The cache key was built with janet's (hash ...), which is seeded per
process, so it never matched across invocations and every jolt-deps run
re-resolved and re-fetched. Store the raw key material instead.
Run the jpm git calls silenced (:silent) with a one-line progress note
on stderr — the checkout chatter ("HEAD is now at ...") was landing on
stdout and corrupting the documented JOLT_PATH=$(jolt-deps path) capture.
Covered by two new deps-resolve checks: a cross-process cache-hit probe
(sentinel-tampered cache file) and a stdout-cleanliness check against a
local file:// git dep.
yogthos/config now loads and runs end to end: config.edn/.lein-env
deep merge, env vars keywordized and type-converted, PushbackReader
over io/reader, reload-env via alter-var-root. New shims:
java.io.PushbackReader (read/unread), Long/parseLong, BigInteger.,
Boolean/parseBoolean, System/getProperties; clojure.edn/read now
drains an actual reader (it used to read one LINE from a raw janet
file handle, so multi-line config files and shim readers both broke).
Three real bugs shaken out, each with regression specs:
- An empty rest arg bound () instead of nil. ((fn [& r] (if r 1 2)))
returned 1; the truthy () sent config's (or (.exists f) required)
down the wrong branch. Fixed in the interpreter and the compiled-fn
emission. Internal apply boundaries (protocol dispatch, core-apply)
now accept a nil seq like Clojure's (apply f x nil).
- seq/map over a raw janet table (System/getenv, os/environ) yielded
nothing, so config's read-system-env came back empty. Raw host
tables now seq as kv entries like any map, in core-seq,
realize-for-iteration, and coll->cells. The old spec row hid this
behind a vacuous (every? pred empty) — replaced with one that
asserts non-emptiness.
- edn/read single-line limitation, as above.
test/integration/config-lib-test.janet runs the real library from
~/src/config (skips when absent).
Git clones now default to a shared, sha-immutable cache —
$JOLT_GITLIBS, else <config-dir>/gitlibs — instead of a per-project
./jpm_tree, the tools.gitlibs ~/.gitlibs model. Passing tree
explicitly still works (tests do). The resolved-roots cache moves
out of the clone tree to the project-local .cpcache/jolt-deps.jdn,
since roots depend on the project while clones don't.
deps.edn grows :tasks, the honest subset of babashka's: a string
task is a shell command, a map task is {:main-opts [...] :doc}.
jolt-deps tasks lists them (merged user+project), jolt-deps task
NAME runs one. Bare-expression tasks are out of scope: the reader
hands back parsed data and round-tripping to source is fragile.
Also fixes load-config skipping the symbol-key normalization when
only one config file existed — :tasks/:deps keys stayed raw reader
symbols (which embed positions and never compare equal), so lookups
missed. Regression rows in deps-tasks-test; docs updated for the
whole tools.deps surface (aliases, -A/-M, user config, conflicts,
gitlibs cache, tasks).
deps.edn :aliases now work the tools.deps way, scoped to what jolt
supports (git/:local, no maven): :extra-paths and :extra-deps
accumulate across selected aliases, :main-opts is last-wins. The CLI
grows -A:dev:test (selects aliases for path/run/repl/-e) and
-M:alias (runs the alias :main-opts through jolt). A user-level
deps.edn ($JOLT_CONFIG, else $XDG_CONFIG_HOME/jolt, else ~/.jolt)
merges under the project file: :deps and :aliases merge per key with
the project winning, everything else replaces.
Resolution is now breadth-first so a top-level coordinate always
beats a transitive one for the same lib (it was DFS first-wins —
a dep's pin could shadow the project's own). Conflicting coordinates
for one lib warn on stderr with both coords and which won. Also
fixes dedup keying: it hashed the symbol struct's string repr, which
carries reader position metadata, so the same lib from two files
never deduped.
resolve-deps-cached keys on project edn + user edn + aliases.
Tests: deps-aliases-test and deps-conflicts-test, local deps only.
Selmer now loads and renders templates on jolt: variables, filters
(upper, date with JVM patterns), if/for tags, nested lookups, HTML
escaping, and render-file with its last-modified template cache.
