Hojun-Cho
ce3a25a0b4
The wcc test drivers ran `ww build <bare-/tmp src>` with no -o, so the compiler's <stem>.sepwork scratch landed beside the source and was never cleaned: unbounded /tmp growth (2195 stale dirs observed) that fills tmpfs and fabricates phantom test failures + silent harness aborts, and for in-repo fixture builds leaked .sepwork into the tracked tree. Each leaking build now writes its source + output inside a per-invocation tmpdir, passes -o <tmpdir>/<stem> so the .sepwork lands inside it, and rm -rf's the tmpdir on every exit path -- including fopen-fail and the expected-fail reject builds (scratch is mkdir'd before the build can fail). `ww run` and explicit-`-o`/byte-id helpers are left as-is; the 990/993 byte-id comparison logic is byte-for-byte unchanged. Two items filed separately (this commit holds the no-Makefile / no-main.c rail): - #13: a stale <src>.s byte-id readback (749) silently no-ops since separate-compile emits .s to <ostem>.sepwork/__root.s; documented inline. - #14: build-system Makefile recipes build selfhost/cmd/*/main.ww with no -o and leak main.sepwork in-tree (bounded, gitignored; own commit). One concern -- sepwork leak hygiene -- across 228 drivers; uniform transform applied per-file and two-round reviewed. make test: all 402 passed, zero net-new /tmp scratch, zero test-driven in-repo .sepwork.
600 lines
22 KiB
C
600 lines
22 KiB
C
/*
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* 956_tuprecv_f64_run — runtime + byte-id regression net for #105 and
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* the #164 (#107) multi-float extension.
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*
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* #164 (#107): a multi-float tuple return (e.g. (f64,f64)) mis-routes —
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* the SEND emitted every float through X0 (cgexpr clobbers X0 per
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* element), so two floats collided on X0 and the receive read both from
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* X0. The fix gives the tuple return a SysV SSE cursor [X0,X1] parallel
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* to the integer cursor [AX,DX,CX,R8]: a float rides the next XMM on an
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* INDEPENDENT counter (ref/qbe/amd64/sysv.c retr). The SEND spills each
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* float to @tupfscr as it walks (X0 is clobbered by later elements) and
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* reloads X0/X1 by SSE index after the integer pops; every receive site
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* (single-var 16B/32B, destructure, reassign) reads the float from its
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* SSE-cursor reg. SSE caps at 2 (X0,X1) — (f64,f64,f64) is over-cap, so
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* it returns via sret (#10 Fold A SEND + Fold B destructure RECEIVE); the
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* f64x3_recv row asserts that round-trip works in both stages.
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*
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* #105 (original): a tuple-from-call receive corrupts the f64 word when
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* the callee is BRANCHED. Covers ALL THREE receive forms, which share the
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* #83 tuple_rseq cursor and all carried the same defect:
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* 1. SINGLE-VAR `let r = norm(); ...r.0` (cglet 16B-tuple branch)
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* 2. DESTRUCTURE `let (m,i) = norm()` (N_MLET / cgmlet+tupstore)
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* 3. REASSIGN `m,i = norm()` (N_MASSIGN / cgmassign+tupstore)
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*
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* Root (#105, a #103-FACE-Z regression): a (f64,i64)/(i64,f64) tuple
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* returns its f64 word in X0 (the SSE return reg) and its integer word
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* in an integer reg (tuple_rseq AX/DX). All three receives spilled the
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* f64 word via MOVQ from the integer cursor — but that reg holds GARBAGE
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* (the f64 is in X0). #103-FACE-Z's field read (MOVSD slot,X0) then read
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* that garbage. The fix makes every receive spill CLASS-AWARE: an f64/f32
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* word spills `MOVSD/MOVSS X0, slot`, an integer word spills `MOVQ
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* <reg>, slot` (as before). cstage cgen.c (3 sites) + wwstage cgenstmt.ww
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* (cglet branch + the shared tupstore helper, which covers cgmlet and
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* cgmassign), identically.
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*
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* WHY BRANCHED CALLEES: a SINGLE-return callee masks the bug via
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* register coincidence — a float-literal return leaves the f64 bit
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* pattern in AX (literal materialise goes through AX), so MOVQ AX,slot
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* happens to store the right bits; and X0 stays live to the receive. A
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* BRANCHED / multi-statement callee whose f64 word is a non-literal
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* (e.g. an f64 param) has an inner CALL clobber AX, so the integer-reg
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* spill stores garbage. The bug rows below therefore all use branched
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* callees with an f64-param word — single-return rows are gate-blind to
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* #105 (this is the gate lesson the task pins).
