk-trail))
true)
;; -- msort/2 --
(pl-mp-test!
"msort([b,a,a,c], [a,a,b,c]) (keeps duplicates)"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "msort([b,a,a,c], [a,a,b,c])" {})
(pl-mk-trail))
true)
(pl-mp-test!
"msort([3,1,2,1], [1,1,2,3])"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "msort([3,1,2,1], [1,1,2,3])" {})
(pl-mk-trail))
true)
;; -- atom_number/2 --
(define pl-mp-env-an1 {})
(pl-solve-once!
pl-mp-db
(pl-mp-goal "atom_number('42', N)" pl-mp-env-an1)
(pl-mk-trail))
(pl-mp-test!
"atom_number('42', N) -> N=42"
(pl-num-val (pl-walk-deep (dict-get pl-mp-env-an1 "N")))
42)
(define pl-mp-env-an2 {})
(pl-solve-once!
pl-mp-db
(pl-mp-goal "atom_number(A, 7)" pl-mp-env-an2)
(pl-mk-trail))
(pl-mp-test!
"atom_number(A, 7) -> A='7'"
(pl-atom-name (pl-walk-deep (dict-get pl-mp-env-an2 "A")))
"7")
(pl-mp-test!
"atom_number(foo, N) fails (not a number)"
(pl-solve-once!
pl-mp-db
(pl-mp-goal "atom_number(foo, N)" {})
(pl-mk-trail))
false)
;; -- number_string/2 --
(define pl-mp-env-ns1 {})
(pl-solve-once!
pl-mp-db
(pl-mp-goal "number_string(42, S)" pl-mp-env-ns1)
(pl-mk-trail))
(pl-mp-test!
"number_string(42, S) -> S='42'"
(pl-atom-name (pl-walk-deep (dict-get pl-mp-env-ns1 "S")))
"42")
(define pl-mp-env-ns2 {})
(pl-solve-once!
pl-mp-db
(pl-mp-goal "number_string(N, '3.14')" pl-mp-env-ns2)
(pl-mk-trail))
(pl-mp-test!
"number_string(N, '3.14') -> N=3.14"
(pl-num-val (pl-walk-deep (dict-get pl-mp-env-ns2 "N")))
3.14)
(define pl-meta-predicates-tests-run! (fn () {:failed pl-mp-test-fail :passed pl-mp-test-pass :total pl-mp-test-count :failures pl-mp-test-failures}))

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;; lib/prolog/tests/operators.sx — operator-table parsing + comparison built-ins.
(define pl-op-test-count 0)
(define pl-op-test-pass 0)
(define pl-op-test-fail 0)
(define pl-op-test-failures (list))
(define
pl-op-test!
(fn
(name got expected)
(begin
(set! pl-op-test-count (+ pl-op-test-count 1))
(if
(= got expected)
(set! pl-op-test-pass (+ pl-op-test-pass 1))
(begin
(set! pl-op-test-fail (+ pl-op-test-fail 1))
(append!
pl-op-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define pl-op-empty-db (pl-mk-db))
(define
pl-op-body
(fn (src) (nth (first (pl-parse (str "g :- " src "."))) 2)))
(define pl-op-goal (fn (src env) (pl-instantiate (pl-op-body src) env)))
;; ── parsing tests ──
(pl-op-test!
"infix +"
(pl-op-body "a + b")
(list "compound" "+" (list (list "atom" "a") (list "atom" "b"))))
(pl-op-test!
"infix * tighter than +"
(pl-op-body "a + b * c")
(list
"compound"
"+"
(list
(list "atom" "a")
(list "compound" "*" (list (list "atom" "b") (list "atom" "c"))))))
(pl-op-test!
"parens override precedence"
(pl-op-body "(a + b) * c")
(list
"compound"
"*"
(list
(list "compound" "+" (list (list "atom" "a") (list "atom" "b")))
(list "atom" "c"))))
(pl-op-test!
"+ is yfx (left-assoc)"
(pl-op-body "a + b + c")
(list
"compound"
"+"
(list
(list "compound" "+" (list (list "atom" "a") (list "atom" "b")))
(list "atom" "c"))))
(pl-op-test!
"; is xfy (right-assoc)"
(pl-op-body "a ; b ; c")
(list
"compound"
";"
(list
(list "atom" "a")
(list "compound" ";" (list (list "atom" "b") (list "atom" "c"))))))
(pl-op-test!
"= folds at 700"
(pl-op-body "X = 5")
(list "compound" "=" (list (list "var" "X") (list "num" 5))))
(pl-op-test!
"is + nests via 700>500>400"
(pl-op-body "X is 2 + 3 * 4")
(list
"compound"
"is"
(list
(list "var" "X")
(list
"compound"
"+"
(list
(list "num" 2)
(list "compound" "*" (list (list "num" 3) (list "num" 4))))))))
(pl-op-test!
"< parses at 700"
(pl-op-body "2 < 3")
(list "compound" "<" (list (list "num" 2) (list "num" 3))))
(pl-op-test!
"mod parses as yfx 400"
(pl-op-body "10 mod 3")
(list "compound" "mod" (list (list "num" 10) (list "num" 3))))
(pl-op-test!
"comma in body folds right-assoc"
(pl-op-body "a, b, c")
(list
"compound"
","
(list
(list "atom" "a")
(list "compound" "," (list (list "atom" "b") (list "atom" "c"))))))
;; ── solver tests via infix ──
(pl-op-test!
"X is 2 + 3 binds X = 5"
(let
((env {}) (trail (pl-mk-trail)))
(begin
(pl-solve-once! pl-op-empty-db (pl-op-goal "X is 2 + 3" env) trail)
(pl-num-val (pl-walk-deep (dict-get env "X")))))
5)
(pl-op-test!
"infix conjunction parses + solves"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "X = 5, X = 5" {})
(pl-mk-trail))
true)
(pl-op-test!
"infix mismatch fails"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "X = 5, X = 6" {})
(pl-mk-trail))
false)
(pl-op-test!
"infix disjunction picks left"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "true ; fail" {})
(pl-mk-trail))
true)
(pl-op-test!
"2 < 5 succeeds"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "2 < 5" {})
(pl-mk-trail))
true)
(pl-op-test!
"5 < 2 fails"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "5 < 2" {})
(pl-mk-trail))
false)
(pl-op-test!
"5 >= 5 succeeds"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "5 >= 5" {})
(pl-mk-trail))
true)
(pl-op-test!
"3 =< 5 succeeds"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "3 =< 5" {})
(pl-mk-trail))
true)
(pl-op-test!
"infix < with arithmetic both sides"
(pl-solve-once!
pl-op-empty-db
(pl-op-goal "1 + 2 < 2 * 3" {})
(pl-mk-trail))
true)
(define pl-operators-tests-run! (fn () {:failed pl-op-test-fail :passed pl-op-test-pass :total pl-op-test-count :failures pl-op-test-failures}))

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%% append/3 list concatenation, classic Prolog
%% Two clauses: empty-prefix base case + recursive cons-prefix.
%% Bidirectional works in all modes: build, check, split.
append([], L, L).
append([H|T], L, [H|R]) :- append(T, L, R).

