tests: pending-backend 격리를 없앤다

코드 생성기가 없어서 돌릴 수 없던 것들이다. 이제 돌아간다. 경계 트랩,
--no-checks 차등, 슬라이스 범위 검사, 소유권 해제가 전부 exec/ 에서
실행으로 검증되므로 격리할 이유가 없다.

run.py 205/205, exec.py 17/17.
This commit is contained in:
2026-08-17 06:32:57 +09:00
parent 3a01cb4c51
commit b0c9338cf3
10 changed files with 31 additions and 251 deletions
+14
View File
@@ -0,0 +1,14 @@
// EXIT:9
unit sliceok;
fn total(s: []i32) -> i32 {
var sum: i32 = 0;
for v in s { sum = sum + v.^; }
return sum;
}
fn main() -> i32 {
let a: [5]i32 = [1, 2, 3, 4, 5];
let mid: []i32 = a[1..4];
return total(mid);
}
+11
View File
@@ -0,0 +1,11 @@
// EXIT:3
// OUTPUT:index out of bounds
// NOCHECKS:0
unit slicerng;
fn main() -> i32 {
let a: [2]i32 = [1, 2];
let s: []i32 = a[0..3];
let n: i32 = s.n as i32;
return n - n;
}
-10
View File
@@ -1,10 +0,0 @@
`fec/tests/pending-backend/`에 남겨둔 fixture는 현재 프론트엔드 전용 상태에서 실행할 수 없습니다.
- `bounds_trap.fe` / `bounds_nocheck.fe`: 경계 검사 실패가 실제로 trap되는지,
`--no-checks` 플래그가 그 검사를 제거하는지 확인하는 런타임 동작 테스트입니다.
- `ownership_drop.fe` + `ownership-drop.c`: 삽입된 `drop`/`defer`가 실제로 실행되는지 확인하는 테스트입니다.
`ownership-drop.c`는 해제 횟수/순서/이중 해제를 검증하는 하네스입니다.
- `format-prop.c`: 포맷 프로퍼티 동작을 확인하는 런타임 검사입니다.
이들은 코드 생성기가 없는 현재 단계에서는 실행할 수 없어서 `tests/run.py`가 건너뜁니다.
백엔드(코드 생성기)가 돌아오면 가장 먼저 재활성화할 대상입니다.
@@ -1,7 +0,0 @@
unit m3_no_checks;
fn main() -> i32 {
let a: [2]i32 = [1, 2];
let x: i32 = a[2];
return x - x;
}
-6
View File
@@ -1,6 +0,0 @@
unit m3_bounds;
fn main() -> i32 {
let a: [2]i32 = [1, 2];
return a[2];
}
-11
View File
@@ -1,11 +0,0 @@
#include "prop.c"
int main(void)
{
fe_writer w;
unsigned short result;
w.tag=2;
w.handle=99;
result=fe_m4_prop_propagate(w);
return result==1 ? 0 : 1;
}
-101
View File
@@ -1,101 +0,0 @@
#include <stdlib.h>
#include <stddef.h>
#undef malloc
#undef free
extern void *malloc(size_t size);
extern void free(void *p);
/* `run` returns !i32, which lowers to { error, value }. */
struct fe_result_value_9 { unsigned short e; long v; };
extern struct fe_result_value_9 fe_m5_runtime_run(long mode);
extern unsigned short fe_m5_runtime_conditional(unsigned char flag);
extern unsigned short fe_m5_runtime_argument_cleanup(void);
extern unsigned short fe_m5_runtime_owned_slice(unsigned long n);
extern unsigned short fe_m5_runtime_replace_field(void);
extern unsigned short fe_m5_runtime_loop_cleanup(void);
extern unsigned short fe_m5_runtime_try_cleanup(void);
extern unsigned short fe_m5_runtime_field_order(void);
extern unsigned short fe_m5_runtime_defer_order(void);
extern unsigned short fe_m5_runtime_match_cleanup(unsigned char flag);
extern unsigned short fe_m5_runtime_close_once(void);
extern unsigned short fe_m5_runtime_reassign_struct(void);
static void *live_ptrs[64];
static unsigned live_count;
static unsigned alloc_count;
static unsigned free_count;
static unsigned double_free_count;
static long fail_after = -1;
static unsigned malloc_attempts;
static int track_order;
static void *order_ptrs[2];
static unsigned order_allocs;
static unsigned order_frees;
static unsigned order_bad;
void *m5_malloc(size_t size)
{
void *p;
if (fail_after >= 0 && (long)malloc_attempts++ == fail_after) return 0;
p = malloc(size);
if (p && live_count < 64) live_ptrs[live_count++] = p;
if (p) ++alloc_count;
if (p && track_order && order_allocs < 2) order_ptrs[order_allocs++] = p;
return p;
}
void m5_free(void *p)
{
unsigned i;
if (!p) return;
for (i = 0; i < live_count; ++i) {
if (live_ptrs[i] == p) {
if (track_order && order_frees < 2 &&
p != order_ptrs[1-order_frees]) ++order_bad;
if (track_order && order_frees < 2) ++order_frees;
live_ptrs[i] = live_ptrs[--live_count];
