Overloads that share a base QN (Java/C#/C++/Kotlin/Swift/Scala/ObjC) merge
into one graph node today, and that node collects the CALLS of every
overload. The agreed cure is one signature-qualified callable identity for
all overloading languages:
callable_qn := base_qn [<tparams>] (params) [cvref]
This change lands the plumbing with every language still at
CBM_CALLABLE_ID_NONE, so the graph is byte-identical; each language is
switched on later in its own change (with its index-format bump).
- internal/cbm/callable_sig.{c,h}: the per-language mode side table
(NONE|TYPED|LABELED_TYPED|LABELED|ARITY; kept out of CBMLangSpec like
cbm_string_dispatch_suffixes, since ~160 positional rows would otherwise
all need the member under -Wmissing-field-initializers), the shared
builder cbm_callable_sig[_mode] for the def and the call-scope QN, and
the inverse cbm_qn_callable_base_len[_named]. Suffix contract: no '.',
'::' or '->'; whitespace-normalized; comments/annotations/attributes
dropped; qualified types keep their last segment; '->' spelled '=>';
variadic '[]' (Java) / '~'; C++ top-level cv dropped, arrays decay,
cvref kept; <= 200 bytes, longer ones keep whole leading entries and end
in '#<fnv1a64 of the full suffix>)'. The builder is iterative (cursor
walk, bounded declarator loop) and self-checks against the inverse.
- The inverse is anchored to the node's bare name wherever the name is
known: real QNs already end in ')' without being callables (a Java field
whose name is its declarator `X = f()`, make `$(VAR)` targets), and only
the anchor makes the inverse exact on them.
- Leaf splitters strip a suffix first (no-op today): registry by-name key
(indexed by the bare name for a suffixed callable), cbm_lsp_bare_segment,
cbm_pipeline_qn_class_method_tail, pxc_last_component, pxc_qn_leaf,
go_index_visit_node, collect_prod_defs, sg_qn_prefix_len.
- New unused fields: CBMDefinition.qn_sig_off, CBMResolvedCall.callee_sig
(relocated by result compaction), CBMRegisteredFunc.sig, CBMLSPDef.sig.
The lsp_surface codec is unchanged (no format bump in this change).
- get_code_snippet and trace_path gain base-QN tiers
(cbm_store_find_nodes_by_qn_base) that find nothing until suffixes exist.
- store: cbm_store_find_nodes_by_qn_suffix built its LIKE pattern in a
512-byte buffer (a long suffix was truncated into a pattern that matched
nothing) and did not escape '_'/'%' (`my_func` also matched `myXfunc`).
The pattern is now heap-built, escaped, and matched with ESCAPE '\'.
Proof: full sorted node+edge+lsp_surface dumps are byte-identical before
and after on 7 corpora (this repo, elasticsearch libs, Exposed, dotnet
System.Linq, System.Collections, coreclr/gc, a C corpus).
Refs #2061
Signed-off-by: Martin Vogel <martin.vogel.tech@gmail.com>
scripts/ — the canonical leg entries
The doctrine (enforced, not advisory): a venue may provision a machine;
only a canonical leg script may exercise the product. Local CI, PR CI, the
dry run and the release all call the SAME files below — venues differ only in
host specs, architecture and inputs, never in what a leg does. Platform
differences (arm64 sanitizer flags, native Windows behavior, the Linux portable
binary) live INSIDE these scripts, once, never per-venue.
tests/test_venue_parity_contract.sh (run as Step 0j of every test leg) turns
any violation — inline harness logic in a workflow, a bypassed wrapper, a
missing --help — into a red build.
Every entry answers --help (authoritative, agent-oriented: modes, env, exit
codes) and rejects unknown flags with exit 2 + Please consult --help.