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;; lib/prolog/tests/programs/append.sx — append/3 test runner
;;
;; Mirrors the Prolog source in append.pl (embedded as a string here because
;; the SX runtime has no file-read primitive yet).
(define pl-ap-test-count 0)
(define pl-ap-test-pass 0)
(define pl-ap-test-fail 0)
(define pl-ap-test-failures (list))
(define
pl-ap-test!
(fn
(name got expected)
(begin
(set! pl-ap-test-count (+ pl-ap-test-count 1))
(if
(= got expected)
(set! pl-ap-test-pass (+ pl-ap-test-pass 1))
(begin
(set! pl-ap-test-fail (+ pl-ap-test-fail 1))
(append!
pl-ap-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-ap-term-to-sx
(fn
(t)
(cond
((pl-num? t) (pl-num-val t))
((pl-atom? t) (pl-atom-name t))
(true (list :complex)))))
(define
pl-ap-list-walked
(fn
(w)
(cond
((and (pl-atom? w) (= (pl-atom-name w) "[]")) (list))
((and (pl-compound? w) (= (pl-fun w) ".") (= (len (pl-args w)) 2))
(cons
(pl-ap-term-to-sx (first (pl-args w)))
(pl-ap-list-walked (nth (pl-args w) 1))))
(true (list :not-list)))))
(define pl-ap-list-to-sx (fn (t) (pl-ap-list-walked (pl-walk-deep t))))
(define
pl-ap-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define
pl-ap-prog-src
"append([], L, L). append([H|T], L, [H|R]) :- append(T, L, R).")
(define pl-ap-db (pl-mk-db))
(pl-db-load! pl-ap-db (pl-parse pl-ap-prog-src))
(define pl-ap-env-1 {})
(define pl-ap-goal-1 (pl-ap-goal "append([], [a, b], X)" pl-ap-env-1))
(pl-solve-once! pl-ap-db pl-ap-goal-1 (pl-mk-trail))
(pl-ap-test!
"append([], [a, b], X) → X = [a, b]"
(pl-ap-list-to-sx (dict-get pl-ap-env-1 "X"))
(list "a" "b"))
(define pl-ap-env-2 {})
(define pl-ap-goal-2 (pl-ap-goal "append([1, 2], [3, 4], X)" pl-ap-env-2))
(pl-solve-once! pl-ap-db pl-ap-goal-2 (pl-mk-trail))
(pl-ap-test!
"append([1, 2], [3, 4], X) → X = [1, 2, 3, 4]"
(pl-ap-list-to-sx (dict-get pl-ap-env-2 "X"))
(list 1 2 3 4))
(pl-ap-test!
"append([1], [2, 3], [1, 2, 3]) succeeds"
(pl-solve-once!
pl-ap-db
(pl-ap-goal "append([1], [2, 3], [1, 2, 3])" {})
(pl-mk-trail))
true)
(pl-ap-test!
"append([1, 2], [3], [1, 2, 4]) fails"
(pl-solve-once!
pl-ap-db
(pl-ap-goal "append([1, 2], [3], [1, 2, 4])" {})
(pl-mk-trail))
false)
(pl-ap-test!
"append(X, Y, [1, 2, 3]) backtracks 4 times"
(pl-solve-count!
pl-ap-db
(pl-ap-goal "append(X, Y, [1, 2, 3])" {})
(pl-mk-trail))
4)
(define pl-ap-env-6 {})
(define pl-ap-goal-6 (pl-ap-goal "append(X, [3], [1, 2, 3])" pl-ap-env-6))
(pl-solve-once! pl-ap-db pl-ap-goal-6 (pl-mk-trail))
(pl-ap-test!
"append(X, [3], [1, 2, 3]) deduces X = [1, 2]"
(pl-ap-list-to-sx (dict-get pl-ap-env-6 "X"))
(list 1 2))
(define pl-append-tests-run! (fn () {:failed pl-ap-test-fail :passed pl-ap-test-pass :total pl-ap-test-count :failures pl-ap-test-failures}))

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%% family facts + transitive ancestor + derived relations.
%% Five-generation tree: tom -> bob -> {ann, pat} -> jim, plus tom's
%% other child liz.
parent(tom, bob).
parent(tom, liz).
parent(bob, ann).
parent(bob, pat).
parent(pat, jim).
male(tom).
male(bob).
male(jim).
male(pat).
female(liz).
female(ann).
father(F, C) :- parent(F, C), male(F).
mother(M, C) :- parent(M, C), female(M).
ancestor(X, Y) :- parent(X, Y).
ancestor(X, Y) :- parent(X, Z), ancestor(Z, Y).
sibling(X, Y) :- parent(P, X), parent(P, Y), \=(X, Y).

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;; lib/prolog/tests/programs/family.sx — facts + ancestor + sibling relations.
(define pl-fa-test-count 0)
(define pl-fa-test-pass 0)
(define pl-fa-test-fail 0)
(define pl-fa-test-failures (list))
(define
pl-fa-test!
(fn
(name got expected)
(begin
(set! pl-fa-test-count (+ pl-fa-test-count 1))
(if
(= got expected)
(set! pl-fa-test-pass (+ pl-fa-test-pass 1))
(begin
(set! pl-fa-test-fail (+ pl-fa-test-fail 1))
(append!
pl-fa-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-fa-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define
pl-fa-prog-src
"parent(tom, bob). parent(tom, liz). parent(bob, ann). parent(bob, pat). parent(pat, jim). male(tom). male(bob). male(jim). male(pat). female(liz). female(ann). father(F, C) :- parent(F, C), male(F). mother(M, C) :- parent(M, C), female(M). ancestor(X, Y) :- parent(X, Y). ancestor(X, Y) :- parent(X, Z), ancestor(Z, Y). sibling(X, Y) :- parent(P, X), parent(P, Y), \\=(X, Y).")
(define pl-fa-db (pl-mk-db))
(pl-db-load! pl-fa-db (pl-parse pl-fa-prog-src))
(pl-fa-test!
"parent(tom, bob) is a fact"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "parent(tom, bob)" {})
(pl-mk-trail))
true)
(pl-fa-test!
"parent(tom, ann) — not a direct parent"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "parent(tom, ann)" {})
(pl-mk-trail))
false)
(pl-fa-test!
"5 parent/2 facts in total"
(pl-solve-count!
pl-fa-db
(pl-fa-goal "parent(X, Y)" {})
(pl-mk-trail))
5)
(pl-fa-test!
"ancestor(tom, jim) — three-step transitive"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "ancestor(tom, jim)" {})
(pl-mk-trail))
true)
(pl-fa-test!
"tom has 5 ancestors-of: bob, liz, ann, pat, jim"
(pl-solve-count!
pl-fa-db
(pl-fa-goal "ancestor(tom, X)" {})
(pl-mk-trail))
5)
(pl-fa-test!
"father(bob, ann) succeeds"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "father(bob, ann)" {})
(pl-mk-trail))
true)
(pl-fa-test!
"father(liz, ann) fails (liz is female)"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "father(liz, ann)" {})
(pl-mk-trail))
false)
(pl-fa-test!
"mother(liz, X) fails (liz has no children)"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "mother(liz, X)" {})
(pl-mk-trail))
false)
(pl-fa-test!
"sibling(ann, pat) succeeds"
(pl-solve-once!
pl-fa-db
(pl-fa-goal "sibling(ann, pat)" {})
(pl-mk-trail))
true)
(pl-fa-test!
"sibling(ann, ann) fails by \\="
(pl-solve-once!
pl-fa-db
(pl-fa-goal "sibling(ann, ann)" {})
(pl-mk-trail))
false)
(define pl-family-tests-run! (fn () {:failed pl-fa-test-fail :passed pl-fa-test-pass :total pl-fa-test-count :failures pl-fa-test-failures}))

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%% member/2 list membership.
%% Generates all solutions on backtracking when the element is unbound.
member(X, [X|_]).
member(X, [_|T]) :- member(X, T).

