hpm6750/controller_yy_app/software/soft_flash.c

#include "soft_flash.h"
#include "auto_pilot.h"
#include "bsp_V8M_flash.h"
#include "control_rate.h"
#include "control_throttle.h"
#include "data_save.h"
#include "gcs_vklink_v30.h"
#include "geomatry.h"
#include "my_math.h"
#include "params.h"
#include "pilot_navigation.h"
#include "soft_delay.h"
#include "soft_gs.h"
#include "soft_motor_output.h"
#include "soft_port_uart4.h"
#include "soft_rc_input.h"
#include "soft_time.h"
#include "ver_config.h"
#include "bsp_V8M_YY_pwm.h"
#include "hard_system.h"
#include <string.h>
#include "test.h"

#ifdef GD25Q16_FLASH
#include "hard_flash_gd25q16.h"
#else
#include "hard_flash_at45db.h"
#endif
/**
 * @brief flash 接口初始化
 *
 */
void flash_at45db_initial(void) { flash_at45db_init(); }

/**
 * @brief 检查 flash 是否挂载
 *
 * @return true 已挂载
 * @return false 不存在
 */
bool flash_isexist(void)
{
    if (AT45DB_Check() == 0)
        return false;
    else
        return true;
}

/**
 * @brief 检查 flash 是否正在忙
 *
 * @return true 正在忙
 * @return false 可用
 */
bool flash_isbusy(void)
{
    if (AT45DB_IS_BUSY() == 0)
        return true;
    else
        return false;
}

/**
 * @brief flash 读取指定地址的 n bytes 数据
 *
 * @param add 要读取的地址
 * @param pdata 读出数据存放的 buffer 指针
 * @param len 读取的字节数
 */
void flash_read_bytes(unsigned int add, unsigned char *pdata,
                      unsigned short len)
{
    AT45DB_Read_Bytes(add, pdata, len);
}

/**
 * @brief flash 指定地址写入 n bytes 的数据
 *
 * @param add 要写入的地址
 * @param pdata 指向待写入的数据的指针
 * @param len 待写入的字节数
 */
void flash_write_bytes(unsigned int add, unsigned char *pdata,
                       unsigned short len)
{
    AT45DB_Write_Bytes(add, pdata, len);
}

/**
 * @brief flash 读取一个 int16 数据
 *
 * @param add 读取的地址
 * @return short 读取的数据
 */
short flash_read_int16(unsigned int add) { return AT45DB_Read_int16(add); }

/**
 * @brief flash 写入一个 int16 数据
 *
 * @param add 写入的地址
 * @param wvalue 待写入的数据
 */
void flash_write_int16(unsigned int add, short wvalue)
{
    AT45DB_Write_int16(add, wvalue);
}

void flash_read_page(uint16_t Page_Add, uint8_t *pdata)
{
    AT45DB_ReadPage(Page_Add, pdata);
}
void flash_write_page(uint16_t page, uint8_t *Data)
{
    AT45DB_WritePage(page, Data);
}

void flash_write_bytes_ononepage(uint16_t page, uint8_t *pdata, uint16_t len)
{
    AT45DB_WriteBytes_OnOnePage(page, pdata, len);
}

// @brief 装载默认的 PID 参数
void load_default_pidinf(void)
{
    unsigned char i = 0;

    pidinf._pid_flag = (int16_t)0xA12A;

    pidinf._Roll_Angle_P = 450;
    pidinf._Roll_Gyro_P = 60;
    pidinf._Roll_Gyro_I = 5;
    pidinf._Roll_Gyro_D = 5;
    pidinf._Roll_Gyro_Imax = 150;

    pidinf._Pitch_Angle_P = 450;
    pidinf._Pitch_Gyro_P = 60;
    pidinf._Pitch_Gyro_I = 5;
    pidinf._Pitch_Gyro_D = 5;
    pidinf._Pitch_Gyro_Imax = 150;

    pidinf._Yaw_Angle_P = 450;
    pidinf._Yaw_Gyro_P = 350;
    pidinf._Yaw_Gyro_I = 10;
    pidinf._Yaw_Gyro_D = 0;
    pidinf._Yaw_Gyro_Imax = 150;

    pidinf._AltHold_Dist_P = 60;
    pidinf._AltHold_Speed_P = 350;
    pidinf._AltHold_Acc_P = 25;
    pidinf._AltHold_Acc_I = 15;
    pidinf._AltHold_Acc_Imax = 200;

    pidinf._Loiter_Dist_P = 70;
    pidinf._Loiter_Speed_P = 120;
    pidinf._Loiter_Acc_P = 40;
    pidinf._Loiter_Acc_I = 20;
    pidinf._Loiter_Brake_Gyro = 20;

    for (i = 0; i < RC_CALIB_CH_NUM; i++)
    {
        pidinf._rc_cal_offset[i] = 1500;      // 初始中立值 1500
        pidinf._rc_cal_factor_up[i] = 1000;   // 初始补偿因数1000   /1000 = 1
        pidinf._rc_cal_factor_down[i] = 1000; // 初始补偿因数1000   /1000 = 1
    }
}

// @brief flash 读取 pid 参数信息
void flash_read_pidinf(void)
{
    unsigned char i = 0;
    // unsigned int testi[2] = {0};
    // testi[0] = 0x12345678;
    // testi[1] = 0x12345678;

    // flash_write_bytes(pidinf_addr, (uint8_t*)&testi, sizeof(testi));
    flash_read_bytes(pidinf_addr, (uint8_t *)&pidinf, sizeof(pidinf));
    if (pidinf._pid_flag != (int16_t)0xA12A)
    {                          // 配置表是否有效？
        load_default_pidinf(); // 装载默认的配置，并写入Flash
        flash_write_bytes(pidinf_addr, (uint8_t *)&pidinf, sizeof(pidinf));
    }

    pid_v_roll.angle_p = pidinf._Roll_Angle_P / 100.0f; // 1.2
    pid_v_roll.gyro_p = pidinf._Roll_Gyro_P / 100.0f; // 4.5
    pid_v_roll.gyro_i = 0.05f;
    pid_v_roll.gyro_d = pidinf._Roll_Gyro_D / 100.0f; // 0.06
    pid_v_roll.gyro_imax = 150.0f;

    pid_v_pitch.angle_p = pidinf._Pitch_Angle_P / 100.0f;
    pid_v_pitch.gyro_p = pidinf._Pitch_Gyro_P / 100.0f;
    pid_v_pitch.gyro_i = 0.05f;
    pid_v_pitch.gyro_d = pidinf._Pitch_Gyro_D / 100.0f;
    pid_v_pitch.gyro_imax = 150.0f;

    pid_v_yaw.angle_p = pidinf._Yaw_Angle_P / 100.0f;
    pid_v_yaw.gyro_p = pidinf._Yaw_Gyro_P / 100.0f;
    pid_v_yaw.gyro_i = 0.10f;
    pid_v_yaw.gyro_d = pidinf._Yaw_Gyro_D / 100.0f;
    pid_v_yaw.gyro_imax = 150.0f;

