test(host): 断言字面量统一纯 ASCII,30 文件 1535 行
用户裁定「统一」。口径就是 AGENTS 铁律:字符串字面量必须纯 ASCII (无 BOM 文件里奇数个汉字会吞掉结束引号,偶数才侥幸通过),中文只写注释。 四名队友按目录分四组并行、写范围互斥:net_socket 418 行(6 文件)、 console_log/sys_log_mcu/soe_store/cfg_file_store_mcu 268 行(4 文件)、 11 个存量套件 404 行 + adc_input 89 行、iec104 与 lftpd 与 NET 四套等 356 行 (9 文件)。runner 的 .py 文档串不在口径内(Python 源不经 ARMCC 代码页)。 两套口径必须分清:粗口径(按行切引号)普查 = 34 文件 / 1,552 行;严格口径 (状态机剥掉块/行注释与字符常量后再取字符串字面量)= 30 文件 / 1,535 行。 差值那 4 个文件的命中全在注释里(ns_peers.c、net_socket/stub/ns_rtos.h、 common/ch395f_fake.h、common/fatfs_fake.c)——按口径一处都不该改,改了等于 把中文从注释里搬走、正好违背口径。粗口径绝不能当交付判据,否则要么白改 注释、要么留下「这行为什么没改」的悬案。 Lead 独立终检(不采信自报)五条硬判据,结果 30 文件漂移 0:① 每文件 TC 号 集合与 HEAD 逐字相同 ② 断言宏调用点数不变 ③ 行数与 HEAD 完全相等(专抓 整文件回写把尾部含 main() 吃掉的截断,第 1 轮真发生过两次)④ 剥注释后代码区 非 ASCII 字符 = 0 ⑤ 字节卫生(BOM 与 HEAD 一致、无 CR、无 U+FFFD、单尾换行)。 另用「逐行把字面量整体替换成空串后与 HEAD 必须逐行相等」机械证明只改了字面量; 各套 --module 覆盖率与断言数逐字不变(net_socket 887/889·53/53、console_log 199/200·16/16、sys_log_mcu 324/326·13/13、adc_input 103/103、sys_clock 100/100) → 生产码零改动,基线不需重登。 闸拦下一处真实回归(我的验收器没抓到):ns_s6_edges.c 翻译时把一个上一轮 已整改成平实描述的编号又写回了 CHECK 标签。原因很清楚:「只改字面量」并不 等于「只改无害内容」,标签里完全可以带进未登记族的编号形态;而 Lead 的自动 验收器只比对了 TC 形 id 集合,未覆盖 L/E/N/S/TRAP 等族。教训:批量改标签的 守卫必须加一条「新串不得出现任何已登记前缀族之外的编号形态」,且结构不变式 只覆盖自己想到的维度时不能替代真闸。 Lead 自查另清掉 126 处写坏的反斜杠(JS→Python 转义层数翻倍,把 markdown 反引号写成反斜杠+反引号),恰好发生在记录这条教训的那一节里。 文档:docs/测试说明/主机单测覆盖率口径.md §9 新增「第 2 轮」小节(两套口径对照 表、五条终检判据、六条手法含「转换说明符序列必须逐位相同」取代「禁止裸 %」、 三条协作纪律含先改板再派工与临时文件带组前缀、后续项 3 条)+ 变更记录一行。 后续项(本轮不做):把剥注释词法扫描器收进 scripts 当门禁(需用户点头并先定 test/ 是否纳入 coding-standard);iec104 的简写编号归族(牵 id_registry, 不能顺手做);替换器加「编号形态白名单」校验。 gate: pre-commit run --all-files -> 39 hooks, 37 Passed; failed = mem-numbers + mem-budget(受管快照与本树 .map 的漂移,属第 1 轮生产码改动的遗留,非本批 增量)。本批只碰 test/host/**,不进 Keil 编译面也不进模拟器 CMake,**RAM/Flash 增量 = 0**;实测水位 RW_IRAM1 57.4%、RW_CCM 87.9%,均低于 92% 红线。 id-check 0 台账外新账(可判定 84.63% > 基线 82.6%);test-coverage 33/33 全绿; cppcheck / coding-standard / bsp-err / layer-deps / doc-links 全 Passed。 按仓内分支约定 --no-verify 提交,台账 --write 回填留待主工作树合并后。
This commit is contained in:
@@ -131,44 +131,44 @@ static void beat_all(void) {
|
||||
/* ===================== 用例 ===================== */
|
||||
|
||||
static void tc_001_not_armed(void) {
|
||||
printf("TC-WATCHDOG-001 未启动时 poll 不做判定\n");
|
||||
printf("TC-WATCHDOG-001 poll makes no decision before start\n");
|
||||
beat_all();
|
||||
poll_advance(1000);
|
||||
CHECK(s_feed_count == 0, "未启动时 poll 不喂狗");
|
||||
CHECK(task_wd_is_armed() == 0, "is_armed == 0(未启动)");
|
||||
CHECK(s_feed_count == 0, "poll does not feed before start");
|
||||
CHECK(task_wd_is_armed() == 0, "is_armed == 0 (not started)");
|
||||
}
|
||||
|
||||
static void tc_002_throttle(void) {
|
||||
printf("TC-WATCHDOG-002 节流:< 100ms 直接返回\n");
|
||||
printf("TC-WATCHDOG-002 throttle: < 100ms returns directly\n");
|
||||
start_and_clear();
|
||||
beat_all();
|
||||
poll_advance(50); /* 50ms < 100ms → 不抽样 */
|
||||
CHECK(s_feed_count == 0, "50ms 内 poll 不喂狗");
|
||||
CHECK(s_feed_count == 0, "poll within 50ms does not feed");
|
||||
poll_advance(50); /* 累计 100ms → 抽样 */
|
||||
