Author SHA1 Message Date
chenjintao 4e5705e847 fix: battery level update without charging status 2026-09-21 14:54:42 +08:00
chenjintao 2a8b6b419b fix: charging staus fix 2026-09-21 14:37:33 +08:00
chenjintao 823e846262 fix: battery check fix 2026-09-21 14:07:30 +08:00
5 changed files with 124 additions and 248 deletions
+3 -1
View File
@@ -1,6 +1,8 @@
@echo off
set CURDIR=%~dp0
for /f %%i in ('powershell -NoProfile -Command "Get-Date -Format yyyyMMddHHmmss"') do set appbuildtime=%%i
set time0=%time: =0%
set hour=%time0:~0,2%
set appbuildtime=%date:~0,4%%date:~5,2%%date:~8,2%%hour%%time:~3,2%%time:~6,2%
set appbuildrev=NULL
set appbuildmodel=EG800AKCN_11LG
set appbuildver=beta1
@@ -21,6 +21,8 @@
#include "ql_uart.h"
#include "ql_application.h"
#include "ql_log.h"
#include "ql_adc.h"
#include "ql_power.h"
#include "hal_api.h"
// 电量阈值定义
@@ -36,25 +38,24 @@
#define BAT_VOLTAGE_10 3550
#define BAT_VOLTAGE_MIN 3500
// ========== 新增:10分钟电压历史记录用于判断充放电状态 ==========
#define VOLTAGE_HISTORY_SIZE 60 // 10分钟 = 60个10秒采样点
#define VOLTAGE_RISE_THRESHOLD 15 // 10分钟内上升超过15mV判定为充电
#define VOLTAGE_DROP_THRESHOLD 15 // 10分钟内下降超过15mV判定为放电
#define VOLTAGE_STABLE_RANGE 10 // 变化在±10mV内判定为稳定
#define BAT_LOW_WARN_MV 3550
#define BAT_LOW_PROBE_EXIT_MV 3600
#define BAT_SHUTDOWN_MV 3500
#define BAT_VALID_MIN_MV 2500
#define BAT_VALID_MAX_MV 5000
#define BAT_SHUTDOWN_CONFIRM_COUNT 3
#define BAT_NORMAL_SAMPLE_CALLS 6
unsigned short g_vbat_vol = 0;
unsigned short vbat_sample[6] = {0}; // 修改:样本数改为6
unsigned char battery_first_update_flag = 0;
static unsigned short g_vbat_vol_last = 0;
static bat_level_t g_bat_level_last = BAT_LEVEL_100;
// ========== 新增:电压历史记录环形缓冲区 ==========
static unsigned short g_voltage_history[VOLTAGE_HISTORY_SIZE] = {0};
static unsigned char g_history_index = 0;
static unsigned char g_history_count = 0; // 已记录的有效点数
static int g_charging_state = 0; // 当前判定的充电状态:1-充电, 0-未充电
static unsigned char g_charging_stable_cnt = 0; // 状态稳定计数
static unsigned char g_bat_level_valid = 0;
static unsigned char g_low_voltage_count = 0;
static unsigned char g_low_probe_active = 0;
static unsigned char g_low_power_warned = 0;
bat_level_t calc_battery_level(uint16_t voltage_mv)
{
@@ -71,102 +72,65 @@ bat_level_t calc_battery_level(uint16_t voltage_mv)
else return BAT_LEVEL_0;
}
/**
* @brief 基于10分钟电压历史判断充放电状态
* @return 1-充电中, 0-未充电/放电
*/
static int detect_charging_by_trend(void)
bat_level_t battery_get_level(void)
{
if (g_history_count < VOLTAGE_HISTORY_SIZE) {
printf("[BAT] history not full (%d/%d), keep state:%d\r\n",
g_history_count, VOLTAGE_HISTORY_SIZE, g_charging_state);
return g_charging_state;
}
unsigned char old_index = (g_history_index + 1) % VOLTAGE_HISTORY_SIZE;
unsigned short vbat_now = g_voltage_history[(g_history_index + VOLTAGE_HISTORY_SIZE - 1) % VOLTAGE_HISTORY_SIZE];
unsigned short vbat_10min_ago = g_voltage_history[old_index];