    pid_v_alt.dist_p = pidinf._AltHold_Dist_P / 100.0f;
    pid_v_alt.speed_p = pidinf._AltHold_Speed_P / 100.0f;
    pid_v_alt.acc_p = pidinf._AltHold_Acc_P / 100.0f;
    pid_v_alt.acc_i = pidinf._AltHold_Acc_I / 100.0f;
    pid_v_alt.brake_gyro = pidinf._AltHold_Acc_Imax / 10.0f;

    pid_v_pos.dist_p = pidinf._Loiter_Dist_P / 100.0f;
    pid_v_pos.speed_p = pidinf._Loiter_Speed_P / 100.0f;
    pid_v_pos.acc_p = pidinf._Loiter_Acc_P / 100.0f;
    pid_v_pos.acc_i = pidinf._Loiter_Acc_I / 100.0f;
    pidinf._Loiter_Brake_Gyro =
        constrain_int16(pidinf._Loiter_Brake_Gyro, 10, 50);
    pid_v_pos.brake_gyro = pidinf._Loiter_Brake_Gyro / 10.0f;

    // 如果中立位值超过范围，视为错误，恢复默认值
    if (((pidinf._rc_cal_offset[RC_ROLL] > 1800) ||
         (pidinf._rc_cal_offset[RC_ROLL] < 1200)) ||
        ((pidinf._rc_cal_offset[RC_PITCH] > 1800) ||
         (pidinf._rc_cal_offset[RC_PITCH] < 1200)) ||
        ((pidinf._rc_cal_offset[RC_THR] > 1800) ||
         (pidinf._rc_cal_offset[RC_THR] < 1200)) ||
        ((pidinf._rc_cal_offset[RC_YAW] > 1800) ||
         (pidinf._rc_cal_offset[RC_YAW] < 1200)))
    {
        for (i = 0; i < RC_CALIB_CH_NUM; i++)
        {
            rc_cal_offset[i] = 1500;
            rc_cal_factor_up[i] = 1000;
            rc_cal_factor_down[i] = 1000;
        }
    }
    else
    {
        for (i = 0; i < RC_CALIB_CH_NUM; i++)
        {
            rc_cal_offset[i] = pidinf._rc_cal_offset[i];
            rc_cal_factor_up[i] = pidinf._rc_cal_factor_up[i];
            rc_cal_factor_down[i] = pidinf._rc_cal_factor_down[i];
        }
    }
}

// @brief flash 写入 pid 信息发
void flash_write_pidinf(void)
{
    unsigned char i = 0;

    pidinf._pid_flag = (int16_t)0xA12A; // 数据有效标志

    //================数据赋值部分=============
    pid_v_roll.angle_p = pidinf._Roll_Angle_P / 100.0f;
    pid_v_roll.gyro_p = pidinf._Roll_Gyro_P / 100.0f;
    pid_v_roll.gyro_i = 0.05f;
    pid_v_roll.gyro_d = pidinf._Roll_Gyro_D / 100.0f;
    pid_v_roll.gyro_imax = 150.0f;

    pid_v_pitch.angle_p = pidinf._Pitch_Angle_P / 100.0f;
    pid_v_pitch.gyro_p = pidinf._Pitch_Gyro_P / 100.0f;
    pid_v_pitch.gyro_i = 0.05f;
    pid_v_pitch.gyro_d = pidinf._Pitch_Gyro_D / 100.0f;
    pid_v_pitch.gyro_imax = 150.0f;

    pid_v_yaw.angle_p = pidinf._Yaw_Angle_P / 100.0f;
    pid_v_yaw.gyro_p = pidinf._Yaw_Gyro_P / 100.0f;
    pid_v_yaw.gyro_i = 0.10f;
    pid_v_yaw.gyro_d = pidinf._Yaw_Gyro_D / 100.0f;
    pid_v_yaw.gyro_imax = 150.0f;

    pid_v_alt.dist_p = pidinf._AltHold_Dist_P / 100.0f;
    pid_v_alt.speed_p = pidinf._AltHold_Speed_P / 100.0f;
    pid_v_alt.acc_p = pidinf._AltHold_Acc_P / 100.0f;
    pid_v_alt.acc_i = pidinf._AltHold_Acc_I / 100.0f;
    pid_v_alt.brake_gyro = pidinf._AltHold_Acc_Imax / 10.0f;

    pid_v_pos.dist_p = pidinf._Loiter_Dist_P / 100.0f;
    pid_v_pos.speed_p = pidinf._Loiter_Speed_P / 100.0f;
    pid_v_pos.acc_p = pidinf._Loiter_Acc_P / 100.0f;
    pid_v_pos.acc_i = pidinf._Loiter_Acc_I / 100.0f;
    pidinf._Loiter_Brake_Gyro =
        constrain_int16(pidinf._Loiter_Brake_Gyro, 10, 50);
    pid_v_pos.brake_gyro = pidinf._Loiter_Brake_Gyro / 10.0f;
    //====================================================

    for (i = 0; i < RC_CALIB_CH_NUM; i++)
    {
        pidinf._rc_cal_offset[i] = rc_cal_offset[i];
        pidinf._rc_cal_factor_up[i] = rc_cal_factor_up[i];
        pidinf._rc_cal_factor_down[i] = rc_cal_factor_down[i];
    }

    if (thr_lock_status == LOCKED)
    {
        flash_write_bytes(pidinf_addr, (uint8_t *)&pidinf, sizeof(pidinf));
    }
    else
    {
        return;
    }
}

// @brief 装载默认的版本信息
void load_default_verinf(void)
{
    verinf._ver_flag = (int16_t)0xA11A;

    memcpy(verinf._ap_name, NM_VER, sizeof(verinf._ap_name));
    verinf._serial_id = 001;

    verinf._sysid = 0;
}

// @brief flash 读取版本信息
void flash_read_verinf(void)
{
    flash_read_bytes(verinf_addr, (uint8_t *)&verinf, sizeof(verinf));
    if (verinf._ver_flag != (int16_t)0xA11A)
    {                          // 配置表是否有效？
        load_default_verinf(); // 装载默认的配置，并写入Flash
        flash_write_bytes(verinf_addr, (uint8_t *)&verinf, sizeof(verinf));
    }

    memcpy(ver_par.ap_name, verinf._ap_name, sizeof(verinf._ap_name));
    ver_par.serial_id = verinf._serial_id;

    ver_par.hardware_id = HW_VER;
    ver_par.firmware_id = FW_VER;
}

// @brief flash 写入版本信息
void flash_write_verinf(void)
{
    verinf._ver_flag = (int16_t)0xA11A; // 数据有效标志

