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sdk: copy StdPeriphDriver

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This commit is contained in:
Richard Goulter 2023-12-19 22:10:07 +07:00
parent c4be43ec91
commit 31c6c4e250
39 changed files with 11355 additions and 0 deletions
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257
sdk/StdPeriphDriver/CH59x_adc.c Normal file
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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_adc.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn ADC_DataCalib_Rough
*
* @brief 采样数据粗调,获取偏差值,必须先配置ADC后调用此函数获取校准值
*
* @param none
*
* @return 偏差
*/
signed short ADC_DataCalib_Rough(void) // 采样数据粗调,获取偏差值
{
uint16_t i;
uint32_t sum = 0;
uint8_t ch = 0; // 备份通道
uint8_t cfg = 0; // 备份
ch = R8_ADC_CHANNEL;
cfg = R8_ADC_CFG;
R8_ADC_CFG |= RB_ADC_OFS_TEST; // 进入测试模式
R8_ADC_CFG &= ~RB_ADC_DIFF_EN; // 关闭差分
R8_ADC_CONVERT |= RB_ADC_START;
while(R8_ADC_CONVERT & RB_ADC_START);
for(i = 0; i < 16; i++)
{
R8_ADC_CONVERT |= RB_ADC_START;
while(R8_ADC_CONVERT & RB_ADC_START);
sum += (~R16_ADC_DATA) & RB_ADC_DATA;
}
sum = (sum + 8) >> 4;
R8_ADC_CFG = cfg; // 恢复配置值
R8_ADC_CHANNEL = ch;
return (2048 - sum);
}
/*********************************************************************
* @fn ADC_ExtSingleChSampInit
*
* @brief 外部信号单通道采样初始化
*
* @param sp - refer to ADC_SampClkTypeDef
* @param ga - refer to ADC_SignalPGATypeDef
*
* @return none
*/
void ADC_ExtSingleChSampInit(ADC_SampClkTypeDef sp, ADC_SignalPGATypeDef ga)
{
R8_TKEY_CFG &= ~RB_TKEY_PWR_ON;
R8_ADC_CFG = RB_ADC_POWER_ON | RB_ADC_BUF_EN | (sp << 6) | ((ga&0xF) << 4);
if( ga & ADC_PGA_2_ )
{
R8_ADC_CONVERT |= RB_ADC_PGA_GAIN2;
}
else
{
R8_ADC_CONVERT &= ~RB_ADC_PGA_GAIN2;
}
}
/*********************************************************************
* @fn ADC_ExtDiffChSampInit
*
* @brief 外部信号差分通道采样初始化
*
* @param sp - refer to ADC_SampClkTypeDef
* @param ga - refer to ADC_SignalPGATypeDef
*
* @return none
*/
void ADC_ExtDiffChSampInit(ADC_SampClkTypeDef sp, ADC_SignalPGATypeDef ga)
{
R8_TKEY_CFG &= ~RB_TKEY_PWR_ON;
R8_ADC_CFG = RB_ADC_POWER_ON | RB_ADC_DIFF_EN | (sp << 6) | ((ga&0xF) << 4);
if( ga & ADC_PGA_2_ )
{
R8_ADC_CONVERT |= RB_ADC_PGA_GAIN2;
}
else
{
R8_ADC_CONVERT &= ~RB_ADC_PGA_GAIN2;
}
}
/*********************************************************************
* @fn ADC_InterTSSampInit
*
* @brief 内置温度传感器采样初始化
*
* @param none
*
* @return none
*/
void ADC_InterTSSampInit(void)
{
R8_TKEY_CFG &= ~RB_TKEY_PWR_ON;
R8_TEM_SENSOR = RB_TEM_SEN_PWR_ON;
R8_ADC_CHANNEL = CH_INTE_VTEMP;
R8_ADC_CFG = RB_ADC_POWER_ON | RB_ADC_DIFF_EN | (3 << 4);
R8_ADC_CONVERT &= ~RB_ADC_PGA_GAIN2;
}
/*********************************************************************
* @fn ADC_InterBATSampInit
*
* @brief 内置电池电压采样初始化
*
* @param none
*
* @return none
*/
void ADC_InterBATSampInit(void)
{
R8_TKEY_CFG &= ~RB_TKEY_PWR_ON;
R8_ADC_CHANNEL = CH_INTE_VBAT;
R8_ADC_CFG = RB_ADC_POWER_ON | RB_ADC_BUF_EN | (0 << 4); // 使用-12dB模式
R8_ADC_CONVERT &= ~RB_ADC_PGA_GAIN2;
}
/*********************************************************************
* @fn TouchKey_ChSampInit
*
* @brief 触摸按键通道采样初始化
*
* @param none
*
* @return none
*/
void TouchKey_ChSampInit(void)
{
R8_ADC_CFG = RB_ADC_POWER_ON | RB_ADC_BUF_EN | (ADC_PGA_0 << 4) | (SampleFreq_8 << 6);
R8_ADC_CONVERT &= ~RB_ADC_PGA_GAIN2;
R8_TKEY_CFG |= RB_TKEY_PWR_ON;
}
/*********************************************************************
* @fn ADC_ExcutSingleConver
*
* @brief ADC执行单次转换
*
* @param none
*
* @return ADC转换后的数据
*/
uint16_t ADC_ExcutSingleConver(void)
{
R8_ADC_CONVERT |= RB_ADC_START;
while(R8_ADC_CONVERT & RB_ADC_START);
return (R16_ADC_DATA & RB_ADC_DATA);
}
/*********************************************************************
* @fn TouchKey_ExcutSingleConver
*
* @brief TouchKey转换后数据
*
* @param charg - Touchkey充电时间,5bits有效, t=charg*Tadc
* @param disch - Touchkey放电时间,3bits有效, t=disch*Tadc
*
* @return 当前TouchKey等效数据
*/
uint16_t TouchKey_ExcutSingleConver(uint8_t charg, uint8_t disch)
{
R8_TKEY_COUNT = (disch << 5) | (charg & 0x1f);
R8_TKEY_CONVERT = RB_TKEY_START;
while(R8_TKEY_CONVERT & RB_TKEY_START);
return (R16_ADC_DATA & RB_ADC_DATA);
}
/*********************************************************************
* @fn ADC_AutoConverCycle
*
* @brief 设置连续 ADC的周期
*
* @param cycle - 采样周期计算方法为(256-cycle)*16*Tsys
*
* @return none
*/
void ADC_AutoConverCycle(uint8_t cycle)
{
R8_ADC_AUTO_CYCLE = cycle;
}
/*********************************************************************
* @fn ADC_DMACfg
*
* @brief 配置DMA功能
*
* @param s - 是否打开DMA功能
* @param startAddr - DMA 起始地址
* @param endAddr - DMA 结束地址
* @param m - 配置DMA模式
*
* @return none
*/
void ADC_DMACfg(uint8_t s, uint32_t startAddr, uint32_t endAddr, ADC_DMAModeTypeDef m)
{
if(s == DISABLE)
{
R8_ADC_CTRL_DMA &= ~(RB_ADC_DMA_ENABLE | RB_ADC_IE_DMA_END);
}
else
{
R16_ADC_DMA_BEG = startAddr&0xFFFF;
R16_ADC_DMA_END = endAddr&0xFFFF;
if(m)
{
R8_ADC_CTRL_DMA |= RB_ADC_DMA_LOOP | RB_ADC_IE_DMA_END | RB_ADC_DMA_ENABLE;
}
else
{
R8_ADC_CTRL_DMA &= ~RB_ADC_DMA_LOOP;
R8_ADC_CTRL_DMA |= RB_ADC_IE_DMA_END | RB_ADC_DMA_ENABLE;
}
}
}
/*********************************************************************
* @fn adc_to_temperature_celsius
*
* @brief Convert ADC value to temperature(Celsius)
*
* @param adc_val - adc value
*
* @return temperature (Celsius)
*/
int adc_to_temperature_celsius(uint16_t adc_val)
{
uint32_t C25 = 0;
int temp;
C25 = (*((PUINT32)ROM_CFG_TMP_25C));
/* current temperature = standard temperature + (adc deviation * adc linearity coefficient) */
temp = (((C25 >> 16) & 0xFFFF) ? ((C25 >> 16) & 0xFFFF) : 25) + \
(adc_val - ((int)(C25 & 0xFFFF))) * 100 / 283;
return (temp);
}

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sdk/StdPeriphDriver/CH59x_clk.c Normal file
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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_clk.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn LClk32K_Select
*
* @brief 32K 低频时钟来源
*
* @param hc - 选择32K使用内部还是外部
*
* @return none
*/
void LClk32K_Select(LClk32KTypeDef hc)
{
uint8_t cfg = R8_CK32K_CONFIG;
if(hc == Clk32K_LSI)
{
cfg &= ~RB_CLK_OSC32K_XT;
}
else
{
cfg |= RB_CLK_OSC32K_XT;
}
sys_safe_access_enable();
R8_CK32K_CONFIG = cfg;
sys_safe_access_disable();
}
/*********************************************************************
* @fn LClk32K_Cfg
*
* @brief 32K 低频时钟电源配置
*
* @param hc - 选择内部32K还是外部32K
* @param s - 是否打开电源
*
* @return none
*/
void LClk32K_Cfg(LClk32KTypeDef hc, FunctionalState s)
{
uint8_t cfg = R8_CK32K_CONFIG;
if(hc == Clk32K_LSI)
{
if(s == DISABLE)
{
cfg &= ~RB_CLK_INT32K_PON;
}
else
{
cfg |= RB_CLK_INT32K_PON;
}
}
else
{
if(s == DISABLE)
{
cfg &= ~RB_CLK_XT32K_PON;
}
else
{
cfg |= RB_CLK_XT32K_PON;
}
}
sys_safe_access_enable();
R8_CK32K_CONFIG = cfg;
sys_safe_access_disable();
}
/*********************************************************************
* @fn HSECFG_Current
*
* @brief HSE晶体 偏置电流配置
*
* @param c - 75%,100%,125%,150%
*
* @return none
*/
void HSECFG_Current(HSECurrentTypeDef c)
{
uint8_t x32M_c;
x32M_c = R8_XT32M_TUNE;
x32M_c = (x32M_c & 0xfc) | (c & 0x03);
sys_safe_access_enable();
R8_XT32M_TUNE = x32M_c;
sys_safe_access_disable();
}
/*********************************************************************
* @fn HSECFG_Capacitance
*
* @brief HSE晶体 负载电容配置
*
* @param c - refer to HSECapTypeDef
*
* @return none
*/
void HSECFG_Capacitance(HSECapTypeDef c)
{
uint8_t x32M_c;
x32M_c = R8_XT32M_TUNE;
x32M_c = (x32M_c & 0x8f) | (c << 4);
sys_safe_access_enable();
R8_XT32M_TUNE = x32M_c;
sys_safe_access_disable();
}
/*********************************************************************
* @fn LSECFG_Current
*
* @brief LSE晶体 偏置电流配置
*
* @param c - 70%,100%,140%,200%
*
* @return none
*/
void LSECFG_Current(LSECurrentTypeDef c)
{
uint8_t x32K_c;
x32K_c = R8_XT32K_TUNE;
x32K_c = (x32K_c & 0xfc) | (c & 0x03);
sys_safe_access_enable();
R8_XT32K_TUNE = x32K_c;
sys_safe_access_disable();
}
/*********************************************************************
* @fn LSECFG_Capacitance
*
* @brief LSE晶体 负载电容配置
*
* @param c - refer to LSECapTypeDef
*
* @return none
*/
void LSECFG_Capacitance(LSECapTypeDef c)
{
uint8_t x32K_c;
x32K_c = R8_XT32K_TUNE;
x32K_c = (x32K_c & 0x0f) | (c << 4);
sys_safe_access_enable();
R8_XT32K_TUNE = x32K_c;
sys_safe_access_disable();
}
/*********************************************************************
* @fn Calibration_LSI
*
* @brief 校准内部32K时钟
*
* @param cali_Lv - 校准等级选择 Level_32 ：2.4ms 1000ppm (32M 主频) 1100ppm (60M 主频)
* Level_64 ：4.4ms 800ppm (32M 主频) 1000ppm (60M 主频)
* Level_128 ：8.4ms 600ppm (32M 主频) 800ppm (60M 主频)
*
* @return none
*/
void Calibration_LSI(Cali_LevelTypeDef cali_Lv)
{
UINT32 i;
INT32 cnt_offset;
UINT8 retry = 0;
INT32 freq_sys;
UINT32 cnt_32k = 0;
freq_sys = GetSysClock();
sys_safe_access_enable();
R8_CK32K_CONFIG &= ~RB_CLK_OSC32K_FILT;
R8_CK32K_CONFIG |= RB_CLK_OSC32K_FILT;
sys_safe_access_disable();
sys_safe_access_enable();
R8_XT32K_TUNE &= ~3;
R8_XT32K_TUNE |= 1;
sys_safe_access_disable();
// 粗调
sys_safe_access_enable();
R8_OSC_CAL_CTRL &= ~RB_OSC_CNT_TOTAL;
R8_OSC_CAL_CTRL |= 1;
sys_safe_access_disable();
while(1)
{
sys_safe_access_enable();
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
R16_OSC_CAL_CNT |= RB_OSC_CAL_OV_CLR;
R16_OSC_CAL_CNT |= RB_OSC_CAL_IF;
sys_safe_access_disable();
while( (R8_OSC_CAL_CTRL & RB_OSC_CNT_EN) == 0 )
{
sys_safe_access_enable();
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
sys_safe_access_disable();
}
while(!(R8_OSC_CAL_CTRL & RB_OSC_CNT_HALT)); // 用于丢弃
sys_safe_access_enable();
R8_OSC_CAL_CTRL &= ~RB_OSC_CNT_EN;
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
R16_OSC_CAL_CNT |= RB_OSC_CAL_OV_CLR;
R16_OSC_CAL_CNT |= RB_OSC_CAL_IF;
sys_safe_access_disable();
while( (R8_OSC_CAL_CTRL & RB_OSC_CNT_EN) == 0 )
{
sys_safe_access_enable();
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
sys_safe_access_disable();
}
while(R8_OSC_CAL_CTRL & RB_OSC_CNT_HALT);
cnt_32k = RTC_GetCycle32k();
while(RTC_GetCycle32k() == cnt_32k);
R16_OSC_CAL_CNT |= RB_OSC_CAL_OV_CLR;
while(!(R8_OSC_CAL_CTRL & RB_OSC_CNT_HALT));
i = R16_OSC_CAL_CNT; // 实时校准后采样值
cnt_offset = (i & 0x3FFF) + R8_OSC_CAL_OV_CNT * 0x3FFF - 2000 * (freq_sys / 1000) / CAB_LSIFQ;
if(((cnt_offset > -37 * (freq_sys / 1000) / CAB_LSIFQ) && (cnt_offset < 37 * (freq_sys / 1000) / CAB_LSIFQ)) || retry > 2)
{
if(retry)
break;
}
retry++;
cnt_offset = (cnt_offset > 0) ? (((cnt_offset * 2) / (74 * (freq_sys/1000) / 60000)) + 1) / 2 : (((cnt_offset * 2) / (74 * (freq_sys/1000) / 60000 )) - 1) / 2;
sys_safe_access_enable();
R16_INT32K_TUNE += cnt_offset;
sys_safe_access_disable();
}
// 细调
// 配置细调参数后，丢弃2次捕获值（软件行为）上判断已有一次，这里只留一次
sys_safe_access_enable();
R8_OSC_CAL_CTRL &= ~RB_OSC_CNT_TOTAL;
R8_OSC_CAL_CTRL |= cali_Lv;
sys_safe_access_disable();
while( (R8_OSC_CAL_CTRL & RB_OSC_CNT_TOTAL) != cali_Lv )
{
sys_safe_access_enable();
R8_OSC_CAL_CTRL |= cali_Lv;
sys_safe_access_disable();
}
sys_safe_access_enable();
R8_OSC_CAL_CTRL &= ~RB_OSC_CNT_EN;
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
R16_OSC_CAL_CNT |= RB_OSC_CAL_OV_CLR;
R16_OSC_CAL_CNT |= RB_OSC_CAL_IF;
sys_safe_access_disable();
while( (R8_OSC_CAL_CTRL & RB_OSC_CNT_EN) == 0 )
{
sys_safe_access_enable();
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
sys_safe_access_disable();
}
while(!(R8_OSC_CAL_CTRL & RB_OSC_CNT_HALT)); // 用于丢弃
sys_safe_access_enable();
R8_OSC_CAL_CTRL &= ~RB_OSC_CNT_EN;
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
R16_OSC_CAL_CNT |= RB_OSC_CAL_OV_CLR;
R16_OSC_CAL_CNT |= RB_OSC_CAL_IF;
sys_safe_access_disable();
while( (R8_OSC_CAL_CTRL & RB_OSC_CNT_EN) == 0 )
{
sys_safe_access_enable();
R8_OSC_CAL_CTRL |= RB_OSC_CNT_EN;
sys_safe_access_disable();
}
while(R8_OSC_CAL_CTRL & RB_OSC_CNT_HALT);
cnt_32k = RTC_GetCycle32k();
while(RTC_GetCycle32k() == cnt_32k);
R16_OSC_CAL_CNT |= RB_OSC_CAL_OV_CLR;
while(!(R8_OSC_CAL_CTRL & RB_OSC_CNT_HALT));
sys_safe_access_enable();
R8_OSC_CAL_CTRL &= ~RB_OSC_CNT_EN;
sys_safe_access_disable();
i = R16_OSC_CAL_CNT; // 实时校准后采样值
cnt_offset = (i & 0x3FFF) + R8_OSC_CAL_OV_CNT * 0x3FFF - 4000 * (1 << cali_Lv) * (freq_sys / 1000000) / 256 * 1000/(CAB_LSIFQ/256);
cnt_offset = (cnt_offset > 0) ? ((((cnt_offset * 2*(100 )) / (1366 * ((1 << cali_Lv)/8) * (freq_sys/1000) / 60000)) + 1) / 2)<<5 : ((((cnt_offset * 2*(100)) / (1366 * ((1 << cali_Lv)/8) * (freq_sys/1000) / 60000)) - 1) / 2)<<5;
sys_safe_access_enable();
R16_INT32K_TUNE += cnt_offset;
sys_safe_access_disable();
}
/*********************************************************************
* @fn RTCInitTime
*
* @brief RTC时钟初始化当前时间
*
* @param y - 配置年，MAX_Y = BEGYEAR + 44
* @param mon - 配置月，MAX_MON = 12
* @param d - 配置日，MAX_D = 31
* @param h - 配置小时，MAX_H = 23
* @param m - 配置分钟，MAX_M = 59
* @param s - 配置秒，MAX_S = 59
*
* @return none
*/
void RTC_InitTime(uint16_t y, uint16_t mon, uint16_t d, uint16_t h, uint16_t m, uint16_t s)
{
uint32_t t;
uint16_t year, month, day, sec2, t32k;
volatile uint8_t clk_pin;
year = y;
month = mon;
day = 0;
while(year > BEGYEAR)
{
day += YearLength(year - 1);
year--;
}
while(month > 1)
{
day += monthLength(IsLeapYear(y), month - 2);
month--;
}
day += d - 1;
sec2 = (h % 24) * 1800 + m * 30 + s / 2;
t32k = (s & 1) ? (0x8000) : (0);
t = sec2;
t = t << 16 | t32k;
do
{
clk_pin = (R8_CK32K_CONFIG & RB_32K_CLK_PIN);
} while(clk_pin != (R8_CK32K_CONFIG & RB_32K_CLK_PIN));
if(!clk_pin)
{
while(!clk_pin)
{
do
{
clk_pin = (R8_CK32K_CONFIG & RB_32K_CLK_PIN);
} while(clk_pin != (R8_CK32K_CONFIG & RB_32K_CLK_PIN));
}
}
sys_safe_access_enable();
R32_RTC_TRIG = day;
R8_RTC_MODE_CTRL |= RB_RTC_LOAD_HI;
sys_safe_access_disable();
while((R32_RTC_TRIG & 0x3FFF) != (R32_RTC_CNT_DAY & 0x3FFF));
sys_safe_access_enable();
R32_RTC_TRIG = t;
R8_RTC_MODE_CTRL |= RB_RTC_LOAD_LO;
sys_safe_access_disable();
}
/*********************************************************************
* @fn RTC_GetTime
*
* @brief 获取当前时间
*
* @param py - 获取到的年，MAX_Y = BEGYEAR + 44
* @param pmon - 获取到的月，MAX_MON = 12
* @param pd - 获取到的日，MAX_D = 31
* @param ph - 获取到的小时，MAX_H = 23
* @param pm - 获取到的分钟，MAX_M = 59
* @param ps - 获取到的秒，MAX_S = 59
*
* @return none
*/
void RTC_GetTime(uint16_t *py, uint16_t *pmon, uint16_t *pd, uint16_t *ph, uint16_t *pm, uint16_t *ps)
{
uint32_t t;
uint16_t day, sec2, t32k;
day = R32_RTC_CNT_DAY & 0x3FFF;
sec2 = R16_RTC_CNT_2S;
t32k = R16_RTC_CNT_32K;
t = sec2 * 2 + ((t32k < 0x8000) ? 0 : 1);
*py = BEGYEAR;
while(day >= YearLength(*py))
{
day -= YearLength(*py);
(*py)++;
}
*pmon = 0;
while(day >= monthLength(IsLeapYear(*py), *pmon))
{
day -= monthLength(IsLeapYear(*py), *pmon);
(*pmon)++;
}
(*pmon)++;
*pd = day + 1;
*ph = t / 3600;
*pm = t % 3600 / 60;
*ps = t % 60;
}
/*********************************************************************
* @fn RTC_SetCycle32k
*
* @brief 基于LSE/LSI时钟，配置当前RTC 周期数
*
* @param cyc - 配置周期计数初值，MAX_CYC = 0xA8BFFFFF = 2831155199
*
* @return none
*/
void RTC_SetCycle32k(uint32_t cyc)
{
volatile uint8_t clk_pin;
do
{
clk_pin = (R8_CK32K_CONFIG & RB_32K_CLK_PIN);
} while((clk_pin != (R8_CK32K_CONFIG & RB_32K_CLK_PIN)) || (!clk_pin));
sys_safe_access_enable();
R32_RTC_TRIG = cyc;
R8_RTC_MODE_CTRL |= RB_RTC_LOAD_LO;
sys_safe_access_disable();
}
/*********************************************************************
* @fn RTC_GetCycle32k
*
* @brief 基于LSE/LSI时钟，获取当前RTC 周期数
*
* @param none
*
* @return 当前周期数，MAX_CYC = 0xA8BFFFFF = 2831155199
*/
uint32_t RTC_GetCycle32k(void)
{
volatile uint32_t i;
do
{
i = R32_RTC_CNT_32K;
} while(i != R32_RTC_CNT_32K);
return (i);
}
/*********************************************************************
* @fn RTC_TMRFunCfg
*
* @brief RTC定时模式配置（注意定时基准固定为32768Hz）
*
* @param t - refer to RTC_TMRCycTypeDef
*
* @return none
*/
void RTC_TMRFunCfg(RTC_TMRCycTypeDef t)
{
sys_safe_access_enable();
R8_RTC_MODE_CTRL &= ~(RB_RTC_TMR_EN | RB_RTC_TMR_MODE);
sys_safe_access_disable();
sys_safe_access_enable();
R8_RTC_MODE_CTRL |= RB_RTC_TMR_EN | (t);
sys_safe_access_disable();
}
/*********************************************************************
* @fn RTC_TRIGFunCfg
*
* @brief RTC时间触发模式配置
*
* @param cyc - 相对当前时间的触发间隔时间，基于LSE/LSI时钟周期数
*
* @return none
*/
void RTC_TRIGFunCfg(uint32_t cyc)
{
uint32_t t;
t = RTC_GetCycle32k() + cyc;
if(t > RTC_MAX_COUNT)
{
t -= RTC_MAX_COUNT;
}
sys_safe_access_enable();
R32_RTC_TRIG = t;
R8_RTC_MODE_CTRL |= RB_RTC_TRIG_EN;
sys_safe_access_disable();
}
/*********************************************************************
* @fn RTC_ModeFunDisable
*
* @brief RTC 模式功能关闭
*
* @param m - 需要关闭的当前模式
*
* @return none
*/
void RTC_ModeFunDisable(RTC_MODETypeDef m)
{
uint8_t i = 0;
if(m == RTC_TRIG_MODE)
{
i |= RB_RTC_TRIG_EN;
}
else if(m == RTC_TMR_MODE)
{
i |= RB_RTC_TMR_EN;
}
sys_safe_access_enable();
R8_RTC_MODE_CTRL &= ~(i);
sys_safe_access_disable();
}
/*********************************************************************
* @fn RTC_GetITFlag
*
* @brief 获取RTC中断标志
*
* @param f - refer to RTC_EVENTTypeDef
*
* @return 中断标志状态
*/
uint8_t RTC_GetITFlag(RTC_EVENTTypeDef f)
{
if(f == RTC_TRIG_EVENT)
{
return (R8_RTC_FLAG_CTRL & RB_RTC_TRIG_FLAG);
}
else
{
return (R8_RTC_FLAG_CTRL & RB_RTC_TMR_FLAG);
}
}
/*********************************************************************
* @fn RTC_ClearITFlag
*
* @brief 清除RTC中断标志
*
* @param f - refer to RTC_EVENTTypeDef
*
* @return none
*/
void RTC_ClearITFlag(RTC_EVENTTypeDef f)
{
switch(f)
{
case RTC_TRIG_EVENT:
R8_RTC_FLAG_CTRL = RB_RTC_TRIG_CLR;
break;
case RTC_TMR_EVENT:
R8_RTC_FLAG_CTRL = RB_RTC_TMR_CLR;
break;
default:
break;
}
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_flash.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/* RESET_EN */
#define RESET_Enable 0x00000008
#define RESET_Disable 0xFFFFFFF7
/* LOCKUP_RST_EN */
#define UART_NO_KEY_Enable 0x00000100
#define UART_NO_KEY_Disable 0xFFFFFEFF
/* BOOT_PIN */
#define BOOT_PIN_PB22 0x00000200
#define BOOT_PIN_PB11 0xFFFFFDFF
/* FLASH_WRProt */
#define FLASH_WRProt 0xFFF003FF
/*********************************************************************
* @fn FLASH_ROM_READ
*
* @brief Read Flash
*
* @param StartAddr - read address
* @param Buffer - read buffer
* @param len - read len
*
* @return none
*/
void FLASH_ROM_READ(uint32_t StartAddr, void *Buffer, uint32_t len)
{
uint32_t i, Length = (len + 3) >> 2;
uint32_t *pCode = (uint32_t *)StartAddr;
uint32_t *pBuf = (uint32_t *)Buffer;
for(i = 0; i < Length; i++)
{
*pBuf++ = *pCode++;
}
}
/*********************************************************************
* @fn UserOptionByteConfig
*
* @brief Configure User Option Byte.需在调用用户配置字生效函数后生效,且每次烧录后只能修改一次
* (使用该函数，必须使用官方提供的.S文件，同时调用该函数后，两次上电后，两线调试接口默认关闭)
*
* @param RESET_EN - 外部复位引脚使能
* @param BOOT_PIN - ENABLE-使用默认boot脚-PB22,DISABLE-使用boot脚-PB11
* @param UART_NO_KEY_EN - 串口免按键下载使能
* @param FLASHProt_Size - 写保护大小(单位4K)
*
* @return 0-Success, 1-Err
*/
uint8_t UserOptionByteConfig(FunctionalState RESET_EN, FunctionalState BOOT_PIN, FunctionalState UART_NO_KEY_EN,
uint32_t FLASHProt_Size)
{
uint32_t s, t;
FLASH_ROM_READ(0x14, &s, 4);
if(s == 0xF5F9BDA9)
{
s = 0;
FLASH_EEPROM_CMD(CMD_GET_ROM_INFO, 0x7EFFC, &s, 4);
s &= 0xFF;
if(RESET_EN == ENABLE)
s |= RESET_Enable;
else
s &= RESET_Disable;
/* bit[7:0]-bit[31-24] */
s |= ((~(s << 24)) & 0xFF000000); //高8位 配置信息取反；
if(BOOT_PIN == ENABLE)
s |= BOOT_PIN_PB22;
if(UART_NO_KEY_EN == ENABLE)
s |= UART_NO_KEY_Enable;
/* bit[23-10] */
s &= 0xFF0003FF;
s |= ((FLASHProt_Size << 10) | (5 << 20)) & 0x00FFFC00;
/*Write user option byte*/
FLASH_ROM_WRITE(0x14, &s, 4);
/* Verify user option byte */
FLASH_ROM_READ(0x14, &t, 4);
if(s == t)
return 0;
else
return 1;
}
return 1;
}
/*********************************************************************
* @fn UserOptionByteClose_SWD
*
* @brief 关两线调试接口，其余配置值保持不变.需在调用用户配置字生效函数后生效,且每次烧录后只能修改一次
* (使用该函数，必须使用官方提供的.S文件，同时调用该函数后，两次上电后，两线调试接口默认关闭)
*
* @return 0-Success, 1-Err
*/
uint8_t UserOptionByteClose_SWD(void)
{
uint32_t s, t;
FLASH_ROM_READ(0x14, &s, 4);
if(s == 0xF5F9BDA9)
{
FLASH_EEPROM_CMD(CMD_GET_ROM_INFO, 0x7EFFC, &s, 4);
s &= ~((1 << 4) | (1 << 7)); //禁用调试功能， 禁用SPI读写FLASH
/* bit[7:0]-bit[31-24] */
s &= 0x00FFFFFF;
s |= ((~(s << 24)) & 0xFF000000); //高8位 配置信息取反；
/*Write user option byte*/
FLASH_ROM_WRITE(0x14, &s, 4);
/* Verify user option byte */
FLASH_ROM_READ(0x14, &t, 4);
if(s == t)
return 0;
else
return 1;
}
return 1;
}
/*********************************************************************
* @fn UserOptionByte_Active
*
* @brief 用户配置字生效函数，执行后自动复位
*
* @return 0-Success, 1-Err
*/
void UserOptionByte_Active(void)
{
FLASH_ROM_SW_RESET();
sys_safe_access_enable();
R16_INT32K_TUNE = 0xFFFF;
sys_safe_access_disable();
sys_safe_access_enable();
R8_RST_WDOG_CTRL |= RB_SOFTWARE_RESET;
sys_safe_access_disable();
while(1);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_gpio.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn GPIOA_ModeCfg
*
* @brief GPIOA端口引脚模式配置
*
* @param pin - PA0-PA15
* @param mode - 输入输出类型
*
* @return none
*/
void GPIOA_ModeCfg(uint32_t pin, GPIOModeTypeDef mode)
{
switch(mode)
{
case GPIO_ModeIN_Floating:
R32_PA_PD_DRV &= ~pin;
R32_PA_PU &= ~pin;
R32_PA_DIR &= ~pin;
break;
case GPIO_ModeIN_PU:
R32_PA_PD_DRV &= ~pin;
R32_PA_PU |= pin;
R32_PA_DIR &= ~pin;
break;
case GPIO_ModeIN_PD:
R32_PA_PD_DRV |= pin;
R32_PA_PU &= ~pin;
R32_PA_DIR &= ~pin;
break;
case GPIO_ModeOut_PP_5mA:
R32_PA_PD_DRV &= ~pin;
R32_PA_DIR |= pin;
break;
case GPIO_ModeOut_PP_20mA:
R32_PA_PD_DRV |= pin;
R32_PA_DIR |= pin;
break;
default:
break;
}
}
/*********************************************************************
* @fn GPIOB_ModeCfg
*
* @brief GPIOB端口引脚模式配置
*
* @param pin - PB0-PB23
* @param mode - 输入输出类型
*
* @return none
*/
void GPIOB_ModeCfg(uint32_t pin, GPIOModeTypeDef mode)
{
switch(mode)
{
case GPIO_ModeIN_Floating:
R32_PB_PD_DRV &= ~pin;
R32_PB_PU &= ~pin;
R32_PB_DIR &= ~pin;
break;
case GPIO_ModeIN_PU:
R32_PB_PD_DRV &= ~pin;
R32_PB_PU |= pin;
R32_PB_DIR &= ~pin;
break;
case GPIO_ModeIN_PD:
R32_PB_PD_DRV |= pin;
R32_PB_PU &= ~pin;
R32_PB_DIR &= ~pin;
break;
case GPIO_ModeOut_PP_5mA:
R32_PB_PD_DRV &= ~pin;
R32_PB_DIR |= pin;
break;
case GPIO_ModeOut_PP_20mA:
R32_PB_PD_DRV |= pin;
R32_PB_DIR |= pin;
break;
default:
break;
}
}
/*********************************************************************
* @fn GPIOA_ITModeCfg
*
* @brief GPIOA引脚中断模式配置
*
* @param pin - PA0-PA15
* @param mode - 触发类型
*
* @return none
*/
void GPIOA_ITModeCfg(uint32_t pin, GPIOITModeTpDef mode)
{
switch(mode)
{
case GPIO_ITMode_LowLevel: // 低电平触发
R16_PA_INT_MODE &= ~pin;
R32_PA_CLR |= pin;
break;
case GPIO_ITMode_HighLevel: // 高电平触发
R16_PA_INT_MODE &= ~pin;
R32_PA_OUT |= pin;
break;
case GPIO_ITMode_FallEdge: // 下降沿触发
R16_PA_INT_MODE |= pin;
R32_PA_CLR |= pin;
break;
case GPIO_ITMode_RiseEdge: // 上升沿触发
R16_PA_INT_MODE |= pin;
R32_PA_OUT |= pin;
break;
default:
break;
}
R16_PA_INT_IF = pin;
R16_PA_INT_EN |= pin;
}
/*********************************************************************
* @fn GPIOB_ITModeCfg
*
* @brief GPIOB引脚中断模式配置
*
* @param pin - PB0-PB23
* @param mode - 触发类型
*
* @return none
*/
void GPIOB_ITModeCfg(uint32_t pin, GPIOITModeTpDef mode)
{
uint32_t Pin = pin | ((pin & (GPIO_Pin_22 | GPIO_Pin_23)) >> 14);
switch(mode)
{
case GPIO_ITMode_LowLevel: // 低电平触发
R16_PB_INT_MODE &= ~Pin;
R32_PB_CLR |= pin;
break;
case GPIO_ITMode_HighLevel: // 高电平触发
R16_PB_INT_MODE &= ~Pin;
R32_PB_OUT |= pin;
break;
case GPIO_ITMode_FallEdge: // 下降沿触发
R16_PB_INT_MODE |= Pin;
R32_PB_CLR |= pin;
break;
case GPIO_ITMode_RiseEdge: // 上升沿触发
R16_PB_INT_MODE |= Pin;
R32_PB_OUT |= pin;
break;
default:
break;
}
R16_PB_INT_IF = Pin;
R16_PB_INT_EN |= Pin;
}
/*********************************************************************
* @fn GPIOPinRemap
*
* @brief 外设功能引脚映射
*
* @param s - 是否使能映射
* @param perph - RB_RF_ANT_SW_EN - RF antenna switch control output on PA4/PA5/PA12/PA13/PA14/PA15
* RB_PIN_U0_INV - RXD0/RXD0_/TXD0/TXD0_ invert input/output
* RB_PIN_INTX - INTX: INT24/INT25 PB8/PB9 -> INT24_/INT25_ PB22/PB23
* RB_PIN_MODEM - MODEM: PA6/PA7 -> PB12/PB13
* RB_PIN_I2C - I2C: PB14/PB15 -> PB14/PB15
* RB_PIN_PWMX - PWMX: PA12/PA13 -> PA6/PA7
* RB_PIN_SPI0 - SPI0: PA12/PA13/PA14/PA15 -> PB12/PB13/PB14/PB15
* RB_PIN_UART3 - UART3: PA4/PA5 -> PA4/PA5
* RB_PIN_UART2 - UART2: PB22/PB23 -> PA6/PA7
* RB_PIN_UART1 - UART1: PA8/PA9 -> PB12/PB13
* RB_PIN_UART0 - UART0: PB4/PB7 -> PA15/PA14
* RB_PIN_TMR3 - TMR2: PB22 -> PB22
* RB_PIN_TMR2 - TMR2: PA11 -> PB11
* RB_PIN_TMR1 - TMR1: PA10 -> PB10
* RB_PIN_TMR0 - TMR0: PA9 -> PB23
*
* @return none
*/
void GPIOPinRemap(FunctionalState s, uint16_t perph)
{
if(s)
{
R16_PIN_ALTERNATE |= perph;
}
else
{
R16_PIN_ALTERNATE &= ~perph;
}
}
/*********************************************************************
* @fn GPIOAGPPCfg
*
* @brief 模拟外设GPIO引脚功能控制
*
* @param s - ENABLE - 打开模拟外设功能，关闭数字功能
* DISABLE - 启用数字功能，关闭模拟外设功能
* @param perph - RB_PIN_ADC8_9_IE - ADC/TKEY 9/8通道
* RB_PIN_ADC6_7_IE - ADC/TKEY 7/6通道
* RB_PIN_ADC10_IE - ADC/TKEY 10通道
* RB_PIN_ADC11_IE - ADC/TKEY 11 通道
* RB_PIN_USB2_DP_PU - USB2 U2D+引脚内部上拉电阻
* RB_PIN_USB2_IE - USB2引脚
* RB_PIN_USB_DP_PU - USB UD+引脚内部上拉电阻
* RB_PIN_USB_IE - USB 引脚
* RB_PIN_ADC0_IE - ADC/TKEY 0 通道
* RB_PIN_ADC1_IE - ADC/TKEY 1 通道
* RB_PIN_ADC12_IE - ADC/TKEY 12 通道
* RB_PIN_ADC13_IE - ADC/TKEY 13 通道
* RB_PIN_XT32K_IE - 32KHz晶振LSE引脚
* RB_PIN_ADC2_3_IE - ADC/TKEY 2/3 通道
* RB_PIN_ADC4_5_IE - ADC/TKEY 4/5 通道
*
* @return none
*/
void GPIOAGPPCfg(FunctionalState s, uint16_t perph)
{
if(s)
{
R16_PIN_ANALOG_IE |= perph;
}
else
{
R16_PIN_ANALOG_IE &= ~perph;
}
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_i2c.c
* Author : WCH
* Version : V1.0
* Date : 2021/03/15
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn I2C_Init
*
* @brief Initializes the I2Cx peripheral according to the specified
* parameters in the I2C_InitStruct.