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*
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* GATE-BLIND TO BYTE-ID ALONE: both stages are symmetric-WRONG on master
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* (both emit MOVQ AX,slot), so the cs==ww .s gate HOLDS on master for
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* the bug rows — they diverge only at RUNTIME. Each row carries BOTH
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* dimensions (modelled on 954_tuprecv_run):
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* (a) cstage `ww build` + run, asserting the exit code — this is what
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* catches #105 (master returns the wrong exit).
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* (b) w6c vs w6c_ww `.s` cmp — guards rule-10 (both stages fixed
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* identically).
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*
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* CONTROL rows pin that the fix touches nothing else: an all-integer
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* branched 2-tuple (correct pre- and post-fix; MOVQ path untouched), the
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* destructure form `let (a,b)=mk()` (cgmlet, a separate path the fix
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* does not touch), a single-return (f64,i64) field read (#103 FACE-Z
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* shape, correct pre- and post-fix), and a bare 0f64 compare (#103
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* FACE-X shape, no tuple involved).
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*/
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#include <stdio.h>
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#include <stdlib.h>
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#include <unistd.h>
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#include <sys/stat.h>
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#include <sys/wait.h>
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static int
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runwait(const char *cmd)
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{
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int rc = system(cmd);
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if (rc == -1) return -1;
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if (WIFEXITED(rc)) return WEXITSTATUS(rc);
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return -1;
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}
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struct row {
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const char *label;
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const char *src;
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int want_exit;
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int chk_stamped;
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int want_compile_fail; /* #164: loud-stop rows must NOT compile */
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};
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static const struct row rows[] = {
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/* BUG — minimal repro. norm is BRANCHED (inner issub() CALL clobbers
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* AX) and its f64 word is the param n, not a literal. Pre-fix the
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* receive spills MOVQ AX,slot (garbage); r.0 != 16.0 -> return 1.
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* Post-fix MOVSD X0,slot -> 16.0 -> return 0. */
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{ "f64_i64_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (f64, i64) = {\n"
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"\tif (issub(n)) { return (n*2.0, -52); };\n"
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"\treturn (n, 0);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tconst r = norm(16.0);\n"
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"\tconst m: f64 = r.0;\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* BUG — deferred read. An intervening f64 CALL clobbers X0 AFTER the
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* receive; the read of r.0 must come from the SPILLED slot, not a
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* stale X0. Strongest catch: proves the spill happened at receive
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* time and survives X0 clobber. */
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{ "f64_i64_deferred",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (f64, i64) = {\n"
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"\tif (issub(n)) { return (n*2.0, -52); };\n"
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"\treturn (n, 0);\n"
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"};\n"
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"fn clob(x: f64) f64 = { return x + 1.0; };\n"
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"export fn main() i32 = {\n"
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"\tconst r = norm(16.0);\n"
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"\tconst junk: f64 = clob(3.0);\n"
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"\tconst m: f64 = r.0;\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\tif (junk != 4.0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* BUG — order-swap (i64, f64): f64 is word1, spilled from DX pre-fix
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* (garbage; the f64 is in X0). Confirms the fix is position-aware:
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* word1's f64 -> MOVSD X0, slot+8; word0's i64 -> MOVQ AX, slot+0. */
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{ "i64_f64_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (i64, f64) = {\n"
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"\tif (issub(n)) { return (-52, n*2.0); };\n"
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"\treturn (0, n);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tconst r = norm(16.0);\n"
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"\tconst i: i64 = r.0;\n"
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"\tconst m: f64 = r.1;\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\tif (i != 0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* BUG — DESTRUCTURE form `let (m,i)=norm()` (N_MLET / cgmlet+tupstore).