    //==================数据赋值部分===============
    memcpy(ver_par.ap_name, verinf._ap_name, sizeof(verinf._ap_name));
    ver_par.serial_id = verinf._serial_id;

    ver_par.hardware_id = HW_VER;
    ver_par.firmware_id = FW_VER;
    //==============================================

    flash_write_bytes(verinf_addr, (uint8_t *)&verinf, sizeof(verinf));
}

// @brief 装载默认的机型配置信息
void load_default_confinf(void)
{
    confinf._conf_flag = (int16_t)0xA14A;

    confinf._jixing = 42;         // 默认机型为4旋翼X型
    confinf._lowvolt_flag = 2;    // 默认一级电压保护返航
    confinf._lowvolt_value = 111; // 11.1V
    confinf._lowvolt_flag2 = 3;
    confinf._lowvolt_value2 = 0;
    confinf._lostlink_time = 0;        // 默认不开启，失去联系 返航 单位s
    confinf._circle_radius = 12;       // 默认盘旋半径12m
    confinf._takeoff_alt = 5;          // 默认起飞高度5m
    confinf._rth_alt = 10;             // 默认返航高度10m
    confinf._mag_offset = 0;           // 默认磁偏角补偿0
    confinf._enable_infrared = 10;     // 默认雷达灵敏度10
    confinf._idle_speed_level = 2;     // 默认怠速2档 1150
    confinf._port4_af_function = 0;    // 默认串口 4 复用功能透传
    confinf._rc_fail_loiter_time = 10; // 默认遥控器失控后的悬停时间 10s
}

// @brief flash 读取机型配置信息
void flash_read_confinf(void)
{
    flash_read_bytes(confinf_addr, (uint8_t *)&confinf, sizeof(confinf));
    if (confinf._conf_flag != (int16_t)0xA14A)
    {                           // 配置表是否有效？
        load_default_confinf(); // 装载默认的配置，并写入Flash
        flash_write_bytes(confinf_addr, (uint8_t *)&confinf, sizeof(confinf));
    }

    conf_par.jixing = confinf._jixing;
    conf_par.lowvolt_flag = confinf._lowvolt_flag;
    conf_par.lowvolt_value = confinf._lowvolt_value;
    conf_par.lostlink_time = confinf._lostlink_time;
    conf_par.circle_radius = confinf._circle_radius * 100;
    // 环绕半径不小于500cm
    if (conf_par.circle_radius < 500)
    {
        conf_par.circle_radius = 500;
    }
    conf_par.rth_alt_cm = confinf._rth_alt * 100;
    conf_par.takeoff_alt_cm = confinf._takeoff_alt * 100;
    conf_par.mag_offset = confinf._mag_offset;
    conf_par.enable_infrared = confinf._enable_infrared;

    // 根据怠速级别设置怠速数值
    if (confinf._idle_speed_level >= 1 && confinf._idle_speed_level <= 5)
        conf_par.idle_speed = 1050 + (confinf._idle_speed_level - 1) * 50;
    else
    {
        conf_par.idle_speed = 1100;
        confinf._idle_speed_level = 2;
    }
    conf_par.port4_af_function = confinf._port4_af_function;
    // conf_par.dpgs_direction = confinf._dgps_direction;
    conf_par.lowvolt_flag2 = confinf._lowvolt_flag2;
    conf_par.lowvolt_value2 = confinf._lowvolt_value2;
    conf_par.rc_fail_loiter_time = confinf._rc_fail_loiter_time;
}

// @brief flash 写入机型配置信息
void flash_write_confinf(void)
{
    confinf._conf_flag = (int16_t)0xA14A; // 数据有效标志

    //===============数据赋值部分=======================
    conf_par.jixing = confinf._jixing;
    conf_par.lowvolt_flag = confinf._lowvolt_flag;
    conf_par.lowvolt_value = confinf._lowvolt_value;
    conf_par.lostlink_time = confinf._lostlink_time;
    conf_par.circle_radius = confinf._circle_radius * 100;
    // 环绕半径不小于500cm
    if (conf_par.circle_radius < 500)
    {
        conf_par.circle_radius = 500;
    }
    conf_par.rth_alt_cm = confinf._rth_alt * 100;
    conf_par.takeoff_alt_cm = confinf._takeoff_alt * 100;
    conf_par.mag_offset = confinf._mag_offset;
    conf_par.enable_infrared = confinf._enable_infrared;
    // 根据怠速级别设置怠速数值
    if (confinf._idle_speed_level >= 1 && confinf._idle_speed_level <= 5)
        conf_par.idle_speed = 1050 + (confinf._idle_speed_level - 1) * 50;
    else
    {
        conf_par.idle_speed = 1100;
        confinf._idle_speed_level = 2;
    }

    // conf_par.center_compensation_x = confinf._center_compensation_x;
    // conf_par.center_compensation_y = confinf._center_compensation_y;
    // conf_par.center_compensation_z = confinf._center_compensation_z;
    conf_par.port4_af_function = confinf._port4_af_function;
    // conf_par.dpgs_direction = confinf._dgps_direction;
    //====================================================
    conf_par.lowvolt_flag2 = confinf._lowvolt_flag2;
    conf_par.lowvolt_value2 = confinf._lowvolt_value2;
    conf_par.rc_fail_loiter_time = confinf._rc_fail_loiter_time;

    flash_write_bytes(confinf_addr, (uint8_t *)&confinf, sizeof(confinf));
}


// @brief flash 写入自定义禁飞区信息
// @param custom_no_fly_zone_total_num 自定义禁飞区总条数
// @param current_no_fly_zone_num 要写入的禁飞区是第几条
// @param current_no_fly_zone_vertex_num 要写入的禁飞区的顶点个数
// @param *pdata 要写入的禁飞区顶点的坐标信息指针
void flash_write_custom_no_fly_zone(uint8_t custom_no_fly_zone_total_num,
                                    uint8_t current_no_fly_zone_num,
                                    uint8_t current_no_fly_zone_vertex_num,
                                    Coords3dint *pdata)
{
    static uint8_t write_buffer[SIZE_OF_ONE_NO_FLY_ZONE] = {0};

    uint16_t no_fly_zone_useable_flag = (uint16_t)0xACCA;
    uint16_t index = 0;
    uint32_t write_addr =
        NO_FLY_ZONE_ADDR + (current_no_fly_zone_num)*SIZE_OF_ONE_NO_FLY_ZONE;
    short2buf(&write_buffer[index], (short *)&no_fly_zone_useable_flag);
    index += sizeof(uint16_t);
    write_buffer[index++] = custom_no_fly_zone_total_num;
    write_buffer[index++] = current_no_fly_zone_vertex_num;
    if (current_no_fly_zone_vertex_num <= 8)
    {
        memcpy(&write_buffer[index], pdata,
               current_no_fly_zone_vertex_num * sizeof(Coords3dint));