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;; lib/prolog/tests/programs/member.sx — member/2 generator.
(define pl-mb-test-count 0)
(define pl-mb-test-pass 0)
(define pl-mb-test-fail 0)
(define pl-mb-test-failures (list))
(define
pl-mb-test!
(fn
(name got expected)
(begin
(set! pl-mb-test-count (+ pl-mb-test-count 1))
(if
(= got expected)
(set! pl-mb-test-pass (+ pl-mb-test-pass 1))
(begin
(set! pl-mb-test-fail (+ pl-mb-test-fail 1))
(append!
pl-mb-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-mb-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-mb-prog-src "member(X, [X|_]). member(X, [_|T]) :- member(X, T).")
(define pl-mb-db (pl-mk-db))
(pl-db-load! pl-mb-db (pl-parse pl-mb-prog-src))
(pl-mb-test!
"member(2, [1, 2, 3]) succeeds"
(pl-solve-once!
pl-mb-db
(pl-mb-goal "member(2, [1, 2, 3])" {})
(pl-mk-trail))
true)
(pl-mb-test!
"member(4, [1, 2, 3]) fails"
(pl-solve-once!
pl-mb-db
(pl-mb-goal "member(4, [1, 2, 3])" {})
(pl-mk-trail))
false)
(pl-mb-test!
"member(X, []) fails"
(pl-solve-once!
pl-mb-db
(pl-mb-goal "member(X, [])" {})
(pl-mk-trail))
false)
(pl-mb-test!
"member(X, [a, b, c]) generates 3 solutions"
(pl-solve-count!
pl-mb-db
(pl-mb-goal "member(X, [a, b, c])" {})
(pl-mk-trail))
3)
(define pl-mb-env-1 {})
(define pl-mb-goal-1 (pl-mb-goal "member(X, [11, 22, 33])" pl-mb-env-1))
(pl-solve-once! pl-mb-db pl-mb-goal-1 (pl-mk-trail))
(pl-mb-test!
"member(X, [11, 22, 33]) first solution X = 11"
(pl-num-val (pl-walk-deep (dict-get pl-mb-env-1 "X")))
11)
(pl-mb-test!
"member(2, [1, 2, 3, 2, 1]) matches twice on backtrack"
(pl-solve-count!
pl-mb-db
(pl-mb-goal "member(2, [1, 2, 3, 2, 1])" {})
(pl-mk-trail))
2)
(pl-mb-test!
"member with unbound list cell unifies"
(pl-solve-once!
pl-mb-db
(pl-mb-goal "member(a, [X, b, c])" {})
(pl-mk-trail))
true)
(define pl-member-tests-run! (fn () {:failed pl-mb-test-fail :passed pl-mb-test-pass :total pl-mb-test-count :failures pl-mb-test-failures}))

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%% nqueens permutation-and-test formulation.
%% Caller passes the row list [1..N]; queens/2 finds N column placements
%% s.t. no two queens attack on a diagonal. Same-column attacks are
%% structurally impossible Qs is a permutation, all distinct.
%%
%% No `>/2` `</2` `=</2` built-ins yet, so range/3 is omitted; tests pass
%; the literal range list. Once the operator table lands and arithmetic
%% comparison built-ins are in, range/3 can be added.
queens(L, Qs) :- permute(L, Qs), safe(Qs).
permute([], []).
permute(L, [H|T]) :- select(H, L, R), permute(R, T).
select(X, [X|T], T).
select(X, [H|T], [H|R]) :- select(X, T, R).
safe([]).
safe([Q|Qs]) :- safe(Qs), no_attack(Q, Qs, 1).
no_attack(_, [], _).
no_attack(Q, [Q1|Qs], D) :-
is(D2, +(Q, D)),
\=(D2, Q1),
is(D3, -(Q, D)),
\=(D3, Q1),
is(D1, +(D, 1)),
no_attack(Q, Qs, D1).

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;; lib/prolog/tests/programs/nqueens.sx — N-queens via permute + safe.
(define pl-nq-test-count 0)
(define pl-nq-test-pass 0)
(define pl-nq-test-fail 0)
(define pl-nq-test-failures (list))
(define
pl-nq-test!
(fn
(name got expected)
(begin
(set! pl-nq-test-count (+ pl-nq-test-count 1))
(if
(= got expected)
(set! pl-nq-test-pass (+ pl-nq-test-pass 1))
(begin
(set! pl-nq-test-fail (+ pl-nq-test-fail 1))
(append!
pl-nq-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-nq-term-to-sx
(fn
(t)
(cond
((pl-num? t) (pl-num-val t))
((pl-atom? t) (pl-atom-name t))
(true (list :complex)))))
(define
pl-nq-list-walked
(fn
(w)
(cond
((and (pl-atom? w) (= (pl-atom-name w) "[]")) (list))
((and (pl-compound? w) (= (pl-fun w) ".") (= (len (pl-args w)) 2))
(cons
(pl-nq-term-to-sx (first (pl-args w)))
(pl-nq-list-walked (nth (pl-args w) 1))))
(true (list :not-list)))))
(define pl-nq-list-to-sx (fn (t) (pl-nq-list-walked (pl-walk-deep t))))
(define
pl-nq-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define
pl-nq-prog-src
"queens(L, Qs) :- permute(L, Qs), safe(Qs). permute([], []). permute(L, [H|T]) :- select(H, L, R), permute(R, T). select(X, [X|T], T). select(X, [H|T], [H|R]) :- select(X, T, R). safe([]). safe([Q|Qs]) :- safe(Qs), no_attack(Q, Qs, 1). no_attack(_, [], _). no_attack(Q, [Q1|Qs], D) :- is(D2, +(Q, D)), \\=(D2, Q1), is(D3, -(Q, D)), \\=(D3, Q1), is(D1, +(D, 1)), no_attack(Q, Qs, D1).")
(define pl-nq-db (pl-mk-db))
(pl-db-load! pl-nq-db (pl-parse pl-nq-prog-src))
(pl-nq-test!
"queens([1], Qs) → 1 solution"
(pl-solve-count!
pl-nq-db
(pl-nq-goal "queens([1], Qs)" {})
(pl-mk-trail))
1)
(pl-nq-test!
"queens([1, 2], Qs) → 0 solutions"
(pl-solve-count!
pl-nq-db
(pl-nq-goal "queens([1, 2], Qs)" {})
(pl-mk-trail))
0)
(pl-nq-test!
"queens([1, 2, 3], Qs) → 0 solutions"
(pl-solve-count!
pl-nq-db
(pl-nq-goal "queens([1, 2, 3], Qs)" {})
(pl-mk-trail))
0)
(pl-nq-test!
"queens([1, 2, 3, 4], Qs) → 2 solutions"
(pl-solve-count!
pl-nq-db
(pl-nq-goal "queens([1, 2, 3, 4], Qs)" {})
(pl-mk-trail))
2)
(pl-nq-test!
"queens([1, 2, 3, 4, 5], Qs) → 10 solutions"
(pl-solve-count!
pl-nq-db
(pl-nq-goal "queens([1, 2, 3, 4, 5], Qs)" {})
(pl-mk-trail))
10)
(define pl-nq-env-1 {})
(define pl-nq-goal-1 (pl-nq-goal "queens([1, 2, 3, 4], Qs)" pl-nq-env-1))
(pl-solve-once! pl-nq-db pl-nq-goal-1 (pl-mk-trail))
(pl-nq-test!
"queens([1..4], Qs) first solution = [2, 4, 1, 3]"
(pl-nq-list-to-sx (dict-get pl-nq-env-1 "Qs"))
(list 2 4 1 3))
(define pl-nqueens-tests-run! (fn () {:failed pl-nq-test-fail :passed pl-nq-test-pass :total pl-nq-test-count :failures pl-nq-test-failures}))

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%% reverse/2 — naive reverse via append/3.
%% Quadratic accumulates the reversed prefix one append per cons.
reverse([], []).
reverse([H|T], R) :- reverse(T, RT), append(RT, [H], R).
append([], L, L).
append([H|T], L, [H|R]) :- append(T, L, R).