CHECK(s_feed_count == 1, "累计 100ms 后喂狗 1 次");
|
||||
CHECK(s_feed_count == 1, "after 100ms accumulated, fed exactly once");
|
||||
}
|
||||
|
||||
static void tc_003_all_beat_feeds(void) {
|
||||
printf("TC-WATCHDOG-003 全员到位 → 喂狗一次\n");
|
||||
printf("TC-WATCHDOG-003 all tasks present -> feed once\n");
|
||||
start_and_clear();
|
||||
beat_all();
|
||||
poll_advance(100);
|
||||
CHECK(s_feed_count == 1, "全员到位喂狗 1 次");
|
||||
CHECK(task_wd_last_mask() == 0x1F7u, "last_mask == 0x1F7(bit0|1|2|4|5|6|7|8)");
|
||||
CHECK(s_feed_count == 1, "all present feeds exactly once");
|
||||
CHECK(task_wd_last_mask() == 0x1F7u, "last_mask == 0x1F7 (bit0|1|2|4|5|6|7|8)");
|
||||
}
|
||||
|
||||
static void tc_004_take_and_clear(void) {
|
||||
printf("TC-WATCHDOG-004 取走清零:旧位不残留\n");
|
||||
printf("TC-WATCHDOG-004 take-and-clear: no stale bits left\n");
|
||||
start_and_clear();
|
||||
beat_all();
|
||||
poll_advance(100); /* 消费位图并喂狗 */
|
||||
CHECK(s_feed_count == 1, "第一轮喂狗");
|
||||
CHECK(s_feed_count == 1, "first round fed");
|
||||
poll_advance(100); /* 不重新置位 */
|
||||
CHECK(s_feed_count == 1, "未重新置位 → 第二轮不喂狗(位图已取走清零)");
|
||||
CHECK(s_feed_count == 1, "no re-set -> second round does not feed (bitmap already taken and cleared)");
|
||||
}
|
||||
|
||||
static void tc_005_mask_required(void) {
|
||||
printf("TC-WATCHDOG-005 掩码判定:缺任一位不喂\n");
|
||||
printf("TC-WATCHDOG-005 mask check: missing any bit -> no feed\n");
|
||||
start_and_clear();
|
||||
/* 故意缺 UI(bit4) */
|
||||
task_wd_beat(TASK_WD_DEFAULT);
|
||||
@@ -179,31 +179,31 @@ static void tc_005_mask_required(void) {
|
||||
task_wd_beat(TASK_WD_IEC104);
|
||||
task_wd_beat(TASK_WD_PROTECT);
|
||||
poll_advance(100);
|
||||
CHECK(s_feed_count == 0, "缺 UI 位 → 不喂狗");
|
||||
CHECK(s_feed_count == 0, "UI bit missing -> no feed");
|
||||
CHECK(task_wd_last_mask() == (0x1F7u & ~(1u << TASK_WD_UI)),
|
||||
"last_mask 精确记录缺失位");
|
||||
"last_mask records the missing bit exactly");
|
||||
}
|
||||
|
||||
static void tc_006_stall_8(void) {
|
||||
printf("TC-WATCHDOG-006 连续 8 次缺席 → 打 stall 并停喂\n");
|
||||
printf("TC-WATCHDOG-006 8 consecutive misses -> print stall and stop feeding\n");
|
||||
start_and_clear();
|
||||
beat_all(); poll_advance(100); /* streak 清零 */
|
||||
int err0 = g_wdtest_err_count;
|
||||
for (int i = 1; i <= 7; i++) {
|
||||
poll_advance(100);
|
||||
CHECK(g_wdtest_err_count == err0, "第 1..7 次缺席不报 stall");
|
||||
CHECK(g_wdtest_err_count == err0, "misses 1..7 do not report stall");
|
||||
}
|
||||
poll_advance(100); /* 第 8 次 */
|
||||
CHECK(g_wdtest_err_count == err0 + 1, "第 8 次缺席打 [WD] task stall");
|
||||
CHECK(s_feed_count == 1, "全程仅在开始时喂过 1 次(缺席期间未喂)");
|
||||
CHECK(g_wdtest_err_count == err0 + 1, "8th miss prints [WD] task stall");
|
||||
CHECK(s_feed_count == 1, "fed exactly once at the start only (nothing fed during the missing period)");
|
||||
}
|
||||
|
||||
static void tc_007_stall_repeats_until_reset(void) {
|
||||
printf("TC-WATCHDOG-007 停喂后 stall 日志持续复报(当前设计:每 100ms 一条)\n");
|
||||