        flash_write_bytes(write_addr, write_buffer, sizeof(write_buffer));
    }
}

// @brief flash 读取禁飞区信息
// @param read_no_fly_zone_num 要读取的禁飞区的序号 0 开始数
// @param *custom_no_fly_zone_total_num 读出来的禁飞区总个数
// @param *current_no_fly_zone_vertex_num 读出来的当前禁飞区顶点个数
// @param *pdata 读出来的顶点数据存放地址指针
static bool flash_read_custom_no_fly_zone(
    uint8_t read_no_fly_zone_num, uint8_t *custom_no_fly_zone_total_num,
    uint8_t *current_no_fly_zone_vertex_num, Coords3dint *pdata)
{
    uint32_t read_addr =
        NO_FLY_ZONE_ADDR + (read_no_fly_zone_num)*SIZE_OF_ONE_NO_FLY_ZONE;
    uint16_t useableFlag;
    // 预备存储读取出来的总条数，顶点数
    uint8_t totalNum, currentVertexNum;
    flash_read_bytes(read_addr, (uint8_t *)&useableFlag, sizeof(useableFlag));
    flash_read_bytes(read_addr + sizeof(useableFlag), &totalNum,
                     sizeof(totalNum));
    flash_read_bytes(read_addr + sizeof(useableFlag) + sizeof(totalNum),
                     &currentVertexNum, sizeof(currentVertexNum));
    // 如果存储有效
    if (useableFlag == 0xACCA && totalNum <= 5 && currentVertexNum <= 8)
    {
        // 如果是在读第一个位置存储的禁飞区，则更新一下自定义禁飞区的总条数
        if (read_no_fly_zone_num == 0)
        {
            *custom_no_fly_zone_total_num = totalNum;
        }
        // 更新一下自定义禁飞区的定点个数
        *current_no_fly_zone_vertex_num = currentVertexNum;
        // 读出顶点的坐标数据
        flash_read_bytes(read_addr + sizeof(useableFlag) + sizeof(totalNum) +
                             sizeof(currentVertexNum),
                         (uint8_t *)pdata,
                         currentVertexNum * sizeof(Coords3dint));
        return true;
    }
    else
    {
        useableFlag = 0x0000;
        flash_write_bytes(read_addr, (uint8_t *)&useableFlag,
                          sizeof(useableFlag));
        return false;
    }
}

/**
 * @brief 装载默认的 par 参数
 */
void load_default_parinf(void)
{
    parinf._par_flag = (int16_t)0xAAEE; // 数据有效标志
    parinf._par_maxangle = 25;          // 最大角度 30 deg
    parinf._par_maxhspeed = 80;         // GPS 推杆最大水平速度 dm/s
    parinf._par_maxupspeed = 40;        // GPS 推杆最大上升速度 dm/s
    parinf._par_maxdownspeed = 30;      // GPS 推杆最大下降速度 dm/s
    parinf._par_hover_throttle = 1400;  // 默认悬停油门
    parinf._par_alt_fs_rth = 2000;      // 高度限制，1级保护。返航
    parinf._par_alt_fs_land = 2500;     // 高度限制，2级保护。迫降
    parinf._par_maxyawrate = 30;        // 最大自动转航向角速度
    parinf._par_volt_offset[0] = 0;     // 底板电压采集有压降, 0.3v
    parinf._par_volt_offset[1] = 0;
    parinf._par_volt_offset[2] = 0;
    parinf._par_volt_offset_b[0] = 0; // 底板电压采集有压降, 0.3v
    parinf._par_volt_offset_b[1] = 0;
    parinf._par_volt_offset_b[2] = 0;
    parinf._fllow_dist = 10;
    // 自动模式最大爬升速率 dm/s
    parinf._par_max_climb_rate_automode = 20;
    // 自动模式最大下降目标速率 dm/s
    parinf._par_max_approach_rate_automode = 15;
    // 自动模式降落最小目标垂直速率 dm/s
    parinf._par_min_landing_rate_automode = 4;
    // 自动模式巡航最大水平速率 dm/s
    parinf._par_max_rth_horizontal_speed = 80;
    // 电压校准系数
    parinf._par_volt_kp[0] = 1000;
    parinf._par_volt_kp[1] = 1000;
    parinf._par_volt_kp[2] = 1000;
    // 最大水平加加速度
    parinf._max_hor_jet = 15;
    parinf._bms_low_capacity_percentage = 30;
    parinf._motor_failsafe_action = 0;
}

/**
 * @brief 从 flash 读取 par 参数
 */
void flash_read_parinf(void)
{
    flash_read_bytes(parinf_addr, (uint8_t *)&parinf, sizeof(parinf));
    if (parinf._par_flag != (int16_t)0xAAEE)
    {                          // 配置表是否有效？
        load_default_parinf(); // 装载默认的配置，并写入Flash
        flash_write_bytes(parinf_addr, (uint8_t *)&parinf, sizeof(parinf));
    }

    //=============数据赋值部分================
    if (params_get_value(ParamNum_APMaxTilteAngleDeg) < 15)
    {
        params_set_value(ParamNum_APMaxTilteAngleDeg, 15);
    }
    else if (params_get_value(ParamNum_APMaxTilteAngleDeg) > 45)
    {
        params_set_value(ParamNum_APMaxTilteAngleDeg, 45);
    }

    if (parinf._par_maxhspeed < 30)
    {
        parinf._par_maxhspeed = 30;
    }
    else if (parinf._par_maxhspeed > 150)
    {
        parinf._par_maxhspeed = 150;
    }

    // 对跟随距离做限制
    if (parinf._fllow_dist < 3)
    {
        parinf._fllow_dist = 3;
    }
    else if (parinf._fllow_dist > 100)
    {
        parinf._fllow_dist = 100;
    }

    // 最大自动目标爬升速率在 1~5 m/s
    if (parinf._par_max_climb_rate_automode < 10)
    {
        parinf._par_max_climb_rate_automode = 10;
    }
    else if (parinf._par_max_climb_rate_automode > 50)
    {
        parinf._par_max_climb_rate_automode = 50;
    }

    // 最大自动目标下降速率在 1~5 m/s
    if (parinf._par_max_approach_rate_automode < 10)
    {
        parinf._par_max_approach_rate_automode = 10;
    }
    else if (parinf._par_max_approach_rate_automode > 50)
    {
        parinf._par_max_approach_rate_automode = 50;
    }

    // 最小目标降落速度在 0.2 ~ 0.5 m/s
    if (parinf._par_min_landing_rate_automode < 2)
    {
        parinf._par_min_landing_rate_automode = 2;
    }
    else if (parinf._par_min_landing_rate_automode > 5)
    {
        parinf._par_min_landing_rate_automode = 5;
    }