*
* @param I2C_Mode - refer to I2C_ModeTypeDef
* @param I2C_ClockSpeed - Specifies the clock frequency(Hz).
* This parameter must be set to a value lower than 400kHz
* @param I2C_DutyCycle - Specifies the I2C fast mode duty cycle.refer to I2C_DutyTypeDef
* @param I2C_Ack - Enables or disables the acknowledgement.refer to I2C_AckTypeDef
* @param I2C_AckAddr - Specifies if 7-bit or 10-bit address is acknowledged.refer to I2C_AckAddrTypeDef
* @param I2C_OwnAddress1 - Specifies the first device own address.
* This parameter can be a 7-bit or 10-bit address.
*
* @return none
*/
void I2C_Init(I2C_ModeTypeDef I2C_Mode, UINT32 I2C_ClockSpeed, I2C_DutyTypeDef I2C_DutyCycle,
I2C_AckTypeDef I2C_Ack, I2C_AckAddrTypeDef I2C_AckAddr, UINT16 I2C_OwnAddress1)
{
uint32_t sysClock;
uint16_t tmpreg;
I2C_SoftwareResetCmd(ENABLE);
I2C_SoftwareResetCmd(DISABLE);
sysClock = GetSysClock();
R16_I2C_CTRL2 &= ~RB_I2C_FREQ;
R16_I2C_CTRL2 |= (sysClock / 1000000);
R16_I2C_CTRL1 &= ~RB_I2C_PE;
if(I2C_ClockSpeed <= 100000)
{
tmpreg = (sysClock / (I2C_ClockSpeed << 1)) & RB_I2C_CCR;
if(tmpreg < 0x04)
tmpreg = 0x04;
R16_I2C_RTR = (((sysClock / 1000000) + 1) > 0x3F) ? 0x3F : ((sysClock / 1000000) + 1);
}
else
{
if(I2C_DutyCycle == I2C_DutyCycle_2)
{
tmpreg = (sysClock / (I2C_ClockSpeed * 3)) & RB_I2C_CCR;
}
else
{
tmpreg = (sysClock / (I2C_ClockSpeed * 25)) & RB_I2C_CCR;
tmpreg |= I2C_DutyCycle_16_9;
}
if(tmpreg == 0)
{
tmpreg |= (uint16_t)0x0001;
}
tmpreg |= RB_I2C_F_S;
R16_I2C_RTR = (uint16_t)((((sysClock / 1000000) * (uint16_t)300) / (uint16_t)1000) + (uint16_t)1);
}
R16_I2C_CKCFGR = tmpreg;
R16_I2C_CTRL1 |= RB_I2C_PE;
R16_I2C_CTRL1 &= ~(RB_I2C_SMBUS | RB_I2C_SMBTYPE | RB_I2C_ACK);
R16_I2C_CTRL1 |= I2C_Mode | I2C_Ack;
R16_I2C_OADDR1 &= ~0xFFFF;
R16_I2C_OADDR1 |= I2C_AckAddr | I2C_OwnAddress1;
}
/*********************************************************************
* @fn I2C_Cmd
*
* @brief Enables or disables the specified I2C peripheral.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_Cmd(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_PE;
else
R16_I2C_CTRL1 &= ~RB_I2C_PE;
}
/*********************************************************************
* @fn I2C_GenerateSTART
*
* @brief Generates I2Cx communication START condition.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_GenerateSTART(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_START;
else
R16_I2C_CTRL1 &= ~RB_I2C_START;
}
/*********************************************************************
* @fn I2C_GenerateSTOP
*
* @brief Generates I2Cx communication STOP condition.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_GenerateSTOP(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_STOP;
else
R16_I2C_CTRL1 &= ~RB_I2C_STOP;
}
/*********************************************************************
* @fn I2C_AcknowledgeConfig
*
* @brief Enables or disables the specified I2C acknowledge feature.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_AcknowledgeConfig(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_ACK;
else
R16_I2C_CTRL1 &= ~RB_I2C_ACK;
}
/*********************************************************************
* @fn I2C_OwnAddress2Config
*
* @brief Configures the specified I2C own address2.
*
* @param Address - specifies the 7bit I2C own address2.
*
* @return none
*/
void I2C_OwnAddress2Config(uint8_t Address)
{
R16_I2C_OADDR2 &= ~RB_I2C_ADD2;
R16_I2C_OADDR2 |= (uint16_t)(Address & RB_I2C_ADD2);
}
/*********************************************************************
* @fn I2C_DualAddressCmd
*
* @brief Enables or disables the specified I2C dual addressing mode.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_DualAddressCmd(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_OADDR2 |= RB_I2C_ENDUAL;
else
R16_I2C_OADDR2 &= ~RB_I2C_ENDUAL;
}
/*********************************************************************
* @fn I2C_GeneralCallCmd
*
* @brief Enables or disables the specified I2C general call feature.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_GeneralCallCmd(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_ENGC;
else
R16_I2C_CTRL1 &= ~RB_I2C_ENGC;
}
/*********************************************************************
* @fn I2C_ITConfig
*
* @brief Enables or disables the specified I2C interrupts.
*
* @param I2C_IT - specifies the I2C interrupts sources to be enabled or disabled.
* I2C_IT_BUF - Buffer interrupt mask.
* I2C_IT_EVT - Event interrupt mask.
* I2C_IT_ERR - Error interrupt mask.
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_ITConfig(I2C_ITTypeDef I2C_IT, FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL2 |= I2C_IT;
else
R16_I2C_CTRL2 &= (uint16_t)~I2C_IT;
}
/*********************************************************************
* @fn I2C_SendData
*
* @brief Sends a data byte through the I2Cx peripheral.
*
* @param Data - Byte to be transmitted.
*
* @return none
*/
void I2C_SendData(uint8_t Data)
{
R16_I2C_DATAR = Data;
}
/*********************************************************************
* @fn I2C_ReceiveData
*
* @brief Returns the most recent received data by the I2Cx peripheral.
*
* @return The value of the received data.
*/
uint8_t I2C_ReceiveData(void)
{
return (uint8_t)R16_I2C_DATAR;
}
/*********************************************************************
* @fn I2C_Send7bitAddress
*
* @brief Transmits the address byte to select the slave device.
*
* @param Address - specifies the slave address which will be transmitted.
* @param I2C_Direction - specifies whether the I2C device will be a Transmitter or a Receiver.
* I2C_Direction_Transmitter - Transmitter mode.
* I2C_Direction_Receiver - Receiver mode.
*
* @return none
*/
void I2C_Send7bitAddress(uint8_t Address, uint8_t I2C_Direction)
{
if(I2C_Direction != I2C_Direction_Transmitter)
Address |= OADDR1_ADD0_Set;
else
Address &= OADDR1_ADD0_Reset;
R16_I2C_DATAR = Address;
}
/*********************************************************************
* @fn I2C_SoftwareResetCmd
*
* @brief Enables or disables the specified I2C software reset.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_SoftwareResetCmd(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_SWRST;
else
R16_I2C_CTRL1 &= ~RB_I2C_SWRST;
}
/*********************************************************************
* @fn I2C_NACKPositionConfig
*
* @brief Selects the specified I2C NACK position in master receiver mode.
*
* @param I2C_NACKPosition - specifies the NACK position.
* I2C_NACKPosition_Next - indicates that the next byte will be the last received byte.
* I2C_NACKPosition_Current - indicates that current byte is the last received byte.
*
* @return none
*/
void I2C_NACKPositionConfig(uint16_t I2C_NACKPosition)
{
if(I2C_NACKPosition == I2C_NACKPosition_Next)
R16_I2C_CTRL1 |= I2C_NACKPosition_Next;
else
R16_I2C_CTRL1 &= I2C_NACKPosition_Current;
}
/*********************************************************************
* @fn I2C_SMBusAlertConfig
*
* @brief Drives the SMBusAlert pin high or low for the specified I2C.
*
* @param I2C_SMBusAlert - specifies SMBAlert pin level.
* I2C_SMBusAlert_Low - SMBAlert pin driven low.
* I2C_SMBusAlert_High - SMBAlert pin driven high.
*
* @return none
*/
void I2C_SMBusAlertConfig(uint16_t I2C_SMBusAlert)
{
if(I2C_SMBusAlert == I2C_SMBusAlert_Low)
R16_I2C_CTRL1 |= I2C_SMBusAlert_Low;
else
R16_I2C_CTRL1 &= I2C_SMBusAlert_High;
}
/*********************************************************************
* @fn I2C_TransmitPEC
*
* @brief Enables or disables the specified I2C PEC transfer.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_TransmitPEC(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_PEC;
else
R16_I2C_CTRL1 &= ~RB_I2C_PEC;
}
/*********************************************************************
* @fn I2C_PECPositionConfig
*
* @brief Selects the specified I2C PEC position.
*
* @param I2C_PECPosition - specifies the PEC position.
* I2C_PECPosition_Next - indicates that the next byte is PEC.
* I2C_PECPosition_Current - indicates that current byte is PEC.
*
* @return none
*/
void I2C_PECPositionConfig(uint16_t I2C_PECPosition)
{
if(I2C_PECPosition == I2C_PECPosition_Next)
R16_I2C_CTRL1 |= I2C_PECPosition_Next;
else
R16_I2C_CTRL1 &= I2C_PECPosition_Current;
}
/*********************************************************************
* @fn I2C_CalculatePEC
*
* @brief Enables or disables the PEC value calculation of the transferred bytes.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_CalculatePEC(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_ENPEC;
else
R16_I2C_CTRL1 &= ~RB_I2C_ENPEC;
}
/*********************************************************************
* @fn I2C_GetPEC
*
* @brief Returns the PEC value for the specified I2C.
*
* @return The PEC value.
*/
uint8_t I2C_GetPEC(void)
{
return (R16_I2C_STAR2 >> 8);
}
/*********************************************************************
* @fn I2C_ARPCmd
*
* @brief Enables or disables the specified I2C ARP.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_ARPCmd(FunctionalState NewState)
{
if(NewState != DISABLE)
R16_I2C_CTRL1 |= RB_I2C_EBARP;
else
R16_I2C_CTRL1 &= ~RB_I2C_EBARP;
}
/*********************************************************************
* @fn I2C_StretchClockCmd
*
* @brief Enables or disables the specified I2C Clock stretching.
*
* @param NewState - ENABLE or DISABLE.
*
* @return none
*/
void I2C_StretchClockCmd(FunctionalState NewState)
{
if(NewState == DISABLE)
R16_I2C_CTRL1 |= RB_I2C_NOSTRETCH;
else
R16_I2C_CTRL1 &= ~RB_I2C_NOSTRETCH;
}
/*********************************************************************
* @fn I2C_FastModeDutyCycleConfig
*
* @brief Selects the specified I2C fast mode duty cycle.
*
* @param I2C_DutyCycle - specifies the fast mode duty cycle.
* I2C_DutyCycle_2 - I2C fast mode Tlow/Thigh = 2.
* I2C_DutyCycle_16_9 - I2C fast mode Tlow/Thigh = 16/9.
*
* @return none
*/
void I2C_FastModeDutyCycleConfig(uint16_t I2C_DutyCycle)
{
if(I2C_DutyCycle != I2C_DutyCycle_16_9)
R16_I2C_CKCFGR &= ~I2C_DutyCycle_16_9;
else
R16_I2C_CKCFGR |= I2C_DutyCycle_16_9;
}
/*********************************************************************
* @fn I2C_CheckEvent
*
* @brief Checks whether the last I2Cx Event is equal to the one passed as parameter.
*
* @param I2C_EVENT - specifies the event to be checked.
* I2C_EVENT_SLAVE_TRANSMITTER_ADDRESS_MATCHED : EV1.
* I2C_EVENT_SLAVE_RECEIVER_ADDRESS_MATCHED : EV1.
* I2C_EVENT_SLAVE_TRANSMITTER_SECONDADDRESS_MATCHED : EV1.
* I2C_EVENT_SLAVE_RECEIVER_SECONDADDRESS_MATCHED : EV1.
* I2C_EVENT_SLAVE_GENERALCALLADDRESS_MATCHED : EV1.
* I2C_EVENT_SLAVE_BYTE_RECEIVED : EV2.
* (I2C_EVENT_SLAVE_BYTE_RECEIVED | I2C_FLAG_DUALF) : EV2.
* (I2C_EVENT_SLAVE_BYTE_RECEIVED | I2C_FLAG_GENCALL) : EV2.
* I2C_EVENT_SLAVE_BYTE_TRANSMITTED : EV3.
* (I2C_EVENT_SLAVE_BYTE_TRANSMITTED | I2C_FLAG_DUALF) : EV3.
* (I2C_EVENT_SLAVE_BYTE_TRANSMITTED | I2C_FLAG_GENCALL) : EV3.
* I2C_EVENT_SLAVE_ACK_FAILURE : EV3_2.
* I2C_EVENT_SLAVE_STOP_DETECTED : EV4.
* I2C_EVENT_MASTER_MODE_SELECT : EV5.
* I2C_EVENT_MASTER_TRANSMITTER_MODE_SELECTED : EV6.
* I2C_EVENT_MASTER_RECEIVER_MODE_SELECTED : EV6.
* I2C_EVENT_MASTER_BYTE_RECEIVED : EV7.
* I2C_EVENT_MASTER_BYTE_TRANSMITTING : EV8.
* I2C_EVENT_MASTER_BYTE_TRANSMITTED : EV8_2.
* I2C_EVENT_MASTER_MODE_ADDRESS10 : EV9.
*
* @return 1 - SUCCESS or 0 - ERROR.
*/
uint8_t I2C_CheckEvent(uint32_t I2C_EVENT)
{
uint32_t lastevent = 0;
uint32_t flag1 = 0, flag2 = 0;
uint8_t status = 0;
flag1 = R16_I2C_STAR1;
flag2 = R16_I2C_STAR2;
flag2 = flag2 << 16;
lastevent = (flag1 | flag2) & FLAG_Mask;
if((lastevent & I2C_EVENT) == I2C_EVENT)
{
status = !0;
}
else
{
status = 0;
}
return status;
}
/*********************************************************************
* @fn I2C_GetLastEvent
*
* @brief Returns the last I2Cx Event.
*
* @return The last event.
*/
uint32_t I2C_GetLastEvent(void)
{
uint32_t lastevent = 0;
uint32_t flag1 = 0, flag2 = 0;
flag1 = R16_I2C_STAR1;
flag2 = R16_I2C_STAR2;
flag2 = flag2 << 16;
lastevent = (flag1 | flag2) & FLAG_Mask;
return lastevent;
}
/*********************************************************************
* @fn I2C_GetFlagStatus
*
* @brief Checks whether the last I2Cx Event is equal to the one passed as parameter.
*
* @param I2C_FLAG - specifies the flag to check.
* I2C_FLAG_DUALF - Dual flag (Slave mode).
* I2C_FLAG_SMBHOST - SMBus host header (Slave mode).
* I2C_FLAG_SMBDEFAULT - SMBus default header (Slave mode).
* I2C_FLAG_GENCALL - General call header flag (Slave mode).
* I2C_FLAG_TRA - Transmitter/Receiver flag.
* I2C_FLAG_BUSY - Bus busy flag.
* I2C_FLAG_MSL - Master/Slave flag.
* I2C_FLAG_SMBALERT - SMBus Alert flag.
* I2C_FLAG_TIMEOUT - Timeout or Tlow error flag.
* I2C_FLAG_PECERR - PEC error in reception flag.
* I2C_FLAG_OVR - Overrun/Underrun flag (Slave mode).
* I2C_FLAG_AF - Acknowledge failure flag.
* I2C_FLAG_ARLO - Arbitration lost flag (Master mode).
* I2C_FLAG_BERR - Bus error flag.
* I2C_FLAG_TXE - Data register empty flag (Transmitter).
* I2C_FLAG_RXNE - Data register not empty (Receiver) flag.
* I2C_FLAG_STOPF - Stop detection flag (Slave mode).
* I2C_FLAG_ADD10 - 10-bit header sent flag (Master mode).
* I2C_FLAG_BTF - Byte transfer finished flag.
* I2C_FLAG_ADDR - Address sent flag (Master mode) "ADSL"
* Address matched flag (Slave mode)"ENDA".
* I2C_FLAG_SB - Start bit flag (Master mode).
*
* @return FlagStatus - SET or RESET.
*/
FlagStatus I2C_GetFlagStatus(uint32_t I2C_FLAG)
{
FlagStatus bitstatus = RESET;
__IO uint32_t i2creg = 0, i2cxbase = 0;
i2cxbase = (uint32_t)BA_I2C;
i2creg = I2C_FLAG >> 28;
I2C_FLAG &= FLAG_Mask;
if(i2creg != 0)
{
i2cxbase += 0x14;
}
else
{
I2C_FLAG = (uint32_t)(I2C_FLAG >> 16);
i2cxbase += 0x18;
}
if(((*(__IO uint32_t *)i2cxbase) & I2C_FLAG) != (uint32_t)RESET)
{
bitstatus = SET;
}
else
{
bitstatus = RESET;
}
return bitstatus;
}
/*********************************************************************
* @fn I2C_ClearFlag
*
* @brief Clears the I2Cx's pending flags.
*
* @param I2C_FLAG - specifies the flag to clear.
* I2C_FLAG_SMBALERT - SMBus Alert flag.
* I2C_FLAG_TIMEOUT - Timeout or Tlow error flag.
* I2C_FLAG_PECERR - PEC error in reception flag.
* I2C_FLAG_OVR - Overrun/Underrun flag (Slave mode).
* I2C_FLAG_AF - Acknowledge failure flag.
* I2C_FLAG_ARLO - Arbitration lost flag (Master mode).
* I2C_FLAG_BERR - Bus error flag.
*
* @return none
*/
void I2C_ClearFlag(uint32_t I2C_FLAG)
{
uint32_t flagpos = 0;
flagpos = I2C_FLAG & FLAG_Mask;
R16_I2C_STAR1 = (uint16_t)~flagpos;
}
/*********************************************************************
* @fn I2C_GetITStatus
*
* @brief Checks whether the specified I2C interrupt has occurred or not.
*
* @param II2C_IT - specifies the interrupt source to check.
* I2C_FLAG_SMBALERT - SMBus Alert flag.
* I2C_FLAG_TIMEOUT - Timeout or Tlow error flag.
* I2C_FLAG_PECERR - PEC error in reception flag.
* I2C_FLAG_OVR - Overrun/Underrun flag (Slave mode).
* I2C_FLAG_AF - Acknowledge failure flag.
* I2C_FLAG_ARLO - Arbitration lost flag (Master mode).
* I2C_FLAG_BERR - Bus error flag.
* I2C_FLAG_TXE - Data register empty flag (Transmitter).
* I2C_FLAG_RXNE - Data register not empty (Receiver) flag.
* I2C_FLAG_STOPF - Stop detection flag (Slave mode).
* I2C_FLAG_ADD10 - 10-bit header sent flag (Master mode).
* I2C_FLAG_BTF - Byte transfer finished flag.
* I2C_FLAG_ADDR - Address sent flag (Master mode) "ADSL"
* Address matched flag (Slave mode)"ENDA".
* I2C_FLAG_SB - Start bit flag (Master mode).
*
* @return none
*/
ITStatus I2C_GetITStatus(uint32_t I2C_IT)
{
ITStatus bitstatus = RESET;
uint32_t enablestatus = 0;
enablestatus = (uint32_t)(((I2C_IT & ITEN_Mask) >> 16) & (R16_I2C_CTRL2));
I2C_IT &= FLAG_Mask;
if(((R16_I2C_STAR1 & I2C_IT) != (uint32_t)RESET) && enablestatus)
{
bitstatus = SET;
}
else
{
bitstatus = RESET;
}
return bitstatus;
}
/*********************************************************************
* @fn I2C_ClearITPendingBit
*
* @brief Clears the I2Cx interrupt pending bits.
*
* @param I2C_IT - specifies the interrupt pending bit to clear.
* I2C_IT_SMBALERT - SMBus Alert interrupt.
* I2C_IT_TIMEOUT - Timeout or Tlow error interrupt.
* I2C_IT_PECERR - PEC error in reception interrupt.
* I2C_IT_OVR - Overrun/Underrun interrupt (Slave mode).
* I2C_IT_AF - Acknowledge failure interrupt.
* I2C_IT_ARLO - Arbitration lost interrupt (Master mode).
* I2C_IT_BERR - Bus error interrupt.