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* f64 binding m is element 0 (cursor AX); pre-fix MOVQ AX,slot stores
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* garbage (issub clobbered AX). Post-fix MOVSD X0,slot. m=16.0, i=0. */
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{ "destr_f64_i64_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (f64, i64) = {\n"
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"\tif (issub(n)) { return (n*2.0, -52); };\n"
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"\treturn (n, 0);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (m, i) = norm(16.0);\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\tif (i != 0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0, 1 },
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/* BUG — DESTRUCTURE order-swap `let (i,m)=norm()`, (i64,f64). f64
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* binding m is element 1 (cursor DX); pre-fix MOVQ DX,slot garbage,
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* post-fix MOVSD X0,slot. i=0, m=16.0. */
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{ "destr_i64_f64_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (i64, f64) = {\n"
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"\tif (issub(n)) { return (-52, n*2.0); };\n"
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"\treturn (0, n);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (i, m) = norm(16.0);\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\tif (i != 0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0, 1 },
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/* BUG — REASSIGN form `m,i = norm()` (N_MASSIGN / cgmassign+tupstore)
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* into pre-declared slots. Same f64-element-from-X0 defect. m=16.0. */
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{ "massign_f64_i64_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (f64, i64) = {\n"
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"\tif (issub(n)) { return (n*2.0, -52); };\n"
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"\treturn (n, 0);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet m: f64 = 0.0;\n"
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"\tlet i: i64 = 0;\n"
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"\tm, i = norm(16.0);\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\tif (i != 0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* BUG — REASSIGN order-swap `i,m = norm()`, (i64,f64). f64 reassign
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* target is element 1 (cursor DX). i=0, m=16.0. */
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{ "massign_i64_f64_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn norm(n: f64) (i64, f64) = {\n"
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"\tif (issub(n)) { return (-52, n*2.0); };\n"
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"\treturn (0, n);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet i: i64 = 0;\n"
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"\tlet m: f64 = 0.0;\n"
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"\ti, m = norm(16.0);\n"
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"\tif (m != 16.0) { return 1; };\n"
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"\tif (i != 0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* #164 (#107) HEADLINE — multi-float (f64, f64), destructure. The
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* callee is BRANCHED (issub CALL clobbers X0), so on master BOTH
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* elements collide on X0: cgexpr(a) leaves a in X0, cgexpr(b)
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* overwrites it, and every receive read spills from X0 -> x==y==b
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* (5.0). Post-fix a rides the SSE cursor X0, b rides X1; the receive
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* splits them. x=3.0, y=5.0. Pre-fix: x==5.0 -> return 1. */
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{ "f64f64_destr_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn pair(a: f64, b: f64) (f64, f64) = {\n"
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"\tif (issub(a)) { return (a*2.0, b*2.0); };\n"
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"\treturn (a, b);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (x, y) = pair(3.0, 5.0);\n"
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"\tif (x != 3.0) { return 1; };\n"
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"\tif (y != 5.0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0, 1 },
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/* #164 HEADLINE — multi-float (f64, f64), SINGLE-VAR whole-tuple
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* receive (`let r = pair(); r.0 / r.1`, the 16B rt16 branch). Same
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* X0-collision on master; post-fix r.0 from X0, r.1 from X1. */
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{ "f64f64_single_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn pair(a: f64, b: f64) (f64, f64) = {\n"
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"\tif (issub(a)) { return (a*2.0, b*2.0); };\n"
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"\treturn (a, b);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tconst r = pair(3.0, 5.0);\n"
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"\tconst x: f64 = r.0;\n"
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"\tconst y: f64 = r.1;\n"
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"\tif (x != 3.0) { return 1; };\n"
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"\tif (y != 5.0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* #164 HEADLINE — multi-float (f64, f64), REASSIGN into pre-declared
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* slots (N_MASSIGN / cgmassign+tupstore). x=3.0, y=5.0. */
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{ "f64f64_massign_br",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn pair(a: f64, b: f64) (f64, f64) = {\n"
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"\tif (issub(a)) { return (a*2.0, b*2.0); };\n"
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"\treturn (a, b);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet x: f64 = 0.0;\n"
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"\tlet y: f64 = 0.0;\n"
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"\tx, y = pair(3.0, 5.0);\n"
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"\tif (x != 3.0) { return 1; };\n"
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"\tif (y != 5.0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* #164 — INTERLEAVED (i64, f64, i64): kills naive position->reg. The
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* two i64s ride the INTEGER cursor (AX,DX), the f64 the SSE cursor
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* (X0) on an independent counter — so x=AX, z=DX, y=X0. 3-element
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* destructure. x=3, y=2.0, z=7. */
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{ "i64_f64_i64_destr",
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"package main;\n"
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"fn issub(n: i64) bool = { return false; };\n"
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"fn tri(a: i64, b: f64, c: i64) (i64, f64, i64) = {\n"
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"\tif (issub(a)) { return (a*2, b*2.0, c*2); };\n"
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"\treturn (a, b, c);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (x, y, z) = tri(3, 2.0, 7);\n"
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"\tif (x != 3) { return 1; };\n"
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"\tif (y != 2.0) { return 2; };\n"
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"\tif (z != 7) { return 3; };\n"
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"\treturn 0;\n"
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"};\n", 0, 1 },
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/* #164 — (f64, str): SSE + wide (24B {ptr,len,cap} header) coexist.
