Compare commits

..

5 Commits

Author SHA1 Message Date
9437f99e28 acl: hardening suite (+25) — diamonds, cycles, validation, audit save/restore
Some checks failed
Test, Build, and Deploy / test-build-deploy (push) Failing after 35s
New adversarial/cross-phase coverage: diamond resource+group hierarchies
(deny wins per path), chain inheritance + leaf deny, cycle termination,
multi-peer delegation, fact validation, audit snapshot/restore round-trip.
Adds acl-validate-facts/acl-facts-valid? (schema) and acl-audit-snapshot/
restore!/copy (audit). Fixed acl-audit-restore! rebuilding the live log via
map (append! silently no-ops on map-derived lists).

Suite is prover-free: a substrate JIT bug loops the recursive proof
reconstructor on deep chains in warm processes (documented in Blockers);
acl-permit? is unaffected. 145/145.

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-06-06 22:44:28 +00:00
40be9cd074 acl: Phase 4 federation (trust-gated delegation, revocation) + 31 tests
Some checks failed
Test, Build, and Deploy / test-build-deploy (push) Failing after 10m25s
federation.sx adds peer/trust/delegate/level_covers facts and one engine
rule: delegated grants apply only when local trust covers the action,
re-checked every query (non-transitive, fail-safe). Local/inherited deny
overrides federated grants; delegation composes with group and resource
inheritance. acl-revoke!/acl-fed-assert! propagate retraction/assertion;
mock fed-sx transport for tests. Federated proofs reconstruct via the
existing explainer. Roadmap complete: 120/120.

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-06-06 16:54:34 +00:00
15c97119e4 acl: Phase 3 explanation + audit, 35 tests
Some checks failed
Test, Build, and Deploy / test-build-deploy (push) Failing after 40s
explain.sx reconstructs a canonical proof tree (first-rule, first-solution)
by goal-directed search over the saturated db, since Datalog keeps no
provenance; depth-capped for cyclic safety. acl-explain returns
{:allowed? :proof :reason} with the blocking eff_deny proof on denial.
audit.sx is an append-only decision log (monotonic seq, disk serializer).
api gains acl/explain, acl/audit, acl/audit-tail.

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-06-06 16:47:07 +00:00
9261d69cc5 acl: Phase 2 inheritance (groups, resource trees, roles) + 30 tests
Some checks failed
Test, Build, and Deploy / test-build-deploy (push) Failing after 36s
eff_grant/eff_deny derived relations inherit through member_of (group +
role membership) and child_of (resource hierarchy); role_grant confers
role capabilities. Deny-overrides via stratified negation, deny
authoritative across the inheritance closure. Cyclic membership
terminates. Phase 1 suite unchanged.

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-06-06 16:36:24 +00:00
fe47334e52 acl: Phase 1 direct grants + deny-overrides, 24 tests
Some checks failed
Test, Build, and Deploy / test-build-deploy (push) Failing after 56s
Datalog ACL layer (schema/facts/engine/api) over lib/datalog/. Direct
grant permits unless explicit deny names same (S,A,R) — deny-overrides
via stratified negation. Conformance wrapper + scoreboard.

Co-Authored-By: Claude Opus 4.8 (1M context) <noreply@anthropic.com>
2026-06-06 16:32:13 +00:00
66 changed files with 2013 additions and 5414 deletions

45
lib/acl/api.sx Normal file
View File

@@ -0,0 +1,45 @@
;; lib/acl/api.sx — public ACL surface over an implicit current db.
;;
;; Callers load a fact set once, then issue decisions without threading the db
;; through every call. The current db is module state; (acl/load! facts) rebuilds
;; it. This is the boundary the rest of rose-ash imports.
(define acl-current-db nil)
;; Replace the current fact base. Rebuilds the Datalog db under the active
;; ruleset (see lib/acl/engine.sx).
(define
acl/load!
(fn
(facts)
(do (set! acl-current-db (acl-build-db facts)) acl-current-db)))
;; Ensure a db exists, building an empty one on first use.
(define
acl-ensure-db!
(fn
()
(do
(when
(= acl-current-db nil)
(set! acl-current-db (acl-build-db (list))))
acl-current-db)))
;; Public decision against the current db (pure, no logging).
(define
acl/permit?
(fn (subj act res) (acl-permit? (acl-ensure-db!) subj act res)))
;; Decision-with-proof against the current db. See lib/acl/explain.sx.
(define
acl/explain
(fn (subj act res) (acl-explain (acl-ensure-db!) subj act res)))
;; Audited decision: logs the outcome to the append-only audit log and returns
;; the boolean. See lib/acl/audit.sx.
(define
acl/audit
(fn (subj act res) (acl-audit-decide! (acl-ensure-db!) subj act res)))
;; Recent audited decisions (chronological).
(define acl/audit-tail (fn (n) (acl-audit-tail n)))

110
lib/acl/audit.sx Normal file
View File

@@ -0,0 +1,110 @@
;; lib/acl/audit.sx — append-only decision log.
;;
;; Every decision routed through acl-audit-decide! is appended to an in-memory
;; log with a monotonic sequence number (no wall-clock — deterministic and
;; testable; a host can stamp time at the serializer boundary). The log is
;; append-only: there is no mutate or delete, only append, tail, clear,
;; snapshot/restore, and serialize-for-disk.
(define acl-audit-log (list))
(define acl-audit-seq 0)
;; Copy a list into a fresh, append!-able list. `map`/`rest`-derived lists are
;; NOT extensible by append! in this runtime (it silently no-ops), so the live
;; log must always be a list built with `list` + `append!`.
(define
acl-audit-copy
(fn
(xs)
(let
((fresh (list)))
(do (for-each (fn (e) (append! fresh e)) xs) fresh))))
(define
acl-audit-clear!
(fn
()
(do (set! acl-audit-log (list)) (set! acl-audit-seq 0) nil)))
;; Append a decision record. Returns the record.
(define
acl-audit-record!
(fn
(subj act res allowed?)
(let
((entry {:allowed? allowed? :act act :subj subj :res res :seq acl-audit-seq}))
(do
(set! acl-audit-seq (+ acl-audit-seq 1))
(append! acl-audit-log entry)
entry))))
;; Decide against db, log the outcome, and return the boolean. This is the
;; audited path; acl-permit? remains the pure, side-effect-free decision.
(define
acl-audit-decide!
(fn
(db subj act res)
(let
((allowed? (acl-permit? db subj act res)))
(do (acl-audit-record! subj act res allowed?) allowed?))))
(define acl-audit-count (fn () (len acl-audit-log)))
;; Most recent n entries (in chronological order). n >= log size returns all.
(define
acl-audit-tail
(fn
(n)
(let
((total (len acl-audit-log)))
(if
(<= total n)
acl-audit-log
(acl-audit-drop acl-audit-log (- total n))))))
(define
acl-audit-drop
(fn
(xs k)
(if (<= k 0) xs (acl-audit-drop (rest xs) (- k 1)))))
;; Structured snapshot for save/restore — a {:seq :entries} value carrying a
;; copy of the log (so later appends don't mutate a held snapshot).
(define acl-audit-snapshot (fn () {:seq acl-audit-seq :entries (acl-audit-copy acl-audit-log)}))
;; Replace the live log from a snapshot. Restores both entries and the seq
;; counter so subsequent records continue numbering correctly. The log is
;; rebuilt as a fresh append!-able list (see acl-audit-copy).
(define
acl-audit-restore!
(fn
(snap)
(do
(set! acl-audit-log (acl-audit-copy (get snap :entries)))
(set! acl-audit-seq (get snap :seq))
nil)))
;; Serialize the whole log to a disk-ready string: one record per line,
;; "seq\tsubj\tact\tres\tallowed?". A host writes this; structured reload is via
;; snapshot/restore.
(define
acl-audit-serialize
(fn
()
(reduce
(fn
(acc e)
(str
acc
(get e :seq)
"\t"
(get e :subj)
"\t"
(get e :act)
"\t"
(get e :res)
"\t"
(get e :allowed?)
"\n"))
""
acl-audit-log)))

32
lib/acl/conformance.conf Normal file
View File

@@ -0,0 +1,32 @@
# ACL conformance config — sourced by lib/guest/conformance.sh.
LANG_NAME=acl
MODE=dict
PRELOADS=(
lib/datalog/tokenizer.sx
lib/datalog/parser.sx
lib/datalog/unify.sx
lib/datalog/db.sx
lib/datalog/builtins.sx
lib/datalog/aggregates.sx
lib/datalog/strata.sx
lib/datalog/eval.sx
lib/datalog/api.sx
lib/datalog/magic.sx
lib/acl/schema.sx
lib/acl/facts.sx
lib/acl/engine.sx
lib/acl/explain.sx
lib/acl/audit.sx
lib/acl/federation.sx
lib/acl/api.sx
)
SUITES=(
"direct:lib/acl/tests/direct.sx:(acl-direct-tests-run!)"
"inherit:lib/acl/tests/inherit.sx:(acl-inherit-tests-run!)"
"explain:lib/acl/tests/explain.sx:(acl-explain-tests-run!)"
"fed:lib/acl/tests/fed.sx:(acl-fed-tests-run!)"
"harden:lib/acl/tests/harden.sx:(acl-harden-tests-run!)"
)

View File

@@ -1,3 +1,3 @@
#!/usr/bin/env bash
# Thin wrapper — see lib/guest/conformance.sh and lib/mod/conformance.conf.
# Thin wrapper — see lib/guest/conformance.sh and lib/acl/conformance.conf.
exec bash "$(dirname "$0")/../guest/conformance.sh" "$(dirname "$0")/conformance.conf" "$@"

72
lib/acl/engine.sx Normal file
View File

@@ -0,0 +1,72 @@
;; lib/acl/engine.sx — ACL ruleset + decision reducer over lib/datalog/.
;;
;; The engine is a thin layer: it owns the permit ruleset (SX data rules) and
;; reduces a (subject, action, resource) decision to a Datalog query against a
;; db built from EDB facts. The rule engine itself is Datalog's.
;;
;; Policy — inheritance + federation with deny-overrides:
;;
;; eff_grant(S,A,R) :- grant(S,A,R). ; direct
;; eff_grant(S,A,R) :- member_of(S,G), eff_grant(G,A,R). ; group/role chain
;; eff_grant(S,A,R) :- child_of(R,P), eff_grant(S,A,P). ; resource tree
;; eff_grant(S,A,R) :- member_of(S,Role), role_grant(Role,A,R). ; role expansion
;; eff_grant(S,A,R) :- delegate(Peer,S,A,R), ; federated grant
;; trust(Peer,L), level_covers(L,A).
;;
;; eff_deny(S,A,R) :- deny(S,A,R). ; direct
;; eff_deny(S,A,R) :- member_of(S,G), eff_deny(G,A,R). ; group chain
;; eff_deny(S,A,R) :- child_of(R,P), eff_deny(S,A,P). ; resource tree
;;
;; permit(S,A,R) :- eff_grant(S,A,R), not eff_deny(S,A,R).
;;
;; DENY-OVERRIDES: an effective deny anywhere in the inheritance closure of
;; (S,A,R) defeats any effective grant — including federated grants. Deny
;; inherits through the *same* group and resource chains as grant, so a
;; group-level or ancestor-resource deny is authoritative for members/
;; descendants. This is the principled, fail-safe reading of "deny wins".
;;
;; FEDERATION — non-transitive trust: a peer's `delegate` fact only grants if a
;; *local* `trust(Peer, L)` exists AND that level `level_covers` the action.
;; Trust is re-checked on every query (it is a body literal), never baked in at
;; fact-ingestion time, so revoking trust or narrowing a level takes effect
;; immediately on the next decision.
;;
;; Termination & stratification:
;; - eff_grant/eff_deny recurse only over member_of and child_of, which are
;; EDB relations with no function symbols, so the closure is finite (cyclic
;; membership/containment just reaches a fixpoint, never loops). The
;; federation rule is non-recursive.
;; - permit negates eff_deny; neither eff_grant nor eff_deny depends on
;; permit, so the program is stratifiable (permit sits in a higher stratum).
(define
acl-rules
(quote
((eff_grant S A R <- (grant S A R))
(eff_grant S A R <- (member_of S G) (eff_grant G A R))
(eff_grant S A R <- (child_of R P) (eff_grant S A P))
(eff_grant S A R <- (member_of S Role) (role_grant Role A R))
(eff_grant
S
A
R
<-
(delegate Peer S A R)
(trust Peer L)
(level_covers L A))
(eff_deny S A R <- (deny S A R))
(eff_deny S A R <- (member_of S G) (eff_deny G A R))
(eff_deny S A R <- (child_of R P) (eff_deny S A P))
(permit S A R <- (eff_grant S A R) {:neg (eff_deny S A R)}))))
;; Build a Datalog db from a list of EDB facts under the ACL ruleset.
(define acl-build-db (fn (facts) (dl-program-data facts acl-rules)))
;; Core decision: does the db permit subject S to perform action A on
;; resource R? Reduces to a ground Datalog query on the derived `permit`
;; relation — non-empty result means permitted.
(define
acl-permit?
(fn
(db subj act res)
(> (len (dl-query db (list (quote permit) subj act res))) 0)))

125
lib/acl/explain.sx Normal file
View File

@@ -0,0 +1,125 @@
;; lib/acl/explain.sx — proof-tree reconstruction over the saturated db.
;;
;; lib/datalog/ records derived facts but not their provenance, so the proof is
;; reconstructed here by goal-directed search over the *saturated* db: for a
;; ground goal we find the first ACL rule (in rule order) whose body holds, take
;; the first solution binding its remaining variables, and recurse on each body
;; literal. Negated literals are recorded as verified `:neg-ok` leaves.
;;
;; CANONICAL DERIVATION: the Datalog derivation graph is a DAG (a fact may hold
;; many ways). We pick ONE canonical proof — first matching rule, first solution
;; — matching the rule order in lib/acl/engine.sx (direct/EDB rules first). A
;; depth cap guards against pathological cyclic data producing unbounded search.
;;
;; A proof node is one of:
;; {:fact <lit> :via "edb"} — base EDB fact
;; {:fact <lit> :rule <head> :body (<node|negleaf> ...)} — derived
;; {:neg-ok <lit>} — negation verified to fail
;; {:fact <lit> :truncated true} — depth cap hit
(define acl-proof-max-depth 64)
;; Substitute a body literal, descending into {:neg ...} dicts (dl-apply-subst
;; does not recurse into dicts, which would leak the neg's free vars).
(define
acl-subst-lit
(fn
(lit s)
(if
(and (dict? lit) (has-key? lit :neg))
{:neg (dl-apply-subst (get lit :neg) s)}
(dl-apply-subst lit s))))
(define
acl-lit-edb?
(fn
(lit)
(and
(list? lit)
(> (len lit) 0)
(symbol? (first lit))
(has-key? acl-edb-arity (symbol->string (first lit))))))
(define
acl-subst-zip!
(fn
(d ks vs)
(when
(> (len ks) 0)
(do
(dict-set! d (symbol->string (first ks)) (first vs))
(acl-subst-zip! d (rest ks) (rest vs))))))
;; Bind a rule head's variables to a ground goal's arguments (positional).
(define
acl-bind-head
(fn
(head goal)
(let
((d {}))
(do (acl-subst-zip! d (rest head) (rest goal)) d))))
(define
acl-subst-union
(fn
(a b)
(let
((d {}))
(do
(for-each (fn (k) (dict-set! d k (get a k))) (keys a))
(for-each (fn (k) (dict-set! d k (get b k))) (keys b))
d))))
(define acl-prove (fn (db goal) (acl-prove-d db goal 0)))
(define
acl-prove-d
(fn
(db goal depth)
(cond
((> depth acl-proof-max-depth) {:truncated true :fact goal})
((acl-lit-edb? goal)
(if (> (len (dl-query db goal)) 0) {:via "edb" :fact goal} nil))
(else (acl-prove-rules db goal acl-rules depth)))))
(define
acl-prove-rules
(fn
(db goal rules depth)
(if
(= (len rules) 0)
nil
(let
((p (dl-rule-from-list (first rules))))
(if
(= (first (get p :head)) (first goal))
(let
((hs (acl-bind-head (get p :head) goal)))
(let
((qbody (map (fn (l) (acl-subst-lit l hs)) (get p :body))))
(let
((sols (dl-query db qbody)))
(if
(> (len sols) 0)
(acl-prove-build db goal p hs (first sols) depth)
(acl-prove-rules db goal (rest rules) depth)))))
(acl-prove-rules db goal (rest rules) depth))))))
(define
acl-prove-build
(fn
(db goal p hs sol depth)
(let ((full (acl-subst-union hs sol))) {:body (map (fn (l) (let ((g (acl-subst-lit l full))) (if (and (dict? g) (has-key? g :neg)) {:neg-ok (get g :neg)} (acl-prove-d db g (+ depth 1))))) (get p :body)) :rule (get p :head) :fact goal})))
;; Public decision-with-proof. Returns:
;; {:allowed? <bool> :proof <node|nil> :reason <eff_deny proof|nil>}
;; When permitted, :proof is the permit derivation. When denied, :proof is nil
;; and :reason carries the blocking eff_deny proof if one exists (an explicit or
;; inherited deny), else nil (simply no grant).
(define
acl-explain
(fn
(db subj act res)
(let
((proof (acl-prove db (list (quote permit) subj act res))))
(if (= proof nil) {:allowed? false :proof nil :reason (acl-prove db (list (quote eff_deny) subj act res))} {:allowed? true :proof proof :reason nil}))))

47
lib/acl/facts.sx Normal file
View File

@@ -0,0 +1,47 @@
;; lib/acl/facts.sx — EDB fact constructors.
;;
;; Each constructor returns a Datalog fact tuple (a list whose head is the
;; predicate symbol). These are the only shapes lib/acl/engine.sx feeds to
;; lib/datalog/.
;; Phase 1: actor/resource/grant/deny.
;; Phase 2: member_of (subject -> group/role), child_of (resource -> parent),
;; role_grant (role -> action,resource capability).
;; Phase 4: peer/trust/delegate/level_covers (federation).
(define acl-actor (fn (id kind) (list (quote actor) id kind)))
(define acl-resource-fact (fn (id kind) (list (quote resource) id kind)))
(define acl-grant (fn (subj act res) (list (quote grant) subj act res)))
(define acl-deny (fn (subj act res) (list (quote deny) subj act res)))
;; subject S is a member of group/role G (one hop; transitivity is derived).
(define acl-member-of (fn (subj grp) (list (quote member_of) subj grp)))
;; resource R is a child of parent P (one hop; transitivity is derived).
(define acl-child-of (fn (res parent) (list (quote child_of) res parent)))
;; role confers capability (act on res) to every member of the role.
(define
acl-role-grant
(fn (role act res) (list (quote role_grant) role act res)))
;; --- federation ---
;; a known peer instance at addr, of some kind (e.g. peer).
(define acl-peer (fn (addr kind) (list (quote peer) addr kind)))
;; local trust in a peer at a named level. Gates delegated grants at query time.
(define acl-trust (fn (peer level) (list (quote trust) peer level)))
;; a peer asserts that subject S may A on R. Only takes effect if local trust in
;; that peer covers action A (see level_covers).
(define
acl-delegate
(fn (peer subj act res) (list (quote delegate) peer subj act res)))
;; local policy: trust `level` authorises delegated grants for action `act`.
(define
acl-level-covers
(fn (level act) (list (quote level_covers) level act)))

61
lib/acl/federation.sx Normal file
View File

@@ -0,0 +1,61 @@
;; lib/acl/federation.sx — cross-instance ACL facts + revocation.
;;
;; fed-sx replicates ACL facts between instances; this module models the local
;; side. A peer's authority arrives as `delegate(Peer, S, A, R)` facts, which
;; only take effect when a local `trust(Peer, L)` and `level_covers(L, A)`
;; authorise them (enforced by the engine rule, re-checked every query). The
;; actual network transport is fed-sx's job and is mocked in tests as a dict.
;;
;; Trust is NOT transitive: trusting peer α does not extend to peers α trusts.
;; Only delegate facts that α itself asserts, and that local trust covers, flow.
;; Mock fed-sx pull: `transport` is a dict mapping a peer address (its string
;; name) to the list of delegate facts that peer asserts. Returns the facts for
;; `addr`, or an empty list if the peer is unknown / unreachable.
(define
acl-fed-fetch
(fn
(transport addr)
(let
((k (if (symbol? addr) (symbol->string addr) addr)))
(if (has-key? transport k) (get transport k) (list)))))
;; Gather delegate facts from every peer in `addrs` via the transport.
(define
acl-fed-collect
(fn
(transport addrs)
(let
((acc (list)))
(do
(for-each
(fn
(addr)
(for-each
(fn (f) (append! acc f))
(acl-fed-fetch transport addr)))
addrs)
acc))))
;; Build a db from local facts plus delegate facts pulled from `peers`. Local
;; facts must include the `trust`/`level_covers` policy; replicated delegate
;; facts are gated against it by the engine rule at query time.
(define
acl-fed-build-db
(fn
(local-facts transport peers)
(let
((all (list)))
(do
(for-each (fn (f) (append! all f)) local-facts)
(for-each
(fn (f) (append! all f))
(acl-fed-collect transport peers))
(acl-build-db all)))))
;; Propagated revocation: retract a replicated fact (e.g. a peer's delegate, or
;; local trust) from a live db. The next decision re-saturates and reflects it.
(define acl-revoke! (fn (db fact) (do (dl-retract! db fact) db)))
;; Propagated assertion: ingest a newly replicated fact into a live db.
(define acl-fed-assert! (fn (db fact) (do (dl-assert! db fact) db)))

71
lib/acl/schema.sx Normal file
View File

@@ -0,0 +1,71 @@
;; lib/acl/schema.sx — ACL sorts and EDB predicate vocabulary.
;;
;; Datalog is untyped; this module is the schema-as-data layer. It declares
;; the subject/resource/action sorts and the arity of every EDB predicate the
;; ACL engine recognises, plus light validators. Facts that pass these checks
;; are well-formed inputs to lib/acl/engine.sx.
(define acl-subject-kinds (quote (user group role service)))
(define acl-resource-kinds (quote (page post thread peer)))
;; Actions are open-ended (a grant may name any action symbol), but these are
;; the platform's well-known verbs.
(define acl-actions (quote (read edit comment moderate federate)))
;; EDB predicate name -> arity.
;; Phase 1: actor/resource/grant/deny.
;; Phase 2: member_of (subject->group/role), child_of (resource->parent),
;; role_grant (role->action,resource).
;; Phase 4: peer (addr->kind), trust (peer->level),
;; delegate (peer->subj,action,resource), level_covers (level->action).
(define acl-edb-arity {:role_grant 3 :child_of 2 :trust 2 :peer 2 :actor 2 :level_covers 2 :delegate 4 :member_of 2 :deny 3 :grant 3 :resource 2})
(define
acl-member?
(fn
(x xs)
(cond
((= (len xs) 0) false)
((= (first xs) x) true)
(else (acl-member? x (rest xs))))))
(define acl-subject-kind? (fn (k) (acl-member? k acl-subject-kinds)))
(define acl-resource-kind? (fn (k) (acl-member? k acl-resource-kinds)))
(define acl-known-action? (fn (a) (acl-member? a acl-actions)))
;; A fact is a list whose head is a predicate symbol. Valid when the predicate
;; is known and the argument count matches the declared arity.
(define
acl-fact-valid?
(fn
(f)
(and
(list? f)
(> (len f) 0)
(symbol? (first f))
(let
((pred (symbol->string (first f))))
(and
(has-key? acl-edb-arity pred)
(= (- (len f) 1) (get acl-edb-arity pred)))))))
;; Return the sublist of facts that fail acl-fact-valid?. Empty list means the
;; whole set is well-formed. acl-build-db stays lenient (Datalog accepts any
;; tuple, and custom action symbols are allowed); callers opt in to checking.
(define
acl-validate-facts
(fn
(facts)
(let
((bad (list)))
(do
(for-each
(fn (f) (when (not (acl-fact-valid? f)) (append! bad f)))
facts)
bad))))
(define
acl-facts-valid?
(fn (facts) (= (len (acl-validate-facts facts)) 0)))

14
lib/acl/scoreboard.json Normal file
View File

@@ -0,0 +1,14 @@
{
"lang": "acl",
"total_passed": 145,
"total_failed": 0,
"total": 145,
"suites": [
{"name":"direct","passed":24,"failed":0,"total":24},
{"name":"inherit","passed":30,"failed":0,"total":30},
{"name":"explain","passed":35,"failed":0,"total":35},
{"name":"fed","passed":31,"failed":0,"total":31},
{"name":"harden","passed":25,"failed":0,"total":25}
],
"generated": "2026-06-06T22:43:27+00:00"
}

11
lib/acl/scoreboard.md Normal file
View File

@@ -0,0 +1,11 @@
# acl scoreboard
**145 / 145 passing** (0 failure(s)).
| Suite | Passed | Total | Status |
|-------|--------|-------|--------|
| direct | 24 | 24 | ok |
| inherit | 30 | 30 | ok |
| explain | 35 | 35 | ok |
| fed | 31 | 31 | ok |
| harden | 25 | 25 | ok |

170
lib/acl/tests/direct.sx Normal file
View File

@@ -0,0 +1,170 @@
;; lib/acl/tests/direct.sx — Phase 1: direct grants + deny-overrides.
(define acl-dt-pass 0)
(define acl-dt-fail 0)
(define acl-dt-failures (list))
(define
acl-dt-check!
(fn
(name got expected)
(if
(= got expected)
(set! acl-dt-pass (+ acl-dt-pass 1))
(do
(set! acl-dt-fail (+ acl-dt-fail 1))
(append!
acl-dt-failures
(str name "\n expected: " expected "\n got: " got))))))
;; A small fixture used by most cases: alice can read page1, is denied edit on
;; page1, and a service may federate peer1.
(define
acl-dt-fixture
(fn
()
(acl-build-db
(list
(acl-actor (quote alice) (quote user))
(acl-actor (quote svc1) (quote service))
(acl-resource-fact (quote page1) (quote page))
(acl-resource-fact (quote peer1) (quote peer))
(acl-grant (quote alice) (quote read) (quote page1))
(acl-grant (quote alice) (quote edit) (quote page1))
(acl-deny (quote alice) (quote edit) (quote page1))
(acl-grant (quote svc1) (quote federate) (quote peer1))))))
(define
acl-dt-run-all!
(fn
()
(let
((db (acl-dt-fixture)))
(do
(acl-dt-check!
"direct grant permits"
(acl-permit? db (quote alice) (quote read) (quote page1))
true)
(acl-dt-check!
"service grant permits federate"
(acl-permit? db (quote svc1) (quote federate) (quote peer1))
true)
(acl-dt-check!
"missing action denied"
(acl-permit? db (quote alice) (quote comment) (quote page1))
false)
(acl-dt-check!
"missing resource denied"
(acl-permit? db (quote alice) (quote read) (quote page2))
false)
(acl-dt-check!
"missing subject denied"
(acl-permit? db (quote bob) (quote read) (quote page1))
false)
(acl-dt-check!
"wrong subject for service grant denied"
(acl-permit? db (quote alice) (quote federate) (quote peer1))
false)
(acl-dt-check!
"grant plus deny -> deny wins"
(acl-permit? db (quote alice) (quote edit) (quote page1))
false)
(acl-dt-check!
"deny alone still denies"
(acl-permit?
(acl-build-db
(list (acl-deny (quote alice) (quote read) (quote page1))))
(quote alice)
(quote read)
(quote page1))
false)
(acl-dt-check!
"deny on edit does not block read"
(acl-permit? db (quote alice) (quote read) (quote page1))
true)
(acl-dt-check!
"empty db denies"
(acl-permit?
(acl-build-db (list))
(quote alice)
(quote read)
(quote page1))
false)
(let
((db2 (acl-build-db (list (acl-grant (quote a) (quote read) (quote r)) (acl-grant (quote b) (quote read) (quote r)) (acl-deny (quote b) (quote read) (quote r))))))
(do
(acl-dt-check!
"subject a allowed"
(acl-permit? db2 (quote a) (quote read) (quote r))
true)
(acl-dt-check!
"subject b denied by override"
(acl-permit? db2 (quote b) (quote read) (quote r))
false)))
(let
((db3 (acl-build-db (list (acl-actor (quote editors) (quote role)) (acl-grant (quote editors) (quote edit) (quote post1))))))
(acl-dt-check!
"role subject direct grant"
(acl-permit? db3 (quote editors) (quote edit) (quote post1))
true))
(do
(acl/load!
(list
(acl-grant (quote carol) (quote moderate) (quote thread1))))
(acl-dt-check!
"api permit via current db"
(acl/permit? (quote carol) (quote moderate) (quote thread1))
true)
(acl-dt-check!
"api deny via current db"
(acl/permit? (quote carol) (quote read) (quote thread1))
false))
(do
(acl/load! (list))
(acl-dt-check!
"api reload clears prior grants"
(acl/permit? (quote carol) (quote moderate) (quote thread1))
false))
(acl-dt-check!
"schema grant arity valid"
(acl-fact-valid? (acl-grant (quote x) (quote read) (quote y)))
true)
(acl-dt-check!
"schema bad arity invalid"
(acl-fact-valid? (list (quote grant) (quote x)))
false)
(acl-dt-check!
"schema unknown predicate invalid"
(acl-fact-valid? (list (quote frobnicate) (quote x)))
false)
(acl-dt-check!
"schema subject kind known"
(acl-subject-kind? (quote service))
true)
(acl-dt-check!
"schema resource kind unknown"
(acl-resource-kind? (quote galaxy))
false)
(acl-dt-check!
"schema known action"
(acl-known-action? (quote moderate))
true)
(acl-dt-check!
"grant constructor shape"
(acl-grant (quote u) (quote read) (quote p))
(list (quote grant) (quote u) (quote read) (quote p)))
(acl-dt-check!
"actor constructor shape"
(acl-actor (quote u) (quote user))
(list (quote actor) (quote u) (quote user)))))))
(define
acl-direct-tests-run!
(fn
()
(do
(set! acl-dt-pass 0)
(set! acl-dt-fail 0)
(set! acl-dt-failures (list))
(acl-dt-run-all!)
{:failures acl-dt-failures :total (+ acl-dt-pass acl-dt-fail) :passed acl-dt-pass :failed acl-dt-fail})))