*
* @return none
*/
void I2C_ClearITPendingBit(uint32_t I2C_IT)
{
uint32_t flagpos = 0;
flagpos = I2C_IT & FLAG_Mask;
R16_I2C_STAR1 = (uint16_t)~flagpos;
}

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sdk/StdPeriphDriver/CH59x_lcd.c Normal file
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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_lcd.c
* Author : WCH
* Version : V1.0
* Date : 2018/12/15
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
#include "CH59x_lcd.h"
/*******************************************************************************
* Function Name : LCD_DefInit
* Description : LCD段式屏驱动初始化配置
* Input : duty 占空比
* bias 偏压比
* Return : None
*******************************************************************************/
void LCD_Init(LCDDutyTypeDef duty, LCDBiasTypeDef bias)
{
R32_PIN_CONFIG2 = 0xfffeff3f; // 关闭数字输入
R32_LCD_CMD = 0x1ffff << 8;
R32_LCD_CMD |= RB_LCD_SYS_EN | RB_LCD_ON |
(LCD_CLK_128 << 5) |
(duty << 3) |
(bias << 2);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_pwm.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn PWMX_CycleCfg
*
* @brief PWM4-PWM11基准时钟配置
*
* @param cyc - refer to PWMX_CycleTypeDef
*
* @return none
*/
void PWMX_CycleCfg(PWMX_CycleTypeDef cyc)
{
switch(cyc)
{
case PWMX_Cycle_256:
R8_PWM_CONFIG = R8_PWM_CONFIG & 0xf0;
break;
case PWMX_Cycle_255:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | 0x01;
break;
case PWMX_Cycle_128:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | (1 << 2);
break;
case PWMX_Cycle_127:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | (1 << 2) | 0x01;
break;
case PWMX_Cycle_64:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | (2 << 2);
break;
case PWMX_Cycle_63:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | (2 << 2) | 0x01;
break;
case PWMX_Cycle_32:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | (3 << 2);
break;
case PWMX_Cycle_31:
R8_PWM_CONFIG = (R8_PWM_CONFIG & 0xf0) | (3 << 2) | 0x01;
break;
default:
break;
}
}
/*********************************************************************
* @fn PWMX_ACTOUT
*
* @brief PWM4-PWM11通道输出波形配置
*
* @param ch - select channel of pwm, refer to channel of PWM define
* @param da - effective pulse width
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param s - control pwmx function, ENABLE or DISABLE
*
* @return none
*/
void PWMX_ACTOUT(uint8_t ch, uint8_t da, PWMX_PolarTypeDef pr, FunctionalState s)
{
uint8_t i;
if(s == DISABLE)
{
R8_PWM_OUT_EN &= ~(ch);
}
else
{
(pr) ? (R8_PWM_POLAR |= (ch)) : (R8_PWM_POLAR &= ~(ch));
for(i = 0; i < 8; i++)
{
if((ch >> i) & 1)
{
*((volatile uint8_t *)((&R8_PWM4_DATA) + i)) = da;
}
}
R8_PWM_OUT_EN |= (ch);
}
}
/*********************************************************************
* @fn PWMX_AlterOutCfg
*
* @brief PWM 交替输出模式配置
*
* @param ch - select group of PWM alternate output
* RB_PWM4_5_STAG_EN - PWM4 和 PWM5 通道交替输出
* RB_PWM6_7_STAG_EN - PWM6 和 PWM7 通道交替输出
* RB_PWM8_9_STAG_EN - PWM8 和 PWM9 通道交替输出
* RB_PWM10_11_STAG_EN - PWM10 和 PWM11 通道交替输出
* @param s - control pwmx function, ENABLE or DISABLE
*
* @return none
*/
void PWMX_AlterOutCfg(uint8_t ch, FunctionalState s)
{
if(s == DISABLE)
{
R8_PWM_CONFIG &= ~(ch);
}
else
{
R8_PWM_CONFIG |= (ch);
}
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_pwr.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn PWR_DCDCCfg
*
* @brief 启用内部DC/DC电源，用于节约系统功耗
*
* @param s - 是否打开DCDC电源
*
* @return none
*/
void PWR_DCDCCfg(FunctionalState s)
{
uint16_t adj = R16_AUX_POWER_ADJ;
uint16_t plan = R16_POWER_PLAN;
if(s == DISABLE)
{
adj &= ~RB_DCDC_CHARGE;
plan &= ~(RB_PWR_DCDC_EN | RB_PWR_DCDC_PRE); // 旁路 DC/DC
sys_safe_access_enable();
R16_AUX_POWER_ADJ = adj;
R16_POWER_PLAN = plan;
sys_safe_access_disable();
}
else
{
uint32_t HW_Data[2];
FLASH_EEPROM_CMD(CMD_GET_ROM_INFO, ROM_CFG_ADR_HW, HW_Data, 0);
if((HW_Data[0]) & (1 << 13))
{
return;
}
adj |= RB_DCDC_CHARGE;
plan |= RB_PWR_DCDC_PRE;
sys_safe_access_enable();
R16_AUX_POWER_ADJ = adj;
R16_POWER_PLAN = plan;
sys_safe_access_disable();
DelayUs(10);
sys_safe_access_enable();
R16_POWER_PLAN |= RB_PWR_DCDC_EN;
sys_safe_access_disable();
}
}
/*********************************************************************
* @fn PWR_UnitModCfg
*
* @brief 可控单元模块的电源控制
*
* @param s - 是否打开电源
* @param unit - please refer to unit of controllable power supply
*
* @return none
*/
void PWR_UnitModCfg(FunctionalState s, uint8_t unit)
{
uint8_t ck32k_cfg = R8_CK32K_CONFIG;
if(s == DISABLE) //关闭
{
ck32k_cfg &= ~(unit & 0x03);
}
else //打开
{
ck32k_cfg |= (unit & 0x03);
}
sys_safe_access_enable();
R8_CK32K_CONFIG = ck32k_cfg;
sys_safe_access_disable();
}
/*********************************************************************
* @fn PWR_PeriphClkCfg
*
* @brief 外设时钟控制位
*
* @param s - 是否打开对应外设时钟
* @param perph - please refer to Peripher CLK control bit define
*
* @return none
*/
void PWR_PeriphClkCfg(FunctionalState s, uint16_t perph)
{
uint32_t sleep_ctrl = R32_SLEEP_CONTROL;
if(s == DISABLE)
{
sleep_ctrl |= perph;
}
else
{
sleep_ctrl &= ~perph;
}
sys_safe_access_enable();
R32_SLEEP_CONTROL = sleep_ctrl;
sys_safe_access_disable();
}
/*********************************************************************
* @fn PWR_PeriphWakeUpCfg
*
* @brief 睡眠唤醒源配置
*
* @param s - 是否打开此外设睡眠唤醒功能
* @param perph - 需要设置的唤醒源
* RB_SLP_USB_WAKE - USB 为唤醒源
* RB_SLP_RTC_WAKE - RTC 为唤醒源
* RB_SLP_GPIO_WAKE - GPIO 为唤醒源
* RB_SLP_BAT_WAKE - BAT 为唤醒源
* @param mode - refer to WakeUP_ModeypeDef
*
* @return none
*/
void PWR_PeriphWakeUpCfg(FunctionalState s, uint8_t perph, WakeUP_ModeypeDef mode)
{
uint8_t m;
if(s == DISABLE)
{
sys_safe_access_enable();
R8_SLP_WAKE_CTRL &= ~perph;
sys_safe_access_disable();
}
else
{
switch(mode)
{
case Short_Delay:
m = 0x01;
break;
case Long_Delay:
m = 0x00;
break;
default:
m = 0x01;
break;
}
sys_safe_access_enable();
R8_SLP_WAKE_CTRL |= RB_WAKE_EV_MODE | perph;
sys_safe_access_disable();
sys_safe_access_enable();
R8_SLP_POWER_CTRL &= ~(RB_WAKE_DLY_MOD);
sys_safe_access_disable();
sys_safe_access_enable();
R8_SLP_POWER_CTRL |= m;
sys_safe_access_disable();
}
}
/*********************************************************************
* @fn PowerMonitor
*
* @brief 电源监控
*
* @param s - 是否打开此功能
* @param vl - refer to VolM_LevelypeDef
*
* @return none
*/
void PowerMonitor(FunctionalState s, VolM_LevelypeDef vl)
{
uint8_t ctrl = R8_BAT_DET_CTRL;
uint8_t cfg = R8_BAT_DET_CFG;
if(s == DISABLE)
{
sys_safe_access_enable();
R8_BAT_DET_CTRL = 0;
sys_safe_access_disable();
}
else
{
if(vl & 0x80)
{
cfg = vl & 0x03;
ctrl = RB_BAT_MON_EN | ((vl >> 2) & 1);
}
else
{
cfg = vl & 0x03;
ctrl = RB_BAT_DET_EN;
}
sys_safe_access_enable();
R8_BAT_DET_CTRL = ctrl;
R8_BAT_DET_CFG = cfg;
sys_safe_access_disable();
mDelayuS(1);
sys_safe_access_enable();
R8_BAT_DET_CTRL |= RB_BAT_LOW_IE | RB_BAT_LOWER_IE;
sys_safe_access_disable();
}
}
/*********************************************************************
* @fn LowPower_Idle
*
* @brief 低功耗-Idle模式
*
* @param none
*
* @return none
*/
__HIGH_CODE
void LowPower_Idle(void)
{
FLASH_ROM_SW_RESET();
R8_FLASH_CTRL = 0x04; //flash关闭
PFIC->SCTLR &= ~(1 << 2); // sleep
__WFI();
__nop();
__nop();
}
/*********************************************************************
* @fn LowPower_Halt
*
* @brief 低功耗-Halt模式，此低功耗切到HSI/5时钟运行，唤醒后需要用户自己重新选择系统时钟源
*
* @param none
*
* @return none
*/
__HIGH_CODE
void LowPower_Halt(void)
{
uint8_t x32Kpw, x32Mpw;
FLASH_ROM_SW_RESET();
R8_FLASH_CTRL = 0x04; //flash关闭
x32Kpw = R8_XT32K_TUNE;
x32Mpw = R8_XT32M_TUNE;
x32Mpw = (x32Mpw & 0xfc) | 0x03; // 150%额定电流
if(R16_RTC_CNT_32K > 0x3fff)
{ // 超过500ms
x32Kpw = (x32Kpw & 0xfc) | 0x01; // LSE驱动电流降低到额定电流
}
sys_safe_access_enable();
R8_BAT_DET_CTRL = 0; // 关闭电压监控
sys_safe_access_disable();
sys_safe_access_enable();
R8_XT32K_TUNE = x32Kpw;
R8_XT32M_TUNE = x32Mpw;
sys_safe_access_disable();
sys_safe_access_enable();
R8_PLL_CONFIG |= (1 << 5);
sys_safe_access_disable();
PFIC->SCTLR |= (1 << 2); //deep sleep
__WFI();
__nop();
__nop();
sys_safe_access_enable();
R8_PLL_CONFIG &= ~(1 << 5);
sys_safe_access_disable();
}
/*******************************************************************************
* Function Name : LowPower_Sleep
* Description : 低功耗-Sleep模式。
注意当主频为80M时，睡眠唤醒中断不可调用flash内代码，且退出此函数前需要加上30us延迟。
* Input : rm:
RB_PWR_RAM2K - 2K retention SRAM 供电
RB_PWR_RAM24K - 24K main SRAM 供电
RB_PWR_EXTEND - USB 和 BLE 单元保留区域供电
RB_PWR_XROM - FlashROM 供电
NULL - 以上单元都断电
* Return : None
*******************************************************************************/
__HIGH_CODE
void LowPower_Sleep(uint16_t rm)
{
__attribute__((aligned(4))) uint8_t MacAddr[6] = {0};
uint8_t x32Kpw, x32Mpw;
uint16_t power_plan;
GetMACAddress(MacAddr);
x32Kpw = R8_XT32K_TUNE;
x32Mpw = R8_XT32M_TUNE;
x32Mpw = (x32Mpw & 0xfc) | 0x03; // 150%额定电流
if(R16_RTC_CNT_32K > 0x3fff)
{ // 超过500ms
x32Kpw = (x32Kpw & 0xfc) | 0x01; // LSE驱动电流降低到额定电流
}
sys_safe_access_enable();
R8_BAT_DET_CTRL = 0; // 关闭电压监控
sys_safe_access_disable();
sys_safe_access_enable();
R8_XT32K_TUNE = x32Kpw;
R8_XT32M_TUNE = x32Mpw;
sys_safe_access_disable();
sys_safe_access_enable();
R16_POWER_PLAN &= ~RB_XT_PRE_EN;
sys_safe_access_disable();
PFIC->SCTLR |= (1 << 2); //deep sleep
power_plan = R16_POWER_PLAN & (RB_PWR_DCDC_EN | RB_PWR_DCDC_PRE);
power_plan |= RB_PWR_PLAN_EN | RB_PWR_CORE | rm | (2<<11);
sys_safe_access_enable();
R8_SLP_POWER_CTRL |= RB_RAM_RET_LV;
R16_POWER_PLAN = power_plan;
sys_safe_access_disable();
if((rm & RB_XT_PRE_EN) == 0)
{
sys_safe_access_enable();
R8_PLL_CONFIG |= (1 << 5);
sys_safe_access_disable();
}
__WFI();
__nop();
__nop();
sys_safe_access_enable();
R16_POWER_PLAN &= ~RB_XT_PRE_EN;
sys_safe_access_disable();
if((rm & RB_XT_PRE_EN) == 0)
{
sys_safe_access_enable();
R8_PLL_CONFIG &= ~(1 << 5);
sys_safe_access_disable();
DelayUs(20);
}
}
/*********************************************************************
* @fn LowPower_Shutdown
*
* @brief 低功耗-Shutdown模式，此低功耗切到HSI/5时钟运行，唤醒后需要用户自己重新选择系统时钟源
* @note 注意调用此函数，DCDC功能强制关闭，唤醒后可以手动再次打开
*
* @param rm - 供电模块选择
* RB_PWR_RAM2K - 2K retention SRAM 供电
* RB_PWR_RAM16K - 16K main SRAM 供电
* NULL - 以上单元都断电
*
* @return none
*/
__HIGH_CODE
void LowPower_Shutdown(uint16_t rm)
{
uint8_t x32Kpw, x32Mpw;
FLASH_ROM_SW_RESET();
x32Kpw = R8_XT32K_TUNE;
x32Mpw = R8_XT32M_TUNE;
x32Mpw = (x32Mpw & 0xfc) | 0x03; // 150%额定电流
if(R16_RTC_CNT_32K > 0x3fff)
{ // 超过500ms
x32Kpw = (x32Kpw & 0xfc) | 0x01; // LSE驱动电流降低到额定电流
}
sys_safe_access_enable();
R8_BAT_DET_CTRL = 0; // 关闭电压监控
sys_safe_access_disable();
sys_safe_access_enable();
R8_XT32K_TUNE = x32Kpw;
R8_XT32M_TUNE = x32Mpw;
sys_safe_access_disable();
SetSysClock(CLK_SOURCE_HSE_6_4MHz);
PFIC->SCTLR |= (1 << 2); //deep sleep
sys_safe_access_enable();
R8_SLP_POWER_CTRL |= RB_RAM_RET_LV;
sys_safe_access_disable();
sys_safe_access_enable();
R16_POWER_PLAN = RB_PWR_PLAN_EN | rm;
sys_safe_access_disable();
__WFI();
__nop();
__nop();
FLASH_ROM_SW_RESET();
sys_safe_access_enable();
R8_RST_WDOG_CTRL |= RB_SOFTWARE_RESET;
sys_safe_access_disable();
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_SPI0.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn SPI0_MasterDefInit
*
* @brief 主机模式默认初始化：模式0+3线全双工+8MHz
*
* @param none
*
* @return none
*/
void SPI0_MasterDefInit(void)
{
R8_SPI0_CLOCK_DIV = 4; // 主频时钟4分频
R8_SPI0_CTRL_MOD = RB_SPI_ALL_CLEAR;
R8_SPI0_CTRL_MOD = RB_SPI_MOSI_OE | RB_SPI_SCK_OE;
R8_SPI0_CTRL_CFG |= RB_SPI_AUTO_IF; // 访问BUFFER/FIFO自动清除IF_BYTE_END标志
R8_SPI0_CTRL_CFG &= ~RB_SPI_DMA_ENABLE; // 不启动DMA方式
}
/*********************************************************************
* @fn SPI0_CLKCfg
*
* @brief SPI0 基准时钟配置，= d*Tsys
*
* @param c - 时钟分频系数
*
* @return none
*/
void SPI0_CLKCfg(uint8_t c)
{
if(c == 2)
{
R8_SPI0_CTRL_CFG |= RB_SPI_MST_DLY_EN;
}
else
{
R8_SPI0_CTRL_CFG &= ~RB_SPI_MST_DLY_EN;
}
R8_SPI0_CLOCK_DIV = c;
}
/*********************************************************************
* @fn SPI0_DataMode
*
* @brief 设置数据流模式
*
* @param m - 数据流模式 refer to ModeBitOrderTypeDef
*
* @return none
*/
void SPI0_DataMode(ModeBitOrderTypeDef m)
{
switch(m)
{
case Mode0_LowBitINFront:
R8_SPI0_CTRL_MOD &= ~RB_SPI_MST_SCK_MOD;
R8_SPI0_CTRL_CFG |= RB_SPI_BIT_ORDER;
break;
case Mode0_HighBitINFront:
R8_SPI0_CTRL_MOD &= ~RB_SPI_MST_SCK_MOD;
R8_SPI0_CTRL_CFG &= ~RB_SPI_BIT_ORDER;
break;
case Mode3_LowBitINFront:
R8_SPI0_CTRL_MOD |= RB_SPI_MST_SCK_MOD;
R8_SPI0_CTRL_CFG |= RB_SPI_BIT_ORDER;
break;
case Mode3_HighBitINFront:
R8_SPI0_CTRL_MOD |= RB_SPI_MST_SCK_MOD;
R8_SPI0_CTRL_CFG &= ~RB_SPI_BIT_ORDER;
break;
default:
break;
}
}
/*********************************************************************
* @fn SPI0_MasterSendByte
*
* @brief 发送单字节 (buffer)
*
* @param d - 发送字节
*
* @return none
*/
void SPI0_MasterSendByte(uint8_t d)
{
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR;
R8_SPI0_BUFFER = d;
while(!(R8_SPI0_INT_FLAG & RB_SPI_FREE));
}
/*********************************************************************
* @fn SPI0_MasterRecvByte
*
* @brief 接收单字节 (buffer)
*
* @param none
*
* @return 接收到的字节
*/
uint8_t SPI0_MasterRecvByte(void)
{
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR;
R8_SPI0_BUFFER = 0xFF; // 启动传输
while(!(R8_SPI0_INT_FLAG & RB_SPI_FREE));
return (R8_SPI0_BUFFER);
}
/*********************************************************************
* @fn SPI0_MasterTrans
*
* @brief 使用FIFO连续发送多字节
*
* @param pbuf - 待发送的数据内容首地址
* @param len - 请求发送的数据长度，最大4095
*
* @return none
*/
void SPI0_MasterTrans(uint8_t *pbuf, uint16_t len)
{
uint16_t sendlen;
sendlen = len;
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR; // 设置数据方向为输出
R16_SPI0_TOTAL_CNT = sendlen; // 设置要发送的数据长度
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END;
while(sendlen)
{
if(R8_SPI0_FIFO_COUNT < SPI_FIFO_SIZE)
{
R8_SPI0_FIFO = *pbuf;
pbuf++;
sendlen--;
}
}
while(R8_SPI0_FIFO_COUNT != 0); // 等待FIFO中的数据全部发送完成
}
/*********************************************************************
* @fn SPI0_MasterRecv
*
* @brief 使用FIFO连续接收多字节
*
* @param pbuf - 待接收的数据首地址
* @param len - 待接收的数据长度，最大4095
*
* @return none
*/
void SPI0_MasterRecv(uint8_t *pbuf, uint16_t len)
{
uint16_t readlen;
readlen = len;
R8_SPI0_CTRL_MOD |= RB_SPI_FIFO_DIR; // 设置数据方向为输入
R16_SPI0_TOTAL_CNT = len; // 设置需要接收的数据长度，FIFO方向为输入长度不为0则会启动传输 */
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END;
while(readlen)
{
if(R8_SPI0_FIFO_COUNT)
{
*pbuf = R8_SPI0_FIFO;
pbuf++;
readlen--;
}
}
}
/*********************************************************************
* @fn SPI0_MasterDMATrans
*
* @brief DMA方式连续发送数据
*
* @param pbuf - 待发送数据起始地址,需要四字节对其
* @param len - 待发送数据长度
*
* @return none
*/
void SPI0_MasterDMATrans(uint8_t *pbuf, uint16_t len)
{
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR;
R16_SPI0_DMA_BEG = (uint32_t)pbuf;
R16_SPI0_DMA_END = (uint32_t)(pbuf + len);
R16_SPI0_TOTAL_CNT = len;
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END | RB_SPI_IF_DMA_END;
R8_SPI0_CTRL_CFG |= RB_SPI_DMA_ENABLE;
while(!(R8_SPI0_INT_FLAG & RB_SPI_IF_CNT_END));
R8_SPI0_CTRL_CFG &= ~RB_SPI_DMA_ENABLE;
}
/*********************************************************************
* @fn SPI0_MasterDMARecv
*
* @brief DMA方式连续接收数据
*
* @param pbuf - 待接收数据存放起始地址,需要四字节对其
* @param len - 待接收数据长度
*
* @return none
*/
void SPI0_MasterDMARecv(uint8_t *pbuf, uint16_t len)
{
R8_SPI0_CTRL_MOD |= RB_SPI_FIFO_DIR;
R16_SPI0_DMA_BEG = (uint32_t)pbuf;
R16_SPI0_DMA_END = (uint32_t)(pbuf + len);
R16_SPI0_TOTAL_CNT = len;
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END | RB_SPI_IF_DMA_END;
R8_SPI0_CTRL_CFG |= RB_SPI_DMA_ENABLE;
while(!(R8_SPI0_INT_FLAG & RB_SPI_IF_CNT_END));
R8_SPI0_CTRL_CFG &= ~RB_SPI_DMA_ENABLE;
}
/*********************************************************************
* @fn SPI0_SlaveInit
*
* @brief 设备模式默认初始化，建议设置MISO的GPIO对应为输入模式
*
* @return none
*/
void SPI0_SlaveInit(void)
{
R8_SPI0_CTRL_MOD = RB_SPI_ALL_CLEAR;
R8_SPI0_CTRL_MOD = RB_SPI_MISO_OE | RB_SPI_MODE_SLAVE;
R8_SPI0_CTRL_CFG |= RB_SPI_AUTO_IF;
}
/*********************************************************************
* @fn SPI0_SlaveRecvByte
*
* @brief 从机模式，接收一字节数据
*
* @return 接收到数据
*/
uint8_t SPI0_SlaveRecvByte(void)
{
R8_SPI0_CTRL_MOD |= RB_SPI_FIFO_DIR;
while(R8_SPI0_FIFO_COUNT == 0);
return R8_SPI0_FIFO;
}
/*********************************************************************
* @fn SPI0_SlaveSendByte
*
* @brief 从机模式，发送一字节数据
*
* @param d - 待发送数据
*
* @return none
*/
void SPI0_SlaveSendByte(uint8_t d)
{
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR;
R8_SPI0_FIFO = d;
while(R8_SPI0_FIFO_COUNT != 0); // 等待发送完成
}
/*********************************************************************
* @fn SPI0_SlaveRecv
*
* @brief 从机模式，接收多字节数据
*
* @param pbuf - 接收收数据存放起始地址
* @param len - 请求接收数据长度
*
* @return none
*/
__HIGH_CODE
void SPI0_SlaveRecv(uint8_t *pbuf, uint16_t len)
{
uint16_t revlen;
revlen = len;
R8_SPI0_CTRL_MOD |= RB_SPI_FIFO_DIR;
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END;
while(revlen)
{
if(R8_SPI0_FIFO_COUNT)
{
*pbuf = R8_SPI0_FIFO;
pbuf++;
revlen--;
}
}
}
/*********************************************************************
* @fn SPI0_SlaveTrans
*
* @brief 从机模式，发送多字节数据
*
* @param pbuf - 待发送的数据内容首地址
* @param len - 请求发送的数据长度，最大4095
*
* @return none
*/
__HIGH_CODE
void SPI0_SlaveTrans(uint8_t *pbuf, uint16_t len)
{
uint16_t sendlen;
sendlen = len;
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR; // 设置数据方向为输出
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END;
while(sendlen)
{
if(R8_SPI0_FIFO_COUNT < SPI_FIFO_SIZE)
{
R8_SPI0_FIFO = *pbuf;
pbuf++;
sendlen--;
}
}
while(R8_SPI0_FIFO_COUNT != 0); // 等待FIFO中的数据全部发送完成
}
/*********************************************************************
* @fn SPI0_SlaveDMARecv
*
* @brief DMA方式连续接收数据
*
* @param pbuf - 待接收数据存放起始地址,需要四字节对其
* @param len - 待接收数据长度
*
* @return none
*/
void SPI0_SlaveDMARecv(uint8_t *pbuf, uint16_t len)
{
R8_SPI0_CTRL_MOD |= RB_SPI_FIFO_DIR;
R16_SPI0_DMA_BEG = (uint32_t)pbuf;
R16_SPI0_DMA_END = (uint32_t)(pbuf + len);
R16_SPI0_TOTAL_CNT = len;
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END | RB_SPI_IF_DMA_END;
R8_SPI0_CTRL_CFG |= RB_SPI_DMA_ENABLE;
while(!(R8_SPI0_INT_FLAG & RB_SPI_IF_CNT_END));
R8_SPI0_CTRL_CFG &= ~RB_SPI_DMA_ENABLE;
}
/*********************************************************************
* @fn SPI0_SlaveDMATrans
*
* @brief DMA方式连续发送数据
*
* @param pbuf - 待发送数据起始地址,需要四字节对其
* @param len - 待发送数据长度
*
* @return none
*/
void SPI0_SlaveDMATrans(uint8_t *pbuf, uint16_t len)
{
R8_SPI0_CTRL_MOD &= ~RB_SPI_FIFO_DIR;
R16_SPI0_DMA_BEG = (uint32_t)pbuf;
R16_SPI0_DMA_END = (uint32_t)(pbuf + len);
R16_SPI0_TOTAL_CNT = len;
R8_SPI0_INT_FLAG = RB_SPI_IF_CNT_END | RB_SPI_IF_DMA_END;
R8_SPI0_CTRL_CFG |= RB_SPI_DMA_ENABLE;
while(!(R8_SPI0_INT_FLAG & RB_SPI_IF_CNT_END));
R8_SPI0_CTRL_CFG &= ~RB_SPI_DMA_ENABLE;
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_SYS.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
volatile uint32_t IRQ_STA = 0;
/*********************************************************************
* @fn SetSysClock
*
* @brief 配置系统运行时钟
*
* @param sc - 系统时钟源选择 refer to SYS_CLKTypeDef
*
* @return none
*/
__HIGH_CODE
void SetSysClock(SYS_CLKTypeDef sc)
{
sys_safe_access_enable();
R8_PLL_CONFIG &= ~(1 << 5); //
sys_safe_access_disable();
if(sc & 0x20) // HSE div
{
sys_safe_access_enable();
R32_CLK_SYS_CFG = (0 << 6) | (sc & 0x1f) | RB_TX_32M_PWR_EN | RB_PLL_PWR_EN;
__nop();
__nop();
__nop();
__nop();
sys_safe_access_disable();
sys_safe_access_enable();
SAFEOPERATE;
R8_FLASH_CFG = 0X51;
sys_safe_access_disable();
}
else if(sc & 0x40) // PLL div
{
sys_safe_access_enable();
R32_CLK_SYS_CFG = (1 << 6) | (sc & 0x1f) | RB_TX_32M_PWR_EN | RB_PLL_PWR_EN;
__nop();
__nop();
__nop();
__nop();
sys_safe_access_disable();
sys_safe_access_enable();
R8_FLASH_CFG = 0X52;
sys_safe_access_disable();
}
else
{
sys_safe_access_enable();
R32_CLK_SYS_CFG |= RB_CLK_SYS_MOD;
sys_safe_access_disable();
}
//更改FLASH clk的驱动能力
sys_safe_access_enable();
R8_PLL_CONFIG |= 1 << 7;
sys_safe_access_disable();
}
/*********************************************************************
* @fn GetSysClock
*
* @brief 获取当前系统时钟
*
* @param none
*
* @return Hz
*/
uint32_t GetSysClock(void)
{
uint16_t rev;
rev = R32_CLK_SYS_CFG & 0xff;
if((rev & 0x40) == (0 << 6))
{ // 32M进行分频
return (32000000 / (rev & 0x1f));
}
else if((rev & RB_CLK_SYS_MOD) == (1 << 6))
{ // PLL进行分频
return (480000000 / (rev & 0x1f));
}
else
{ // 32K做主频
return (32000);
}
}
/*********************************************************************
* @fn SYS_GetInfoSta
*
* @brief 获取当前系统信息状态
*
* @param i - refer to SYS_InfoStaTypeDef
*
* @return 是否开启
*/
uint8_t SYS_GetInfoSta(SYS_InfoStaTypeDef i)
{
if(i == STA_SAFEACC_ACT)
{
return (R8_SAFE_ACCESS_SIG & RB_SAFE_ACC_ACT);
}
else
{
return (R8_GLOB_CFG_INFO & (1 << i));
}
}
/*********************************************************************
* @fn SYS_ResetExecute
*
* @brief 执行系统软件复位
*
* @param none
*
* @return none
*/
__HIGH_CODE
void SYS_ResetExecute(void)
{
FLASH_ROM_SW_RESET();
sys_safe_access_enable();
R8_RST_WDOG_CTRL |= RB_SOFTWARE_RESET;
sys_safe_access_disable();
}
/*********************************************************************
* @fn SYS_DisableAllIrq
*
* @brief 关闭所有中断，并保留当前中断值
*
* @param pirqv - 当前保留中断值
*
* @return none
*/
void SYS_DisableAllIrq(uint32_t *pirqv)
{
*pirqv = (PFIC->ISR[0] >> 8) | (PFIC->ISR[1] << 24);
PFIC->IRER[0] = 0xffffffff;
PFIC->IRER[1] = 0xffffffff;
}
/*********************************************************************
* @fn SYS_RecoverIrq
*
* @brief 恢复之前关闭的中断值
*
* @param irq_status - 当前保留中断值
*
* @return none
*/
void SYS_RecoverIrq(uint32_t irq_status)
{
PFIC->IENR[0] = (irq_status << 8);
PFIC->IENR[1] = (irq_status >> 24);
}
/*********************************************************************
* @fn SYS_GetSysTickCnt
*
* @brief 获取当前系统(SYSTICK)计数值
*
* @param none
*
* @return 当前计数值
*/
uint32_t SYS_GetSysTickCnt(void)
{
uint32_t val;
val = SysTick->CNT;
return (val);
}
/*********************************************************************
* @fn WWDG_ITCfg
*
* @brief 看门狗定时器溢出中断使能
*
* @param s - 溢出是否中断
*
* @return none
*/
void WWDG_ITCfg(FunctionalState s)
{
uint8_t ctrl = R8_RST_WDOG_CTRL;
if(s == DISABLE)
{
ctrl &= ~RB_WDOG_INT_EN;
}
else
{
ctrl |= RB_WDOG_INT_EN;
}
sys_safe_access_enable();
R8_RST_WDOG_CTRL = ctrl;
sys_safe_access_disable();
}
/*********************************************************************
* @fn WWDG_ResetCfg
*
* @brief 看门狗定时器复位功能
*
* @param s - 溢出是否复位
*
* @return none
*/
void WWDG_ResetCfg(FunctionalState s)
{
uint8_t ctrl = R8_RST_WDOG_CTRL;
if(s == DISABLE)
{
ctrl &= ~RB_WDOG_RST_EN;
}
else
{
ctrl |= RB_WDOG_RST_EN;
}
sys_safe_access_enable();
R8_RST_WDOG_CTRL = ctrl;
sys_safe_access_disable();
}
/*********************************************************************
* @fn WWDG_ClearFlag
*
* @brief 清除看门狗中断标志，重新加载计数值也可清除
*
* @param none
*
* @return none
*/
void WWDG_ClearFlag(void)
{
sys_safe_access_enable();
R8_RST_WDOG_CTRL |= RB_WDOG_INT_FLAG;
sys_safe_access_disable();
}
/*********************************************************************
* @fn HardFault_Handler
*
* @brief 硬件错误中断，进入后执行复位，复位类型为上电复位
*
* @param none
*
* @return none
*/
__INTERRUPT
__HIGH_CODE
__attribute__((weak))
void HardFault_Handler(void)
{
FLASH_ROM_SW_RESET();
sys_safe_access_enable();
R16_INT32K_TUNE = 0xFFFF;
sys_safe_access_disable();
sys_safe_access_enable();
R8_RST_WDOG_CTRL |= RB_SOFTWARE_RESET;
sys_safe_access_disable();
while(1);
}
/*********************************************************************
* @fn mDelayuS
*
* @brief uS 延时
*
* @param t - 时间参数
*
* @return none
*/
__HIGH_CODE
void mDelayuS(uint16_t t)
{
uint32_t i;
#if(FREQ_SYS == 80000000)
i = t * 20;
#elif(FREQ_SYS == 60000000)
i = t * 15;
#elif(FREQ_SYS == 48000000)
i = t * 12;
#elif(FREQ_SYS == 40000000)
i = t * 10;
#elif(FREQ_SYS == 32000000)
i = t << 3;
#elif(FREQ_SYS == 24000000)
i = t * 6;
#elif(FREQ_SYS == 16000000)
i = t << 2;
#elif(FREQ_SYS == 8000000)
i = t << 1;
#elif(FREQ_SYS == 4000000)
i = t;
#elif(FREQ_SYS == 2000000)
i = t >> 1;
#elif(FREQ_SYS == 1000000)
i = t >> 2;
#else
i = t << 1;
#endif
do
{
__nop();
} while(--i);
}
/*********************************************************************
* @fn mDelaymS
*
* @brief mS 延时
*
* @param t - 时间参数
*
* @return none
*/
__HIGH_CODE
void mDelaymS(uint16_t t)
{
uint16_t i;
for(i = 0; i < t; i++)
{
mDelayuS(1000);
}
}
#ifdef DEBUG
int _write(int fd, char *buf, int size)
{
int i;
for(i = 0; i < size; i++)
{
#if DEBUG == Debug_UART0
while(R8_UART0_TFC == UART_FIFO_SIZE); /* 等待数据发送 */
R8_UART0_THR = *buf++; /* 发送数据 */
#elif DEBUG == Debug_UART1
while(R8_UART1_TFC == UART_FIFO_SIZE); /* 等待数据发送 */
R8_UART1_THR = *buf++; /* 发送数据 */
#elif DEBUG == Debug_UART2
while(R8_UART2_TFC == UART_FIFO_SIZE); /* 等待数据发送 */
R8_UART2_THR = *buf++; /* 发送数据 */
