STM32F4-Base/test/host/prot_dim/prot_dim_test.c

/*
 * 模块名称：量纲回归主机侧单测（「数据可信」量纲回归用例 · 道A）
 * 被测对象：真实源文件（#include 原样纳入，全链路 标定折算→全周傅氏相量→保护判据）：
 *             adc_cal.c + prot_set.c + sample_ring.c + phasor.c + freq.c +
 *             prot_elm.c
 *           平台依赖桩：dbg_log.h（stub/）、cfg_file_register（捕获计数）、
 *           adc_input_desc（V0.1 权威来源表，同 adc_cal 套件）。
 *
 * 本套件的存在理由（短板评测 + docs/算法/采集与算法层设计说明.md §13.6）：台架此前"通过"是因为没有
 * 一条判据检查**不该动作时不动作**——"码值当工程量"的错配曾让 OC 拿 ~11000
 * 码值比 10 A 定值恒假动作。本套件把这条固化成回归：用例从 **ADC 码值** 出发、
 * **显式写出码值↔二次值换算**，走真实 折算→采样环→全周傅氏→元件判据 链；
 * 任何一环把量纲弄丢（比如折算点被旁路），断言立刻翻转。
 *
 * ROM 系数覆写（#undef/#define）：把"板级理论系数"替换为合成端子侧口径
 * （10 mV/码，K_DIM），模拟两点标定完成后的 ROM/默认状态——合法带随之
 * 锚定合成值，adc_cal_set 走正规路径置 VALID，测试不白盒改引擎内存。
 * 变比 r 同步合成化为 1.0：本套件证的是「折算链别丢量纲」，不是变比数值；
 * r = 1.0 让上面那对互逆换算（eng ↔ code）继续成立，也就与
 * docs/算法/采集与算法层设计说明.md §13.6 的合成口径一致。r ≠ 1.0 的
 * 放大效应单独由 TC-PROTDIM-011 钉（那时故意让判据输入被放大 1000 倍）。
 *
 * 覆盖点（族 TC-HOST-PROTDIM，属主登记处 = 本目录）：
 *   TC-PROTDIM-001  标定链基线：0.5 A/100 V/0 V 注入 → 七类元件全静默（含
 *                   OL：0.5 < 1 A 定值）+ IA 相量有效值 = 0.5 A ±0.5 %
 *   TC-PROTDIM-002  反错配对照：同一批码值，raw 直灌 → OC1 假动作（复现历史
 *                   事故）；经 adc_cal_apply → OC1 静默（折算点不可旁路）
 *   TC-PROTDIM-003  OC1（10 A，dly=0）：9.995 不动作 / 10.5 启动即动作 /
 *                   9.6 滞回保持 / 9.49 释放
 *   TC-PROTDIM-004  OC2（5 A，500 ms）：6 A 启动，启动后 499 ms 不动作、
 *                   501 ms 动作；4.8 保持（ret 4.75）、4.6 释放
 *   TC-PROTDIM-005  OC3（2 A，3000 ms）：同上时序（2.1 A）
 *   TC-PROTDIM-006  OL（1 A，10 s）：1.05 A 启动、9999/10001 ms 时序、
 *                   0.96 保持（ret 0.95）、0.93 释放
 *   TC-PROTDIM-007  OV（120 V，10 s）：100 V 静默；121 V 启动、到点动作；
 *                   115 保持（ret 114）、113 释放
 *   TC-PROTDIM-008  UV（20 V，10 s，欠量方向）：21 V 静默；19.9 V 启动、
 *                   到点动作；20.5 保持（ret 21）、21.6 释放
 *   TC-PROTDIM-009  3U0（15 V，5 s）：14 V 静默；15.1 启动到点；
 *                   14.4 保持（ret 14.25）、14.1 释放
 *   TC-PROTDIM-010  聚合与独立性：OC1+OV 同拍动作位图 = 双位；撤 IA →
 *                   OC1 返回、OV 保持（互不污染）
 *   TC-PROTDIM-011  变比确实进折算（不是只存在配置里）：把 IA 的 r 从合成 1.0
 *                   改成 1000.0 后，同一批码值的判据输入被放大 1000 倍 →
 *                   0.5 A 立刻顶穿 OC1(10 A)；改回 1.0 后恢复静默。
 *                   反错配方向：若哪天有人把 r 从 apply() 里摘掉、只留配置段，
 *                   本用例立刻翻红。
 *
 * 通过：全部 TC PASS（main 返回 0）。
 * 创建日期：2026-10-25（道A 量纲回归用例）
 */