316
lib/acl/tests/explain.sx Normal file
View File

@@ -0,0 +1,316 @@
;; lib/acl/tests/explain.sx — Phase 3: proof correctness + audit completeness.
(define acl-et-pass 0)
(define acl-et-fail 0)
(define acl-et-failures (list))
;; Name-based deep equality. The host `=` compares symbols by interned
;; identity, which is unstable across substitution/saturation; comparing by
;; name (as the datalog suite does) makes structural assertions deterministic.
(define
acl-et-eq?
(fn
(a b)
(cond
((and (list? a) (list? b))
(and (= (len a) (len b)) (acl-et-eq-l? a b 0)))
((and (dict? a) (dict? b))
(let
((ka (keys a)) (kb (keys b)))
(and (= (len ka) (len kb)) (acl-et-eq-d? a b ka 0))))
((and (symbol? a) (symbol? b))
(= (symbol->string a) (symbol->string b)))
(else (= a b)))))
(define
acl-et-eq-l?
(fn
(a b i)
(cond
((>= i (len a)) true)
((not (acl-et-eq? (nth a i) (nth b i))) false)
(else (acl-et-eq-l? a b (+ i 1))))))
(define
acl-et-eq-d?
(fn
(a b ka i)
(cond
((>= i (len ka)) true)
((let ((k (nth ka i))) (not (acl-et-eq? (get a k) (get b k))))
false)
(else (acl-et-eq-d? a b ka (+ i 1))))))
(define
acl-et-check!
(fn
(name got expected)
(if
(acl-et-eq? got expected)
(set! acl-et-pass (+ acl-et-pass 1))
(do
(set! acl-et-fail (+ acl-et-fail 1))
(append!
acl-et-failures
(str name "\n expected: " expected "\n got: " got))))))
;; --- proof-tree walkers ---
;; True if EDB fact `target` appears as a base leaf anywhere in the proof.
(define
acl-et-has-leaf?
(fn
(node target)
(cond
((= node nil) false)
((and (dict? node) (has-key? node :via))
(acl-et-eq? (get node :fact) target))
((and (dict? node) (has-key? node :body))
(acl-et-any-leaf? (get node :body) target))
(else false))))
(define
acl-et-any-leaf?
(fn
(nodes target)
(cond
((= (len nodes) 0) false)
((acl-et-has-leaf? (first nodes) target) true)
(else (acl-et-any-leaf? (rest nodes) target)))))
;; True if the proof records a verified negation (deny did not fire).
(define
acl-et-has-negok?
(fn
(node)
(cond
((= node nil) false)
((and (dict? node) (has-key? node :neg-ok)) true)
((and (dict? node) (has-key? node :body))
(acl-et-any-negok? (get node :body)))
(else false))))
(define
acl-et-any-negok?
(fn
(nodes)
(cond
((= (len nodes) 0) false)
((acl-et-has-negok? (first nodes)) true)
(else (acl-et-any-negok? (rest nodes))))))
(define
acl-et-run-all!
(fn
()
(do
(let
((db (acl-build-db (list (acl-grant (quote u) (quote read) (quote p))))))
(let
((e (acl-explain db (quote u) (quote read) (quote p))))
(do
(acl-et-check! "direct: allowed?" (get e :allowed?) true)
(acl-et-check!
"direct: proof root fact"
(get (get e :proof) :fact)
(list (quote permit) (quote u) (quote read) (quote p)))
(acl-et-check!
"direct: grant leaf present"
(acl-et-has-leaf?
(get e :proof)
(list (quote grant) (quote u) (quote read) (quote p)))
true)
(acl-et-check!
"direct: negation verified"
(acl-et-has-negok? (get e :proof))
true)
(acl-et-check!
"direct: reason nil when allowed"
(get e :reason)
nil))))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-member-of (quote team) (quote org)) (acl-grant (quote org) (quote read) (quote doc))))))
(let
((e (acl-explain db (quote alice) (quote read) (quote doc))))
(do
(acl-et-check! "group: allowed?" (get e :allowed?) true)
(acl-et-check!
"group: member_of alice leaf"
(acl-et-has-leaf?
(get e :proof)
(list (quote member_of) (quote alice) (quote team)))
true)
(acl-et-check!
"group: member_of team leaf"
(acl-et-has-leaf?
(get e :proof)
(list (quote member_of) (quote team) (quote org)))
true)
(acl-et-check!
"group: grant org leaf at base"
(acl-et-has-leaf?
(get e :proof)
(list (quote grant) (quote org) (quote read) (quote doc)))
true))))
(let
((db (acl-build-db (list (acl-child-of (quote sec) (quote book)) (acl-grant (quote u) (quote read) (quote book))))))
(let
((e (acl-explain db (quote u) (quote read) (quote sec))))
(do
(acl-et-check! "resource: allowed?" (get e :allowed?) true)
(acl-et-check!
"resource: child_of leaf"
(acl-et-has-leaf?
(get e :proof)
(list (quote child_of) (quote sec) (quote book)))
true)
(acl-et-check!
"resource: grant on parent leaf"
(acl-et-has-leaf?
(get e :proof)
(list (quote grant) (quote u) (quote read) (quote book)))
true))))
(let
((db (acl-build-db (list (acl-member-of (quote bob) (quote editor)) (acl-role-grant (quote editor) (quote edit) (quote page1))))))
(let
((e (acl-explain db (quote bob) (quote edit) (quote page1))))
(do
(acl-et-check! "role: allowed?" (get e :allowed?) true)
(acl-et-check!
"role: member_of leaf"
(acl-et-has-leaf?
(get e :proof)
(list (quote member_of) (quote bob) (quote editor)))
true)
(acl-et-check!
"role: role_grant leaf"
(acl-et-has-leaf?
(get e :proof)
(list
(quote role_grant)
(quote editor)
(quote edit)
(quote page1)))
true))))
(let
((db (acl-build-db (list (acl-grant (quote u) (quote edit) (quote p)) (acl-deny (quote u) (quote edit) (quote p))))))
(let
((e (acl-explain db (quote u) (quote edit) (quote p))))
(do
(acl-et-check! "deny: not allowed" (get e :allowed?) false)
(acl-et-check! "deny: no proof" (get e :proof) nil)
(acl-et-check!
"deny: reason root is eff_deny"
(get (get e :reason) :fact)
(list (quote eff_deny) (quote u) (quote edit) (quote p)))
(acl-et-check!
"deny: reason has deny leaf"
(acl-et-has-leaf?
(get e :reason)
(list (quote deny) (quote u) (quote edit) (quote p)))
true))))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-grant (quote alice) (quote read) (quote doc)) (acl-deny (quote team) (quote read) (quote doc))))))
(let
((e (acl-explain db (quote alice) (quote read) (quote doc))))
(do
(acl-et-check!
"inherited deny: not allowed"
(get e :allowed?)
false)
(acl-et-check!
"inherited deny: reason has member_of leaf"
(acl-et-has-leaf?
(get e :reason)
(list (quote member_of) (quote alice) (quote team)))
true)
(acl-et-check!
"inherited deny: reason has group deny leaf"
(acl-et-has-leaf?
(get e :reason)
(list (quote deny) (quote team) (quote read) (quote doc)))
true))))
(let
((db (acl-build-db (list))))
(let
((e (acl-explain db (quote u) (quote read) (quote p))))
(do
(acl-et-check! "no grant: not allowed" (get e :allowed?) false)
(acl-et-check! "no grant: proof nil" (get e :proof) nil)
(acl-et-check! "no grant: reason nil" (get e :reason) nil))))
(let
((db (acl-build-db (list (acl-grant (quote u) (quote read) (quote p)) (acl-deny (quote u) (quote edit) (quote p))))))
(do
(acl-audit-clear!)
(acl-et-check! "audit: starts empty" (acl-audit-count) 0)
(acl-et-check!
"audit decide allowed returns true"
(acl-audit-decide! db (quote u) (quote read) (quote p))
true)
(acl-et-check!
"audit decide denied returns false"
(acl-audit-decide! db (quote u) (quote edit) (quote p))
false)
(acl-audit-decide! db (quote u) (quote comment) (quote p))
(acl-et-check!
"audit: count after three decisions"
(acl-audit-count)
3)
(acl-et-check!
"audit: tail size respects n"
(len (acl-audit-tail 2))
2)
(acl-et-check!
"audit: tail returns most recent"
(get (first (acl-audit-tail 1)) :act)
(quote comment))
(acl-et-check!
"audit: first record seq is 0"
(get (first (acl-audit-tail 3)) :seq)
0)
(acl-et-check!
"audit: allowed flag recorded"
(get (first (acl-audit-tail 3)) :allowed?)
true)
(acl-et-check!
"audit: serialize line count"
(len (acl-et-lines (acl-audit-serialize)))
3)
(acl-audit-clear!)
(acl-et-check!
"audit: clear resets count"
(acl-audit-count)
0))))))
;; count newline-terminated lines in a serialized log
(define acl-et-lines (fn (s) (acl-et-count-nl s 0 0)))
(define
acl-et-count-nl
(fn
(s i n)
(if
(>= i (len s))
(if (= n 0) (list) (acl-et-rangelist n))
(acl-et-count-nl
s
(+ i 1)
(if (= (slice s i (+ i 1)) "\n") (+ n 1) n)))))
(define
acl-et-rangelist
(fn
(n)
(if
(<= n 0)
(list)
(cons n (acl-et-rangelist (- n 1))))))
(define
acl-explain-tests-run!
(fn
()
(do
(set! acl-et-pass 0)
(set! acl-et-fail 0)
(set! acl-et-failures (list))
(acl-et-run-all!)
{:failures acl-et-failures :total (+ acl-et-pass acl-et-fail) :passed acl-et-pass :failed acl-et-fail})))

273
lib/acl/tests/fed.sx Normal file
View File

@@ -0,0 +1,273 @@
;; lib/acl/tests/fed.sx — Phase 4: federation (peer trust, delegation,
;; cross-instance chains, revocation). fed-sx transport is mocked as a dict.
(define acl-ft-pass 0)
(define acl-ft-fail 0)
(define acl-ft-failures (list))
;; Name-based deep equality (host `=` compares symbols by unstable interned
;; identity; see lib/acl/tests/explain.sx).
(define
acl-ft-eq?
(fn
(a b)
(cond
((and (list? a) (list? b))
(and (= (len a) (len b)) (acl-ft-eq-l? a b 0)))
((and (symbol? a) (symbol? b))
(= (symbol->string a) (symbol->string b)))
(else (= a b)))))
(define
acl-ft-eq-l?
(fn
(a b i)
(cond
((>= i (len a)) true)
((not (acl-ft-eq? (nth a i) (nth b i))) false)
(else (acl-ft-eq-l? a b (+ i 1))))))
(define
acl-ft-check!
(fn
(name got expected)
(if
(acl-ft-eq? got expected)
(set! acl-ft-pass (+ acl-ft-pass 1))
(do
(set! acl-ft-fail (+ acl-ft-fail 1))
(append!
acl-ft-failures
(str name "\n expected: " expected "\n got: " got))))))
;; proof leaf walker (federated proofs reconstruct through the engine rule).
(define
acl-ft-has-leaf?
(fn
(node target)
(cond
((= node nil) false)
((and (dict? node) (has-key? node :via))
(acl-ft-eq? (get node :fact) target))
((and (dict? node) (has-key? node :body))
(acl-ft-any-leaf? (get node :body) target))
(else false))))
(define
acl-ft-any-leaf?
(fn
(nodes target)
(cond
((= (len nodes) 0) false)
((acl-ft-has-leaf? (first nodes) target) true)
(else (acl-ft-any-leaf? (rest nodes) target)))))
(define acl-ft-p? (fn (db s a r) (acl-permit? db s a r)))
;; A standard federation fixture: local trusts peer alpha at "readonly", which
;; covers read+comment. alpha delegates several capabilities to alice.
(define
acl-ft-fixture
(fn
()
(acl-build-db
(list
(acl-trust (quote alpha) (quote readonly))
(acl-level-covers (quote readonly) (quote read))
(acl-level-covers (quote readonly) (quote comment))
(acl-delegate (quote alpha) (quote alice) (quote read) (quote doc))
(acl-delegate (quote alpha) (quote alice) (quote edit) (quote doc))))))
(define
acl-ft-run-all!
(fn
()
(do
(let
((db (acl-ft-fixture)))
(do
(acl-ft-check!
"trusted delegate, level covers action -> permit"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true)
(acl-ft-check!
"trusted delegate, level does NOT cover action -> deny"
(acl-ft-p? db (quote alice) (quote edit) (quote doc))
false)
(acl-ft-check!
"delegated but action class uncovered (comment has no delegate)"
(acl-ft-p? db (quote alice) (quote comment) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-level-covers (quote readonly) (quote read)) (acl-delegate (quote beta) (quote bob) (quote read) (quote doc))))))
(acl-ft-check!
"untrusted peer delegate -> deny"
(acl-ft-p? db (quote bob) (quote read) (quote doc))
false))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote readonly)) (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc))))))
(acl-ft-check!
"trust but no level_covers -> deny"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
false))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc)) (acl-delegate (quote beta) (quote bob) (quote read) (quote doc))))))
(do
(acl-ft-check!
"trust is per-peer: alpha's delegate applies"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true)
(acl-ft-check!
"trust not transitive: beta's delegate does not apply"
(acl-ft-p? db (quote bob) (quote read) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc)) (acl-deny (quote alice) (quote read) (quote doc))))))
(acl-ft-check!
"local deny overrides federated grant"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
false))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-member-of (quote alice) (quote team)) (acl-delegate (quote alpha) (quote team) (quote read) (quote doc))))))
(acl-ft-check!
"federated grant to group reaches member"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-child-of (quote sec) (quote book)) (acl-delegate (quote alpha) (quote u) (quote read) (quote book))))))
(acl-ft-check!
"federated grant on parent resource reaches child"
(acl-ft-p? db (quote u) (quote read) (quote sec))
true))
(let
((transport {:gamma (list (acl-delegate (quote gamma) (quote carol) (quote read) (quote post))) :alpha (list (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc)))}))
(do
(acl-ft-check!
"fetch known peer returns its delegates"
(len (acl-fed-fetch transport (quote alpha)))
1)
(acl-ft-check!
"fetch unknown peer returns empty"
(len (acl-fed-fetch transport (quote delta)))
0)
(acl-ft-check!
"collect across peers"
(len
(acl-fed-collect transport (list (quote alpha) (quote gamma))))
2)
(let
((db (acl-fed-build-db (list (acl-trust (quote alpha) (quote readonly)) (acl-trust (quote gamma) (quote readonly)) (acl-level-covers (quote readonly) (quote read))) transport (list (quote alpha) (quote gamma)))))
(do
(acl-ft-check!
"fed-build-db: alpha delegate permits"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true)
(acl-ft-check!
"fed-build-db: gamma delegate permits"
(acl-ft-p? db (quote carol) (quote read) (quote post))
true)
(acl-ft-check!
"fed-build-db: untrusted action still denied"
(acl-ft-p? db (quote alice) (quote edit) (quote doc))
false)))))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc))))))
(do
(acl-ft-check!
"before revoke: permitted"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true)
(acl-revoke!
db
(acl-delegate
(quote alpha)
(quote alice)
(quote read)
(quote doc)))
(acl-ft-check!
"after delegate revoked: denied"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc))))))
(do
(acl-ft-check!
"before trust revoke: permitted"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true)
(acl-revoke! db (acl-trust (quote alpha) (quote full)))
(acl-ft-check!
"after trust revoked: denied"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote alice) (quote read) (quote doc))))))
(do
(acl-ft-check!
"delegate without trust: denied"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
false)
(acl-fed-assert! db (acl-trust (quote alpha) (quote full)))
(acl-ft-check!
"trust ingested then re-checked: permitted"
(acl-ft-p? db (quote alice) (quote read) (quote doc))
true)))
(let
((db (acl-ft-fixture)))
(let
((e (acl-explain db (quote alice) (quote read) (quote doc))))
(do
(acl-ft-check! "federated proof allowed?" (get e :allowed?) true)
(acl-ft-check!
"federated proof has delegate leaf"
(acl-ft-has-leaf?
(get e :proof)
(list
(quote delegate)
(quote alpha)
(quote alice)
(quote read)
(quote doc)))
true)
(acl-ft-check!
"federated proof has trust leaf"
(acl-ft-has-leaf?
(get e :proof)
(list (quote trust) (quote alpha) (quote readonly)))
true)
(acl-ft-check!
"federated proof has level_covers leaf"
(acl-ft-has-leaf?
(get e :proof)
(list (quote level_covers) (quote readonly) (quote read)))
true))))
(acl-ft-check!
"schema delegate arity valid"
(acl-fact-valid?
(acl-delegate (quote p) (quote s) (quote a) (quote r)))
true)
(acl-ft-check!
"schema trust arity valid"
(acl-fact-valid? (acl-trust (quote p) (quote l)))
true)
(acl-ft-check!
"schema peer arity valid"
(acl-fact-valid? (acl-peer (quote p) (quote peer)))
true)
(acl-ft-check!
"schema level_covers arity valid"
(acl-fact-valid? (acl-level-covers (quote l) (quote read)))
true)
(acl-ft-check!
"schema delegate bad arity invalid"
(acl-fact-valid? (list (quote delegate) (quote p) (quote s)))
false))))
(define
acl-fed-tests-run!
(fn
()
(do
(set! acl-ft-pass 0)
(set! acl-ft-fail 0)
(set! acl-ft-failures (list))
(acl-ft-run-all!)
{:failures acl-ft-failures :total (+ acl-ft-pass acl-ft-fail) :passed acl-ft-pass :failed acl-ft-fail})))

228
lib/acl/tests/harden.sx Normal file
View File

@@ -0,0 +1,228 @@
;; lib/acl/tests/harden.sx — adversarial / cross-phase hardening.
;;
;; Diamond hierarchies, conflict resolution where deny must win through every
;; path, chain inheritance, cycle termination, multi-peer delegation, fact
;; validation, and audit save/restore.
;;
;; PROVER-FREE BY DESIGN: this suite calls only acl-permit? (which runs in
;; compiled Datalog, safe at any depth) plus pure data ops — never acl-explain /
;; acl-prove-d. The SX-side proof reconstructor recurses, and once the kernel
;; JIT-compiles it (after the explain/fed suites warm the process) it loops on
;; chains deeper than ~3 (substrate JIT bug — see plan Blockers). Proof
;; reconstruction is covered by tests/explain.sx (and federated proofs by
;; tests/fed.sx), both of which stay under the warm-process depth threshold.
(define acl-hd-pass 0)
(define acl-hd-fail 0)
(define acl-hd-failures (list))
(define
acl-hd-check!
(fn
(name got expected)
(if
(= got expected)
(set! acl-hd-pass (+ acl-hd-pass 1))
(do
(set! acl-hd-fail (+ acl-hd-fail 1))
(append!
acl-hd-failures
(str name "\n expected: " expected "\n got: " got))))))
(define acl-hd-p? (fn (db s a r) (acl-permit? db s a r)))
(define
acl-hd-run-all!
(fn
()
(do
(let
((grant-deny (acl-build-db (list (acl-child-of (quote r) (quote p1)) (acl-child-of (quote r) (quote p2)) (acl-grant (quote u) (quote read) (quote p1)) (acl-deny (quote u) (quote read) (quote p2)))))
(both-grant
(acl-build-db
(list
(acl-child-of (quote r) (quote p1))
(acl-child-of (quote r) (quote p2))
(acl-grant (quote u) (quote read) (quote p1))
(acl-grant (quote u) (quote read) (quote p2))))))
(do
(acl-hd-check!
"diamond resource: grant+deny parents -> deny wins"
(acl-hd-p? grant-deny (quote u) (quote read) (quote r))
false)
(acl-hd-check!
"diamond resource: both grant -> permit"
(acl-hd-p? both-grant (quote u) (quote read) (quote r))
true)
(acl-hd-check!
"diamond resource: deny does not leak to other parent"
(acl-hd-p? grant-deny (quote u) (quote read) (quote p1))
true)))
(let
((grant-deny (acl-build-db (list (acl-member-of (quote alice) (quote g1)) (acl-member-of (quote alice) (quote g2)) (acl-grant (quote g1) (quote read) (quote doc)) (acl-deny (quote g2) (quote read) (quote doc)))))
(both-grant
(acl-build-db
(list
(acl-member-of (quote alice) (quote g1))
(acl-member-of (quote alice) (quote g2))
(acl-grant (quote g1) (quote read) (quote doc))
(acl-grant (quote g2) (quote read) (quote doc))))))
(do
(acl-hd-check!
"diamond group: grant+deny groups -> deny wins"
(acl-hd-p? grant-deny (quote alice) (quote read) (quote doc))
false)
(acl-hd-check!
"diamond group: both grant -> permit"
(acl-hd-p? both-grant (quote alice) (quote read) (quote doc))
true)))
(let
((chain (acl-build-db (list (acl-member-of (quote a0) (quote a1)) (acl-member-of (quote a1) (quote a2)) (acl-member-of (quote a2) (quote a3)) (acl-member-of (quote a3) (quote a4)) (acl-grant (quote a4) (quote read) (quote res)))))
(chain-deny
(acl-build-db
(list
(acl-member-of (quote a0) (quote a1))
(acl-member-of (quote a1) (quote a2))
(acl-member-of (quote a2) (quote a3))
(acl-member-of (quote a3) (quote a4))
(acl-grant (quote a4) (quote read) (quote res))
(acl-deny (quote a0) (quote read) (quote res))))))
(do
(acl-hd-check!
"chain: top-group grant reaches leaf member"
(acl-hd-p? chain (quote a0) (quote read) (quote res))
true)
(acl-hd-check!
"chain: intermediate also covered"
(acl-hd-p? chain (quote a2) (quote read) (quote res))
true)
(acl-hd-check!
"chain: leaf-member deny overrides top grant"
(acl-hd-p? chain-deny (quote a0) (quote read) (quote res))
false)
(acl-hd-check!
"chain: deny on leaf does not block sibling level"
(acl-hd-p? chain-deny (quote a1) (quote read) (quote res))
true)))
(let
((self-member (acl-build-db (list (acl-member-of (quote a) (quote a)) (acl-grant (quote a) (quote read) (quote r)))))
(self-child
(acl-build-db
(list
(acl-child-of (quote r) (quote r))
(acl-grant (quote u) (quote read) (quote r)))))
(two-cycle
(acl-build-db
(list
(acl-member-of (quote x) (quote y))
(acl-member-of (quote y) (quote x))
(acl-grant (quote y) (quote read) (quote r))))))
(do
(acl-hd-check!
"self-membership cycle terminates and grants"
(acl-hd-p? self-member (quote a) (quote read) (quote r))
true)
(acl-hd-check!
"self-child cycle terminates and grants"
(acl-hd-p? self-child (quote u) (quote read) (quote r))
true)
(acl-hd-check!
"two-node membership cycle terminates"
(acl-hd-p? two-cycle (quote x) (quote read) (quote r))
true)))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-member-of (quote alice) (quote team)) (acl-delegate (quote alpha) (quote team) (quote read) (quote doc)) (acl-deny (quote alice) (quote read) (quote doc))))))
(acl-hd-check!
"federated group grant, local member deny -> deny wins"
(acl-hd-p? db (quote alice) (quote read) (quote doc))
false))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote bob) (quote read) (quote doc)) (acl-delegate (quote beta) (quote bob) (quote read) (quote doc))))))
(acl-hd-check!
"two peers delegate, one trusted -> permit"
(acl-hd-p? db (quote bob) (quote read) (quote doc))
true))
(let
((db (acl-build-db (list (acl-trust (quote alpha) (quote full)) (acl-trust (quote beta) (quote full)) (acl-level-covers (quote full) (quote read)) (acl-delegate (quote alpha) (quote bob) (quote read) (quote doc)) (acl-delegate (quote beta) (quote bob) (quote read) (quote doc))))))
(acl-hd-check!
"two peers both trusted -> permit"
(acl-hd-p? db (quote bob) (quote read) (quote doc))
true))
(let
((empty (acl-build-db (list))))
(acl-hd-check!
"empty db: nothing permitted"
(acl-hd-p? empty (quote u) (quote read) (quote r))
false))
(do
(acl-hd-check!
"validate: clean set has no bad facts"
(len
(acl-validate-facts
(list
(acl-grant (quote u) (quote read) (quote p))
(acl-member-of (quote u) (quote g))
(acl-delegate (quote pe) (quote u) (quote read) (quote p)))))
0)
(acl-hd-check!
"validate: facts-valid? true on clean set"
(acl-facts-valid?
(list (acl-grant (quote u) (quote read) (quote p))))
true)
(acl-hd-check!
"validate: surfaces wrong-arity and unknown predicate"
(len
(acl-validate-facts
(list
(acl-grant (quote u) (quote read) (quote p))
(list (quote grant) (quote u))
(list (quote bogus) (quote x) (quote y)))))
2)
(acl-hd-check!
"validate: empty set is valid"
(acl-facts-valid? (list))
true))
(let
((db (acl-build-db (list (acl-grant (quote u) (quote read) (quote p)) (acl-deny (quote u) (quote edit) (quote p))))))
(do
(acl-audit-clear!)
(acl-audit-decide! db (quote u) (quote read) (quote p))
(acl-audit-decide! db (quote u) (quote edit) (quote p))
(let
((snap (acl-audit-snapshot)))
(do
(acl-audit-clear!)
(acl-hd-check!
"audit: cleared count is 0"
(acl-audit-count)
0)
(acl-audit-restore! snap)
(acl-hd-check!
"audit: restored count"
(acl-audit-count)
2)
(acl-hd-check!
"audit: restored last act"
(get (first (acl-audit-tail 1)) :act)
(quote edit))
(acl-audit-decide! db (quote u) (quote comment) (quote p))
(acl-hd-check!
"audit: seq continues after restore"
(get (first (acl-audit-tail 1)) :seq)
2)
(acl-hd-check!
"audit: snapshot is an immutable copy"
(len (get snap :entries))
2)
(acl-audit-clear!))))))))
(define
acl-harden-tests-run!
(fn
()
(do
(set! acl-hd-pass 0)
(set! acl-hd-fail 0)
(set! acl-hd-failures (list))
(acl-hd-run-all!)
{:failures acl-hd-failures :total (+ acl-hd-pass acl-hd-fail) :passed acl-hd-pass :failed acl-hd-fail})))

202
lib/acl/tests/inherit.sx Normal file
View File

@@ -0,0 +1,202 @@
;; lib/acl/tests/inherit.sx — Phase 2: inheritance (groups, resource trees,
;; role expansion) with deny-overrides.
(define acl-it-pass 0)
(define acl-it-fail 0)
(define acl-it-failures (list))
(define
acl-it-check!
(fn
(name got expected)
(if
(= got expected)
(set! acl-it-pass (+ acl-it-pass 1))
(do
(set! acl-it-fail (+ acl-it-fail 1))
(append!
acl-it-failures
(str name "\n expected: " expected "\n got: " got))))))
(define acl-it-p? (fn (db s a r) (acl-permit? db s a r)))
(define
acl-it-run-all!
(fn
()
(do
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-grant (quote team) (quote read) (quote doc))))))
(do
(acl-it-check!
"group grant reaches member"
(acl-it-p? db (quote alice) (quote read) (quote doc))
true)
(acl-it-check!
"group grant: non-member excluded"
(acl-it-p? db (quote bob) (quote read) (quote doc))
false)
(acl-it-check!
"group grant: wrong action"
(acl-it-p? db (quote alice) (quote edit) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-member-of (quote team) (quote org)) (acl-member-of (quote org) (quote company)) (acl-grant (quote company) (quote read) (quote doc))))))
(do
(acl-it-check!
"deep nested group grant reaches leaf member"
(acl-it-p? db (quote alice) (quote read) (quote doc))
true)
(acl-it-check!
"intermediate group also covered"
(acl-it-p? db (quote team) (quote read) (quote doc))
true)
(acl-it-check!
"mid group org covered"
(acl-it-p? db (quote org) (quote read) (quote doc))
true)))
(let
((db (acl-build-db (list (acl-member-of (quote a) (quote b)) (acl-member-of (quote b) (quote a)) (acl-grant (quote b) (quote read) (quote r))))))
(do
(acl-it-check!
"cyclic membership terminates and grants"
(acl-it-p? db (quote a) (quote read) (quote r))
true)
(acl-it-check!
"cyclic membership covers both"
(acl-it-p? db (quote b) (quote read) (quote r))
true)))
(let
((db (acl-build-db (list (acl-child-of (quote sec) (quote chap)) (acl-child-of (quote chap) (quote book)) (acl-grant (quote u) (quote read) (quote book))))))
(do
(acl-it-check!
"parent grant reaches direct child"
(acl-it-p? db (quote u) (quote read) (quote chap))
true)
(acl-it-check!
"parent grant reaches deep descendant"
(acl-it-p? db (quote u) (quote read) (quote sec))
true)
(acl-it-check!
"parent grant covers parent itself"
(acl-it-p? db (quote u) (quote read) (quote book))
true)
(acl-it-check!
"child grant does not climb to parent"
(acl-it-p?
(acl-build-db
(list
(acl-child-of (quote sec) (quote book))
(acl-grant (quote u) (quote read) (quote sec))))
(quote u)
(quote read)
(quote book))
false)))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-child-of (quote post1) (quote board)) (acl-grant (quote team) (quote comment) (quote board))))))
(do
(acl-it-check!
"group + resource: member on child resource"
(acl-it-p? db (quote alice) (quote comment) (quote post1))
true)
(acl-it-check!
"group + resource: member on parent resource"
(acl-it-p? db (quote alice) (quote comment) (quote board))
true)))
(let
((db (acl-build-db (list (acl-member-of (quote bob) (quote editor)) (acl-role-grant (quote editor) (quote edit) (quote page1)) (acl-role-grant (quote editor) (quote read) (quote page1))))))
(do
(acl-it-check!
"role confers edit to member"
(acl-it-p? db (quote bob) (quote edit) (quote page1))
true)
(acl-it-check!
"role confers read to member"
(acl-it-p? db (quote bob) (quote read) (quote page1))
true)
(acl-it-check!
"role: capability not in tuple denied"
(acl-it-p? db (quote bob) (quote moderate) (quote page1))
false)
(acl-it-check!
"role: non-member excluded"
(acl-it-p? db (quote eve) (quote edit) (quote page1))
false)))
(let
((db (acl-build-db (list (acl-member-of (quote bob) (quote editor)) (acl-child-of (quote draft) (quote page1)) (acl-role-grant (quote editor) (quote edit) (quote page1))))))
(acl-it-check!
"role grant flows to child resource"
(acl-it-p? db (quote bob) (quote edit) (quote draft))
true))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-grant (quote team) (quote read) (quote doc)) (acl-deny (quote alice) (quote read) (quote doc))))))
(acl-it-check!
"explicit deny beats inherited group allow"
(acl-it-p? db (quote alice) (quote read) (quote doc))
false))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-grant (quote alice) (quote read) (quote doc)) (acl-deny (quote team) (quote read) (quote doc))))))
(do
(acl-it-check!
"group deny inherits and overrides direct grant"
(acl-it-p? db (quote alice) (quote read) (quote doc))
false)
(acl-it-check!
"group deny: another member also blocked"
(acl-it-p? db (quote team) (quote read) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-child-of (quote sec) (quote book)) (acl-grant (quote u) (quote read) (quote sec)) (acl-deny (quote u) (quote read) (quote book))))))
(acl-it-check!
"ancestor deny overrides descendant grant"
(acl-it-p? db (quote u) (quote read) (quote sec))
false))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-grant (quote team) (quote read) (quote doc)) (acl-grant (quote team) (quote edit) (quote doc)) (acl-deny (quote alice) (quote edit) (quote doc))))))
(do
(acl-it-check!
"deny on edit leaves inherited read intact"
(acl-it-p? db (quote alice) (quote read) (quote doc))
true)
(acl-it-check!
"deny on edit blocks edit"
(acl-it-p? db (quote alice) (quote edit) (quote doc))
false)))
(let
((db (acl-build-db (list (acl-member-of (quote alice) (quote team)) (acl-deny (quote team) (quote read) (quote doc))))))
(acl-it-check!
"inherited deny, no grant: denied"
(acl-it-p? db (quote alice) (quote read) (quote doc))
false))
(let
((db (acl-build-db (list (acl-child-of (quote a) (quote root)) (acl-child-of (quote b) (quote root)) (acl-grant (quote u) (quote read) (quote root)) (acl-deny (quote u) (quote read) (quote a))))))
(do
(acl-it-check!
"deny on sibling a blocks a"
(acl-it-p? db (quote u) (quote read) (quote a))
false)
(acl-it-check!
"deny on sibling a leaves b permitted"
(acl-it-p? db (quote u) (quote read) (quote b))
true)
(acl-it-check!
"root itself still permitted"
(acl-it-p? db (quote u) (quote read) (quote root))
true)))
(let
((db (acl-build-db (list (acl-grant (quote x) (quote read) (quote y))))))
(acl-it-check!
"direct grant under inheritance ruleset"
(acl-it-p? db (quote x) (quote read) (quote y))
true)))))
(define
acl-inherit-tests-run!
(fn
()
(do
(set! acl-it-pass 0)
(set! acl-it-fail 0)
(set! acl-it-failures (list))
(acl-it-run-all!)
{:failures acl-it-failures :total (+ acl-it-pass acl-it-fail) :passed acl-it-pass :failed acl-it-fail})))

View File

@@ -1,40 +0,0 @@
;; lib/mod/activity.sx — export decisions as ActivityPub-shaped events.
;;
;; The rose-ash platform propagates cross-domain effects as ActivityPub-shaped
;; activities. A moderation decision maps to a moderation verb so the rest of the
;; platform (and federated peers) can act on it: remove→Delete, ban→Block,
;; hide/escalate→Flag, keep→no activity. The precise mod action is preserved in
;; :action so a consumer can disambiguate (e.g. hide vs escalate, both Flag).
(define
mod/action->verb
(fn
(action)
(cond
((= action "remove") "Delete")
((= action "ban") "Block")
((= action "hide") "Flag")
((= action "escalate") "Flag")
(true nil))))
(define
mod/decision->activity
(fn
(d actor)
(let
((verb (mod/action->verb (get d :action))))
(if (nil? verb) nil {:type verb :action (get d :action) :actor actor :summary (str "moderation/" (get d :action) " via " (get d :rule)) :object (get d :report-id) :rule (get d :rule)}))))
;; map a batch of decisions to activities, dropping the no-op keeps
(define
mod/decisions->activities
(fn
(decisions actor)
(reduce
(fn
(acc d)
(let
((a (mod/decision->activity d actor)))
(if (nil? a) acc (append acc (list a)))))
(list)
decisions)))

View File

@@ -1,163 +0,0 @@
;; lib/mod/api.sx — report registry + lifecycle façade + public entry points.
;;
;; mod/report files a report (assigning a sequential id) and opens a lifecycle
;; case for it; mod/add-evidence accumulates evidence; mod/decide runs the engine
;; and commits to the audit log. The lifecycle façade (mod/triage, mod/resolve,
;; mod/review, mod/appeal, mod/finalize) drives the per-report case through its
;; states, logging each committed decision to the audit trail.
(define mod/*reports* (list))
(define mod/*cases* (list))
(define mod/*counter* 0)
(define mod/*rules* mod/default-rules)
(define
mod/reset!
(fn
()
(begin
(set! mod/*reports* (list))
(set! mod/*cases* (list))
(set! mod/*counter* 0)
(mod/audit-reset!))))
(define
mod/report
(fn
(by about reason)
(begin
(set! mod/*counter* (+ mod/*counter* 1))
(let
((id (str "r" mod/*counter*)))
(let
((r (mod/mk-report id by about reason)))
(begin
(append! mod/*reports* r)
(append! mod/*cases* {:id id :case (mod/mk-case r)})
r))))))
(define
mod/get-report
(fn
(id)
(reduce
(fn (acc r) (if (= (mod/report-id r) id) r acc))
nil
mod/*reports*)))
(define
mod/add-evidence
(fn
(id kind val)
(let
((r (mod/get-report id)))
(if
(nil? r)
nil
(let
((updated (mod/attach-evidence r (mod/mk-evidence kind val))))
(begin
(set!
mod/*reports*
(map
(fn (x) (if (= (mod/report-id x) id) updated x))
mod/*reports*))
updated))))))
(define
mod/decide
(fn
(id)
(let
((r (mod/get-report id)))
(if
(nil? r)
nil
(let
((d (mod/decide-report r mod/*reports* mod/*rules*)))
(begin (mod/log-decision! d (mod/report-evidence r)) d))))))
;; ── lifecycle façade over the case registry ──
(define
mod/case-of
(fn
(id)
(reduce
(fn (acc rec) (if (= (get rec :id) id) (get rec :case) acc))
nil
mod/*cases*)))
(define
mod/case-store!
(fn
(id c)
(set!
mod/*cases*
(map
(fn (rec) (if (= (get rec :id) id) {:id id :case c} rec))
mod/*cases*))))
;; apply a lifecycle op to the stored case, persist it, and (when a decision was
;; committed cleanly) append it to the audit log; returns the updated case
(define
mod/case-apply!
(fn
(id op log?)
(let
((c (mod/case-of id)))
(if
(nil? c)
nil
(let
((c2 (op c)))
(begin
(mod/case-store! id c2)
(when
log?
(when
(nil? (mod/case-error c2))
(let
((d (mod/case-decision c2)))
(if
(nil? d)
nil
(mod/log-decision!
d
(mod/report-evidence (mod/case-report c2)))))))
c2))))))
(define
mod/triage
(fn
(id)
(mod/case-apply!
id
(fn (c) (mod/case-triage c mod/*reports* mod/*rules*))
false)))
(define
mod/resolve
(fn (id) (mod/case-apply! id (fn (c) (mod/case-resolve c)) true)))
(define
mod/review
(fn
(id kind val)
(mod/case-apply!
id
(fn (c) (mod/case-review c kind val mod/*reports* mod/*rules*))
true)))
(define
mod/appeal
(fn
(id kind val)
(mod/case-apply!
id
(fn (c) (mod/case-appeal c kind val mod/*reports* mod/*rules*))
true)))
(define
mod/finalize
(fn (id) (mod/case-apply! id (fn (c) (mod/case-finalize c)) false)))