printf("TC-WATCHDOG-007 after feeding stops the stall log keeps repeating (current design: one per 100ms)\n");
|
||||
start_and_clear();
|
||||
for (int i = 0; i < 8; i++) poll_advance(100); /* 第 8 次触发 */
|
||||
int err8 = g_wdtest_err_count;
|
||||
CHECK(err8 == 1, "第 8 次缺席后已报 1 条 stall");
|
||||
CHECK(err8 == 1, "after the 8th miss exactly 1 stall line was reported");
|
||||
poll_advance(100); /* 第 9 次 */
|
||||
poll_advance(100); /* 第 10 次 */
|
||||
/*
|
||||
@@ -213,89 +213,89 @@ static void tc_007_stall_repeats_until_reset(void) {
|
||||
* 代价是日志冗余(约 9 条/停顿周期)。若改为"每停顿周期仅报一次",
|
||||
* 需加一个 s_stall_reported 标志,见文档"已知可优化点"。
|
||||
*/
|
||||
CHECK(g_wdtest_err_count == err8 + 2, "停喂后每次抽样都复报 stall(现状)");
|
||||
CHECK(g_wdtest_err_count == err8 + 2, "after feeding stops every sample re-reports stall (current behaviour)");
|
||||
}
|
||||
|
||||
static void tc_008_recover(void) {
|
||||
printf("TC-WATCHDOG-008 恢复:重新全员到位 → 喂狗 + streak 归零\n");
|
||||
printf("TC-WATCHDOG-008 recovery: all present again -> feed + streak reset\n");
|
||||
start_and_clear();
|
||||
for (int i = 0; i < 8; i++) poll_advance(100); /* 触发 stall */
|
||||
beat_all();
|
||||
poll_advance(100);
|
||||
CHECK(s_feed_count == 1, "恢复后立即喂狗");
|
||||
CHECK(s_feed_count == 1, "feeds immediately after recovery");
|
||||
int err0 = g_wdtest_err_count;
|
||||
poll_advance(100); /* 再缺一次 */
|
||||
CHECK(g_wdtest_err_count == err0, "streak 已归零:单次缺席不报 stall");
|
||||
CHECK(g_wdtest_err_count == err0, "streak already reset: a single miss does not report stall");
|
||||
}
|
||||
|
||||
static void tc_009_throttle_boundary(void) {
|
||||
printf("TC-WATCHDOG-009 节流窗口边界 99/100/199/200\n");
|
||||
printf("TC-WATCHDOG-009 throttle window edges 99/100/199/200\n");
|
||||
start_and_clear();
|
||||
beat_all();
|
||||
poll_advance(99); CHECK(s_feed_count == 0, "99ms 不判");
|
||||
poll_advance(1); CHECK(s_feed_count == 1, "100ms 判(喂狗)");
|
||||
poll_advance(99); CHECK(s_feed_count == 0, "99ms: no decision");
|
||||
poll_advance(1); CHECK(s_feed_count == 1, "100ms: decides (feed)");
|
||||
beat_all();
|
||||
poll_advance(99); CHECK(s_feed_count == 1, "再 99ms 不判");
|
||||
poll_advance(1); CHECK(s_feed_count == 2, "累计 100ms 判");
|
||||
poll_advance(99); CHECK(s_feed_count == 1, "another 99ms: no decision");
|
||||
poll_advance(1); CHECK(s_feed_count == 2, "accumulated 100ms: decides");
|
||||
}
|
||||
|
||||
static void tc_010_tick_wrap(void) {
|
||||
printf("TC-WATCHDOG-010 tick 回绕安全\n");
|
||||
printf("TC-WATCHDOG-010 tick wraparound is safe\n");
|
||||
start_and_clear();
|
||||
s_tick = 0xFFFFFF00u; /* 推到接近 2^32 回绕 */
|
||||
task_wd_poll(); /* 建立基线(此处可能不判,取决节流) */
|
||||
beat_all();
|
||||
s_feed_count = 0;
|
||||
poll_advance(0x100u); /* 跨越回绕:0xFFFFFF00 + 0x100 = 0 */
|
||||
CHECK(s_feed_count == 1, "回绕处 100ms 仍正确判(无符号差)");
|
||||
CHECK(s_feed_count == 1, "across the wraparound 100ms still decides correctly (unsigned diff)");
|
||||
}
|
||||
|
||||
static void tc_011_observers(void) {
|
||||
printf("TC-WATCHDOG-011 观测接口语义\n");
|
||||
printf("TC-WATCHDOG-011 observation API semantics\n");
|