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* The f64 rides the SSE cursor (X0); the str rides the INTEGER
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* cursor (AX,DX,CX) since the float consumes no GP slot. Destructure
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* form. f=4.0, s.len=5 ("hello"). */
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{ "f64_str_destr",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn fs(n: f64) (f64, str) = {\n"
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"\tif (issub(n)) { return (n*2.0, \"x\"); };\n"
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"\treturn (n, \"hello\");\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (f, s) = fs(4.0);\n"
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"\tif (f != 4.0) { return 1; };\n"
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"\tif (s.len != 5) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0, 1 },
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/* #164 STR-FIRST destructure (str, f64): the unification's new-
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* coverage shape with the wide header in slot 0. The str rides the
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* INTEGER cursor (AX,DX,CX = ptr,len,cap), the f64 the SSE cursor (X0)
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* — independent counters, the float consuming no GP slot. The
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* destructure path's cursor handled str-first on master too, so this
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* pins the dual-cursor restructure PRESERVED it (byte-id both ways)
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* AND that the f64 coexists. s.len=5 ("hello"), f=4.0. */
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{ "str_f64_destr",
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"package main;\n"
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"fn issub(n: f64) bool = { return false; };\n"
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"fn sf(n: f64) (str, f64) = {\n"
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"\tif (issub(n)) { return (\"x\", n*2.0); };\n"
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"\treturn (\"hello\", n);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (s, f) = sf(4.0);\n"
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"\tif (s.len != 5) { return 1; };\n"
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"\tif (f != 4.0) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0, 1 },
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/* #164 STR-FIRST destructure (str, i64): pure-integer str-first.
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* str@AX,DX,CX then i64@R8. Correct on master too (single-cursor
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* destructure already routed ptr=AX) — byte-id regression guard that
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* the dual cursor left the integer str-first mapping intact. s.len=5,
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* k=7. */
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{ "str_i64_destr",
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"package main;\n"
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"fn issub(n: i64) bool = { return false; };\n"
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"fn si(n: i64) (str, i64) = {\n"
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"\tif (issub(n)) { return (\"x\", n*2); };\n"
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"\treturn (\"hello\", n);\n"
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"};\n"
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"export fn main() i32 = {\n"
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"\tlet (s, k) = si(7);\n"
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"\tif (s.len != 5) { return 1; };\n"
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"\tif (k != 7) { return 2; };\n"
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"\treturn 0;\n"
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"};\n", 0 },
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/* #164 STR-FIRST SINGLE-VAR (str, i64), annotated `let t: (str,i64) =
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* si(); t.0/t.1`: the shape the OLD 32B single-var branch got WRONG —
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* it read .ptr from DX while the send placed .ptr in AX (self-
|
|
* inconsistent), scrambling the slot so t.1 read the str.ptr word.