#elif DEBUG == Debug_UART3
while(R8_UART3_TFC == UART_FIFO_SIZE); /* 等待数据发送 */
R8_UART3_THR = *buf++; /* 发送数据 */
#endif
}
return size;
}
#endif

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_timer0.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn TMR0_TimerInit
*
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*
* @return none
*/
void TMR0_TimerInit(uint32_t t)
{
R32_TMR0_CNT_END = t;
R8_TMR0_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR0_CTRL_MOD = RB_TMR_COUNT_EN;
}
/*********************************************************************
* @fn TMR0_EXTSingleCounterInit
*
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*
* @return none
*/
void TMR0_EXTSingleCounterInit(CapModeTypeDef cap)
{
R8_TMR0_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR0_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_CAP_COUNT | RB_TMR_MODE_IN | (cap << 6);
}
/*********************************************************************
* @fn TMR0_PWMInit
*
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*
* @return none
*/
void TMR0_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts)
{
R8_TMR0_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR0_CTRL_MOD = (pr << 4) | (ts << 6);
}
/*********************************************************************
* @fn TMR0_CapInit
*
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*
* @return none
*/
void TMR0_CapInit(CapModeTypeDef cap)
{
R8_TMR0_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR0_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_MODE_IN | (cap << 6);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_timer1.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn TMR1_TimerInit
*
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*
* @return none
*/
void TMR1_TimerInit(uint32_t t)
{
R32_TMR1_CNT_END = t;
R8_TMR1_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR1_CTRL_MOD = RB_TMR_COUNT_EN;
}
/*********************************************************************
* @fn TMR1_EXTSingleCounterInit
*
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*
* @return none
*/
void TMR1_EXTSingleCounterInit(CapModeTypeDef cap)
{
R8_TMR1_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR1_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_CAP_COUNT | RB_TMR_MODE_IN | (cap << 6);
}
/*********************************************************************
* @fn TMR1_PWMInit
*
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*
* @return none
*/
void TMR1_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts)
{
R8_TMR1_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR1_CTRL_MOD = (pr << 4) | (ts << 6);
}
/*********************************************************************
* @fn TMR1_CapInit
*
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*
* @return none
*/
void TMR1_CapInit(CapModeTypeDef cap)
{
R8_TMR1_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR1_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_MODE_IN | (cap << 6);
}
/*********************************************************************
* @fn TMR1_DMACfg
*
* @brief 配置DMA功能
*
* @param s - 是否打开DMA功能
* @param startAddr - DMA 起始地址
* @param endAddr - DMA 结束地址
* @param m - 配置DMA模式
*
* @return none
*/
void TMR1_DMACfg(uint8_t s, uint16_t startAddr, uint16_t endAddr, DMAModeTypeDef m)
{
if(s == DISABLE)
{
R8_TMR1_CTRL_DMA = 0;
}
else
{
R16_TMR1_DMA_BEG = startAddr;
R16_TMR1_DMA_END = endAddr;
if(m)
R8_TMR1_CTRL_DMA = RB_TMR_DMA_LOOP | RB_TMR_DMA_ENABLE;
else
R8_TMR1_CTRL_DMA = RB_TMR_DMA_ENABLE;
}
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_timer2.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn TMR2_TimerInit
*
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*
* @return none
*/
void TMR2_TimerInit(uint32_t t)
{
R32_TMR2_CNT_END = t;
R8_TMR2_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR2_CTRL_MOD = RB_TMR_COUNT_EN;
}
/*********************************************************************
* @fn TMR2_EXTSingleCounterInit
*
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*
* @return none
*/
void TMR2_EXTSingleCounterInit(CapModeTypeDef cap)
{
R8_TMR2_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR2_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_CAP_COUNT | RB_TMR_MODE_IN | (cap << 6);
}
/*********************************************************************
* @fn TMR2_PWMInit
*
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*
* @return none
*/
void TMR2_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts)
{
R8_TMR2_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR2_CTRL_MOD = (pr << 4) | (ts << 6);
}
/*********************************************************************
* @fn TMR2_CapInit
*
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*
* @return none
*/
void TMR2_CapInit(CapModeTypeDef cap)
{
R8_TMR2_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR2_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_MODE_IN | (cap << 6);
}
/*********************************************************************
* @fn TMR2_DMACfg
*
* @brief 配置DMA功能
*
* @param s - 是否打开DMA功能
* @param startAddr - DMA 起始地址
* @param endAddr - DMA 结束地址
* @param m - 配置DMA模式
*
* @return none
*/
void TMR2_DMACfg(uint8_t s, uint32_t startAddr, uint32_t endAddr, DMAModeTypeDef m)
{
if(s == DISABLE)
{
R8_TMR2_CTRL_DMA = 0;
}
else
{
R16_TMR2_DMA_BEG = startAddr&0xFFFF;
R16_TMR2_DMA_END = endAddr&0xFFFF;
if(m)
R8_TMR2_CTRL_DMA = RB_TMR_DMA_LOOP | RB_TMR_DMA_ENABLE;
else
R8_TMR2_CTRL_DMA = RB_TMR_DMA_ENABLE;
}
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_timer3.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn TMR3_TimerInit
*
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*
* @return none
*/
void TMR3_TimerInit(uint32_t t)
{
R32_TMR3_CNT_END = t;
R8_TMR3_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR3_CTRL_MOD = RB_TMR_COUNT_EN;
}
/*********************************************************************
* @fn TMR3_EXTSingleCounterInit
*
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*
* @return none
*/
void TMR3_EXTSingleCounterInit(CapModeTypeDef cap)
{
R8_TMR3_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR3_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_CAP_COUNT | RB_TMR_MODE_IN | (cap << 6);
}
/*********************************************************************
* @fn TMR3_PWMInit
*
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*
* @return none
*/
void TMR3_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts)
{
R8_TMR3_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR3_CTRL_MOD = (pr << 4) | (ts << 6);
}
/*********************************************************************
* @fn TMR3_CapInit
*
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*
* @return none
*/
void TMR3_CapInit(CapModeTypeDef cap)
{
R8_TMR3_CTRL_MOD = RB_TMR_ALL_CLEAR;
R8_TMR3_CTRL_MOD = RB_TMR_COUNT_EN | RB_TMR_MODE_IN | (cap << 6);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_uart0.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn UART0_DefInit
*
* @brief 串口默认初始化配置
*
* @param none
*
* @return none
*/
void UART0_DefInit(void)
{
UART0_BaudRateCfg(115200);
R8_UART0_FCR = (2 << 6) | RB_FCR_TX_FIFO_CLR | RB_FCR_RX_FIFO_CLR | RB_FCR_FIFO_EN; // FIFO打开，触发点4字节
R8_UART0_LCR = RB_LCR_WORD_SZ;
R8_UART0_IER = RB_IER_TXD_EN;
R8_UART0_DIV = 1;
}
/*********************************************************************
* @fn UART0_BaudRateCfg
*
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*
* @return none
*/
void UART0_BaudRateCfg(uint32_t baudrate)
{
uint32_t x;
x = 10 * GetSysClock() / 8 / baudrate;
x = (x + 5) / 10;
R16_UART0_DL = (uint16_t)x;
}
/*********************************************************************
* @fn UART0_ByteTrigCfg
*
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*
* @return none
*/
void UART0_ByteTrigCfg(UARTByteTRIGTypeDef b)
{
R8_UART0_FCR = (R8_UART0_FCR & ~RB_FCR_FIFO_TRIG) | (b << 6);
}
/*********************************************************************
* @fn UART0_INTCfg
*
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*
* @return none
*/
void UART0_INTCfg(FunctionalState s, uint8_t i)
{
if(s)
{
R8_UART0_IER |= i;
R8_UART0_MCR |= RB_MCR_INT_OE;
}
else
{
R8_UART0_IER &= ~i;
}
}
/*********************************************************************
* @fn UART0_Reset
*
* @brief 串口软件复位
*
* @param none
*
* @return none
*/
void UART0_Reset(void)
{
R8_UART0_IER = RB_IER_RESET;
}
/*********************************************************************
* @fn UART0_SendString
*
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*
* @return none
*/
void UART0_SendString(uint8_t *buf, uint16_t l)
{
uint16_t len = l;
while(len)
{
if(R8_UART0_TFC != UART_FIFO_SIZE)
{
R8_UART0_THR = *buf++;
len--;
}
}
}
/*********************************************************************
* @fn UART0_RecvString
*
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART0_RecvString(uint8_t *buf)
{
uint16_t len = 0;
while(R8_UART0_RFC)
{
*buf++ = R8_UART0_RBR;
len++;
}
return (len);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_uart1.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn UART1_DefInit
*
* @brief 串口默认初始化配置
*
* @param none
*
* @return none
*/
void UART1_DefInit(void)
{
UART1_BaudRateCfg(115200);
R8_UART1_FCR = (2 << 6) | RB_FCR_TX_FIFO_CLR | RB_FCR_RX_FIFO_CLR | RB_FCR_FIFO_EN; // FIFO打开，触发点4字节
R8_UART1_LCR = RB_LCR_WORD_SZ;
R8_UART1_IER = RB_IER_TXD_EN;
R8_UART1_DIV = 1;
}
/*********************************************************************
* @fn UART1_BaudRateCfg
*
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*
* @return none
*/
void UART1_BaudRateCfg(uint32_t baudrate)
{
uint32_t x;
x = 10 * GetSysClock() / 8 / baudrate;
x = (x + 5) / 10;
R16_UART1_DL = (uint16_t)x;
}
/*********************************************************************
* @fn UART1_ByteTrigCfg
*
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*
* @return none
*/
void UART1_ByteTrigCfg(UARTByteTRIGTypeDef b)
{
R8_UART1_FCR = (R8_UART1_FCR & ~RB_FCR_FIFO_TRIG) | (b << 6);
}
/*********************************************************************
* @fn UART1_INTCfg
*
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*
* @return none
*/
void UART1_INTCfg(FunctionalState s, uint8_t i)
{
if(s)
{
R8_UART1_IER |= i;
R8_UART1_MCR |= RB_MCR_INT_OE;
}
else
{
R8_UART1_IER &= ~i;
}
}
/*********************************************************************
* @fn UART1_Reset
*
* @brief 串口软件复位
*
* @param none
*
* @return none
*/
void UART1_Reset(void)
{
R8_UART1_IER = RB_IER_RESET;
}
/*********************************************************************
* @fn UART1_SendString
*
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*
* @return none
*/
void UART1_SendString(uint8_t *buf, uint16_t l)
{
uint16_t len = l;
while(len)
{
if(R8_UART1_TFC != UART_FIFO_SIZE)
{
R8_UART1_THR = *buf++;
len--;
}
}
}
/*********************************************************************
* @fn UART1_RecvString
*
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART1_RecvString(uint8_t *buf)
{
uint16_t len = 0;
while(R8_UART1_RFC)
{
*buf++ = R8_UART1_RBR;
len++;
}
return (len);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_uart2.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn UART2_DefInit
*
* @brief 串口默认初始化配置
*
* @param none
*
* @return none
*/
void UART2_DefInit(void)
{
UART2_BaudRateCfg(115200);
R8_UART2_FCR = (2 << 6) | RB_FCR_TX_FIFO_CLR | RB_FCR_RX_FIFO_CLR | RB_FCR_FIFO_EN; // FIFO打开，触发点4字节
R8_UART2_LCR = RB_LCR_WORD_SZ;
R8_UART2_IER = RB_IER_TXD_EN;
R8_UART2_DIV = 1;
}
/*********************************************************************
* @fn UART2_BaudRateCfg
*
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*
* @return none
*/
void UART2_BaudRateCfg(uint32_t baudrate)
{
uint32_t x;
x = 10 * GetSysClock() / 8 / baudrate;
x = (x + 5) / 10;
R16_UART2_DL = (uint16_t)x;
}
/*********************************************************************
* @fn UART2_ByteTrigCfg
*
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*
* @return none
*/
void UART2_ByteTrigCfg(UARTByteTRIGTypeDef b)
{
R8_UART2_FCR = (R8_UART2_FCR & ~RB_FCR_FIFO_TRIG) | (b << 6);
}
/*********************************************************************
* @fn UART2_INTCfg
*
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*
* @return none
*/
void UART2_INTCfg(FunctionalState s, uint8_t i)
{
if(s)
{
R8_UART2_IER |= i;
R8_UART2_MCR |= RB_MCR_INT_OE;
}
else
{
R8_UART2_IER &= ~i;
}
}
/*********************************************************************
* @fn UART2_Reset
*
* @brief 串口软件复位
*
* @param none
*
* @return none
*/
void UART2_Reset(void)
{
R8_UART2_IER = RB_IER_RESET;
}
/*********************************************************************
* @fn UART2_SendString
*
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*
* @return none
*/
void UART2_SendString(uint8_t *buf, uint16_t l)
{
uint16_t len = l;
while(len)
{
if(R8_UART2_TFC != UART_FIFO_SIZE)
{
R8_UART2_THR = *buf++;
len--;
}
}
}
/*********************************************************************
* @fn UART2_RecvString
*
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART2_RecvString(uint8_t *buf)
{
uint16_t len = 0;
while(R8_UART2_RFC)
{
*buf++ = R8_UART2_RBR;
len++;
}
return (len);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_uart3.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
/*********************************************************************
* @fn UART3_DefInit
*
* @brief 串口默认初始化配置
*
* @param none
*
* @return none
*/
void UART3_DefInit(void)
{
UART3_BaudRateCfg(115200);
R8_UART3_FCR = (2 << 6) | RB_FCR_TX_FIFO_CLR | RB_FCR_RX_FIFO_CLR | RB_FCR_FIFO_EN; // FIFO打开，触发点4字节
R8_UART3_LCR = RB_LCR_WORD_SZ;
R8_UART3_IER = RB_IER_TXD_EN;
R8_UART3_DIV = 1;
}
/*********************************************************************
* @fn UART3_BaudRateCfg
*
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*
* @return none
*/
void UART3_BaudRateCfg(uint32_t baudrate)
{
uint32_t x;
x = 10 * GetSysClock() / 8 / baudrate;
x = (x + 5) / 10;
R16_UART3_DL = (uint16_t)x;
}
/*********************************************************************
* @fn UART3_ByteTrigCfg
*
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*
* @return none
*/
void UART3_ByteTrigCfg(UARTByteTRIGTypeDef b)
{
R8_UART3_FCR = (R8_UART3_FCR & ~RB_FCR_FIFO_TRIG) | (b << 6);
}
/*********************************************************************
* @fn UART3_INTCfg
*
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*
* @return none
*/
void UART3_INTCfg(FunctionalState s, uint8_t i)
{
if(s)
{
R8_UART3_IER |= i;
R8_UART3_MCR |= RB_MCR_INT_OE;
}
else
{
R8_UART3_IER &= ~i;
}
}
/*********************************************************************
* @fn UART3_Reset
*
* @brief 串口软件复位
*
* @param none
*
* @return none
*/
void UART3_Reset(void)
{
R8_UART3_IER = RB_IER_RESET;
}
/*********************************************************************
* @fn UART3_SendString
*
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*
* @return none
*/
void UART3_SendString(uint8_t *buf, uint16_t l)
{
uint16_t len = l;
while(len)
{
if(R8_UART3_TFC != UART_FIFO_SIZE)
{
R8_UART3_THR = *buf++;
len--;
}
}
}
/*********************************************************************
* @fn UART3_RecvString
*
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART3_RecvString(uint8_t *buf)
{
uint16_t len = 0;
while(R8_UART3_RFC)
{
*buf++ = R8_UART3_RBR;
len++;
}
return (len);
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_usbdev.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
uint8_t *pEP0_RAM_Addr;
uint8_t *pEP1_RAM_Addr;
uint8_t *pEP2_RAM_Addr;
uint8_t *pEP3_RAM_Addr;
/*********************************************************************
* @fn USB_DeviceInit
*
* @brief USB设备功能初始化，4个端点，8个通道。
*
* @param none
*
* @return none
*/
void USB_DeviceInit(void)
{
R8_USB_CTRL = 0x00; // 先设定模式,取消 RB_UC_CLR_ALL
R8_UEP4_1_MOD = RB_UEP4_RX_EN | RB_UEP4_TX_EN | RB_UEP1_RX_EN | RB_UEP1_TX_EN; // 端点4 OUT+IN,端点1 OUT+IN
R8_UEP2_3_MOD = RB_UEP2_RX_EN | RB_UEP2_TX_EN | RB_UEP3_RX_EN | RB_UEP3_TX_EN; // 端点2 OUT+IN,端点3 OUT+IN
R16_UEP0_DMA = (uint16_t)(uint32_t)pEP0_RAM_Addr;
R16_UEP1_DMA = (uint16_t)(uint32_t)pEP1_RAM_Addr;
R16_UEP2_DMA = (uint16_t)(uint32_t)pEP2_RAM_Addr;
R16_UEP3_DMA = (uint16_t)(uint32_t)pEP3_RAM_Addr;
R8_UEP0_CTRL = UEP_R_RES_ACK | UEP_T_RES_NAK;
R8_UEP1_CTRL = UEP_R_RES_ACK | UEP_T_RES_NAK | RB_UEP_AUTO_TOG;
R8_UEP2_CTRL = UEP_R_RES_ACK | UEP_T_RES_NAK | RB_UEP_AUTO_TOG;
R8_UEP3_CTRL = UEP_R_RES_ACK | UEP_T_RES_NAK | RB_UEP_AUTO_TOG;
R8_UEP4_CTRL = UEP_R_RES_ACK | UEP_T_RES_NAK;
R8_USB_DEV_AD = 0x00;
R8_USB_CTRL = RB_UC_DEV_PU_EN | RB_UC_INT_BUSY | RB_UC_DMA_EN; // 启动USB设备及DMA，在中断期间中断标志未清除前自动返回NAK
R16_PIN_ANALOG_IE |= RB_PIN_USB_IE | RB_PIN_USB_DP_PU; // 防止USB端口浮空及上拉电阻
R8_USB_INT_FG = 0xFF; // 清中断标志
R8_UDEV_CTRL = RB_UD_PD_DIS | RB_UD_PORT_EN; // 允许USB端口
R8_USB_INT_EN = RB_UIE_SUSPEND | RB_UIE_BUS_RST | RB_UIE_TRANSFER;
}
/*********************************************************************
* @fn DevEP1_IN_Deal
*
* @brief 端点1数据上传
*
* @param l - 上传数据长度(<64B)
*
* @return none
*/
void DevEP1_IN_Deal(uint8_t l)
{
R8_UEP1_T_LEN = l;
R8_UEP1_CTRL = (R8_UEP1_CTRL & ~MASK_UEP_T_RES) | UEP_T_RES_ACK;
}
/*********************************************************************
* @fn DevEP2_IN_Deal
*
* @brief 端点2数据上传
*
* @param l - 上传数据长度(<64B)
*
* @return none
*/
void DevEP2_IN_Deal(uint8_t l)
{
R8_UEP2_T_LEN = l;
R8_UEP2_CTRL = (R8_UEP2_CTRL & ~MASK_UEP_T_RES) | UEP_T_RES_ACK;
}
/*********************************************************************
* @fn DevEP3_IN_Deal
*
* @brief 端点3数据上传
*
* @param l - 上传数据长度(<64B)
*
* @return none
*/
void DevEP3_IN_Deal(uint8_t l)
{
R8_UEP3_T_LEN = l;
R8_UEP3_CTRL = (R8_UEP3_CTRL & ~MASK_UEP_T_RES) | UEP_T_RES_ACK;
}
/*********************************************************************
* @fn DevEP4_IN_Deal
*
* @brief 端点4数据上传
*
* @param l - 上传数据长度(<64B)
*
* @return none
*/
void DevEP4_IN_Deal(uint8_t l)
{
R8_UEP4_T_LEN = l;
R8_UEP4_CTRL = (R8_UEP4_CTRL & ~MASK_UEP_T_RES) | UEP_T_RES_ACK;
}

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_usbhost.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
#if DISK_LIB_ENABLE
#include "CHRV3UFI.H"
#endif
uint8_t UsbDevEndp0Size; // USB设备的端点0的最大包尺寸
uint8_t FoundNewDev;
_RootHubDev ThisUsbDev; //ROOT口
_DevOnHubPort DevOnHubPort[HUB_MAX_PORTS]; // 假定:不超过1个外部HUB,每个外部HUB不超过HUB_MAX_PORTS个端口(多了不管)
uint8_t *pHOST_RX_RAM_Addr;
uint8_t *pHOST_TX_RAM_Addr;
/*获取设备描述符*/
__attribute__((aligned(4))) const uint8_t SetupGetDevDescr[] = {USB_REQ_TYP_IN, USB_GET_DESCRIPTOR, 0x00,
USB_DESCR_TYP_DEVICE, 0x00, 0x00, sizeof(USB_DEV_DESCR), 0x00};
/*获取配置描述符*/
__attribute__((aligned(4))) const uint8_t SetupGetCfgDescr[] = {USB_REQ_TYP_IN, USB_GET_DESCRIPTOR, 0x00,
USB_DESCR_TYP_CONFIG, 0x00, 0x00, 0x04, 0x00};
/*设置USB地址*/
__attribute__((aligned(4))) const uint8_t SetupSetUsbAddr[] = {USB_REQ_TYP_OUT, USB_SET_ADDRESS, USB_DEVICE_ADDR, 0x00,
0x00, 0x00, 0x00, 0x00};
/*设置USB配置*/
__attribute__((aligned(4))) const uint8_t SetupSetUsbConfig[] = {USB_REQ_TYP_OUT, USB_SET_CONFIGURATION, 0x00, 0x00, 0x00,
0x00, 0x00, 0x00};
/*设置USB接口配置*/
__attribute__((aligned(4))) const uint8_t SetupSetUsbInterface[] = {USB_REQ_RECIP_INTERF, USB_SET_INTERFACE, 0x00, 0x00,
0x00, 0x00, 0x00, 0x00};
/*清除端点STALL*/
__attribute__((aligned(4))) const uint8_t SetupClrEndpStall[] = {USB_REQ_TYP_OUT | USB_REQ_RECIP_ENDP, USB_CLEAR_FEATURE,
0x00, 0x00, 0x00, 0x00, 0x00, 0x00};
/*********************************************************************
* @fn DisableRootHubPort
*
* @brief 关闭ROOT-HUB端口,实际上硬件已经自动关闭,此处只是清除一些结构状态
*
* @param none
*
* @return none
*/
void DisableRootHubPort(void)
{
#ifdef FOR_ROOT_UDISK_ONLY
CHRV3DiskStatus = DISK_DISCONNECT;
#endif
#ifndef DISK_BASE_BUF_LEN
ThisUsbDev.DeviceStatus = ROOT_DEV_DISCONNECT;
ThisUsbDev.DeviceAddress = 0x00;
#endif
}
/*********************************************************************
* @fn AnalyzeRootHub
*
* @brief 分析ROOT-HUB状态,处理ROOT-HUB端口的设备插拔事件
* 如果设备拔出,函数中调用DisableRootHubPort()函数,将端口关闭,插入事件,置相应端口的状态位
*
* @param none
*
* @return 返回ERR_SUCCESS为没有情况,返回ERR_USB_CONNECT为检测到新连接,返回ERR_USB_DISCON为检测到断开
*/
uint8_t AnalyzeRootHub(void)
{
uint8_t s;
s = ERR_SUCCESS;
if(R8_USB_MIS_ST & RB_UMS_DEV_ATTACH)
{ // 设备存在
#ifdef DISK_BASE_BUF_LEN
if(CHRV3DiskStatus == DISK_DISCONNECT
#else
if(ThisUsbDev.DeviceStatus == ROOT_DEV_DISCONNECT // 检测到有设备插入
#endif
|| (R8_UHOST_CTRL & RB_UH_PORT_EN) == 0x00)
{ // 检测到有设备插入,但尚未允许,说明是刚插入
DisableRootHubPort(); // 关闭端口
#ifdef DISK_BASE_BUF_LEN
CHRV3DiskStatus = DISK_CONNECT;
#else
ThisUsbDev.DeviceSpeed = R8_USB_MIS_ST & RB_UMS_DM_LEVEL ? 0 : 1;
ThisUsbDev.DeviceStatus = ROOT_DEV_CONNECTED; //置连接标志
#endif
PRINT("USB dev in\n");
s = ERR_USB_CONNECT;
}
}
#ifdef DISK_BASE_BUF_LEN
else if(CHRV3DiskStatus >= DISK_CONNECT)
{
#else
else if(ThisUsbDev.DeviceStatus >= ROOT_DEV_CONNECTED)
{ //检测到设备拔出
#endif
DisableRootHubPort(); // 关闭端口
PRINT("USB dev out\n");
if(s == ERR_SUCCESS)
{
s = ERR_USB_DISCON;
}
}
// R8_USB_INT_FG = RB_UIF_DETECT; // 清中断标志
return (s);
}
/*********************************************************************
* @fn SetHostUsbAddr
*
* @brief 设置USB主机当前操作的USB设备地址
*
* @param addr - USB设备地址
*
* @return none
*/
void SetHostUsbAddr(uint8_t addr)
{
R8_USB_DEV_AD = (R8_USB_DEV_AD & RB_UDA_GP_BIT) | (addr & MASK_USB_ADDR);
}
/*********************************************************************
* @fn SetUsbSpeed
*
* @brief 设置当前USB速度
*
* @param FullSpeed - USB速度
*
* @return none
*/
void SetUsbSpeed(uint8_t FullSpeed)
{
#ifndef DISK_BASE_BUF_LEN
if(FullSpeed) // 全速
{
R8_USB_CTRL &= ~RB_UC_LOW_SPEED; // 全速
R8_UH_SETUP &= ~RB_UH_PRE_PID_EN; // 禁止PRE PID
}
else
{
R8_USB_CTRL |= RB_UC_LOW_SPEED; // 低速
}
#endif
(void)FullSpeed;
}
/*********************************************************************
* @fn ResetRootHubPort
*
* @brief 检测到设备后,复位总线,为枚举设备准备,设置为默认为全速
*
* @param none
*
* @return none
*/
void ResetRootHubPort(void)
{
UsbDevEndp0Size = DEFAULT_ENDP0_SIZE; //USB设备的端点0的最大包尺寸
SetHostUsbAddr(0x00);
R8_UHOST_CTRL &= ~RB_UH_PORT_EN; // 关掉端口
SetUsbSpeed(1); // 默认为全速
R8_UHOST_CTRL = (R8_UHOST_CTRL & ~RB_UH_LOW_SPEED) | RB_UH_BUS_RESET; // 默认为全速,开始复位
mDelaymS(15); // 复位时间10mS到20mS
R8_UHOST_CTRL = R8_UHOST_CTRL & ~RB_UH_BUS_RESET; // 结束复位
mDelayuS(250);
R8_USB_INT_FG = RB_UIF_DETECT; // 清中断标志
}
/*********************************************************************
* @fn EnableRootHubPort
*
* @brief 使能ROOT-HUB端口,相应的bUH_PORT_EN置1开启端口,设备断开可能导致返回失败
*
* @param none
*
* @return 返回ERR_SUCCESS为检测到新连接,返回ERR_USB_DISCON为无连接
*/
uint8_t EnableRootHubPort(void)
{
#ifdef DISK_BASE_BUF_LEN
if(CHRV3DiskStatus < DISK_CONNECT)
CHRV3DiskStatus = DISK_CONNECT;
#else
if(ThisUsbDev.DeviceStatus < ROOT_DEV_CONNECTED)
ThisUsbDev.DeviceStatus = ROOT_DEV_CONNECTED;
#endif
if(R8_USB_MIS_ST & RB_UMS_DEV_ATTACH)
{ // 有设备
#ifndef DISK_BASE_BUF_LEN
if((R8_UHOST_CTRL & RB_UH_PORT_EN) == 0x00)
{ // 尚未使能
ThisUsbDev.DeviceSpeed = (R8_USB_MIS_ST & RB_UMS_DM_LEVEL) ? 0 : 1;
if(ThisUsbDev.DeviceSpeed == 0)
{
R8_UHOST_CTRL |= RB_UH_LOW_SPEED; // 低速
}
}
#endif
R8_UHOST_CTRL |= RB_UH_PORT_EN; //使能HUB端口
return (ERR_SUCCESS);
}
return (ERR_USB_DISCON);
}
#ifndef DISK_BASE_BUF_LEN
/*********************************************************************
* @fn SelectHubPort
*
* @brief 选定需要操作的HUB口
*
* @param HubPortIndex - 选择操作指定的ROOT-HUB端口的外部HUB的指定端口
*
* @return None
*/
void SelectHubPort(uint8_t HubPortIndex)
{
if(HubPortIndex) // 选择操作指定的ROOT-HUB端口的外部HUB的指定端口
{
SetHostUsbAddr(DevOnHubPort[HubPortIndex - 1].DeviceAddress); // 设置USB主机当前操作的USB设备地址
SetUsbSpeed(DevOnHubPort[HubPortIndex - 1].DeviceSpeed); // 设置当前USB速度
if(DevOnHubPort[HubPortIndex - 1].DeviceSpeed == 0) // 通过外部HUB与低速USB设备通讯需要前置ID
{
R8_UEP1_CTRL |= RB_UH_PRE_PID_EN; // 启用PRE PID
mDelayuS(100);
}
}
else
{
SetHostUsbAddr(ThisUsbDev.DeviceAddress); // 设置USB主机当前操作的USB设备地址
SetUsbSpeed(ThisUsbDev.DeviceSpeed); // 设置USB设备的速度
}
}
#endif
/*********************************************************************
* @fn WaitUSB_Interrupt
*
* @brief 等待USB中断
*
* @param none
*
* @return 返回ERR_SUCCESS 数据接收或者发送成功,返回ERR_USB_UNKNOWN 数据接收或者发送失败
*/
uint8_t WaitUSB_Interrupt(void)
{
uint16_t i;
for(i = WAIT_USB_TOUT_200US; i != 0 && (R8_USB_INT_FG & RB_UIF_TRANSFER) == 0; i--)
{
;
}
return ((R8_USB_INT_FG & RB_UIF_TRANSFER) ? ERR_SUCCESS : ERR_USB_UNKNOWN);
}
/*********************************************************************
* @fn USBHostTransact
*
* @brief 传输事务,输入目的端点地址/PID令牌,同步标志,以20uS为单位的NAK重试总时间(0则不重试,0xFFFF无限重试),返回0成功,超时/出错重试
* 本子程序着重于易理解,而在实际应用中,为了提供运行速度,应该对本子程序代码进行优化
*
* @param endp_pid - 令牌和地址, 高4位是token_pid令牌, 低4位是端点地址
* @param tog - 同步标志
* @param timeout - 超时时间
*