View File

@@ -1,54 +0,0 @@
;; lib/mod/audit.sx — append-only decision log.
;;
;; Every decision the api commits is recorded as an immutable audit entry holding
;; the decision (action + matching rule), the proof tree (the derivation that
;; justified it), and a snapshot of the evidence in force at decision time. The
;; log is append-only: entries are never mutated or removed, only appended, each
;; with a monotonic sequence number. Retrieval is by report id (full history) or
;; by sequence.
(define mod/*audit-log* (list))
(define mod/*audit-seq* 0)
(define
mod/audit-reset!
(fn
()
(begin (set! mod/*audit-log* (list)) (set! mod/*audit-seq* 0))))
(define mod/mk-audit-entry (fn (seq decision evidence-snapshot) {:action (get decision :action) :evidence evidence-snapshot :proof (get decision :proof) :rule (get decision :rule) :report-id (get decision :report-id) :seq seq}))
(define
mod/log-decision!
(fn
(decision evidence-snapshot)
(begin
(set! mod/*audit-seq* (+ mod/*audit-seq* 1))
(let
((entry (mod/mk-audit-entry mod/*audit-seq* decision evidence-snapshot)))
(begin (append! mod/*audit-log* entry) entry)))))
;; entries for one report, in chronological (sequence) order
(define
mod/audit
(fn
(id)
(reduce
(fn
(acc e)
(if (= (get e :report-id) id) (append acc (list e)) acc))
(list)
mod/*audit-log*)))
(define mod/audit-all (fn () mod/*audit-log*))
(define mod/audit-count (fn () (len mod/*audit-log*)))
;; most recent decision logged for a report (nil if none)
(define
mod/audit-latest
(fn
(id)
(reduce
(fn (acc e) (if (= (get e :report-id) id) e acc))
nil
mod/*audit-log*)))

View File

@@ -1,55 +0,0 @@
;; lib/mod/batch.sx — batch triage + corpus analytics.
;;
;; Operational layer: decide a whole queue of reports at once, summarize the
;; outcomes by action, and measure which rules actually fire across a corpus.
;; mod/never-fired is the empirical complement to lint's static unreachable check
;; (Ext 5): lint finds rules that CAN'T fire by structure; never-fired finds rules
;; that DIDN'T fire on real data.
(define
mod/decide-batch
(fn
(reports rules)
(map (fn (r) (mod/decide-report r reports rules)) reports)))
(define
mod/count-action
(fn
(decisions action)
(reduce
(fn (acc d) (if (= (get d :action) action) (+ acc 1) acc))
0
decisions)))
(define mod/action-histogram (fn (decisions) {:keep (mod/count-action decisions "keep") :remove (mod/count-action decisions "remove") :escalate (mod/count-action decisions "escalate") :hide (mod/count-action decisions "hide") :ban (mod/count-action decisions "ban")}))
(define
mod/rule-fire-count
(fn
(decisions rule-name)
(reduce
(fn (acc d) (if (= (get d :rule) rule-name) (+ acc 1) acc))
0
decisions)))
(define
mod/rule-coverage
(fn
(reports rules)
(let
((decisions (mod/decide-batch reports rules)))
(map (fn (rule) {:rule (mod/rule-name rule) :fired (mod/rule-fire-count decisions (mod/rule-name rule))}) rules))))
(define
mod/never-fired
(fn
(reports rules)
(reduce
(fn
(acc c)
(if
(= (get c :fired) 0)
(append acc (list (get c :rule)))
acc))
(list)
(mod/rule-coverage reports rules))))

View File

@@ -1,60 +0,0 @@
# Mod conformance config — sourced by lib/guest/conformance.sh.
LANG_NAME=mod
MODE=dict
PRELOADS=(
lib/guest/pratt.sx
lib/prolog/tokenizer.sx
lib/prolog/parser.sx
lib/prolog/runtime.sx
lib/prolog/query.sx
lib/prolog/compiler.sx
lib/mod/schema.sx
lib/mod/policy.sx
lib/mod/defrule.sx
lib/mod/engine.sx
lib/mod/explain.sx
lib/mod/severity.sx
lib/mod/offenders.sx
lib/mod/quorum.sx
lib/mod/trace.sx
lib/mod/whatif.sx
lib/mod/batch.sx
lib/mod/temporal.sx
lib/mod/sla.sx
lib/mod/wire.sx
lib/mod/activity.sx
lib/mod/policies.sx
lib/mod/pipeline.sx
lib/mod/lifecycle.sx
lib/mod/audit.sx
lib/mod/api.sx
lib/mod/fed.sx
lib/mod/link.sx
lib/mod/lint.sx
)
SUITES=(
"decide:lib/mod/tests/decide.sx:(mod-decide-tests-run!)"
"audit:lib/mod/tests/audit.sx:(mod-audit-tests-run!)"
"escalation:lib/mod/tests/escalation.sx:(mod-escalation-tests-run!)"
"fed:lib/mod/tests/fed.sx:(mod-fed-tests-run!)"
"extensions:lib/mod/tests/extensions.sx:(mod-extensions-tests-run!)"
"link:lib/mod/tests/link.sx:(mod-link-tests-run!)"
"lint:lib/mod/tests/lint.sx:(mod-lint-tests-run!)"
"severity:lib/mod/tests/severity.sx:(mod-severity-tests-run!)"
"offenders:lib/mod/tests/offenders.sx:(mod-offenders-tests-run!)"
"quorum:lib/mod/tests/quorum.sx:(mod-quorum-tests-run!)"
"trace:lib/mod/tests/trace.sx:(mod-trace-tests-run!)"
"whatif:lib/mod/tests/whatif.sx:(mod-whatif-tests-run!)"
"batch:lib/mod/tests/batch.sx:(mod-batch-tests-run!)"
"temporal:lib/mod/tests/temporal.sx:(mod-temporal-tests-run!)"
"sla:lib/mod/tests/sla.sx:(mod-sla-tests-run!)"
"wire:lib/mod/tests/wire.sx:(mod-wire-tests-run!)"
"disjunction:lib/mod/tests/disjunction.sx:(mod-disjunction-tests-run!)"
"activity:lib/mod/tests/activity.sx:(mod-activity-tests-run!)"
"policies:lib/mod/tests/policies.sx:(mod-policies-tests-run!)"
"defrule:lib/mod/tests/defrule.sx:(mod-defrule-tests-run!)"
"pipeline:lib/mod/tests/pipeline.sx:(mod-pipeline-tests-run!)"
)

View File

@@ -1,16 +0,0 @@
;; lib/mod/defrule.sx — ergonomic rule / ruleset construction.
;;
;; The roadmap sketched a (defrule action :when conditions) surface. Conditions
;; already evaluate to plain data, so this needs no macro — variadic functions
;; suffice: mod/defrule collects its trailing condition forms via &rest (dropping
;; the explicit outer (list ...)), and mod/ruleset assembles rules the same way.
;;
;; (mod/ruleset
;; (mod/defrule "spam-hide" :hide (list :classification "spam"))
;; (mod/defrule "default-keep" :keep))
(define
mod/defrule
(fn (name action &rest conds) (mod/mk-rule name action conds)))
(define mod/ruleset (fn (&rest rules) rules))

View File

@@ -1,64 +0,0 @@
;; lib/mod/engine.sx — decide a report by querying the policy program.
;;
;; build-program assembles the report's facts plus the compiled policy clauses;
;; decide-report runs the Prolog query and returns a decision. A decision is a
;; proof, not a bare keyword: it carries the matching rule, the conditions it
;; required, the evidence that satisfied them, and a derivation — the proof tree.
;;
;; The proof tree is built constructively: for the matching rule, each body goal
;; is re-queried against the same DB with the report id bound, recording the goal
;; text, whether it was solved, and the bindings that satisfied it. That is a
;; genuine derivation drawn from the Prolog database, ready for the audit trail.
(define
mod/find-rule
(fn
(rules name)
(reduce
(fn
(acc r)
(if (nil? acc) (if (= (mod/rule-name r) name) r acc) acc))
nil
rules)))
(define
mod/build-program
(fn
(r count rules)
(str (mod/report-facts r count) "\n" (mod/rules->program rules))))
(define
mod/proof-goals
(fn
(db id conds)
(if
(empty? conds)
(list {:solved true :goal "true" :bindings {}})
(map
(fn
(c)
(let
((g (mod/cond->goal c id)))
(let ((sols (pl-query-all db g))) {:solved (if (empty? sols) false true) :goal g :bindings (if (empty? sols) {} (first sols))})))
conds))))
(define
mod/decide-report
(fn
(r reports rules)
(let
((count (mod/report-count (mod/report-about r) reports))
(kinds (mod/classify-keywords r))
(id (mod/report-id r)))
(let
((program (mod/build-program r count rules)))
(let
((db (pl-load program)))
(let
((sol (pl-query-one db (str "policy_action(" id ", Action, Rule)"))))
(if
(nil? sol)
{:action "keep" :proof {:goals (list) :evidence kinds :conditions (list) :rule "none" :count count} :report-id id :rule "none"}
(let
((rname (dict-get sol "Rule")))
(let ((rule (mod/find-rule rules rname))) {:action (mod/rule-action rule) :proof {:goals (mod/proof-goals db id (mod/rule-when rule)) :evidence kinds :conditions (mod/rule-when rule) :rule rname :count count} :report-id id :rule rname})))))))))

View File

@@ -1,55 +0,0 @@
;; lib/mod/explain.sx — human-readable proof explanation.
;;
;; Turns a decision (from mod/decide-report, or any audit entry) into a readable
;; multi-line "why": the action, the rule that fired, the evidence in play, and
;; the derivation goal-by-goal with [proved]/[unproved] marks and the unification
;; bindings that satisfied each goal. Pure SX over the Phase-2 proof tree.
(define
mod/explain-binds
(fn
(binds)
(mod/join-with
", "
(map (fn (k) (str k "=" (dict-get binds k))) (keys binds)))))
(define
mod/explain-goal
(fn
(g)
(let
((mark (if (get g :solved) " [proved] " " [unproved] "))
(binds (get g :bindings)))
(if
(empty? (keys binds))
(str mark (get g :goal))
(str mark (get g :goal) " {" (mod/explain-binds binds) "}")))))
(define
mod/explain-evidence
(fn
(evidence)
(if
(empty? evidence)
"Evidence: (none)"
(str "Evidence: " (mod/join-with ", " evidence)))))
(define
mod/explain
(fn
(decision)
(let
((id (get decision :report-id))
(action (get decision :action))
(rule (get decision :rule))
(proof (get decision :proof)))
(let
((goals (get proof :goals)) (evidence (get proof :evidence)))
(mod/join-with
"\n"
(append
(list
(str "Report " id ": " action " (rule: " rule ")")
(mod/explain-evidence evidence)
"Because:")
(map mod/explain-goal goals)))))))

View File

@@ -1,145 +0,0 @@
;; lib/mod/fed.sx — federation: cross-instance reports, decision sharing, trust,
;; revocation. fed-sx itself is mocked here (an in-memory outbox); the real wire
;; transport would replace mod/fed-send!.
;;
;; Trust is advisory by default (the hard rule): a peer's decision only binds
;; locally when (mod/trusted? peer :mod) holds. An untrusted peer's decision is
;; recorded as a suggestion in the advisory log and is NOT applied. Local
;; decisions propagate outward via the outbox. Revocation undoes a locally
;; applied action when its proof is invalidated, notifying the origin peer.
(define mod/*fed-trust* (list)) ;; {:peer :scope}
(define mod/*fed-outbox* (list)) ;; {:to :type :payload}
(define mod/*fed-advisory* (list)) ;; {:peer :decision} — received, not applied
(define mod/*fed-applied* (list)) ;; {:report-id :action :origin :revoked}
(define mod/*fed-origins* (list)) ;; {:id :origin}
(define
mod/fed-reset!
(fn
()
(begin
(set! mod/*fed-trust* (list))
(set! mod/*fed-outbox* (list))
(set! mod/*fed-advisory* (list))
(set! mod/*fed-applied* (list))
(set! mod/*fed-origins* (list)))))
;; ── trust model ──
(define
mod/trust-match?
(fn
(t peer scope)
(if (= (get t :peer) peer) (= (get t :scope) scope) false)))
(define
mod/grant-trust
(fn (peer scope) (begin (append! mod/*fed-trust* {:scope scope :peer peer}) true)))
(define
mod/revoke-trust
(fn
(peer scope)
(set!
mod/*fed-trust*
(reduce
(fn
(acc t)
(if (mod/trust-match? t peer scope) acc (append acc (list t))))
(list)
mod/*fed-trust*))))
(define
mod/trusted?
(fn
(peer scope)
(mod/any? (fn (t) (mod/trust-match? t peer scope)) mod/*fed-trust*)))
;; ── cross-instance reports ──
(define
mod/fed-receive-report
(fn
(peer by about reason)
(let
((r (mod/report by about reason)))
(begin (append! mod/*fed-origins* {:id (mod/report-id r) :origin peer}) r))))
(define
mod/report-origin
(fn
(id)
(reduce
(fn (acc o) (if (= (get o :id) id) (get o :origin) acc))
"local"
mod/*fed-origins*)))
;; ── decision sharing (mock fed-sx send) ──
(define
mod/fed-send!
(fn (to type payload) (begin (append! mod/*fed-outbox* {:type type :to to :payload payload}) true)))
(define mod/fed-outbox (fn () mod/*fed-outbox*))
(define
mod/fed-share-decision
(fn
(decision peers)
(reduce
(fn
(acc p)
(begin (mod/fed-send! p "decision" decision) (append acc (list p))))
(list)
peers)))
;; ── receiving a peer's decision (advisory unless trusted) ──
(define
mod/fed-applied-action
(fn
(report-id)
(reduce
(fn (acc a) (if (= (get a :report-id) report-id) a acc))
nil
mod/*fed-applied*)))
(define
mod/fed-receive-decision
(fn
(peer decision)
(if
(mod/trusted? peer :mod)
(begin (append! mod/*fed-applied* {:revoked false :action (get decision :action) :report-id (get decision :report-id) :origin peer}) {:advisory false :peer peer :applied true :decision decision})
(begin (append! mod/*fed-advisory* {:peer peer :decision decision}) {:advisory true :peer peer :applied false :decision decision}))))
;; ── revocation ──
(define
mod/fed-revoke!
(fn
(report-id reason)
(begin
(set!
mod/*fed-applied*
(map
(fn (a) (if (= (get a :report-id) report-id) {:revoked true :action (get a :action) :report-id (get a :report-id) :origin (get a :origin)} a))
mod/*fed-applied*))
(mod/fed-send! (mod/report-origin report-id) "revocation" {:report-id report-id :reason reason})
report-id)))
;; re-run the engine; if the action no longer holds, the prior decision's proof
;; is invalidated — revoke the applied moderation.
(define
mod/fed-revoke-if-invalidated
(fn
(report decision reports rules)
(let
((d2 (mod/decide-report report reports rules)))
(if
(= (get d2 :action) (get decision :action))
{:revoked false :decision d2}
(begin
(mod/fed-revoke! (get decision :report-id) "proof invalidated")
{:revoked true :decision d2})))))

View File

@@ -1,160 +0,0 @@
;; lib/mod/lifecycle.sx — report lifecycle state machine (pure SX over the engine).
;;
;; Lifecycle state is deliberately separate from policy: the Prolog rules answer
;; "what action?", this module answers "where in the process is this report?".
;;
;; :open ──triage──▶ :triaged ──resolve/review──▶ :decided ──appeal──▶ :appealed
;; │ │
;; └────finalize───▶ :final ◀┘
;;
;; A case is an immutable value {:report :state :decision :tier :error :history}.
;; Every transition returns a NEW case; illegal transitions return the case
;; unchanged with :error set. Tiers: triage runs the engine (auto-tier); a
;; terminal action (hide/remove/keep) resolves immediately, an :escalate action
;; flags the case for human review (human-tier) before it can be resolved.
(define mod/case* (fn (report state decision tier err history) {:history history :state state :report report :error err :tier tier :decision decision}))
(define
mod/mk-case
(fn (report) (mod/case* report "open" nil nil nil (list))))
(define mod/case-report (fn (c) (get c :report)))
(define mod/case-state (fn (c) (get c :state)))
(define mod/case-decision (fn (c) (get c :decision)))
(define mod/case-tier (fn (c) (get c :tier)))
(define mod/case-error (fn (c) (get c :error)))
(define mod/case-history (fn (c) (get c :history)))
;; ── transition table ──
(define mod/lc-transitions {:final (list) :appealed (list "final") :decided (list "appealed" "final") :open (list "triaged") :triaged (list "decided")})
(define mod/member? (fn (x lst) (mod/any? (fn (y) (= y x)) lst)))
(define
mod/lc-can-transition?
(fn
(from to)
(let
((outs (get mod/lc-transitions from)))
(if (nil? outs) false (mod/member? to outs)))))
;; ── core transition: validate, record history, or flag :error ──
(define
mod/case-goto
(fn
(c to note report decision tier)
(let
((from (mod/case-state c)))
(if
(mod/lc-can-transition? from to)
(mod/case*
report
to
decision
tier
nil
(append (mod/case-history c) (list {:note note :to to :from from})))
(mod/case*
(mod/case-report c)
from
(mod/case-decision c)
(mod/case-tier c)
(str "illegal transition: " from " -> " to)
(mod/case-history c))))))
(define
mod/case-error-set
(fn
(c msg)
(mod/case*
(mod/case-report c)
(mod/case-state c)
(mod/case-decision c)
(mod/case-tier c)
msg
(mod/case-history c))))
;; ── lifecycle operations ──
;; :open → :triaged — run the auto-tier first pass.
(define
mod/case-triage
(fn
(c reports rules)
(let
((d (mod/decide-report (mod/case-report c) reports rules)))
(let
((tier (if (= (get d :action) "escalate") "human" "auto")))
(mod/case-goto
c
"triaged"
"auto-tier first pass"
(mod/case-report c)
d
tier)))))
;; :triaged → :decided — auto-tier resolves; human-tier is blocked until review.
(define
mod/case-resolve
(fn
(c)
(if
(= (mod/case-tier c) "human")
(mod/case-error-set c "awaiting human review (escalated)")
(mod/case-goto
c
"decided"
"auto-tier resolved"
(mod/case-report c)
(mod/case-decision c)
(mod/case-tier c)))))
;; :triaged → :decided — human review: attach evidence, re-decide, resolve.
(define
mod/case-review
(fn
(c kind val reports rules)
(let
((nr (mod/attach-evidence (mod/case-report c) (mod/mk-evidence kind val))))
(let
((d (mod/decide-report nr reports rules)))
(mod/case-goto c "decided" (str "human review: " kind) nr d "human")))))
;; :decided → :appealed — appeal: attach evidence, re-decide (may override).
(define
mod/case-appeal
(fn
(c kind val reports rules)
(let
((nr (mod/attach-evidence (mod/case-report c) (mod/mk-evidence kind val))))
(let
((d (mod/decide-report nr reports rules)))
(mod/case-goto
c
"appealed"
(str "appeal: " kind)
nr
d
(mod/case-tier c))))))
;; :decided | :appealed → :final
(define
mod/case-finalize
(fn
(c)
(mod/case-goto
c
"final"
"finalized"
(mod/case-report c)
(mod/case-decision c)
(mod/case-tier c))))
(define
mod/case-action
(fn
(c)
(let ((d (mod/case-decision c))) (if (nil? d) nil (get d :action)))))

View File

@@ -1,92 +0,0 @@
;; lib/mod/link.sx — report linking + deduplication.
;;
;; Reports about the same subject form a cluster; identical reports (same
;; reporter + subject + reason) are duplicates. Linking is Prolog-backed: all
;; report facts are loaded and related ids are found by unification — the same
;; relational substrate the policy engine uses, here for retrieval rather than
;; decision. Dedup is pure SX over a normalized link key.
(define
mod/link-key
(fn
(r)
(str
(mod/report-by r)
"|"
(mod/report-about r)
"|"
(downcase (mod/report-reason r)))))
(define
mod/dedup-reports
(fn
(reports)
(reduce
(fn
(acc r)
(if
(mod/any? (fn (x) (= (mod/link-key x) (mod/link-key r))) acc)
acc
(append acc (list r))))
(list)
reports)))
(define
mod/duplicate-count
(fn (reports) (- (len reports) (len (mod/dedup-reports reports)))))
;; ── Prolog-backed relational retrieval ──
(define
mod/report-rel-facts
(fn
(reports)
(mod/join-with
"\n"
(map
(fn
(r)
(str
"report("
(mod/report-id r)
", "
(mod/pl-quote (mod/report-by r))
", "
(mod/pl-quote (mod/report-about r))
")."))
reports))))
(define
mod/related-ids
(fn
(subject reports)
(let
((db (pl-load (mod/report-rel-facts reports))))
(map
(fn (sol) (dict-get sol "Id"))
(pl-query-all db (str "report(Id, _, " (mod/pl-quote subject) ")"))))))
(define
mod/reporters-of
(fn
(subject reports)
(let
((db (pl-load (mod/report-rel-facts reports))))
(map
(fn (sol) (dict-get sol "By"))
(pl-query-all db (str "report(_, By, " (mod/pl-quote subject) ")"))))))
(define
mod/distinct
(fn
(items)
(reduce
(fn
(acc x)
(if (mod/any? (fn (y) (= y x)) acc) acc (append acc (list x))))
(list)
items)))
(define
mod/distinct-reporters-of
(fn (subject reports) (mod/distinct (mod/reporters-of subject reports))))

View File

@@ -1,69 +0,0 @@
;; lib/mod/lint.sx — static analysis of a policy rule set.
;;
;; Because precedence is "first matching clause wins" (pl-query-one), the rule
;; order has correctness consequences a moderator can get wrong: a rule placed
;; after an unconditional (empty :when) rule can never fire, and a rule set with
;; no unconditional rule may leave some reports undecided. lint-rules surfaces
;; these without running the engine.
(define mod/rule-unconditional? (fn (r) (empty? (mod/rule-when r))))
;; names of rules that follow the first unconditional rule — structurally dead,
;; since the unconditional rule always matches first
(define
mod/unreachable-rules
(fn
(rules)
(get
(reduce
(fn
(acc r)
(if
(get acc :hit)
{:dead (append (get acc :dead) (list (mod/rule-name r))) :hit true}
(if (mod/rule-unconditional? r) {:dead (get acc :dead) :hit true} acc)))
{:dead (list) :hit false}
rules)
:dead)))
(define
mod/has-catchall?
(fn (rules) (mod/any? mod/rule-unconditional? rules)))
(define
mod/count-eq
(fn
(x lst)
(reduce (fn (a y) (if (= y x) (+ a 1) a)) 0 lst)))
(define
mod/duplicate-rule-names
(fn
(rules)
(let
((names (map mod/rule-name rules)))
(mod/distinct
(reduce
(fn
(acc n)
(if
(< 1 (mod/count-eq n names))
(append acc (list n))
acc))
(list)
names)))))
(define mod/lint-rules (fn (rules) {:duplicate-names (mod/duplicate-rule-names rules) :has-catchall (mod/has-catchall? rules) :unreachable (mod/unreachable-rules rules)}))
;; a rule set is well-formed when nothing is dead, it has a catch-all, and rule
;; names are unique
(define
mod/rules-ok?
(fn
(rules)
(let
((l (mod/lint-rules rules)))
(if
(empty? (get l :unreachable))
(if (get l :has-catchall) (empty? (get l :duplicate-names)) false)
false))))

View File

@@ -1,59 +0,0 @@
;; lib/mod/offenders.sx — repeat-offender escalation (audit log as evidence).
;;
;; The append-only audit trail is itself a source of evidence: a subject already
;; sanctioned several times is a repeat offender. mod/decide-escalating decides a
;; report normally, then — if the action is a sanction and the subject has at
;; least k PRIOR sanctions in the audit log — upgrades it to :ban. This is the one
;; place a decision depends on history beyond the single report, and it reads that
;; history from the audit log rather than re-deriving it.
(define
mod/sanction?
(fn
(action)
(mod/any? (fn (a) (= a action)) (list "hide" "remove" "ban"))))
;; count of prior sanctioning decisions in the audit log about a subject
(define
mod/subject-sanctions
(fn
(subject)
(reduce
(fn
(acc e)
(let
((r (mod/get-report (get e :report-id))))
(if
(nil? r)
acc
(if
(if
(= (mod/report-about r) subject)
(mod/sanction? (get e :action))
false)
(+ acc 1)
acc))))
0
(mod/audit-all))))
(define
mod/repeat-offender?
(fn (subject k) (<= k (mod/subject-sanctions subject))))
(define
mod/decide-escalating
(fn
(id k)
(let
((r (mod/get-report id)))
(if
(nil? r)
nil
(let
((priors (mod/subject-sanctions (mod/report-about r))))
(let
((d (mod/decide id)))
(if
(if (mod/sanction? (get d :action)) (<= k priors) false)
{:action "ban" :proof {:goals (get (get d :proof) :goals) :prior-sanctions priors :evidence (get (get d :proof) :evidence) :conditions (list) :rule "repeat-offender-ban" :count (get (get d :proof) :count)} :report-id id :rule "repeat-offender-ban" :strategy "escalating"}
d)))))))

View File

@@ -1,18 +0,0 @@
;; lib/mod/pipeline.sx — end-to-end triage orchestration.
;;
;; A single entry point that runs a report through the subsystem and returns the
;; full artifact bundle: the decision (under the report's domain policy), a
;; human-readable explanation, an ActivityPub-shaped event for the bus, and the
;; wire line for federated peers. Composes policies (Ext 17), explain (Ext 3),
;; activity (Ext 16) and wire (Ext 14) — the modules are independent, this is just
;; the convenience that wires them together for the common "process a report" path.
(define
mod/triage-pipeline
(fn
(domain r reports actor)
(let ((d (mod/decide-in domain r reports))) {:activity (mod/decision->activity d actor) :action (get d :action) :wire (mod/decision->wire d) :rule (get d :rule) :decision d :explanation (mod/explain d)})))
(define mod/pipeline-action (fn (p) (get p :action)))
(define mod/pipeline-activity (fn (p) (get p :activity)))
(define mod/pipeline-wire (fn (p) (get p :wire)))

View File

@@ -1,40 +0,0 @@
;; lib/mod/policies.sx — per-domain policy registry.
;;
;; rose-ash spans domains (blog, market, events, federation, …) that want
;; different moderation — a marketplace listing and a blog comment are not held to
;; the same bar. This registry maps a domain to a rule set; mod/decide-in resolves
;; the right policy and decides. Unregistered domains fall back to the default
;; rules, so adding a domain never leaves it unmoderated.
(define mod/*policies* (list))
(define mod/policies-reset! (fn () (set! mod/*policies* (list))))
(define
mod/register-policy!
(fn (domain rules) (begin (append! mod/*policies* {:domain domain :rules rules}) true)))
(define
mod/policy-registered?
(fn
(domain)
(mod/any? (fn (p) (= (get p :domain) domain)) mod/*policies*)))
(define
mod/policy-for
(fn
(domain)
(reduce
(fn (acc p) (if (= (get p :domain) domain) (get p :rules) acc))
mod/default-rules
mod/*policies*)))
(define
mod/decide-in
(fn
(domain r reports)
(mod/decide-report r reports (mod/policy-for domain))))
(define
mod/registered-domains
(fn () (map (fn (p) (get p :domain)) mod/*policies*)))

View File

@@ -1,137 +0,0 @@
;; lib/mod/policy.sx — moderation rules → Prolog clauses.
;;
;; A rule is {:name :action :when}. :when is a list of condition forms; each
;; compiles to a Prolog goal. The conditions in a :when list are ANDed (joined by
;; ", "); :not negates and :any (a list of sub-conditions) disjoins — so the
;; condition language is a small boolean algebra over the leaf predicates.
;; Rule order is precedence: the engine queries with pl-query-one, so the first
;; clause that proves wins. The final default rule has an empty body (true) so
;; every report yields at least :keep — "no rule matched" is a real result, not a
;; query failure.
;;
;; cond->goal takes an id-term so the same condition can be compiled with the
;; head variable "Id" (for clause bodies) or a concrete report id (for proof-tree
;; goal-by-goal re-querying in the engine).
;;
;; Precedence (top wins): exoneration evidence (appeal override) > confirmed-abuse
;; evidence (human review) > spam/abuse classification > repeated-report count >
;; default keep.
(define mod/mk-rule (fn (name action conds) {:when conds :name name :action action}))
(define mod/rule-name (fn (r) (get r :name)))
(define mod/rule-action (fn (r) (get r :action)))
(define mod/rule-when (fn (r) (get r :when)))
(define
mod/default-rules
(list
(mod/mk-rule
"exonerated-keep"
:keep (list (list :evidence "exonerated")))
(mod/mk-rule
"reviewer-remove"
:remove (list (list :evidence "confirmed-abuse")))
(mod/mk-rule "spam-hide" :hide (list (list :classification "spam")))
(mod/mk-rule
"abuse-remove"
:remove (list (list :classification "abuse")))
(mod/mk-rule
"repeated-escalate"
:escalate (list (list :count-at-least 3)))
(mod/mk-rule "default-keep" :keep (list))))
;; ── condition → Prolog goal ──
;;
;; (:classification "spam") → classification(Id, spam)
;; (:evidence "kind") → evidence(Id, 'kind', _)
;; (:attr "verified") → attr(Id, verified)
;; (:not <cond>) → not(<cond>) (negation)
;; (:any (list c1 c2 ...)) → (g1 ; g2 ; ...) (disjunction)
;; (:count-at-least 3) → report(Id, B, S), report_count(S, N), N >= 3
;; (:score-at-least 5) → aggregate_all(sum(W), signal(Id, _, W), T), T >= 5
;; (:reporters-at-least 2) → report(Id, _, Sr), setof(Br, report(_, Br, Sr), Bsr),
;; length(Bsr, Nr), Nr >= 2 (quorum engine)
;; (:burst-at-least 3) → report(Id, _, Sb), burst_count(Sb, Nb), Nb >= 3
;; (temporal engine)
(define
mod/cond->goal
(fn
(c idterm)
(let
((tag (first c)))
(cond
((= tag :classification)
(str "classification(" idterm ", " (nth c 1) ")"))
((= tag :evidence)
(str
"evidence("
idterm
", "
(mod/pl-quote (nth c 1))
", _)"))
((= tag :attr) (str "attr(" idterm ", " (nth c 1) ")"))
((= tag :not)
(str "not(" (mod/cond->goal (nth c 1) idterm) ")"))
((= tag :any)
(str
"("
(mod/join-with
" ; "
(map
(fn (sub) (mod/cond->goal sub idterm))
(nth c 1)))
")"))
((= tag :count-at-least)
(str
"report("
idterm
", B, S), report_count(S, N), N >= "
(nth c 1)))
((= tag :score-at-least)
(str
"aggregate_all(sum(W), signal("
idterm
", _, W), T), T >= "
(nth c 1)))
((= tag :reporters-at-least)
(str
"report("
idterm
", _, Sr), setof(Br, report(_, Br, Sr), Bsr), "
"length(Bsr, Nr), Nr >= "
(nth c 1)))
((= tag :burst-at-least)
(str
"report("
idterm
", _, Sb), burst_count(Sb, Nb), Nb >= "
(nth c 1)))
(true "true")))))
(define
mod/conds->body
(fn
(conds idterm)
(if
(empty? conds)
"true"
(mod/join-with ", " (map (fn (c) (mod/cond->goal c idterm)) conds)))))
(define
mod/rule->clause
(fn
(r)
(str
"policy_action(Id, "
(mod/rule-action r)
", '"
(mod/rule-name r)
"') :- "
(mod/conds->body (mod/rule-when r) "Id")
".")))
(define
mod/rules->program
(fn (rules) (mod/join-with "\n" (map mod/rule->clause rules))))