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;; lib/prolog/tests/programs/reverse.sx — naive reverse/2 via append/3.
;;
;; Mirrors reverse.pl (embedded as a string here).
(define pl-rv-test-count 0)
(define pl-rv-test-pass 0)
(define pl-rv-test-fail 0)
(define pl-rv-test-failures (list))
(define
pl-rv-test!
(fn
(name got expected)
(begin
(set! pl-rv-test-count (+ pl-rv-test-count 1))
(if
(= got expected)
(set! pl-rv-test-pass (+ pl-rv-test-pass 1))
(begin
(set! pl-rv-test-fail (+ pl-rv-test-fail 1))
(append!
pl-rv-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-rv-term-to-sx
(fn
(t)
(cond
((pl-num? t) (pl-num-val t))
((pl-atom? t) (pl-atom-name t))
(true (list :complex)))))
(define
pl-rv-list-walked
(fn
(w)
(cond
((and (pl-atom? w) (= (pl-atom-name w) "[]")) (list))
((and (pl-compound? w) (= (pl-fun w) ".") (= (len (pl-args w)) 2))
(cons
(pl-rv-term-to-sx (first (pl-args w)))
(pl-rv-list-walked (nth (pl-args w) 1))))
(true (list :not-list)))))
(define pl-rv-list-to-sx (fn (t) (pl-rv-list-walked (pl-walk-deep t))))
(define
pl-rv-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define
pl-rv-prog-src
"reverse([], []). reverse([H|T], R) :- reverse(T, RT), append(RT, [H], R). append([], L, L). append([H|T], L, [H|R]) :- append(T, L, R).")
(define pl-rv-db (pl-mk-db))
(pl-db-load! pl-rv-db (pl-parse pl-rv-prog-src))
(define pl-rv-env-1 {})
(define pl-rv-goal-1 (pl-rv-goal "reverse([], X)" pl-rv-env-1))
(pl-solve-once! pl-rv-db pl-rv-goal-1 (pl-mk-trail))
(pl-rv-test!
"reverse([], X) → X = []"
(pl-rv-list-to-sx (dict-get pl-rv-env-1 "X"))
(list))
(define pl-rv-env-2 {})
(define pl-rv-goal-2 (pl-rv-goal "reverse([1], X)" pl-rv-env-2))
(pl-solve-once! pl-rv-db pl-rv-goal-2 (pl-mk-trail))
(pl-rv-test!
"reverse([1], X) → X = [1]"
(pl-rv-list-to-sx (dict-get pl-rv-env-2 "X"))
(list 1))
(define pl-rv-env-3 {})
(define pl-rv-goal-3 (pl-rv-goal "reverse([1, 2, 3], X)" pl-rv-env-3))
(pl-solve-once! pl-rv-db pl-rv-goal-3 (pl-mk-trail))
(pl-rv-test!
"reverse([1, 2, 3], X) → X = [3, 2, 1]"
(pl-rv-list-to-sx (dict-get pl-rv-env-3 "X"))
(list 3 2 1))
(define pl-rv-env-4 {})
(define pl-rv-goal-4 (pl-rv-goal "reverse([a, b, c, d], X)" pl-rv-env-4))
(pl-solve-once! pl-rv-db pl-rv-goal-4 (pl-mk-trail))
(pl-rv-test!
"reverse([a, b, c, d], X) → X = [d, c, b, a]"
(pl-rv-list-to-sx (dict-get pl-rv-env-4 "X"))
(list "d" "c" "b" "a"))
(pl-rv-test!
"reverse([1, 2, 3], [3, 2, 1]) succeeds"
(pl-solve-once!
pl-rv-db
(pl-rv-goal "reverse([1, 2, 3], [3, 2, 1])" {})
(pl-mk-trail))
true)
(pl-rv-test!
"reverse([1, 2], [1, 2]) fails"
(pl-solve-once!
pl-rv-db
(pl-rv-goal "reverse([1, 2], [1, 2])" {})
(pl-mk-trail))
false)
(define pl-reverse-tests-run! (fn () {:failed pl-rv-test-fail :passed pl-rv-test-pass :total pl-rv-test-count :failures pl-rv-test-failures}))

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;; lib/prolog/tests/query_api.sx — tests for pl-load/pl-query-all/pl-query-one/pl-query
(define pl-qa-test-count 0)
(define pl-qa-test-pass 0)
(define pl-qa-test-fail 0)
(define pl-qa-test-failures (list))
(define
pl-qa-test!
(fn
(name got expected)
(begin
(set! pl-qa-test-count (+ pl-qa-test-count 1))
(if
(= got expected)
(set! pl-qa-test-pass (+ pl-qa-test-pass 1))
(begin
(set! pl-qa-test-fail (+ pl-qa-test-fail 1))
(append!
pl-qa-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-qa-src
"parent(tom, bob). parent(tom, liz). parent(bob, ann). ancestor(X, Y) :- parent(X, Y). ancestor(X, Y) :- parent(X, Z), ancestor(Z, Y).")
(define pl-qa-db (pl-load pl-qa-src))
;; ── pl-load ──
(pl-qa-test!
"pl-load returns a usable DB (pl-query-all non-nil)"
(not (nil? pl-qa-db))
true)
;; ── pl-query-all: basic fact lookup ──
(pl-qa-test!
"query-all parent(tom, X): 2 solutions"
(len (pl-query-all pl-qa-db "parent(tom, X)"))
2)
(pl-qa-test!
"query-all parent(tom, X): first solution X=bob"
(dict-get (first (pl-query-all pl-qa-db "parent(tom, X)")) "X")
"bob")
(pl-qa-test!
"query-all parent(tom, X): second solution X=liz"
(dict-get (nth (pl-query-all pl-qa-db "parent(tom, X)") 1) "X")
"liz")
;; ── pl-query-all: no solutions ──
(pl-qa-test!
"query-all no solutions returns empty list"
(pl-query-all pl-qa-db "parent(liz, X)")
(list))
;; ── pl-query-all: boolean query (no vars) ──
(pl-qa-test!
"boolean success: 1 solution (empty dict)"
(len (pl-query-all pl-qa-db "parent(tom, bob)"))
1)
(pl-qa-test!
"boolean success: solution has no bindings"
(empty? (keys (first (pl-query-all pl-qa-db "parent(tom, bob)"))))
true)
(pl-qa-test!
"boolean fail: 0 solutions"
(len (pl-query-all pl-qa-db "parent(bob, tom)"))
0)
;; ── pl-query-all: multi-var ──
(pl-qa-test!
"query-all parent(X, Y): 3 solutions total"
(len (pl-query-all pl-qa-db "parent(X, Y)"))
3)
;; ── pl-query-all: rule-based (ancestor/2) ──
(pl-qa-test!
"query-all ancestor(tom, X): 3 descendants (bob, liz, ann)"
(len (pl-query-all pl-qa-db "ancestor(tom, X)"))
3)
;; ── pl-query-all: built-in in query ──
(pl-qa-test!
"query with is/2 built-in"
(dict-get (first (pl-query-all pl-qa-db "X is 2 + 3")) "X")
"5")
;; ── pl-query-one ──
(pl-qa-test!
"query-one returns first solution"
(dict-get (pl-query-one pl-qa-db "parent(tom, X)") "X")
"bob")
(pl-qa-test!
"query-one returns nil for no solutions"
(pl-query-one pl-qa-db "parent(liz, X)")
nil)
;; ── pl-query convenience ──
(pl-qa-test!
"pl-query convenience: count solutions"
(len (pl-query "likes(alice, bob). likes(alice, carol)." "likes(alice, X)"))
2)
(pl-qa-test!
"pl-query convenience: first solution"
(dict-get (first (pl-query "likes(alice, bob). likes(alice, carol)." "likes(alice, X)")) "X")
"bob")
(pl-qa-test!
"pl-query with empty source (built-ins only)"
(dict-get (first (pl-query "" "X is 6 * 7")) "X")
"42")
(define pl-query-api-tests-run! (fn () {:failed pl-qa-test-fail :passed pl-qa-test-pass :total pl-qa-test-count :failures pl-qa-test-failures}))