|
|
* DISCRIMINATES: pre-fix t.1 = a large address != 7; post-fix the
|
|
* unified dual cursor lands str@AX,DX,CX + i64@R8 so t.1=7. Both
|
|
* stages were wrong IDENTICALLY pre-fix (byte-id held, runtime broke),
|
|
* right identically post-fix. Annotated (not bare `const r=`) because
|
|
* the wwstage 32B single-var branch keys on the N_TTUPLE type node —
|
|
* a bare 32B single-var is a pre-existing stage asymmetry out of #164
|
|
* scope (16B bare single-var rows above cover the inferred path). */
|
|
{ "str_i64_single",
|
|
"package main;\n"
|
|
"fn issub(n: i64) bool = { return false; };\n"
|
|
"fn si(n: i64) (str, i64) = {\n"
|
|
"\tif (issub(n)) { return (\"x\", n*2); };\n"
|
|
"\treturn (\"hello\", n);\n"
|
|
"};\n"
|
|
"export fn main() i32 = {\n"
|
|
"\tlet t: (str, i64) = si(7);\n"
|
|
"\tif (t.1 != 7) { return 1; };\n"
|
|
"\tif (t.0.len != 5) { return 2; };\n"
|
|
"\treturn 0;\n"
|
|
"};\n", 0 },
|
|
/* #10 OVER-CAP RECV — three f64 = 0 GP / 3 SSE exceeds the SSE return
|
|
* cap (X0,X1 only). #164 loud-stopped this at the SEND; #10 Fold A
|
|
* sret's it (callee stores X0/X1 → @sretarg at foff 0/8/16) and Fold B
|
|
* destructures it (each element MOVSD'd out of @sretscr into its
|
|
* binding), so it is now a working round-trip in BOTH stages. */
|
|
{ "f64x3_recv",
|
|
"package main;\n"
|
|
"fn tri(a: f64, b: f64, c: f64) (f64, f64, f64) = {\n"
|
|
"\treturn (a, b, c);\n"
|
|
"};\n"
|
|
"export fn main() i32 = {\n"
|
|
"\tlet (x, y, z) = tri(1.0, 2.0, 3.0);\n"
|
|
"\tif (x != 1.0) { return 1; };\n"
|
|
"\tif (y != 2.0) { return 2; };\n"
|
|
"\tif (z != 3.0) { return 3; };\n"
|
|
"\treturn 0;\n"
|
|
"};\n", 0, 0, 0 },
|
|
/* CONTROL — all-integer branched 2-tuple. The integer-cursor MOVQ
|
|
* path is untouched by the fix (e0/e1 not float), so this is correct
|
|
* pre- and post-fix and byte-id both ways. a=5, b=7 -> 12. */
|
|
{ "ctl_int_br",
|
|
"package main;\n"
|
|
"fn issub(n: i64) bool = { return false; };\n"
|
|
"fn mk(n: i64) (i64, i64) = {\n"
|
|
"\tif (issub(n)) { return (n*2, -1); };\n"
|
|
"\treturn (n, 7);\n"
|
|
"};\n"
|
|
"export fn main() i32 = {\n"
|
|
"\tconst r = mk(5);\n"
|
|
"\tconst a: i64 = r.0;\n"
|
|
"\tconst b: i64 = r.1;\n"
|
|
"\treturn (a: i32) + (b: i32);\n"
|
|
"};\n", 12 },
|
|
/* CONTROL — destructure-with-NO-f64 `let (a,b)=mk()`. The fix now
|
|
* touches cgmlet/tupstore, but an all-integer element takes the
|
|
* unchanged MOVQ path, so this stays byte-id and correct pre- and
|
|
* post-fix — guards that the class check doesn't perturb integers.
|
|
* a=5, b=7 -> 12. */
|
|
{ "ctl_destr",
|
|
"package main;\n"
|
|
"fn issub(n: i64) bool = { return false; };\n"
|
|
"fn mk(n: i64) (i64, i64) = {\n"
|
|
"\tif (issub(n)) { return (n*2, -1); };\n"
|
|
"\treturn (n, 7);\n"
|
|
"};\n"
|
|
"export fn main() i32 = {\n"
|
|
"\tlet (a, b) = mk(5);\n"
|
|
"\treturn (a: i32) + (b: i32);\n"
|
|
"};\n", 12 },
|
|
/* CONTROL — #103 FACE-Z single-return (f64,i64) field read. The f64
|
|