View File

@@ -1,40 +0,0 @@
;; lib/mod/quorum.sx — quorum decisions over distinct reporters (anti-brigade).
;;
;; The base engine asserts only the decided report's report/3 fact, so it can't
;; reason about WHO reported a subject. The quorum engine additionally asserts
;; every report's report/3 fact (via link's rel-facts), letting a rule require N
;; *distinct* reporters with `setof`/`length` — so one user filing many reports
;; does not manufacture consensus. Same decision shape as the base engine, plus
;; :strategy "quorum".
(define
mod/build-quorum-program
(fn
(r count reports rules)
(str
(mod/report-rel-facts reports)
"\n"
(mod/report-facts r count)
"\n"
(mod/rules->program rules))))
(define
mod/decide-quorum
(fn
(r reports rules)
(let
((count (mod/report-count (mod/report-about r) reports))
(kinds (mod/classify-keywords r))
(id (mod/report-id r)))
(let
((program (mod/build-quorum-program r count reports rules)))
(let
((db (pl-load program)))
(let
((sol (pl-query-one db (str "policy_action(" id ", Action, Rule)"))))
(if
(nil? sol)
{:action "keep" :proof {:goals (list) :evidence kinds :conditions (list) :rule "none" :count count} :report-id id :rule "none" :strategy "quorum"}
(let
((rule (mod/find-rule rules (dict-get sol "Rule"))))
{:action (mod/rule-action rule) :proof {:goals (mod/proof-goals db id (mod/rule-when rule)) :evidence kinds :conditions (mod/rule-when rule) :rule (mod/rule-name rule) :count count} :report-id id :rule (mod/rule-name rule) :strategy "quorum"}))))))))

View File

@@ -1,259 +0,0 @@
;; lib/mod/schema.sx — report representation + Prolog fact generation.
;;
;; A report is a dict {:id :by :about :reason :evidence :attrs :signals :at}.
;; :evidence — accumulated {:kind :val} entries (human review, scanners)
;; :attrs — attribute names ("verified") for negation-as-failure conditions
;; :signals — weighted {:kind :weight} entries for aggregate scoring rules
;; :at — integer timestamp/tick (deterministic; supplied, not clock-read)
;; The engine derives keyword classifications from the reason text and projects
;; the report, its classifications, evidence, attributes, and signals into Prolog
;; facts that policy clauses match against.
(define mod/mk-report (fn (id by about reason) {:attrs (list) :id id :signals (list) :by by :evidence (list) :about about :at 0 :reason reason}))
(define mod/report-id (fn (r) (get r :id)))
(define mod/report-by (fn (r) (get r :by)))
(define mod/report-about (fn (r) (get r :about)))
(define mod/report-reason (fn (r) (get r :reason)))
(define
mod/report-evidence
(fn (r) (let ((e (get r :evidence))) (if (nil? e) (list) e))))
(define
mod/report-attrs
(fn (r) (let ((a (get r :attrs))) (if (nil? a) (list) a))))
(define
mod/report-signals
(fn (r) (let ((s (get r :signals))) (if (nil? s) (list) s))))
(define
mod/report-at
(fn (r) (let ((t (get r :at))) (if (nil? t) 0 t))))
(define mod/mk-evidence (fn (kind val) {:val val :kind kind}))
(define mod/evidence-kind (fn (e) (get e :kind)))
(define mod/evidence-val (fn (e) (get e :val)))
(define mod/mk-signal (fn (kind weight) {:kind kind :weight weight}))
(define mod/signal-kind (fn (s) (get s :kind)))
(define mod/signal-weight (fn (s) (get s :weight)))
(define mod/report* (fn (r evs attrs sigs at) {:attrs attrs :id (mod/report-id r) :signals sigs :by (mod/report-by r) :evidence evs :about (mod/report-about r) :at at :reason (mod/report-reason r)}))
(define
mod/with-evidence
(fn
(r evs)
(mod/report*
r
evs
(mod/report-attrs r)
(mod/report-signals r)
(mod/report-at r))))
(define
mod/with-attrs
(fn
(r attrs)
(mod/report*
r
(mod/report-evidence r)
attrs
(mod/report-signals r)
(mod/report-at r))))
(define
mod/with-signals
(fn
(r sigs)
(mod/report*
r
(mod/report-evidence r)
(mod/report-attrs r)
sigs
(mod/report-at r))))
(define
mod/with-at
(fn
(r at)
(mod/report*
r
(mod/report-evidence r)
(mod/report-attrs r)
(mod/report-signals r)
at)))
(define
mod/attach-evidence
(fn
(r e)
(mod/with-evidence r (append (mod/report-evidence r) (list e)))))
(define
mod/attach-attr
(fn (r a) (mod/with-attrs r (append (mod/report-attrs r) (list a)))))
(define
mod/attach-signal
(fn (r s) (mod/with-signals r (append (mod/report-signals r) (list s)))))
;; ── substring search (the prolog-loaded env lacks includes?; slice/len do work) ──
(define
mod/contains-at?
(fn
(hay needle hl nl pos)
(if
(< hl (+ pos nl))
false
(if
(= (slice hay pos (+ pos nl)) needle)
true
(mod/contains-at? hay needle hl nl (+ pos 1))))))
(define
mod/str-contains?
(fn
(hay needle)
(let
((hl (len hay)) (nl (len needle)))
(if
(= nl 0)
true
(mod/contains-at? hay needle hl nl 0)))))
;; ── evidence derivation (keyword classification) ──
(define
mod/spam-keywords
(list "spam" "buy now" "click here" "free money" "viagra" "limited offer"))
(define
mod/abuse-keywords
(list "abuse" "harassment" "threat" "slur" "hate speech"))
(define
mod/any?
(fn (pred coll) (reduce (fn (acc x) (if acc acc (pred x))) false coll)))
(define
mod/reason-matches?
(fn
(reason kws)
(let
((low (downcase reason)))
(mod/any? (fn (k) (mod/str-contains? low k)) kws))))
(define
mod/classify-keywords
(fn
(r)
(let
((reason (mod/report-reason r)) (kinds (list)))
(begin
(when
(mod/reason-matches? reason mod/spam-keywords)
(append! kinds "spam"))
(when
(mod/reason-matches? reason mod/abuse-keywords)
(append! kinds "abuse"))
kinds))))
(define
mod/report-count
(fn
(about reports)
(reduce
(fn
(acc r)
(if (= (mod/report-about r) about) (+ acc 1) acc))
0
reports)))
;; ── Prolog fact projection ──
(define
mod/join-with
(fn
(sep items)
(reduce (fn (acc x) (if (= acc "") x (str acc sep x))) "" items)))
(define mod/pl-quote (fn (s) (str "'" s "'")))
(define
mod/classification-facts
(fn
(id kinds)
(mod/join-with
"\n"
(map (fn (k) (str "classification(" id ", " k ").")) kinds))))
(define
mod/evidence-facts
(fn
(id evs)
(mod/join-with
"\n"
(map
(fn
(e)
(str
"evidence("
id
", "
(mod/pl-quote (mod/evidence-kind e))
", "
(mod/pl-quote (str (mod/evidence-val e)))
")."))
evs))))
(define
mod/attr-facts
(fn
(id attrs)
(mod/join-with "\n" (map (fn (a) (str "attr(" id ", " a ").")) attrs))))
(define
mod/signal-facts
(fn
(id sigs)
(mod/join-with
"\n"
(map
(fn
(s)
(str
"signal("
id
", "
(mod/pl-quote (mod/signal-kind s))
", "
(mod/signal-weight s)
")."))
sigs))))
(define
mod/report-facts
(fn
(r count)
(let
((id (mod/report-id r))
(by (mod/pl-quote (mod/report-by r)))
(about (mod/pl-quote (mod/report-about r))))
(let
((cls (mod/classification-facts id (mod/classify-keywords r)))
(evs (mod/evidence-facts id (mod/report-evidence r)))
(ats (mod/attr-facts id (mod/report-attrs r)))
(sgs (mod/signal-facts id (mod/report-signals r))))
(mod/join-with
"\n"
(list
(str "report(" id ", " by ", " about ").")
(str "report_count(" about ", " count ").")
cls
evs
ats
sgs))))))

View File

@@ -1,30 +0,0 @@
{
"lang": "mod",
"total_passed": 390,
"total_failed": 0,
"total": 390,
"suites": [
{"name":"decide","passed":31,"failed":0,"total":31},
{"name":"audit","passed":29,"failed":0,"total":29},
{"name":"escalation","passed":46,"failed":0,"total":46},
{"name":"fed","passed":26,"failed":0,"total":26},
{"name":"extensions","passed":32,"failed":0,"total":32},
{"name":"link","passed":12,"failed":0,"total":12},
{"name":"lint","passed":14,"failed":0,"total":14},
{"name":"severity","passed":14,"failed":0,"total":14},
{"name":"offenders","passed":19,"failed":0,"total":19},
{"name":"quorum","passed":9,"failed":0,"total":9},
{"name":"trace","passed":15,"failed":0,"total":15},
{"name":"whatif","passed":13,"failed":0,"total":13},
{"name":"batch","passed":17,"failed":0,"total":17},
{"name":"temporal","passed":15,"failed":0,"total":15},
{"name":"sla","passed":15,"failed":0,"total":15},
{"name":"wire","passed":16,"failed":0,"total":16},
{"name":"disjunction","passed":10,"failed":0,"total":10},
{"name":"activity","passed":17,"failed":0,"total":17},
{"name":"policies","passed":14,"failed":0,"total":14},
{"name":"defrule","passed":11,"failed":0,"total":11},
{"name":"pipeline","passed":15,"failed":0,"total":15}
],
"generated": "2026-06-06T19:40:03+00:00"
}

View File

@@ -1,27 +0,0 @@
# mod scoreboard
**390 / 390 passing** (0 failure(s)).
| Suite | Passed | Total | Status |
|-------|--------|-------|--------|
| decide | 31 | 31 | ok |
| audit | 29 | 29 | ok |
| escalation | 46 | 46 | ok |
| fed | 26 | 26 | ok |
| extensions | 32 | 32 | ok |
| link | 12 | 12 | ok |
| lint | 14 | 14 | ok |
| severity | 14 | 14 | ok |
| offenders | 19 | 19 | ok |
| quorum | 9 | 9 | ok |
| trace | 15 | 15 | ok |
| whatif | 13 | 13 | ok |
| batch | 17 | 17 | ok |
| temporal | 15 | 15 | ok |
| sla | 15 | 15 | ok |
| wire | 16 | 16 | ok |
| disjunction | 10 | 10 | ok |
| activity | 17 | 17 | ok |
| policies | 14 | 14 | ok |
| defrule | 11 | 11 | ok |
| pipeline | 15 | 15 | ok |

View File

@@ -1,60 +0,0 @@
;; lib/mod/severity.sx — "strictest-wins" decision strategy.
;;
;; The default engine resolves precedence by rule ORDER (first proven clause wins,
;; via pl-query-one). Some policies instead want the HARSHEST applicable sanction
;; regardless of order. mod/decide-strictest collects every rule that proves
;; (pl-query-all) and picks the highest-severity action. Same decision shape as
;; the engine, plus :strategy. Built over the engine's helpers; engine untouched.
(define
mod/action-severity
(fn
(action)
(cond
((= action "ban") 4)
((= action "remove") 3)
((= action "hide") 2)
((= action "escalate") 1)
(true 0))))
(define
mod/strictest-sol
(fn
(sols)
(reduce
(fn
(acc s)
(if
(nil? acc)
s
(if
(<
(mod/action-severity (dict-get acc "Action"))
(mod/action-severity (dict-get s "Action")))
s
acc)))
nil
sols)))
(define
mod/decide-strictest
(fn
(r reports rules)
(let
((count (mod/report-count (mod/report-about r) reports))
(kinds (mod/classify-keywords r))
(id (mod/report-id r)))
(let
((program (mod/build-program r count rules)))
(let
((db (pl-load program)))
(let
((sols (pl-query-all db (str "policy_action(" id ", Action, Rule)"))))
(let
((best (mod/strictest-sol sols)))
(if
(nil? best)
{:action "keep" :proof {:goals (list) :evidence kinds :conditions (list) :rule "none" :count count} :report-id id :rule "none" :strategy "strictest"}
(let
((rule (mod/find-rule rules (dict-get best "Rule"))))
{:action (mod/rule-action rule) :proof {:goals (mod/proof-goals db id (mod/rule-when rule)) :evidence kinds :conditions (mod/rule-when rule) :rule (mod/rule-name rule) :count count} :report-id id :rule (mod/rule-name rule) :strategy "strictest"})))))))))

View File

@@ -1,47 +0,0 @@
;; lib/mod/sla.sx — service-level sweep over pending lifecycle cases.
;;
;; Composes the Phase-3 lifecycle with the Ext-12 time dimension: a case left in a
;; pending state (open / triaged / appealed) past a deadline has breached SLA and
;; should resurface. A timed-case pairs a case with the tick it entered its
;; current state (the caller stamps this — the lifecycle stays timeless and pure).
;; Terminal states (decided / final) never breach.
(define mod/pending-states (list "open" "triaged" "appealed"))
(define mod/pending-state? (fn (s) (mod/member? s mod/pending-states)))
(define mod/mk-timed-case (fn (c entered-at) {:entered-at entered-at :case c}))
(define mod/tc-case (fn (tc) (get tc :case)))
(define mod/tc-entered-at (fn (tc) (get tc :entered-at)))
(define
mod/overdue?
(fn
(tc now deadline)
(if
(mod/pending-state? (mod/case-state (mod/tc-case tc)))
(< deadline (- now (mod/tc-entered-at tc)))
false)))
(define
mod/sla-sweep
(fn
(timed-cases now deadline)
(reduce
(fn
(acc tc)
(if
(mod/overdue? tc now deadline)
(append
acc
(list (mod/report-id (mod/case-report (mod/tc-case tc)))))
acc))
(list)
timed-cases)))
(define
mod/overdue-count
(fn
(timed-cases now deadline)
(len (mod/sla-sweep timed-cases now deadline))))
(define mod/age (fn (tc now) (- now (mod/tc-entered-at tc))))

View File

@@ -1,62 +0,0 @@
;; lib/mod/temporal.sx — burst detection over a time window.
;;
;; A plain report count can't tell a burst (N reports in minutes) from slow
;; accumulation (N reports over months). mod/decide-temporal takes a `now` tick
;; and a `window`, counts reports about the subject with :at within [now-window,
;; now], asserts it as burst_count/2, and lets a `(:burst-at-least K)` rule fire
;; only on a genuine burst. Time is supplied (deterministic), never clock-read.
(define
mod/window-count
(fn
(subject reports now window)
(reduce
(fn
(acc r)
(if
(if
(= (mod/report-about r) subject)
(<= (- now window) (mod/report-at r))
false)
(+ acc 1)
acc))
0
reports)))
(define
mod/build-temporal-program
(fn
(r count bcount rules)
(str
(mod/report-facts r count)
"\n"
"burst_count("
(mod/pl-quote (mod/report-about r))
", "
bcount
").\n"
(mod/rules->program rules))))
(define
mod/decide-temporal
(fn
(r reports rules now window)
(let
((about (mod/report-about r))
(id (mod/report-id r))
(kinds (mod/classify-keywords r)))
(let
((count (mod/report-count about reports))
(bcount (mod/window-count about reports now window)))
(let
((program (mod/build-temporal-program r count bcount rules)))
(let
((db (pl-load program)))
(let
((sol (pl-query-one db (str "policy_action(" id ", Action, Rule)"))))
(if
(nil? sol)
{:action "keep" :proof {:burst bcount :goals (list) :evidence kinds :conditions (list) :rule "none" :count count} :report-id id :rule "none" :strategy "temporal"}
(let
((rule (mod/find-rule rules (dict-get sol "Rule"))))
{:action (mod/rule-action rule) :proof {:burst bcount :goals (mod/proof-goals db id (mod/rule-when rule)) :evidence kinds :conditions (mod/rule-when rule) :rule (mod/rule-name rule) :count count} :report-id id :rule (mod/rule-name rule) :strategy "temporal"})))))))))

View File

@@ -1,95 +0,0 @@
;; lib/mod/tests/activity.sx — Ext 16: ActivityPub-shaped decision export.
(define mod-ap-count 0)
(define mod-ap-pass 0)
(define mod-ap-fail 0)
(define mod-ap-failures (list))
(define
mod-ap-test!
(fn
(name got expected)
(begin
(set! mod-ap-count (+ mod-ap-count 1))
(if
(= got expected)
(set! mod-ap-pass (+ mod-ap-pass 1))
(begin
(set! mod-ap-fail (+ mod-ap-fail 1))
(append!
mod-ap-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── action → AP verb ──
(mod-ap-test! "remove → Delete" (mod/action->verb "remove") "Delete")
(mod-ap-test! "ban → Block" (mod/action->verb "ban") "Block")
(mod-ap-test! "hide → Flag" (mod/action->verb "hide") "Flag")
(mod-ap-test! "escalate → Flag" (mod/action->verb "escalate") "Flag")
(mod-ap-test! "keep → nil (no activity)" (mod/action->verb "keep") nil)
;; ── single decision → activity ──
(define mod-ap-spam (mod/mk-report "r1" "a" "bob" "this is spam"))
(define
mod-ap-dec
(mod/decide-report mod-ap-spam (list mod-ap-spam) mod/default-rules))
(define mod-ap-act (mod/decision->activity mod-ap-dec "instance.example"))
(mod-ap-test! "activity type is Flag (hide)" (get mod-ap-act :type) "Flag")
(mod-ap-test! "activity object is report id" (get mod-ap-act :object) "r1")
(mod-ap-test!
"activity actor preserved"
(get mod-ap-act :actor)
"instance.example")
(mod-ap-test!
"activity preserves precise action"
(get mod-ap-act :action)
"hide")
(mod-ap-test! "activity carries rule" (get mod-ap-act :rule) "spam-hide")
(mod-ap-test!
"activity summary"
(get mod-ap-act :summary)
"moderation/hide via spam-hide")
;; ── keep produces no activity ──
(define mod-ap-clean (mod/mk-report "r2" "a" "b" "a fine post"))
(define
mod-ap-keep
(mod/decide-report mod-ap-clean (list mod-ap-clean) mod/default-rules))
(mod-ap-test!
"keep decision → nil activity"
(mod/decision->activity mod-ap-keep "x")
nil)
;; ── abuse → Delete ──
(define mod-ap-abuse (mod/mk-report "r3" "a" "b" "harassment here"))
(define
mod-ap-abuse-dec
(mod/decide-report mod-ap-abuse (list mod-ap-abuse) mod/default-rules))
(mod-ap-test!
"abuse decision → Delete activity"
(get (mod/decision->activity mod-ap-abuse-dec "x") :type)
"Delete")
;; ── batch export drops keeps ──
(define mod-ap-decisions (list mod-ap-dec mod-ap-keep mod-ap-abuse-dec))
(define mod-ap-acts (mod/decisions->activities mod-ap-decisions "inst"))
(mod-ap-test! "batch export drops the keep" (len mod-ap-acts) 2)
(mod-ap-test!
"batch export first is the Flag"
(get (first mod-ap-acts) :type)
"Flag")
(mod-ap-test!
"batch export second is the Delete"
(get (nth mod-ap-acts 1) :type)
"Delete")
(mod-ap-test!
"empty decisions → no activities"
(mod/decisions->activities (list) "inst")
(list))
(define mod-activity-tests-run! (fn () {:failures mod-ap-failures :total mod-ap-count :passed mod-ap-pass :failed mod-ap-fail}))

View File

@@ -1,187 +0,0 @@
;; lib/mod/tests/audit.sx — Phase 2: evidence accumulation + proof tree + audit.
(define mod-aud-count 0)
(define mod-aud-pass 0)
(define mod-aud-fail 0)
(define mod-aud-failures (list))
(define
mod-aud-test!
(fn
(name got expected)
(begin
(set! mod-aud-count (+ mod-aud-count 1))
(if
(= got expected)
(set! mod-aud-pass (+ mod-aud-pass 1))
(begin
(set! mod-aud-fail (+ mod-aud-fail 1))
(append!
mod-aud-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
mod-aud-decide1
(fn (r) (mod/decide-report r (list r) mod/default-rules)))
;; ── proof tree: keyword classification ──
(define
mod-aud-spam
(mod-aud-decide1 (mod/mk-report "r1" "alice" "bob" "this is spam")))
(define mod-aud-spam-goals (get (get mod-aud-spam :proof) :goals))
(mod-aud-test! "spam proof has one goal" (len mod-aud-spam-goals) 1)
(mod-aud-test!
"spam proof goal text"
(get (first mod-aud-spam-goals) :goal)
"classification(r1, spam)")
(mod-aud-test!
"spam proof goal solved"
(get (first mod-aud-spam-goals) :solved)
true)
;; ── proof tree: count rule with real bindings ──
(define mod-aud-rep-r (mod/mk-report "r3" "ann" "dave" "x"))
(define
mod-aud-rep
(mod/decide-report
mod-aud-rep-r
(list mod-aud-rep-r mod-aud-rep-r mod-aud-rep-r)
mod/default-rules))
(define mod-aud-rep-goals (get (get mod-aud-rep :proof) :goals))
(define mod-aud-rep-binds (get (first mod-aud-rep-goals) :bindings))
(mod-aud-test!
"count proof goal solved"
(get (first mod-aud-rep-goals) :solved)
true)
(mod-aud-test! "count proof binding N" (dict-get mod-aud-rep-binds "N") "3")
(mod-aud-test!
"count proof binding S (subject)"
(dict-get mod-aud-rep-binds "S")
"dave")
;; ── proof tree: default keep has a 'true' goal ──
(define
mod-aud-keep
(mod-aud-decide1 (mod/mk-report "rk" "a" "b" "a fine post")))
(define mod-aud-keep-goals (get (get mod-aud-keep :proof) :goals))
(mod-aud-test!
"keep proof goal text true"
(get (first mod-aud-keep-goals) :goal)
"true")
(mod-aud-test!
"keep proof goal solved"
(get (first mod-aud-keep-goals) :solved)
true)
;; ── evidence accumulation drives a rule ──
(define
mod-aud-rev-r
(mod/attach-evidence
(mod/mk-report "re" "a" "carol" "neutral")
(mod/mk-evidence "confirmed-abuse" "human")))
(define mod-aud-rev (mod-aud-decide1 mod-aud-rev-r))
(mod-aud-test!
"evidence has length 1"
(len (mod/report-evidence mod-aud-rev-r))
1)
(mod-aud-test!
"evidence reviewer-remove → remove"
(get mod-aud-rev :action)
"remove")
(mod-aud-test!
"evidence reviewer-remove rule"
(get mod-aud-rev :rule)
"reviewer-remove")
(mod-aud-test!
"evidence proof goal solved"
(get (first (get (get mod-aud-rev :proof) :goals)) :solved)
true)
(mod-aud-test!
"no evidence → not reviewer-remove"
(get (mod-aud-decide1 (mod/mk-report "rn" "a" "b" "neutral")) :rule)
"default-keep")
;; ── append-only audit log via the api ──
(mod/reset!)
(mod/report "alice" "bob" "this is spam")
(mod/report "carol" "eve" "fine post")
(define mod-aud-d1 (mod/decide "r1"))
(define mod-aud-d2 (mod/decide "r2"))
(mod-aud-test! "two decisions logged" (mod/audit-count) 2)
(mod-aud-test!
"first entry seq 1"
(get (first (mod/audit-all)) :seq)
1)
(mod-aud-test!
"audit r1 returns one entry"
(len (mod/audit "r1"))
1)
(mod-aud-test!
"audit r1 action matches decision"
(get (first (mod/audit "r1")) :action)
(get mod-aud-d1 :action))
(mod-aud-test!
"audit r1 rule matches decision"
(get (first (mod/audit "r1")) :rule)
"spam-hide")
(mod-aud-test!
"audit r1 entry carries proof goals"
(len (get (get (first (mod/audit "r1")) :proof) :goals))
1)
(mod-aud-test!
"audit r2 keep"
(get (first (mod/audit "r2")) :action)
"keep")
(mod-aud-test! "audit unknown report → empty" (mod/audit "r99") (list))
;; ── append-only: re-deciding appends, never mutates ──
(define mod-aud-d1b (mod/decide "r1"))
(mod-aud-test! "re-decide appends (count 3)" (mod/audit-count) 3)
(mod-aud-test!
"audit r1 now has 2 entries"
(len (mod/audit "r1"))
2)
(mod-aud-test!
"audit r1 seqs monotonic"
(get (nth (mod/audit "r1") 1) :seq)
3)
(mod-aud-test!
"audit-latest r1 is seq 3"
(get (mod/audit-latest "r1") :seq)
3)
(mod-aud-test!
"first r1 entry unchanged (still seq 1)"
(get (first (mod/audit "r1")) :seq)
1)
;; ── evidence snapshot captured at decision time ──
(mod/add-evidence "r2" "confirmed-abuse" "human")
(define mod-aud-d2b (mod/decide "r2"))
(mod-aud-test!
"post-evidence decision flips to remove"
(get mod-aud-d2b :action)
"remove")
(mod-aud-test!
"audit snapshot records evidence kind"
(mod/evidence-kind (first (get (mod/audit-latest "r2") :evidence)))
"confirmed-abuse")
(mod-aud-test!
"earlier r2 entry had empty evidence snapshot"
(len (get (first (mod/audit "r2")) :evidence))
0)
(define mod-audit-tests-run! (fn () {:failures mod-aud-failures :total mod-aud-count :passed mod-aud-pass :failed mod-aud-fail}))

View File

@@ -1,101 +0,0 @@
;; lib/mod/tests/batch.sx — Ext 11: batch triage + corpus analytics.
(define mod-b-count 0)
(define mod-b-pass 0)
(define mod-b-fail 0)
(define mod-b-failures (list))
(define
mod-b-test!
(fn
(name got expected)
(begin
(set! mod-b-count (+ mod-b-count 1))
(if
(= got expected)
(set! mod-b-pass (+ mod-b-pass 1))
(begin
(set! mod-b-fail (+ mod-b-fail 1))
(append!
mod-b-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; corpus: 2 spam, 1 abuse, 2 clean — distinct subjects so the count rule stays quiet
(define
mod-b-corpus
(list
(mod/mk-report "r1" "u" "s1" "this is spam")
(mod/mk-report "r2" "u" "s2" "buy now offer")
(mod/mk-report "r3" "u" "s3" "harassment here")
(mod/mk-report "r4" "u" "s4" "a fine post")
(mod/mk-report "r5" "u" "s5" "thanks for sharing")))
(define mod-b-decisions (mod/decide-batch mod-b-corpus mod/default-rules))
;; ── decide-batch ──
(mod-b-test! "one decision per report" (len mod-b-decisions) 5)
(mod-b-test!
"first decision is hide"
(get (first mod-b-decisions) :action)
"hide")
;; ── action histogram ──
(define mod-b-hist (mod/action-histogram mod-b-decisions))
(mod-b-test! "histogram hide count" (get mod-b-hist :hide) 2)
(mod-b-test! "histogram remove count" (get mod-b-hist :remove) 1)
(mod-b-test! "histogram keep count" (get mod-b-hist :keep) 2)
(mod-b-test! "histogram escalate count" (get mod-b-hist :escalate) 0)
(mod-b-test! "histogram ban count" (get mod-b-hist :ban) 0)
(mod-b-test!
"histogram totals match corpus"
(+
(+ (get mod-b-hist :hide) (get mod-b-hist :remove))
(+
(get mod-b-hist :keep)
(+ (get mod-b-hist :escalate) (get mod-b-hist :ban))))
5)
;; ── rule coverage (empirical) ──
(define mod-b-cov (mod/rule-coverage mod-b-corpus mod/default-rules))
(mod-b-test! "coverage has one row per rule" (len mod-b-cov) 6)
(mod-b-test!
"spam-hide fired twice"
(mod/rule-fire-count mod-b-decisions "spam-hide")
2)
(mod-b-test!
"abuse-remove fired once"
(mod/rule-fire-count mod-b-decisions "abuse-remove")
1)
(mod-b-test!
"default-keep fired twice"
(mod/rule-fire-count mod-b-decisions "default-keep")
2)
;; ── never-fired: rules not exercised by this corpus ──
(define mod-b-never (mod/never-fired mod-b-corpus mod/default-rules))
(mod-b-test!
"exonerated-keep never fired"
(mod/member? "exonerated-keep" mod-b-never)
true)
(mod-b-test!
"reviewer-remove never fired"
(mod/member? "reviewer-remove" mod-b-never)
true)
(mod-b-test!
"repeated-escalate never fired"
(mod/member? "repeated-escalate" mod-b-never)
true)
(mod-b-test!
"spam-hide DID fire (not in never-fired)"
(mod/member? "spam-hide" mod-b-never)
false)
(mod-b-test!
"three rules never fired on this corpus"
(len mod-b-never)
3)
(define mod-batch-tests-run! (fn () {:failures mod-b-failures :total mod-b-count :passed mod-b-pass :failed mod-b-fail}))

View File

@@ -1,215 +0,0 @@
;; lib/mod/tests/decide.sx — Phase 1: report representation + simple policy.
(define mod-dec-count 0)
(define mod-dec-pass 0)
(define mod-dec-fail 0)
(define mod-dec-failures (list))
(define
mod-dec-test!
(fn
(name got expected)
(begin
(set! mod-dec-count (+ mod-dec-count 1))
(if
(= got expected)
(set! mod-dec-pass (+ mod-dec-pass 1))
(begin
(set! mod-dec-fail (+ mod-dec-fail 1))
(append!
mod-dec-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; decide a single report (count over a 1-element registry)
(define
mod-dec-one
(fn
(reason)
(let
((r (mod/mk-report "r1" "alice" "bob" reason)))
(mod/decide-report r (list r) mod/default-rules))))
(define mod-dec-action (fn (reason) (get (mod-dec-one reason) :action)))
;; ── spam keyword → :hide ──
(mod-dec-test!
"spam keyword 'spam' → hide"
(mod-dec-action "this is spam")
"hide")
(mod-dec-test!
"spam keyword 'buy now' → hide"
(mod-dec-action "buy now while stocks last")
"hide")
(mod-dec-test!
"spam keyword case-insensitive 'CLICK HERE' → hide"
(mod-dec-action "CLICK HERE now")
"hide")
(mod-dec-test!
"spam keyword 'free money' → hide"
(mod-dec-action "win free money fast")
"hide")
;; ── abuse keyword → :remove ──
(mod-dec-test!
"abuse keyword 'harassment' → remove"
(mod-dec-action "ongoing harassment of users")
"remove")
(mod-dec-test!
"abuse keyword 'threat' → remove"
(mod-dec-action "this is a threat")
"remove")
(mod-dec-test!
"abuse keyword 'slur' → remove"
(mod-dec-action "contains a slur")
"remove")
;; ── no rule → :keep ──
(mod-dec-test!
"neutral reason → keep"
(mod-dec-action "I disagree with this post")
"keep")
(mod-dec-test! "empty reason → keep" (mod-dec-action "") "keep")
;; ── decision carries the matching rule (proof, not bare keyword) ──
(mod-dec-test!
"spam decision rule name"
(get (mod-dec-one "this is spam") :rule)
"spam-hide")
(mod-dec-test!
"keep decision rule name"
(get (mod-dec-one "fine post") :rule)
"default-keep")
(mod-dec-test!
"abuse decision rule name"
(get (mod-dec-one "harassment here") :rule)
"abuse-remove")
(mod-dec-test!
"spam proof :rule"
(get (get (mod-dec-one "spam!") :proof) :rule)
"spam-hide")
(mod-dec-test!
"spam proof :evidence"
(get (get (mod-dec-one "spam!") :proof) :evidence)
(list "spam"))
(mod-dec-test!
"spam proof :count"
(get (get (mod-dec-one "spam!") :proof) :count)
1)
;; ── classification (evidence derivation) ──
(mod-dec-test!
"classify spam"
(mod/classify-keywords (mod/mk-report "r1" "a" "b" "spam!"))
(list "spam"))
(mod-dec-test!
"classify abuse"
(mod/classify-keywords (mod/mk-report "r1" "a" "b" "abuse"))
(list "abuse"))
(mod-dec-test!
"classify neutral → empty"
(mod/classify-keywords (mod/mk-report "r1" "a" "b" "hello"))
(list))
(mod-dec-test!
"classify both spam+abuse"
(mod/classify-keywords (mod/mk-report "r1" "a" "b" "spam and abuse"))
(list "spam" "abuse"))
;; ── report-count + repeated → :escalate ──
(define
mod-dec-three
(list
(mod/mk-report "r1" "a" "bob" "x")
(mod/mk-report "r2" "c" "bob" "y")
(mod/mk-report "r3" "d" "bob" "z")))
(mod-dec-test!
"report-count counts subject"
(mod/report-count "bob" mod-dec-three)
3)
(mod-dec-test!
"3 reports about subject → escalate"
(get
(mod/decide-report (first mod-dec-three) mod-dec-three mod/default-rules)
:action)
"escalate")
(mod-dec-test!
"escalate rule name"
(get
(mod/decide-report (first mod-dec-three) mod-dec-three mod/default-rules)
:rule)
"repeated-escalate")
(define
mod-dec-two
(list
(mod/mk-report "r1" "a" "carol" "x")
(mod/mk-report "r2" "c" "carol" "y")))
(mod-dec-test!
"2 reports about subject → keep (below threshold)"
(get
(mod/decide-report (first mod-dec-two) mod-dec-two mod/default-rules)
:action)
"keep")
;; ── precedence: spam beats repeated ──
(define
mod-dec-spam-among-many
(list
(mod/mk-report "r1" "a" "dave" "buy now spam")
(mod/mk-report "r2" "c" "dave" "y")
(mod/mk-report "r3" "d" "dave" "z")))
(mod-dec-test!
"spam wins over repeated (precedence)"
(get
(mod/decide-report
(first mod-dec-spam-among-many)
mod-dec-spam-among-many
mod/default-rules)
:action)
"hide")
;; ── accessors ──
(mod-dec-test!
"report-about accessor"
(mod/report-about (mod/mk-report "r1" "a" "bob" "x"))
"bob")
(mod-dec-test!
"report-by accessor"
(mod/report-by (mod/mk-report "r1" "alice" "bob" "x"))
"alice")
;; ── api registry ──
(mod/reset!)
(define mod-dec-r1 (mod/report "alice" "bob" "this is spam"))
(define mod-dec-r2 (mod/report "carol" "eve" "fine post"))
(mod-dec-test!
"mod/report assigns sequential id r1"
(mod/report-id mod-dec-r1)
"r1")
(mod-dec-test!
"mod/report assigns sequential id r2"
(mod/report-id mod-dec-r2)
"r2")
(mod-dec-test!
"mod/decide via registry → hide"
(get (mod/decide "r1") :action)
"hide")
(mod-dec-test!
"mod/decide via registry → keep"
(get (mod/decide "r2") :action)
"keep")
(mod-dec-test! "mod/decide unknown id → nil" (mod/decide "r99") nil)
(define mod-decide-tests-run! (fn () {:failures mod-dec-failures :total mod-dec-count :passed mod-dec-pass :failed mod-dec-fail}))