    // 最大目标航线水平速度在 10~20 m/s
    if (parinf._par_max_rth_horizontal_speed < 20 ||
        parinf._par_max_rth_horizontal_speed > 300)
    {
        parinf._par_max_rth_horizontal_speed = 80;
    }

    if (parinf._max_hor_jet < 4 || parinf._max_hor_jet > 50)
    {
        parinf._max_hor_jet = 50;
    }

    //=========================================
}

/**************************实现函数********************************************
 *函数原型:		void flash_write_jfqinf(void)
 *功　　能:	    将当前的拍照参数设置保存到Flash，永久保存
 *******************************************************************************/
void flash_write_parinf(void)
{
    parinf._par_flag = (int16_t)0xAAEE; // 数据有效标志

    //=============数据赋值部分================

    if (params_get_value(ParamNum_APMaxTilteAngleDeg) < 15)
    {
        params_set_value(ParamNum_APMaxTilteAngleDeg, 15);
    }
    else if (params_get_value(ParamNum_APMaxTilteAngleDeg) > 45)
    {
        params_set_value(ParamNum_APMaxTilteAngleDeg, 45);
    }

    if (parinf._par_maxhspeed < 30)
    {
        parinf._par_maxhspeed = 30;
    }
    else if (parinf._par_maxhspeed > 150)
    {
        parinf._par_maxhspeed = 150;
    }

    // 对跟随距离做限制
    if (parinf._fllow_dist < 3)
    {
        parinf._fllow_dist = 3;
    }
    else if (parinf._fllow_dist > 100)
    {
        parinf._fllow_dist = 100;
    }

    // 最大自动目标爬升速率在 1~5 m/s
    if (parinf._par_max_climb_rate_automode < 10)
    {
        parinf._par_max_climb_rate_automode = 10;
    }
    else if (parinf._par_max_climb_rate_automode > 50)
    {
        parinf._par_max_climb_rate_automode = 50;
    }

    // 最大自动目标下降速率在 1~5 m/s
    if (parinf._par_max_approach_rate_automode < 10)
    {
        parinf._par_max_approach_rate_automode = 10;
    }
    else if (parinf._par_max_approach_rate_automode > 50)
    {
        parinf._par_max_approach_rate_automode = 50;
    }

    // 最小目标降落速度在 0.2 ~ 0.5 m/s
    if (parinf._par_min_landing_rate_automode < 2)
    {
        parinf._par_min_landing_rate_automode = 2;
    }
    else if (parinf._par_min_landing_rate_automode > 5)
    {
        parinf._par_min_landing_rate_automode = 5;
    }

    // 最大目标航线水平速度在 10~20 m/s
    if (parinf._par_max_rth_horizontal_speed < 20 ||
        parinf._par_max_rth_horizontal_speed > 300)
    {
        parinf._par_max_rth_horizontal_speed = 80;
    }

    if (parinf._max_hor_jet < 4 || parinf._max_hor_jet > 50)
    {
        parinf._max_hor_jet = 50;
    }

    flash_write_bytes(parinf_addr, (uint8_t *)&parinf, sizeof(parinf));
}


/**************************实现函数********************************************
*函数原型:		void initial_parameters(void)
*功　　能:	    初始化四轴的数据参数。
读取PID参数，以便在四轴控制中进行运算
*******************************************************************************/
void initial_parameters(void)
{
    // 读取PID参数
    flash_read_pidinf();

    // 读取飞控版本信息
    flash_read_verinf();

    // 读取机型配置信息
    flash_read_confinf();


    // 读取备用参数信息
    flash_read_parinf();
}

/* 需要记录参数的标志位 */
bool write_pid_information = false, write_conf_information = false,
     write_cam_information = false, write_ver_information = false,
      write_breakpoint_information = false,
     write_par_information = false, write_pos_information = false,
     write_postotal_information = false, write_iap_flag = false,
     write_rcfactor_flag = false, write_custom_noflyzone = false;

/**
 * @brief 参数写入 flash
 *
 */
void write_par_to_flash(void)
{

    if (thr_lock_status != LOCKED)
    {
        if (write_pid_information == true) // 写PID参数信息
        {
            // FLASH忙则先返回。
            flash_write_pidinf();
        }
        return;
    }

    if (write_pid_information == true) // 写PID参数信息
    {
        // FLASH忙则先返回。
        if (flash_isbusy())
            return;
        flash_write_pidinf();
        write_pid_information = false;
    }
    else if (write_ver_information == true) // 写版本信息
    {
        // FLASH忙则先返回。
        if (flash_isbusy())
            return;
        flash_write_verinf();
        write_ver_information = false;
    }
    else if (write_conf_information == true) // 写机型配置信息
    {
        // FLASH忙则先返回。
        if (flash_isbusy())
            return;
        flash_write_confinf();
        write_conf_information = false;
    }
    else if (write_par_information == true) // 写备用参数信息
    {
        // FLASH忙则先返回。
        if (flash_isbusy())
            return;
        flash_write_parinf();
        write_par_information = false;
    }
    else if (write_rcfactor_flag == true) // 写遥控器校准系数信息
    {
        // 计算遥控器补偿的系数
        calc_rcfactor_calibration();
        // 写入flash
        flash_write_pidinf();
        delay_ms(200);

        write_rcfactor_flag = false;

        pilot_mode = PILOT_NORMAL;
    }    
    else if (write_iap_flag == true) // 写IAP升级信息
    {
        switch (ver_par.hardware_id)
        {
        case HW_V8M_YY:
            V8M_record_iap_flag();
            break;

        default:
            return;
        }

        write_iap_flag = false;
        // 升级前失能电平芯片输出，PWM脉宽给0
        PWM_IS_DISABLE();
        for (uint8_t i = 1; i <= params_get_value(ParamNum_APType) / 10; i++)
        {
            set_motor_pwm(i, 0);
        }
        delay_ms(200);

        // 软件复位
        sys_reset();
    }
}

//------------------End of File----------------------------
#ifdef SOFT_FLASH_TEST

//============================================================================
// GD25Q16 芯片参数
//============================================================================
#define GD25Q16_TOTAL_SIZE      (2 * 1024 * 1024)  // 2MB
#define GD25Q16_PAGE_SIZE       256                 // 页大小 256 字节
#define GD25Q16_SECTOR_SIZE     (4 * 1024)          // 扇区大小 4KB
#define GD25Q16_BLOCK_SIZE      (64 * 1024)         // 块大小 64KB
#define GD25Q16_TOTAL_PAGES     (GD25Q16_TOTAL_SIZE / GD25Q16_PAGE_SIZE)  // 8192 页
#define GD25Q16_TOTAL_SECTORS   (GD25Q16_TOTAL_SIZE / GD25Q16_SECTOR_SIZE) // 512 扇区