#include <math.h>
#include <stdint.h>
#include <stdio.h>
#include <string.h>

/* 桩头先于生产源码 */
#include "dbg_log.h"
int g_dimtest_err_count = 0;
int g_dimtest_info_count = 0;
int g_dimtest_debug_count = 0;

#include "cfg_file.h"

static int s_reg_count = 0;

int cfg_file_register(const cfg_section_reg_t *p_reg) {
    (void)p_reg;
    s_reg_count++;
    return 0;
}

/* V0.1 权威来源表（docs/硬件平台/ADC通道映射说明.md §3/§5，同 adc_cal 套件桩） */
#include "adc_input.h"

static const adc_channel_desc_t s_desc_stub[ADC_SEM_COUNT] = {
    { ADC_SRC_TPAFE, 6u }, { ADC_SRC_STM32, 14u }, { ADC_SRC_STM32, 3u },
    { ADC_SRC_TPAFE, 5u }, { ADC_SRC_TPAFE, 2u },  { ADC_SRC_STM32, 6u },
    { ADC_SRC_STM32, 1u }, { ADC_SRC_STM32, 2u },  { ADC_SRC_STM32, 5u },
};

const adc_channel_desc_t *adc_input_desc(adc_semantic_t ch) {
    if ((unsigned)ch >= (unsigned)ADC_SEM_COUNT) {
        return NULL;
    }
    return &s_desc_stub[(unsigned)ch];
}

/* ---- 测试框架（同 prot_elm 套件） ---- */
static int s_total = 0, s_passed = 0, s_failed = 0;

#define CHECK(cond, name) do { \
    s_total++; \
    if (cond) { s_passed++; printf("  [PASS] %s\n", name); } \
    else      { s_failed++; printf("  [FAIL] %s  (line %d)\n", name, __LINE__); } \
} while (0)

/* ---- 合成"标定后"板级口径（覆写 adc_cal.h 的 ROM 常量，必须在纳入 .c 之前） ----
 * K_DIM = 655360000 Q16 = 10000 µV/码 = 10 mV/码：
 *   电压类 100 V rms → 峰值 141.42 V → 14142 码（TPAFE 半量程内，量级刻意
 *   贴近端子变比两点标定完成后的真实形态）；电流类二次值经变换器落到同一定标。
 * B_IA = -30 码（零点偏移，经 apply 精确对消——验证 b 参与全链而非仅落盘）。
 * r 的合成口径 = 1.0（Q16 = 65536）：见文件头「变比 r 同步合成化为 1.0」那段。 */
#include "adc_cal.h"
#undef ADC_CAL_K_Q16_TPAFE
#undef ADC_CAL_K_Q16_STM32
#undef ADC_CAL_R_Q16_VOLT
#undef ADC_CAL_R_Q16_CURR
#define ADC_CAL_K_Q16_TPAFE   (655360000L)
#define ADC_CAL_K_Q16_STM32   (655360000L)
#define ADC_CAL_R_Q16_VOLT    (65536L)   /* 合成口径 r = 1.0：本套件证"链条别丢量纲"，不是变比数值 */
#define ADC_CAL_R_Q16_CURR    (65536L)
#define K_DIM                 ADC_CAL_K_Q16_TPAFE
#define B_IA_DIM              (-30L)

/* ===================== 被测生产源文件 ===================== */
#include "prot_set.c"
#include "sample_ring.c"
#include "phasor.c"
#include "freq.c"
#include "prot_elm.c"
#include "adc_cal.c"

/* ===================== 波形/时基（同 prot_elm 套件 run() 级用例口径） ===================== */
static uint32_t s_t = 0u;

static long my_lround(double x) { return (long)((x >= 0.0) ? (x + 0.5) : (x - 0.5)); }