* word is a literal, so AX coincidentally holds its bits on master;
|
|
* correct pre- and post-fix (the fix changes MOVQ AX,slot -> MOVSD
|
|
* X0,slot but the run result is unchanged). f=2.5->2, i=7 -> 9. */
|
|
{ "ctl_facez_single",
|
|
"package main;\n"
|
|
"fn mk() (f64, i64) = { return (2.5, 7); };\n"
|
|
"export fn main() i32 = {\n"
|
|
"\tconst t = mk();\n"
|
|
"\tconst f: f64 = t.0;\n"
|
|
"\tconst i: i64 = t.1;\n"
|
|
"\treturn (f: i32) + (i: i32);\n"
|
|
"};\n", 9 },
|
|
/* CONTROL — #103 FACE-X bare 0f64 compare (no tuple). The fix does
|
|
* not touch the compare path; pure no-op guard. -> 0. */
|
|
{ "ctl_facex_0f64",
|
|
"package main;\n"
|
|
"export fn main() i32 = {\n"
|
|
"\tconst z: f64 = 0.0;\n"
|
|
"\tif (z != 0.0) { return 1; };\n"
|
|
"\treturn 0;\n"
|
|
"};\n", 0 },
|
|
{ NULL, NULL, 0 }
|
|
};
|
|
|
|
static int
|
|
slurp_eq(const char *a, const char *b)
|
|
{
|
|
FILE *fa = fopen(a, "rb");
|
|
FILE *fb = fopen(b, "rb");
|
|
if (!fa || !fb) { if (fa) fclose(fa); if (fb) fclose(fb); return -1; }
|
|
int rc = 0;
|
|
for (;;) {
|
|
int ca = fgetc(fa);
|
|
int cb = fgetc(fb);
|
|
if (ca != cb) { rc = -1; break; }
|
|
if (ca == EOF) break;
|
|
}
|
|
fclose(fa); fclose(fb);
|
|
return rc;
|
|
}
|
|
|
|
int
|
|
main(void)
|
|
{
|
|
const char *bin = getenv("BIN");
|
|
if (!bin) bin = "out/bin";
|
|
char absbin[1024];
|
|
if (bin[0] != '/') {
|
|
char cwd[1024];
|
|
if (getcwd(cwd, sizeof cwd) == NULL) return 1;
|
|
snprintf(absbin, sizeof absbin, "%s/%s", cwd, bin);
|
|
bin = absbin;
|
|
}
|
|
|
|
char w6c[1100], w6c_ww[1100];
|
|
snprintf(w6c, sizeof w6c, "%s/w6c", bin);
|
|
snprintf(w6c_ww, sizeof w6c_ww, "%s/w6c_ww", bin);
|
|
if (access(w6c_ww, X_OK) != 0) {
|
|
fprintf(stderr, "tuprecv_f64: w6c_ww missing — cannot run the "
|
|
"cs==ww byte-id gate\n");
|
|
return 1;
|
|
}
|
|
|
|
int n = 0, fail = 0;
|
|
for (int i = 0; rows[i].src; i++, n++) {
|
|
char tmpdir[64], src[128], outbin[128], rmcmd[160];
|
|
snprintf(tmpdir, sizeof tmpdir, "/tmp/wwtupf_%d_d_%d",
|
|
getpid(), i);
|
|
mkdir(tmpdir, 0755);
|
|
snprintf(src, sizeof src, "%s/wwtupf_%d_%d.ww",
|
|
tmpdir, getpid(), i);
|
|
snprintf(outbin, sizeof outbin, "%s/wwtupf_%d_%d",
|
|
tmpdir, getpid(), i);
|
|
snprintf(rmcmd, sizeof rmcmd, "rm -rf %s", tmpdir);
|
|
FILE *f = fopen(src, "wb");
|
|
if (f == NULL) { runwait(rmcmd); fail++; continue; }
|
|
fputs(rows[i].src, f);
|
|
fclose(f);
|
|
|
|
char cmd[2048];
|
|
|
|
/* #164 LOUD-STOP rows: the SSE-cap overflow must FAIL TO COMPILE
|
|
* in BOTH stages (rule-7). Assert (a) cstage `ww build` errors,
|
|
* and (b) w6c AND w6c_ww each return non-zero — proving the
|
|
* loud-stop fires symmetrically. No .s is produced, so the
|
|
* byte-id cmp is skipped. Discriminates against master, which
|
|
* has no SSE cap and builds the (mis)compile. */
|
|
if (rows[i].want_compile_fail) {
|
|
snprintf(cmd, sizeof cmd,
|
|
"%s/ww build -o %s %s >/dev/null 2>&1",
|
|
bin, outbin, src);
|
|
if (runwait(cmd) == 0) {
|
|