//============================================================================
// 根据您的地址划分重新计算（基于实际地址，不是页索引）
//============================================================================
// 您的地址定义（基于字节地址）
#define IAP_ADDR                (512 * 5)           // 0x00000A00
#define pidinf_addr             (512 * 16)          // 0x00002000
#define verinf_addr             (512 * 24)          // 0x00003000
#define confinf_addr            (512 * 32)          // 0x00004000
#define caminf_addr             (512 * 40)          // 0x00005000
#define parinf_addr             (512 * 48)          // 0x00006000
#define POS_TOTAL_ADDR          (512 * 56)          // 0x00007000
#define NO_FLY_ZONE_ADDR        (512 * 64)          // 0x00008000
#define FPALTCHANGE_ADDR        (512 * 80)          // 0x0000A000
#define BREAKPOINT_ADDR         (512 * 88)          // 0x0000B000
#define WAYPOINT_ADDR           (512 * 96)          // 0x0000C000
#define POS_START_PAGE          200                 // 页索引 200 = 0x0000C800? 需要重新计算

//============================================================================
// 测试区域定义 - 使用 Flash 末尾的安全区域（最后 256KB）
//============================================================================
#define TEST_AREA_START         (GD25Q16_TOTAL_SIZE - 256 * 1024)  // 最后 256KB (0x1C0000)
#define TEST_AREA_SIZE          (256 * 1024)                        // 256KB 测试空间
#define TEST_AREA_END           (TEST_AREA_START + TEST_AREA_SIZE)

// 测试地址验证
#define IS_TEST_ADDR(addr) \
    ((addr) >= TEST_AREA_START && (addr) < TEST_AREA_END)

//============================================================================
// 全局测试变量
//============================================================================
static bool test_passed = true;
static uint32_t test_count = 0;
static uint32_t fail_count = 0;

// 缓冲区
static uint8_t g_test_buffer[GD25Q16_PAGE_SIZE * 4];  // 4页缓冲区

//============================================================================
// 辅助函数
//============================================================================

/**
 * @brief 打印测试结果
 */
static void print_result(const char* test_name, bool passed)
{
    if (passed) {
        printf("[PASS] %s\n", test_name);
        test_count++;
    } else {
        printf("[FAIL] %s\n", test_name);
        fail_count++;
        test_passed = false;
    }
}

/**
 * @brief 打印十六进制数据
 */
static void print_hex(const uint8_t* data, uint16_t len, const char* title)
{
    printf("%s:\n", title);
    for (uint16_t i = 0; i < len; i++) {
        if (i % 16 == 0 && i != 0) printf("\n");
        printf("%02X ", data[i]);
    }
    printf("\n");
}

/**
 * @brief 保存测试区域数据
 */
static void save_test_area(uint32_t addr, uint32_t len)
{
    if (len > sizeof(g_test_buffer)) {
        len = sizeof(g_test_buffer);
    }
    printf("  Saving data at 0x%06X...\n", addr);
    flash_read_bytes(addr, g_test_buffer, len);
}

/**
 * @brief 恢复测试区域数据
 */
static void restore_test_area(uint32_t addr, uint32_t len)
{
    if (len > sizeof(g_test_buffer)) {
        len = sizeof(g_test_buffer);
    }
    printf("  Restoring data at 0x%06X...\n", addr);
    flash_write_bytes(addr, g_test_buffer, len);
    delay_ms(20);
}

//============================================================================
// 测试用例
//============================================================================

/**
 * @brief 测试0: 显示 Flash 信息和地址布局
 */
void test_flash_info(void)
{
    printf("\n=== Test 0: Flash Information ===\n");
    printf("Chip: GD25Q16 (16Mbit SPI Flash)\n");
    printf("Total Size: %d bytes (%d MB)\n", GD25Q16_TOTAL_SIZE, GD25Q16_TOTAL_SIZE / 1024 / 1024);
    printf("Page Size: %d bytes\n", GD25Q16_PAGE_SIZE);
    printf("Sector Size: %d bytes (%d KB)\n", GD25Q16_SECTOR_SIZE, GD25Q16_SECTOR_SIZE / 1024);
    printf("Block Size: %d bytes (%d KB)\n", GD25Q16_BLOCK_SIZE, GD25Q16_BLOCK_SIZE / 1024);
    printf("Total Pages: %d\n", GD25Q16_TOTAL_PAGES);
    printf("Total Sectors: %d\n", GD25Q16_TOTAL_SECTORS);
    
    printf("\n--- User Config Areas ---\n");
    printf("  IAP_ADDR         : 0x%06X\n", IAP_ADDR);
    printf("  pidinf_addr      : 0x%06X\n", pidinf_addr);
    printf("  verinf_addr      : 0x%06X\n", verinf_addr);
    printf("  confinf_addr     : 0x%06X\n", confinf_addr);
    printf("  caminf_addr      : 0x%06X\n", caminf_addr);
    printf("  parinf_addr      : 0x%06X\n", parinf_addr);
    printf("  POS_TOTAL_ADDR   : 0x%06X\n", POS_TOTAL_ADDR);
    printf("  NO_FLY_ZONE_ADDR : 0x%06X\n", NO_FLY_ZONE_ADDR);
    printf("  WAYPOINT_ADDR    : 0x%06X\n", WAYPOINT_ADDR);
    
    printf("\n--- Test Safe Area ---\n");
    printf("  TEST_AREA_START  : 0x%06X\n", TEST_AREA_START);
    printf("  TEST_AREA_END    : 0x%06X\n", TEST_AREA_END);
    printf("  TEST_AREA_SIZE   : %d bytes (%d KB)\n", TEST_AREA_SIZE, TEST_AREA_SIZE / 1024);
    
    print_result("Flash info display", true);
}

/**
 * @brief 测试1: 页读写测试 (256字节)
 */
void test_page_rw(void)
{
    uint32_t test_addr = TEST_AREA_START;
    uint8_t write_buf[GD25Q16_PAGE_SIZE];
    uint8_t read_buf[GD25Q16_PAGE_SIZE];
    
    printf("\n=== Test 1: Page (256 bytes) Read/Write ===\n");
    
    // 准备数据
    for (int i = 0; i < GD25Q16_PAGE_SIZE; i++) {
        write_buf[i] = i & 0xFF;
    }
    
    // 保存原始数据
    save_test_area(test_addr, GD25Q16_PAGE_SIZE);
    
    // 写入
    printf("  Writing page at 0x%06X...\n", test_addr);
    flash_write_bytes(test_addr, write_buf, GD25Q16_PAGE_SIZE);
    delay_ms(10);
    
    // 读取
    memset(read_buf, 0, sizeof(read_buf));
    flash_read_bytes(test_addr, read_buf, GD25Q16_PAGE_SIZE);
    
    // 验证
    bool match = (memcmp(write_buf, read_buf, GD25Q16_PAGE_SIZE) == 0);
    if (!match) {
        printf("  Mismatch detected!\n");
        for (int i = 0; i < 16; i++) {
            if (write_buf[i] != read_buf[i]) {
                printf("    Byte %d: 0x%02X vs 0x%02X\n", i, write_buf[i], read_buf[i]);
                break;
            }
        }
    }
    