short delta = (short)vbat_now - (short)vbat_10min_ago;
printf("[BAT] trend: now=%d, 10min_ago=%d, delta=%d\r\n",
vbat_now, vbat_10min_ago, delta);
int new_state = g_charging_state;
if (delta > VOLTAGE_RISE_THRESHOLD) {
new_state = 1;
printf("[BAT] trend: CHARGING detected (rise %dmV)\r\n", delta);
}
else if (delta < -VOLTAGE_DROP_THRESHOLD) {
new_state = 0;
printf("[BAT] trend: DISCHARGING detected (drop %dmV)\r\n", -delta);
}
else {
printf("[BAT] trend: STABLE (delta %dmV), keep state:%d\r\n", delta, g_charging_state);
}
if (new_state == g_charging_state) {
g_charging_stable_cnt = 0;
} else {
g_charging_stable_cnt++;
if (g_charging_stable_cnt < 3) {
printf("[BAT] state change pending: %d -> %d (%d/3)\r\n",
g_charging_state, new_state, g_charging_stable_cnt);
return g_charging_state;
}
g_charging_stable_cnt = 0;
printf("[BAT] state changed: %d -> %d (confirmed)\r\n", g_charging_state, new_state);
}
return new_state;
return g_bat_level_valid ? g_bat_level_last : calc_battery_level(g_vbat_vol);
}
static void update_voltage_history(unsigned short voltage)
static bat_level_t limit_level_jump(bat_level_t raw_level)
{
g_voltage_history[g_history_index] = voltage;
g_history_index = (g_history_index + 1) % VOLTAGE_HISTORY_SIZE;
if (g_history_count < VOLTAGE_HISTORY_SIZE) {
g_history_count++;
}
}
bat_level_t result = g_bat_level_last;
static int is_charging(void)
{
// 如有硬件检测引脚,可优先使用
return detect_charging_by_trend();
}
if (!g_bat_level_valid) {
g_bat_level_valid = 1;
g_bat_level_last = raw_level;
printf("[BAT] first level initialized: %d\r\n", raw_level);
return raw_level;
}
static bat_level_t limit_level_jump(bat_level_t raw_level, bat_level_t last_level, int charging)
{
bat_level_t result = last_level;
if (raw_level > g_bat_level_last) {
result = (raw_level >= g_bat_level_last + BAT_LEVEL_10)
? (bat_level_t)(g_bat_level_last + BAT_LEVEL_10)
: raw_level;
} else if (raw_level < g_bat_level_last) {
result = (raw_level <= g_bat_level_last - BAT_LEVEL_10)
? (bat_level_t)(g_bat_level_last - BAT_LEVEL_10)
: raw_level;
}
if (charging) {
if (raw_level > last_level) {
if (raw_level - last_level == 1) {
result = raw_level;
printf("[BAT] level up (charging): %d -> %d\r\n", last_level, raw_level);
} else if (raw_level - last_level > 1) {
result = (bat_level_t)(last_level + 1);
printf("[BAT] level up limited (charging): %d -> %d (raw:%d)\r\n",
last_level, result, raw_level);
}
}
} else {
if (raw_level < last_level) {
if (last_level - raw_level == 1) {
result = raw_level;
printf("[BAT] level down (discharging): %d -> %d\r\n", last_level, raw_level);
} else if (last_level - raw_level > 1) {
result = (bat_level_t)(last_level - 1);
printf("[BAT] level down limited (discharging): %d -> %d (raw:%d)\r\n",
last_level, result, raw_level);
}
}
}
printf("[BAT] level update: last=%d raw=%d result=%d\r\n",