The legs
| leg | entry | what a run gives you |
|---|---|---|
| test | test.sh |
DEFAULT = the venue leg: static contracts (Step 0a–0r) + CLEAN ASan+UBSan build + all suites via the parallel harness + prod-binary guards. --suites a,b = iteration mode (incremental rebuild, subset, seconds). --tsan = the ThreadSanitizer leg. CLANGARM64 gets CI's trap-UBSan flags automatically. |
| package wrappers | ci/test-package-wrappers.sh |
Go, npm, and PyPI runtime-set publication/lock suites on the current host. CI runs the same entry on Linux and Windows so both platform lock implementations gate. |
| build | build.sh |
CLEAN production runtime set (native executable + authenticated integration asset; --with-ui adds one content-addressed UI pack). ccache via env.sh makes repeats fast; CCACHE_COMPILERCHECK=content guarantees a hit is byte-identical to a cold compile — never stale. --version, STATIC=1, BUILD_DIR=. |
| lint | lint.sh |
clang-tidy + cppcheck + clang-format (+ no-skips policy). --ci = the CI gate set (no clang-tidy). Drives the same make targets as make lint/lint-ci. |
| smoke (unix) | smoke-local.sh |
Stages a full release fixture, serves it on a kernel-assigned port, runs smoke-test.sh (ALL phases incl. download/install/update E2E) inside a disposable HOME/XDG/TMP sandbox. ui variant makes a missing verified UI pack a FAILURE. CBM_SMOKE_ARTIFACT_DIR = smoke an extracted release artifact verbatim (release mode). |
| smoke (windows) | ../test-infrastructure/vm/vm-smoke.sh |
Same verified runtime-set contract on the real Windows VM, plus the user-PATH registry guard (prepare/verify/cleanup). |
| smoke-invariants | smoke-invariants.sh |
Production-path resilience battery (MCP handshake, all tools invocable, malformed-input handling, supervised crash/hang recovery) — no fixture server or install E2E. smoke.yml runs an explicitly seam-enabled build on the WIDEST source matrix; release artifacts remain seam-free and use the release-shaped smoke legs above. |
| soak | soak-legs.sh |
The release-gating soak SEQUENCE: quick then query-leak (the #581 detector — never reindexes, so RSS growth = query-path leak), each guarded by a completion-summary check. --legs quick for the ASan single-leg variant. Duration is per leg. |
Internal harnesses — never called directly by a venue (the contract forbids
it): smoke-test.sh (phases; wrappers provide fixture server + sandbox),
soak-test.sh (one soak run; soak-legs.sh provides the sequence + guards),
run-tests-parallel.sh (reached through test.sh).
Conventions
- Exit codes: 0 = pass · 2 = usage error · 90 = guard (a run died without its completion summary — never counts as green) · anything else = the leg's real failure.
- Iteration is a flag, not a side-tool: the fast paths (
--suites,--legs) are modes of the SAME entry the gates run, so a dev loop can never drift from the venue behaviour. - Env sandboxing: the smoke wrappers neutralize every agent-config destination override; a smoke can never scribble on your real config.
Recommended workflows
- Iterating on a change:
scripts/test.sh --suites <suite>(seconds, incremental, same ASan+UBSan flags as the gate). List suites:build/c/test-runner --list-suites. Debugging a Windows-on-ARM trap: re-run withSANITIZE=for a plain build, or use the emulatedwin.sh ubsan-*pair for full diagnostics. - Before any push (the 3-OS ladder):
scripts/test.sh(macOS, full) →./test-infrastructure/run.sh full(Linux + TSan + smoke) →test-infrastructure/vm/win.sh test-par+guards+smoke-install(+soakwhen the change touches memory/daemon paths). - Concurrency-touching change: add
scripts/test.sh --tsanearly — the same leg CI gates on. - Release-shaped verification:
CBM_SMOKE_ARTIFACT_DIR=<extracted artifact> scripts/smoke-local.sh <binary> [ui]smokes exactly what would ship. - A leg is red in CI but green locally: first suspect environment shape,
not code — the preflights (
win.shautomatic;scripts/ci/preflight-docker.sh) andtest-infrastructure/README.md's residuals list cover the knowable differences.
See scripts/ci/README.md for the CI plumbing and
test-infrastructure/README.md for the venue map.