    // 恢复
    restore_test_area(test_addr, GD25Q16_PAGE_SIZE);
    
    print_result("Page read/write", match);
}

/**
 * @brief 测试2: 多页读写测试 (4页 = 1KB)
 */
void test_multipage_rw(void)
{
    uint32_t test_addr = TEST_AREA_START + GD25Q16_PAGE_SIZE;
    uint16_t page_count = 4;
    uint32_t test_len = page_count * GD25Q16_PAGE_SIZE;
    uint8_t* write_buf = g_test_buffer;
    uint8_t read_buf[GD25Q16_PAGE_SIZE * 4];
    
    printf("\n=== Test 2: Multi-Page (%d pages) Read/Write ===\n", page_count);
    
    // 准备数据
    for (int i = 0; i < test_len; i++) {
        write_buf[i] = (i + 0x80) & 0xFF;
    }
    
    // 保存原始数据
    save_test_area(test_addr, test_len);
    
    // 写入
    printf("  Writing %d bytes at 0x%06X...\n", test_len, test_addr);
    flash_write_bytes(test_addr, write_buf, test_len);
    delay_ms(20);
    
    // 读取
    memset(read_buf, 0, sizeof(read_buf));
    flash_read_bytes(test_addr, read_buf, test_len);
    
    // 验证
    bool match = (memcmp(write_buf, read_buf, test_len) == 0);
    
    // 恢复
    restore_test_area(test_addr, test_len);
    
    print_result("Multi-page read/write", match);
}

/**
 * @brief 测试3: 扇区擦除测试 (4KB)
 */
void test_sector_erase(void)
{
    uint32_t test_addr = TEST_AREA_START + GD25Q16_SECTOR_SIZE;
    uint32_t sector_start = (test_addr / GD25Q16_SECTOR_SIZE) * GD25Q16_SECTOR_SIZE;
    uint8_t* read_buf = g_test_buffer;
    
    printf("\n=== Test 3: Sector (4KB) Erase Test ===\n");
    printf("  Sector start: 0x%06X\n", sector_start);
    
    // 先写入非0xFF数据
    memset(g_test_buffer, 0xA5, GD25Q16_SECTOR_SIZE);
    flash_write_bytes(sector_start, g_test_buffer, GD25Q16_SECTOR_SIZE);
    delay_ms(20);
    
    // 保存原始数据用于恢复
    save_test_area(sector_start, GD25Q16_SECTOR_SIZE);
    
    // 擦除扇区
    printf("  Erasing sector...\n");
    // 注意: 这里需要调用扇区擦除函数，如果您的驱动没有单独的函数，
    // 可以通过写入0xFF来实现，或者调用底层擦除函数
    // AT45DB_EraseSector(sector_start);  // 如果有这个函数
    // 暂时用写入0xFF模拟（实际应该用擦除命令）
    memset(g_test_buffer, 0xFF, GD25Q16_SECTOR_SIZE);
    flash_write_bytes(sector_start, g_test_buffer, GD25Q16_SECTOR_SIZE);
    delay_ms(50);
    
    // 读取验证
    memset(read_buf, 0, GD25Q16_SECTOR_SIZE);
    flash_read_bytes(sector_start, read_buf, GD25Q16_SECTOR_SIZE);
    
    // 验证是否全为0xFF
    bool all_ff = true;
    for (int i = 0; i < GD25Q16_SECTOR_SIZE; i++) {
        if (read_buf[i] != 0xFF) {
            all_ff = false;
            printf("  Non-0xFF at offset %d: 0x%02X\n", i, read_buf[i]);
            break;
        }
    }
    
    // 恢复原始数据
    restore_test_area(sector_start, GD25Q16_SECTOR_SIZE);
    
    print_result("Sector erase", all_ff);
}

/**
 * @brief 测试4: 边界地址测试
 */
void test_boundary(void)
{
    uint8_t write_buf[32];
    uint8_t read_buf[32];
    uint32_t boundary_addr = TEST_AREA_END - 16;
    
    printf("\n=== Test 4: Boundary Address Test ===\n");
    printf("  Boundary address: 0x%06X\n", boundary_addr);
    
    if (!IS_TEST_ADDR(boundary_addr) || !IS_TEST_ADDR(boundary_addr + 16)) {
        printf("  Skipping (address out of test area)\n");
        print_result("Boundary test", true);
        return;
    }
    
    // 准备数据
    for (int i = 0; i < sizeof(write_buf); i++) {
        write_buf[i] = 0x55 + i;
    }
    
    // 保存
    save_test_area(boundary_addr, sizeof(write_buf));
    
    // 写入
    flash_write_bytes(boundary_addr, write_buf, sizeof(write_buf));
    delay_ms(10);
    
    // 读取
    flash_read_bytes(boundary_addr, read_buf, sizeof(read_buf));
    
    // 验证
    bool match = (memcmp(write_buf, read_buf, sizeof(write_buf)) == 0);
    
    // 恢复
    restore_test_area(boundary_addr, sizeof(write_buf));
    
    print_result("Boundary test", match);
}

/**
 * @brief 测试5: 16位整数读写测试
 */
void test_int16_rw(void)
{
    uint32_t test_addr = TEST_AREA_START + 0x2000;
    int16_t write_vals[] = {0, 1, -1, 32767, -32768, 0x1234, 0x5678, 0x9ABC, 0xDEF0};
    int16_t read_vals[9];
    
    printf("\n=== Test 5: Int16 Read/Write Test ===\n");
    
    // 保存原始数据
    save_test_area(test_addr, sizeof(write_vals));
    
    bool all_match = true;
    for (int i = 0; i < sizeof(write_vals)/sizeof(write_vals[0]); i++) {
        uint32_t addr = test_addr + i * 2;
        flash_write_int16(addr, write_vals[i]);
        delay_ms(5);
        read_vals[i] = flash_read_int16(addr);
        
        if (read_vals[i] != write_vals[i]) {
            printf("  Mismatch at 0x%06X: %d vs %d\n", addr, write_vals[i], read_vals[i]);
            all_match = false;
        }
    }
    
    if (all_match) {
        printf("  All %d values match\n", (int)(sizeof(write_vals)/sizeof(write_vals[0])));
    }
    
    // 恢复
    restore_test_area(test_addr, sizeof(write_vals));
    
    print_result("Int16 read/write", all_match);
}

/**
 * @brief 测试6: 压力测试
 */
void test_stress(void)
{
    uint32_t test_addr = TEST_AREA_START + 0x3000;
    uint32_t test_len = 256;
    uint8_t* write_buf = g_test_buffer;
    uint8_t read_buf[256];
    const int cycles = 30;
    
    printf("\n=== Test 6: Stress Test (%d cycles) ===\n", cycles);
    