/* 显式换算（量纲回归用例的核心手法，两处方向都要有）：
 *   code = round(eng[V 或 A] × 65536×1e6 / k_q16) − b        （期望 → 码值）
 *   eng  = (code + b) × k_q16 / 65536 / 1e6   = adc_cal_apply  （码值 → 工程量）
 * 上面两式必须互逆——若实现（adc_cal_apply）与期望推导脱钩，全部 TC 翻转。 */
static int32_t dim_code(double eng, double b_codes) {
    return (int32_t)(my_lround(eng * 65536.0e6 / (double)K_DIM) - b_codes);
}

/* 一拍：三相量按 50 Hz 正弦（峰值 = rms×√2），其余电气量通道给 0 码值，
 * TEMP 透传 0；随后跑真实 全周傅氏相量链。 */
static void dim_beat(double ia_rms, double ua_rms, double un_rms) {
    float   frame[ADC_SEM_COUNT];
    double  s50 = sin(2.0 * 3.14159265358979 * 50.0 * (double)s_t / 1000.0);
    int32_t ci_ia, ci_ua, ci_un;
    uint8_t c;

    ci_ia = dim_code(ia_rms * 1.4142135623730951 * s50, (double)B_IA_DIM);
    ci_ua = dim_code(ua_rms * 1.4142135623730951 * s50, 0.0);
    ci_un = dim_code(un_rms * 1.4142135623730951 * s50, 0.0);

    frame[ADC_SEM_IA] = adc_cal_apply(ADC_SEM_IA, ci_ia);
    frame[ADC_SEM_UA] = adc_cal_apply(ADC_SEM_UA, ci_ua);
    frame[ADC_SEM_UN] = adc_cal_apply(ADC_SEM_UN, ci_un);
    for (c = 0u; c < (uint8_t)ADC_SEM_COUNT; c++) {
        if ((c != (uint8_t)ADC_SEM_IA) && (c != (uint8_t)ADC_SEM_UA) &&
                (c != (uint8_t)ADC_SEM_UN)) {
            frame[c] = adc_cal_apply((adc_semantic_t)c, 0L);
        }
    }
    (void)sample_ring_push_frame(frame, (uint8_t)ADC_SEM_COUNT);
    phasor_run();
    freq_run();
    prot_elm_run(s_t);
    s_t++;
}

/* TC 起手：定值/元件全复位 + 标定注入（set 正规路径）+ 中性 45 拍收敛 */
static void dim_setup(void) {
    prot_set_init();
    adc_cal_init();
    (void)adc_cal_set(ADC_SEM_UA, K_DIM, 0L);
    (void)adc_cal_set(ADC_SEM_UN, K_DIM, 0L);
    (void)adc_cal_set(ADC_SEM_IA, K_DIM, B_IA_DIM);
    prot_elm_init();
}

static void set_en(prot_set_id_t id, int on) {
    (void)prot_set_set(id, PROT_SET_Q10(on ? 1.0 : 0.0));
}

/* 只留一个电气量元件家族：默认全 EN=1，逐个关到只剩目标 */
static void isolate_oc_family(void) {
    set_en(PS_OC1_EN, 1); set_en(PS_OC2_EN, 0); set_en(PS_OC3_EN, 0);
    set_en(PS_OL_EN, 0);  set_en(PS_OV_EN, 0);  set_en(PS_UV_EN, 0);
    set_en(PS_3U0_EN, 0);
}

static int pick_of(prot_elm_id_t e) {
    prot_elm_state_t st;
    prot_elm_state(e, &st);
    return (st.picked != 0u) ? 1 : 0;
}

static int assert_of(prot_elm_id_t e) {
    prot_elm_state_t st;
    prot_elm_state(e, &st);
    return (st.asserted != 0u) ? 1 : 0;
}

/* 把 IA 拉到 far_below 收敛 45 拍（确保 picked 干净归零、t0 无效） */
static void settle_oc(double ia_rms, uint32_t beats) {
    uint32_t i;
    for (i = 0u; i < beats; i++) { dim_beat(ia_rms, 100.0, 0.0); }
}