View File

@@ -1,95 +0,0 @@
;; lib/mod/tests/defrule.sx — Ext 18: ergonomic defrule / ruleset.
(define mod-dr-count 0)
(define mod-dr-pass 0)
(define mod-dr-fail 0)
(define mod-dr-failures (list))
(define
mod-dr-test!
(fn
(name got expected)
(begin
(set! mod-dr-count (+ mod-dr-count 1))
(if
(= got expected)
(set! mod-dr-pass (+ mod-dr-pass 1))
(begin
(set! mod-dr-fail (+ mod-dr-fail 1))
(append!
mod-dr-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── defrule produces the same structure as mk-rule ──
(define
mod-dr-r
(mod/defrule "spam-hide" :hide (list :classification "spam")))
(mod-dr-test! "defrule name" (mod/rule-name mod-dr-r) "spam-hide")
(mod-dr-test! "defrule action" (mod/rule-action mod-dr-r) "hide")
(mod-dr-test!
"defrule when wraps the conditions"
(mod/rule-when mod-dr-r)
(list (list :classification "spam")))
(mod-dr-test!
"defrule equals mk-rule equivalent"
(mod/rule-when mod-dr-r)
(mod/rule-when
(mod/mk-rule "spam-hide" :hide (list (list :classification "spam")))))
;; ── multi-condition + no-condition ──
(define
mod-dr-multi
(mod/defrule
"strict"
:hide (list :classification "spam")
(list :not (list :attr "verified"))))
(mod-dr-test!
"defrule collects multiple conditions"
(len (mod/rule-when mod-dr-multi))
2)
(define mod-dr-catch (mod/defrule "default-keep" :keep))
(mod-dr-test!
"defrule with no conditions is unconditional"
(mod/rule-when mod-dr-catch)
(list))
;; ── ruleset assembles a list ──
(define
mod-dr-rules
(mod/ruleset
(mod/defrule "spam-hide" :hide (list :classification "spam"))
(mod/defrule "default-keep" :keep)))
(mod-dr-test! "ruleset length" (len mod-dr-rules) 2)
(mod-dr-test!
"ruleset first rule name"
(mod/rule-name (first mod-dr-rules))
"spam-hide")
;; ── engine works with defrule/ruleset-built policy ──
(define mod-dr-spam (mod/mk-report "r1" "a" "b" "this is spam"))
(define mod-dr-clean (mod/mk-report "r2" "a" "b" "a fine post"))
(mod-dr-test!
"defrule policy: spam → hide"
(get
(mod/decide-report mod-dr-spam (list mod-dr-spam) mod-dr-rules)
:action)
"hide")
(mod-dr-test!
"defrule policy: clean → keep"
(get
(mod/decide-report mod-dr-clean (list mod-dr-clean) mod-dr-rules)
:action)
"keep")
(mod-dr-test!
"defrule policy: spam names the rule"
(get (mod/decide-report mod-dr-spam (list mod-dr-spam) mod-dr-rules) :rule)
"spam-hide")
(define mod-defrule-tests-run! (fn () {:failures mod-dr-failures :total mod-dr-count :passed mod-dr-pass :failed mod-dr-fail}))

View File

@@ -1,145 +0,0 @@
;; lib/mod/tests/disjunction.sx — Ext 15: disjunctive (:any) conditions.
(define mod-or-count 0)
(define mod-or-pass 0)
(define mod-or-fail 0)
(define mod-or-failures (list))
(define
mod-or-test!
(fn
(name got expected)
(begin
(set! mod-or-count (+ mod-or-count 1))
(if
(= got expected)
(set! mod-or-pass (+ mod-or-pass 1))
(begin
(set! mod-or-fail (+ mod-or-fail 1))
(append!
mod-or-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; one rule, OR of two classifications → one action covers both
(define
mod-or-rules
(list
(mod/mk-rule
"spam-or-abuse-hide"
:hide (list
(list
:any (list (list :classification "spam") (list :classification "abuse")))))
(mod/mk-rule "default-keep" :keep (list))))
(define mod-or-spam (mod/mk-report "r1" "a" "b" "this is spam"))
(define mod-or-abuse (mod/mk-report "r2" "a" "b" "harassment here"))
(define mod-or-clean (mod/mk-report "r3" "a" "b" "a fine post"))
(mod-or-test!
"OR: spam branch → hide"
(get
(mod/decide-report mod-or-spam (list mod-or-spam) mod-or-rules)
:action)
"hide")
(mod-or-test!
"OR: abuse branch → hide"
(get
(mod/decide-report mod-or-abuse (list mod-or-abuse) mod-or-rules)
:action)
"hide")
(mod-or-test!
"OR: neither branch → keep"
(get
(mod/decide-report mod-or-clean (list mod-or-clean) mod-or-rules)
:action)
"keep")
;; ── goal text + proof ──
(mod-or-test!
"cond->goal :any joins with ;"
(mod/cond->goal
(list
:any (list (list :classification "spam") (list :classification "abuse")))
"Id")
"(classification(Id, spam) ; classification(Id, abuse))")
(define
mod-or-dec
(mod/decide-report mod-or-spam (list mod-or-spam) mod-or-rules))
(mod-or-test!
"OR proof goal solved"
(get (first (get (get mod-or-dec :proof) :goals)) :solved)
true)
(mod-or-test!
"OR proof goal text"
(get (first (get (get mod-or-dec :proof) :goals)) :goal)
"(classification(r1, spam) ; classification(r1, abuse))")
;; ── :any composes with :not (NOR-ish) and :attr ──
(define
mod-or-mixed-rules
(list
(mod/mk-rule
"spam-or-flagged-hide"
:hide (list
(list
:any (list (list :classification "spam") (list :attr "flagged")))))
(mod/mk-rule "default-keep" :keep (list))))
(define
mod-or-flagged
(mod/attach-attr (mod/mk-report "r4" "a" "b" "a fine post") "flagged"))
(mod-or-test!
"OR over classification|attr: flagged clean post → hide"
(get
(mod/decide-report
mod-or-flagged
(list mod-or-flagged)
mod-or-mixed-rules)
:action)
"hide")
(mod-or-test!
"cond->goal :any with :not branch"
(mod/cond->goal
(list
:any (list
(list :classification "spam")
(list :not (list :attr "verified"))))
"Id")
"(classification(Id, spam) ; not(attr(Id, verified)))")
;; AND still works alongside OR in the same :when list
(define
mod-or-and-rules
(list
(mod/mk-rule
"spam-and-not-verified"
:hide (list
(list
:any (list (list :classification "spam") (list :classification "abuse")))
(list :not (list :attr "verified"))))
(mod/mk-rule "default-keep" :keep (list))))
(define
mod-or-spam-verified
(mod/attach-attr (mod/mk-report "r5" "a" "b" "this is spam") "verified"))
(mod-or-test!
"AND of OR + NOT: verified spam → keep"
(get
(mod/decide-report
mod-or-spam-verified
(list mod-or-spam-verified)
mod-or-and-rules)
:action)
"keep")
(mod-or-test!
"AND of OR + NOT: unverified abuse → hide"
(get
(mod/decide-report mod-or-abuse (list mod-or-abuse) mod-or-and-rules)
:action)
"hide")
(define mod-disjunction-tests-run! (fn () {:failures mod-or-failures :total mod-or-count :passed mod-or-pass :failed mod-or-fail}))

View File

@@ -1,279 +0,0 @@
;; lib/mod/tests/escalation.sx — Phase 3: lifecycle state machine + escalation.
(define mod-esc-count 0)
(define mod-esc-pass 0)
(define mod-esc-fail 0)
(define mod-esc-failures (list))
(define
mod-esc-test!
(fn
(name got expected)
(begin
(set! mod-esc-count (+ mod-esc-count 1))
(if
(= got expected)
(set! mod-esc-pass (+ mod-esc-pass 1))
(begin
(set! mod-esc-fail (+ mod-esc-fail 1))
(append!
mod-esc-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── transition table guard ──
(mod-esc-test!
"open → triaged allowed"
(mod/lc-can-transition? "open" "triaged")
true)
(mod-esc-test!
"triaged → decided allowed"
(mod/lc-can-transition? "triaged" "decided")
true)
(mod-esc-test!
"decided → appealed allowed"
(mod/lc-can-transition? "decided" "appealed")
true)
(mod-esc-test!
"appealed → final allowed"
(mod/lc-can-transition? "appealed" "final")
true)
(mod-esc-test!
"open → decided rejected"
(mod/lc-can-transition? "open" "decided")
false)
(mod-esc-test!
"triaged → final rejected"
(mod/lc-can-transition? "triaged" "final")
false)
(mod-esc-test!
"final is terminal"
(mod/lc-can-transition? "final" "open")
false)
;; ── initial state ──
(define
mod-esc-c0
(mod/mk-case (mod/mk-report "r1" "alice" "bob" "this is spam")))
(mod-esc-test! "new case is open" (mod/case-state mod-esc-c0) "open")
(mod-esc-test! "new case has no decision" (mod/case-decision mod-esc-c0) nil)
;; ── auto-tier: spam triages + resolves to decided/hide ──
(define
mod-esc-spam-rep
(list (mod/mk-report "r1" "alice" "bob" "this is spam")))
(define
mod-esc-t1
(mod/case-triage mod-esc-c0 mod-esc-spam-rep mod/default-rules))
(mod-esc-test! "spam triaged" (mod/case-state mod-esc-t1) "triaged")
(mod-esc-test! "spam triage tier auto" (mod/case-tier mod-esc-t1) "auto")
(mod-esc-test! "spam triage action hide" (mod/case-action mod-esc-t1) "hide")
(define mod-esc-r1 (mod/case-resolve mod-esc-t1))
(mod-esc-test!
"auto resolve → decided"
(mod/case-state mod-esc-r1)
"decided")
(mod-esc-test!
"decision preserved through resolve"
(mod/case-action mod-esc-r1)
"hide")
;; ── illegal transition flags :error, leaves state ──
(define mod-esc-bad (mod/case-finalize mod-esc-c0))
(mod-esc-test!
"finalize from open is illegal"
(mod/case-state mod-esc-bad)
"open")
(mod-esc-test!
"illegal transition sets error"
(nil? (mod/case-error mod-esc-bad))
false)
;; ── human-tier: repeated report escalates, resolve blocked, review decides ──
(define mod-esc-rep-r (mod/mk-report "r3" "ann" "dave" "off-topic"))
(define mod-esc-rep-reports (list mod-esc-rep-r mod-esc-rep-r mod-esc-rep-r))
(define mod-esc-rep-c0 (mod/mk-case mod-esc-rep-r))
(define
mod-esc-rep-t
(mod/case-triage mod-esc-rep-c0 mod-esc-rep-reports mod/default-rules))
(mod-esc-test!
"repeated triage action escalate"
(mod/case-action mod-esc-rep-t)
"escalate")
(mod-esc-test!
"repeated triage tier human"
(mod/case-tier mod-esc-rep-t)
"human")
(mod-esc-test!
"repeated still triaged after triage"
(mod/case-state mod-esc-rep-t)
"triaged")
(define mod-esc-rep-block (mod/case-resolve mod-esc-rep-t))
(mod-esc-test!
"auto-resolve blocked on human tier (state unchanged)"
(mod/case-state mod-esc-rep-block)
"triaged")
(mod-esc-test!
"blocked resolve sets error"
(nil? (mod/case-error mod-esc-rep-block))
false)
(define
mod-esc-rep-rev
(mod/case-review
mod-esc-rep-t
"confirmed-abuse"
"human"
mod-esc-rep-reports
mod/default-rules))
(mod-esc-test!
"human review → decided"
(mod/case-state mod-esc-rep-rev)
"decided")
(mod-esc-test!
"human review action remove"
(mod/case-action mod-esc-rep-rev)
"remove")
(mod-esc-test!
"review attached evidence to report"
(len (mod/report-evidence (mod/case-report mod-esc-rep-rev)))
1)
(define mod-esc-rep-final (mod/case-finalize mod-esc-rep-rev))
(mod-esc-test!
"review case finalizes"
(mod/case-state mod-esc-rep-final)
"final")
;; ── appeal overrides a prior decision ──
(define
mod-esc-ap-c0
(mod/mk-case (mod/mk-report "r5" "u" "v" "buy now spam")))
(define mod-esc-ap-rep (list (mod/mk-report "r5" "u" "v" "buy now spam")))
(define
mod-esc-ap-t
(mod/case-triage mod-esc-ap-c0 mod-esc-ap-rep mod/default-rules))
(define mod-esc-ap-d (mod/case-resolve mod-esc-ap-t))
(mod-esc-test!
"appeal precondition decided/hide"
(mod/case-action mod-esc-ap-d)
"hide")
(define
mod-esc-ap-appealed
(mod/case-appeal
mod-esc-ap-d
"exonerated"
"moderator"
mod-esc-ap-rep
mod/default-rules))
(mod-esc-test!
"appeal → appealed state"
(mod/case-state mod-esc-ap-appealed)
"appealed")
(mod-esc-test!
"appeal overrides hide → keep"
(mod/case-action mod-esc-ap-appealed)
"keep")
(mod-esc-test!
"appeal recorded via exonerated-keep rule"
(get (mod/case-decision mod-esc-ap-appealed) :rule)
"exonerated-keep")
(define mod-esc-ap-final (mod/case-finalize mod-esc-ap-appealed))
(mod-esc-test! "appealed → final" (mod/case-state mod-esc-ap-final) "final")
;; ── history records the full traversal ──
(mod-esc-test!
"full lifecycle history length 4 (triage,resolve,appeal,finalize)"
(len (mod/case-history mod-esc-ap-final))
4)
(mod-esc-test!
"first history step open→triaged"
(get (first (mod/case-history mod-esc-ap-final)) :to)
"triaged")
(mod-esc-test!
"last history step → final"
(get (nth (mod/case-history mod-esc-ap-final) 3) :to)
"final")
;; ── api-level lifecycle façade ──
(mod/reset!)
(mod/report "alice" "bob" "this is spam")
(mod/report "carol" "dave" "off-topic")
(mod/report "carol" "dave" "off-topic")
(mod/report "carol" "dave" "off-topic")
(mod-esc-test!
"api: case opens at open"
(mod/case-state (mod/case-of "r1"))
"open")
(define mod-esc-api-t1 (mod/triage "r1"))
(mod-esc-test!
"api: triage spam → triaged"
(mod/case-state mod-esc-api-t1)
"triaged")
(mod-esc-test!
"api: triage spam action hide"
(mod/case-action mod-esc-api-t1)
"hide")
(define mod-esc-api-r1 (mod/resolve "r1"))
(mod-esc-test!
"api: resolve → decided"
(mod/case-state mod-esc-api-r1)
"decided")
(mod-esc-test!
"api: resolve logged decision"
(len (mod/audit "r1"))
1)
(define mod-esc-api-app (mod/appeal "r1" "exonerated" "mod"))
(mod-esc-test!
"api: appeal → appealed"
(mod/case-state mod-esc-api-app)
"appealed")
(mod-esc-test!
"api: appeal overrides → keep"
(mod/case-action mod-esc-api-app)
"keep")
(mod-esc-test!
"api: appeal logged second decision"
(len (mod/audit "r1"))
2)
(mod-esc-test!
"api: finalize → final"
(mod/case-state (mod/finalize "r1"))
"final")
;; r4 is the 3rd report about dave → escalates via the human tier
(define mod-esc-api-t4 (mod/triage "r4"))
(mod-esc-test!
"api: repeated triage escalates (human tier)"
(mod/case-tier mod-esc-api-t4)
"human")
(define mod-esc-api-blk (mod/resolve "r4"))
(mod-esc-test!
"api: escalated resolve blocked"
(mod/case-state mod-esc-api-blk)
"triaged")
(define mod-esc-api-rev (mod/review "r4" "confirmed-abuse" "human"))
(mod-esc-test!
"api: review → decided/remove"
(mod/case-action mod-esc-api-rev)
"remove")
(mod-esc-test! "api: unknown id → nil" (mod/triage "r99") nil)
(define mod-escalation-tests-run! (fn () {:failures mod-esc-failures :total mod-esc-count :passed mod-esc-pass :failed mod-esc-fail}))

View File

@@ -1,313 +0,0 @@
;; lib/mod/tests/extensions.sx — beyond-roadmap extensions.
;;
;; Ext 1: negation-as-failure conditions (:not / :attr) + report attributes.
;; "hide spam UNLESS the author is verified" (closed-world reasoning).
;; Ext 2: weighted/aggregate evidence scoring (:score-at-least) + report signals.
;; Many low-confidence signals accumulate past a threshold via Prolog
;; aggregate_all(sum(W), ...).
;; Ext 3: human-readable proof explanation (mod/explain) over the proof tree.
;; Demonstrated with custom rule sets so the default policy (and its conformance
;; tests) stays untouched.
(define mod-ext-count 0)
(define mod-ext-pass 0)
(define mod-ext-fail 0)
(define mod-ext-failures (list))
(define
mod-ext-test!
(fn
(name got expected)
(begin
(set! mod-ext-count (+ mod-ext-count 1))
(if
(= got expected)
(set! mod-ext-pass (+ mod-ext-pass 1))
(begin
(set! mod-ext-fail (+ mod-ext-fail 1))
(append!
mod-ext-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── Ext 1: report attributes ──
(define mod-ext-r0 (mod/mk-report "r1" "a" "b" "this is spam"))
(mod-ext-test!
"fresh report has no attrs"
(len (mod/report-attrs mod-ext-r0))
0)
(define mod-ext-rv (mod/attach-attr mod-ext-r0 "verified"))
(mod-ext-test!
"attach-attr adds one attr"
(len (mod/report-attrs mod-ext-rv))
1)
(mod-ext-test!
"attach-attr preserves evidence field"
(len
(mod/report-evidence
(mod/attach-evidence mod-ext-rv (mod/mk-evidence "x" "y"))))
1)
(mod-ext-test!
"attach-evidence preserves attrs"
(len
(mod/report-attrs
(mod/attach-evidence mod-ext-rv (mod/mk-evidence "x" "y"))))
1)
;; ── Ext 1: negation-as-failure: spam hidden unless author verified ──
(define
mod-ext-rules
(list
(mod/mk-rule
"spam-unverified-hide"
:hide (list
(list :classification "spam")
(list :not (list :attr "verified"))))
(mod/mk-rule "default-keep" :keep (list))))
(define mod-ext-spam-plain (mod/mk-report "p1" "a" "b" "this is spam"))
(define
mod-ext-spam-verified
(mod/attach-attr (mod/mk-report "p2" "a" "b" "this is spam") "verified"))
(define mod-ext-clean (mod/mk-report "p3" "a" "b" "a fine post"))
(mod-ext-test!
"unverified spam → hide"
(get
(mod/decide-report
mod-ext-spam-plain
(list mod-ext-spam-plain)
mod-ext-rules)
:action)
"hide")
(mod-ext-test!
"verified author spam → keep (negation blocks)"
(get
(mod/decide-report
mod-ext-spam-verified
(list mod-ext-spam-verified)
mod-ext-rules)
:action)
"keep")
(mod-ext-test!
"clean post → keep"
(get
(mod/decide-report mod-ext-clean (list mod-ext-clean) mod-ext-rules)
:action)
"keep")
;; ── Ext 1: negation appears in the goal text + proof ──
(define
mod-ext-dec
(mod/decide-report
mod-ext-spam-plain
(list mod-ext-spam-plain)
mod-ext-rules))
(define mod-ext-goals (get (get mod-ext-dec :proof) :goals))
(mod-ext-test!
"rule that matched is spam-unverified-hide"
(get mod-ext-dec :rule)
"spam-unverified-hide")
(mod-ext-test! "proof has two goals" (len mod-ext-goals) 2)
(mod-ext-test!
"negation goal text"
(get (nth mod-ext-goals 1) :goal)
"not(attr(p1, verified))")
(mod-ext-test!
"negation goal solved for unverified"
(get (nth mod-ext-goals 1) :solved)
true)
;; ── Ext 1: cond->goal compiles :attr and :not directly ──
(mod-ext-test!
"cond->goal :attr"
(mod/cond->goal (list :attr "verified") "Id")
"attr(Id, verified)")
(mod-ext-test!
"cond->goal :not wraps inner"
(mod/cond->goal (list :not (list :classification "spam")) "Id")
"not(classification(Id, spam))")
;; ── Ext 1: positive :attr condition (allowlist-style) ──
(define
mod-ext-allow-rules
(list
(mod/mk-rule "trusted-keep" :keep (list (list :attr "trusted")))
(mod/mk-rule "spam-hide" :hide (list (list :classification "spam")))
(mod/mk-rule "default-keep" :keep (list))))
(define
mod-ext-trusted-spam
(mod/attach-attr (mod/mk-report "t1" "a" "b" "this is spam") "trusted"))
(mod-ext-test!
"trusted attr exempts spam → keep"
(get
(mod/decide-report
mod-ext-trusted-spam
(list mod-ext-trusted-spam)
mod-ext-allow-rules)
:action)
"keep")
;; ── Ext 2: weighted signals + aggregate scoring ──
(define mod-ext-s0 (mod/mk-report "s1" "a" "b" "neutral"))
(mod-ext-test!
"fresh report has no signals"
(len (mod/report-signals mod-ext-s0))
0)
(define
mod-ext-s1
(mod/attach-signal mod-ext-s0 (mod/mk-signal "link" 2)))
(mod-ext-test!
"attach-signal adds one"
(len (mod/report-signals mod-ext-s1))
1)
(mod-ext-test!
"attach-signal preserves attrs"
(len
(mod/report-attrs
(mod/attach-signal mod-ext-rv (mod/mk-signal "x" 1))))
1)
(define
mod-ext-score-rules
(list
(mod/mk-rule
"high-score-hide"
:hide (list (list :score-at-least 5)))
(mod/mk-rule "default-keep" :keep (list))))
;; one weak signal (2) — below threshold
(define
mod-ext-weak
(mod/attach-signal
(mod/mk-report "w1" "a" "b" "neutral")
(mod/mk-signal "link" 2)))
(mod-ext-test!
"single weak signal → keep (below threshold)"
(get
(mod/decide-report mod-ext-weak (list mod-ext-weak) mod-ext-score-rules)
:action)
"keep")
;; three signals summing to 6 — over threshold
(define
mod-ext-strong0
(mod/attach-signal
(mod/mk-report "w2" "a" "b" "neutral")
(mod/mk-signal "link" 2)))
(define
mod-ext-strong1
(mod/attach-signal mod-ext-strong0 (mod/mk-signal "newaccount" 2)))
(define
mod-ext-strong
(mod/attach-signal mod-ext-strong1 (mod/mk-signal "burst" 2)))
(mod-ext-test!
"accumulated signals (2+2+2=6) → hide"
(get
(mod/decide-report
mod-ext-strong
(list mod-ext-strong)
mod-ext-score-rules)
:action)
"hide")
(mod-ext-test!
"scoring rule named in decision"
(get
(mod/decide-report
mod-ext-strong
(list mod-ext-strong)
mod-ext-score-rules)
:rule)
"high-score-hide")
;; exactly at threshold (5) fires
(define
mod-ext-exact0
(mod/attach-signal
(mod/mk-report "w3" "a" "b" "neutral")
(mod/mk-signal "link" 3)))
(define
mod-ext-exact
(mod/attach-signal mod-ext-exact0 (mod/mk-signal "burst" 2)))
(mod-ext-test!
"exactly at threshold (5) → hide"
(get
(mod/decide-report mod-ext-exact (list mod-ext-exact) mod-ext-score-rules)
:action)
"hide")
(mod-ext-test!
"cond->goal :score-at-least"
(mod/cond->goal (list :score-at-least 5) "Id")
"aggregate_all(sum(W), signal(Id, _, W), T), T >= 5")
;; ── Ext 3: human-readable proof explanation ──
(define mod-ext-spam-explain (mod/explain mod-ext-dec))
(mod-ext-test!
"explain mentions the report id"
(mod/str-contains? mod-ext-spam-explain "Report p1")
true)
(mod-ext-test!
"explain mentions the action"
(mod/str-contains? mod-ext-spam-explain "hide")
true)
(mod-ext-test!
"explain mentions the rule"
(mod/str-contains? mod-ext-spam-explain "spam-unverified-hide")
true)
(mod-ext-test!
"explain marks proved goals"
(mod/str-contains? mod-ext-spam-explain "[proved]")
true)
(mod-ext-test!
"explain renders the evidence line"
(mod/str-contains? mod-ext-spam-explain "Evidence: spam")
true)
;; count-rule explanation shows the unification bindings
(define mod-ext-rep-r (mod/mk-report "rc" "ann" "dave" "off-topic"))
(define
mod-ext-rep-d
(mod/decide-report
mod-ext-rep-r
(list mod-ext-rep-r mod-ext-rep-r mod-ext-rep-r)
mod/default-rules))
(define mod-ext-rep-explain (mod/explain mod-ext-rep-d))
(mod-ext-test!
"explain shows binding N=3"
(mod/str-contains? mod-ext-rep-explain "N=3")
true)
(mod-ext-test!
"explain shows subject binding"
(mod/str-contains? mod-ext-rep-explain "dave")
true)
;; explain-goal direct: unproved goal gets [unproved]
(mod-ext-test!
"explain-goal marks unproved"
(mod/str-contains? (mod/explain-goal {:solved false :goal "attr(x, foo)" :bindings {}}) "[unproved]")
true)
;; explain-binds renders key=value pairs
(mod-ext-test!
"explain-binds renders pair"
(mod/explain-binds {:N "3"})
"N=3")
;; no-evidence decision says (none)
(define
mod-ext-keep-d
(mod/decide-report mod-ext-clean (list mod-ext-clean) mod-ext-rules))
(mod-ext-test!
"explain (none) for empty evidence"
(mod/str-contains? (mod/explain mod-ext-keep-d) "Evidence: (none)")
true)
(define mod-extensions-tests-run! (fn () {:failures mod-ext-failures :total mod-ext-count :passed mod-ext-pass :failed mod-ext-fail}))

View File

@@ -1,154 +0,0 @@
;; lib/mod/tests/fed.sx — Phase 4: federation (mock fed-sx).
(define mod-fed-count 0)
(define mod-fed-pass 0)
(define mod-fed-fail 0)
(define mod-fed-failures (list))
(define
mod-fed-test!
(fn
(name got expected)
(begin
(set! mod-fed-count (+ mod-fed-count 1))
(if
(= got expected)
(set! mod-fed-pass (+ mod-fed-pass 1))
(begin
(set! mod-fed-fail (+ mod-fed-fail 1))
(append!
mod-fed-failures
(str name "\n expected: " expected "\n got: " got)))))))
(mod/reset!)
(mod/fed-reset!)
;; ── trust model (advisory by default) ──
(mod-fed-test! "trust initially false" (mod/trusted? "peerA" :mod) false)
(mod/grant-trust "peerA" :mod)
(mod-fed-test! "trust after grant" (mod/trusted? "peerA" :mod) true)
(mod-fed-test! "trust wrong scope" (mod/trusted? "peerA" :other) false)
(mod-fed-test! "trust other peer" (mod/trusted? "peerB" :mod) false)
(mod/revoke-trust "peerA" :mod)
(mod-fed-test! "trust after revoke" (mod/trusted? "peerA" :mod) false)
;; ── cross-instance reports ──
(define
mod-fed-fr
(mod/fed-receive-report "peerB" "alice" "bob" "this is spam"))
(mod-fed-test! "fed report assigned id r1" (mod/report-id mod-fed-fr) "r1")
(mod-fed-test! "fed report origin is peer" (mod/report-origin "r1") "peerB")
(define mod-fed-local (mod/report "carol" "dave" "fine post"))
(mod-fed-test!
"local report origin is local"
(mod/report-origin (mod/report-id mod-fed-local))
"local")
(mod-fed-test!
"engine decides fed report (spam → hide)"
(get
(mod/decide-report mod-fed-fr (list mod-fed-fr) mod/default-rules)
:action)
"hide")
;; ── decision sharing (outbox) ──
(define mod-fed-dec {:action "hide" :rule "spam-hide" :report-id "r1"})
(define
mod-fed-shared
(mod/fed-share-decision mod-fed-dec (list "peerB" "peerC")))
(mod-fed-test! "share returns notified peers" (len mod-fed-shared) 2)
(mod-fed-test! "outbox has two messages" (len (mod/fed-outbox)) 2)
(mod-fed-test!
"outbox message type decision"
(get (first (mod/fed-outbox)) :type)
"decision")
(mod-fed-test!
"outbox message addressed to peer"
(get (first (mod/fed-outbox)) :to)
"peerB")
;; ── receiving a peer decision: advisory unless trusted ──
(define mod-fed-untrusted (mod/fed-receive-decision "peerZ" {:action "remove" :rule "reviewer-remove" :report-id "rx"}))
(mod-fed-test!
"untrusted decision not applied"
(get mod-fed-untrusted :applied)
false)
(mod-fed-test!
"untrusted decision advisory"
(get mod-fed-untrusted :advisory)
true)
(mod-fed-test!
"untrusted decision absent from applied log"
(mod/fed-applied-action "rx")
nil)
(mod-fed-test!
"advisory log records suggestion"
(len mod/*fed-advisory*)
1)
(mod/grant-trust "peerT" :mod)
(define mod-fed-trusted (mod/fed-receive-decision "peerT" {:action "hide" :rule "spam-hide" :report-id "ry"}))
(mod-fed-test! "trusted decision applied" (get mod-fed-trusted :applied) true)
(mod-fed-test!
"trusted decision binds locally"
(get (mod/fed-applied-action "ry") :action)
"hide")
;; ── revocation ──
(mod-fed-test!
"applied action not yet revoked"
(get (mod/fed-applied-action "ry") :revoked)
false)
(mod/fed-revoke! "ry" "manual")
(mod-fed-test!
"revoke marks applied action revoked"
(get (mod/fed-applied-action "ry") :revoked)
true)
(mod-fed-test!
"revoke emits a revocation message"
(mod/any? (fn (m) (= (get m :type) "revocation")) (mod/fed-outbox))
true)
;; revoke-if-invalidated: proof still holds → no revocation
(define mod-fed-spam-r (mod/mk-report "rs" "a" "b" "this is spam"))
(define
mod-fed-spam-d
(mod/decide-report mod-fed-spam-r (list mod-fed-spam-r) mod/default-rules))
(mod-fed-test! "spam decision is hide" (get mod-fed-spam-d :action) "hide")
(define
mod-fed-rev-same
(mod/fed-revoke-if-invalidated
mod-fed-spam-r
mod-fed-spam-d
(list mod-fed-spam-r)
mod/default-rules))
(mod-fed-test!
"valid proof → not revoked"
(get mod-fed-rev-same :revoked)
false)
;; exoneration invalidates the proof → revocation
(define
mod-fed-exon-r
(mod/attach-evidence mod-fed-spam-r (mod/mk-evidence "exonerated" "mod")))
(define
mod-fed-rev-inv
(mod/fed-revoke-if-invalidated
mod-fed-exon-r
mod-fed-spam-d
(list mod-fed-exon-r)
mod/default-rules))
(mod-fed-test!
"invalidated proof → revoked"
(get mod-fed-rev-inv :revoked)
true)
(mod-fed-test!
"re-decision after exoneration is keep"
(get (get mod-fed-rev-inv :decision) :action)
"keep")
(define mod-fed-tests-run! (fn () {:failures mod-fed-failures :total mod-fed-count :passed mod-fed-pass :failed mod-fed-fail}))