g_bat_level_last, raw_level, result);
g_bat_level_last = result;
return result;
}
static void battery_check_critical_voltage(unsigned short voltage_mv)
{
if (voltage_mv < BAT_LOW_WARN_MV) {
g_low_probe_active = 1;
} else if (voltage_mv >= BAT_LOW_PROBE_EXIT_MV) {
g_low_probe_active = 0;
}
if (voltage_mv < BAT_SHUTDOWN_MV) {
if (g_low_voltage_count < BAT_SHUTDOWN_CONFIRM_COUNT) {
g_low_voltage_count++;
}
printf("[BAT] critical voltage:%d, confirm:%d/%d\r\n",
voltage_mv, g_low_voltage_count, BAT_SHUTDOWN_CONFIRM_COUNT);
if (g_low_voltage_count >= BAT_SHUTDOWN_CONFIRM_COUNT) {
printf("[BAT] critical voltage confirmed, poweroff now\r\n");
app_play_tips_file(15);
ql_rtos_task_sleep_s(5);
ql_power_down(1);
}
} else {
g_low_voltage_count = 0;
}
}
/* 修改后的 battery_check:分阶段采样,采样窗口为6次 */
void battery_check(void)
{
@@ -180,9 +144,11 @@ void battery_check(void)
unsigned char do_sample = 0;
if (call_count <= 24) { // 开机2分钟内 (24次*5s=120s)
do_sample = 1;
} else if (g_low_probe_active) {
do_sample = 1; // 低电风险时每5秒快速确认
} else {
// 2分钟后,每36次调用采样一次 (36*5s=180s=3分钟)
if ((call_count - 25) % 36 == 0) {
// 2分钟后,每6次调用采样一次 (6*5s=30秒)
if (call_count % BAT_NORMAL_SAMPLE_CALLS == 0) {
do_sample = 1;
}
}
@@ -197,6 +163,18 @@ void battery_check(void)
ql_rtos_task_sleep_ms(5);
ql_adc_onff(0);
vbat_vol = ql_get_battery_vol();
printf("[BAT][SAMPLE] voltage=%d, low_probe=%d\r\n",
vbat_vol, g_low_probe_active);
if (vbat_vol < BAT_VALID_MIN_MV || vbat_vol > BAT_VALID_MAX_MV) {
printf("[BAT] invalid voltage sample ignored:%d\r\n", vbat_vol);
g_low_voltage_count = 0;
return;
}
battery_check_critical_voltage(vbat_vol);
sample_buf[sample_idx] = vbat_vol;
sample_idx++;
@@ -215,47 +193,29 @@ void battery_check(void)
vol_all = vol_all - min - max;
vbat_vol = vol_all / 4; // 6个样本去掉最大最小,剩余4个平均
/* 更新电压历史(用于充电趋势判断) */
update_voltage_history(vbat_vol);
/* 判断充电状态 */
int charging = is_charging();
g_charging_state = charging;
/* 非充电状态下,电压不允许上升 */
if (!charging) {
if (g_vbat_vol_last > 0 && vbat_vol > g_vbat_vol_last) {
printf("[BAT] voltage rise blocked: %d -> %d (not charging)\r\n",
g_vbat_vol_last, vbat_vol);
vbat_vol = g_vbat_vol_last;
}
}
g_vbat_vol = vbat_vol;
g_vbat_vol_last = vbat_vol;
printf("vbat_vol:%d, charging:%d\r\n", g_vbat_vol, charging);
printf("vbat_vol:%d\r\n", g_vbat_vol);
/* 计算电量等级并限制跳变 */
bat_level_t raw_level = calc_battery_level(g_vbat_vol);
bat_level_t level = limit_level_jump(raw_level, g_bat_level_last, charging);
g_bat_level_last = level;
bat_level_t level = limit_level_jump(raw_level);
printf("[BAT] raw_level:%d, limited_level:%d, charging:%d\r\n",
raw_level, level, charging);
printf("[BAT] raw_level:%d, limited_level:%d\r\n",
raw_level, level);
if (battery_first_update_flag == 0) {
battery_first_update_flag = 1;
}
/* 低电量处理 */
if (level == BAT_LEVEL_0) {
printf("poweroff now\r\n");
app_play_tips_file(15);