++free_count;
free(p);
return;
}
}
++double_free_count;
}
int main(void)
{
struct fe_result_value_9 r;
r = fe_m5_runtime_run(0); if (r.e != 0 || r.v != 0) return 1;
r = fe_m5_runtime_run(1); if (r.e != 0 || r.v != 9) return 2;
r = fe_m5_runtime_run(2); if (r.e != 0 || r.v != 0) return 3;
if (fe_m5_runtime_conditional(0) != 0) return 4;
if (fe_m5_runtime_conditional(1) != 0) return 5;
if (fe_m5_runtime_argument_cleanup() != 0) return 6;
if (fe_m5_runtime_owned_slice(17) != 0) return 7;
if (fe_m5_runtime_replace_field() != 0) return 8;
if (fe_m5_runtime_loop_cleanup() != 0) return 9;
fail_after=1;
malloc_attempts=0;
if (fe_m5_runtime_try_cleanup() == 0) return 10;
fail_after=-1;
track_order=1;
order_allocs=order_frees=order_bad=0;
if (fe_m5_runtime_field_order() != 0) return 11;
track_order=0;
if (order_allocs != 2 || order_frees != 2 || order_bad != 0) return 12;
track_order=1;
order_allocs=order_frees=order_bad=0;
if (fe_m5_runtime_defer_order() != 0) return 13;
track_order=0;
if (order_allocs != 2 || order_frees != 2 || order_bad != 0) return 14;
if (fe_m5_runtime_match_cleanup(0) != 0) return 15;
if (fe_m5_runtime_match_cleanup(1) != 0) return 16;
if (fe_m5_runtime_close_once() != 0) return 17;
if (fe_m5_runtime_reassign_struct() != 0) return 18;
if (double_free_count != 0) return 19;
if (live_count != 0) return 20;
if (alloc_count != free_count) return 21;
return 0;
}
-100
View File
@@ -1,100 +0,0 @@
unit m5_runtime;
fn take(p: ^i32) -> void { mem.destroy(p); }
pub fn run(mode: i32) -> !i32 {
var p: ^i32 = try mem.create(0);
defer { mem.destroy(p); }
p.^ = 7;
if mode == 1 {
p = try mem.create(0);
p.^ = 9;
return p.^;
}
while true { break; }
if mode == 2 { return 0; }
return p.^ - 7;
}
pub fn conditional(flag: bool) -> !void {
var p: ^i32 = try mem.create(0);
if flag { take(p); }
}
pub fn argument_cleanup() -> !void {
let p: ^i32 = try mem.create(0);
take(p);
}
pub fn owned_slice(n: usize) -> !void {
let bytes: ^[]u8 = try mem.alloc_slice(u8, n);
}
struct Holder { p: ^i32 }
pub fn replace_field() -> !void {
let first: ^i32 = try mem.create(1);
var h: Holder = Holder{ p: first };
let second: ^i32 = try mem.create(2);
let old: ^i32 = mem.replace(&mut h.p, second);
mem.destroy(old);
}
pub fn loop_cleanup() -> !void {
var i: i32 = 0;
while i < 2 {
let p: ^i32 = try mem.create(i);
i += 1;
if i == 1 { continue; }
break;
}
}
pub fn try_cleanup() -> !void {
let first: ^i32 = try mem.create(1);
let second: ^i32 = try mem.create(2);
}
struct PairOwners { first: ^i32, second: ^i32 }
pub fn field_order() -> !void {
let first: ^i32 = try mem.create(1);
let second: ^i32 = try mem.create(2);
let pair: PairOwners = PairOwners{ first: first, second: second };
}
pub fn defer_order() -> !void {
let first: ^i32 = try mem.create(1);
defer { mem.destroy(first); }
let second: ^i32 = try mem.create(2);
}
enum Choice { A, B }
pub fn match_cleanup(flag: bool) -> !void {
var choice: Choice = Choice.A;
if flag { choice = Choice.B; }
let p: ^i32 = try mem.create(1);
match choice {
A => { take(p); }
B => { take(p); }
}
}
struct FileLike {
handle: i32,
fn close(self: Self) -> !void { self.handle = 0; }
fn drop(self: &mut Self) { self.handle = 0; }
}
pub fn close_once() -> !void {
let file: FileLike = FileLike{ handle: 7 };
try file.close();
}
pub fn reassign_struct() -> !void {
let first: ^i32 = try mem.create(1);
var owner: Holder = Holder{ p: first };
let second: ^i32 = try mem.create(2);
owner = Holder{ p: second };
}
@@ -1,7 +0,0 @@
unit m3_slice_bounds;
fn main() -> i32 {
let a: [2]i32 = [1, 2];
let s: []i32 = a[0..3];
return s.n as i32;
}