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;; lib/prolog/tests/set_predicates.sx — foldl/4, list_to_set/2, intersection/3, subtract/3, union/3
(define pl-sp-test-count 0)
(define pl-sp-test-pass 0)
(define pl-sp-test-fail 0)
(define pl-sp-test-failures (list))
(define
pl-sp-test!
(fn
(name got expected)
(begin
(set! pl-sp-test-count (+ pl-sp-test-count 1))
(if
(= got expected)
(set! pl-sp-test-pass (+ pl-sp-test-pass 1))
(begin
(set! pl-sp-test-fail (+ pl-sp-test-fail 1))
(append!
pl-sp-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-sp-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
;; DB with add/3 for foldl tests
(define pl-sp-db (pl-mk-db))
(pl-db-load! pl-sp-db (pl-parse "add(X, Acc, NAcc) :- NAcc is Acc + X."))
;; ── foldl/4 ────────────────────────────────────────────────────────
(define pl-sp-env-fl1 {:S (pl-mk-rt-var "S")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "foldl(add, [1,2,3,4], 0, S)" pl-sp-env-fl1)
(pl-mk-trail))
(pl-sp-test!
"foldl(add,[1,2,3,4],0,S) -> S=10"
(pl-num-val (pl-walk-deep (dict-get pl-sp-env-fl1 "S")))
10)
(define pl-sp-env-fl2 {:S (pl-mk-rt-var "S")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "foldl(add, [], 5, S)" pl-sp-env-fl2)
(pl-mk-trail))
(pl-sp-test!
"foldl(add,[],5,S) -> S=5"
(pl-num-val (pl-walk-deep (dict-get pl-sp-env-fl2 "S")))
5)
(define pl-sp-env-fl3 {:S (pl-mk-rt-var "S")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "foldl(add, [1,2,3], 0, S)" pl-sp-env-fl3)
(pl-mk-trail))
(pl-sp-test!
"foldl(add,[1,2,3],0,S) -> S=6"
(pl-num-val (pl-walk-deep (dict-get pl-sp-env-fl3 "S")))
6)
;; ── list_to_set/2 ──────────────────────────────────────────────────
(define pl-sp-env-lts1 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "list_to_set([1,2,3,2,1], R)" pl-sp-env-lts1)
(pl-mk-trail))
(pl-sp-test!
"list_to_set([1,2,3,2,1],R) -> [1,2,3]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-lts1 "R")))
".(1, .(2, .(3, [])))")
(define pl-sp-env-lts2 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "list_to_set([], R)" pl-sp-env-lts2)
(pl-mk-trail))
(pl-sp-test!
"list_to_set([],R) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-lts2 "R")))
"[]")
(define pl-sp-env-lts3 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "list_to_set([a,b,a,c], R)" pl-sp-env-lts3)
(pl-mk-trail))
(pl-sp-test!
"list_to_set([a,b,a,c],R) -> [a,b,c]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-lts3 "R")))
".(a, .(b, .(c, [])))")
;; ── intersection/3 ─────────────────────────────────────────────────
(define pl-sp-env-int1 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "intersection([1,2,3,4], [2,4,6], R)" pl-sp-env-int1)
(pl-mk-trail))
(pl-sp-test!
"intersection([1,2,3,4],[2,4,6],R) -> [2,4]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-int1 "R")))
".(2, .(4, []))")
(define pl-sp-env-int2 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "intersection([1,2,3], [4,5,6], R)" pl-sp-env-int2)
(pl-mk-trail))
(pl-sp-test!
"intersection([1,2,3],[4,5,6],R) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-int2 "R")))
"[]")
(define pl-sp-env-int3 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "intersection([], [1,2,3], R)" pl-sp-env-int3)
(pl-mk-trail))
(pl-sp-test!
"intersection([],[1,2,3],R) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-int3 "R")))
"[]")
;; ── subtract/3 ─────────────────────────────────────────────────────
(define pl-sp-env-sub1 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "subtract([1,2,3,4], [2,4], R)" pl-sp-env-sub1)
(pl-mk-trail))
(pl-sp-test!
"subtract([1,2,3,4],[2,4],R) -> [1,3]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-sub1 "R")))
".(1, .(3, []))")
(define pl-sp-env-sub2 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "subtract([1,2,3], [], R)" pl-sp-env-sub2)
(pl-mk-trail))
(pl-sp-test!
"subtract([1,2,3],[],R) -> [1,2,3]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-sub2 "R")))
".(1, .(2, .(3, [])))")
(define pl-sp-env-sub3 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "subtract([], [1,2], R)" pl-sp-env-sub3)
(pl-mk-trail))
(pl-sp-test!
"subtract([],[1,2],R) -> []"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-sub3 "R")))
"[]")
;; ── union/3 ────────────────────────────────────────────────────────
(define pl-sp-env-uni1 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "union([1,2,3], [2,3,4], R)" pl-sp-env-uni1)
(pl-mk-trail))
(pl-sp-test!
"union([1,2,3],[2,3,4],R) -> [1,2,3,4]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-uni1 "R")))
".(1, .(2, .(3, .(4, []))))")
(define pl-sp-env-uni2 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "union([], [1,2], R)" pl-sp-env-uni2)
(pl-mk-trail))
(pl-sp-test!
"union([],[1,2],R) -> [1,2]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-uni2 "R")))
".(1, .(2, []))")
(define pl-sp-env-uni3 {:R (pl-mk-rt-var "R")})
(pl-solve-once!
pl-sp-db
(pl-sp-goal "union([1,2], [], R)" pl-sp-env-uni3)
(pl-mk-trail))
(pl-sp-test!
"union([1,2],[],R) -> [1,2]"
(pl-format-term (pl-walk-deep (dict-get pl-sp-env-uni3 "R")))
".(1, .(2, []))")
;; ── Runner ─────────────────────────────────────────────────────────
(define pl-set-predicates-tests-run! (fn () {:failed pl-sp-test-fail :passed pl-sp-test-pass :total pl-sp-test-count :failures pl-sp-test-failures}))