* @return ERR_USB_UNKNOWN 超时，可能硬件异常
* ERR_USB_DISCON 设备断开
* ERR_USB_CONNECT 设备连接
* ERR_SUCCESS 传输完成
*/
uint8_t USBHostTransact(uint8_t endp_pid, uint8_t tog, uint32_t timeout)
{
uint8_t TransRetry;
uint8_t s, r;
uint16_t i;
R8_UH_RX_CTRL = R8_UH_TX_CTRL = tog;
TransRetry = 0;
do
{
R8_UH_EP_PID = endp_pid; // 指定令牌PID和目的端点号
R8_USB_INT_FG = RB_UIF_TRANSFER;
for(i = WAIT_USB_TOUT_200US; i != 0 && (R8_USB_INT_FG & RB_UIF_TRANSFER) == 0; i--)
{
;
}
R8_UH_EP_PID = 0x00; // 停止USB传输
if((R8_USB_INT_FG & RB_UIF_TRANSFER) == 0)
{
return (ERR_USB_UNKNOWN);
}
if(R8_USB_INT_FG & RB_UIF_DETECT)
{ // USB设备插拔事件
// mDelayuS( 200 ); // 等待传输完成
R8_USB_INT_FG = RB_UIF_DETECT;
s = AnalyzeRootHub(); // 分析ROOT-HUB状态
if(s == ERR_USB_CONNECT)
FoundNewDev = 1;
#ifdef DISK_BASE_BUF_LEN
if(CHRV3DiskStatus == DISK_DISCONNECT)
{
return (ERR_USB_DISCON);
} // USB设备断开事件
if(CHRV3DiskStatus == DISK_CONNECT)
{
return (ERR_USB_CONNECT);
} // USB设备连接事件
#else
if(ThisUsbDev.DeviceStatus == ROOT_DEV_DISCONNECT)
{
return (ERR_USB_DISCON);
} // USB设备断开事件
if(ThisUsbDev.DeviceStatus == ROOT_DEV_CONNECTED)
{
return (ERR_USB_CONNECT);
} // USB设备连接事件
#endif
mDelayuS(200); // 等待传输完成
}
if(R8_USB_INT_FG & RB_UIF_TRANSFER) // 传输完成事件
{
if(R8_USB_INT_ST & RB_UIS_TOG_OK)
{
return (ERR_SUCCESS);
}
r = R8_USB_INT_ST & MASK_UIS_H_RES; // USB设备应答状态
if(r == USB_PID_STALL)
{
return (r | ERR_USB_TRANSFER);
}
if(r == USB_PID_NAK)
{
if(timeout == 0)
{
return (r | ERR_USB_TRANSFER);
}
if(timeout < 0xFFFFFFFF)
{
timeout--;
}
--TransRetry;
}
else
switch(endp_pid >> 4)
{
case USB_PID_SETUP:
case USB_PID_OUT:
if(r)
{
return (r | ERR_USB_TRANSFER);
} // 不是超时/出错,意外应答
break; // 超时重试
case USB_PID_IN:
if(r == USB_PID_DATA0 || r == USB_PID_DATA1)
{ // 不同步则需丢弃后重试
} // 不同步重试
else if(r)
{
return (r | ERR_USB_TRANSFER);
} // 不是超时/出错,意外应答
break; // 超时重试
default:
return (ERR_USB_UNKNOWN); // 不可能的情况
break;
}
}
else
{ // 其它中断,不应该发生的情况
R8_USB_INT_FG = 0xFF; /* 清中断标志 */
}
mDelayuS(15);
} while(++TransRetry < 3);
return (ERR_USB_TRANSFER); // 应答超时
}
/*********************************************************************
* @fn HostCtrlTransfer
*
* @brief 执行控制传输,8字节请求码在pSetupReq中,DataBuf为可选的收发缓冲区
*
* @param DataBuf - 如果需要接收和发送数据,那么DataBuf需指向有效缓冲区用于存放后续数据
* @param RetLen - 实际成功收发的总长度保存在RetLen指向的字节变量中
*
* @return ERR_USB_BUF_OVER IN状态阶段出错
* ERR_SUCCESS 数据交换成功
*/
uint8_t HostCtrlTransfer(uint8_t *DataBuf, uint8_t *RetLen)
{
uint16_t RemLen = 0;
uint8_t s, RxLen, RxCnt, TxCnt;
uint8_t *pBuf;
uint8_t *pLen;
pBuf = DataBuf;
pLen = RetLen;
mDelayuS(200);
if(pLen)
{
*pLen = 0; // 实际成功收发的总长度
}
R8_UH_TX_LEN = sizeof(USB_SETUP_REQ);
s = USBHostTransact(USB_PID_SETUP << 4 | 0x00, 0x00, 200000 / 20); // SETUP阶段,200mS超时
if(s != ERR_SUCCESS)
{
return (s);
}
R8_UH_RX_CTRL = R8_UH_TX_CTRL = RB_UH_R_TOG | RB_UH_R_AUTO_TOG | RB_UH_T_TOG | RB_UH_T_AUTO_TOG; // 默认DATA1
R8_UH_TX_LEN = 0x01; // 默认无数据故状态阶段为IN
RemLen = pSetupReq->wLength;
PRINT("wLength: %x\n", RemLen);
if(RemLen && pBuf) // 需要收发数据
{
PRINT("bRequestType: %x\n", pSetupReq->bRequestType);
if(pSetupReq->bRequestType & USB_REQ_TYP_IN) // 收
{
while(RemLen)
{
mDelayuS(200);
s = USBHostTransact(USB_PID_IN << 4 | 0x00, R8_UH_RX_CTRL, 200000 / 20); // IN数据
if(s != ERR_SUCCESS)
{
return (s);
}
RxLen = R8_USB_RX_LEN < RemLen ? R8_USB_RX_LEN : RemLen;
RemLen -= RxLen;
if(pLen)
{
*pLen += RxLen; // 实际成功收发的总长度
}
for(RxCnt = 0; RxCnt != RxLen; RxCnt++)
{
*pBuf = pHOST_RX_RAM_Addr[RxCnt];
pBuf++;
}
if(R8_USB_RX_LEN == 0 || (R8_USB_RX_LEN & (UsbDevEndp0Size - 1)))
{
break; // 短包
}
}
R8_UH_TX_LEN = 0x00; // 状态阶段为OUT
}
else // 发
{
while(RemLen)
{
mDelayuS(200);
R8_UH_TX_LEN = RemLen >= UsbDevEndp0Size ? UsbDevEndp0Size : RemLen;
for(TxCnt = 0; TxCnt != R8_UH_TX_LEN; TxCnt++)
{
pHOST_TX_RAM_Addr[TxCnt] = *pBuf;
pBuf++;
}
s = USBHostTransact(USB_PID_OUT << 4 | 0x00, R8_UH_TX_CTRL, 200000 / 20); // OUT数据
if(s != ERR_SUCCESS)
{
return (s);
}
RemLen -= R8_UH_TX_LEN;
if(pLen)
{
*pLen += R8_UH_TX_LEN; // 实际成功收发的总长度
}
}
PRINT("Send: %d\n", *pLen);
// R8_UH_TX_LEN = 0x01; // 状态阶段为IN
}
}
mDelayuS(200);
s = USBHostTransact((R8_UH_TX_LEN ? USB_PID_IN << 4 | 0x00 : USB_PID_OUT << 4 | 0x00), RB_UH_R_TOG | RB_UH_T_TOG, 200000 / 20); // STATUS阶段
if(s != ERR_SUCCESS)
{
return (s);
}
if(R8_UH_TX_LEN == 0)
{
return (ERR_SUCCESS); // 状态OUT
}
if(R8_USB_RX_LEN == 0)
{
return (ERR_SUCCESS); // 状态IN,检查IN状态返回数据长度
}
return (ERR_USB_BUF_OVER); // IN状态阶段错误
}
/*********************************************************************
* @fn CopySetupReqPkg
*
* @brief 复制控制传输的请求包
*
* @param pReqPkt - 控制请求包地址
*
* @return none
*/
void CopySetupReqPkg(const uint8_t *pReqPkt) // 复制控制传输的请求包
{
uint8_t i;
for(i = 0; i != sizeof(USB_SETUP_REQ); i++)
{
((uint8_t *)pSetupReq)[i] = *pReqPkt;
pReqPkt++;
}
}
/*********************************************************************
* @fn CtrlGetDeviceDescr
*
* @brief 获取设备描述符,返回在 pHOST_TX_RAM_Addr 中
*
* @param none
*
* @return ERR_USB_BUF_OVER 描述符长度错误
* ERR_SUCCESS 成功
*/
uint8_t CtrlGetDeviceDescr(void)
{
uint8_t s;
uint8_t len;
UsbDevEndp0Size = DEFAULT_ENDP0_SIZE;
CopySetupReqPkg(SetupGetDevDescr);
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
UsbDevEndp0Size = ((PUSB_DEV_DESCR)Com_Buffer)->bMaxPacketSize0; // 端点0最大包长度,这是简化处理,正常应该先获取前8字节后立即更新UsbDevEndp0Size再继续
if(len < ((PUSB_SETUP_REQ)SetupGetDevDescr)->wLength)
{
return (ERR_USB_BUF_OVER); // 描述符长度错误
}
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn CtrlGetConfigDescr
*
* @brief 获取配置描述符,返回在 pHOST_TX_RAM_Addr 中
*
* @param none
*
* @return ERR_USB_BUF_OVER 描述符长度错误
* ERR_SUCCESS 成功
*/
uint8_t CtrlGetConfigDescr(void)
{
uint8_t s;
uint8_t len;
CopySetupReqPkg(SetupGetCfgDescr);
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
if(len < ((PUSB_SETUP_REQ)SetupGetCfgDescr)->wLength)
{
return (ERR_USB_BUF_OVER); // 返回长度错误
}
len = ((PUSB_CFG_DESCR)Com_Buffer)->wTotalLength;
CopySetupReqPkg(SetupGetCfgDescr);
pSetupReq->wLength = len; // 完整配置描述符的总长度
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
#ifdef DISK_BASE_BUF_LEN
if(len > 64)
len = 64;
memcpy(TxBuffer, Com_Buffer, len); //U盘操作时，需要拷贝到TxBuffer
#endif
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn CtrlSetUsbAddress
*
* @brief 设置USB设备地址
*
* @param addr - 设备地址
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlSetUsbAddress(uint8_t addr)
{
uint8_t s;
CopySetupReqPkg(SetupSetUsbAddr);
pSetupReq->wValue = addr; // USB设备地址
s = HostCtrlTransfer(NULL, NULL); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
SetHostUsbAddr(addr); // 设置USB主机当前操作的USB设备地址
mDelaymS(10); // 等待USB设备完成操作
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn CtrlSetUsbConfig
*
* @brief 设置USB设备配置
*
* @param cfg - 配置值
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlSetUsbConfig(uint8_t cfg)
{
CopySetupReqPkg(SetupSetUsbConfig);
pSetupReq->wValue = cfg; // USB设备配置
return (HostCtrlTransfer(NULL, NULL)); // 执行控制传输
}
/*********************************************************************
* @fn CtrlClearEndpStall
*
* @brief 清除端点STALL
*
* @param endp - 端点地址
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlClearEndpStall(uint8_t endp)
{
CopySetupReqPkg(SetupClrEndpStall); // 清除端点的错误
pSetupReq->wIndex = endp; // 端点地址
return (HostCtrlTransfer(NULL, NULL)); // 执行控制传输
}
/*********************************************************************
* @fn CtrlSetUsbIntercace
*
* @brief 设置USB设备接口
*
* @param cfg - 配置值
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlSetUsbIntercace(uint8_t cfg)
{
CopySetupReqPkg(SetupSetUsbInterface);
pSetupReq->wValue = cfg; // USB设备配置
return (HostCtrlTransfer(NULL, NULL)); // 执行控制传输
}
/*********************************************************************
* @fn USB_HostInit
*
* @brief USB主机功能初始化
*
* @param none
*
* @return none
*/
void USB_HostInit(void)
{
R8_USB_CTRL = RB_UC_HOST_MODE;
R8_UHOST_CTRL = 0;
R8_USB_DEV_AD = 0x00;
R8_UH_EP_MOD = RB_UH_EP_TX_EN | RB_UH_EP_RX_EN;
R16_UH_RX_DMA = (uint16_t)(uint32_t)pHOST_RX_RAM_Addr;
R16_UH_TX_DMA = (uint16_t)(uint32_t)pHOST_TX_RAM_Addr;
R8_UH_RX_CTRL = 0x00;
R8_UH_TX_CTRL = 0x00;
R8_USB_CTRL = RB_UC_HOST_MODE | RB_UC_INT_BUSY | RB_UC_DMA_EN;
R8_UH_SETUP = RB_UH_SOF_EN;
R8_USB_INT_FG = 0xFF;
DisableRootHubPort();
R8_USB_INT_EN = RB_UIE_TRANSFER | RB_UIE_DETECT;
FoundNewDev = 0;
}

832
sdk/StdPeriphDriver/CH59x_usbhostClass.c Normal file
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@ -0,0 +1,832 @@
/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_usbhost.c
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#include "CH59x_common.h"
#if DISK_LIB_ENABLE
#include "CHRV3UFI.H"
#endif
/* 设置HID上传速率 */
__attribute__((aligned(4))) const uint8_t SetupSetHIDIdle[] = {0x21, HID_SET_IDLE, 0x00, 0x00, 0x00, 0x00, 0x00, 0x00};
/* 获取HID设备报表描述符 */
__attribute__((aligned(4))) const uint8_t SetupGetHIDDevReport[] = {0x81, USB_GET_DESCRIPTOR, 0x00, USB_DESCR_TYP_REPORT,
0x00, 0x00, 0x41, 0x00};
/* 获取HUB描述符 */
__attribute__((aligned(4))) const uint8_t SetupGetHubDescr[] = {HUB_GET_HUB_DESCRIPTOR, HUB_GET_DESCRIPTOR, 0x00,
USB_DESCR_TYP_HUB, 0x00, 0x00, sizeof(USB_HUB_DESCR), 0x00};
__attribute__((aligned(4))) uint8_t Com_Buffer[128]; // 定义用户临时缓冲区,枚举时用于处理描述符,枚举结束也可以用作普通临时缓冲区
/*********************************************************************
* @fn AnalyzeHidIntEndp
*
* @brief 从描述符中分析出HID中断端点的地址,如果HubPortIndex是0保存到ROOTHUB，如果是非零值则保存到HUB下结构体
*
* @param buf - 待分析数据缓冲区地址 HubPortIndex：0表示根HUB，非0表示外部HUB下的端口号
*
* @return 端点数
*/
uint8_t AnalyzeHidIntEndp(uint8_t *buf, uint8_t HubPortIndex)
{
uint8_t i, s, l;
s = 0;
if(HubPortIndex)
{
memset(DevOnHubPort[HubPortIndex - 1].GpVar, 0, sizeof(DevOnHubPort[HubPortIndex - 1].GpVar)); //清空数组
}
else
{
memset(ThisUsbDev.GpVar, 0, sizeof(ThisUsbDev.GpVar)); //清空数组
}
for(i = 0; i < ((PUSB_CFG_DESCR)buf)->wTotalLength; i += l) // 搜索中断端点描述符,跳过配置描述符和接口描述符
{
if(((PUSB_ENDP_DESCR)(buf + i))->bDescriptorType == USB_DESCR_TYP_ENDP // 是端点描述符
&& (((PUSB_ENDP_DESCR)(buf + i))->bmAttributes & USB_ENDP_TYPE_MASK) == USB_ENDP_TYPE_INTER // 是中断端点
&& (((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_DIR_MASK)) // 是IN端点
{ // 保存中断端点的地址,位7用于同步标志位,清0
if(HubPortIndex)
{
DevOnHubPort[HubPortIndex - 1].GpVar[s] = ((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_ADDR_MASK;
}
else
{
ThisUsbDev.GpVar[s] = ((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_ADDR_MASK; // 中断端点的地址，可以根据需要保存wMaxPacketSize和bInterval
}
PRINT("%02x ", (uint16_t)ThisUsbDev.GpVar[s]);
s++;
if(s >= 4)
{
break; //只分析4个端点
}
}
l = ((PUSB_ENDP_DESCR)(buf + i))->bLength; // 当前描述符长度,跳过
if(l > 16)
{
break;
}
}
PRINT("\n");
return (s);
}
/*********************************************************************
* @fn AnalyzeBulkEndp
*
* @brief 分析出批量端点,GpVar[0]、GpVar[1]存放上传端点。GpVar[2]、GpVar[3]存放下传端点
*
* @param buf - 待分析数据缓冲区地址 HubPortIndex：0表示根HUB，非0表示外部HUB下的端口号
*
* @return 0
*/
uint8_t AnalyzeBulkEndp(uint8_t *buf, uint8_t HubPortIndex)
{
uint8_t i, s1, s2, l;
s1 = 0;
s2 = 2;
if(HubPortIndex)
{
memset(DevOnHubPort[HubPortIndex - 1].GpVar, 0, sizeof(DevOnHubPort[HubPortIndex - 1].GpVar)); //清空数组
}
else
{
memset(ThisUsbDev.GpVar, 0, sizeof(ThisUsbDev.GpVar)); //清空数组
}
for(i = 0; i < ((PUSB_CFG_DESCR)buf)->wTotalLength; i += l) // 搜索中断端点描述符,跳过配置描述符和接口描述符
{
if((((PUSB_ENDP_DESCR)(buf + i))->bDescriptorType == USB_DESCR_TYP_ENDP) // 是端点描述符
&& ((((PUSB_ENDP_DESCR)(buf + i))->bmAttributes & USB_ENDP_TYPE_MASK) == USB_ENDP_TYPE_BULK)) // 是中断端点
{
if(HubPortIndex)
{
if(((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_DIR_MASK)
{
DevOnHubPort[HubPortIndex - 1].GpVar[s1++] = ((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_ADDR_MASK;
}
else
{
DevOnHubPort[HubPortIndex - 1].GpVar[s2++] = ((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_ADDR_MASK;
}
}
else
{
if(((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_DIR_MASK)
{
ThisUsbDev.GpVar[s1++] = ((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_ADDR_MASK;
}
else
{
ThisUsbDev.GpVar[s2++] = ((PUSB_ENDP_DESCR)(buf + i))->bEndpointAddress & USB_ENDP_ADDR_MASK;
}
}
if(s1 == 2)
{
s1 = 1;
}
if(s2 == 4)
{
s2 = 3;
}
}
l = ((PUSB_ENDP_DESCR)(buf + i))->bLength; // 当前描述符长度,跳过
if(l > 16)
{
break;
}
}
return (0);
}
/*********************************************************************
* @fn InitRootDevice
*
* @brief 初始化指定ROOT-HUB端口的USB设备
*
* @param none
*
* @return 错误码
*/
uint8_t InitRootDevice(void)
{
uint8_t i, s;
uint8_t cfg, dv_cls, if_cls;
PRINT("Reset host port\n");
ResetRootHubPort(); // 检测到设备后,复位相应端口的USB总线
for(i = 0, s = 0; i < 100; i++)
{ // 等待USB设备复位后重新连接,100mS超时
mDelaymS(1);
if(EnableRootHubPort() == ERR_SUCCESS)
{ // 使能端口
i = 0;
s++;
if(s > 100)
{
break; // 已经稳定连接100mS
}
}
}
if(i)
{ // 复位后设备没有连接
DisableRootHubPort();
PRINT("Disable host port because of disconnect\n");
return (ERR_USB_DISCON);
}
SetUsbSpeed(ThisUsbDev.DeviceSpeed); // 设置当前USB速度
PRINT("GetDevDescr: ");
s = CtrlGetDeviceDescr(); // 获取设备描述符
if(s == ERR_SUCCESS)
{
for(i = 0; i < ((PUSB_SETUP_REQ)SetupGetDevDescr)->wLength; i++)
{
PRINT("x%02X ", (uint16_t)(Com_Buffer[i]));
}
PRINT("\n");
ThisUsbDev.DeviceVID = ((PUSB_DEV_DESCR)Com_Buffer)->idVendor; //保存VID PID信息
ThisUsbDev.DevicePID = ((PUSB_DEV_DESCR)Com_Buffer)->idProduct;
dv_cls = ((PUSB_DEV_DESCR)Com_Buffer)->bDeviceClass;
s = CtrlSetUsbAddress(((PUSB_SETUP_REQ)SetupSetUsbAddr)->wValue);
if(s == ERR_SUCCESS)
{
ThisUsbDev.DeviceAddress = ((PUSB_SETUP_REQ)SetupSetUsbAddr)->wValue; // 保存USB地址
PRINT("GetCfgDescr: ");
s = CtrlGetConfigDescr();
if(s == ERR_SUCCESS)
{
for(i = 0; i < ((PUSB_CFG_DESCR)Com_Buffer)->wTotalLength; i++)
{
PRINT("x%02X ", (uint16_t)(Com_Buffer[i]));
}
PRINT("\n");
/* 分析配置描述符,获取端点数据/各端点地址/各端点大小等,更新变量endp_addr和endp_size等 */
cfg = ((PUSB_CFG_DESCR)Com_Buffer)->bConfigurationValue;
if_cls = ((PUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceClass; // 接口类代码
if((dv_cls == 0x00) && (if_cls == USB_DEV_CLASS_STORAGE))
{ // 是USB存储类设备,基本上确认是U盘
#ifdef FOR_ROOT_UDISK_ONLY
CHRV3DiskStatus = DISK_USB_ADDR;
return (ERR_SUCCESS);
}
else
{
return (ERR_USB_UNSUPPORT);
}
#else
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
ThisUsbDev.DeviceStatus = ROOT_DEV_SUCCESS;
ThisUsbDev.DeviceType = USB_DEV_CLASS_STORAGE;
PRINT("USB-Disk Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
}
else if((dv_cls == 0x00) && (if_cls == USB_DEV_CLASS_PRINTER) && ((PUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceSubClass == 0x01)
{ // 是打印机类设备
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
// 需保存端点信息以便主程序进行USB传输
ThisUsbDev.DeviceStatus = ROOT_DEV_SUCCESS;
ThisUsbDev.DeviceType = USB_DEV_CLASS_PRINTER;
PRINT("USB-Print Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
}
else if((dv_cls == 0x00) && (if_cls == USB_DEV_CLASS_HID) && ((PUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceSubClass <= 0x01)
{ // 是HID类设备,键盘/鼠标等
// 从描述符中分析出HID中断端点的地址
s = AnalyzeHidIntEndp(Com_Buffer, 0); // 从描述符中分析出HID中断端点的地址
PRINT("AnalyzeHidIntEndp %02x\n", (uint16_t)s);
// 保存中断端点的地址,位7用于同步标志位,清0
if_cls = ((PUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceProtocol;
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
// Set_Idle( );
// 需保存端点信息以便主程序进行USB传输
ThisUsbDev.DeviceStatus = ROOT_DEV_SUCCESS;
if(if_cls == 1)
{
ThisUsbDev.DeviceType = DEV_TYPE_KEYBOARD;
// 进一步初始化,例如设备键盘指示灯LED等
PRINT("USB-Keyboard Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
else if(if_cls == 2)
{
ThisUsbDev.DeviceType = DEV_TYPE_MOUSE;
// 为了以后查询鼠标状态,应该分析描述符,取得中断端口的地址,长度等信息
PRINT("USB-Mouse Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
s = ERR_USB_UNSUPPORT;
}
}
else if(dv_cls == USB_DEV_CLASS_HUB)
{ // 是HUB类设备,集线器等
s = CtrlGetHubDescr();
if(s == ERR_SUCCESS)
{
PRINT("Max Port:%02X ", (((PXUSB_HUB_DESCR)Com_Buffer)->bNbrPorts));
ThisUsbDev.GpHUBPortNum = ((PXUSB_HUB_DESCR)Com_Buffer)->bNbrPorts; // 保存HUB的端口数量
if(ThisUsbDev.GpHUBPortNum > HUB_MAX_PORTS)
{
ThisUsbDev.GpHUBPortNum = HUB_MAX_PORTS; // 因为定义结构DevOnHubPort时人为假定每个HUB不超过HUB_MAX_PORTS个端口
}
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
ThisUsbDev.DeviceStatus = ROOT_DEV_SUCCESS;
ThisUsbDev.DeviceType = USB_DEV_CLASS_HUB;
//需保存端点信息以便主程序进行USB传输,本来中断端点可用于HUB事件通知,但本程序使用查询状态控制传输代替
//给HUB各端口上电,查询各端口状态,初始化有设备连接的HUB端口,初始化设备
for(i = 1; i <= ThisUsbDev.GpHUBPortNum; i++) // 给HUB各端口都上电
{
DevOnHubPort[i - 1].DeviceStatus = ROOT_DEV_DISCONNECT; // 清外部HUB端口上设备的状态
s = HubSetPortFeature(i, HUB_PORT_POWER);
if(s != ERR_SUCCESS)
{
PRINT("Ext-HUB Port_%1d# power on error\n", (uint16_t)i); // 端口上电失败
}
}
PRINT("USB-HUB Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
}
}
else
{ // 可以进一步分析
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
// 需保存端点信息以便主程序进行USB传输
ThisUsbDev.DeviceStatus = ROOT_DEV_SUCCESS;
ThisUsbDev.DeviceType = DEV_TYPE_UNKNOW;
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS); /* 未知设备初始化成功 */
}
}
#endif
}
}
}
PRINT("InitRootDev Err = %02X\n", (uint16_t)s);
#ifdef FOR_ROOT_UDISK_ONLY
CHRV3DiskStatus = DISK_CONNECT;
#else
ThisUsbDev.DeviceStatus = ROOT_DEV_FAILED;
#endif
SetUsbSpeed(1); // 默认为全速
return (s);
}
/*********************************************************************
* @fn InitDevOnHub
*
* @brief 初始化枚举外部HUB后的二级USB设备
*
* @param HubPortIndex - 指定外部HUB
*
* @return 错误码
*/
uint8_t InitDevOnHub(uint8_t HubPortIndex)
{
uint8_t i, s, cfg, dv_cls, if_cls;
uint8_t ifc;
PRINT("Init dev @ExtHub-port_%1d ", (uint16_t)HubPortIndex);
if(HubPortIndex == 0)
{
return (ERR_USB_UNKNOWN);
}
SelectHubPort(HubPortIndex); // 选择操作指定的ROOT-HUB端口的外部HUB的指定端口,选择速度
PRINT("GetDevDescr: ");
s = CtrlGetDeviceDescr(); // 获取设备描述符
if(s != ERR_SUCCESS)
{
return (s);
}
DevOnHubPort[HubPortIndex - 1].DeviceVID = ((uint16_t)((PUSB_DEV_DESCR)Com_Buffer)->idVendor); //保存VID PID信息
DevOnHubPort[HubPortIndex - 1].DevicePID = ((uint16_t)((PUSB_DEV_DESCR)Com_Buffer)->idProduct);
dv_cls = ((PUSB_DEV_DESCR)Com_Buffer)->bDeviceClass; // 设备类代码
cfg = (1 << 4) + HubPortIndex; // 计算出一个USB地址,避免地址重叠
s = CtrlSetUsbAddress(cfg); // 设置USB设备地址
if(s != ERR_SUCCESS)
{
return (s);
}
DevOnHubPort[HubPortIndex - 1].DeviceAddress = cfg; // 保存分配的USB地址
PRINT("GetCfgDescr: ");
s = CtrlGetConfigDescr(); // 获取配置描述符
if(s != ERR_SUCCESS)
{
return (s);
}
cfg = ((PUSB_CFG_DESCR)Com_Buffer)->bConfigurationValue;
for(i = 0; i < ((PUSB_CFG_DESCR)Com_Buffer)->wTotalLength; i++)
{
PRINT("x%02X ", (uint16_t)(Com_Buffer[i]));
}
PRINT("\n");
/* 分析配置描述符,获取端点数据/各端点地址/各端点大小等,更新变量endp_addr和endp_size等 */
if_cls = ((PXUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceClass; // 接口类代码
if(dv_cls == 0x00 && if_cls == USB_DEV_CLASS_STORAGE) // 是USB存储类设备,基本上确认是U盘
{
AnalyzeBulkEndp(Com_Buffer, HubPortIndex);
for(i = 0; i != 4; i++)
{
PRINT("%02x ", (uint16_t)DevOnHubPort[HubPortIndex - 1].GpVar[i]);
}
PRINT("\n");
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
DevOnHubPort[HubPortIndex - 1].DeviceStatus = ROOT_DEV_SUCCESS;
DevOnHubPort[HubPortIndex - 1].DeviceType = USB_DEV_CLASS_STORAGE;
PRINT("USB-Disk Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
}
else if((dv_cls == 0x00) && (if_cls == USB_DEV_CLASS_HID) && (((PXUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceSubClass <= 0x01)) // 是HID类设备,键盘/鼠标等
{
ifc = ((PXUSB_CFG_DESCR_LONG)Com_Buffer)->cfg_descr.bNumInterfaces;
s = AnalyzeHidIntEndp(Com_Buffer, HubPortIndex); // 从描述符中分析出HID中断端点的地址
PRINT("AnalyzeHidIntEndp %02x\n", (uint16_t)s);
if_cls = ((PXUSB_CFG_DESCR_LONG)Com_Buffer)->itf_descr.bInterfaceProtocol;
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
for(dv_cls = 0; dv_cls < ifc; dv_cls++)
{
s = CtrlGetHIDDeviceReport(dv_cls); //获取报表描述符
if(s == ERR_SUCCESS)
{
for(i = 0; i < 64; i++)
{
PRINT("x%02X ", (uint16_t)(Com_Buffer[i]));
}
PRINT("\n");
}
}
//需保存端点信息以便主程序进行USB传输
DevOnHubPort[HubPortIndex - 1].DeviceStatus = ROOT_DEV_SUCCESS;
if(if_cls == 1)
{
DevOnHubPort[HubPortIndex - 1].DeviceType = DEV_TYPE_KEYBOARD;
//进一步初始化,例如设备键盘指示灯LED等
if(ifc > 1)
{
PRINT("USB_DEV_CLASS_HID Ready\n");
DevOnHubPort[HubPortIndex - 1].DeviceType = USB_DEV_CLASS_HID; //复合HID设备
}
PRINT("USB-Keyboard Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
else if(if_cls == 2)
{
DevOnHubPort[HubPortIndex - 1].DeviceType = DEV_TYPE_MOUSE;
//为了以后查询鼠标状态,应该分析描述符,取得中断端口的地址,长度等信息
if(ifc > 1)
{
PRINT("USB_DEV_CLASS_HID Ready\n");
DevOnHubPort[HubPortIndex - 1].DeviceType = USB_DEV_CLASS_HID; //复合HID设备
}
PRINT("USB-Mouse Ready\n");
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS);
}
s = ERR_USB_UNSUPPORT;
}
}
else if(dv_cls == USB_DEV_CLASS_HUB) // 是HUB类设备,集线器等
{
DevOnHubPort[HubPortIndex - 1].DeviceType = USB_DEV_CLASS_HUB;
PRINT("This program don't support Level 2 HUB\n"); // 需要支持多级HUB级联请参考本程序进行扩展
s = HubClearPortFeature(i, HUB_PORT_ENABLE); // 禁止HUB端口
if(s != ERR_SUCCESS)
{
return (s);
}
s = ERR_USB_UNSUPPORT;
}
else //其他设备
{
AnalyzeBulkEndp(Com_Buffer, HubPortIndex); //分析出批量端点
for(i = 0; i != 4; i++)
{
PRINT("%02x ", (uint16_t)DevOnHubPort[HubPortIndex - 1].GpVar[i]);
}
PRINT("\n");
s = CtrlSetUsbConfig(cfg); // 设置USB设备配置
if(s == ERR_SUCCESS)
{
//需保存端点信息以便主程序进行USB传输
DevOnHubPort[HubPortIndex - 1].DeviceStatus = ROOT_DEV_SUCCESS;
DevOnHubPort[HubPortIndex - 1].DeviceType = dv_cls ? dv_cls : if_cls;
SetUsbSpeed(1); // 默认为全速
return (ERR_SUCCESS); //未知设备初始化成功
}
}
PRINT("InitDevOnHub Err = %02X\n", (uint16_t)s);
DevOnHubPort[HubPortIndex - 1].DeviceStatus = ROOT_DEV_FAILED;
SetUsbSpeed(1); // 默认为全速
return (s);
}
/*********************************************************************
* @fn EnumHubPort
*
* @brief 枚举指定ROOT-HUB端口上的外部HUB集线器的各个端口,检查各端口有无连接或移除事件并初始化二级USB设备
*
* @param RootHubIndex - ROOT_HUB0和ROOT_HUB1
*
* @return 错误码
*/
uint8_t EnumHubPort()
{
uint8_t i, s;
for(i = 1; i <= ThisUsbDev.GpHUBPortNum; i++) // 查询集线器的端口是否有变化
{
SelectHubPort(0); // 选择操作指定的ROOT-HUB端口,设置当前USB速度以及被操作设备的USB地址
s = HubGetPortStatus(i); // 获取端口状态
if(s != ERR_SUCCESS)
{
return (s); // 可能是该HUB断开了
}
if(((Com_Buffer[0] & (1 << (HUB_PORT_CONNECTION & 0x07))) && (Com_Buffer[2] & (1 << (HUB_C_PORT_CONNECTION & 0x07)))) || (Com_Buffer[2] == 0x10))
{ // 发现有设备连接
DevOnHubPort[i - 1].DeviceStatus = ROOT_DEV_CONNECTED; // 有设备连接
DevOnHubPort[i - 1].DeviceAddress = 0x00;
s = HubGetPortStatus(i); // 获取端口状态
if(s != ERR_SUCCESS)
{
return (s); // 可能是该HUB断开了
}
DevOnHubPort[i - 1].DeviceSpeed = Com_Buffer[1] & (1 << (HUB_PORT_LOW_SPEED & 0x07)) ? 0 : 1; // 低速还是全速
if(DevOnHubPort[i - 1].DeviceSpeed)
{
PRINT("Found full speed device on port %1d\n", (uint16_t)i);
}
else
{
PRINT("Found low speed device on port %1d\n", (uint16_t)i);
}
mDelaymS(200); // 等待设备上电稳定
s = HubSetPortFeature(i, HUB_PORT_RESET); // 对有设备连接的端口复位
if(s != ERR_SUCCESS)
{
return (s); // 可能是该HUB断开了
}
PRINT("Reset port and then wait in\n");
do // 查询复位端口,直到复位完成,把完成后的状态显示出来
{
mDelaymS(1);
s = HubGetPortStatus(i);
if(s != ERR_SUCCESS)
{
return (s); // 可能是该HUB断开了
}
} while(Com_Buffer[0] & (1 << (HUB_PORT_RESET & 0x07))); // 端口正在复位则等待
mDelaymS(100);
s = HubClearPortFeature(i, HUB_C_PORT_RESET); // 清除复位完成标志
// s = HubSetPortFeature( i, HUB_PORT_ENABLE ); // 启用HUB端口
s = HubClearPortFeature(i, HUB_C_PORT_CONNECTION); // 清除连接或移除变化标志
if(s != ERR_SUCCESS)
{
return (s);
}
s = HubGetPortStatus(i); // 再读取状态,复查设备是否还在
if(s != ERR_SUCCESS)
{
return (s);
}
if((Com_Buffer[0] & (1 << (HUB_PORT_CONNECTION & 0x07))) == 0)
{
DevOnHubPort[i - 1].DeviceStatus = ROOT_DEV_DISCONNECT; // 设备不在了
}
s = InitDevOnHub(i); // 初始化二级USB设备
if(s != ERR_SUCCESS)
{
return (s);
}
SetUsbSpeed(1); // 默认为全速
}
else if(Com_Buffer[2] & (1 << (HUB_C_PORT_ENABLE & 0x07))) // 设备连接出错
{
HubClearPortFeature(i, HUB_C_PORT_ENABLE); // 清除连接错误标志
PRINT("Device on port error\n");
s = HubSetPortFeature(i, HUB_PORT_RESET); // 对有设备连接的端口复位
if(s != ERR_SUCCESS)
return (s); // 可能是该HUB断开了
do // 查询复位端口,直到复位完成,把完成后的状态显示出来
{
mDelaymS(1);
s = HubGetPortStatus(i);
if(s != ERR_SUCCESS)
return (s); // 可能是该HUB断开了
} while(Com_Buffer[0] & (1 << (HUB_PORT_RESET & 0x07))); // 端口正在复位则等待
}
else if((Com_Buffer[0] & (1 << (HUB_PORT_CONNECTION & 0x07))) == 0) // 设备已经断开
{
if(DevOnHubPort[i - 1].DeviceStatus >= ROOT_DEV_CONNECTED)
{
PRINT("Device on port %1d removed\n", (uint16_t)i);
}
DevOnHubPort[i - 1].DeviceStatus = ROOT_DEV_DISCONNECT; // 有设备连接
if(Com_Buffer[2] & (1 << (HUB_C_PORT_CONNECTION & 0x07)))
{
HubClearPortFeature(i, HUB_C_PORT_CONNECTION); // 清除移除变化标志
}
}
}
return (ERR_SUCCESS); // 返回操作成功
}
/*********************************************************************
* @fn EnumAllHubPort
*
* @brief 枚举所有ROOT-HUB端口下外部HUB后的二级USB设备
*
* @return 错误码
*/
uint8_t EnumAllHubPort(void)
{
uint8_t s;
if((ThisUsbDev.DeviceStatus >= ROOT_DEV_SUCCESS) && (ThisUsbDev.DeviceType == USB_DEV_CLASS_HUB)) // HUB枚举成功
{
SelectHubPort(0); // 选择操作指定的ROOT-HUB端口,设置当前USB速度以及被操作设备的USB地址
s = EnumHubPort(); // 枚举指定ROOT-HUB端口上的外部HUB集线器的各个端口,检查各端口有无连接或移除事件
if(s != ERR_SUCCESS) // 可能是HUB断开了
{
PRINT("EnumAllHubPort err = %02X\n", (uint16_t)s);
}
SetUsbSpeed(1); // 默认为全速
}
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn SearchTypeDevice
*
* @brief 在ROOT-HUB以及外部HUB各端口上搜索指定类型的设备所在的端口号,输出端口号为0xFFFF则未搜索到.