ql_rtos_task_sleep_s(5);
ql_power_down(1);
} else if (level <= BAT_LEVEL_10) {
/* 极低电关机由原始电压独立处理,普通低电提示只播放一次 */
if (level <= BAT_LEVEL_10) {
if (!g_low_power_warned) {
g_low_power_warned = 1;
app_play_tips_file(14);
}
} else if (level >= BAT_LEVEL_20) {
g_low_power_warned = 0;
}
sample_idx = 0; // 重置样本索引,准备下一轮采集
}
@@ -29,7 +29,6 @@ extern int fota_start;
#define KEY_LONG_PRESS_1S 1000/5
#define KEY_LONG_PRESS_1_5S 1500/5
#define KEY_LONG_PRESS_3S 3000/5
#define PWRKEY_SOFT_SHUTDOWN_TEST 8000/5
#define KEY_LONG_PRESS_5S 5000/5
#define KEY_LONG_PRESS_10S 10000/5
@@ -115,7 +114,7 @@ static void key_thread_entry(void *parameter)
if(level!=0){ //up
key_press_mic_status = 0;
if(ql_rtos_get_systicks() - key_press_mic_time > PWRKEY_SOFT_SHUTDOWN_TEST){
if(ql_rtos_get_systicks() - key_press_mic_time > KEY_LONG_PRESS_3S){
//app_play_tips_file(10);
// power_down_status = 1;
ql_rtos_task_sleep_s(3);
@@ -149,7 +148,7 @@ static void key_thread_entry(void *parameter)
key_press_mic_status = 1;//表示已经按下了
}
if(ql_rtos_get_systicks() - key_press_mic_time > PWRKEY_SOFT_SHUTDOWN_TEST && power_down_status==0){
if(ql_rtos_get_systicks() - key_press_mic_time > KEY_LONG_PRESS_3S && power_down_status==0){
power_down_status = 1;
app_play_tips_file(10);
power_down_status = 2;
@@ -73,6 +73,7 @@ int g_nfc_bind_status = 0;
extern u8 g_cur_volume;
extern u8 g_pre_volume;
extern unsigned short g_vbat_vol;
extern bat_level_t battery_get_level(void);
extern sleep_config_t g_sleep_cfg;
extern uint8_t g_sleep_config_valid;
@@ -1477,7 +1478,7 @@ static void app_mqtt_task_event_thread(void *arvg)
app_heartbeat_time_record = hal_os_up_time_ms();
// 采集设备信息
info.power = calc_battery_level(g_vbat_vol); // 10,20,30...100
info.power = battery_get_level(); // 使用与设备内部一致的最终电量档位
info.voice = g_cur_volume; // 40,60,80,100
-86
View File
@@ -3741,10 +3741,6 @@ extern void chargeManagePhase2Init(void);
void PMIC_Phase2Init(void)
{
INTC_ReturnCode intcStatus;
#if !defined(NOT_SUPPORT_PM807)
UINT8 longkey_e3;
UINT8 longkey_e4;
#endif
PMIC_UART_DEBUG("PMIC_Phase2Init");
@@ -3784,30 +3780,6 @@ void PMIC_Phase2Init(void)
#if !defined(NOT_SUPPORT_PM807)
case PMIC_807:
GuilinLite3ClkInit();
longkey_e3 = PMIC_READ_REG_BASE(GUILIN_LITE3_RTC_MISC_3_REG);
longkey_e4 = PMIC_READ_REG_BASE(GUILIN_LITE3_CLK_32K_SEL_REG);
RTI_LOG("PM807 LONGKEY before: E3=0x%x time=%ds E4=0x%x en1=%d en2=%d",
longkey_e3, (((longkey_e3 >> 4) & 0x0f) + 1), longkey_e4,
!!(longkey_e4 & GUILIN_LITE3_LONGKEY_EN1),
!!(longkey_e4 & GUILIN_LITE3_LONGKEY_EN2));
PM812_SET_LONKEY_PRESS_TIME(2);
PM812_LONKEY_ENABLE_SET(GUILIN_LITE3_LONGKEY_1, TRUE);
PM812_LONKEY_ENABLE_SET(GUILIN_LITE3_LONGKEY_2, TRUE);
longkey_e3 = PMIC_READ_REG_BASE(GUILIN_LITE3_RTC_MISC_3_REG);
longkey_e4 = PMIC_READ_REG_BASE(GUILIN_LITE3_CLK_32K_SEL_REG);
RTI_LOG("PM807 LONGKEY after: E3=0x%x time=%ds E4=0x%x en1=%d en2=%d",