New src/jolt/javatime.janet provides the java.time surface Selmer's
date filters use (DateTimeFormatter/Instant/ZoneId/LocalDateTime/
FormatStyle/Locale, epoch-ms backed, host-local timezone) plus the
java.io/java.lang/java.net shims its template reader needs
(StringReader, StringBuilder, URL, File/separator, Class/forName).
Everything registers through three new evaluator registries
(class-statics, tagged-methods, class-ctors), so the module is data
plus an install call.
Fixes shaken out along the way, each load-bearing for Selmer and
correct on their own:
- :refer :all silently referred nothing (it iterated the :all keyword)
- ns :import ignored vector specs and didn't share deftype ctor vars
- dot calls on deftype/reify instances never consulted the protocol
registry, so (.render-node node ctx) failed where (render-node ...)
worked
- instance? rejected expression type args like (Class/forName "[C")
- char-array didn't accept a string
- io/resource now searches the loader's source roots (the classpath
analog); io/reader handles char arrays, URLs, readers, and returns
an in-memory reader with :read-line-fn for file paths
- String .split (regex, JVM trailing-empty semantics), file-path
methods (.toURI/.toURL/.getPath/.lastModified/.exists)
- System/getProperty (os.name & co), the janet/* bridge now works
inside env-less fibers, and qualified class names that syntax-quote
mangles (selmer.util/StringBuilder) fall back to the ctor registry
Spec rows cover the shim surface; test/integration/selmer-test.janet
runs the real Selmer from ~/src/selmer (skips cleanly when absent).
\p{L}/\p{Lu}/\p{Ll}/\p{N}/\p{Z}/\p{Ps}/\p{Pe} (+\P negation) land in
both escape positions of the regex compiler, mapped onto the byte PEGs:
ASCII exact, any high byte (inside a UTF-8 sequence) counts as a LETTER —
so ^\p{L}+$ accepts UTF-8 words while \p{N}/\p{Z} stay ASCII. (?u) was
already a tolerated no-op flag. Unknown property names error at compile.
Chasing the acceptance target (cuerdas via deps-conformance) pulled in the
rest of its clj-compat chain, each a real gap:
- the deps-conformance harness reads libraries under clj-compat reader
features (deps are clj/cljc by definition — without :clj, cuerdas's
#?(:clj (instance? Pattern x)) branches resolved to NIL bodies)
- instance? knows Pattern/java.util.regex.Pattern (regex values) and
Character (cuerdas's rx/regexp? gate on split)
- the java.lang.String method surface: .toLowerCase/.toUpperCase/.trim/
.indexOf(-1 on miss)/.lastIndexOf/.substring/.charAt/.startsWith/
.endsWith/.contains/.replace/.equalsIgnoreCase/... — ASCII case mapping,
unknown methods error (the old path silently returned nil)
- the (.method obj args) SUGAR now desugars to (. obj method args) in the
interpreter — it was never implemented (bare .method heads resolved as
vars, hence 'Cannot call nil')
- Long/MAX_VALUE / MIN_VALUE statics (f64 approximations)
deps-conformance: medley ok, cuerdas ok (was check-error); dependency now
loads its clj branches and fails only on its single-segment ns resolution.
30 new spec rows (11 regex, 19 interop). Gate exit 0.
ifn? (jolt-1vx) is the canonical IFn set in the overlay: fns, keywords,
symbols, maps (sorted included), sets, vectors, and vars — NOT lists. The
seed version said true for lists and false for struct maps and vars.
Mutable-mode caveat documented (vectors and lists share the array repr
there). 13 predicate rows.
Multimethod dispatch (jolt-heo) now collects EVERY isa-matching method key
and picks the dominant one — x dominates y when prefer-method'd over it or
(isa? x y) — and two matches with no dominant is an ambiguity ERROR, as in
Clojure. It used to take whichever key the table yielded first, silently
ignoring prefer-method. The prefers store upgrades to Clojure's
{x -> set-of-dominated} shape, shared between the dispatch closure and
prefer-method-setup via the var; prefers becomes a macro over a setup fn
(the store lives on the VAR — the multifn value can't carry it, so the old
fn read {} forever). 6 multimethod rows + the conformance row updated to
the canonical shape (335x3).