View File

@@ -1,86 +0,0 @@
;; lib/mod/tests/link.sx — Ext 4: report linking + dedup.
(define mod-lnk-count 0)
(define mod-lnk-pass 0)
(define mod-lnk-fail 0)
(define mod-lnk-failures (list))
(define
mod-lnk-test!
(fn
(name got expected)
(begin
(set! mod-lnk-count (+ mod-lnk-count 1))
(if
(= got expected)
(set! mod-lnk-pass (+ mod-lnk-pass 1))
(begin
(set! mod-lnk-fail (+ mod-lnk-fail 1))
(append!
mod-lnk-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── link-key + dedup ──
(define mod-lnk-a (mod/mk-report "r1" "alice" "bob" "this is spam"))
(define mod-lnk-a2 (mod/mk-report "r2" "alice" "bob" "THIS IS SPAM"))
(define mod-lnk-b (mod/mk-report "r3" "carol" "bob" "abuse"))
(define mod-lnk-c (mod/mk-report "r4" "alice" "eve" "this is spam"))
(mod-lnk-test!
"identical reports share a link key (case-insensitive reason)"
(= (mod/link-key mod-lnk-a) (mod/link-key mod-lnk-a2))
true)
(mod-lnk-test!
"different reporter → different key"
(= (mod/link-key mod-lnk-a) (mod/link-key mod-lnk-b))
false)
(mod-lnk-test!
"different subject → different key"
(= (mod/link-key mod-lnk-a) (mod/link-key mod-lnk-c))
false)
(define mod-lnk-set (list mod-lnk-a mod-lnk-a2 mod-lnk-b mod-lnk-c))
(mod-lnk-test!
"dedup collapses identical reports"
(len (mod/dedup-reports mod-lnk-set))
3)
(mod-lnk-test!
"duplicate-count counts collapsed"
(mod/duplicate-count mod-lnk-set)
1)
(mod-lnk-test!
"dedup of all-distinct keeps all"
(len (mod/dedup-reports (list mod-lnk-a mod-lnk-b mod-lnk-c)))
3)
;; ── Prolog-backed relational linking ──
(mod-lnk-test!
"related-ids finds all reports about subject"
(len (mod/related-ids "bob" mod-lnk-set))
3)
(mod-lnk-test!
"related-ids returns the ids"
(mod/related-ids "eve" mod-lnk-set)
(list "r4"))
(mod-lnk-test!
"related-ids empty for unknown subject"
(mod/related-ids "nobody" mod-lnk-set)
(list))
;; reporters: bob reported by alice (x2) + carol → 3 raw, 2 distinct
(mod-lnk-test!
"reporters-of counts all reports"
(len (mod/reporters-of "bob" mod-lnk-set))
3)
(mod-lnk-test!
"distinct reporters-of dedups reporters"
(len (mod/distinct-reporters-of "bob" mod-lnk-set))
2)
(mod-lnk-test!
"distinct utility removes dups"
(mod/distinct (list "a" "b" "a" "c" "b"))
(list "a" "b" "c"))
(define mod-link-tests-run! (fn () {:failures mod-lnk-failures :total mod-lnk-count :passed mod-lnk-pass :failed mod-lnk-fail}))

View File

@@ -1,122 +0,0 @@
;; lib/mod/tests/lint.sx — Ext 5: policy rule-set static analysis.
(define mod-lint-count 0)
(define mod-lint-pass 0)
(define mod-lint-fail 0)
(define mod-lint-failures (list))
(define
mod-lint-test!
(fn
(name got expected)
(begin
(set! mod-lint-count (+ mod-lint-count 1))
(if
(= got expected)
(set! mod-lint-pass (+ mod-lint-pass 1))
(begin
(set! mod-lint-fail (+ mod-lint-fail 1))
(append!
mod-lint-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── the default rule set is well-formed ──
(mod-lint-test!
"default rules: no unreachable"
(mod/unreachable-rules mod/default-rules)
(list))
(mod-lint-test!
"default rules: has catch-all"
(mod/has-catchall? mod/default-rules)
true)
(mod-lint-test!
"default rules: no duplicate names"
(mod/duplicate-rule-names mod/default-rules)
(list))
(mod-lint-test!
"default rules: well-formed"
(mod/rules-ok? mod/default-rules)
true)
;; ── unreachable detection ──
(define
mod-lint-shadowed
(list
(mod/mk-rule "spam-hide" :hide (list (list :classification "spam")))
(mod/mk-rule "catch-all" :keep (list))
(mod/mk-rule
"abuse-remove"
:remove (list (list :classification "abuse")))
(mod/mk-rule
"repeated"
:escalate (list (list :count-at-least 3)))))
(mod-lint-test!
"rules after catch-all are unreachable"
(mod/unreachable-rules mod-lint-shadowed)
(list "abuse-remove" "repeated"))
(mod-lint-test!
"shadowed rule set is not ok"
(mod/rules-ok? mod-lint-shadowed)
false)
;; ── missing catch-all ──
(define
mod-lint-nocatch
(list
(mod/mk-rule "spam-hide" :hide (list (list :classification "spam")))
(mod/mk-rule
"abuse-remove"
:remove (list (list :classification "abuse")))))
(mod-lint-test!
"no catch-all detected"
(mod/has-catchall? mod-lint-nocatch)
false)
(mod-lint-test!
"no unreachable when no catch-all"
(mod/unreachable-rules mod-lint-nocatch)
(list))
(mod-lint-test!
"no-catch-all rule set is not ok"
(mod/rules-ok? mod-lint-nocatch)
false)
;; ── duplicate names ──
(define
mod-lint-dups
(list
(mod/mk-rule "x" :hide (list (list :classification "spam")))
(mod/mk-rule "x" :remove (list (list :classification "abuse")))
(mod/mk-rule "default" :keep (list))))
(mod-lint-test!
"duplicate names detected"
(mod/duplicate-rule-names mod-lint-dups)
(list "x"))
(mod-lint-test!
"duplicate-name rule set is not ok"
(mod/rules-ok? mod-lint-dups)
false)
;; ── helpers ──
(mod-lint-test!
"rule-unconditional? true for empty when"
(mod/rule-unconditional? (mod/mk-rule "d" :keep (list)))
true)
(mod-lint-test!
"rule-unconditional? false with conditions"
(mod/rule-unconditional?
(mod/mk-rule "s" :hide (list (list :classification "spam"))))
false)
(mod-lint-test!
"count-eq counts occurrences"
(mod/count-eq "a" (list "a" "b" "a"))
2)
(define mod-lint-tests-run! (fn () {:failures mod-lint-failures :total mod-lint-count :passed mod-lint-pass :failed mod-lint-fail}))

View File

@@ -1,115 +0,0 @@
;; lib/mod/tests/offenders.sx — Ext 7: repeat-offender escalation.
(define mod-off-count 0)
(define mod-off-pass 0)
(define mod-off-fail 0)
(define mod-off-failures (list))
(define
mod-off-test!
(fn
(name got expected)
(begin
(set! mod-off-count (+ mod-off-count 1))
(if
(= got expected)
(set! mod-off-pass (+ mod-off-pass 1))
(begin
(set! mod-off-fail (+ mod-off-fail 1))
(append!
mod-off-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── sanction? predicate ──
(mod-off-test! "hide is a sanction" (mod/sanction? "hide") true)
(mod-off-test! "remove is a sanction" (mod/sanction? "remove") true)
(mod-off-test! "ban is a sanction" (mod/sanction? "ban") true)
(mod-off-test! "keep is not a sanction" (mod/sanction? "keep") false)
(mod-off-test! "escalate is not a sanction" (mod/sanction? "escalate") false)
;; ── repeat-offender escalation over the audit log ──
(mod/reset!)
(mod/report "u1" "spammer" "this is spam")
(mod/report "u2" "spammer" "buy now offer")
(mod/report "u3" "spammer" "click here free money")
(mod/report "u4" "innocent" "fine post")
(mod-off-test!
"no sanctions before any decision"
(mod/subject-sanctions "spammer")
0)
(define mod-off-d1 (mod/decide-escalating "r1" 2))
(mod-off-test!
"first spam → hide (0 priors)"
(get mod-off-d1 :action)
"hide")
(mod-off-test!
"one sanction recorded"
(mod/subject-sanctions "spammer")
1)
(define mod-off-d2 (mod/decide-escalating "r2" 2))
(mod-off-test!
"second spam → hide (1 prior, below k=2)"
(get mod-off-d2 :action)
"hide")
(mod-off-test!
"two sanctions recorded"
(mod/subject-sanctions "spammer")
2)
(define mod-off-d3 (mod/decide-escalating "r3" 2))
(mod-off-test!
"third spam → ban (2 priors ≥ k)"
(get mod-off-d3 :action)
"ban")
(mod-off-test!
"ban decision names repeat-offender rule"
(get mod-off-d3 :rule)
"repeat-offender-ban")
(mod-off-test!
"ban proof records prior sanction count"
(get (get mod-off-d3 :proof) :prior-sanctions)
2)
;; ── different subjects accumulate independently ──
(define mod-off-d4 (mod/decide-escalating "r4" 2))
(mod-off-test!
"innocent keep → not escalated"
(get mod-off-d4 :action)
"keep")
(mod-off-test!
"innocent has no sanctions"
(mod/subject-sanctions "innocent")
0)
(mod-off-test!
"repeat-offender? true for spammer at k=2"
(mod/repeat-offender? "spammer" 2)
true)
(mod-off-test!
"repeat-offender? false for innocent at k=1"
(mod/repeat-offender? "innocent" 1)
false)
;; ── non-sanction decisions are never upgraded to ban ──
;; r5 is a clean post, but it is the 4th report about "spammer", so the
;; repeated-report rule escalates it. escalate is not a sanction, so it passes
;; through decide-escalating unchanged (never becomes :ban).
(mod/report "u5" "spammer" "a perfectly fine post")
(define mod-off-d5 (mod/decide-escalating "r5" 1))
(mod-off-test!
"non-sanction (escalate) decision is not upgraded to ban"
(get mod-off-d5 :action)
"escalate")
(mod-off-test!
"decide-escalating unknown id → nil"
(mod/decide-escalating "r99" 2)
nil)
(define mod-offenders-tests-run! (fn () {:failures mod-off-failures :total mod-off-count :passed mod-off-pass :failed mod-off-fail}))

View File

@@ -1,112 +0,0 @@
;; lib/mod/tests/pipeline.sx — Ext 19: end-to-end triage orchestration.
(define mod-pp-count 0)
(define mod-pp-pass 0)
(define mod-pp-fail 0)
(define mod-pp-failures (list))
(define
mod-pp-test!
(fn
(name got expected)
(begin
(set! mod-pp-count (+ mod-pp-count 1))
(if
(= got expected)
(set! mod-pp-pass (+ mod-pp-pass 1))
(begin
(set! mod-pp-fail (+ mod-pp-fail 1))
(append!
mod-pp-failures
(str name "\n expected: " expected "\n got: " got)))))))
(mod/policies-reset!)
(mod/register-policy!
"market"
(mod/ruleset
(mod/defrule "market-spam-remove" :remove (list :classification "spam"))
(mod/defrule "default-keep" :keep)))
;; ── spam in the market domain: full bundle ──
(define mod-pp-spam (mod/mk-report "r1" "u" "bob" "this is spam"))
(define
mod-pp
(mod/triage-pipeline "market" mod-pp-spam (list mod-pp-spam) "inst.example"))
(mod-pp-test!
"pipeline action (market policy → remove)"
(mod/pipeline-action mod-pp)
"remove")
(mod-pp-test! "pipeline rule" (get mod-pp :rule) "market-spam-remove")
(mod-pp-test!
"pipeline explanation mentions the action"
(mod/str-contains? (get mod-pp :explanation) "remove")
true)
(mod-pp-test!
"pipeline activity is Delete (remove)"
(get (mod/pipeline-activity mod-pp) :type)
"Delete")
(mod-pp-test!
"pipeline activity object is the report"
(get (mod/pipeline-activity mod-pp) :object)
"r1")
(mod-pp-test!
"pipeline wire round-trips to the same action"
(get (mod/wire->decision (mod/pipeline-wire mod-pp)) :action)
"remove")
;; ── same report, blog domain (default) → hide, Flag ──
(define
mod-pp-blog
(mod/triage-pipeline "blog" mod-pp-spam (list mod-pp-spam) "inst.example"))
(mod-pp-test!
"blog default policy → hide"
(mod/pipeline-action mod-pp-blog)
"hide")
(mod-pp-test!
"blog activity is Flag"
(get (mod/pipeline-activity mod-pp-blog) :type)
"Flag")
;; ── clean report: keep, no activity, explanation says (none) ──
(define mod-pp-clean (mod/mk-report "r2" "u" "eve" "a fine post"))
(define
mod-pp-k
(mod/triage-pipeline
"market"
mod-pp-clean
(list mod-pp-clean)
"inst.example"))
(mod-pp-test! "clean → keep" (mod/pipeline-action mod-pp-k) "keep")
(mod-pp-test! "keep → no activity" (mod/pipeline-activity mod-pp-k) nil)
(mod-pp-test!
"keep explanation says no evidence"
(mod/str-contains? (get mod-pp-k :explanation) "Evidence: (none)")
true)
(mod-pp-test!
"keep wire still round-trips"
(get (mod/wire->decision (mod/pipeline-wire mod-pp-k)) :rule)
"default-keep")
;; ── federated handoff: market decision crosses to a peer, trust-gated ──
(mod/fed-reset!)
(define mod-pp-peer-dec (mod/wire->decision (mod/pipeline-wire mod-pp)))
(mod-pp-test!
"untrusted peer: market decision is advisory"
(get (mod/fed-receive-decision "peerX" mod-pp-peer-dec) :applied)
false)
(mod/grant-trust "peerY" :mod)
(mod-pp-test!
"trusted peer: market decision applies"
(get (mod/fed-receive-decision "peerY" mod-pp-peer-dec) :applied)
true)
(mod-pp-test!
"applied action is remove"
(get (mod/fed-applied-action "r1") :action)
"remove")
(define mod-pipeline-tests-run! (fn () {:failures mod-pp-failures :total mod-pp-count :passed mod-pp-pass :failed mod-pp-fail}))

View File

@@ -1,112 +0,0 @@
;; lib/mod/tests/policies.sx — Ext 17: per-domain policy registry.
(define mod-pol-count 0)
(define mod-pol-pass 0)
(define mod-pol-fail 0)
(define mod-pol-failures (list))
(define
mod-pol-test!
(fn
(name got expected)
(begin
(set! mod-pol-count (+ mod-pol-count 1))
(if
(= got expected)
(set! mod-pol-pass (+ mod-pol-pass 1))
(begin
(set! mod-pol-fail (+ mod-pol-fail 1))
(append!
mod-pol-failures
(str name "\n expected: " expected "\n got: " got)))))))
(mod/policies-reset!)
;; market is strict: spam is removed outright, not just hidden
(define
mod-pol-market-rules
(list
(mod/mk-rule
"market-spam-remove"
:remove (list (list :classification "spam")))
(mod/mk-rule "default-keep" :keep (list))))
(mod-pol-test!
"unregistered domain falls back to default"
(mod/policy-registered? "market")
false)
(mod/register-policy! "market" mod-pol-market-rules)
(mod-pol-test!
"domain registered after register!"
(mod/policy-registered? "market")
true)
(define mod-pol-spam (mod/mk-report "r1" "a" "b" "this is spam"))
;; ── same report, different domain → different action ──
(mod-pol-test!
"market policy removes spam"
(get (mod/decide-in "market" mod-pol-spam (list mod-pol-spam)) :action)
"remove")
(mod-pol-test!
"market decision uses market rule"
(get (mod/decide-in "market" mod-pol-spam (list mod-pol-spam)) :rule)
"market-spam-remove")
(mod-pol-test!
"blog (unregistered) uses default → hide"
(get (mod/decide-in "blog" mod-pol-spam (list mod-pol-spam)) :action)
"hide")
(mod-pol-test!
"blog decision uses default rule"
(get (mod/decide-in "blog" mod-pol-spam (list mod-pol-spam)) :rule)
"spam-hide")
;; ── policy-for resolution ──
(mod-pol-test!
"policy-for market returns market rules"
(mod/policy-for "market")
mod-pol-market-rules)
(mod-pol-test!
"policy-for unknown returns default"
(mod/policy-for "events")
mod/default-rules)
(mod-pol-test!
"registered-domains lists market"
(mod/registered-domains)
(list "market"))
;; ── a second domain ──
(define
mod-pol-events-rules
(list (mod/mk-rule "events-keep-all" :keep (list))))
(mod/register-policy! "events" mod-pol-events-rules)
(mod-pol-test!
"events policy keeps everything (even spam)"
(get (mod/decide-in "events" mod-pol-spam (list mod-pol-spam)) :action)
"keep")
(mod-pol-test!
"two domains registered"
(len (mod/registered-domains))
2)
(mod-pol-test!
"market still removes after second registration"
(get (mod/decide-in "market" mod-pol-spam (list mod-pol-spam)) :action)
"remove")
;; ── clean report is keep everywhere ──
(define mod-pol-clean (mod/mk-report "r2" "a" "b" "a fine post"))
(mod-pol-test!
"clean report keep in market"
(get (mod/decide-in "market" mod-pol-clean (list mod-pol-clean)) :action)
"keep")
(mod-pol-test!
"clean report keep in blog"
(get (mod/decide-in "blog" mod-pol-clean (list mod-pol-clean)) :action)
"keep")
(define mod-policies-tests-run! (fn () {:failures mod-pol-failures :total mod-pol-count :passed mod-pol-pass :failed mod-pol-fail}))

View File

@@ -1,119 +0,0 @@
;; lib/mod/tests/quorum.sx — Ext 8: quorum over distinct reporters.
(define mod-q-count 0)
(define mod-q-pass 0)
(define mod-q-fail 0)
(define mod-q-failures (list))
(define
mod-q-test!
(fn
(name got expected)
(begin
(set! mod-q-count (+ mod-q-count 1))
(if
(= got expected)
(set! mod-q-pass (+ mod-q-pass 1))
(begin
(set! mod-q-fail (+ mod-q-fail 1))
(append!
mod-q-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
mod-q-rules
(list
(mod/mk-rule
"quorum-hide"
:hide (list (list :reporters-at-least 2)))
(mod/mk-rule "default-keep" :keep (list))))
;; ── two distinct reporters meet quorum ──
(define
mod-q-two
(list
(mod/mk-report "r1" "alice" "bob" "off-topic")
(mod/mk-report "r2" "carol" "bob" "off-topic")))
(mod-q-test!
"two distinct reporters → hide"
(get (mod/decide-quorum (first mod-q-two) mod-q-two mod-q-rules) :action)
"hide")
(mod-q-test!
"quorum decision names the rule"
(get (mod/decide-quorum (first mod-q-two) mod-q-two mod-q-rules) :rule)
"quorum-hide")
(mod-q-test!
"quorum decision tagged strategy"
(get (mod/decide-quorum (first mod-q-two) mod-q-two mod-q-rules) :strategy)
"quorum")
;; ── single reporter does not meet quorum ──
(define mod-q-one (list (mod/mk-report "r1" "alice" "bob" "off-topic")))
(mod-q-test!
"one reporter → keep (below quorum)"
(get (mod/decide-quorum (first mod-q-one) mod-q-one mod-q-rules) :action)
"keep")
;; ── anti-brigade: one user filing many reports does NOT meet quorum ──
(define
mod-q-brigade
(list
(mod/mk-report "r1" "alice" "bob" "off-topic")
(mod/mk-report "r2" "alice" "bob" "off-topic")
(mod/mk-report "r3" "alice" "bob" "off-topic")))
(mod-q-test!
"three reports, one reporter → keep (quorum counts distinct)"
(get
(mod/decide-quorum (first mod-q-brigade) mod-q-brigade mod-q-rules)
:action)
"keep")
;; contrast: the count rule WOULD fire on the same brigade (3 reports ≥ 3) —
;; quorum is strictly stronger against single-actor brigading
(mod-q-test!
"count rule fires on the brigade (distinct from quorum)"
(get
(mod/decide-report (first mod-q-brigade) mod-q-brigade mod/default-rules)
:action)
"escalate")
;; ── three distinct reporters ──
(define
mod-q-three
(list
(mod/mk-report "r1" "alice" "bob" "off-topic")
(mod/mk-report "r2" "carol" "bob" "off-topic")
(mod/mk-report "r3" "dave" "bob" "off-topic")))
(mod-q-test!
"three distinct reporters → hide"
(get
(mod/decide-quorum (first mod-q-three) mod-q-three mod-q-rules)
:action)
"hide")
(mod-q-test!
"quorum proof goal solved"
(get
(first
(get
(get
(mod/decide-quorum (first mod-q-three) mod-q-three mod-q-rules)
:proof)
:goals))
:solved)
true)
;; ── cond->goal compiles :reporters-at-least ──
(mod-q-test!
"cond->goal :reporters-at-least"
(mod/cond->goal (list :reporters-at-least 2) "Id")
"report(Id, _, Sr), setof(Br, report(_, Br, Sr), Bsr), length(Bsr, Nr), Nr >= 2")
(define mod-quorum-tests-run! (fn () {:failures mod-q-failures :total mod-q-count :passed mod-q-pass :failed mod-q-fail}))

View File

@@ -1,120 +0,0 @@
;; lib/mod/tests/severity.sx — Ext 6: strictest-wins decision strategy.
(define mod-sev-count 0)
(define mod-sev-pass 0)
(define mod-sev-fail 0)
(define mod-sev-failures (list))
(define
mod-sev-test!
(fn
(name got expected)
(begin
(set! mod-sev-count (+ mod-sev-count 1))
(if
(= got expected)
(set! mod-sev-pass (+ mod-sev-pass 1))
(begin
(set! mod-sev-fail (+ mod-sev-fail 1))
(append!
mod-sev-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── severity ranking ──
(mod-sev-test! "ban most severe" (mod/action-severity "ban") 4)
(mod-sev-test!
"remove > hide"
(< (mod/action-severity "hide") (mod/action-severity "remove"))
true)
(mod-sev-test! "keep least severe" (mod/action-severity "keep") 0)
(mod-sev-test!
"escalate above keep"
(< (mod/action-severity "keep") (mod/action-severity "escalate"))
true)
;; ── strictest agrees with default-rules on simple cases ──
(define mod-sev-spam (mod/mk-report "r1" "a" "b" "this is spam"))
(mod-sev-test!
"strictest spam → hide"
(get
(mod/decide-strictest mod-sev-spam (list mod-sev-spam) mod/default-rules)
:action)
"hide")
(define mod-sev-clean (mod/mk-report "r2" "a" "b" "a fine post"))
(mod-sev-test!
"strictest clean → keep"
(get
(mod/decide-strictest
mod-sev-clean
(list mod-sev-clean)
mod/default-rules)
:action)
"keep")
(mod-sev-test!
"decision tagged strategy strictest"
(get
(mod/decide-strictest mod-sev-spam (list mod-sev-spam) mod/default-rules)
:strategy)
"strictest")
;; ── strictest diverges from first-match when order ≠ severity ──
(define
mod-sev-rules
(list
(mod/mk-rule
"early-escalate"
:escalate (list (list :count-at-least 1)))
(mod/mk-rule "spam-remove" :remove (list (list :classification "spam")))
(mod/mk-rule "default-keep" :keep (list))))
(define mod-sev-r (mod/mk-report "r3" "a" "b" "this is spam"))
(mod-sev-test!
"first-match picks earliest rule (escalate)"
(get (mod/decide-report mod-sev-r (list mod-sev-r) mod-sev-rules) :action)
"escalate")
(mod-sev-test!
"strictest picks harshest action (remove)"
(get
(mod/decide-strictest mod-sev-r (list mod-sev-r) mod-sev-rules)
:action)
"remove")
(mod-sev-test!
"strictest names the harshest rule"
(get (mod/decide-strictest mod-sev-r (list mod-sev-r) mod-sev-rules) :rule)
"spam-remove")
(mod-sev-test!
"strictest carries proof goals"
(len
(get
(get
(mod/decide-strictest mod-sev-r (list mod-sev-r) mod-sev-rules)
:proof)
:goals))
1)
;; ── strictest among three matches (spam + repeated) ──
(define mod-sev-rep (mod/mk-report "r4" "a" "b" "buy now spam"))
(define mod-sev-reps (list mod-sev-rep mod-sev-rep mod-sev-rep))
(mod-sev-test!
"strictest among hide+escalate+keep → hide (default rules)"
(get
(mod/decide-strictest mod-sev-rep mod-sev-reps mod/default-rules)
:action)
"hide")
;; ── strictest-sol helper ──
(mod-sev-test!
"strictest-sol picks max severity"
(dict-get
(mod/strictest-sol (list {:Action "keep" :Rule "k"} {:Action "remove" :Rule "r"} {:Action "hide" :Rule "h"}))
"Action")
"remove")
(mod-sev-test! "strictest-sol nil for empty" (mod/strictest-sol (list)) nil)
(define mod-severity-tests-run! (fn () {:failures mod-sev-failures :total mod-sev-count :passed mod-sev-pass :failed mod-sev-fail}))

View File

@@ -1,108 +0,0 @@
;; lib/mod/tests/sla.sx — Ext 13: SLA sweep over pending lifecycle cases.
(define mod-sla-count 0)
(define mod-sla-pass 0)
(define mod-sla-fail 0)
(define mod-sla-failures (list))
(define
mod-sla-test!
(fn
(name got expected)
(begin
(set! mod-sla-count (+ mod-sla-count 1))
(if
(= got expected)
(set! mod-sla-pass (+ mod-sla-pass 1))
(begin
(set! mod-sla-fail (+ mod-sla-fail 1))
(append!
mod-sla-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── pending-state? ──
(mod-sla-test! "open is pending" (mod/pending-state? "open") true)
(mod-sla-test! "triaged is pending" (mod/pending-state? "triaged") true)
(mod-sla-test! "appealed is pending" (mod/pending-state? "appealed") true)
(mod-sla-test! "decided is not pending" (mod/pending-state? "decided") false)
(mod-sla-test! "final is not pending" (mod/pending-state? "final") false)
;; build cases in known states
(define mod-sla-spam (mod/mk-report "r1" "u" "bob" "this is spam"))
(define mod-sla-spam-reports (list mod-sla-spam))
(define
mod-sla-triaged
(mod/case-triage
(mod/mk-case mod-sla-spam)
mod-sla-spam-reports
mod/default-rules))
(define mod-sla-decided (mod/case-resolve mod-sla-triaged))
(define mod-sla-open (mod/mk-case (mod/mk-report "r2" "u" "eve" "hello")))
;; ── overdue? ──
(define mod-sla-tc-old (mod/mk-timed-case mod-sla-triaged 0))
(define mod-sla-tc-fresh (mod/mk-timed-case mod-sla-triaged 90))
(define mod-sla-tc-done (mod/mk-timed-case mod-sla-decided 0))
(mod-sla-test!
"old triaged case is overdue"
(mod/overdue? mod-sla-tc-old 100 50)
true)
(mod-sla-test!
"fresh triaged case not overdue"
(mod/overdue? mod-sla-tc-fresh 100 50)
false)
(mod-sla-test!
"decided case never overdue"
(mod/overdue? mod-sla-tc-done 100 50)
false)
(mod-sla-test!
"age computes elapsed ticks"
(mod/age mod-sla-tc-old 100)
100)
(mod-sla-test!
"boundary: exactly at deadline not overdue"
(mod/overdue?
(mod/mk-timed-case mod-sla-triaged 50)
100
50)
false)
(mod-sla-test!
"boundary: one past deadline overdue"
(mod/overdue?
(mod/mk-timed-case mod-sla-triaged 49)
100
50)
true)
;; ── sweep over a mixed queue ──
(define
mod-sla-queue
(list
(mod/mk-timed-case mod-sla-triaged 0)
(mod/mk-timed-case mod-sla-decided 0)
(mod/mk-timed-case mod-sla-open 90))) ;; r2, pending, age 10 → not
(mod-sla-test!
"sweep finds only the overdue pending case"
(mod/sla-sweep mod-sla-queue 100 50)
(list "r1"))
(mod-sla-test!
"overdue-count agrees"
(mod/overdue-count mod-sla-queue 100 50)
1)
;; tighten deadline so the young open case also breaches
(mod-sla-test!
"tighter deadline catches the open case too"
(mod/overdue-count mod-sla-queue 100 5)
2)
(mod-sla-test!
"empty queue → no breaches"
(mod/sla-sweep (list) 100 50)
(list))
(define mod-sla-tests-run! (fn () {:failures mod-sla-failures :total mod-sla-count :passed mod-sla-pass :failed mod-sla-fail}))

View File

@@ -1,156 +0,0 @@
;; lib/mod/tests/temporal.sx — Ext 12: burst detection over a time window.
(define mod-tm-count 0)
(define mod-tm-pass 0)
(define mod-tm-fail 0)
(define mod-tm-failures (list))
(define
mod-tm-test!
(fn
(name got expected)
(begin
(set! mod-tm-count (+ mod-tm-count 1))
(if
(= got expected)
(set! mod-tm-pass (+ mod-tm-pass 1))
(begin
(set! mod-tm-fail (+ mod-tm-fail 1))
(append!
mod-tm-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
mod-tm-at
(fn (id about t) (mod/with-at (mod/mk-report id "u" about "off-topic") t)))
(define
mod-tm-rules
(list
(mod/mk-rule "burst-hide" :hide (list (list :burst-at-least 3)))
(mod/mk-rule "default-keep" :keep (list))))
;; ── window-count helper ──
(define
mod-tm-burst
(list
(mod-tm-at "r1" "bob" 10)
(mod-tm-at "r2" "bob" 11)
(mod-tm-at "r3" "bob" 12)))
(define
mod-tm-slow
(list
(mod-tm-at "r1" "bob" 1)
(mod-tm-at "r2" "bob" 2)
(mod-tm-at "r3" "bob" 12)))
(mod-tm-test!
"window-count: all 3 within window"
(mod/window-count "bob" mod-tm-burst 12 5)
3)
(mod-tm-test!
"window-count: only 1 within window"
(mod/window-count "bob" mod-tm-slow 12 5)
1)
(mod-tm-test!
"window-count: subject filter"
(mod/window-count "eve" mod-tm-burst 12 5)
0)
;; ── burst fires; slow accumulation does not ──
(mod-tm-test!
"burst (3 in window) → hide"
(get
(mod/decide-temporal
(first mod-tm-burst)
mod-tm-burst
mod-tm-rules
12
5)
:action)
"hide")
(mod-tm-test!
"slow accumulation (1 in window) → keep"
(get
(mod/decide-temporal
(first mod-tm-slow)
mod-tm-slow
mod-tm-rules
12
5)
:action)
"keep")
;; ── contrast: the plain count rule fires on BOTH (3 total reports) ──
(mod-tm-test!
"count rule fires on slow case (distinct from burst)"
(get
(mod/decide-report (first mod-tm-slow) mod-tm-slow mod/default-rules)
:action)
"escalate")
;; ── decision shape ──
(define
mod-tm-d
(mod/decide-temporal
(first mod-tm-burst)
mod-tm-burst
mod-tm-rules
12
5))
(mod-tm-test! "burst decision rule" (get mod-tm-d :rule) "burst-hide")
(mod-tm-test!
"burst decision tagged strategy"
(get mod-tm-d :strategy)
"temporal")
(mod-tm-test!
"burst recorded in proof"
(get (get mod-tm-d :proof) :burst)
3)
(mod-tm-test!
"burst proof goal solved"
(get (first (get (get mod-tm-d :proof) :goals)) :solved)
true)
;; ── window boundary is inclusive ──
(define
mod-tm-edge
(list
(mod-tm-at "r1" "bob" 7)
(mod-tm-at "r2" "bob" 8)
(mod-tm-at "r3" "bob" 9)))
(mod-tm-test!
"window boundary inclusive (now-window = at)"
(mod/window-count "bob" mod-tm-edge 12 5)
3)
;; ── schema :at round-trips and survives evidence attach ──
(mod-tm-test!
"report-at reads timestamp"
(mod/report-at (mod-tm-at "r1" "bob" 42))
42)
(mod-tm-test!
"default report-at is 0"
(mod/report-at (mod/mk-report "r1" "a" "b" "x"))
0)
(mod-tm-test!
"attach-evidence preserves :at"
(mod/report-at
(mod/attach-evidence
(mod-tm-at "r1" "bob" 42)
(mod/mk-evidence "k" "v")))
42)
;; ── cond->goal :burst-at-least ──
(mod-tm-test!
"cond->goal :burst-at-least"
(mod/cond->goal (list :burst-at-least 3) "Id")
"report(Id, _, Sb), burst_count(Sb, Nb), Nb >= 3")
(define mod-temporal-tests-run! (fn () {:failures mod-tm-failures :total mod-tm-count :passed mod-tm-pass :failed mod-tm-fail}))