618
lib/prolog/tests/solve.sx Normal file
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@@ -0,0 +1,618 @@
;; lib/prolog/tests/solve.sx — DFS solver unit tests
(define pl-s-test-count 0)
(define pl-s-test-pass 0)
(define pl-s-test-fail 0)
(define pl-s-test-failures (list))
(define
pl-s-test!
(fn
(name got expected)
(begin
(set! pl-s-test-count (+ pl-s-test-count 1))
(if
(= got expected)
(set! pl-s-test-pass (+ pl-s-test-pass 1))
(begin
(set! pl-s-test-fail (+ pl-s-test-fail 1))
(append!
pl-s-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-s-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-s-empty-db (pl-mk-db))
(pl-s-test!
"true succeeds"
(pl-solve-once! pl-s-empty-db (pl-s-goal "true" {}) (pl-mk-trail))
true)
(pl-s-test!
"fail fails"
(pl-solve-once! pl-s-empty-db (pl-s-goal "fail" {}) (pl-mk-trail))
false)
(pl-s-test!
"= identical atoms"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(a, a)" {})
(pl-mk-trail))
true)
(pl-s-test!
"= different atoms"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(a, b)" {})
(pl-mk-trail))
false)
(pl-s-test!
"= var to atom"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(X, foo)" {})
(pl-mk-trail))
true)
(define pl-s-env-bind {})
(define pl-s-trail-bind (pl-mk-trail))
(define pl-s-goal-bind (pl-s-goal "=(X, foo)" pl-s-env-bind))
(pl-solve-once! pl-s-empty-db pl-s-goal-bind pl-s-trail-bind)
(pl-s-test!
"X bound to foo after =(X, foo)"
(pl-atom-name (pl-walk-deep (dict-get pl-s-env-bind "X")))
"foo")
(pl-s-test!
"true , true succeeds"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "true, true" {})
(pl-mk-trail))
true)
(pl-s-test!
"true , fail fails"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "true, fail" {})
(pl-mk-trail))
false)
(pl-s-test!
"consistent X bindings succeed"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(X, a), =(X, a)" {})
(pl-mk-trail))
true)
(pl-s-test!
"conflicting X bindings fail"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(X, a), =(X, b)" {})
(pl-mk-trail))
false)
(define pl-s-db1 (pl-mk-db))
(pl-db-load!
pl-s-db1
(pl-parse "parent(tom, bob). parent(bob, liz). parent(bob, ann)."))
(pl-s-test!
"fact lookup hit"
(pl-solve-once!
pl-s-db1
(pl-s-goal "parent(tom, bob)" {})
(pl-mk-trail))
true)
(pl-s-test!
"fact lookup miss"
(pl-solve-once!
pl-s-db1
(pl-s-goal "parent(tom, liz)" {})
(pl-mk-trail))
false)
(pl-s-test!
"all parent solutions"
(pl-solve-count!
pl-s-db1
(pl-s-goal "parent(X, Y)" {})
(pl-mk-trail))
3)
(pl-s-test!
"fixed first arg solutions"
(pl-solve-count!
pl-s-db1
(pl-s-goal "parent(bob, Y)" {})
(pl-mk-trail))
2)
(define pl-s-db2 (pl-mk-db))
(pl-db-load!
pl-s-db2
(pl-parse
"parent(tom, bob). parent(bob, ann). ancestor(X, Y) :- parent(X, Y). ancestor(X, Z) :- parent(X, Y), ancestor(Y, Z)."))
(pl-s-test!
"rule direct ancestor"
(pl-solve-once!
pl-s-db2
(pl-s-goal "ancestor(tom, bob)" {})
(pl-mk-trail))
true)
(pl-s-test!
"rule transitive ancestor"
(pl-solve-once!
pl-s-db2
(pl-s-goal "ancestor(tom, ann)" {})
(pl-mk-trail))
true)
(pl-s-test!
"rule no path"
(pl-solve-once!
pl-s-db2
(pl-s-goal "ancestor(ann, tom)" {})
(pl-mk-trail))
false)
(define pl-s-env-undo {})
(define pl-s-trail-undo (pl-mk-trail))
(define pl-s-goal-undo (pl-s-goal "=(X, a), fail" pl-s-env-undo))
(pl-solve-once! pl-s-empty-db pl-s-goal-undo pl-s-trail-undo)
(pl-s-test!
"trail undone after failure leaves X unbound"
(pl-var-bound? (dict-get pl-s-env-undo "X"))
false)
(define pl-s-db-cut1 (pl-mk-db))
(pl-db-load! pl-s-db-cut1 (pl-parse "g :- !. g :- true."))
(pl-s-test!
"bare cut succeeds"
(pl-solve-once! pl-s-db-cut1 (pl-s-goal "g" {}) (pl-mk-trail))
true)
(pl-s-test!
"cut commits to first matching clause"
(pl-solve-count! pl-s-db-cut1 (pl-s-goal "g" {}) (pl-mk-trail))
1)
(define pl-s-db-cut2 (pl-mk-db))
(pl-db-load! pl-s-db-cut2 (pl-parse "a(1). a(2). g(X) :- a(X), !."))
(pl-s-test!
"cut commits to first a solution"
(pl-solve-count! pl-s-db-cut2 (pl-s-goal "g(X)" {}) (pl-mk-trail))
1)
(define pl-s-db-cut3 (pl-mk-db))
(pl-db-load!
pl-s-db-cut3
(pl-parse "a(1). a(2). g(X) :- a(X), !, fail. g(99)."))
(pl-s-test!
"cut then fail blocks alt clauses"
(pl-solve-count! pl-s-db-cut3 (pl-s-goal "g(X)" {}) (pl-mk-trail))
0)
(define pl-s-db-cut4 (pl-mk-db))
(pl-db-load!
pl-s-db-cut4
(pl-parse "a(1). b(10). b(20). g(X, Y) :- a(X), !, b(Y)."))
(pl-s-test!
"post-cut goal backtracks freely"
(pl-solve-count!
pl-s-db-cut4
(pl-s-goal "g(X, Y)" {})
(pl-mk-trail))
2)
(define pl-s-db-cut5 (pl-mk-db))
(pl-db-load!
pl-s-db-cut5
(pl-parse "r(1). r(2). q :- r(X), !. p :- q. p :- true."))
(pl-s-test!
"inner cut does not commit outer predicate"
(pl-solve-count! pl-s-db-cut5 (pl-s-goal "p" {}) (pl-mk-trail))
2)
(pl-s-test!
"\\= different atoms succeeds"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "\\=(a, b)" {})
(pl-mk-trail))
true)
(pl-s-test!
"\\= same atoms fails"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "\\=(a, a)" {})
(pl-mk-trail))
false)
(pl-s-test!
"\\= var-vs-atom would unify so fails"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "\\=(X, a)" {})
(pl-mk-trail))
false)
(define pl-s-env-ne {})
(define pl-s-trail-ne (pl-mk-trail))
(define pl-s-goal-ne (pl-s-goal "\\=(X, a)" pl-s-env-ne))
(pl-solve-once! pl-s-empty-db pl-s-goal-ne pl-s-trail-ne)
(pl-s-test!
"\\= leaves no bindings"
(pl-var-bound? (dict-get pl-s-env-ne "X"))
false)
(pl-s-test!
"; left succeeds"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal ";(true, fail)" {})
(pl-mk-trail))
true)
(pl-s-test!
"; right succeeds when left fails"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal ";(fail, true)" {})
(pl-mk-trail))
true)
(pl-s-test!
"; both fail"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal ";(fail, fail)" {})
(pl-mk-trail))
false)
(pl-s-test!
"; both branches counted"
(pl-solve-count!
pl-s-empty-db
(pl-s-goal ";(true, true)" {})