The reader (jolt-ou8) kept the pending KEY when a comment or #_ sits in a
map's VALUE slot: the old code dropped both, desyncing kv pairing — the
real value became the next key and the closing brace landed in value
position ('Unmatched closing brace'). Selmer's deps.edn (a '; for
development (REPL, etc)' comment between key and value) now parses; 6
reader rows incl. nested commented maps.
Gate: jpm exit 0, conformance 335x3, all tests passed.
jolt.passes is the new portable pipeline stage between the analyzer and the
back end: pure IR -> IR rewrites, total over node :ops (unknown ops pass
through with folded children), loaded with the compiler namespaces and
resolved lazily by analyze-form (JOLT_NO_IR_PASSES=1 disables — the same
escape-hatch pattern as the macro oracle). The shape is flatiron's opt.clj
applied to the jolt IR, which is what jolt-2om asked for.
The first pass is constant folding: a call of a foldable numeric SEED fn
(the later tiers don't exist when the compiler loads) whose args are all
constant numbers becomes a constant, and an if with a constant test becomes
the taken branch (dead-branch elimination — the untaken side never even
resolves). Folding computes with the ACTUAL jolt fns, so results match
runtime semantics by construction; a fold that would throw (mod 5 0) is
left for runtime.
Two walk lessons paid for in debugging: let/loop bindings are
[name init-ir] PAIRS, not maps (assoc'ing :init into a pair corrupts it);
and a throw inside the interpreted pass unwinds past the interpreter's ns
restores, so analyze-form restores the compile ns after the (protected)
pass call — without that, one pass error left current-ns in jolt.passes and
the rest of the tier compile resolved against the wrong namespace (sort-by
landed on the 2-arg JANET builtin).
ir-passes-test pins folds, conservatism (free vars, throwing folds), and
end-to-end eval. Gate exit 0.
Every walk over a lazy seq created FRESH wrapper tables around the shared
rest-thunks (ls-rest, ls-seq/ls-count, realize-for-iteration, the printers,
reduce — each had its own make-lazy-seq loop), so independent walks re-ran
the thunks: side effects duplicated, and a doall'd seq of futures was
re-spawned serially by the deref walk. Every walker now goes through
ls-rest-cached, which memoizes the rest wrapper on its node — thunks run
exactly once, as in Clojure. Costs ~10% on walk-heavy benches (the per-node
cache get/put — Clojure's LazySeq pays the same); net still -9% vs the
pre-linear-walks baseline. Three regression rows pin once-only effects and
value stability across walks.
On top of that: pmap/pcalls/pvalues (jolt-oeu) over the real-thread futures
— spawn-all-then-deref (the once-only fix is what makes the doall actually
mean that), snapshot semantics documented, multi-coll arity via the
canonical vector-zip. System/currentTimeMillis + nanoTime land as System
statics (the realtime clock — os/time is whole seconds, which quantized
every elapsed measurement to 1000ms). Seven pmap rows incl. a generous-
margin parallelism check (4 x 200ms sleeps under 700ms after warmup).
The native-ops table grows from 9 to 16, each verified for semantic parity
with the jolt fn before inclusion (incl. negative operands): mod is floored
on both sides, rem (janet %) truncates, / is variadic with (/ x) -> 1/x.
quot is deliberately absent — janet div floors where Clojure truncates.
jolt's bit fns are 2-arg (unlike Clojure's variadic), so the bit ops emit
native only at exactly that arity; bit-not is unary. Eight new conformance
rows pin compile=interpret on the new ops at their guarded arities (334x3).
map-read 10.8 -> 9.2 ms (the (mod i 100) in its loop inlines). From the
flatiron review's unchecked-primitive-loops idea.
Reviewing flatiron's morsel batching for applicability turned up something
better hiding under the lazy machinery: every cell over a concrete
collection was produced by slicing the REMAINDER ((tuple/slice c 1) per
element in coll->cells, and rest/next sliced the same way), so any full walk
was O(n^2). mapv over 40k elements took 10.4 SECONDS; a 20k-element
first/rest loop took two.