/* ===================== TC-PROTDIM-001 标定链基线 ===================== */
static void tc_001_baseline(void) {
    phasor_t p;
    double   want_rms;
    double   got;
    uint32_t i;
    int      quiet = 1;

    printf("[TC-PROTDIM-001] calibrated chain baseline: no element moves\n");
    dim_setup();
    for (i = 0u; i < 60u; i++) { dim_beat(0.5, 100.0, 0.0); }

    /* 换算链可验证：C01-IA（idx0）有效值 = 注入 0.5 A ±0.5 %
     * （b=-30 码应被 apply 精确对消；若折算丢失，这里会是 ~700 量级码值） */
    want_rms = 0.5;
    CHECK(phasor_get(0u, &p) == 0, "001: C01-IA phasor ready");
    got = (double)p.fAmSQ;
    CHECK((got > want_rms * 0.995) && (got < want_rms * 1.005),
          "001: IA rms = 0.5 A (secondary domain, b cancelled)");

    for (i = 0u; i < (uint32_t)PE_OC1; i++) {
        if ((pick_of((prot_elm_id_t)i) != 0) || (assert_of((prot_elm_id_t)i) != 0)) {
            quiet = 0;
        }
    }
    CHECK(quiet, "001: OC1/OC2/OC3/OL/OV/UV/3U0 all silent at 0.5A/100V/0V");
    CHECK(prot_elm_active_mask() == 0u, "001: active mask 0");
}

/* ===================== TC-PROTDIM-002 反错配对照 ===================== */
static void tc_002_mismatch_trap(void) {
    float   raw[ADC_SEM_COUNT];
    uint32_t i;

    printf("[TC-PROTDIM-002] raw-codes-as-engineering trap / apply guard\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_OC2_EN, 0);

    /* (a) 复现历史事故：把"码值本身"当工程量灌环（等价于折算点被旁路）。
     *     3.36 A 物理电流的码值 ~672 → 比 OC1(10 A) → 必假动作 */
    for (i = 0u; i < (uint32_t)ADC_SEM_COUNT; i++) {
        raw[i] = 0.0f;
    }
    for (i = 0u; i < 45u; i++) {
        double s50 = sin(2.0 * 3.14159265358979 * 50.0 * (double)s_t / 1000.0);
        raw[ADC_SEM_IA] = (float)((double)dim_code(3.36 * 1.4142135623730951 * s50,
                                                   (double)B_IA_DIM));
        (void)sample_ring_push_frame(raw, (uint8_t)ADC_SEM_COUNT);
        phasor_run();
        prot_elm_run(s_t);
        s_t++;
    }
    CHECK((pick_of(PE_OC1) != 0) && (assert_of(PE_OC1) != 0),
          "002a: raw code domain falsely trips OC1 (documents the incident)");

    /* (b) 同一物理量经正规折算链：3.36 A < 10 A → 必须静默。
     *     （若生产链有人绕过 adc_cal_apply，本断言与 001 一起翻红） */
    for (i = 0u; i < 45u; i++) { dim_beat(3.36, 100.0, 0.0); }
    CHECK((pick_of(PE_OC1) == 0) && (assert_of(PE_OC1) == 0),
          "002b: same physical current via apply() stays silent");
}

/* ===================== TC-PROTDIM-003 OC1：滞回 + dly0 ===================== */
static void tc_003_oc1(void) {
    printf("[TC-PROTDIM-003] OC1 10A/dly0 hysteresis\n");
    dim_setup();
    isolate_oc_family();

    settle_oc(3.0, 45u);
    settle_oc(9.995, 45u);
    CHECK(pick_of(PE_OC1) == 0, "003: 9.995 A below set: no pickup");

    settle_oc(10.5, 45u);
    CHECK((pick_of(PE_OC1) != 0) && (assert_of(PE_OC1) != 0),
          "003: 10.5 A -> picked AND asserted (dly=0 same-beat)");

    settle_oc(9.6, 45u);
    CHECK((pick_of(PE_OC1) != 0) && (assert_of(PE_OC1) != 0),
          "003: 9.6 A inside hysteresis (ret=9.5): holds");

    settle_oc(9.49, 45u);
    CHECK((pick_of(PE_OC1) == 0) && (assert_of(PE_OC1) == 0),
          "003: 9.49 A below return threshold: drops out");
}