fprintf(stderr, "row[%s]: cstage build SUCCEEDED, "
|
|
"want loud-stop (SSE cap)\n", rows[i].label);
|
|
fail++;
|
|
}
|
|
snprintf(cmd, sizeof cmd, "%s -o /dev/null %s 2>/dev/null",
|
|
w6c, src);
|
|
if (runwait(cmd) == 0) {
|
|
fprintf(stderr, "row[%s]: w6c emitted .s, want "
|
|
"loud-stop\n", rows[i].label);
|
|
fail++;
|
|
}
|
|
snprintf(cmd, sizeof cmd, "%s -o /dev/null %s 2>/dev/null",
|
|
w6c_ww, src);
|
|
if (runwait(cmd) == 0) {
|
|
fprintf(stderr, "row[%s]: w6c_ww emitted .s, want "
|
|
"loud-stop\n", rows[i].label);
|
|
fail++;
|
|
}
|
|
runwait(rmcmd);
|
|
continue;
|
|
}
|
|
|
|
/* (a) cstage build + run in a scratch dir. */
|
|
snprintf(cmd, sizeof cmd, "%s/ww build -o %s %s",
|
|
bin, outbin, src);
|
|
if (runwait(cmd) != 0) {
|
|
fprintf(stderr, "row[%s]: cstage build failed\n",
|
|
rows[i].label);
|
|
fail++;
|
|
runwait(rmcmd);
|
|
continue;
|
|
}
|
|
|
|
int got = runwait(outbin);
|
|
if (got != rows[i].want_exit) {
|
|
fprintf(stderr, "row[%s]: cstage exit %d, want %d\n",
|
|
rows[i].label, got, rows[i].want_exit);
|
|
fail++;
|
|
}
|
|
|
|
/* (b) cs==ww byte-id gate: emit .s from both stages, cmp. */
|
|
char cs_s[64], ws_s[64];
|
|
snprintf(cs_s, sizeof cs_s, "/tmp/wwtupf_%d_%d_cs.s",
|
|
getpid(), i);
|
|
snprintf(ws_s, sizeof ws_s, "/tmp/wwtupf_%d_%d_ww.s",
|
|
getpid(), i);
|
|
|
|
snprintf(cmd, sizeof cmd, "%s -o %s %s 2>/dev/null",
|
|
w6c, cs_s, src);
|
|
if (runwait(cmd) != 0) {
|
|
fprintf(stderr, "row[%s]: w6c failed\n", rows[i].label);
|
|
fail++; runwait(rmcmd); continue;
|
|
}
|
|
snprintf(cmd, sizeof cmd, "%s -o %s %s 2>/dev/null",
|
|
w6c_ww, ws_s, src);
|
|
if (runwait(cmd) != 0) {
|
|
fprintf(stderr, "row[%s]: w6c_ww failed\n",
|
|
rows[i].label);
|
|
fail++; runwait(rmcmd); unlink(cs_s); continue;
|
|
}
|
|
if (slurp_eq(cs_s, ws_s) != 0) {
|
|
fprintf(stderr,
|
|
"row[%s]: cstage/wwstage .s DIFFER (rule-10 "
|
|
"byte-id violation)\n", rows[i].label);
|
|
fail++;
|
|
}
|
|
|
|
/* (c) #121 A-narrow stamp gate: the un-annotated float-
|
|
* destructure binding must now carry a checker type stamp, so
|
|
* w6c_ww emits no `asserttyped:` diagnostic. Non-vacuous —
|
|
* pre-stamp (HEAD) w6c_ww fires asserttyped on the f64 binding
|
|
* ident (nil n.type_). */
|
|
if (rows[i].chk_stamped) {
|
|
char errf[80];
|
|
snprintf(errf, sizeof errf,
|
|
"/tmp/wwtupf_%d_%d_err.txt", getpid(), i);
|
|
snprintf(cmd, sizeof cmd,
|
|
"%s -o /dev/null %s 2>%s", w6c_ww, src, errf);
|
|
runwait(cmd);
|
|
snprintf(cmd, sizeof cmd,
|
|
"grep -q asserttyped %s", errf);
|
|
if (runwait(cmd) == 0) {
|
|
fprintf(stderr, "row[%s]: w6c_ww emitted "
|
|
"asserttyped (destructure binding "
|
|
"unstamped)\n", rows[i].label);
|
|
fail++;
|
|
}
|
|
unlink(errf);
|
|
}
|
|
runwait(rmcmd); unlink(cs_s); unlink(ws_s);
|
|
}
|
|
|
|
if (fail) {
|
|
fprintf(stderr, "%d/%d tuple-receive-f64 tests failed\n",
|
|
fail, n);
|
|
return 1;
|
|
}
|
|
printf("tuprecv_f64: %d/%d ok (cstage run + cs==ww byte-id)\n", n, n);
|
|
return 0;
|
|
}
|