longkey_e3, (((longkey_e3 >> 4) & 0x0f) + 1), longkey_e4,
!!(longkey_e4 & GUILIN_LITE3_LONGKEY_EN1),
!!(longkey_e4 & GUILIN_LITE3_LONGKEY_EN2));
if ((((longkey_e3 >> 4) & 0x0f) != 1) ||
((longkey_e4 & (GUILIN_LITE3_LONGKEY_EN1 | GUILIN_LITE3_LONGKEY_EN2)) !=
(GUILIN_LITE3_LONGKEY_EN1 | GUILIN_LITE3_LONGKEY_EN2)))
{
RTI_LOG("PM807 LONGKEY configure failed: E3=0x%x E4=0x%x",
longkey_e3, longkey_e4);
}
// GuilinLite3_VBUCK1_Set_FPWM();
break;
#endif
@@ -4259,13 +4231,6 @@ UINT8 PM812_GET_LONKEY_PRESS_TIME(void)
return (((tmp >> 4) & 0x0f) + 1);
}
#endif
#if !defined(NOT_SUPPORT_PM807)
else if(PMIC_IS_PM807())
{
tmp = PMIC_READ_REG_BASE(GUILIN_LITE3_RTC_MISC_3_REG);
return (((tmp >> 4) & 0x0f) + 1);
}
#endif
else
{
return tmp;
@@ -4276,10 +4241,6 @@ UINT8 PM812_GET_LONKEY_PRESS_TIME(void)
void PM812_SET_LONKEY_PRESS_TIME(UINT8 sec)
{
UINT8 tmp;
#if !defined(NOT_SUPPORT_PM807)
UINT8 target;
UINT8 bit;
#endif
#if !defined(NOT_SUPPORT_PM802)
if (PMIC_IS_PM802()||PMIC_IS_PM802S())
@@ -4307,30 +4268,6 @@ void PM812_SET_LONKEY_PRESS_TIME(UINT8 sec)
PMIC_WRITE_REG_BASE(NINGBO_RTC_MISC_3_REG,(tmp|sec));
}
#endif
#if !defined(NOT_SUPPORT_PM807)
else if(PMIC_IS_PM807())
{
if ((sec < 1) || (sec > 16))
{
RTI_LOG("PM807 invalid LONGKEY time: %d", sec);
return;
}
tmp = PMIC_READ_REG_BASE(GUILIN_LITE3_RTC_MISC_3_REG);
target = (tmp & 0x0f) | ((sec - 1) << 4);
/* RTC_MISC_3 may only accept one changed bit per write. */
for (bit = 4; bit < 8; bit++)
{
if ((tmp ^ target) & (1 << bit))
{
tmp = (tmp & ~(1 << bit)) | (target & (1 << bit));
PMIC_WRITE_REG_BASE(GUILIN_LITE3_RTC_MISC_3_REG, tmp);
tmp = PMIC_READ_REG_BASE(GUILIN_LITE3_RTC_MISC_3_REG);
}
}
}
#endif
}
void PM812_LONKEY_ENABLE_SET(UINT8 LONGKEY_NUM,BOOL enable)
@@ -4387,22 +4324,6 @@ void PM812_LONKEY_ENABLE_SET(UINT8 LONGKEY_NUM,BOOL enable)
}
}
#endif
#if !defined(NOT_SUPPORT_PM807)
else if(PMIC_IS_PM807())
{
tmp = PMIC_READ_REG_BASE(GUILIN_LITE3_CLK_32K_SEL_REG);
if(LONGKEY_NUM == GUILIN_LITE3_LONGKEY_1)
{
enable ? (tmp |= GUILIN_LITE3_LONGKEY_EN1) : (tmp &= (~GUILIN_LITE3_LONGKEY_EN1));
PMIC_WRITE_REG_BASE(GUILIN_LITE3_CLK_32K_SEL_REG, tmp);
}
else if(LONGKEY_NUM == GUILIN_LITE3_LONGKEY_2)
{
enable ? (tmp |= GUILIN_LITE3_LONGKEY_EN2) : (tmp &= (~GUILIN_LITE3_LONGKEY_EN2));
PMIC_WRITE_REG_BASE(GUILIN_LITE3_CLK_32K_SEL_REG, tmp);
}
}
#endif
}
//LONGKEY_NUM: 1/2
@@ -4431,13 +4352,6 @@ BOOL PM812_LONKEY_ENABLE_GET(UINT8 LONGKEY_NUM)
((LONGKEY_NUM==NINGBO_LONGKEY_1)?NINGBO_LONGKEY_EN1:NINGBO_LONGKEY_EN2));
}
#endif
#if !defined(NOT_SUPPORT_PM807)
else if(PMIC_IS_PM807())
{
return (PMIC_READ_REG_BASE(GUILIN_LITE3_CLK_32K_SEL_REG) &
((LONGKEY_NUM == GUILIN_LITE3_LONGKEY_1) ? GUILIN_LITE3_LONGKEY_EN1 : GUILIN_LITE3_LONGKEY_EN2));
}
#endif
else
{
PMIC_UART_DEBUG("PM812_LONKEY_ENABLE_GET: it shouldn't reach here, NUM=%d",LONGKEY_NUM);