/* 过量定时限通用核：启动拍受控（先远低收敛），到点前后各验一次 */
static void timed_over_case(prot_elm_id_t e, prot_set_id_t cur_id, double trip,
                            double hold, double drop, float dly_ms,
                            const char *tag) {
    uint32_t t_pick = 0u;
    uint32_t i;
    uint32_t settle;
    char     nm[96];
    int      pre_ok = 1, post_ok = 0, hold_ok = 0, drop_ok = 0, trip_ok = 0;

    (void)cur_id;
    (void)tag;
    /* 1) 远低收敛；2) 阶跃到 trip，逐拍轮询到 picked（记录启动拍） */
    for (i = 0u; i < 45u; i++) { dim_beat(0.1 * trip, 100.0, 0.0); }
    for (i = 0u; i < 400u; i++) {
        dim_beat(trip, 100.0, 0.0);
        if (pick_of(e) != 0) { t_pick = s_t - 1u; trip_ok = 1; break; }
    }
    if (trip_ok == 0) {
        (void)snprintf(nm, sizeof(nm), "%s: step to trip level picks up", tag);
        CHECK(0, nm);
        return;
    }
    /* 3) 到点前 2 ms 不许动作、到点后 2 ms 必须动作（同幅值持续注入） */
    settle = 0u;
    for (i = t_pick; i < (t_pick + (uint32_t)dly_ms - 2u); i++) {
        dim_beat(trip, 100.0, 0.0);
        settle++;
    }
    (void)settle;
    if (assert_of(e) != 0) { pre_ok = 0; }
    for (i = 0u; i < 5u; i++) { dim_beat(trip, 100.0, 0.0); }
    post_ok = assert_of(e);

    (void)snprintf(nm, sizeof(nm), "%s: no assert before setpoint-2ms", tag);
    CHECK(pre_ok != 0 && post_ok != 0, nm);

    /* 4) 返回系数滞回带内保持、跌破释放 */
    for (i = 0u; i < 45u; i++) { dim_beat(hold, 100.0, 0.0); }
    hold_ok = (pick_of(e) != 0) && (assert_of(e) != 0);
    for (i = 0u; i < 45u; i++) { dim_beat(drop, 100.0, 0.0); }
    drop_ok = (pick_of(e) == 0) && (assert_of(e) == 0);

    (void)snprintf(nm, sizeof(nm), "%s: holds inside return band", tag);
    CHECK(hold_ok != 0, nm);
    (void)snprintf(nm, sizeof(nm), "%s: returns below return threshold", tag);
    CHECK(drop_ok != 0, nm);
}

/* ===================== TC-PROTDIM-004~006 OC2/OC3/OL ===================== */
static void tc_004_oc2(void) {
    printf("[TC-PROTDIM-004] OC2 5A/500ms timed+return\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_OC2_EN, 1);
    timed_over_case(PE_OC2, PS_OC2_CUR, 6.0, 4.8, 4.6, 500.0f, "004:OC2");
}

static void tc_005_oc3(void) {
    printf("[TC-PROTDIM-005] OC3 2A/3000ms timed+return\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_OC3_EN, 1);
    timed_over_case(PE_OC3, PS_OC3_CUR, 2.1, 1.95, 1.89, 3000.0f, "005:OC3");
}

static void tc_006_ol(void) {
    printf("[TC-PROTDIM-006] OL 1A/10s timed+return\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_OL_EN, 1);
    timed_over_case(PE_OL, PS_OL_CUR, 1.05, 0.96, 0.93, 10000.0f, "006:OL");
}

/* ===================== TC-PROTDIM-007 OV（电压域走 UA） ===================== */
static void tc_007_ov(void) {
    uint32_t t_pick = 0u;
    uint32_t i;
    int ok;

    printf("[TC-PROTDIM-007] OV 120V/10s (UA secondary domain)\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_OV_EN, 1);