(pl-mk-trail))
2)
(define pl-s-db-call (pl-mk-db))
(pl-db-load! pl-s-db-call (pl-parse "p(1). p(2)."))
(pl-s-test!
"call(true) succeeds"
(pl-solve-once!
pl-s-db-call
(pl-s-goal "call(true)" {})
(pl-mk-trail))
true)
(pl-s-test!
"call(p(X)) yields all solutions"
(pl-solve-count!
pl-s-db-call
(pl-s-goal "call(p(X))" {})
(pl-mk-trail))
2)
(pl-s-test!
"call of bound goal var resolves"
(pl-solve-once!
pl-s-db-call
(pl-s-goal "=(G, true), call(G)" {})
(pl-mk-trail))
true)
(define pl-s-db-ite (pl-mk-db))
(pl-db-load! pl-s-db-ite (pl-parse "p(1). p(2). q(yes). q(no)."))
(pl-s-test!
"if-then-else: cond true → then runs"
(pl-solve-once!
pl-s-db-ite
(pl-s-goal ";(->(true, =(X, ok)), =(X, fallback))" {})
(pl-mk-trail))
true)
(define pl-s-env-ite1 {})
(pl-solve-once!
pl-s-db-ite
(pl-s-goal ";(->(true, =(X, ok)), =(X, fallback))" pl-s-env-ite1)
(pl-mk-trail))
(pl-s-test!
"if-then-else: cond true binds via then"
(pl-atom-name (pl-walk-deep (dict-get pl-s-env-ite1 "X")))
"ok")
(pl-s-test!
"if-then-else: cond false → else"
(pl-solve-once!
pl-s-db-ite
(pl-s-goal ";(->(fail, =(X, ok)), =(X, fallback))" {})
(pl-mk-trail))
true)
(define pl-s-env-ite2 {})
(pl-solve-once!
pl-s-db-ite
(pl-s-goal ";(->(fail, =(X, ok)), =(X, fallback))" pl-s-env-ite2)
(pl-mk-trail))
(pl-s-test!
"if-then-else: cond false binds via else"
(pl-atom-name (pl-walk-deep (dict-get pl-s-env-ite2 "X")))
"fallback")
(pl-s-test!
"if-then-else: cond commits to first solution (count = 1)"
(pl-solve-count!
pl-s-db-ite
(pl-s-goal ";(->(p(X), =(Y, found)), =(Y, none))" {})
(pl-mk-trail))
1)
(pl-s-test!
"if-then-else: then can backtrack"
(pl-solve-count!
pl-s-db-ite
(pl-s-goal ";(->(true, p(X)), =(X, none))" {})
(pl-mk-trail))
2)
(pl-s-test!
"if-then-else: else can backtrack"
(pl-solve-count!
pl-s-db-ite
(pl-s-goal ";(->(fail, =(X, ignored)), p(X))" {})
(pl-mk-trail))
2)
(pl-s-test!
"standalone -> with true cond succeeds"
(pl-solve-once!
pl-s-db-ite
(pl-s-goal "->(true, =(X, hi))" {})
(pl-mk-trail))
true)
(pl-s-test!
"standalone -> with false cond fails"
(pl-solve-once!
pl-s-db-ite
(pl-s-goal "->(fail, =(X, hi))" {})
(pl-mk-trail))
false)
(pl-s-test!
"write(hello)"
(begin
(pl-output-clear!)
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "write(hello)" {})
(pl-mk-trail))
pl-output-buffer)
"hello")
(pl-s-test!
"nl outputs newline"
(begin
(pl-output-clear!)
(pl-solve-once! pl-s-empty-db (pl-s-goal "nl" {}) (pl-mk-trail))
pl-output-buffer)
"\n")
(pl-s-test!
"write(42) outputs digits"
(begin
(pl-output-clear!)
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "write(42)" {})
(pl-mk-trail))
pl-output-buffer)
"42")
(pl-s-test!
"write(foo(a, b)) formats compound"
(begin
(pl-output-clear!)
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "write(foo(a, b))" {})
(pl-mk-trail))
pl-output-buffer)
"foo(a, b)")
(pl-s-test!
"write conjunction"
(begin
(pl-output-clear!)
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "write(a), write(b)" {})
(pl-mk-trail))
pl-output-buffer)
"ab")
(pl-s-test!
"write of bound var walks binding"
(begin
(pl-output-clear!)
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(X, hello), write(X)" {})
(pl-mk-trail))
pl-output-buffer)
"hello")
(pl-s-test!
"write then nl"
(begin
(pl-output-clear!)
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "write(hi), nl" {})
(pl-mk-trail))
pl-output-buffer)
"hi\n")
(define pl-s-env-arith1 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, 42)" pl-s-env-arith1)
(pl-mk-trail))
(pl-s-test!
"is(X, 42) binds X to 42"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith1 "X")))
42)
(define pl-s-env-arith2 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, +(2, 3))" pl-s-env-arith2)
(pl-mk-trail))
(pl-s-test!
"is(X, +(2, 3)) binds X to 5"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith2 "X")))
5)
(define pl-s-env-arith3 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, *(2, 3))" pl-s-env-arith3)
(pl-mk-trail))
(pl-s-test!
"is(X, *(2, 3)) binds X to 6"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith3 "X")))
6)
(define pl-s-env-arith4 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, -(10, 3))" pl-s-env-arith4)
(pl-mk-trail))
(pl-s-test!
"is(X, -(10, 3)) binds X to 7"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith4 "X")))
7)
(define pl-s-env-arith5 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, /(10, 2))" pl-s-env-arith5)
(pl-mk-trail))
(pl-s-test!
"is(X, /(10, 2)) binds X to 5"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith5 "X")))
5)
(define pl-s-env-arith6 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, mod(10, 3))" pl-s-env-arith6)
(pl-mk-trail))
(pl-s-test!
"is(X, mod(10, 3)) binds X to 1"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith6 "X")))
1)
(define pl-s-env-arith7 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, abs(-(0, 5)))" pl-s-env-arith7)
(pl-mk-trail))
(pl-s-test!
"is(X, abs(-(0, 5))) binds X to 5"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith7 "X")))
5)
(define pl-s-env-arith8 {})
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(X, +(2, *(3, 4)))" pl-s-env-arith8)
(pl-mk-trail))
(pl-s-test!
"is(X, +(2, *(3, 4))) binds X to 14 (nested)"
(pl-num-val (pl-walk-deep (dict-get pl-s-env-arith8 "X")))
14)
(pl-s-test!
"is(5, +(2, 3)) succeeds (LHS num matches)"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(5, +(2, 3))" {})
(pl-mk-trail))
true)
(pl-s-test!
"is(6, +(2, 3)) fails (LHS num mismatch)"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "is(6, +(2, 3))" {})
(pl-mk-trail))
false)
(pl-s-test!
"is propagates bound vars on RHS"
(pl-solve-once!
pl-s-empty-db
(pl-s-goal "=(Y, 4), is(X, +(Y, 1)), =(X, 5)" {})
(pl-mk-trail))
true)
(define pl-solve-tests-run! (fn () {:failed pl-s-test-fail :passed pl-s-test-pass :total pl-s-test-count :failures pl-s-test-failures}))