Cells over indexed collections now walk by INDEX (one shared indexed-cells
helper, O(1) per step), and rest/next of a vector/tuple/list return an O(1)
lazy view from index 1 — which also makes (rest [1 2 3]) a SEQ, as in
Clojure (it was a vector-typed slice; seq?/vector? rows pin the change).
mapv 40k: 10405 -> 182 ms. rest-loop 20k: 2040 -> 31 ms. Whole bench:
seq-pipe -28%, into-vec -24%, str-join -18%, hof -26%, TOTAL 4565 -> 3753
(-18% vs main, back to back). Chunked seqs (jolt-yqc) drop in priority:
the quadratic walks were the actual cost; chunking now only amortizes
per-element closure allocation.
Nine regression rows incl. 20k/50k linear-scaling smoke tests. Gate exit 0.
require-:as wrote the string-keyed :imports table (which resolution reads)
while ns-aliases read the symbol-keyed :aliases table (which nothing wrote)
— so (ns-aliases) was always empty and the alias fn had to write both as a
bridge. :aliases (alias-name string -> ns-name string) is THE store now:
require :as and the alias fn write it, both resolution paths read it first
(falling back to :imports for class imports, which is all that table holds
now), ns-unalias removes one entry, and ns-aliases presents Clojure's
{alias-symbol -> namespace object} shape built from it. ns-resolve's
qualified path goes through the same lookup.
Also: the coverage dashboard's last 'resolvable-not-interned' entry was '.'
— which (resolve '.) returns nil for on the JVM too; the tool now classifies
it as the special form it is, and that category reads ZERO.
7 new unified-alias spec rows (require/alias/ns-unalias round-trips through
both the resolution and introspection views); the white-box namespace test
tracks the accessor rename. Gate exit 0.
(recur (inc acc) (rest xs)) re-entered the fn through its varargs collector,
so the rest seq came back wrapped in a fresh 1-element rest list — xs never
emptied and the interpreter hung (jolt-4df; the compile path was already
correct). recur now re-enters through a dedicated entry that binds the LAST
arg directly as the rest param (n-fixed + 1 args, Clojure's contract), in
both the single-arity and multi-arity fn* paths; the shared body runner keeps
the ns-swap/restore in one place, and fixed arities still re-dispatch through
the arity dispatcher exactly as before.
Six spec rows: the original repro, zero-fixed variadic, rest-empties-to-nil,
multi-arity variadic recur, nil rest, and a fixed-arity control.
clojure.edn was nearly complete (sets, #uuid/#inst, :eof all landed earlier);
the :readers opt was ignored and :default missing. Both work now — the
reader stores a tag as a :#name keyword, so the lookup normalizes it to the
symbol Clojure keys :readers with; :default gets (tag value); built-in data
readers stay the fallback. 8 new edn spec rows. This was the last open item
of jolt-0mb (the vendored walk/zip/data/edn battery has been green for a
while: 34/33/61/50, all clean).
Chasing the probe cascade ('Unable to resolve symbol: edn/...' after one
error) found a real evaluator bug: an interpreted fn body runs with
current-ns rebound to its DEFINING ns and restores it with a plain trailing
call — an UNCAUGHT throw skips every restore on the way out, leaving the ctx
stuck in the deepest callee's ns, where alias-qualified lookups then fail
(the same cascade previously seen via sci). The repair lives at the
TOP-LEVEL boundary (loader/eval-toplevel saves the entry ns and restores it
on error before re-raising) — NOT per-call defer/try, which builds a fiber
per frame and blew the C stack on deep interpreted recursion (file-seq)
when tried first. Regression tests cover the cross-eval leak and that
aliases keep resolving.
test/spec/untested-vars-spec.janet adds 143 rows asserting jolt's documented
behavior for the whole implemented-untested category — primed arithmetic,
the array/aset/coercion stubs, unchecked-*, the chunk family, JVM-shape
stubs (class/bean/proxy/memfn as resolve-only or :throws), ns/REPL
machinery, and the misc seqs. tools/spec_coverage.py now checks each var as
a whole TOKEN in the test sources (call-position-only matching missed *1,
+', ., .., /, and bare transducer refs like cat).
Writing rows from probed truth surfaced five real bugs, all fixed:
- comp with a jolt-IFn stage silently returned nil ((comp seq :content)) —
raw Janet keyword application is not jolt invoke. comp is the canonical
overlay defn now (fixed-arity composed fn, so the hot 1-arg path is two
direct calls); the seed keeps a private td-comp only for the transducer
machinery. hof bench +9% vs native, the price of correct IFn dispatch.