* 当然也可以根据USB的厂商VID产品PID进行搜索(事先要记录各设备的VID和PID),以及指定搜索序号
*
* @param type - 搜索的设备类型
*
* @return 输出高8位为ROOT-HUB端口号,低8位为外部HUB的端口号,低8位为0则设备直接在ROOT-HUB端口上
*/
uint16_t SearchTypeDevice(uint8_t type)
{
uint8_t RootHubIndex; //CH554只有一个USB口,RootHubIndex = 0,只需看返回值的低八位即可
uint8_t HubPortIndex;
RootHubIndex = 0;
if((ThisUsbDev.DeviceType == USB_DEV_CLASS_HUB) && (ThisUsbDev.DeviceStatus >= ROOT_DEV_SUCCESS)) // 外部集线器HUB且枚举成功
{
for(HubPortIndex = 1; HubPortIndex <= ThisUsbDev.GpHUBPortNum; HubPortIndex++) // 搜索外部HUB的各个端口
{
if(DevOnHubPort[HubPortIndex - 1].DeviceType == type && DevOnHubPort[HubPortIndex - 1].DeviceStatus >= ROOT_DEV_SUCCESS)
{
return (((uint16_t)RootHubIndex << 8) | HubPortIndex); // 类型匹配且枚举成功
}
}
}
if((ThisUsbDev.DeviceType == type) && (ThisUsbDev.DeviceStatus >= ROOT_DEV_SUCCESS))
{
return ((uint16_t)RootHubIndex << 8); // 类型匹配且枚举成功,在ROOT-HUB端口上
}
return (0xFFFF);
}
/*********************************************************************
* @fn SETorOFFNumLock
*
* @brief NumLock的点灯判断
*
* @param buf - 点灯键值
*
* @return 错误码
*/
uint8_t SETorOFFNumLock(uint8_t *buf)
{
uint8_t tmp[] = {0x21, 0x09, 0x00, 0x02, 0x00, 0x00, 0x01, 0x00};
uint8_t len, s;
if((buf[2] == 0x53) & ((buf[0] | buf[1] | buf[3] | buf[4] | buf[5] | buf[6] | buf[7]) == 0))
{
for(s = 0; s != sizeof(tmp); s++)
{
((uint8_t *)pSetupReq)[s] = tmp[s];
}
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
}
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn CtrlGetHIDDeviceReport
*
* @brief 获取HID设备报表描述符,返回在TxBuffer中
*
* @param none
*
* @return 错误码
*/
uint8_t CtrlGetHIDDeviceReport(uint8_t infc)
{
uint8_t s;
uint8_t len;
CopySetupReqPkg(SetupSetHIDIdle);
pSetupReq->wIndex = infc;
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
CopySetupReqPkg(SetupGetHIDDevReport);
pSetupReq->wIndex = infc;
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn CtrlGetHubDescr
*
* @brief 获取HUB描述符,返回在Com_Buffer中
*
* @param none
*
* @return 错误码
*/
uint8_t CtrlGetHubDescr(void)
{
uint8_t s;
uint8_t len;
CopySetupReqPkg(SetupGetHubDescr);
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
if(len < ((PUSB_SETUP_REQ)SetupGetHubDescr)->wLength)
{
return (ERR_USB_BUF_OVER); // 描述符长度错误
}
// if ( len < 4 ) return( ERR_USB_BUF_OVER ); // 描述符长度错误
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn HubGetPortStatus
*
* @brief 查询HUB端口状态,返回在Com_Buffer中
*
* @param HubPortIndex - 端口号
*
* @return 错误码
*/
uint8_t HubGetPortStatus(uint8_t HubPortIndex)
{
uint8_t s;
uint8_t len;
pSetupReq->bRequestType = HUB_GET_PORT_STATUS;
pSetupReq->bRequest = HUB_GET_STATUS;
pSetupReq->wValue = 0x0000;
pSetupReq->wIndex = 0x0000 | HubPortIndex;
pSetupReq->wLength = 0x0004;
s = HostCtrlTransfer(Com_Buffer, &len); // 执行控制传输
if(s != ERR_SUCCESS)
{
return (s);
}
if(len < 4)
{
return (ERR_USB_BUF_OVER); // 描述符长度错误
}
return (ERR_SUCCESS);
}
/*********************************************************************
* @fn HubSetPortFeature
*
* @brief 设置HUB端口特性
*
* @param HubPortIndex - 端口号
* @param FeatureSelt - 端口特性
*
* @return 错误码
*/
uint8_t HubSetPortFeature(uint8_t HubPortIndex, uint8_t FeatureSelt)
{
pSetupReq->bRequestType = HUB_SET_PORT_FEATURE;
pSetupReq->bRequest = HUB_SET_FEATURE;
pSetupReq->wValue = 0x0000 | FeatureSelt;
pSetupReq->wIndex = 0x0000 | HubPortIndex;
pSetupReq->wLength = 0x0000;
return (HostCtrlTransfer(NULL, NULL)); // 执行控制传输
}
/*********************************************************************
* @fn HubClearPortFeature
*
* @brief 清除HUB端口特性
*
* @param HubPortIndex - 端口号
* @param FeatureSelt - 端口特性
*
* @return 错误码
*/
uint8_t HubClearPortFeature(uint8_t HubPortIndex, uint8_t FeatureSelt)
{
pSetupReq->bRequestType = HUB_CLEAR_PORT_FEATURE;
pSetupReq->bRequest = HUB_CLEAR_FEATURE;
pSetupReq->wValue = 0x0000 | FeatureSelt;
pSetupReq->wIndex = 0x0000 | HubPortIndex;
pSetupReq->wLength = 0x0000;
return (HostCtrlTransfer(NULL, NULL)); // 执行控制传输
}

1848
sdk/StdPeriphDriver/inc/CH592SFR.h Normal file
View File

@ -0,0 +1,1848 @@
/* Define for CH592 */
/* Website: http://wch.cn */
/* Email: tech@wch.cn */
/* Author: W.ch 2023.02 */
/* V0.2 SpecialFunctionRegister */
// multi-blocks: __BASE_TYPE__, __CH592SFR_H__, __CH592USBSFR_H__, __USB_TYPE__...
#ifndef __BASE_TYPE__
#define __BASE_TYPE__
#ifdef __cplusplus
extern "C" {
#endif
/* ********************************************************************************************************************* */
/* Base types & constants */
#ifndef TRUE
#define TRUE 1
#define FALSE 0
#endif
#ifndef NULL
#define NULL 0
#endif
#ifndef VOID
#define VOID void
#endif
#ifndef CONST
#define CONST const
#endif
#ifndef BOOL
typedef unsigned char BOOL;
#endif
#ifndef BOOLEAN
typedef unsigned char BOOLEAN;
#endif
#ifndef CHAR
typedef char CHAR;
#endif
#ifndef INT8
typedef char INT8;
#endif
#ifndef INT16
typedef short INT16;
#endif
#ifndef INT32
typedef long INT32;
#endif
#ifndef UINT8
typedef unsigned char UINT8;
#endif
#ifndef UINT16
typedef unsigned short UINT16;
#endif
#ifndef UINT32
typedef unsigned long UINT32;
#endif
#ifndef UINT64
typedef unsigned long long UINT64;
#endif
#ifndef UINT8V
typedef unsigned char volatile UINT8V;
#endif
#ifndef UINT16V
typedef unsigned short volatile UINT16V;
#endif
#ifndef UINT32V
typedef unsigned long volatile UINT32V;
#endif
#ifndef UINT64V
typedef unsigned long long volatile UINT64V;
#endif
#ifndef PVOID
typedef void *PVOID;
#endif
#ifndef PCHAR
typedef char *PCHAR;
#endif
#ifndef PCHAR
typedef const char *PCCHAR;
#endif
#ifndef PINT8
typedef char *PINT8;
#endif
#ifndef PINT16
typedef short *PINT16;
#endif
#ifndef PINT32
typedef long *PINT32;
#endif
#ifndef PUINT8
typedef unsigned char *PUINT8;
#endif
#ifndef PUINT16
typedef unsigned short *PUINT16;
#endif
#ifndef PUINT32
typedef unsigned long *PUINT32;
#endif
#ifndef PUINT8V
typedef volatile unsigned char *PUINT8V;
#endif
#ifndef PUINT16V
typedef volatile unsigned short *PUINT16V;
#endif
#ifndef PUINT32V
typedef volatile unsigned long *PUINT32V;
#endif
#ifndef PUINT64V
typedef volatile unsigned long long *PUINT64V;
#endif
/* ********************************************************************************************************************* */
/* Base macros */
#ifndef min
#define min(a,b) (((a) < (b)) ? (a) : (b))
#endif
#ifndef max
#define max(a,b) (((a) > (b)) ? (a) : (b))
#endif
#ifdef DEBUG
#define PRINT(X...) printf(X)
#else
#define PRINT(X...)
#endif
/* Calculate the byte offset of a field in a structure of type */
#define FIELD_OFFSET(Type, Field) ((UINT16)&(((Type *)0)->Field))
/* Calculate the size of a field in a structure of type */
#define FIELD_SIZE(Type, Field) (sizeof(((Type *)0)->Field))
/* An expression that yields the type of a field in a struct */
#define FIELD_TYPE(Type, Field) (((Type *)0)->Field)
/* Return the number of elements in a statically sized array */
#define NUMBER_OF(Array) (sizeof(Array)/sizeof((Array)[0]))
#define NUMBER_OF_FIELD(Type, Field) (NUMBER_OF(FIELD_TYPE(Type, Field)))
#ifdef __cplusplus
}
#endif
#endif // __BASE_TYPE__
#ifndef __CH592SFR_H__
#define __CH592SFR_H__
#ifdef __cplusplus
extern "C" {
#endif
/* ********************************************************************************************************************* */
// Address Space
// CODE: 00000000H - 0007FFFFH 512K
// DATA: 20000000H - 20007FFFH 32KB
// SFR: 40000000H - 4000FFFFH 64KB
//
// SFR: 40000000H - 4000FFFFH, 64KB
// SYS: +1000H - 1BFFH, include base configuration, interrupt, GPIO, etc...
// TMR0: +2000H - 23FFH
// TMR1: +2400H - 27FFH
// TMR2: +2800H - 2BFFH
// TMR3: +2C00H - 2FFFH
// UART0: +3000H - 33FFH
// UART1: +3400H - 37FFH
// UART2: +3800H - 3BFFH
// UART3: +3C00H - 3FFFH
// SPI0: +4000H - 43FFH
// I2C: +4800H - 4BFFH
// PWMx: +5000H - 53FFH
// LCD: +6000H - 63FFH
// USB: +8000H - 83FFH
// BLE: +C000H - D3FFH
// Register Bit Attribute / Bit Access Type
// RF: Read only for Fixed value
// RO: Read Only (internal change)
// RZ: Read only with auto clear Zero
// WO: Write Only (read zero or different)
// WA: Write only under safe Accessing mode (read zero or different)
// WZ: Write only with auto clear Zero
// RW: Read / Write
// RWA: Read / Write under safe Accessing mode
// RW1: Read / Write 1 to Clear
/* Register name rule:
R32_* for 32 bits register (UINT32,ULONG)
R16_* for 16 bits register (UINT16,USHORT)
R8_* for 8 bits register (UINT8,UCHAR)
RB_* for bit or bit mask of 8 bit register
BA_* for base address point
b* for GPIO bit mask
Others for register address offset */
/* ********************************************************************************************************************* */
/* Independent watch-dog register */
#define R32_IWDG_KR (*((PUINT32V)0x40001000)) // WO, watch-dog key register
#define R32_IWDG_CFG (*((PUINT32V)0x40001004)) // RW, watch-dog configuration
#define RB_RLR 0x0FFF // RW, watch-dog counter reload (write protect)
#define RB_PR 0x7000 // PR, prescale (write protect)
#define RB_PVU 0x8000 // RO, register update flag (write protect)
#define RB_COUNT 0xFF0000 // RO, watch-dog down counter
#define RB_STOP_EN 0x20000000 // RW, watch-dog stop enable (write protect)
#define RB_WR_PROTECT 0x40000000 // RO, write protect
#define RB_IWDG_EN 0x80000000 // RO, watch-dog enable
/* System: safe accessing register */
#define R32_SAFE_ACCESS (*((PUINT32V)0x40001040)) // RW, safe accessing
#define R8_SAFE_ACCESS_SIG (*((PUINT8V)0x40001040)) // WO, safe accessing sign register, must write SAFE_ACCESS_SIG1 then SAFE_ACCESS_SIG2 to enter safe accessing mode
#define RB_SAFE_ACC_MODE 0x03 // RO, current safe accessing mode: 11=safe/unlocked (SAM), other=locked (00..01..10..11)
#define RB_SAFE_ACC_ACT 0x08 // RO, indicate safe accessing status now: 0=locked, read only, 1=safe/unlocked (SAM), write enabled
#define RB_SAFE_ACC_TIMER 0x70 // RO, safe accessing timer bit mask (16*clock number)
#define SAFE_ACCESS_SIG1 0x57 // WO: safe accessing sign value step 1
#define SAFE_ACCESS_SIG2 0xA8 // WO: safe accessing sign value step 2
#define SAFE_ACCESS_SIG0 0x00 // WO: safe accessing sign value for disable
#define R8_CHIP_ID (*((PUINT8V)0x40001041)) // RF, chip ID register, always is ID_CH58*
#define R8_SAFE_ACCESS_ID (*((PUINT8V)0x40001042)) // RF, safe accessing ID register, always 0x0C
#define R8_WDOG_COUNT (*((PUINT8V)0x40001043)) // RW, watch-dog count, count by clock frequency Fsys/131072
/* System: global configuration register */
#define R32_GLOBAL_CONFIG (*((PUINT32V)0x40001044)) // RW, global configuration
#define R8_RESET_STATUS (*((PUINT8V)0x40001044)) // RO, reset status
#define RB_RESET_FLAG 0x07 // RO: recent reset flag
#define RST_FLAG_SW 0x00
#define RST_FLAG_RPOR 0x01
#define RST_FLAG_WTR 0x02
#define RST_FLAG_MR 0x03
//#define RST_FLAG_GPWSM 0x04 // RO, power on reset flag during sleep/shutdown: 0=no power on reset during sleep/shutdown, 1=power on reset occurred during sleep/shutdown
#define RST_FLAG_GPWSM 0x05
// RB_RESET_FLAG: recent reset flag
// 000 - SR, software reset, by RB_SOFTWARE_RESET=1 @RB_WDOG_RST_EN=0
// 001 - RPOR, real power on reset
// 010 - WTR, watch-dog timer-out reset
// 011 - MR, external manual reset by RST pin input low
// 101 - GRWSM, global reset by waking under shutdown mode
// 1?? - LRW, power on reset occurred during sleep
#define R8_GLOB_ROM_CFG R8_RESET_STATUS // RWA, flash ROM configuration, SAM
#define RB_ROM_CODE_OFS 0x10 // RWA, code offset address selection in Flash ROM: 0=start address 0x000000, 1=start address 0x040000
#define RB_ROM_CTRL_EN 0x20 // RWA, enable flash ROM control interface enable: 0=disable access, 1=enable access control register
#define RB_ROM_DATA_WE 0x40 // RWA, enable flash ROM data & code area being erase/write: 0=all writing protect, 1=enable data area program and erase
#define RB_ROM_CODE_WE 0x80 // RWA, enable flash ROM code area being erase/write: 0=code writing protect, 1=enable code area program and erase
#define R8_GLOB_CFG_INFO (*((PUINT8V)0x40001045)) // RO, global configuration information and status
#define RB_CFG_ROM_READ 0x01 // RO, indicate protected status of Flash ROM code and data: 0=reading protect, 1=enable read by external programmer
#define RB_CFG_RESET_EN 0x04 // RO, manual reset input enable status
#define RB_CFG_BOOT_EN 0x08 // RO, boot-loader enable status
#define RB_CFG_DEBUG_EN 0x10 // RO, debug enable status
#define RB_BOOT_LOADER 0x20 // RO, indicate boot loader status: 0=application status (by software reset), 1=boot loader status
#define R8_RST_WDOG_CTRL (*((PUINT8V)0x40001046)) // RWA, reset and watch-dog control, SAM
#define RB_SOFTWARE_RESET 0x01 // WA/WZ, global software reset, high action, auto clear
#define RB_WDOG_RST_EN 0x02 // RWA, enable watch-dog reset if watch-dog timer overflow: 0=as timer only, 1=enable reset if timer overflow
#define RB_WDOG_INT_EN 0x04 // RWA, watch-dog timer overflow interrupt enable: 0=disable, 1=enable
#define RB_WDOG_INT_FLAG 0x10 // RW1, watch-dog timer overflow interrupt flag, cleared by RW1 or reload watch-dog count or __SEV(Send-Event)
#define R8_GLOB_RESET_KEEP (*((PUINT8V)0x40001047)) // RW, value keeper during global reset
/* System: clock configuration register */
#define R32_CLOCK_CONFIG (*((PUINT32V)0x40001008)) // RWA, clock configuration, SAM
#define R32_CLK_SYS_CFG (*((PUINT32V)0x40001008)) // RWA, system clock configuration, SAM
#define RB_CLK_PLL_DIV 0x1F // RWA, output clock divider from PLL or CK32M
#define RB_CLK_SYS_MOD 0xC0 // RWA, system clock source mode: 00=divided from 32MHz, 01=divided from PLL-480MHz, 10=directly from 32MHz, 11=directly from 32KHz
#define RB_TX_32M_PWR_EN 0x40000 // RWA, extern 32MHz HSE power contorl
#define RB_XT_FORCE_EN 0x80000 // RWA, system clock control in Halt mode
#define RB_PLL_PWR_EN 0x100000 // RWA, PLL power control
// Fck32k = RB_CLK_OSC32K_XT ? XT_32KHz : RC_32KHz
// Fpll = XT_32MHz * 15 = 480MHz
// Fsys = RB_CLK_SYS_MOD==3 ? Fck32k : ( ( RB_CLK_SYS_MOD[0] ? Fpll : XT_32MHz ) / RB_CLK_PLL_DIV )
// default: Fsys = XT_32MHz / RB_CLK_PLL_DIV = 32MHz / 5 = 6.4MHz
// range: 32KHz, 2MHz~10MHz, 15MHz~80MHz
/* System: sleep control register */
#define R32_SLEEP_CONTROL (*((PUINT32V)0x4000100C)) // RWA, sleep control, SAM
#define R8_SLP_CLK_OFF0 (*((PUINT8V)0x4000100C)) // RWA, sleep clock off control byte 0, SAM
#define RB_SLP_CLK_TMR0 0x01 // RWA, close TMR0 clock
#define RB_SLP_CLK_TMR1 0x02 // RWA, close TMR1 clock
#define RB_SLP_CLK_TMR2 0x04 // RWA, close TMR2 clock
#define RB_SLP_CLK_TMR3 0x08 // RWA, close TMR3 clock
#define RB_SLP_CLK_UART0 0x10 // RWA, close UART0 clock
#define RB_SLP_CLK_UART1 0x20 // RWA, close UART1 clock
#define RB_SLP_CLK_UART2 0x40 // RWA, close UART2 clock
#define RB_SLP_CLK_UART3 0x80 // RWA, close UART3 clock
#define R8_SLP_CLK_OFF1 (*((PUINT8V)0x4000100D)) // RWA, sleep clock off control byte 1, SAM
#define RB_SLP_CLK_SPI0 0x01 // RWA, close SPI0 clock
#define RB_SLP_CLK_PWMX 0x04 // RWA, close PWMx clock
#define RB_SLP_CLK_I2C 0x08 // RWA, close I2C clock
#define RB_SLP_CLK_USB 0x10 // RWA, close USB clock
#define RB_SLP_CLK_LCD 0x40 // RWA, close LCD clock
#define RB_SLP_CLK_BLE 0x80 // RWA, close BLE clock
#define R8_SLP_WAKE_CTRL (*((PUINT8V)0x4000100E)) // RWA, wake control, SAM
#define RB_SLP_USB_WAKE 0x01 // RWA, enable USB waking
//#define RB_SLP_BLE_WAKE 0x04 // RWA, enable BLE waking
#define RB_SLP_RTC_WAKE 0x08 // RWA, enable RTC waking
#define RB_SLP_GPIO_WAKE 0x10 // RWA, enable GPIO waking
#define RB_SLP_BAT_WAKE 0x20 // RWA, enable BAT waking
#define RB_WAKE_EV_MODE 0x40 // RWA, event wakeup mode: 0=event keep valid for long time, 1=short pulse event
#define RB_GPIO_WAKE_MODE 0x80 // RWA,
#define R8_SLP_POWER_CTRL (*((PUINT8V)0x4000100F)) // RWA, peripherals power down control, SAM
#define RB_WAKE_DLY_MOD 0x03 // RWA, wakeup delay time selection
// RB_WAKE_DLY_MOD select wakeup delay
// 00: long time, 3590 cycles+TSUHSE
// 01: short time, 520 cycles+TSUHSE
// 10: shorter time, 70 cycles+TSUHSE
// 11: no delay, 8 cycles+TSUHSE
//#define RB_SLP_USB_PWR_DN 0x01 // RWA, enable USB power down
//#define RB_SLP_BLE_PWR_DN 0x04 // RWA, enable BLE power down
#define RB_SLP_CLK_RAMX 0x10 // RWA, close main SRAM clock
#define RB_SLP_CLK_RAM2K 0x20 // RWA, close retention 2KB SRAM clock
#define RB_RAM_RET_LV 0x40 // RWA, SRAM retention voltage selection: 0=normal, 1=low voltage for low power
#define R32_SLEEP_CTRL2 (*((PUINT32V)0x40001010)) // RWA, touchkey wake up enable
#define RB_TKEY0_5_WAKE_EN 0x003F // RWA, touchkey wake up enable channel 0-5
#define RB_TKEY8_13_WAKE_EN 0x3F00 // RWA, touchkey wake up enable channel 8-13
/* System: I/O pin configuration register */
#define R32_PIN_CONFIG (*((PUINT32V)0x40001018)) // RW, I/O pin configuration
#define R16_PIN_ALTERNATE (*((PUINT16V)0x40001018)) // RW, function pin alternate configuration
#define RB_PIN_TMR0 0x01 // RW, TMR0 alternate pin enable: 0=TMR0/PWM0/CAP0 on PA[9], 1=TMR0_/PWM0_/CAP0_ on PB[23]
#define RB_PIN_TMR1 0x02 // RW, TMR1 alternate pin enable: 0=TMR1/PWM1/CAP1 on PA[10], 1=TMR1_/PWM1_/CAP1_ on PB[10]
#define RB_PIN_TMR2 0x04 // RW, TMR2 alternate pin enable: 0=TMR2/PWM2/CAP2 on PA[11], 1=TMR2_/PWM2_/CAP2_ on PB[11]
#define RB_PIN_TMR3 0x08 // RW, TMR3 alternate pin enable: 0=TMR3/PWM3/CAP3 on PA[2], 1=TMR3_/PWM3_/CAP3_ on PB[22]
#define RB_PIN_UART0 0x10 // RW, RXD0/TXD0 alternate pin enable: 0=RXD0/TXD0 on PB[4]/PB[7], 1=RXD0_/TXD0_ on PA[15]/PA[14]
#define RB_PIN_UART1 0x20 // RW, RXD1/TXD1 alternate pin enable: 0=RXD1/TXD1 on PA[8]/PA[9], 1=RXD1_/TXD1_ on PB[12]/PB[13]
#define RB_PIN_UART2 0x40 // RW, RXD2/TXD2 alternate pin enable: 0=RXD2/TXD2 on PA[6]/PA[7], 1=RXD2_/TXD2_ on PB[22]/PB[23]
#define RB_PIN_UART3 0x80 // RW, RXD3/TXD3 alternate pin enable: 0=RXD3/TXD3 on PA[4]/PA[5], 1=RXD3_/TXD3_ on PB[20]/PB[21]
#define RB_PIN_SPI0 0x100 // RW, SCS/SCK0/MOSI/MISO alternate pin enable: 0=SCS/SCK0/MOSI/MISO on PA[12]/PA[13]/PA[14]/PA[15], 1=SCS_/SCK0_/MOSI_/MISO_ on PB[12]/PB[13]/PB[14]/PB[15]
#define RB_PIN_PWMX 0x400 // RW, PWM4/PWM5/PWM7/PWM8/PWM9 alternate pin enable: 0=PWM4/5/7/8/9 on PA[12]/PA[13]/PB[4]/PB[6]/PB[7], 1=PWM4/5/7/8/9 on PA[6]/PA[7]/PB[1]/PB[2]/P[3]
#define RB_PIN_I2C 0x800 // RW, SCL/SDA alternate pin enable: 0=SCL/SDA on PB[13]/PB[12], 1=SCL_/SDA_ on PB[21]/PB[20]
#define RB_PIN_MODEM 0x1000 // RW, DSR/DTR alternate pin enable: 0=DSR/DTR on PB[1]/PB[5], 1=DSR_/DTR_ on PB[14]/PB[15]
#define RB_RF_ANT_SW_EN 0x8000 // RW, RF antenna switch control output enable: 0=disable output, 1=output on PB[16]/PB[17]/PB[18]/PB[19]/PB[20]/PB[21]
#define R16_PIN_ANALOG_IE (*((PUINT16V)0x4000101A)) // RW, analog pin enable and digital input disable
#define RB_PIN_USB_DP_PU 0x40 // RW, USB UDP internal pullup resistance enable: 0=enable/disable by RB_UC_DEV_PU_EN, 1=enable pullup, replace RB_UC_DEV_PU_EN under sleep mode
#define RB_PIN_USB_IE 0x80 // RW, USB analog I/O enable: 0=analog I/O disable, 1=analog I/O enable
#define R32_PIN_CONFIG2 (*((PUINT32V)0x4000101C)) // RW, I/O pin configuration
#define RB_PIN_PA4_15_DIS 0xFFF0 // RW, PA4-PA15 digital input disable
#define RB_PIN_PB0_DIS 0x10000 // RW, PB0 digital input disable
#define RB_PIN_PB4_DIS 0x100000 // RW, PB4 digital input disable
#define RB_PIN_PB6_7_DIS 0xC00000 // RW, PB6-PB7 digital input disable
#define RB_PIN_PB22_23_DIS 0x3000000 // RW, PB22-PB23 digital input disable
#define RB_PIN_PB10_15_DIS 0xFC000000 // RW, PB10-PB15 digital input disable
/* System: power management register */
#define R32_POWER_MANAG (*((PUINT32V)0x40001020)) // RWA, power management register, SAM
#define R16_POWER_PLAN (*((PUINT16V)0x40001020)) // RWA, power plan before sleep instruction, SAM
#define RB_PWR_XROM 0x01 // RWA, power for flash ROM
#define RB_PWR_RAM2K 0x02 // RWA, power for retention 2KB SRAM
#define RB_PWR_CORE 0x04 // RWA, power retention for core and base peripherals
#define RB_PWR_EXTEND 0x08 // RWA, power retention for USB and BLE
#define RB_PWR_RAM24K 0x10 // RWA, power for main SRAM
#define RB_MAIN_ACT 0x40 // RWA, main power chose
#define RB_PWR_SYS_EN 0x80 // RWA, power for system
#define RB_PWR_LDO_EN 0x0100 // RWA, LDO enable
#define RB_PWR_DCDC_EN 0x0200 // RWA, DC/DC converter enable: 0=DC/DC disable and bypass, 1=DC/DC enable
#define RB_PWR_DCDC_PRE 0x0400 // RWA, DC/DC converter pre-enable
#define RB_XT_PRE_CFG 0x1800 // RWA, extern 32MHz HSE early wake up time configuration
#define RB_PWR_MUST_0 0x2000 // RWA, must write 0
#define RB_XT_PRE_EN 0x4000 // RWA, extern 32MHz HSE early wake up enable, must be used with LSI/LSE