    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 100.0, 0.0); }
    CHECK(pick_of(PE_OV) == 0, "007: nominal 100 V silent");
    for (i = 0u; i < 400u; i++) {
        dim_beat(0.0, 121.0, 0.0);
        if (pick_of(PE_OV) != 0) { t_pick = s_t - 1u; break; }
    }
    CHECK(pick_of(PE_OV) != 0, "007: 121 V picks up");
    for (i = t_pick; i < (t_pick + 9998u); i++) { dim_beat(0.0, 121.0, 0.0); }
    ok = (assert_of(PE_OV) == 0);
    for (i = 0u; i < 5u; i++) { dim_beat(0.0, 121.0, 0.0); }
    CHECK((ok != 0) && (assert_of(PE_OV) != 0),
          "007: asserts exactly at +10000ms window (not earlier)");
    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 115.0, 0.0); }
    CHECK(assert_of(PE_OV) != 0, "007: 115 V holds (ret=114)");
    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 113.0, 0.0); }
    CHECK((pick_of(PE_OV) == 0) && (assert_of(PE_OV) == 0),
          "007: 113 V returns");
}

/* ===================== TC-PROTDIM-008 UV（欠量方向） ===================== */
static void tc_008_uv(void) {
    uint32_t t_pick = 0u;
    uint32_t i;
    int ok;

    printf("[TC-PROTDIM-008] UV 20V/10s under-direction\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_UV_EN, 1);

    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 21.0, 0.0); }
    CHECK(pick_of(PE_UV) == 0, "008: 21 V above set(20): silent");
    for (i = 0u; i < 400u; i++) {
        dim_beat(0.0, 19.9, 0.0);
        if (pick_of(PE_UV) != 0) { t_pick = s_t - 1u; break; }
    }
    CHECK(pick_of(PE_UV) != 0, "008: 19.9 V picks up");
    for (i = t_pick; i < (t_pick + 9998u); i++) { dim_beat(0.0, 19.9, 0.0); }
    ok = (assert_of(PE_UV) == 0);
    for (i = 0u; i < 5u; i++) { dim_beat(0.0, 19.9, 0.0); }
    CHECK((ok != 0) && (assert_of(PE_UV) != 0), "008: asserts at +10000ms");
    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 20.5, 0.0); }
    CHECK(assert_of(PE_UV) != 0, "008: 20.5 V holds under return(21)");
    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 21.6, 0.0); }
    CHECK((pick_of(PE_UV) == 0) && (assert_of(PE_UV) == 0), "008: 21.6 V returns");
}

/* ===================== TC-PROTDIM-009 3U0（UN 通道） ===================== */
static void tc_009_3u0(void) {
    uint32_t t_pick = 0u;
    uint32_t i;
    int ok;

    printf("[TC-PROTDIM-009] 3U0 15V/5s via UN channel\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_3U0_EN, 1);

    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 100.0, 14.0); }
    CHECK(pick_of(PE_3U0) == 0, "009: 14 V below set(15): silent");
    for (i = 0u; i < 400u; i++) {
        dim_beat(0.0, 100.0, 15.1);
        if (pick_of(PE_3U0) != 0) { t_pick = s_t - 1u; break; }
    }
    CHECK(pick_of(PE_3U0) != 0, "009: 15.1 V picks up");
    for (i = t_pick; i < (t_pick + 4998u); i++) { dim_beat(0.0, 100.0, 15.1); }
    ok = (assert_of(PE_3U0) == 0);
    for (i = 0u; i < 5u; i++) { dim_beat(0.0, 100.0, 15.1); }
    CHECK((ok != 0) && (assert_of(PE_3U0) != 0), "009: asserts at +5000ms");
    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 100.0, 14.4); }
    CHECK(assert_of(PE_3U0) != 0, "009: 14.4 V holds (ret=14.25)");
    for (i = 0u; i < 45u; i++) { dim_beat(0.0, 100.0, 14.1); }
    CHECK((pick_of(PE_3U0) == 0) && (assert_of(PE_3U0) == 0), "009: 14.1 V returns");
}