    // 保存原始数据
    save_test_area(test_addr, test_len);
    
    int failed = 0;
    for (int cycle = 0; cycle < cycles; cycle++) {
        // 准备数据
        for (int i = 0; i < test_len; i++) {
            if (cycle % 3 == 0) write_buf[i] = cycle & 0xFF;
            else if (cycle % 3 == 1) write_buf[i] = 0x55;
            else write_buf[i] = 0xAA;
        }
        
        flash_write_bytes(test_addr, write_buf, test_len);
        delay_ms(5);
        
        flash_read_bytes(test_addr, read_buf, test_len);
        
        if (memcmp(write_buf, read_buf, test_len) != 0) {
            failed++;
            printf("  Cycle %d failed\n", cycle);
        }
        
        if ((cycle + 1) % 10 == 0) {
            printf("  Progress: %d/%d\n", cycle + 1, cycles);
        }
    }
    
    printf("  Failed: %d/%d\n", failed, cycles);
    
    // 恢复
    restore_test_area(test_addr, test_len);
    
    print_result("Stress test", failed == 0);
}

/**
 * @brief 测试7: 随机模式测试
 */
void test_random_pattern(void)
{
    uint32_t test_addr = TEST_AREA_START + 0x4000;
    uint32_t test_len = 512;
    uint8_t* write_buf = g_test_buffer;
    uint8_t read_buf[512];
    
    printf("\n=== Test 7: Random Pattern Test ===\n");
    
    // 生成随机数据
    for (int i = 0; i < test_len; i++) {
        write_buf[i] = (i * 0x9E3779B9) ^ (i >> 3);
        write_buf[i] = (write_buf[i] ^ (write_buf[i] >> 4)) & 0xFF;
    }
    
    // 保存
    save_test_area(test_addr, test_len);
    
    // 写入
    flash_write_bytes(test_addr, write_buf, test_len);
    delay_ms(15);
    
    // 读取
    flash_read_bytes(test_addr, read_buf, test_len);
    
    // 验证
    bool match = (memcmp(write_buf, read_buf, test_len) == 0);
    if (!match) {
        for (int i = 0; i < 20; i++) {
            if (write_buf[i] != read_buf[i]) {
                printf("  First mismatch at %d: 0x%02X vs 0x%02X\n", 
                       i, write_buf[i], read_buf[i]);
                break;
            }
        }
    }
    
    // 恢复
    restore_test_area(test_addr, test_len);
    
    print_result("Random pattern", match);
}

/**
 * @brief 测试8: 数据完整性测试（写入后立即读取多次）
 */
void test_integrity(void)
{
    uint32_t test_addr = TEST_AREA_START + 0x5000;
    uint16_t test_values[] = {0x1234, 0x5678, 0x9ABC, 0xDEF0, 0xABCD, 0xFFFF, 0x0000};
    
    printf("\n=== Test 8: Data Integrity Test ===\n");
    
    // 保存原始数据
    save_test_area(test_addr, sizeof(test_values));
    
    bool all_match = true;
    for (int i = 0; i < sizeof(test_values)/sizeof(test_values[0]); i++) {
        uint32_t addr = test_addr + i * 2;
        
        // 写入
        flash_write_int16(addr, test_values[i]);
        delay_ms(5);
        
        // 多次读取验证
        for (int read_count = 0; read_count < 3; read_count++) {
            int16_t read_val = flash_read_int16(addr);
            if (read_val != test_values[i]) {
                printf("  Value 0x%04X at 0x%06X: read %d/3 = 0x%04X\n",
                       test_values[i], addr, read_count + 1, read_val);
                all_match = false;
                break;
            }
        }
    }
    
    if (all_match) {
        printf("  All values passed integrity check\n");
    }
    
    // 恢复
    restore_test_area(test_addr, sizeof(test_values));
    
    print_result("Data integrity", all_match);
}

//============================================================================
// 主测试函数
//============================================================================

/**
 * @brief 运行完整测试
 */
void run_flash_test(void)
{
    printf("\n");
    printf("╔══════════════════════════════════════════════════════════════╗\n");
    printf("║           GD25Q16 Flash Test Suite (Safe Area Mode)         ║\n");
    printf("╚══════════════════════════════════════════════════════════════╝\n");
    printf("Chip: GD25Q16 (16Mbit = 2MB)\n");
    printf("Test Area: 0x%06X - 0x%06X (%d KB)\n", 
           TEST_AREA_START, TEST_AREA_END, TEST_AREA_SIZE / 1024);
    
    // 初始化
    printf("\nInitializing Flash...\n");
    flash_at45db_initial();  // 实际是 GD25Q16 驱动
    delay_ms(100);
    
    if (!flash_isexist()) {
        printf("ERROR: Flash not detected!\n");
        return;
    }
    printf("Flash detected, status: %s\n", flash_isbusy() ? "Busy" : "Ready");
    
    // 重置计数
    test_count = 0;
    fail_count = 0;
    test_passed = true;
    
    // 运行测试
    test_flash_info();
    test_page_rw();
    test_multipage_rw();
    test_sector_erase();
    test_boundary();
    test_int16_rw();
    test_random_pattern();
    test_integrity();
    test_stress();
    
    // 结果
    printf("\n");
    printf("══════════════════════════════════════════════════════════════\n");
    printf("Test Summary:\n");
    printf("  Total: %d\n", test_count + fail_count);
    printf("  Passed: %d\n", test_count);
    printf("  Failed: %d\n", fail_count);
    printf("══════════════════════════════════════════════════════════════\n");
    
    if (test_passed) {
        printf("\n✓ ALL TESTS PASSED!\n");
    } else {
        printf("\n✗ SOME TESTS FAILED!\n");
    }
}

/**
 * @brief 快速功能测试
 */
void run_flash_quick_test(void)
{
    uint8_t test_data[] = {0x12, 0x34, 0x56, 0x78, 0x9A, 0xBC, 0xDE, 0xF0};
    uint8_t read_data[8];
    uint32_t test_addr = TEST_AREA_START;
    
    printf("\n=== Quick Test ===\n");
    
    flash_at45db_initial();
    delay_ms(100);
    
    if (!flash_isexist()) {
        printf("Flash not detected!\n");
        return;
    }
    
    // 保存
    uint8_t original[8];
    flash_read_bytes(test_addr, original, sizeof(original));
    
    // 测试
    flash_write_bytes(test_addr, test_data, sizeof(test_data));
    delay_ms(10);
    flash_read_bytes(test_addr, read_data, sizeof(read_data));
    
    if (memcmp(test_data, read_data, sizeof(test_data)) == 0) {
        printf("TEST PASSED\n");
        printf("Data: ");
        for (int i = 0; i < sizeof(test_data); i++) {
            printf("%02X ", read_data[i]);
        }
        printf("\n");
    } else {
        printf("TEST FAILED\n");
    }
    
    // 恢复
    flash_write_bytes(test_addr, original, sizeof(original));
}
#endif