||||
start_and_clear();
|
||||
CHECK(task_wd_is_armed() == 1, "is_armed == 1(已启动)");
|
||||
CHECK(task_wd_is_armed() == 1, "is_armed == 1 (started)");
|
||||
beat_all();
|
||||
poll_advance(100);
|
||||
CHECK(task_wd_last_mask() == 0x1F7u, "last_mask 反映最近一次抽样");
|
||||
CHECK(task_wd_miss_count() == 0u, "全程达标 → miss_count == 0");
|
||||
CHECK(task_wd_last_mask() == 0x1F7u, "last_mask reflects the most recent sample");
|
||||
CHECK(task_wd_miss_count() == 0u, "all rounds met -> miss_count == 0");
|
||||
}
|
||||
|
||||
static void tc_013_bad_id(void) {
|
||||
printf("TC-WATCHDOG-013 非法任务 ID 被忽略\n");
|
||||
printf("TC-WATCHDOG-013 invalid task id is ignored\n");
|
||||
start_and_clear();
|
||||
task_wd_beat((task_wd_id_t)(TASK_WD_ID_MAX + 3)); /* 非法:应被忽略 */
|
||||
poll_advance(100);
|
||||
CHECK(s_feed_count == 0, "非法 ID 未污染位图(必需位全缺 → 不喂)");
|
||||
CHECK(task_wd_last_mask() == 0u, "位图保持 0(非法位未置)");
|
||||
CHECK(s_feed_count == 0, "invalid id does not pollute the bitmap (all required bits missing -> no feed)");
|
||||
CHECK(task_wd_last_mask() == 0u, "bitmap stays 0 (invalid bit never set)");
|
||||
}
|
||||
|
||||
static void tc_014_start_idempotent(void) {
|
||||
printf("TC-WATCHDOG-014 start 幂等\n");
|
||||
printf("TC-WATCHDOG-014 start is idempotent\n");
|
||||
task_wd_start();
|
||||
task_wd_start();
|
||||
CHECK(s_start_count == 1, "重复 start 只启动 IWDG 一次");
|
||||
CHECK(s_start_count == 1, "repeated start launches IWDG only once");
|
||||
CHECK(task_wd_is_armed() == 1, "is_armed == 1");
|
||||
}
|
||||
|
||||
static void tc_015_start_feeds_once(void) {
|
||||
printf("TC-WATCHDOG-015 start 先喂一次(首个窗口从启动时刻起算)\n");
|
||||
printf("TC-WATCHDOG-015 start feeds once first (first window counted from the start instant)\n");
|
||||
task_wd_start();
|
||||
CHECK(s_start_count == 1, "start 启动 IWDG 一次");
|
||||
CHECK(s_feed_count == 1, "start 内部先喂狗一次(避免启动即超时)");
|
||||
CHECK(s_start_count == 1, "start launches IWDG once");
|
||||
CHECK(s_feed_count == 1, "start feeds once internally (avoids a timeout right at boot)");
|
||||
}
|
||||
|
||||
static void tc_016_stall_not_armed_no_feed(void) {
|
||||
printf("TC-WATCHDOG-016 未启动时即便全员到位也不喂\n");
|
||||
printf("TC-WATCHDOG-016 even with all tasks present, nothing feeds before start\n");
|
||||
/* 未 start:poll 直接返回 */
|
||||
beat_all();
|
||||
poll_advance(500);
|
||||
CHECK(s_feed_count == 0, "未启动 → 不喂狗(无论位图)");
|
||||
CHECK(task_wd_last_mask() == 0u, "未启动 → 不更新 last_mask");
|
||||
CHECK(s_feed_count == 0, "not started -> no feed (whatever the bitmap)");
|
||||
CHECK(task_wd_last_mask() == 0u, "not started -> last_mask not updated");
|
||||
}
|
||||
|
||||
int main(void) {
|
||||
printf("=== Task Watchdog 主机侧单元测试 ===\n");
|
||||
printf("被测:App/util/task_watchdog.c(判定状态机)\n\n");
|
||||
printf("=== Task Watchdog host-side unit tests ===\n");
|
||||
printf("Target: App/util/task_watchdog.c (decision state machine)\n\n");
|
||||
|
||||
fresh(); tc_001_not_armed();
|
||||
fresh(); tc_016_stall_not_armed_no_feed();
|
||||
|
||||
Reference in New Issue
Block a user