/* ===================== TC-PROTDIM-010 聚合位图与独立性 ===================== */
static void tc_010_mask(void) {
    uint32_t i;

    printf("[TC-PROTDIM-010] dual assert mask independence\n");
    dim_setup();
    isolate_oc_family();
    set_en(PS_OV_EN, 1);
    (void)prot_set_set(PS_OV_DLY, PROT_SET_Q10(0.0));   /* 同拍聚合，聚焦位图 */

    for (i = 0u; i < 45u; i++) { dim_beat(10.5, 121.0, 0.0); }
    CHECK((assert_of(PE_OC1) != 0) && (assert_of(PE_OV) != 0),
          "010: OC1+OV both asserted");
    CHECK(prot_elm_active_mask() == ((1uL << PE_OC1) | (1uL << PE_OV)),
          "010: active mask = bit0|bit4 exactly");

    for (i = 0u; i < 45u; i++) { dim_beat(3.0, 121.0, 0.0); }
    CHECK((assert_of(PE_OC1) == 0) && (assert_of(PE_OV) != 0),
          "010: IA withdrawn -> OC1 returns, OV untouched");
    CHECK(prot_elm_active_mask() == (1uL << PE_OV), "010: mask = OV only");
}

/* ===================== TC-PROTDIM-011 变比确实进折算 ===================== */
/* 这条是「r 进折算」的反错配锁：配置段里写着 1000.0 还不够，必须证明它真的
 * 乘进了 adc_cal_apply——否则 r 就退化成「只存在配置里的一个数」，屏上与判据
 * 都会拿着引脚电压冒充二次值。手法：同一批码值，只改 IA 的变比，OC 判据
 * 收到的量必须恰好放大 1000 倍（期望值独立写出，不引实现常量）。 */
static void tc_011_ratio_scales(void) {
    uint32_t i;
    double   got;

    printf("[TC-PROTDIM-011] ratio enters apply(): 1000x on IA trips OC1\n");
    dim_setup();
    isolate_oc_family();          /* 只留 OC1（10 A，dly=0 出厂档） */

    /* 基线：合成口径 r = 1.0 -> 0.5 A 远低于 OC1 定值，静默 */
    for (i = 0u; i < 45u; i++) { dim_beat(0.5, 100.0, 0.0); }
    CHECK((pick_of(PE_OC1) == 0) && (assert_of(PE_OC1) == 0),
          "011: r = 1.0 -> 0.5 A silent (baseline)");

    /* 把 IA 变比改成 1000.0（Q16 = 1000 x 65536）：同一码值，折算输出 x1000 */
    CHECK(adc_cal_set_ratio(ADC_SEM_IA, 65536000L) == 0, "011: IA ratio set to 1000.0");
    got = (double)adc_cal_apply(ADC_SEM_IA, dim_code(0.5, (double)B_IA_DIM));
    CHECK((got > 0.5 * 1000.0 * 0.999) && (got < 0.5 * 1000.0 * 1.001),
          "011: apply(code for 0.5 A) = 500 A (ratio really multiplies)");

    /* 同一物理注入现在应顶穿 OC1(10 A) —— 变比真到了判据手里 */
    for (i = 0u; i < 5u; i++) { dim_beat(0.5, 100.0, 0.0); }
    CHECK((pick_of(PE_OC1) != 0) && (assert_of(PE_OC1) != 0),
          "011: same 0.5 A now trips OC1(10 A) -> ratio reached the criteria");

    /* 改回 1.0：判据看到的又只是 0.5 A，应当返回 */
    CHECK(adc_cal_set_ratio(ADC_SEM_IA, 65536L) == 0, "011: IA ratio back to 1.0");
    for (i = 0u; i < 45u; i++) { dim_beat(0.5, 100.0, 0.0); }
    CHECK((pick_of(PE_OC1) == 0) && (assert_of(PE_OC1) == 0),
          "011: ratio back to 1.0 -> OC1 returns (the effect is reversible)");
}

int main(void) {
    printf("=== Prot Dim Regression Tests ===\n");
    adc_cal_init();          /* 先把 RAM 系数置成合成 ROM（各 TC 内还会重跑） */
    tc_001_baseline();
    tc_002_mismatch_trap();
    tc_003_oc1();
    tc_004_oc2();
    tc_005_oc3();
    tc_006_ol();
    tc_007_ov();
    tc_008_uv();
    tc_009_3u0();
    tc_010_mask();
    tc_011_ratio_scales();
    printf("\n=== Prot Dim Regression Tests: %d/%d PASSED (failed=%d) ===\n",
           s_passed, s_total, s_failed);
    return (s_failed == 0) ? 0 : 1;
}