View File

@@ -1,116 +0,0 @@
;; lib/mod/tests/trace.sx — Ext 9: policy dry-run diagnostics.
(define mod-tr-count 0)
(define mod-tr-pass 0)
(define mod-tr-fail 0)
(define mod-tr-failures (list))
(define
mod-tr-test!
(fn
(name got expected)
(begin
(set! mod-tr-count (+ mod-tr-count 1))
(if
(= got expected)
(set! mod-tr-pass (+ mod-tr-pass 1))
(begin
(set! mod-tr-fail (+ mod-tr-fail 1))
(append!
mod-tr-failures
(str name "\n expected: " expected "\n got: " got)))))))
(define
mod-tr-find
(fn
(trace nm)
(reduce (fn (acc t) (if (= (get t :rule) nm) t acc)) nil trace)))
;; ── trace a spam report against the default rules ──
(define mod-tr-spam (mod/mk-report "r1" "alice" "bob" "this is spam"))
(define
mod-tr-t
(mod/trace-rules mod-tr-spam (list mod-tr-spam) mod/default-rules))
(mod-tr-test! "trace covers every rule" (len mod-tr-t) 6)
(mod-tr-test!
"spam-hide fires"
(get (mod-tr-find mod-tr-t "spam-hide") :proved)
true)
(mod-tr-test!
"default-keep always fires"
(get (mod-tr-find mod-tr-t "default-keep") :proved)
true)
(mod-tr-test!
"reviewer-remove does not fire (no evidence)"
(get (mod-tr-find mod-tr-t "reviewer-remove") :proved)
false)
(mod-tr-test!
"exonerated-keep does not fire"
(get (mod-tr-find mod-tr-t "exonerated-keep") :proved)
false)
(mod-tr-test!
"abuse-remove does not fire"
(get (mod-tr-find mod-tr-t "abuse-remove") :proved)
false)
;; ── winner matches the engine ──
(mod-tr-test!
"first-proved is spam-hide"
(get (mod/first-proved mod-tr-t) :rule)
"spam-hide")
(mod-tr-test!
"winner action matches decide-report"
(get (mod/first-proved mod-tr-t) :action)
(get
(mod/decide-report mod-tr-spam (list mod-tr-spam) mod/default-rules)
:action))
;; ── an unproved rule shows which goal failed ──
(define
mod-tr-rev-goals
(get (mod-tr-find mod-tr-t "reviewer-remove") :goals))
(mod-tr-test!
"reviewer-remove goal is unsolved"
(get (first mod-tr-rev-goals) :solved)
false)
(define mod-tr-spam-goals (get (mod-tr-find mod-tr-t "spam-hide") :goals))
(mod-tr-test!
"spam-hide goal is solved"
(get (first mod-tr-spam-goals) :solved)
true)
;; ── proved-rules list + rendering ──
(mod-tr-test!
"proved-rules lists fired rules in order"
(mod/proved-rules mod-tr-t)
(list "spam-hide" "default-keep"))
(mod-tr-test!
"trace-report marks a firing rule"
(mod/str-contains? (mod/trace-report mod-tr-t) "[fires] spam-hide")
true)
(mod-tr-test!
"trace-report marks a non-firing rule"
(mod/str-contains? (mod/trace-report mod-tr-t) "[ - ] reviewer-remove")
true)
;; ── clean report: only default-keep fires ──
(define mod-tr-clean (mod/mk-report "r2" "a" "b" "a fine post"))
(define
mod-tr-tc
(mod/trace-rules mod-tr-clean (list mod-tr-clean) mod/default-rules))
(mod-tr-test!
"clean report: only default-keep proves"
(mod/proved-rules mod-tr-tc)
(list "default-keep"))
(mod-tr-test!
"clean report winner is default-keep"
(get (mod/first-proved mod-tr-tc) :rule)
"default-keep")
(define mod-trace-tests-run! (fn () {:failures mod-tr-failures :total mod-tr-count :passed mod-tr-pass :failed mod-tr-fail}))

View File

@@ -1,117 +0,0 @@
;; lib/mod/tests/whatif.sx — Ext 10: policy what-if / impact analysis.
(define mod-wi-count 0)
(define mod-wi-pass 0)
(define mod-wi-fail 0)
(define mod-wi-failures (list))
(define
mod-wi-test!
(fn
(name got expected)
(begin
(set! mod-wi-count (+ mod-wi-count 1))
(if
(= got expected)
(set! mod-wi-pass (+ mod-wi-pass 1))
(begin
(set! mod-wi-fail (+ mod-wi-fail 1))
(append!
mod-wi-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; rules-b is the default policy with spam-hide removed: spam now falls through
;; to default-keep. A spam report flips hide → keep; everything else is unchanged.
(define mod-wi-rules-a mod/default-rules)
(define
mod-wi-rules-b
(list
(mod/mk-rule
"reviewer-remove"
:remove (list (list :evidence "confirmed-abuse")))
(mod/mk-rule
"abuse-remove"
:remove (list (list :classification "abuse")))
(mod/mk-rule
"repeated-escalate"
:escalate (list (list :count-at-least 3)))
(mod/mk-rule "default-keep" :keep (list))))
(define mod-wi-spam (mod/mk-report "r1" "a" "bob" "this is spam"))
(define mod-wi-abuse (mod/mk-report "r2" "a" "carol" "harassment here"))
(define mod-wi-clean (mod/mk-report "r3" "a" "dave" "a fine post"))
;; ── single-report diff ──
(define
mod-wi-d
(mod/decision-diff
mod-wi-spam
(list mod-wi-spam)
mod-wi-rules-a
mod-wi-rules-b))
(mod-wi-test! "spam before = hide" (get mod-wi-d :before) "hide")
(mod-wi-test! "spam after = keep" (get mod-wi-d :after) "keep")
(mod-wi-test! "spam decision flips" (get mod-wi-d :changed) true)
(mod-wi-test! "diff carries report id" (get mod-wi-d :report-id) "r1")
(define
mod-wi-da
(mod/decision-diff
mod-wi-abuse
(list mod-wi-abuse)
mod-wi-rules-a
mod-wi-rules-b))
(mod-wi-test! "abuse unchanged (remove both)" (get mod-wi-da :changed) false)
(mod-wi-test! "abuse stays remove" (get mod-wi-da :after) "remove")
(define
mod-wi-dc
(mod/decision-diff
mod-wi-clean
(list mod-wi-clean)
mod-wi-rules-a
mod-wi-rules-b))
(mod-wi-test! "clean unchanged (keep both)" (get mod-wi-dc :changed) false)
;; ── batch impact ──
(define mod-wi-batch (list mod-wi-spam mod-wi-abuse mod-wi-clean))
(define
mod-wi-impact
(mod/policy-impact mod-wi-batch mod-wi-rules-a mod-wi-rules-b))
(mod-wi-test!
"impact lists only changed reports"
(len mod-wi-impact)
1)
(mod-wi-test!
"impacted report is the spam one"
(get (first mod-wi-impact) :report-id)
"r1")
(mod-wi-test!
"impact-count agrees"
(mod/impact-count mod-wi-batch mod-wi-rules-a mod-wi-rules-b)
1)
;; ── identical rule sets → no impact ──
(mod-wi-test!
"same rules → zero impact"
(mod/impact-count mod-wi-batch mod-wi-rules-a mod-wi-rules-a)
0)
(mod-wi-test!
"same rules → empty report"
(mod/impact-report mod-wi-batch mod-wi-rules-a mod-wi-rules-a)
"No decisions change.")
;; ── rendering ──
(mod-wi-test!
"impact-report renders the flip"
(mod/str-contains?
(mod/impact-report mod-wi-batch mod-wi-rules-a mod-wi-rules-b)
"r1: hide → keep")
true)
(define mod-whatif-tests-run! (fn () {:failures mod-wi-failures :total mod-wi-count :passed mod-wi-pass :failed mod-wi-fail}))

View File

@@ -1,96 +0,0 @@
;; lib/mod/tests/wire.sx — Ext 14: decision wire format + federated transport.
(define mod-w-count 0)
(define mod-w-pass 0)
(define mod-w-fail 0)
(define mod-w-failures (list))
(define
mod-w-test!
(fn
(name got expected)
(begin
(set! mod-w-count (+ mod-w-count 1))
(if
(= got expected)
(set! mod-w-pass (+ mod-w-pass 1))
(begin
(set! mod-w-fail (+ mod-w-fail 1))
(append!
mod-w-failures
(str name "\n expected: " expected "\n got: " got)))))))
;; ── split-char ──
(mod-w-test! "split on pipe" (mod/split-char "a|b|c" "|") (list "a" "b" "c"))
(mod-w-test! "split single field" (mod/split-char "abc" "|") (list "abc"))
(mod-w-test!
"split four fields"
(len (mod/split-char "MOD1|r1|hide|spam-hide" "|"))
4)
;; ── serialize ──
(define
mod-w-dec
(mod/decide-report
(mod/mk-report "r1" "a" "bob" "this is spam")
(list (mod/mk-report "r1" "a" "bob" "this is spam"))
mod/default-rules))
(define mod-w-line (mod/decision->wire mod-w-dec))
(mod-w-test!
"wire is versioned + delimited"
mod-w-line
"MOD1|r1|hide|spam-hide")
(mod-w-test!
"wire-valid? accepts well-formed"
(mod/wire-valid? mod-w-line)
true)
(mod-w-test!
"wire-valid? rejects junk"
(mod/wire-valid? "not a wire line")
false)
(mod-w-test!
"wire-valid? rejects wrong version"
(mod/wire-valid? "MOD9|r1|hide|x")
false)
;; ── round-trip ──
(define mod-w-back (mod/wire->decision mod-w-line))
(mod-w-test! "round-trip report-id" (get mod-w-back :report-id) "r1")
(mod-w-test! "round-trip action" (get mod-w-back :action) "hide")
(mod-w-test! "round-trip rule" (get mod-w-back :rule) "spam-hide")
(mod-w-test! "round-trip tags :wire" (get mod-w-back :wire) true)
(mod-w-test! "malformed → nil" (mod/wire->decision "garbage") nil)
;; ── full federated transport: serialize → wire → deserialize → trust-gate ──
(mod/fed-reset!)
(define mod-w-peer-dec (mod/wire->decision mod-w-line))
;; untrusted peer: decision is advisory, not applied
(define mod-w-recv1 (mod/fed-receive-decision "peerX" mod-w-peer-dec))
(mod-w-test!
"wired decision from untrusted peer → advisory"
(get mod-w-recv1 :applied)
false)
(mod-w-test!
"untrusted wired decision not applied locally"
(mod/fed-applied-action "r1")
nil)
;; trusted peer: decision binds locally
(mod/grant-trust "peerY" :mod)
(define mod-w-recv2 (mod/fed-receive-decision "peerY" mod-w-peer-dec))
(mod-w-test!
"wired decision from trusted peer → applied"
(get mod-w-recv2 :applied)
true)
(mod-w-test!
"trusted wired decision binds locally"
(get (mod/fed-applied-action "r1") :action)
"hide")
(define mod-wire-tests-run! (fn () {:failures mod-w-failures :total mod-w-count :passed mod-w-pass :failed mod-w-fail}))

View File

@@ -1,56 +0,0 @@
;; lib/mod/trace.sx — policy dry-run diagnostics.
;;
;; decide-report returns the winning rule; a policy author debugging "why didn't
;; my rule fire?" needs the whole picture. mod/trace-rules evaluates a report
;; against every rule and reports each rule's proved/unproved status plus its
;; goal-by-goal derivation — so an unproved rule shows exactly which goal failed.
;; The winner is the first proved rule (same precedence as the engine).
(define
mod/trace-rules
(fn
(r reports rules)
(let
((count (mod/report-count (mod/report-about r) reports))
(id (mod/report-id r)))
(let
((db (pl-load (mod/build-program r count rules))))
(let
((proved-names (map (fn (s) (dict-get s "Rule")) (pl-query-all db (str "policy_action(" id ", _, Rule)")))))
(map
(fn (rule) (let ((nm (mod/rule-name rule))) {:proved (mod/member? nm proved-names) :goals (mod/proof-goals db id (mod/rule-when rule)) :action (mod/rule-action rule) :rule nm}))
rules))))))
(define
mod/first-proved
(fn
(trace)
(reduce
(fn (acc t) (if (nil? acc) (if (get t :proved) t acc) acc))
nil
trace)))
(define
mod/proved-rules
(fn
(trace)
(reduce
(fn
(acc t)
(if (get t :proved) (append acc (list (get t :rule))) acc))
(list)
trace)))
(define
mod/trace-row
(fn
(t)
(str
(if (get t :proved) "[fires] " "[ - ] ")
(get t :rule)
" → "
(get t :action))))
(define
mod/trace-report
(fn (trace) (mod/join-with "\n" (map mod/trace-row trace))))

View File

@@ -1,56 +0,0 @@
;; lib/mod/whatif.sx — policy what-if / impact analysis.
;;
;; Before shipping a policy change, a moderation team needs to know which past or
;; pending reports would decide differently. mod/decision-diff compares one
;; report's action under two rule sets; mod/policy-impact runs a whole batch and
;; returns only the reports whose decision flips. Pure SX over decide-report.
(define
mod/decision-diff
(fn
(r reports rules-a rules-b)
(let
((a (get (mod/decide-report r reports rules-a) :action))
(b (get (mod/decide-report r reports rules-b) :action)))
{:after b :changed (if (= a b) false true) :report-id (mod/report-id r) :before a})))
(define
mod/policy-impact
(fn
(reports rules-a rules-b)
(reduce
(fn
(acc r)
(let
((d (mod/decision-diff r reports rules-a rules-b)))
(if (get d :changed) (append acc (list d)) acc)))
(list)
reports)))
(define
mod/impact-count
(fn
(reports rules-a rules-b)
(len (mod/policy-impact reports rules-a rules-b))))
(define
mod/impact-report
(fn
(reports rules-a rules-b)
(let
((changed (mod/policy-impact reports rules-a rules-b)))
(if
(empty? changed)
"No decisions change."
(mod/join-with
"\n"
(map
(fn
(d)
(str
(get d :report-id)
": "
(get d :before)
" → "
(get d :after)))
changed))))))

View File

@@ -1,55 +0,0 @@
;; lib/mod/wire.sx — portable decision wire format for federation transport.
;;
;; fed.sx shares decisions as in-memory dicts and leaves mod/fed-send! as the
;; transport seam. This is the bytes that cross it: a versioned, pipe-delimited
;; line encoding the verdict a peer needs (report id, action, rule) — enough to
;; trust-gate and apply/advise, without shipping the whole proof tree. The
;; loaded env has no string split, so split is built over slice/len.
(define
mod/split-loop
(fn
(s ch n start pos acc)
(if
(= pos n)
(append acc (list (slice s start n)))
(if
(= (slice s pos (+ pos 1)) ch)
(mod/split-loop
s
ch
n
(+ pos 1)
(+ pos 1)
(append acc (list (slice s start pos))))
(mod/split-loop s ch n start (+ pos 1) acc)))))
(define
mod/split-char
(fn (s ch) (mod/split-loop s ch (len s) 0 0 (list))))
(define
mod/decision->wire
(fn
(d)
(str "MOD1|" (get d :report-id) "|" (get d :action) "|" (get d :rule))))
(define
mod/wire-valid?
(fn
(w)
(let
((parts (mod/split-char w "|")))
(if
(= (len parts) 4)
(= (nth parts 0) "MOD1")
false))))
(define
mod/wire->decision
(fn
(w)
(if
(mod/wire-valid? w)
(let ((parts (mod/split-char w "|"))) {:action (nth parts 2) :wire true :rule (nth parts 3) :report-id (nth parts 1)})
nil)))

View File

@@ -15,7 +15,7 @@ and federation extension. Reuses `lib/datalog/` evaluator and term model where p
## Status (rolling)
`bash lib/acl/conformance.sh`**0/0** (not yet started)
`bash lib/acl/conformance.sh`**145/145** (all four phases + hardening)
## Ground rules
@@ -57,46 +57,225 @@ lib/acl/facts.sx — builds Datalog query
## Phase 1 — Direct grants
- [ ] `lib/acl/schema.sx` — sorts: subject {user, group, role, service}, action,
- [x] `lib/acl/schema.sx` — sorts: subject {user, group, role, service}, action,
resource {page, post, thread, peer}
- [ ] `lib/acl/facts.sx``actor`, `resource`, `grant`, `deny` predicates as Datalog
- [x] `lib/acl/facts.sx``actor`, `resource`, `grant`, `deny` predicates as Datalog
EDB
- [ ] `lib/acl/engine.sx``(permit? subj act res db)` reduces to Datalog query
- [ ] `lib/acl/api.sx` — public `(acl/permit? ...)` taking implicit current db
- [ ] `lib/acl/tests/direct.sx` — 15+ cases: direct grant, missing grant, explicit deny
- [ ] `lib/acl/scoreboard.{json,md}` baseline
- [ ] `lib/acl/conformance.sh` runs the suite
- [x] `lib/acl/engine.sx``(permit? subj act res db)` reduces to Datalog query
- [x] `lib/acl/api.sx` — public `(acl/permit? ...)` taking implicit current db
- [x] `lib/acl/tests/direct.sx` — 15+ cases: direct grant, missing grant, explicit deny
- [x] `lib/acl/scoreboard.{json,md}` baseline
- [x] `lib/acl/conformance.sh` runs the suite
## Phase 2 — Inheritance
- [ ] `member_of(actor, group)` chain — group grants apply to members (transitive)
- [ ] `child_of(res, parent)` chain — parent grants apply to children (transitive)
- [ ] role expansion — role contains list of (action, resource) tuples
- [ ] deny-overrides — explicit deny wins over inherited allow
- [ ] `lib/acl/tests/inherit.sx` — 25+ cases: nested groups, deep resource trees,
- [x] `member_of(actor, group)` chain — group grants apply to members (transitive)
- [x] `child_of(res, parent)` chain — parent grants apply to children (transitive)
- [x] role expansion — role contains list of (action, resource) tuples
- [x] deny-overrides — explicit deny wins over inherited allow
- [x] `lib/acl/tests/inherit.sx` — 25+ cases: nested groups, deep resource trees,
conflict resolution, deny precedence
- [ ] document the deny-overrides choice in plan
- [x] document the deny-overrides choice in plan
### deny-overrides policy (the choice)
Encoded as stratified negation: `permit(S,A,R) :- eff_grant(S,A,R), not
eff_deny(S,A,R)`. Both `eff_grant` and `eff_deny` inherit through the *same*
`member_of` (group/role) and `child_of` (resource) chains. Consequences:
- An explicit deny on the exact (S,A,R) defeats any inherited allow.
- A **group-level** or **ancestor-resource** deny inherits down and defeats a
member's/descendant's grant — deny is authoritative across the closure, not
only at the leaf. This is the fail-safe reading: the most permissive
interpretation of "deny wins" would let a narrow grant escape a broad deny;
we chose the opposite.
- Deny is dimension-scoped: a deny on (S, edit, R) never blocks (S, read, R).
Stratifiable because neither `eff_grant` nor `eff_deny` depends on `permit`;
`permit` sits in a strictly higher stratum. Termination is guaranteed —
recursion is only over EDB `member_of`/`child_of` (no function symbols), so
cyclic membership/containment reaches a fixpoint rather than looping (tested).
## Phase 3 — Explanation + audit
- [ ] `(acl/explain subj act res)``{:allowed? T :proof <tree>}`
- [ ] proof tree extracts from Datalog's derivation
- [ ] `lib/acl/audit.sx` — append-only decision log (in-memory + serializer for disk)
- [ ] `(acl/audit-tail n)` for recent decisions
- [ ] `lib/acl/tests/explain.sx` — proof correctness, audit completeness
- [x] `(acl/explain subj act res)``{:allowed? T :proof <tree>}`
- [x] proof tree extracts from Datalog's derivation
- [x] `lib/acl/audit.sx` — append-only decision log (in-memory + serializer for disk)
- [x] `(acl/audit-tail n)` for recent decisions
- [x] `lib/acl/tests/explain.sx` — proof correctness, audit completeness
### proof reconstruction (the choice)
`lib/datalog/` records derived facts but not provenance, so `lib/acl/explain.sx`
reconstructs the proof by goal-directed search over the *saturated* db: for a
ground goal, find the first ACL rule (in `acl-rules` order) whose body holds,
take the first `dl-query` solution binding the rest, recurse on each body
literal; negated literals become verified `:neg-ok` leaves. The Datalog
derivation graph is a DAG (a fact may hold many ways) — we pick ONE **canonical
proof: first-rule, first-solution**, with EDB/direct rules ordered first so
proofs bottom out quickly. A depth cap (64) guards pathological cyclic data.
`acl-explain` returns `{:allowed? :proof :reason}`; on denial `:reason` carries
the blocking `eff_deny` proof (explicit or inherited) when one exists, else nil
(no grant). Audit log is append-only with monotonic seq numbers (no wall-clock,
for determinism); `acl-audit-decide!` is the logged path, `acl-permit?` stays
pure.
## Phase 4 — Federation
- [ ] peer trust facts — `peer(addr, kind)`, `trust(peer, level)`
- [ ] delegated grants — `delegate(peer, actor, action, resource)`
- [ ] cross-instance permit chain — query asks local + queries trusted peers via fed-sx
- [ ] revocation propagation — fact retraction across federation
- [ ] `lib/acl/tests/fed.sx` — federated grant chains (mock fed-sx transport in tests)
- [x] peer trust facts — `peer(addr, kind)`, `trust(peer, level)`
- [x] delegated grants — `delegate(peer, actor, action, resource)`
- [x] cross-instance permit chain — query asks local + queries trusted peers via fed-sx
- [x] revocation propagation — fact retraction across federation
- [x] `lib/acl/tests/fed.sx` — federated grant chains (mock fed-sx transport in tests)
### federation policy (the choice)
One engine rule carries federation:
`eff_grant(S,A,R) :- delegate(Peer,S,A,R), trust(Peer,L), level_covers(L,A)`.
- **Non-transitive trust.** A peer's `delegate` only grants if a *local*
`trust(Peer,L)` exists and that level `level_covers` the action. There is no
peer-to-peer trust propagation — trusting α never extends to peers α trusts.
- **Trust re-checked every query.** `trust`/`level_covers` are body literals
evaluated at decision time, never baked in at ingestion. Revoking trust or
narrowing a level takes effect on the next `acl-permit?`.
- **Deny still wins.** Federated grants are `eff_grant`, so local (and inherited)
deny overrides them exactly as for local grants.
- **Composes with inheritance.** A delegate to a group flows to members; a
delegate on a parent resource flows to children (federated `eff_grant` feeds
the same recursion).
- **Revocation = retraction.** `acl-revoke!` wraps `dl-retract!`; the next query
re-saturates. `acl-fed-assert!` wraps `dl-assert!` for newly-replicated facts.
- **Transport is fed-sx's job.** `lib/acl/federation.sx` mocks the pull as a
dict {peer-addr → delegate-facts}; `acl-fed-build-db` merges local policy +
pulled delegates.
## Progress log
(loop fills this in)
- **Phase 1 complete (24/24).** ACL is a thin layer over `lib/datalog/`:
- `schema.sx` — sorts (subject/resource kinds, well-known actions) + EDB
predicate arity table + `acl-fact-valid?` validator. Schema is data, since
Datalog is untyped.
- `facts.sx``acl-actor`/`acl-resource-fact`/`acl-grant`/`acl-deny`
constructors returning Datalog fact tuples.
- `engine.sx` — owns the ruleset `acl-phase1-rules` and reduces decisions to
`dl-query`. `acl-build-db` = `dl-program-data facts rules`; `acl-permit?` =
non-empty `(permit S A R)` query.
- `api.sx``acl/load!` rebuilds an implicit current db; `acl/permit?` queries
it. (Slash-symbols like `acl/permit?` parse fine as single tokens.)
- **deny-overrides** encoded as `permit(S,A,R) :- grant(S,A,R), not deny(S,A,R)`.
Stratifies cleanly because `deny` is EDB-only (no rule derives it). Verified:
grant+deny on same (S,A,R) → denied.
- Conformance: `conformance.conf` (datalog preloads + acl modules) + thin
`conformance.sh` wrapper over `lib/guest/conformance.sh`. Scoreboard
generated by the shared driver.
- **Shared-plumbing note (for eventual `lib/guest/rules/`):** the
`build-db = dl-program-data(facts, rules)` + `decide = non-empty ground query`
shape is exactly what mod-sx (Prolog moderation) will also need. The reusable
seam is engine.sx's two functions — facts→db and ground-query→bool — both
pure pass-throughs to the rule engine. Not extracting yet (wait for mod-sx as
second consumer per ground rules).
- **Phase 2 complete (54/54, +30 inherit).** Extended `acl-rules` with
`eff_grant`/`eff_deny` derived relations; `member_of` carries both group and
role membership, `child_of` carries resource trees, `role_grant` confers a
role's (action,resource) capabilities. Direct grants unchanged (base case of
`eff_grant`), Phase 1 suite still green. Constructors `acl-member-of`,
`acl-child-of`, `acl-role-grant` added; schema arity table extended. See the
deny-overrides policy section above. Verified cyclic membership terminates.
- **Shared-plumbing update:** the reusable seam is still just engine.sx's
`facts -> db` + `ground-query -> bool`. The inheritance *rules* are
ACL-specific (group/resource/role vocabulary); mod-sx will have its own. So
the `lib/guest/rules/` extraction stays at the build/decide level, not the
ruleset level.
- **Phase 3 complete (89/89, +35 explain).** Added `explain.sx` (proof
reconstruction, see policy section above), `audit.sx` (append-only log), and
extended `api.sx` with `acl/explain`/`acl/audit`/`acl/audit-tail`. No engine
changes — explanation reads the same saturated db the decision uses.
- **Substrate gotcha:** the host `=` compares symbols by interned identity,
which is *unstable* across `dl-query` saturation/substitution within a
single image — the same two structurally-equal symbol-lists compared `=`
true once and false moments later in the REPL. Conformance runs in a fresh
process per suite so it's deterministic there, but test assertions now use a
name-based `acl-et-eq?` (compare symbols via `symbol->string`), matching the
datalog suite's `dl-api-deep=?` convention. Worth flagging to the kernel
owners but out of acl scope.
- **Phase 4 complete (120/120, +31 fed).** Added `federation.sx` (mock
transport + `acl-fed-build-db`/`acl-revoke!`/`acl-fed-assert!`), one engine
rule (the trust-gated delegate rule), 4 fact constructors, 4 schema arities.
Federated proofs reconstruct for free — `explain.sx` iterates `acl-rules`, so
the delegate rule's EDB body (`delegate`/`trust`/`level_covers`) shows up as
proof leaves with no explain changes. **Roadmap done: all four phases green.**
- **Shared-plumbing final note (for `lib/guest/rules/`):** the durable
reusable seam across acl-sx and the coming mod-sx is exactly four
pass-throughs to the rule engine — `build-db(facts)`, `decide(ground-query)
-> bool`, `explain(goal) -> proof-tree`, and the revoke/assert mutators.
The *rulesets* and *vocabulary* are language-specific (ACL: grant/deny/
member_of/...; mod-sx: Prolog moderation predicates). When mod-sx lands,
extract those four functions (engine.sx + the generic half of explain.sx's
goal-directed reconstructor) into `lib/guest/rules/`, leaving each consumer
its own rules + fact constructors. Proof reconstruction is the non-obvious
reusable piece: it only needs the ruleset as data + a saturated db, both of
which any datalog-backed guest has.
- **dict-mode conformance is slow, not hung:** all suites load + run in one
process (~30-40s for 120 tests, no per-suite timeout). Do not kill early.
- **Tooling note:** sx-tree path-based edit tools (`sx_replace_node`,
`sx_read_subtree` with a path) ignored the path argument in this worktree
(always resolved to index 0 / `[0,..]`), in BOTH `(a b c)` and `(a,b,c)`
forms. `sx_write_file`, `sx_validate`, `sx_find_all`, `sx_summarise`,
`sx_eval` all work; used full-file rewrites instead of path edits throughout.
## Hardening (post-roadmap)
- **`lib/acl/tests/harden.sx` (+25).** Adversarial / cross-phase coverage beyond
the per-phase suites. **Prover-free by design** (see JIT blocker below): only
`acl-permit?` (compiled Datalog, safe at any depth) + pure data ops, never
`acl-explain`/`acl-prove-d`.
- Diamond hierarchies (resource and group): grant on one path + deny on
another → deny wins; both-grant → permit; deny does not leak to siblings.
- Chain inheritance (literal 4-link): top-group grant reaches leaf member and
intermediates; leaf-member deny overrides the top grant; deny on the leaf
doesn't block a higher level.
- Cycle termination: self-membership, self-child, and 2-node membership cycles
all reach a fixpoint and decide correctly.
- Federation conflicts: federated group-grant with a locally-denied member →
deny; multi-peer delegation (one trusted, or both trusted) → permit.
- Degenerate inputs: empty db permits nothing.
- Fact validation: `acl-validate-facts` surfaces wrong-arity + unknown
predicates; `acl-facts-valid?` on clean/empty sets.
- Audit save/restore: snapshot → clear → restore round-trips entries + seq;
seq continues without collision after restore; snapshot is an immutable copy.
- Proof reconstruction itself is covered by tests/explain.sx + tests/fed.sx
(both stay under the warm-process JIT depth threshold); the depth-cap safety
net is verified manually in a warm REPL image but excluded from conformance.
- **New API:** `acl-validate-facts`/`acl-facts-valid?` (schema.sx, opt-in — build
stays lenient); `acl-audit-snapshot`/`acl-audit-restore!`/`acl-audit-copy`
(audit.sx).
- **Substrate gotcha (recorded):** `append!` extends a list built with `(list)`
but **silently no-ops on a `map`/`rest`-derived list** in this runtime. Bit the
first cut of `acl-audit-restore!` (rebuilt the live log via `map`, so later
records didn't append). Fix: always rebuild mutable lists via `(list)` +
`append!` (`acl-audit-copy`). Worth flagging to kernel owners; out of acl scope.
## Blockers
(loop fills this in)
- **JIT loops on deep proof reconstruction (substrate, not acl).** Once the
kernel JIT-compiles the mutually-recursive prover (`acl-prove-d`/
`acl-prove-rules`/`acl-prove-build` in `explain.sx`) — which happens after a
process has run enough explains to cross the compile threshold — the compiled
version **loops indefinitely** on a `member_of`/`child_of` chain deeper than
~3. Symptoms: `acl-explain` over a 4+-deep chain returns instantly in a cold /
warm-REPL image but **hangs** in a long-lived process. The per-phase explain
and fed suites pass only because their proofs stay ≤3 deep; a 5th suite that
explained deeper chains hung the whole conformance run (no per-suite timeout
in dict mode). Matches `[[project_jit_bytecode_bug]]` (ACTIVE).
- *Impact beyond tests:* `acl-explain` is unsafe for deep hierarchies in a
warm production OCaml server. `acl-permit?` is unaffected (it reduces to
compiled Datalog, no SX-side recursion) — only the SX proof reconstructor is.
- *Workaround in acl:* harden suite is prover-free; explain is exercised only
at shallow depth. *Real fix is in the kernel JIT* (out of acl scope) — e.g.
the `_jit_compiling` guard / disabling JIT for the recursive prover, or
fixing the bytecode loop. Recommend the kernel owners reproduce with:
`acl-explain` over a 6-deep `member_of` chain after ~70 prior explains.
- *Minimal repro recorded.* Until fixed, callers needing explanations for
deep hierarchies should flatten or cap depth, or run explain in a cold
worker.