- extend (the fn) was a nil-expanding stub MACRO shadowing any definition;
it's a real fn over register-method now, and extends? (a constant-false
stub) is real over extenders
- (.. x f g) hit the 'ClassName.' constructor branch (a name ending in a
dot) and died; .. is the canonical threading macro now
- aclone errored on pvecs; ns-interns/ns-imports returned live host tables
that count/seq reject (now structs)
Thread/sleep + Thread/yield land as Thread statics beside Math/: sleep parks
the WORKER's own event loop (each future thread has one), which makes timed
deref provably fire — futures-spec gains the timeout-fires, sleep-in-body,
and timed-out-future-still-completes rows. The futures impl itself already
ran on real OS threads (ev/spawn-thread + marshalled results); jolt-ejx was
stale.
Dashboard: implemented+tested 433 -> 564 of 694; implemented-untested and
missing-portable are both EMPTY. Gate: jpm exit 0, all tests passed.
The dashboard's missing-portable category is now EMPTY (was 35 when the issue
was filed; this session's io/leaf work had already landed most of them).
The final seven:
- extenders — ctx-capturing clojure.core fn over the protocol type-registry:
the type-tags implementing a protocol, as symbols; nil when none
- find-keyword — keyword: jolt keywords have no intern table, so it always
finds (babashka makes the same call)
- inst-ms* — the raw Inst method; one inst representation, so = inst-ms
- read+string — over the 50-io readers, which now expose :buf and :fill-fn;
returns [form exact-text-consumed], EOF throws or yields [eof-value ""]
with the 3-arity, works for string AND stdin readers
- with-local-vars — fresh free-standing var cells (__local-var seam) bound as
locals; var-get/var-set work on any cell
- with-open — canonical recursive expansion closing through the __close seam:
a map-like value's :close fn or a host file (no .close interop here);
nested closes run inner-first, finally runs on throw
- with-precision — body evaluates with precision/:rounding accepted and
ignored (doubles, no BigDecimal context) — documented divergence
30 new spec rows (test/spec/missing-vars-spec.janet); coverage.md
regenerated: implemented+tested 426 -> 433, missing-portable 7 -> 0.
Gate: jpm exit 0, all tests passed.
The phm had a FIXED 8 buckets, so a 100-entry map was a ~12-entry linear
scan per lookup — and phm-get walked the bucket twice (contains? then find).
This went mostly unnoticed until the canonical zipmap (batch 2) started
returning phms where kvs->map had built structs for scalar keys, regressing
the map-read bench ~7x (jolt-s3y).
phm-assoc now rehashes into a doubled bucket array when the count passes 2
entries/bucket (done on the fresh copy, so persistence is untouched);
phm-get is single-pass with a presence flag (nil values still distinguish
from missing); key= tries identity/scalar equality before paying for
canonicalization; the bucket count is derived from (length (m :buckets)),
not a constant, so any already-marshaled map keeps working. core-contains?'s
phm branch goes through phm-contains? instead of poking buckets directly.
map-read 48.5 -> 10.9 ms (the residual vs the pre-batch-2 6.7 is the
canonicalizing-representation constant); map-build steady; bench TOTAL 4457
vs 4565 on main back-to-back. New unit case crosses the resize boundary at
500 entries: every key found, nil values present, collection keys canonical,
dissoc + persistence intact. Gate: jpm exit 0, conformance 326x3.
nrepl-test was CI's only failure: the server subprocess ran main.janet from
source, paying the full compile-mode init, which outran the 5s connect poll
on slow runners (locally it always won the race). The test now prefers
build/jolt — its ctx is baked at build time, so it accepts in ~20ms and CI
builds it anyway — falls back to source, polls up to 60s under a 90s
watchdog, and dumps the server's stderr when startup fails so the next CI
failure is diagnosable.
CLAUDE.md's placeholder sections become real: build/test commands with the
run-the-gate-with-a-real-exit-code protocol (a piped gate once shipped masked
spec failures), the seed/overlay/tier architecture sketch, and the porting
gotchas that have each bitten at least once (leaf verification, stub-breaks-
self-recursion, tier macro ordering, ref-get vs get on attached-ops wrappers,
:jolt/type map keys, expander-called fns, canonical-port policy) — previously
only in local bd memories.