#define RB_PWR_PLAN_EN 0x8000 // RWA/WZ, power plan enable, auto clear after sleep executed
#define R16_AUX_POWER_ADJ (*((PUINT16V)0x40001022)) // RWA, aux power adjust control, SAM
#define RB_ULPLDO_ADJ 0x0007 // RWA, Ultra-Low-Power LDO voltage adjust
#define RB_DCDC_CHARGE 0x0080 // RWA, DC/DC aux charge enable
#define RB_IPU_TKEY_SEL 0xC000 // RWA, TouchKey wakeup
/* System: battery detector register */
#define R32_BATTERY_CTRL (*((PUINT32V)0x40001024)) // RWA, battery voltage detector, SAM
#define R8_BAT_DET_CTRL (*((PUINT8V)0x40001024)) // RWA, battery voltage detector control, SAM
#define RB_BAT_DET_EN 0x01 // RWA, battery voltage detector enable if RB_BAT_MON_EN=0
#define RB_BAT_LOW_VTHX 0x01 // RWA, select monitor threshold voltage if RB_BAT_MON_EN=1
#define RB_BAT_MON_EN 0x02 // RWA, battery voltage monitor enable under sleep mode
#define RB_BAT_LOWER_IE 0x04 // RWA, interrupt enable for battery lower voltage
#define RB_BAT_LOW_IE 0x08 // RWA, interrupt enable for battery low voltage
// request NMI interrupt if both RB_BAT_LOWER_IE and RB_BAT_LOW_IE enabled
#define R8_BAT_DET_CFG (*((PUINT8V)0x40001025)) // RWA, battery voltage detector configuration, SAM
#define RB_BAT_LOW_VTH 0x03 // RWA, select detector/monitor threshold voltage of battery voltage low
#define R8_BAT_STATUS (*((PUINT8V)0x40001026)) // RO, battery status
#define RB_BAT_STAT_LOWER 0x01 // RO, battery lower voltage status for detector, high action
#define RB_BAT_STAT_LOW 0x02 // RO, battery low voltage status for detector/monitor, high action
/* System: 32KHz oscillator control register */
#define R32_OSC32K_CTRL (*((PUINT32V)0x4000102C)) // RWA, 32KHz oscillator control, SAM
#define R16_INT32K_TUNE (*((PUINT16V)0x4000102C)) // RWA, internal 32KHz oscillator tune control, SAM
#define RB_INT32K_TUNE 0x1FFF // RWA, internal 32KHz oscillator frequency tune
#define R8_XT32K_TUNE (*((PUINT8V)0x4000102E)) // RWA, external 32KHz oscillator tune control, SAM
#define RB_XT32K_I_TUNE 0x03 // RWA, external 32KHz oscillator current tune: 00=75% current, 01=standard current, 10=150% current, 11=200% current for startup
#define RB_XT32K_C_LOAD 0xF0 // RWA, external 32KHz oscillator load capacitor tune: Cap = RB_XT32K_C_LOAD + 12pF
#define R8_CK32K_CONFIG (*((PUINT8V)0x4000102F)) // RWA, 32KHz oscillator configure
#define RB_CLK_XT32K_PON 0x01 // RWA, external 32KHz oscillator power on
#define RB_CLK_INT32K_PON 0x02 // RWA, internal 32KHz oscillator power on
#define RB_CLK_OSC32K_XT 0x04 // RWA, 32KHz oscillator source selection: 0=RC, 1=XT
#define RB_CLK_OSC32K_FILT 0x08 // RWA, internal 32KHz oscillator low noise mode disable: 1=enable, 0=disable
#define RB_32K_CLK_PIN 0x80 // RO, 32KHz oscillator clock pin status
/* System: real-time clock register */
#define R32_RTC_CTRL (*((PUINT32V)0x40001030)) // RWA, RTC control, SAM
#define R8_RTC_FLAG_CTRL (*((PUINT8V)0x40001030)) // RW, RTC flag and clear control
#define RB_RTC_TMR_CLR 0x10 // RW, set 1 to clear RTC timer action flag, auto clear
#define RB_RTC_TRIG_CLR 0x20 // RW, set 1 to clear RTC trigger action flag, auto clear
#define RB_RTC_TMR_FLAG 0x40 // RO, RTC timer action flag
#define RB_RTC_TRIG_FLAG 0x80 // RO, RTC trigger action flag
#define R8_RTC_MODE_CTRL (*((PUINT8V)0x40001031)) // RWA, RTC mode control, SAM
#define RB_RTC_TMR_MODE 0x07 // RWA, RTC timer mode: 000=0.125S, 001=0.25S, 010=0.5S, 011=1S, 100=2S, 101=4S, 110=8S, 111=16S
#define RB_RTC_IGNORE_B0 0x08 // RWA, force ignore bit0 for trigger mode: 0=compare bit0, 1=ignore bit0
#define RB_RTC_TMR_EN 0x10 // RWA, RTC timer mode enable
#define RB_RTC_TRIG_EN 0x20 // RWA, RTC trigger mode enable
#define RB_RTC_LOAD_LO 0x40 // RWA, set 1 to load RTC count low word R32_RTC_CNT_32K, auto clear after loaded
#define RB_RTC_LOAD_HI 0x80 // RWA, set 1 to load RTC count high word R32_RTC_CNT_DAY, auto clear after loaded
#define R32_RTC_TRIG (*((PUINT32V)0x40001034)) // RWA, RTC trigger value, SAM
#define R32_RTC_CNT_32K (*((PUINT32V)0x40001038)) // RO, RTC count based 32KHz
#define R16_RTC_CNT_32K (*((PUINT16V)0x40001038)) // RO, RTC count based 32KHz
#define R16_RTC_CNT_2S (*((PUINT16V)0x4000103A)) // RO, RTC count based 2 second
#define R32_RTC_CNT_DAY (*((PUINT32V)0x4000103C)) // RO, RTC count based one day, only low 14 bit
/*System: Miscellaneous Control register */
#define R32_MISC_CTRL (*((PUINT32V)0x40001048)) // RWA, miscellaneous control register
#define R8_PLL_CONFIG (*((PUINT8V)0x4000104B)) // RWA, PLL configuration control, SAM
#define RB_PLL_CFG_DAT 0x7F // RWA, PLL configuration control, SAM
/* System: 32MHz oscillator control register */
#define R8_XT32M_TUNE (*((PUINT8V)0x4000104E)) // RWA, external 32MHz oscillator tune control, SAM
#define RB_XT32M_I_BIAS 0x03 // RWA, external 32MHz oscillator bias current tune: 00=75% current, 01=standard current, 10=125% current, 11=150% current
#define RB_XT32M_C_LOAD 0x70 // RWA, external 32MHz oscillator load capacitor tune: Cap = RB_XT32M_C_LOAD * 2 + 10pF
/* System: oscillator frequency calibration register */
#define R32_OSC_CALIB (*((PUINT32V)0x40001050)) // RWA, oscillator frequency calibration, SAM
#define R16_OSC_CAL_CNT (*((PUINT16V)0x40001050)) // RO, system clock count value for 32KHz multi-cycles
#define RB_OSC_CAL_CNT 0x3FFF // RO, system clock count value for 32KHz multi-cycles
#define RB_OSC_CAL_OV_CLR 0x4000 // RW1, indicate R8_OSC_CAL_OV_CNT not zero, set 1 to clear R8_OSC_CAL_OV_CNT
#define RB_OSC_CAL_IF 0x8000 // RW1, interrupt flag for oscillator capture end, set 1 to clear
#define R8_OSC_CAL_OV_CNT (*((PUINT8V)0x40001052)) // RO, oscillator frequency calibration overflow times
#define R8_OSC_CAL_CTRL (*((PUINT8V)0x40001053)) // RWA, oscillator frequency calibration control, SAM
#define RB_OSC_CNT_TOTAL 0x07 // RWA, total cycles mode for oscillator capture
// RB_OSC_CNT_TOTAL: select total cycles for oscillator capture
// 000: 1
// 001: 2
// 010: 4
// 011: 32
// 100: 64
// 101: 128
// 110: 1024
// 111: 2047
#define RB_OSC_CNT_HALT 0x08 // RO, calibration counter halt status: 0=counting, 1=halt for reading count value
#define RB_OSC_CAL_IE 0x10 // RWA, interrupt enable for oscillator capture end
#define RB_OSC_CNT_EN 0x20 // RWA, calibration counter enable
#define RB_OSC_CNT_END 0x40 // RWA, select oscillator capture end mode: 0=normal, 1=append 2 cycles
/* System: ADC and Touch-key register */
#define R32_ADC_CTRL (*((PUINT32V)0x40001058)) // RW, ADC control
#define R8_ADC_CHANNEL (*((PUINT8V)0x40001058)) // RW, ADC input channel selection
#define RB_ADC_CH_INX 0x0F // RW, ADC input channel index
#define R8_ADC_CFG (*((PUINT8V)0x40001059)) // RW, ADC configure
#define RB_ADC_POWER_ON 0x01 // RW, ADC power control: 0=power down, 1=power on
#define RB_ADC_BUF_EN 0x02 // RW, ADC input buffer enable
#define RB_ADC_DIFF_EN 0x04 // RW, ADC input channel mode: 0=single-end, 1=differnetial
#define RB_ADC_OFS_TEST 0x08 // RW, enable ADC offset test mode: 0=normal mode, 1=short to test offset
#define RB_ADC_PGA_GAIN 0x30 // RW, set ADC input PGA gain: 00=-12dB, 01=-6dB, 10=0dB, 11=6dB
#define RB_ADC_CLK_DIV 0xC0 // RW, select ADC clock frequency: 00=3.2MHz, 01=8MHz, 10=5.33MHz, 11=4MHz
#define R8_ADC_CONVERT (*((PUINT8V)0x4000105A)) // RW, ADC convert control
#define RB_ADC_START 0x01 // RW, ADC convert start control: 0=stop ADC convert, 1=start an ADC convert, auto clear
#define RB_ADC_PGA_GAIN2 0x02 // RW, ADC gain direction, must be 0 when using TS
#define RB_ADC_EOC_X 0x80 // RO, end of ADC conversion flag
#define R8_TEM_SENSOR (*((PUINT8V)0x4000105B)) // RW, temperature sensor control
#define RB_TEM_SEN_PWR_ON 0x80 // RW, temperature sensor power control: 0=power down, 1=power on
#define R32_ADC_DATA (*((PUINT32V)0x4000105C)) // RO, ADC data and status
#define R16_ADC_DATA (*((PUINT16V)0x4000105C)) // RO, ADC data
#define RB_ADC_DATA 0x0FFF // RO, ADC conversion data
#define R8_ADC_INT_FLAG (*((PUINT8V)0x4000105E)) // RO, ADC interrupt flag register
#define RB_ADC_IF_EOC 0x80 // RO, ADC conversion interrupt flag: 0=free or converting, 1=end of conversion, interrupt action, auto ADC or write R8_ADC_CONVERT or write R8_TKEY_CONVERT to clear flag
#define R32_TKEY_CTRL (*((PUINT8V)0x40001054)) // RW, Touchkey control
#define R8_TKEY_COUNT (*((PUINT8V)0x40001054)) // RW, Touchkey charge and discharge count
#define RB_TKEY_CHARG_CNT 0x1F // RW, Touchkey charge count
#define RB_TKEY_DISCH_CNT 0xE0 // RW, Touchkey discharge count
#define R8_TKEY_CONVERT (*((PUINT8V)0x40001056)) // RW, Touchkey convert control
#define RB_TKEY_START 0x01 // RW, Touchkey convert start control: 0=stop Touchkey convert, 1=start a Touchkey convert, auto clear
#define R8_TKEY_CFG (*((PUINT8V)0x40001057)) // RW, Touchkey configure
#define RB_TKEY_PWR_ON 0x01 // RW, Touchkey power on: 0=power down, 1=power on
#define RB_TKEY_CURRENT 0x02 // RW, Touchkey charge current selection: 0=35uA, 1=70uA
#define RB_TKEY_DRV_EN 0x04 // RW, Touchkey drive shield enable
#define RB_TKEY_PGA_ADJ 0x08 // RW, ADC input PGA speed selection: 0=slow, 1=fast
#define RB_TKEY_DMA_EN 0x10 // RW, Touchkey DMA enable
#define RB_TKEY_AUTO_EN 0x20 // RW, Touchkey auto-trigger enable
#define RB_TKEY_RAND_EN 0x40 // RW, Touchkey random trigger enable
#define R32_ADC_DMA_CTRL (*((PUINT32V)0x40001060)) // RW, ADC DMA control
#define R8_ADC_CTRL_DMA (*((PUINT8V)0x40001061)) // RW, ADC DMA control
#define RB_ADC_DMA_ENABLE 0x01 // RW, ADC DMA enable
#define RB_ADC_DMA_LOOP 0x04 // RW, ADC DMA address loop enable
#define RB_ADC_IE_DMA_END 0x08 // RW, enable interrupt for ADC DMA completion
#define RB_ADC_IE_EOC 0x10 // RW, enable interrupt for end of ADC conversion
#define RB_ADC_CONT_EN 0x40 // RW, enable contineous conversion ADC
#define RB_ADC_AUTO_EN 0x80 // RW, enable auto continuing ADC for DMA
#define R8_ADC_DMA_IF (*((PUINT8V)0x40001062)) // RW1, ADC interrupt flag
#define RB_ADC_IF_DMA_END 0x08 // RW1, interrupt flag for ADC DMA completion
#define RB_ADC_IF_END_ADC 0x10 // RW1, interrupt flag for end of ADC conversion, DMA for auto ADC or write R8_ADC_CONVERT to clear flag
#define R8_ADC_AUTO_CYCLE (*((PUINT8V)0x40001063)) // RW, auto ADC cycle value, unit is 16 Fsys
#define R32_ADC_DMA_NOW (*((PUINT32V)0x40001064)) // RW, ADC DMA current address
#define R16_ADC_DMA_NOW (*((PUINT16V)0x40001064)) // RW, ADC DMA current address
#define R32_ADC_DMA_BEG (*((PUINT32V)0x40001068)) // RW, ADC DMA begin address
#define R16_ADC_DMA_BEG (*((PUINT16V)0x40001068)) // RW, ADC DMA begin address
#define R32_ADC_DMA_END (*((PUINT32V)0x4000106C)) // RW, ADC DMA end address
#define R16_ADC_DMA_END (*((PUINT16V)0x4000106C)) // RW, ADC DMA end address
/* System: Flash ROM control register */
#define R32_FLASH_DATA (*((PUINT32V)0x40001800)) // RO/WO, flash ROM data
#define R32_FLASH_CONTROL (*((PUINT32V)0x40001804)) // RW, flash ROM control
#define R8_FLASH_DATA (*((PUINT8V)0x40001804)) // RO/WO, flash ROM data buffer
#define R8_FLASH_CTRL (*((PUINT8V)0x40001806)) // RW, flash ROM access control
#define R8_FLASH_CFG (*((PUINT8V)0x40001807)) // RW, flash ROM access config, SAM
/* System: GPIO interrupt control register */
#define R32_GPIO_INT_EN (*((PUINT32V)0x40001090)) // RW, GPIO interrupt enable
#define R16_PA_INT_EN (*((PUINT16V)0x40001090)) // RW, GPIO PA interrupt enable
#define R16_PB_INT_EN (*((PUINT16V)0x40001092)) // RW, GPIO PB interrupt enable
#define R32_GPIO_INT_MODE (*((PUINT32V)0x40001094)) // RW, GPIO interrupt mode: 0=level action, 1=edge action
#define R16_PA_INT_MODE (*((PUINT16V)0x40001094)) // RW, GPIO PA interrupt mode: 0=level action, 1=edge action
#define R16_PB_INT_MODE (*((PUINT16V)0x40001096)) // RW, GPIO PB interrupt mode: 0=level action, 1=edge action
#define R32_GPIO_INT_IF (*((PUINT32V)0x4000109C)) // RW1, GPIO interrupt flag
#define R16_PA_INT_IF (*((PUINT16V)0x4000109C)) // RW1, GPIO PA interrupt flag
#define R16_PB_INT_IF (*((PUINT16V)0x4000109E)) // RW1, GPIO PB interrupt flag
/* GPIO PA register */
#define R32_PA_DIR (*((PUINT32V)0x400010A0)) // RW, GPIO PA I/O direction: 0=in, 1=out
#define R8_PA_DIR_0 (*((PUINT8V)0x400010A0)) // RW, GPIO PA I/O direction byte 0
#define R8_PA_DIR_1 (*((PUINT8V)0x400010A1)) // RW, GPIO PA I/O direction byte 1
#define R32_PA_PIN (*((PUINT32V)0x400010A4)) // RO, GPIO PA input
#define R8_PA_PIN_0 (*((PUINT8V)0x400010A4)) // RO, GPIO PA input byte 0
#define R8_PA_PIN_1 (*((PUINT8V)0x400010A5)) // RO, GPIO PA input byte 1
#define R32_PA_OUT (*((PUINT32V)0x400010A8)) // RW, GPIO PA output
#define R8_PA_OUT_0 (*((PUINT8V)0x400010A8)) // RW, GPIO PA output byte 0
#define R8_PA_OUT_1 (*((PUINT8V)0x400010A9)) // RW, GPIO PA output byte 1
#define R32_PA_CLR (*((PUINT32V)0x400010AC)) // WZ, GPIO PA clear output: 0=keep, 1=clear
#define R8_PA_CLR_0 (*((PUINT8V)0x400010AC)) // WZ, GPIO PA clear output byte 0
#define R8_PA_CLR_1 (*((PUINT8V)0x400010AD)) // WZ, GPIO PA clear output byte 1
#define R32_PA_PU (*((PUINT32V)0x400010B0)) // RW, GPIO PA pullup resistance enable
#define R8_PA_PU_0 (*((PUINT8V)0x400010B0)) // RW, GPIO PA pullup resistance enable byte 0
#define R8_PA_PU_1 (*((PUINT8V)0x400010B1)) // RW, GPIO PA pullup resistance enable byte 1
#define R32_PA_PD_DRV (*((PUINT32V)0x400010B4)) // RW, PA pulldown for input or PA driving capability for output
#define R8_PA_PD_DRV_0 (*((PUINT8V)0x400010B4)) // RW, PA pulldown for input or PA driving capability for output byte 0
#define R8_PA_PD_DRV_1 (*((PUINT8V)0x400010B5)) // RW, PA pulldown for input or PA driving capability for output byte 1
/* GPIO PB register */
#define R32_PB_DIR (*((PUINT32V)0x400010C0)) // RW, GPIO PB I/O direction: 0=in, 1=out
#define R8_PB_DIR_0 (*((PUINT8V)0x400010C0)) // RW, GPIO PB I/O direction byte 0
#define R8_PB_DIR_1 (*((PUINT8V)0x400010C1)) // RW, GPIO PB I/O direction byte 1
#define R8_PB_DIR_2 (*((PUINT8V)0x400010C2)) // RW, GPIO PB I/O direction byte 2
#define R32_PB_PIN (*((PUINT32V)0x400010C4)) // RO, GPIO PB input
#define R8_PB_PIN_0 (*((PUINT8V)0x400010C4)) // RO, GPIO PB input byte 0
#define R8_PB_PIN_1 (*((PUINT8V)0x400010C5)) // RO, GPIO PB input byte 1
#define R8_PB_PIN_2 (*((PUINT8V)0x400010C6)) // RO, GPIO PB input byte 2
#define R32_PB_OUT (*((PUINT32V)0x400010C8)) // RW, GPIO PB output
#define R8_PB_OUT_0 (*((PUINT8V)0x400010C8)) // RW, GPIO PB output byte 0
#define R8_PB_OUT_1 (*((PUINT8V)0x400010C9)) // RW, GPIO PB output byte 1
#define R8_PB_OUT_2 (*((PUINT8V)0x400010CA)) // RW, GPIO PB output byte 2
#define R32_PB_CLR (*((PUINT32V)0x400010CC)) // WZ, GPIO PB clear output: 0=keep, 1=clear
#define R8_PB_CLR_0 (*((PUINT8V)0x400010CC)) // WZ, GPIO PB clear output byte 0
#define R8_PB_CLR_1 (*((PUINT8V)0x400010CD)) // WZ, GPIO PB clear output byte 1
#define R8_PB_CLR_2 (*((PUINT8V)0x400010CE)) // WZ, GPIO PB clear output byte 2
#define R32_PB_PU (*((PUINT32V)0x400010D0)) // RW, GPIO PB pullup resistance enable
#define R8_PB_PU_0 (*((PUINT8V)0x400010D0)) // RW, GPIO PB pullup resistance enable byte 0
#define R8_PB_PU_1 (*((PUINT8V)0x400010D1)) // RW, GPIO PB pullup resistance enable byte 1
#define R8_PB_PU_2 (*((PUINT8V)0x400010D2)) // RW, GPIO PB pullup resistance enable byte 2
#define R32_PB_PD_DRV (*((PUINT32V)0x400010D4)) // RW, PB pulldown for input or PB driving capability for output
#define R8_PB_PD_DRV_0 (*((PUINT8V)0x400010D4)) // RW, PB pulldown for input or PB driving capability for output byte 0
#define R8_PB_PD_DRV_1 (*((PUINT8V)0x400010D5)) // RW, PB pulldown for input or PB driving capability for output byte 1
#define R8_PB_PD_DRV_2 (*((PUINT8V)0x400010D6)) // RW, PB pulldown for input or PB driving capability for output byte 2
/* GPIO register address offset and bit define */
#define BA_PA ((PUINT8V)0x400010A0) // point GPIO PA base address
#define BA_PB ((PUINT8V)0x400010C0) // point GPIO PB base address
#define GPIO_DIR 0x00
#define GPIO_DIR_0 0x00
#define GPIO_DIR_1 0x01
#define GPIO_DIR_2 0x02
#define GPIO_PIN 0x04
#define GPIO_PIN_0 0x04
#define GPIO_PIN_1 0x05
#define GPIO_PIN_2 0x06
#define GPIO_OUT 0x08
#define GPIO_OUT_0 0x08
#define GPIO_OUT_1 0x09
#define GPIO_OUT_2 0x0A
#define GPIO_CLR 0x0C
#define GPIO_CLR_0 0x0C
#define GPIO_CLR_1 0x0D
#define GPIO_CLR_2 0x0E
#define GPIO_PU 0x10
#define GPIO_PU_0 0x10
#define GPIO_PU_1 0x11
#define GPIO_PU_2 0x12
#define GPIO_PD_DRV 0x14
#define GPIO_PD_DRV_0 0x14
#define GPIO_PD_DRV_1 0x15
#define GPIO_PD_DRV_2 0x16
/* GPIO alias name */
#define bAIN9 (1<<0) // PA0
#define bSCK1 (1<<0) // PA0
#define bAIN8 (1<<1) // PA1
#define bSDO (1<<1) // PA1
#define bMOSI1 bSDO
#define bAIN7 (1<<2) // PA2
#define bSDI (1<<2) // PA2
#define bMISO1 bSDI
#define bAIN6 (1<<3) // PA3
#define bAIN0 (1<<4) // PA4
#define bRXD3 (1<<4) // PA4
#define bRXD3_ (1<<4) // PA4
#define bAIN1 (1<<5) // PA5
#define bTXD3 (1<<5) // PA5
#define bTXD3_ (1<<5) // PA5
#define bAIN10 (1<<6) // PA6
#define bRXD2_ (1<<6) // PA6
#define bPWM4_ (1<<6) // PA6
#define bAIN11 (1<<7) // PA7
#define bTXD2_ (1<<7) // PA7
#define bPWM5_ (1<<7) // PA7
#define bAIN12 (1<<8) // PA8
#define bRXD1 (1<<8) // PA8
#define bAIN13 (1<<9) // PA9
#define bTMR0 (1<<9) // PA9
#define bCAP0 bTMR0
#define bPWM0 bTMR0
#define bTXD1 (1<<9) // PA9
#define bX32KI (1<<10) // PA10
#define bTMR1 (1<<10) // PA10
#define bCAP1 bTMR1
#define bPWM1 bTMR1
#define bX32KO (1<<11) // PA11
#define bTMR2 (1<<11) // PA11
#define bCAP2 bTMR2
#define bPWM2 bTMR2
#define bAIN2 (1<<12) // PA12
#define bPWM4 (1<<12) // PA12
#define bSCS (1<<12) // PA12
#define bAIN3 (1<<13) // PA13
#define bSCK0 (1<<13) // PA13
#define bPWM5 (1<<13) // PA13
#define bAIN4 (1<<14) // PA14
#define bMOSI (1<<14) // PA14
#define bTXD0_ (1<<14) // PA14
#define bAIN5 (1<<15) // PA15
#define bMISO (1<<15) // PA15
#define bRXD0_ (1<<15) // PA15
#define bPWM6 (1<<0) // PB0
#define bCTS (1<<0) // PB0
#define bDSR (1<<1) // PB1
#define bPWM7_ (1<<1) // PB1
#define bRI (1<<2) // PB2
#define bPWM8_ (1<<2) // PB2
#define bDCD (1<<3) // PB3
#define bPWM9_ (1<<3) // PB3
#define bPWM7 (1<<4) // PB4
#define bRXD0 (1<<4) // PB4
#define bDTR (1<<5) // PB5
#define bRTS (1<<6) // PB6
#define bPWM8 (1<<6) // PB6
#define bTXD0 (1<<7) // PB7
#define bPWM9 (1<<7) // PB7
#define bUDM (1<<10) // PB10
#define bTMR1_ (1<<10) // PB10
#define bCAP1_ bTMR1_
#define bPWM1_ bTMR1_
#define bUDP (1<<11) // PB11
#define bTMR2_ (1<<11) // PB11
#define bCAP2_ bTMR2_
#define bPWM2_ bTMR2_
#define bU2DM (1<<12) // PB12
#define bSCS_ (1<<12) // PB12
#define bRXD1_ (1<<12) // PB12
#define bU2DP (1<<13) // PB13
#define bSCK0_ (1<<13) // PB13
#define bTXD1_ (1<<13) // PB13
#define bTIO (1<<14) // PB14
#define bDSR_ (1<<14) // PB14
#define bMOSI_ (1<<14) // PB14
#define bSDA (1<<14) // PB14
#define bPWM10 (1<<14) // PB14
#define bTCK (1<<15) // PB15
#define bMISO_ (1<<15) // PB15
#define bSCL (1<<15) // PB15
#define bDTR_ (1<<15) // PB15
#define bRXD2 (1<<22) // PB22
#define bTMR3 (1<<22) // PB22
#define bCAP3 bTMR3
#define bPWM3 bTMR3
#define bTMR3_ (1<<22) // PB22
#define bCAP3_ bTMR3_
#define bPWM3_ bTMR3_
#define bRST (1<<23) // PB23
#define bTMR0_ (1<<23) // PB23
#define bCAP0_ bTMR0_
#define bPWM0_ bTMR0_
#define bTXD2 (1<<23) // PB23
#define bPWM11 (1<<23) // PB23
/* Timer0 register */
#define R32_TMR0_CONTROL (*((PUINT32V)0x40002000)) // RW, TMR0 control
#define R8_TMR0_CTRL_MOD (*((PUINT8V)0x40002000)) // RW, TMR0 mode control
#define R8_TMR0_INTER_EN (*((PUINT8V)0x40002002)) // RW, TMR0 interrupt enable
// #define R32_TMR0_STATUS (*((PUINT32V)0x40002004)) // RW, TMR0 status
#define R8_TMR0_INT_FLAG (*((PUINT8V)0x40002006)) // RW1, TMR0 interrupt flag
#define R8_TMR0_FIFO_COUNT (*((PUINT8V)0x40002007)) // RO, TMR0 FIFO count status
#define R32_TMR0_COUNT (*((PUINT32V)0x40002008)) // RO, TMR0 current count
#define R16_TMR0_COUNT (*((PUINT16V)0x40002008)) // RO, TMR0 current count
#define R8_TMR0_COUNT (*((PUINT8V)0x40002008)) // RO, TMR0 current count
#define R32_TMR0_CNT_END (*((PUINT32V)0x4000200C)) // RW, TMR0 end count value, only low 26 bit
#define R32_TMR0_FIFO (*((PUINT32V)0x40002010)) // RO/WO, TMR0 FIFO register, only low 26 bit
#define R16_TMR0_FIFO (*((PUINT16V)0x40002010)) // RO/WO, TMR0 FIFO register
#define R8_TMR0_FIFO (*((PUINT8V)0x40002010)) // RO/WO, TMR0 FIFO register
/* Timer1 register */
#define R32_TMR1_CONTROL (*((PUINT32V)0x40002400)) // RW, TMR1 control
#define R8_TMR1_CTRL_MOD (*((PUINT8V)0x40002400)) // RW, TMR1 mode control