View File

@@ -0,0 +1,273 @@
;; lib/prolog/tests/string_agg.sx -- sub_atom/5 + aggregate_all/3
(define pl-sa-test-count 0)
(define pl-sa-test-pass 0)
(define pl-sa-test-fail 0)
(define pl-sa-test-failures (list))
(define
pl-sa-test!
(fn
(name got expected)
(begin
(set! pl-sa-test-count (+ pl-sa-test-count 1))
(if
(= got expected)
(set! pl-sa-test-pass (+ pl-sa-test-pass 1))
(begin
(set! pl-sa-test-fail (+ pl-sa-test-fail 1))
(append!
pl-sa-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-sa-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-sa-db (pl-mk-db))
(define
pl-sa-num-val
(fn (env key) (pl-num-val (pl-walk-deep (dict-get env key)))))
(define
pl-sa-list-to-atoms
(fn
(t)
(let
((w (pl-walk-deep t)))
(cond
((and (pl-atom? w) (= (pl-atom-name w) "[]")) (list))
((and (pl-compound? w) (= (pl-fun w) ".") (= (len (pl-args w)) 2))
(cons
(pl-atom-name (first (pl-args w)))
(pl-sa-list-to-atoms (nth (pl-args w) 1))))
(true (list))))))
(define pl-sa-prog-src "member(X, [X|_]). member(X, [_|T]) :- member(X, T).")
(pl-db-load! pl-sa-db (pl-parse pl-sa-prog-src))
;; -- sub_atom/5 --
(pl-sa-test!
"sub_atom ground: sub_atom(abcde,0,3,2,abc)"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(abcde, 0, 3, 2, abc)" {})
(pl-mk-trail))
true)
(pl-sa-test!
"sub_atom ground: sub_atom(abcde,2,2,1,cd)"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(abcde, 2, 2, 1, cd)" {})
(pl-mk-trail))
true)
(pl-sa-test!
"sub_atom ground mismatch fails"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(abcde, 0, 2, 3, cd)" {})
(pl-mk-trail))
false)
(pl-sa-test!
"sub_atom empty sub at start"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(abcde, 0, 0, 5, '')" {})
(pl-mk-trail))
true)
(pl-sa-test!
"sub_atom whole string"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(hello, 0, 5, 0, hello)" {})
(pl-mk-trail))
true)
(define pl-sa-env-b1 {})
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(abcde, B, 2, A, cd)" pl-sa-env-b1)
(pl-mk-trail))
(pl-sa-test!
"sub_atom bound SubAtom gives B=2"
(pl-sa-num-val pl-sa-env-b1 "B")
2)
(pl-sa-test!
"sub_atom bound SubAtom gives A=1"
(pl-sa-num-val pl-sa-env-b1 "A")
1)
(define pl-sa-env-b2 {})
(pl-solve-once!
pl-sa-db
(pl-sa-goal "sub_atom(hello, B, L, A, ello)" pl-sa-env-b2)
(pl-mk-trail))
(pl-sa-test! "sub_atom ello: B=1" (pl-sa-num-val pl-sa-env-b2 "B") 1)
(pl-sa-test! "sub_atom ello: L=4" (pl-sa-num-val pl-sa-env-b2 "L") 4)
(pl-sa-test! "sub_atom ello: A=0" (pl-sa-num-val pl-sa-env-b2 "A") 0)
(pl-sa-test!
"sub_atom ab: 6 total solutions"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(count, sub_atom(ab, _, _, _, _), N)" env)
(pl-mk-trail))
(pl-sa-num-val env "N"))
6)
(pl-sa-test!
"sub_atom a: 3 total solutions"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(count, sub_atom(a, _, _, _, _), N)" env)
(pl-mk-trail))
(pl-sa-num-val env "N"))
3)
;; -- aggregate_all/3 --
(pl-sa-test!
"aggregate_all count member [a,b,c] = 3"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(count, member(_, [a,b,c]), N)" env)
(pl-mk-trail))
(pl-sa-num-val env "N"))
3)
(pl-sa-test!
"aggregate_all count fail = 0"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(count, fail, N)" env)
(pl-mk-trail))
(pl-sa-num-val env "N"))
0)
(pl-sa-test!
"aggregate_all count always succeeds"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(count, fail, _)" {})
(pl-mk-trail))
true)
(define pl-sa-env-bag1 {})
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(bag(X), member(X, [a,b,c]), L)" pl-sa-env-bag1)
(pl-mk-trail))
(pl-sa-test!
"aggregate_all bag [a,b,c]"
(pl-sa-list-to-atoms (dict-get pl-sa-env-bag1 "L"))
(list "a" "b" "c"))
(define pl-sa-env-bag2 {})
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(bag(X), member(X, []), L)" pl-sa-env-bag2)
(pl-mk-trail))
(pl-sa-test!
"aggregate_all bag empty goal = []"
(pl-sa-list-to-atoms (dict-get pl-sa-env-bag2 "L"))
(list))
(pl-sa-test!
"aggregate_all sum [1,2,3,4] = 10"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(sum(X), member(X, [1,2,3,4]), S)" env)
(pl-mk-trail))
(pl-sa-num-val env "S"))
10)
(pl-sa-test!
"aggregate_all max [3,1,4,1,5,9,2,6] = 9"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(max(X), member(X, [3,1,4,1,5,9,2,6]), M)" env)
(pl-mk-trail))
(pl-sa-num-val env "M"))
9)
(pl-sa-test!
"aggregate_all max empty fails"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(max(X), member(X, []), M)" {})
(pl-mk-trail))
false)
(pl-sa-test!
"aggregate_all min [3,1,4,1,5,9,2,6] = 1"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(min(X), member(X, [3,1,4,1,5,9,2,6]), M)" env)
(pl-mk-trail))
(pl-sa-num-val env "M"))
1)
(pl-sa-test!
"aggregate_all min empty fails"
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(min(X), member(X, []), M)" {})
(pl-mk-trail))
false)
(define pl-sa-env-set1 {})
(pl-solve-once!
pl-sa-db
(pl-sa-goal
"aggregate_all(set(X), member(X, [b,a,c,a,b]), S)"
pl-sa-env-set1)
(pl-mk-trail))
(pl-sa-test!
"aggregate_all set [b,a,c,a,b] = [a,b,c]"
(pl-sa-list-to-atoms (dict-get pl-sa-env-set1 "S"))
(list "a" "b" "c"))
(define pl-sa-env-set2 {})
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(set(X), fail, S)" pl-sa-env-set2)
(pl-mk-trail))
(pl-sa-test!
"aggregate_all set fail = []"
(pl-sa-list-to-atoms (dict-get pl-sa-env-set2 "S"))
(list))
(pl-sa-test!
"aggregate_all sum empty = 0"
(let
((env {}))
(pl-solve-once!
pl-sa-db
(pl-sa-goal "aggregate_all(sum(X), fail, S)" env)
(pl-mk-trail))
(pl-sa-num-val env "S"))
0)
(define pl-string-agg-tests-run! (fn () {:failed pl-sa-test-fail :passed pl-sa-test-pass :total pl-sa-test-count :failures pl-sa-test-failures}))

View File

@@ -0,0 +1,147 @@
;; lib/prolog/tests/term_inspect.sx — copy_term/2, functor/3, arg/3.
(define pl-tt-test-count 0)
(define pl-tt-test-pass 0)
(define pl-tt-test-fail 0)
(define pl-tt-test-failures (list))
(define
pl-tt-test!
(fn
(name got expected)
(begin
(set! pl-tt-test-count (+ pl-tt-test-count 1))
(if
(= got expected)
(set! pl-tt-test-pass (+ pl-tt-test-pass 1))
(begin
(set! pl-tt-test-fail (+ pl-tt-test-fail 1))
(append!
pl-tt-test-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
pl-tt-goal
(fn
(src env)
(pl-instantiate (nth (first (pl-parse (str "g :- " src "."))) 2) env)))
(define pl-tt-db (pl-mk-db))
;; ── copy_term/2 ──
(pl-tt-test!
"copy_term ground compound succeeds + copy = original"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "copy_term(foo(a, b), X), X = foo(a, b)" {})
(pl-mk-trail))
true)
(pl-tt-test!
"copy_term preserves var aliasing in source"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "copy_term(p(Y, Y), p(A, B)), A = 5, B = 5" {})
(pl-mk-trail))
true)
(pl-tt-test!
"copy_term distinct vars stay distinct"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "copy_term(p(Y, Y), p(A, B)), A = 5, B = 6" {})
(pl-mk-trail))
false)
(define pl-tt-env-1 {})
(pl-solve-once!
pl-tt-db
(pl-tt-goal "copy_term(X, Y), Y = 5" pl-tt-env-1)
(pl-mk-trail))
(pl-tt-test!
"copy_term: binding the copy doesn't bind the source"
(pl-var-bound? (dict-get pl-tt-env-1 "X"))
false)
;; ── functor/3 ──
(define pl-tt-env-2 {})
(pl-solve-once!
pl-tt-db
(pl-tt-goal "functor(foo(a, b, c), F, N)" pl-tt-env-2)
(pl-mk-trail))
(pl-tt-test!
"functor of compound: F = foo"
(pl-atom-name (pl-walk-deep (dict-get pl-tt-env-2 "F")))
"foo")
(pl-tt-test!
"functor of compound: N = 3"
(pl-num-val (pl-walk-deep (dict-get pl-tt-env-2 "N")))
3)
(define pl-tt-env-3 {})
(pl-solve-once!
pl-tt-db
(pl-tt-goal "functor(hello, F, N)" pl-tt-env-3)
(pl-mk-trail))
(pl-tt-test!
"functor of atom: F = hello"
(pl-atom-name (pl-walk-deep (dict-get pl-tt-env-3 "F")))
"hello")
(pl-tt-test!
"functor of atom: N = 0"
(pl-num-val (pl-walk-deep (dict-get pl-tt-env-3 "N")))
0)
(pl-tt-test!
"functor construct compound: T unifies with foo(a, b)"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "functor(T, foo, 2), T = foo(a, b)" {})
(pl-mk-trail))
true)
(pl-tt-test!
"functor construct atom: T = hello"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "functor(T, hello, 0), T = hello" {})
(pl-mk-trail))
true)
;; ── arg/3 ──
(pl-tt-test!
"arg(1, foo(a, b, c), a)"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "arg(1, foo(a, b, c), a)" {})
(pl-mk-trail))
true)
(pl-tt-test!
"arg(2, foo(a, b, c), X) → X = b"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "arg(2, foo(a, b, c), X), X = b" {})
(pl-mk-trail))
true)
(pl-tt-test!
"arg out-of-range high fails"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "arg(4, foo(a, b, c), X)" {})
(pl-mk-trail))
false)
(pl-tt-test!
"arg(0, ...) fails (1-indexed)"
(pl-solve-once!
pl-tt-db
(pl-tt-goal "arg(0, foo(a), X)" {})
(pl-mk-trail))
false)
(define pl-term-inspect-tests-run! (fn () {:failed pl-tt-test-fail :passed pl-tt-test-pass :total pl-tt-test-count :failures pl-tt-test-failures}))

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