View File

@@ -1,136 +0,0 @@
# mod-on-sx loop agent (single agent, queue-driven)
Role: iterates `plans/mod-on-sx.md` forever. **Moderation on Prolog** — reports,
policy rules, decisions as backtracking proof search, audit trails, escalation
state machine, federation. Where acl-sx asks "may this happen?", mod-sx asks
"should this stay?" Sits on `lib/prolog/` (its test suite already green); adds a
moderation-shaped vocabulary on top.
```
description: mod-on-sx queue loop
subagent_type: general-purpose
run_in_background: true
isolation: worktree
```
## Prompt
You are the sole background agent working `plans/mod-on-sx.md`. Isolated worktree
`/root/rose-ash-loops/mod` on branch `loops/mod`, forever, one commit per feature.
Push to `origin/loops/mod` after every commit. Never touch `main` or `architecture`.
## Restart baseline — check before iterating
1. Read `plans/mod-on-sx.md` — roadmap + Progress log.
2. `ls lib/mod/` — pick up from the most advanced file.
3. If `lib/mod/tests/*.sx` exist, run them via `bash lib/mod/conformance.sh`. Green
before new work.
4. If `lib/mod/scoreboard.md` exists, that's your baseline.
5. Read the `lib/prolog/` public API once — that's your substrate. The plan cites
`lib/prolog/prolog.sx` but that file does **not** exist; the real entry points
are `lib/prolog/runtime.sx`, `query.sx`, `compiler.sx`, `parser.sx`. Investigate
them (sx_find_all / grep for `(define ` heads) to learn how to assert facts and
run queries before writing any policy code.
## The queue
Phase order per `plans/mod-on-sx.md`:
- **Phase 1** — report representation + simple policy (schema, defrule→clause,
`(decide id)` query, api). Tests: spam keyword → hide, repeated reports →
escalate, no rule → keep.
- **Phase 2** — evidence accumulation + audit trail (proof tree from derivation,
append-only decision log, retrieval).
- **Phase 3** — escalation + lifecycle state machine
(`:open → :triaged → :decided → :appealed → :final`), auto/human tiers, appeal.
- **Phase 4** — federation (cross-instance reports, decision sharing, trust model,
revocation; mock fed-sx in tests).
Within a phase, pick the checkbox that unlocks the most tests per effort.
Every iteration: implement → test → commit → tick `[ ]` → Progress log → next.
## Ground rules (hard)
- **Scope:** only `lib/mod/**` and `plans/mod-on-sx.md`. Do **not** edit `spec/`,
`hosts/`, `shared/`, other `lib/<lang>/` dirs, `lib/stdlib.sx`, or `lib/` root.
May **import** from `lib/prolog/` only (its public API). Do **not** modify Prolog.
- **NEVER call `sx_build`.** 600s watchdog. If the sx_server binary is broken →
Blockers entry, stop. Run tests by invoking the sx_server binary directly from a
conformance.sh (see how `lib/prolog/conformance.sh` drives it), pointing
`SX_SERVER` at `/root/rose-ash/hosts/ocaml/_build/default/bin/sx_server.exe`
(fresh worktrees have no `_build/`).
- **Shared-file issues** → plan's Blockers with minimal repro; don't fix here.
- **SX files:** `sx-tree` MCP tools ONLY. **They take `file:` not `path:`** — a
wrong key yields `Yojson Type_error("Expected string, got null")`, which looks
like a broken binary but is just a param mismatch. `sx_validate` after edits.
Path-based edits (`sx_replace_node`) count comment headers in their indices and
can clobber the wrong node — re-read after, or prefer `sx_write_file` for small
files. **Default to `sx_write_file` (rewrite the whole file) over path/pattern
edits** — these are small files and the rewrite always parses-before-writing.
`sx_insert_near` inserts only the FIRST top-level form of a multi-form source
(it silently drops the rest; byte count barely moves) — never use it to add a
block of forms; rewrite the file instead. `sx_replace_by_pattern` is fiddly to
match — don't fight it, just rewrite.
- **Unicode in `.sx`:** raw UTF-8 only, never `\uXXXX` escapes.
- **Commit granularity:** one feature per commit. Short factual messages
(`mod: spam-keyword policy rule → :hide + 6 tests`). Push to `origin/loops/mod`.
- **Plan file:** update Progress log (newest first) + tick boxes every commit.
## mod-specific gotchas
- **Decisions are proofs, not booleans.** A decision should carry *why* — the
matching rule / derivation — so Phase 2's audit trail can persist it. Design the
Phase-1 `decide` return shape with that in mind (don't return a bare keyword you
later have to retrofit).
- **Policy chains backtrack.** Order matters: first matching rule wins. Make rule
precedence explicit and deterministic (tests will depend on it). A "no rule
matched" outcome must be a real, testable result (`:keep`), not a query failure
you forget to handle.
- **You may lean on backtracking and cut.** The substrate is full Prolog —
`pl-query-all` gives every proven clause (use it for "strictest-wins" or
multi-match analysis), `pl-query-one` gives the first (clause order = precedence).
Cut (`!`) and the other control constructs are available if you need to prune
alternatives inside a body, but for rule precedence prefer plain clause ordering
resolved by `pl-query-one` — it's the clean, testable default. Don't hand-roll
precedence in SX when the engine's backtracking already gives it to you.
- **Negative decisions need closed-world care.** "No evidence of violation" vs
"evidence absent" differ. Be explicit about negation-as-failure where you use it.
In this substrate, negation is the **functor** `not(Goal)` / `\+(Goal)` — the
prefix `\+ Goal` operator does **not** parse. Unknown predicates *fail* (no
existence error), so a report lacking some fact safely falls through a rule that
references it. Quote user-data atoms (`'foo-bar'`) — a bare hyphen is the minus
operator and will misparse.
- **Loaded-env strips the high-level string prims.** After the prolog preloads are
loaded, the eval env loses `includes?`, `chars`, `str-join`, `keyword` and
friends — they are **undefined** (a function calling one fails only when called,
often mid-test-load, looking like a mystery crash). Only the set the Prolog
tokenizer itself uses survives: `slice`, `len`, `nth`, `=`, `join` (sep first:
`(join sep list)`), `downcase`, `map`, `reduce`, `append`/`append!`, `when`,
`cond`, `if`, `let`, `begin`, `get`, `dict-get`, `keys`, `empty?`, `first`,
`reverse`, `+`, `-`, `<`, `<=`. Build substring search yourself over `slice`/
`len` (see `mod/str-contains?`). Treat `not`, `and`, `or`, `>` as suspect in
guest code unless you've confirmed them — nest `if`/`when` and use `(< a b)`.
- **Lifecycle state is separate from policy.** Keep the state machine (Phase 3) as
an SX module over the engine, not tangled into Prolog rules.
- **Federation trust is advisory by default.** A peer's decision only binds locally
when `(trust peer :mod)` holds; otherwise it's a suggestion. Don't auto-apply.
## General gotchas (all loops)
- SX `do` = R7RS iteration. Use `begin` for multi-expr sequences.
- `cond`/`when`/`let` clauses evaluate only the last expr — wrap multiples in `begin`.
- `let` is parallel, not sequential — nest `let`s when a binding references an earlier one.
- `env-bind!` creates a binding; `env-set!` mutates an existing one (walks scope chain).
- `sx_validate` after every structural edit.
- Namespace-prefix all guest helpers (`mod/...`) — short/host-colliding names
(`bind`, `conj`, `name`) get silently shadowed or hang the runtime.
## Style
- No comments in `.sx` unless non-obvious.
- No new planning docs — update `plans/mod-on-sx.md` inline.
- Short, factual commit messages.
- One feature per iteration. Commit. Log. Push. Next.
Go. Start by reading the plan; find the first unchecked `[ ]`; implement it.

View File

@@ -16,7 +16,7 @@ federation extension.
## Status (rolling)
`bash lib/mod/conformance.sh`**390/390** (roadmap + 19 extensions complete)
`bash lib/mod/conformance.sh`**0/0** (not yet started)
## Ground rules
@@ -66,386 +66,47 @@ lib/mod/fed.sx
## Phase 1 — Report representation + simple policy
- [x] `lib/mod/schema.sx``report(id, by, about)`, `classification(id, kind)`,
`report_count(subject, n)` Prolog facts; keyword classifier derives evidence
- [x] `lib/mod/policy.sx``mod/mk-rule` + ordered `mod/default-rules`; conditions
(`:classification`, `:count-at-least`) compile to Prolog goals; `policy_action/3`
clauses, last clause `true` so every report yields at least `:keep`
- [x] `lib/mod/engine.sx``(mod/decide-report r reports rules)` queries
`policy_action(Id, Action, Rule)` with `pl-query-one` (clause order = precedence);
returns a decision dict `{:action :rule :report-id :proof}` carrying the why
- [x] `lib/mod/api.sx` — registry + `(mod/report by about reason)`, `(mod/decide id)`
- [x] `lib/mod/tests/decide.sx` — 31 cases: spam/abuse keyword, repeated→escalate,
no-rule→keep, precedence (spam beats repeated), proof shape, registry ids
- [x] `lib/mod/scoreboard.{json,md}`
- [x] `lib/mod/conformance.sh`
- [ ] `lib/mod/schema.sx``report(id, by, about, reason)`, `evidence(id, kind, val)`,
`policy-action(report, action)` predicates as Prolog facts/rules
- [ ] `lib/mod/policy.sx`rule declarations: `(defrule action :when conditions)`
desugars to Prolog clause
- [ ] `lib/mod/engine.sx``(decide report-id)` runs Prolog query, returns first
matching action
- [ ] `lib/mod/api.sx``(mod/report by about reason)`, `(mod/decide id)`
- [ ] `lib/mod/tests/decide.sx` — 15+ cases: spam keyword → hide, repeated reports →
escalate, no rule matches → keep
- [ ] `lib/mod/scoreboard.{json,md}`
- [ ] `lib/mod/conformance.sh`
## Phase 2 — Evidence + audit trail
- [x] evidence accumulation — `report :evidence` list; `mod/attach-evidence` +
api `mod/add-evidence`; asserted as `evidence(Id, 'kind', 'val')` facts;
new `:evidence` condition + `reviewer-remove` rule consume it
- [x] proof tree from Prolog derivation — `mod/proof-goals` re-queries each body
goal (id bound) against the same DB, recording goal text, solved?, and the
bindings that satisfied it (e.g. count goal yields N=3, S=subject)
- [x] `lib/mod/audit.sx` — append-only log: monotonic `:seq`, decision + proof +
evidence snapshot; never mutates prior entries
- [x] `(mod/audit id)` retrieval (+ `mod/audit-latest`, `mod/audit-all`, count)
- [x] `lib/mod/tests/audit.sx` — 29 cases: proof goal text/bindings, evidence-driven
decisions, append-only ordering, per-report retrieval, snapshot-at-decision-time
- [ ] evidence accumulation — additional facts asserted before query
- [ ] proof tree from Prolog derivation tree
- [ ] `lib/mod/audit.sx` — append-only log (decision + proof + evidence snapshot)
- [ ] `(mod/audit id)` retrieval
- [ ] `lib/mod/tests/audit.sx` — proof correctness, trail completeness
## Phase 3 — Escalation + lifecycle state machine
- [x] state machine: `lib/mod/lifecycle.sx``:open → :triaged → :decided →
:appealed → :final` as a pure SX module over the engine; transition table guards
illegal moves (sets `:error`, leaves state); immutable cases with `:history`
- [x] auto-tier: `mod/case-triage` runs the engine; terminal action (hide/remove/
keep) → tier `auto`, `mod/case-resolve` advances to `:decided`
- [x] human-tier: `:escalate` action → tier `human`; `mod/case-resolve` is blocked
(sets `:error`); `mod/case-review` attaches evidence, re-decides, advances
- [x] appeal: `mod/case-appeal` attaches appeal evidence + re-runs the engine; new
`exonerated-keep` rule (top precedence) lets exoneration override a prior `:hide`
- [x] `(mod/appeal id new-evidence)` API — lifecycle façade over a case registry in
api.sx (`mod/triage` / `resolve` / `review` / `appeal` / `finalize`), logging
each committed decision to the audit trail
- [x] `lib/mod/tests/escalation.sx` — 46 cases: transition guards, auto/human tiers,
blocked resolve, full appeal-override traversal, history, api façade
- [ ] state machine: `:open → :triaged → :decided → :appealed → :final`
- [ ] auto-tier: first-pass rules decide quick cases
- [ ] human-tier: rules that emit `:escalate` move to next state
- [ ] appeal: re-runs with appeal evidence, may override prior decision
- [ ] `(mod/appeal id new-evidence)` API
- [ ] `lib/mod/tests/escalation.sx` — full lifecycle traversal cases
## Phase 4 — Federation
- [x] cross-instance reports — `mod/fed-receive-report peer …` ingests a peer's
report into the local registry, tagging origin; `mod/report-origin` resolves it
(local reports default to `"local"`); the engine decides federated reports
unchanged
- [x] decision sharing — `mod/fed-share-decision decision peers` pushes messages to
the mock outbox (`mod/fed-send!` is the seam the real fed-sx transport replaces)
- [x] trust model — `mod/fed-receive-decision` applies a peer's decision locally
ONLY when `(mod/trusted? peer :mod)`; otherwise it lands in the advisory log,
unapplied. `mod/grant-trust` / `mod/revoke-trust` manage the trust registry
- [x] revocation — `mod/fed-revoke!` marks the applied action revoked + emits a
revocation message to the origin; `mod/fed-revoke-if-invalidated` re-runs the
engine and revokes only when the action no longer holds (proof invalidated)
- [x] `lib/mod/tests/fed.sx` — 26 cases: trust grant/scope/revoke, cross-instance
ingest + origin, outbox sharing, advisory-vs-trusted apply, revocation +
invalidation (exoneration flips hide→keep → revoked)
## Extensions (post-roadmap)
- [x] **Ext 1 — negation-as-failure** (`lib/mod/tests/extensions.sx`, +14). Report
`:attrs`; policy conditions `(:attr "x")` → `attr(Id, x)` and `(:not <cond>)` →
`not(<cond>)` (the Prolog supports `not/1` and `\+/1` as *functors*, not the
prefix `\+` operator). Closed-world example: "hide spam UNLESS author verified".
Default policy untouched — demonstrated via custom rule sets, so all 132 base
tests stay green.
- [x] **Ext 2 — weighted/aggregate scoring** (+8). Report `:signals` ({:kind
:weight}) project to `signal(Id, 'kind', weight)` facts; condition
`(:score-at-least N)` → `aggregate_all(sum(W), signal(Id, _, W), T), T >= N`.
Many weak signals accumulate past a threshold — genuine Prolog arithmetic
aggregation. Default policy untouched.
- [x] **Ext 3 — proof explanation** (`lib/mod/explain.sx`, +10). `mod/explain`
renders a decision into a readable "why": action + rule, evidence line, and the
derivation goal-by-goal with `[proved]`/`[unproved]` marks and unification
bindings. E.g. `Report rc: escalate (rule: repeated-escalate)` … `[proved]
report(rc, B, S), report_count(S, N), N >= 3 {B=ann, N=3, S=dave}`.
- [x] **Ext 19 — end-to-end triage pipeline** (`lib/mod/pipeline.sx`, +15).
`mod/triage-pipeline domain r reports actor` runs a report through domain-policy
decision → explanation → AP activity → wire, returning the full bundle. The test
is a genuine integration across 5 modules including a federated handoff (market
decision → wire → peer → trust-gated apply). The capstone that proves the
independently-built modules compose.
- [x] **Ext 18 — ergonomic defrule / ruleset** (`lib/mod/defrule.sx`, +11). The
roadmap's `(defrule …)` surface, done with `&rest` variadics (no macro needed —
conditions are already plain data): `mod/defrule` collects trailing conditions,
`mod/ruleset` assembles rules. Produces structurally identical rules to `mk-rule`
and works in the engine unchanged.
- [x] **Ext 17 — per-domain policy registry** (`lib/mod/policies.sx`, +14).
`mod/register-policy! domain rules` + `mod/decide-in domain r reports` give each
rose-ash domain (blog/market/events/…) its own rule set; unregistered domains
fall back to default-rules so a new domain is never unmoderated. Same spam report
→ :remove under a strict market policy, :hide under blog's default.
- [x] **Ext 16 — ActivityPub-shaped export** (`lib/mod/activity.sx`, +17).
`mod/decision->activity` maps a decision to a moderation verb (remove→Delete,
ban→Block, hide/escalate→Flag, keep→no activity) shaped like an AP activity
({:type :actor :object :summary}), the precise mod action preserved in :action.
`mod/decisions->activities` batch-exports, dropping keeps — ready for the
platform's AP event bus / federated peers.
- [x] **Ext 15 — disjunctive conditions** (`policy.sx` + `tests/disjunction.sx`,
+10). `(:any (list c1 c2 …))` compiles to Prolog disjunction `(g1 ; g2 ; …)`,
completing the condition boolean algebra (AND via the :when list, `:not`, `:any`).
Composes recursively — `:any` over `:not`/`:attr`/classification, and ANDs with
other conditions in the same rule. One rule now covers "spam OR abuse".
- [x] **Ext 14 — decision wire format** (`lib/mod/wire.sx`, +16). The bytes that
cross `fed/fed-send!`: `mod/decision->wire` emits a versioned pipe-delimited line
(`MOD1|r1|hide|spam-hide`), `mod/wire->decision` parses it back (`mod/wire-valid?`
guards). Built `mod/split-char` over `slice`/`len` (loaded env has no split).
Integration test exercises the full path: serialize → wire → deserialize →
`fed-receive-decision` trust-gating (untrusted→advisory, trusted→applied).
- [x] **Ext 13 — SLA sweep over pending cases** (`lib/mod/sla.sx`, +15). Composes
lifecycle (Phase 3) with time (Ext 12): a timed-case pairs a case with the tick
it entered its state; `mod/overdue?` flags pending cases (open/triaged/appealed)
past a deadline; `mod/sla-sweep` returns the breached report ids. Terminal states
never breach. Pure overlay — lifecycle stays timeless, the caller stamps entry.
- [x] **Ext 12 — temporal burst detection** (`lib/mod/temporal.sx`, +15). Reports
gain an `:at` tick (deterministic, supplied — never clock-read).
`mod/decide-temporal now window` counts reports about the subject within
`[now-window, now]`, asserts `burst_count/2`, and a `(:burst-at-least K)` rule
fires only on a real burst. Verified: 3 reports at ticks 10/11/12 → hide;
3 reports at 1/2/12 (window 5) → keep, while the plain count rule escalates both.
- [x] **Ext 11 — batch triage + corpus analytics** (`lib/mod/batch.sx`, +17).
`mod/decide-batch` triages a queue; `mod/action-histogram` summarizes outcomes by
action; `mod/rule-coverage` / `mod/never-fired` measure which rules fire across a
corpus — the *empirical* complement to lint's static unreachable check (Ext 5):
lint finds rules that can't fire, never-fired finds rules that didn't.
- [x] **Ext 10 — policy what-if / impact** (`lib/mod/whatif.sx`, +13).
`mod/decision-diff` compares one report's action under two rule sets;
`mod/policy-impact` runs a batch and returns only the reports whose decision
flips; `mod/impact-count` / `mod/impact-report` summarize. Lets a team measure a
policy change before shipping it (e.g. "removing spam-hide flips r1 hide→keep").
- [x] **Ext 9 — policy dry-run trace** (`lib/mod/trace.sx`, +15). `mod/trace-rules`
evaluates a report against every rule and returns each rule's proved/unproved
status + its goal-by-goal derivation, so an unproved rule shows which goal
failed. `mod/first-proved` = the winner (engine precedence), `mod/proved-rules`
the full firing set, `mod/trace-report` a `[fires]`/`[ - ]` rendering. Answers
"why didn't my rule fire?" without instrumenting the engine.
- [x] **Ext 8 — quorum over distinct reporters** (`lib/mod/quorum.sx`, +9). Anti-
brigade: `(:reporters-at-least N)` compiles to `setof(Br, report(_, Br, Sr), Bsr),
length(Bsr, Nr), Nr >= N` — distinct reporters, not raw report count.
`mod/decide-quorum` asserts every report's `report/3` fact (the base engine only
asserts the decided one) so Prolog can aggregate reporters. Verified one user
filing 3 reports stays `:keep` under quorum while the count rule would escalate.
(Substrate note: `^` existential doesn't parse; `setof(B, p(_, B, S), …)` with `_`
yields the distinct set in a single solution here.)
- [x] **Ext 7 — repeat-offender escalation** (`lib/mod/offenders.sx`, +19). The
audit log as evidence: `mod/subject-sanctions` counts prior hide/remove/ban
decisions about a subject; `mod/decide-escalating id k` decides normally then
upgrades a *sanction* to `:ban` when the subject already has ≥k prior sanctions.
Non-sanction outcomes (keep/escalate) pass through untouched. First decision
whose input spans history beyond the single report — read from the trail, not
re-derived.
- [x] **Ext 6 — strictest-wins strategy** (`lib/mod/severity.sx`, +14). Alternative
to first-match: `mod/decide-strictest` collects every proven rule (`pl-query-all`)
and picks the highest-`mod/action-severity` action (keep<escalate<hide<remove<ban).
Diverges from the default engine when rule order and severity disagree. Same
decision shape + `:strategy`; engine untouched.
- [x] **Ext 5 — policy lint** (`lib/mod/lint.sx`, +14). Static analysis of a rule
set: `mod/unreachable-rules` flags rules placed after an unconditional (always-
matching) rule — structurally dead under first-match precedence;
`mod/has-catchall?` checks every report gets a decision; `mod/duplicate-rule-names`
+ `mod/rules-ok?` give a one-call well-formedness verdict. No engine run needed.
- [x] **Ext 4 — report linking / dedup** (`lib/mod/link.sx`, +12). `mod/related-ids`
and `mod/reporters-of` find reports about a subject via a Prolog relational query
(`report(Id, _, 'subject')`) — the policy substrate reused for retrieval.
`mod/dedup-reports` collapses identical reports (reporter|subject|reason key,
case-insensitive); `mod/distinct-reporters-of` counts unique reporters.
## Shared-plumbing extraction — evaluated post-merge, DECLINED
Both layers now live on architecture; the extraction was evaluated by reading
both implementations side by side. **Finding: do not extract — the convergence is
in module *names* only, not implementations.** The engines and decision models
genuinely differ, so a shared module would be premature abstraction that ages
badly. (This reverses the pre-read note that listed audit + fed trust/outbox as
candidates; reading the code showed they don't actually share.)
- **Federation — zero shared code.** mod gates trust in SX (a `{:peer :scope}`
registry + `grant`/`revoke`/`trusted?`) and shares *decisions* (outbox,
advisory/applied logs, `receive-decision`). acl gates trust *inside Datalog*
(`trust(Peer,L)` / `level_covers` facts + an engine rule re-checked per query)
and shares *facts* (`fetch`/`collect`/`build-db`, `assert!`/`retract!`). acl has
no trust registry, no `trusted?`, no outbox. Opposite architectures — the only
common token is the word "trust."
- **Audit — only a ~5-fn core overlaps, and it diverges.** Entry shapes differ
entirely (mod `{:action :rule :proof :evidence :report-id :seq}` vs acl
`{:allowed? :act :subj :res :seq}`); seq base differs (acl 0, mod 1, both
test-visible); op sets barely intersect (mod: by-`report-id` + `latest`; acl:
`tail`/`snapshot`/`restore`/`serialize`); even the list idiom differs (acl
`append!`+copy vs mod pure `append`+`set!`). A shared module would also have to
satisfy two different restricted eval envs (prolog- vs datalog-loaded). Cost
(shared module + refactor both + rewrite acl's serialize/snapshot onto a foreign
core + cross-env risk + coupling two independent loops) far exceeds the benefit
(dedup ~5 trivial lines that don't even agree on seq-base or mutation idiom).
- **Engines + `explain`** were never shareable: Datalog yields derivation trees
natively; mod reconstructs proofs via per-goal `pl-query-all`.
- **Trivia** (`join-with`, `any?`, `str-contains?`, `distinct`) is one-liners, not
worth a module.
**Outcome:** keep mod (Prolog) and acl (Datalog) as parallel independent
implementations. The parallel structure is correct for two different engines; the
shared abstraction is not. Revisit only if a third rule-engine consumer appears
with the *same* trust/audit model (rule of three), not before.
- [ ] cross-instance reports — peer raises report about local content (or vice versa)
- [ ] decision sharing — actions taken locally propagate to peers via fed-sx
- [ ] trust model — peer's decision is advisory unless `(trust peer :mod)` is granted
- [ ] revocation — undo applied moderation if proof was invalidated
- [ ] `lib/mod/tests/fed.sx` — federated decision chains (mock fed-sx in tests)
## Progress log
- **Ext 19 — end-to-end triage pipeline, 390/390** (+15). Capstone: one
orchestration call composes domain policy + decide + explain + activity + wire,
and the integration test runs the whole federated path (decide in a domain →
wire → peer → trust-gated apply) across 5 modules. Confirms the subsystem — built
module-by-module — actually composes end to end. mod-sx now spans schema → policy
DSL (boolean algebra + count/score/reporters/burst) → engine + proofs → audit →
lifecycle → SLA → federation (trust/wire/AP) → analytics (trace/whatif/lint/batch)
→ domain policies → pipeline, all on the green lib/prolog substrate, 390 tests.
- **Ext 18 — ergonomic defrule / ruleset, 375/375** (+11). Closes the roadmap's
original `defrule` surface. `fn` supports `&rest` here, and conditions evaluate
to plain data, so no macro is needed — variadic functions give the ergonomics
safely. Equivalence to `mk-rule` is asserted, so it's pure sugar with no new
semantics.
- **Ext 17 — per-domain policy registry, 364/364** (+14). Multi-tenant policy:
the engine already took `rules` as a parameter, so domain-scoping is just a
registry + a default fallback — no engine change. Makes the whole policy
vocabulary (16 prior features) per-domain configurable. Default fallback means
adding a domain can't accidentally leave it unmoderated.
- **Ext 16 — ActivityPub-shaped export, 350/350** (+17). Bridges mod-sx to the
wider rose-ash platform, which propagates cross-domain effects as AP-shaped
activities. Decisions become Flag/Delete/Block activities (keep = no-op); with
the wire format (Ext 14) and fed trust model (Phase 4) the federated moderation
path is now end-to-end: decide → activity/wire → peer → trust-gate → apply.
- **Ext 15 — disjunctive conditions, 333/333** (+10). The condition DSL is now a
full boolean algebra: AND (the :when list), `:not` (NAF), `:any` (Prolog `;`).
cond->goal recurses, so the combinators nest arbitrarily — `:any` of `:not`s, an
`:any` ANDed with a `:not`, etc. — and the proof tree shows the compiled
disjunction verbatim. Maps directly onto Prolog's own control constructs rather
than reimplementing boolean logic in SX.
- **Ext 14 — decision wire format, 323/323** (+16). Fills the federation transport
seam: decisions now serialize to a portable line and parse back, and the
integration test runs the whole federated path end-to-end (serialize on one
instance → trust-gated apply on another). Needed a hand-rolled `split-char`
(loaded env has no split) — over `slice`/`len`, same toolkit as `str-contains?`.
- **Ext 13 — SLA sweep, 307/307** (+15). Two subsystems compose cleanly: lifecycle
states + temporal ticks → "which pending cases have sat too long". Kept lifecycle
pure by having the SLA layer carry entry-time externally (timed-case wrapper)
rather than stamping the case — same separation-of-concerns as keeping the state
machine out of Prolog.
- **Ext 12 — temporal burst detection, 292/292** (+15). Adds the time dimension:
a windowed count distinguishes a burst from slow accumulation, where the plain
count rule cannot. Time is a supplied tick (`:at`), keeping everything
deterministic and testable — no clock primitive. Fifth report field (`:at`)
threaded through the rebuild helpers, same non-breaking pattern as
evidence/attrs/signals; all 277 prior tests stayed green.
- **Ext 11 — batch triage + corpus analytics, 277/277** (+17). Operational layer:
triage a queue, histogram the outcomes, and measure rule coverage over real
data. `never-fired` pairs with lint (Ext 5) — static "can't fire" vs empirical
"didn't fire" — giving policy authors both views of dead rules. Histogram avoids
dict mutation by counting over a fixed action vocabulary.
- **Ext 10 — policy what-if / impact, 260/260** (+13). Decisions are now
comparable across rule sets — diff one report, or batch a whole set and surface
only the flips. Pure SX over `decide-report`, no engine change. Closes the
policy-authoring loop alongside lint (Ext 5) and trace (Ext 9): lint checks
well-formedness, trace explains one report, what-if measures a change's blast
radius before it ships.
- **Ext 9 — policy dry-run trace, 247/247** (+15). Whole-rule-set diagnostics over
the proof machinery: every rule's fire/no-fire and the goal that decided it. The
winner agrees with `decide-report` by construction (first proved = pl-query-one),
cross-checked in a test. Turns the proof tree from a per-decision artifact into a
policy-debugging tool.
- **Ext 8 — quorum over distinct reporters, 232/232** (+9). Distinct-reporter
consensus via Prolog `setof`/`length`, requiring a second engine variant that
asserts all reports (the base engine deliberately scopes facts to the decided
report). Demonstrates the substrate handles set-aggregation, and that the
brigade case (one actor, many reports) is defeated by counting reporters not
reports. `^` existential doesn't parse here — `setof(B, p(_,B,S), …)` with `_`
gives the distinct set in one solution.
- **Ext 7 — repeat-offender escalation, 223/223** (+19). Decisions can now depend
on history: the append-only audit log is read back as evidence, and a subject
with k prior sanctions has its next sanction upgraded to `:ban`. Closes the loop
between audit (Phase 2) and policy — the trail isn't just a record, it feeds
future decisions. Non-sanction outcomes never escalate (verified: a clean post
that the count rule escalates stays `:escalate`, never `:ban`).
- **Ext 6 — strictest-wins strategy, 204/204** (+14). A second decision strategy
alongside first-match: collect all proven rules and apply the harshest sanction.
Shows the substrate supports more than one precedence policy over the same rule
facts — `pl-query-all` for the full match set, severity ranking in SX. Verified
it diverges from first-match exactly when rule order and severity disagree.
- **Ext 5 — policy lint, 190/190** (+14). Static analysis of the rule set itself,
catching the failure modes first-match precedence makes easy: dead rules after a
catch-all, missing catch-all (undecided reports), duplicate names. `mod/rules-ok?`
is a single well-formedness gate a policy author can assert in their own tests.
- **Ext 4 — report linking / dedup, 176/176** (+12). Relational retrieval
(`related-ids`, `reporters-of`) reuses the Prolog substrate for *querying* report
clusters, not just deciding them — `report(Id, _, 'subject')` by unification.
Dedup is pure SX over a normalized link key. Own suite (`tests/link.sx`) — going
forward, new extensions get their own test file rather than growing
`extensions.sx`. With roadmap + 4 extensions the subsystem now spans schema →
policy DSL (6 condition types) → engine + proofs → audit → lifecycle →
federation → explanation → linking, all on the green `lib/prolog` substrate.
- **Ext 3 — proof explanation, 164/164** (+10). `mod/explain` turns the Phase-2
proof tree into human-readable text — the audit trail's "why" made legible. Pure
SX over existing decision data; no engine change. Renders unification bindings
inline (`{B=ann, N=3, S=dave}`) so a moderator sees exactly which facts proved
the decision.
- **Ext 2 — weighted/aggregate scoring, 154/154** (+8). `:signals` + the
`(:score-at-least N)` condition push aggregation into Prolog
(`aggregate_all(sum(W), …)`), so low-confidence signals can accumulate to a
takedown. The schema's report-rebuild helpers (`report*` / `with-*`) now thread
six fields; each addition stays non-breaking because empty collections project
to empty fact blocks. Default policy and its 132 tests untouched (proven via
custom rule sets).
- **Ext 1 — negation-as-failure, 146/146** (+14). `:attr` and `:not` conditions
give the policy closed-world reasoning. The substrate's negation is a functor
(`not(Goal)`), not the ISO prefix `\+` operator (that doesn't parse here) —
noted for any future negation work. Kept the default rule set and its 132 tests
untouched by proving the feature through custom rule sets instead.
- **Phase 4 complete — 132/132** (+26 fed). **Full roadmap done.** Federation:
cross-instance reports, decision sharing, advisory-by-default trust, revocation.
fed-sx is mocked behind `mod/fed-send!` (in-memory outbox) — the only seam a real
transport must replace. The hard rule is enforced: a peer's decision binds
locally only under `(mod/trusted? peer :mod)`; otherwise it is recorded as a
suggestion and never auto-applied. Revocation composes with the proof model from
Phase 2 — `mod/fed-revoke-if-invalidated` re-runs the *same* engine and undoes a
moderation only when the action it once proved no longer holds (an exoneration
evidence flips hide→keep, triggering revocation + an origin-bound revocation
message).
- **Liftable (acl-sx watch):** the trust registry (`grant`/`revoke`/`trusted?`
over `{:peer :scope}`) and the outbox/send! seam are generic federation
plumbing; candidates for `lib/guest/` if acl-sx grows a federation phase.
- **Phase 3 complete — 106/106** (+46 escalation). Lifecycle state machine,
auto/human tiers, appeal-override, and an api façade. The state machine is a
pure SX module (`lib/mod/lifecycle.sx`) over the engine — policy stays in
Prolog, lifecycle stays out of it, per the design constraint. Cases are
immutable values threaded through transitions; illegal moves set `:error`
rather than throwing (the env's error handling is untested, so this keeps tests
deterministic). Tier logic: triage runs the engine, an `:escalate` action parks
the case at the human tier where `mod/case-resolve` is blocked until
`mod/case-review` supplies evidence. Appeal-override works because the new
`exonerated-keep` rule sits at top precedence — appeal evidence re-runs the same
engine and a higher-precedence clause wins. The api façade (`mod/triage` …
`mod/finalize`) keeps a per-report case registry and logs each committed
decision to the Phase-2 audit trail, so lifecycle + audit compose.
- **Gotcha:** `sx_insert_near` inserts only the FIRST top-level form of a
multi-form source — silently drops the rest (byte count barely changes). For
multi-form additions, rewrite the file with `sx_write_file`.
- **Phase 2 complete — 60/60** (+29 audit). Evidence accumulation, constructive
proof trees, append-only audit log. A decision's `:proof :goals` is a real
derivation: each body goal is re-queried against the same Prolog DB with the
report id bound, so the count rule's proof carries `N=3, S=<subject>` straight
from unification — not a reconstruction. Evidence is asserted as
`evidence(Id, 'kind', 'val')`; the new `reviewer-remove` rule (placed first =
highest precedence) lets human review override automated classification.
`mod/decide` now commits each decision to the audit log with the evidence
snapshot in force at decision time. Unknown predicates in this Prolog fail
gracefully (verified) — so an evidence-less report safely falls through the
reviewer rule without an existence error.
- **Liftable (acl-sx watch):** the proof-tree builder (`mod/proof-goals` —
re-query-each-goal) and the append-only log shape are both generic. Both
subsystems are now past Phase 2; next time either touches plumbing, evaluate
lifting `proof-goals` + the audit-log primitives into `lib/guest/`.
- **Phase 1 complete — 31/31.** Report schema, keyword classifier, policy DSL,
engine, registry api, conformance harness. Decisions are proofs: each carries
`:rule` (matching clause), `:proof {:rule :conditions :evidence :count}`.
Precedence is Prolog clause order resolved by `pl-query-one`; a trailing
`true`-bodied default rule makes "no rule matched" a real `:keep`, not a query
failure. Evidence (spam/abuse classification) derived in SX and asserted as
`classification/2` facts; repeated-report escalation uses a genuine Prolog
join + arithmetic (`report(Id,_,S), report_count(S,N), N >= 3`).
- **Gotcha (env):** loading the prolog libs strips `includes?` (and other
high-level string prims) from the eval env — only the set the prolog
tokenizer itself uses survives (`slice`, `len`, `nth`, `=`, `join`,
`downcase`, `map`, `reduce`, `append!`). Implemented `mod/str-contains?` over
`slice`/`len` rather than relying on `includes?`. Watch for this in later
phases — stick to the blessed primitive set.
- **Liftable (acl-sx watch):** `mod/join-with`, `mod/str-contains?`, `mod/any?`,
and the rule→clause compilation shape are generic rule-engine plumbing. Do not
extract to `lib/guest/` until both mod-sx and acl-sx are past Phase 2.
(loop fills this in)
## Blockers
(none)
(loop fills this in)