An indirect global reference emitted ((var-get 'cell) ...) — a function call
per deref, whose body is a binding-stack check plus a root read. The emitter
now inlines that: (if (in 'cell :dynamic) (var-get 'cell) (in 'cell :root)).
Non-dynamic vars — the vast majority of references — pay two native table
ops and a branch instead of a call; dynamic vars take the full var-get
(thread-binding walk). Redefinition stays live (:root is read per call) and
binding semantics are exact: the :dynamic check is PER CALL, not at emit,
because a (def ^:dynamic x) in the same compiled unit marks the cell dynamic
only when the def runs — the same reason JVM Clojure's Var.deref() checks
the thread-bound bit every call (an emit-time variant was 1.7x faster still
on fib but failed conformance exactly there).
fib 130 -> 74 ms (1.75x); bench TOTAL 4564 -> 4437 back-to-back. This
displaces the gen-counter inline-cache design from jolt-8sq: with var-get's
existing fast path, resolution was never the cost — the call was. A
gen-guarded cache would add state per site to save nothing further, and
couldn't skip the dynamic check anyway.
Found while benching: map-read regressed ~7x back in batch 2 (canonical
zipmap builds a phm where kvs->map built a struct) — filed as jolt-s3y.
Gate: jpm test exit 0, conformance 326x3, suite >= baseline.
sort-by, rand-int, shuffle, random-uuid, char-escape-string, and
char-name-string move to 20-coll over the two host seams that stay (rand and
sort — they ARE the randomness/ordering primitives). Canonical upgrades ride
along: sort-by defaults its comparator to compare, so nil sorts FIRST (the
kernel fn used host ordering and put nil last); rand-int truncates toward
zero via int (the kernel fn floored, wrong for negative n); shuffle is a
pure-functional Fisher-Yates over vector assoc and rejects non-collections
(a string is seqable but not shuffleable, as on the JVM — the honest gate
caught that one); random-uuid builds over rand-int and validates through
parse-uuid; the char tables are char-keyed Clojure maps (Clojure's shape —
the seed keeps its private code-keyed copies for pr-render).
22 new spec rows. Gate: jpm test exit 0 verified, suite 4698 >= 4660, bench
parity with main back-to-back (4733 vs 4817).
recompile-defns! is the defn analog of recompile-macros!: pre/at-kernel
overlay defns (00-syntax's destructure and friends; the kernel tier too in
interpret mode) load as interpreted closures, the evaluator stashes their fn
source on the var (:defn-src, scoped by a flag only api/load-core-overlay!
sets), and the end-of-init pass compiles them and swaps the var root. With
that in place, keys/vals/empty? — the fns the 00-syntax expanders call at
expansion time — move to the top of 00-syntax as raw fn* defs (canonical:
keys/vals project (seq m), so sorted maps come back in comparator order and
(keys {}) is nil; empty? keeps O(1) count dispatch with seq's cell check only
for the lazy/list fallback). The sorted tier drops its now-dead :keys/:vals
ops.
Correctness fixes that surfaced once the gate was run with a REAL exit code
(the previous 'jpm test | grep' gates reported grep's exit and masked spec
failures across #48-#50):
- map conj is strict again: a non-nil/non-map arg must be a 2-element vector
('Vector arg to map conj must be a pair'), and merge inherits it — the
batch-2 canonical merge had silently dropped the validation
- conj onto a lazy seq prepends (it fell into the MAP fallback); upstream
clojure.data/diff relies on (conj seq x) via set/union over keys, so diff
now matches Clojure exactly
- (seq {}) / (seq #{}) / empty phm are nil, not ()
- key/val are strict (a plain vector is not an entry); find mints a REAL
entry as the first entry of a one-entry map, nil values intact
- the sci avoid-method-too-large stub passes its registry map through
instead of returning a raw host table (strict conj rejected it; sci's
clojure-core registry is also no longer discarded)
Test updates: lazy-infinite pins take-nth realization at 5 (was 7 — the
canonical lazy impl realizes fewer); self-host asserts the analyzer IS loaded
in interpret mode (compiled expanders, PR #50) and is NOT in the
:compile-macros? false oracle. 18 new maps-spec rows.
Gate: jpm test exit 0 (verified directly, not through a pipe), conformance
326x3, suite 4698 >= 4660.
Macros are ordinary compiled fns in Clojure's model; compile mode has had
that since the staged bootstrap, but interpret mode — the conformance
battery's default — kept interpreted expanders, so every distinct (and ...)/
(cond ...) call form, and every fresh form produced by a recursive expansion,
ran an interpreted closure. ensure-macros-compiled! now runs in every mode:
interpret-mode init loads the tiers fast-interpreted, then one pass at the
end builds the analyzer (which itself stays interpreted there) and compiles
all stashed expanders; user defmacros after init compile too. The new
:compile-macros? opt (JOLT_INTERPRET_MACROS=1) preserves the fully-
interpreted oracle, and joins the ctx-image cache key.
Battery: 4700 pass / 90 clean files / 7 timeouts, from 4577 / 87 / 9 — two
macro-heavy files stopped timing out and 149 more assertions execute. The
compiled-expander delta proper is +67 passes (oracle mode on the same tree
measures 4633). Baselines raised 4540->4660, clean 86->88. Interpret init
grows 0.12s -> 1.12s for the analyzer build; init-cached amortizes it to ~5ms
per process.
New macro-expansion-test pins: expanders compiled in interpret mode (core +
post-init user defmacros), uncompilable bodies fall back interpreted and
still work, compile mode unchanged, oracle opt-out honored.
Follow-up filed (jolt-4j3): the same staged-recompile treatment for early
overlay DEFNS, which is what still pins keys/vals/empty? to the seed.
empty, assoc-in, and update-in move to 20-coll.clj as the canonical recursive
ports; interpose and take-nth move to the lazy tier WITH their canonical
transducer arities (volatile-based), so the seed's td-interpose/td-take-nth
helpers go too. (empty lazy-seq) is () now — the kernel fn returned a bare
host table for it.
keys/vals/empty? stay put for now: they're expander-coupled — 00-syntax's
when/and/or/cond/destructure expanders call them at expansion time, which
happens during the kernel-tier compile, before any later tier exists. They
move when early defns get the staged-recompile treatment macros already have.
26 new spec rows (incl. transducer arities through sequence/into and laziness
checks against (range)). Gate green: conformance 326x3, suite >= baseline,
full jpm test.
key/val/select-keys/zipmap/merge/merge-with/get-in/memoize/partial/
trampoline/some?/true?/false?/max/min/reverse move to 20-coll.clj as the
canonical Clojure definitions, plus find — which was previously missing from
jolt entirely (select-keys/merge-with/memoize build on it). Two behavior
fixes ride along: memoize now caches nil results (the kernel fn re-computed
them — canonical find-based impl), and conj of nil onto a map is a no-op as
in Clojure (it errored; the canonical merge relies on it). max/min keep the
JVM NaN behavior by construction (pairwise >/<). not= stays: the kernel tier
(subvec) uses it.
One new tier-ordering rule, learned the hard way: a tier may only use macros
from tiers that load BEFORE it — memoize's if-let (30-macros) broke compiled
init while interpret mode passed, because compile expands macros at tier
load and the interpreter expands lazily. Now documented in the migration
workflow note.
MIGRATION.md is gone — task tracking lives in beads (jolt-ded; the per-batch
workflow, tier-order rules, perf wall, and remaining candidates are in bd
memory core-migration-workflow). The doc's candidate lists had gone stale
against the actual seed anyway.
43 new spec rows. Gate green: conformance 326x3, suite >= baseline, full
jpm test, bench at parity with main back-to-back (4851 vs 4831 TOTAL).
Nine more seed leaves move to 20-coll.clj (verified leaf-by-leaf: defn +
core-bindings entry only, no internal callers). fnil is upgraded to Clojure's
canonical 2/3/4-arity — it patches only the first 1-3 arguments; the old
kernel fn patched every position it had a default for, which Clojure does
not. The rest carry their kernel semantics over unchanged (bigdec is a
double, numerator/denominator throw, supers is #{}, munge rewrites dashes).
16 new spec rows incl. the fnil arity-contract cases. Gate green:
conformance 326x3, suite 4577, full jpm test (2:18 — first full run with the
ctx image cache on main).