#define R8_TMR1_CTRL_DMA (*((PUINT8V)0x40002401)) // RW, TMR1 DMA control
#define R8_TMR1_INTER_EN (*((PUINT8V)0x40002402)) // RW, TMR1 interrupt enable
// #define R32_TMR1_STATUS (*((PUINT32V)0x40002404)) // RW, TMR1 status
#define R8_TMR1_INT_FLAG (*((PUINT8V)0x40002406)) // RW1, TMR1 interrupt flag
#define R8_TMR1_FIFO_COUNT (*((PUINT8V)0x40002407)) // RO, TMR1 FIFO count status
#define R32_TMR1_COUNT (*((PUINT32V)0x40002408)) // RO, TMR1 current count
#define R16_TMR1_COUNT (*((PUINT16V)0x40002408)) // RO, TMR1 current count
#define R8_TMR1_COUNT (*((PUINT8V)0x40002408)) // RO, TMR1 current count
#define R32_TMR1_CNT_END (*((PUINT32V)0x4000240C)) // RW, TMR1 end count value, only low 26 bit
#define R32_TMR1_FIFO (*((PUINT32V)0x40002410)) // RO/WO, TMR1 FIFO register, only low 26 bit
#define R16_TMR1_FIFO (*((PUINT16V)0x40002410)) // RO/WO, TMR1 FIFO register
#define R8_TMR1_FIFO (*((PUINT8V)0x40002410)) // RO/WO, TMR1 FIFO register
#define R32_TMR1_DMA_NOW (*((PUINT32V)0x40002414)) // RW, TMR1 DMA current address
#define R16_TMR1_DMA_NOW (*((PUINT16V)0x40002414)) // RW, TMR1 DMA current address
#define R32_TMR1_DMA_BEG (*((PUINT32V)0x40002418)) // RW, TMR1 DMA begin address
#define R16_TMR1_DMA_BEG (*((PUINT16V)0x40002418)) // RW, TMR1 DMA begin address
#define R32_TMR1_DMA_END (*((PUINT32V)0x4000241C)) // RW, TMR1 DMA end address
#define R16_TMR1_DMA_END (*((PUINT16V)0x4000241C)) // RW, TMR1 DMA end address
/* Timer2 register */
#define R32_TMR2_CONTROL (*((PUINT32V)0x40002800)) // RW, TMR2 control
#define R8_TMR2_CTRL_MOD (*((PUINT8V)0x40002800)) // RW, TMR2 mode control
#define R8_TMR2_CTRL_DMA (*((PUINT8V)0x40002801)) // RW, TMR2 DMA control
#define R8_TMR2_INTER_EN (*((PUINT8V)0x40002802)) // RW, TMR2 interrupt enable
// #define R32_TMR2_STATUS (*((PUINT32V)0x40002804)) // RW, TMR2 status
#define R8_TMR2_INT_FLAG (*((PUINT8V)0x40002806)) // RW1, TMR2 interrupt flag
#define R8_TMR2_FIFO_COUNT (*((PUINT8V)0x40002807)) // RO, TMR2 FIFO count status
#define R32_TMR2_COUNT (*((PUINT32V)0x40002808)) // RO, TMR2 current count
#define R16_TMR2_COUNT (*((PUINT16V)0x40002808)) // RO, TMR2 current count
#define R8_TMR2_COUNT (*((PUINT8V)0x40002808)) // RO, TMR2 current count
#define R32_TMR2_CNT_END (*((PUINT32V)0x4000280C)) // RW, TMR2 end count value, only low 26 bit
#define R32_TMR2_FIFO (*((PUINT32V)0x40002810)) // RO/WO, TMR2 FIFO register, only low 26 bit
#define R16_TMR2_FIFO (*((PUINT16V)0x40002810)) // RO/WO, TMR2 FIFO register
#define R8_TMR2_FIFO (*((PUINT8V)0x40002810)) // RO/WO, TMR2 FIFO register
#define R32_TMR2_DMA_NOW (*((PUINT32V)0x40002814)) // RW, TMR2 DMA current address
#define R16_TMR2_DMA_NOW (*((PUINT16V)0x40002814)) // RW, TMR2 DMA current address
#define R32_TMR2_DMA_BEG (*((PUINT32V)0x40002818)) // RW, TMR2 DMA begin address
#define R16_TMR2_DMA_BEG (*((PUINT16V)0x40002818)) // RW, TMR2 DMA begin address
#define R32_TMR2_DMA_END (*((PUINT32V)0x4000281C)) // RW, TMR2 DMA end address
#define R16_TMR2_DMA_END (*((PUINT16V)0x4000281C)) // RW, TMR2 DMA end address
/* Timer3 register */
#define R32_TMR3_CONTROL (*((PUINT32V)0x40002C00)) // RW, TMR3 control
#define R8_TMR3_CTRL_MOD (*((PUINT8V)0x40002C00)) // RW, TMR3 mode control
#define R8_TMR3_INTER_EN (*((PUINT8V)0x40002C02)) // RW, TMR3 interrupt enable
// #define R32_TMR3_STATUS (*((PUINT32V)0x40002C04)) // RW, TMR3 status
#define R8_TMR3_INT_FLAG (*((PUINT8V)0x40002C06)) // RW1, TMR3 interrupt flag
#define R8_TMR3_FIFO_COUNT (*((PUINT8V)0x40002C07)) // RO, TMR3 FIFO count status
#define R32_TMR3_COUNT (*((PUINT32V)0x40002C08)) // RO, TMR3 current count
#define R16_TMR3_COUNT (*((PUINT16V)0x40002C08)) // RO, TMR3 current count
#define R8_TMR3_COUNT (*((PUINT8V)0x40002C08)) // RO, TMR3 current count
#define R32_TMR3_CNT_END (*((PUINT32V)0x40002C0C)) // RW, TMR3 end count value, only low 26 bit
#define R32_TMR3_FIFO (*((PUINT32V)0x40002C10)) // RO/WO, TMR3 FIFO register, only low 26 bit
#define R16_TMR3_FIFO (*((PUINT16V)0x40002C10)) // RO/WO, TMR3 FIFO register
#define R8_TMR3_FIFO (*((PUINT8V)0x40002C10)) // RO/WO, TMR3 FIFO register
/* Timer register address offset and bit define */
#define TMR_FIFO_SIZE 8 // timer FIFO size (depth)
#define BA_TMR0 ((PUINT8V)0x40002000) // point TMR0 base address
#define BA_TMR1 ((PUINT8V)0x40002400) // point TMR1 base address
#define BA_TMR2 ((PUINT8V)0x40002800) // point TMR2 base address
#define BA_TMR3 ((PUINT8V)0x40002C00) // point TMR3 base address
#define TMR_CTRL_MOD 0
#define RB_TMR_MODE_IN 0x01 // RW, timer in mode: 0=timer/PWM, 1=capture/count
#define RB_TMR_ALL_CLEAR 0x02 // RW, force clear timer FIFO and count
#define RB_TMR_COUNT_EN 0x04 // RW, timer count enable
#define RB_TMR_OUT_EN 0x08 // RW, timer output enable
#define RB_TMR_OUT_POLAR 0x10 // RW, timer PWM output polarity: 0=default low and high action, 1=default high and low action
#define RB_TMR_CAP_COUNT 0x10 // RW, count sub-mode if RB_TMR_MODE_IN=1: 0=capture, 1=count
#define RB_TMR_PWM_REPEAT 0xC0 // RW, timer PWM repeat mode: 00=1, 01=4, 10=8, 11-16
#define RB_TMR_CAP_EDGE 0xC0 // RW, timer capture edge mode: 00=disable, 01=edge change, 10=fall to fall, 11-rise to rise
#define TMR_CTRL_DMA 1
#define RB_TMR_DMA_ENABLE 0x01 // RW, timer1/2 DMA enable
#define RB_TMR_DMA_LOOP 0x04 // RW, timer1/2 DMA address loop enable
#define TMR_INTER_EN 2
#define RB_TMR_IE_CYC_END 0x01 // RW, enable interrupt for timer capture count timeout or PWM cycle end
#define RB_TMR_IE_DATA_ACT 0x02 // RW, enable interrupt for timer capture input action or PWM trigger
#define RB_TMR_IE_FIFO_HF 0x04 // RW, enable interrupt for timer FIFO half (capture fifo >=4 or PWM fifo <=3)
#define RB_TMR_IE_DMA_END 0x08 // RW, enable interrupt for timer1/2 DMA completion
#define RB_TMR_IE_FIFO_OV 0x10 // RW, enable interrupt for timer FIFO overflow
#define TMR_INT_FLAG 6
#define RB_TMR_IF_CYC_END 0x01 // RW1, interrupt flag for timer capture count timeout or PWM cycle end
#define RB_TMR_IF_DATA_ACT 0x02 // RW1, interrupt flag for timer capture input action or PWM trigger
#define RB_TMR_IF_FIFO_HF 0x04 // RW1, interrupt flag for timer FIFO half (capture fifo >=4 or PWM fifo <=3)
#define RB_TMR_IF_DMA_END 0x08 // RW1, interrupt flag for timer1/2 DMA completion
#define RB_TMR_IF_FIFO_OV 0x10 // RW1, interrupt flag for timer FIFO overflow
#define TMR_FIFO_COUNT 7
#define TMR_COUNT 0x08
#define TMR_CNT_END 0x0C
#define TMR_FIFO 0x10
#define TMR_DMA_NOW 0x14
#define TMR_DMA_BEG 0x18
#define TMR_DMA_END 0x1C
/* UART0 register */
#define R32_UART0_CTRL (*((PUINT32V)0x40003000)) // RW, UART0 control
#define R8_UART0_MCR (*((PUINT8V)0x40003000)) // RW, UART0 modem control
#define R8_UART0_IER (*((PUINT8V)0x40003001)) // RW, UART0 interrupt enable
#define R8_UART0_FCR (*((PUINT8V)0x40003002)) // RW, UART0 FIFO control
#define R8_UART0_LCR (*((PUINT8V)0x40003003)) // RW, UART0 line control
#define R32_UART0_STAT (*((PUINT32V)0x40003004)) // RO, UART0 status
#define R8_UART0_IIR (*((PUINT8V)0x40003004)) // RO, UART0 interrupt identification
#define R8_UART0_LSR (*((PUINT8V)0x40003005)) // RO, UART0 line status
#define R8_UART0_MSR (*((PUINT8V)0x40003006)) // RO, UART0 modem status
#define R32_UART0_FIFO (*((PUINT32V)0x40003008)) // RW, UART0 data or FIFO port
#define R8_UART0_RBR (*((PUINT8V)0x40003008)) // RO, UART0 receiver buffer, receiving byte
#define R8_UART0_THR (*((PUINT8V)0x40003008)) // WO, UART0 transmitter holding, transmittal byte
#define R8_UART0_RFC (*((PUINT8V)0x4000300A)) // RO, UART0 receiver FIFO count
#define R8_UART0_TFC (*((PUINT8V)0x4000300B)) // RO, UART0 transmitter FIFO count
#define R32_UART0_SETUP (*((PUINT32V)0x4000300C)) // RW, UART0 setup
#define R16_UART0_DL (*((PUINT16V)0x4000300C)) // RW, UART0 divisor latch
#define R8_UART0_DLL (*((PUINT8V)0x4000300C)) // RW, UART0 divisor latch LSB byte
// #define R8_UART0_DLM (*((PUINT8V)0x4000300D)) // RW, UART0 divisor latch MSB byte
#define R8_UART0_DIV (*((PUINT8V)0x4000300E)) // RW, UART0 pre-divisor latch byte, only low 7 bit, from 1 to 0/128
#define R8_UART0_ADR (*((PUINT8V)0x4000300F)) // RW, UART0 slave address: 0xFF=disable, other=enable
/* UART1 register */
#define R32_UART1_CTRL (*((PUINT32V)0x40003400)) // RW, UART1 control
#define R8_UART1_MCR (*((PUINT8V)0x40003400)) // RW, UART1 modem control
#define R8_UART1_IER (*((PUINT8V)0x40003401)) // RW, UART1 interrupt enable
#define R8_UART1_FCR (*((PUINT8V)0x40003402)) // RW, UART1 FIFO control
#define R8_UART1_LCR (*((PUINT8V)0x40003403)) // RW, UART1 line control
#define R32_UART1_STAT (*((PUINT32V)0x40003404)) // RO, UART1 status
#define R8_UART1_IIR (*((PUINT8V)0x40003404)) // RO, UART1 interrupt identification
#define R8_UART1_LSR (*((PUINT8V)0x40003405)) // RO, UART1 line status
#define R32_UART1_FIFO (*((PUINT32V)0x40003408)) // RW, UART1 data or FIFO port
#define R8_UART1_RBR (*((PUINT8V)0x40003408)) // RO, UART1 receiver buffer, receiving byte
#define R8_UART1_THR (*((PUINT8V)0x40003408)) // WO, UART1 transmitter holding, transmittal byte
#define R8_UART1_RFC (*((PUINT8V)0x4000340A)) // RO, UART1 receiver FIFO count
#define R8_UART1_TFC (*((PUINT8V)0x4000340B)) // RO, UART1 transmitter FIFO count
#define R32_UART1_SETUP (*((PUINT32V)0x4000340C)) // RW, UART1 setup
#define R16_UART1_DL (*((PUINT16V)0x4000340C)) // RW, UART1 divisor latch
#define R8_UART1_DLL (*((PUINT8V)0x4000340C)) // RW, UART1 divisor latch LSB byte
// #define R8_UART1_DLM (*((PUINT8V)0x4000340D)) // RW, UART1 divisor latch MSB byte
#define R8_UART1_DIV (*((PUINT8V)0x4000340E)) // RW, UART1 pre-divisor latch byte, only low 7 bit, from 1 to 0/128
/* UART2 register */
#define R32_UART2_CTRL (*((PUINT32V)0x40003800)) // RW, UART2 control
#define R8_UART2_MCR (*((PUINT8V)0x40003800)) // RW, UART2 modem control
#define R8_UART2_IER (*((PUINT8V)0x40003801)) // RW, UART2 interrupt enable
#define R8_UART2_FCR (*((PUINT8V)0x40003802)) // RW, UART2 FIFO control
#define R8_UART2_LCR (*((PUINT8V)0x40003803)) // RW, UART2 line control
#define R32_UART2_STAT (*((PUINT32V)0x40003804)) // RO, UART2 status
#define R8_UART2_IIR (*((PUINT8V)0x40003804)) // RO, UART2 interrupt identification
#define R8_UART2_LSR (*((PUINT8V)0x40003805)) // RO, UART2 line status
#define R32_UART2_FIFO (*((PUINT32V)0x40003808)) // RW, UART2 data or FIFO port
#define R8_UART2_RBR (*((PUINT8V)0x40003808)) // RO, UART2 receiver buffer, receiving byte
#define R8_UART2_THR (*((PUINT8V)0x40003808)) // WO, UART2 transmitter holding, transmittal byte
#define R8_UART2_RFC (*((PUINT8V)0x4000380A)) // RO, UART2 receiver FIFO count
#define R8_UART2_TFC (*((PUINT8V)0x4000380B)) // RO, UART2 transmitter FIFO count
#define R32_UART2_SETUP (*((PUINT32V)0x4000380C)) // RW, UART2 setup
#define R16_UART2_DL (*((PUINT16V)0x4000380C)) // RW, UART2 divisor latch
#define R8_UART2_DLL (*((PUINT8V)0x4000380C)) // RW, UART2 divisor latch LSB byte
// #define R8_UART2_DLM (*((PUINT8V)0x4000380D)) // RW, UART2 divisor latch MSB byte
#define R8_UART2_DIV (*((PUINT8V)0x4000380E)) // RW, UART2 pre-divisor latch byte, only low 7 bit, from 1 to 0/128
/* UART3 register */
#define R32_UART3_CTRL (*((PUINT32V)0x40003C00)) // RW, UART3 control
#define R8_UART3_MCR (*((PUINT8V)0x40003C00)) // RW, UART3 modem control
#define R8_UART3_IER (*((PUINT8V)0x40003C01)) // RW, UART3 interrupt enable
#define R8_UART3_FCR (*((PUINT8V)0x40003C02)) // RW, UART3 FIFO control
#define R8_UART3_LCR (*((PUINT8V)0x40003C03)) // RW, UART3 line control
#define R32_UART3_STAT (*((PUINT32V)0x40003C04)) // RO, UART3 status
#define R8_UART3_IIR (*((PUINT8V)0x40003C04)) // RO, UART3 interrupt identification
#define R8_UART3_LSR (*((PUINT8V)0x40003C05)) // RO, UART3 line status
#define R32_UART3_FIFO (*((PUINT32V)0x40003C08)) // RW, UART3 data or FIFO port
#define R8_UART3_RBR (*((PUINT8V)0x40003C08)) // RO, UART3 receiver buffer, receiving byte
#define R8_UART3_THR (*((PUINT8V)0x40003C08)) // WO, UART3 transmitter holding, transmittal byte
#define R8_UART3_RFC (*((PUINT8V)0x40003C0A)) // RO, UART3 receiver FIFO count
#define R8_UART3_TFC (*((PUINT8V)0x40003C0B)) // RO, UART3 transmitter FIFO count
#define R32_UART3_SETUP (*((PUINT32V)0x40003C0C)) // RW, UART3 setup
#define R16_UART3_DL (*((PUINT16V)0x40003C0C)) // RW, UART3 divisor latch
#define R8_UART3_DLL (*((PUINT8V)0x40003C0C)) // RW, UART3 divisor latch LSB byte
// #define R8_UART3_DLM (*((PUINT8V)0x40003C0D)) // RW, UART3 divisor latch MSB byte
#define R8_UART3_DIV (*((PUINT8V)0x40003C0E)) // RW, UART3 pre-divisor latch byte, only low 7 bit, from 1 to 0/128
/* UART register address offset and bit define */
#define UART_FIFO_SIZE 8 // UART FIFO size (depth)
#define UART_RECV_RDY_SZ 7 // the max FIFO trigger level for UART receiver data available
#define BA_UART0 ((PUINT8V)0x40003000) // point UART0 base address
#define BA_UART1 ((PUINT8V)0x40003400) // point UART1 base address
#define BA_UART2 ((PUINT8V)0x40003800) // point UART2 base address
#define BA_UART3 ((PUINT8V)0x40003C00) // point UART3 base address
#define UART_MCR 0
#define RB_MCR_DTR 0x01 // RW, UART0 control DTR
#define RB_MCR_RTS 0x02 // RW, UART0 control RTS
#define RB_MCR_OUT1 0x04 // RW, UART0 control OUT1
#define RB_MCR_OUT2 0x08 // RW, UART control OUT2
#define RB_MCR_INT_OE 0x08 // RW, UART interrupt output enable
#define RB_MCR_LOOP 0x10 // RW, UART0 enable local loop back
#define RB_MCR_AU_FLOW_EN 0x20 // RW, UART0 enable autoflow control
#define RB_MCR_TNOW 0x40 // RW, UART0 enable TNOW output on DTR pin
#define RB_MCR_HALF 0x80 // RW, UART0 enable half-duplex
#define UART_IER 1
#define RB_IER_RECV_RDY 0x01 // RW, UART interrupt enable for receiver data ready
#define RB_IER_THR_EMPTY 0x02 // RW, UART interrupt enable for THR empty
#define RB_IER_LINE_STAT 0x04 // RW, UART interrupt enable for receiver line status
#define RB_IER_MODEM_CHG 0x08 // RW, UART0 interrupt enable for modem status change
#define RB_IER_DTR_EN 0x10 // RW, UART0 DTR/TNOW output pin enable
#define RB_IER_RTS_EN 0x20 // RW, UART0 RTS output pin enable
#define RB_IER_TXD_EN 0x40 // RW, UART TXD pin enable
#define RB_IER_RESET 0x80 // WZ, UART software reset control, high action, auto clear
#define UART_FCR 2
#define RB_FCR_FIFO_EN 0x01 // RW, UART FIFO enable
#define RB_FCR_RX_FIFO_CLR 0x02 // WZ, clear UART receiver FIFO, high action, auto clear
#define RB_FCR_TX_FIFO_CLR 0x04 // WZ, clear UART transmitter FIFO, high action, auto clear
#define RB_FCR_FIFO_TRIG 0xC0 // RW, UART receiver FIFO trigger level: 00-1byte, 01-2bytes, 10-4bytes, 11-7bytes
#define UART_LCR 3
#define RB_LCR_WORD_SZ 0x03 // RW, UART word bit length: 00-5bit, 01-6bit, 10-7bit, 11-8bit
#define RB_LCR_STOP_BIT 0x04 // RW, UART stop bit length: 0-1bit, 1-2bit
#define RB_LCR_PAR_EN 0x08 // RW, UART parity enable
#define RB_LCR_PAR_MOD 0x30 // RW, UART parity mode: 00-odd, 01-even, 10-mark, 11-space
#define RB_LCR_BREAK_EN 0x40 // RW, UART break control enable
#define RB_LCR_DLAB 0x80 // RW, UART reserved bit
#define RB_LCR_GP_BIT 0x80 // RW, UART general purpose bit
#define UART_IIR 4
#define RB_IIR_NO_INT 0x01 // RO, UART no interrupt flag: 0=interrupt action, 1=no interrupt
#define RB_IIR_INT_MASK 0x0F // RO, UART interrupt flag bit mask
#define RB_IIR_FIFO_ID 0xC0 // RO, UART FIFO enabled flag
#define UART_LSR 5
#define RB_LSR_DATA_RDY 0x01 // RO, UART receiver fifo data ready status
#define RB_LSR_OVER_ERR 0x02 // RZ, UART receiver overrun error
#define RB_LSR_PAR_ERR 0x04 // RZ, UART receiver parity error
#define RB_LSR_FRAME_ERR 0x08 // RZ, UART receiver frame error
#define RB_LSR_BREAK_ERR 0x10 // RZ, UART receiver break error
#define RB_LSR_TX_FIFO_EMP 0x20 // RO, UART transmitter fifo empty status
#define RB_LSR_TX_ALL_EMP 0x40 // RO, UART transmitter all empty status
#define RB_LSR_ERR_RX_FIFO 0x80 // RO, indicate error in UART receiver fifo
#define UART_MSR 6
#define RB_MSR_CTS_CHG 0x01 // RZ, UART0 CTS changed status, high action
#define RB_MSR_DSR_CHG 0x02 // RZ, UART0 DSR changed status, high action
//#define RB_MSR_RI_CHG 0x04 // RZ, UART0 RI changed status, high action
//#define RB_MSR_DCD_CHG 0x08 // RZ, UART0 DCD changed status, high action
#define RB_MSR_CTS 0x10 // RO, UART0 CTS action status
#define RB_MSR_DSR 0x20 // RO, UART0 DSR action status
//#define RB_MSR_RI 0x40 // RO, UART0 RI action status
//#define RB_MSR_DCD 0x80 // RO, UART0 DCD action status
#define UART_RBR 8
#define UART_THR 8
#define UART_RFC 0x0A
#define UART_TFC 0x0B
#define UART_DLL 0x0C
// #define UART_DLM 0x0D
#define UART_DIV 0x0E
#define UART_ADR 0x0F
/* UART interrupt identification values for IIR bits 3:0 */
#define UART_II_SLV_ADDR 0x0E // RO, UART0 slave address match
#define UART_II_LINE_STAT 0x06 // RO, UART interrupt by receiver line status
#define UART_II_RECV_RDY 0x04 // RO, UART interrupt by receiver data available
#define UART_II_RECV_TOUT 0x0C // RO, UART interrupt by receiver fifo timeout
#define UART_II_THR_EMPTY 0x02 // RO, UART interrupt by THR empty
#define UART_II_MODEM_CHG 0x00 // RO, UART0 interrupt by modem status change
#define UART_II_NO_INTER 0x01 // RO, no UART interrupt is pending
/* SPI0 register */
#define R32_SPI0_CONTROL (*((PUINT32V)0x40004000)) // RW, SPI0 control
#define R8_SPI0_CTRL_MOD (*((PUINT8V)0x40004000)) // RW, SPI0 mode control
#define R8_SPI0_CTRL_CFG (*((PUINT8V)0x40004001)) // RW, SPI0 configuration control
#define R8_SPI0_INTER_EN (*((PUINT8V)0x40004002)) // RW, SPI0 interrupt enable
#define R8_SPI0_CLOCK_DIV (*((PUINT8V)0x40004003)) // RW, SPI0 master clock divisor
#define R8_SPI0_SLAVE_PRE (*((PUINT8V)0x40004003)) // RW, SPI0 slave preset value
#define R32_SPI0_STATUS (*((PUINT32V)0x40004004)) // RW, SPI0 status
#define R8_SPI0_BUFFER (*((PUINT8V)0x40004004)) // RO, SPI0 data buffer
#define R8_SPI0_RUN_FLAG (*((PUINT8V)0x40004005)) // RO, SPI0 work flag
#define R8_SPI0_INT_FLAG (*((PUINT8V)0x40004006)) // RW1, SPI0 interrupt flag
#define R8_SPI0_FIFO_COUNT (*((PUINT8V)0x40004007)) // RO, SPI0 FIFO count status
#define R32_SPI0_TOTAL_CNT (*((PUINT32V)0x4000400C)) // RW, SPI0 total byte count, only low 12 bit
#define R16_SPI0_TOTAL_CNT (*((PUINT16V)0x4000400C)) // RW, SPI0 total byte count, only low 12 bit
#define R32_SPI0_FIFO (*((PUINT32V)0x40004010)) // RW, SPI0 FIFO register
#define R8_SPI0_FIFO (*((PUINT8V)0x40004010)) // RO/WO, SPI0 FIFO register
#define R8_SPI0_FIFO_COUNT1 (*((PUINT8V)0x40004013)) // RO, SPI0 FIFO count status
#define R32_SPI0_DMA_NOW (*((PUINT32V)0x40004014)) // RW, SPI0 DMA current address
#define R16_SPI0_DMA_NOW (*((PUINT16V)0x40004014)) // RW, SPI0 DMA current address
#define R32_SPI0_DMA_BEG (*((PUINT32V)0x40004018)) // RW, SPI0 DMA begin address
#define R16_SPI0_DMA_BEG (*((PUINT16V)0x40004018)) // RW, SPI0 DMA begin address
#define R32_SPI0_DMA_END (*((PUINT32V)0x4000401C)) // RW, SPI0 DMA end address
#define R16_SPI0_DMA_END (*((PUINT16V)0x4000401C)) // RW, SPI0 DMA end address
/* SPI register address offset and bit define */
#define SPI_FIFO_SIZE 8 // SPI FIFO size (depth)
#define BA_SPI0 ((PUINT8V)0x40004000) // point SPI0 base address
#define SPI_CTRL_MOD 0
#define RB_SPI_MODE_SLAVE 0x01 // RW, SPI0 slave mode: 0=master/host, 1=slave/device
#define RB_SPI_ALL_CLEAR 0x02 // RW, force clear SPI FIFO and count
#define RB_SPI_2WIRE_MOD 0x04 // RW, SPI0 enable 2 wire mode for slave: 0=3wire(SCK0,MOSI,MISO), 1=2wire(SCK0,MISO=MXSX)
#define RB_SPI_MST_SCK_MOD 0x08 // RW, SPI master clock mode: 0=mode 0, 1=mode 3
#define RB_SPI_SLV_CMD_MOD 0x08 // RW, SPI0 slave command mode: 0=byte stream, 1=first byte command
#define RB_SPI_FIFO_DIR 0x10 // RW, SPI FIFO direction: 0=out(write @master mode), 1=in(read @master mode)
#define RB_SPI_SCK_OE 0x20 // RW, SPI SCK output enable
#define RB_SPI_MOSI_OE 0x40 // RW, SPI MOSI output enable
#define RB_SPI_MISO_OE 0x80 // RW, SPI MISO output enable
#define SPI_CTRL_CFG 1
#define RB_SPI_DMA_ENABLE 0x01 // RW, SPI0 DMA enable
#define RB_SPI_DMA_LOOP 0x04 // RW, SPI0 DMA address loop enable
#define RB_SPI_AUTO_IF 0x10 // RW, enable buffer/FIFO accessing to auto clear RB_SPI_IF_BYTE_END interrupt flag
#define RB_SPI_BIT_ORDER 0x20 // RW, SPI bit data order: 0=MSB first, 1=LSB first
#define RB_SPI_MST_DLY_EN 0x40 // RW, SPI master input delay enable
#define SPI_INTER_EN 2
#define RB_SPI_IE_CNT_END 0x01 // RW, enable interrupt for SPI total byte count end
#define RB_SPI_IE_BYTE_END 0x02 // RW, enable interrupt for SPI byte exchanged
#define RB_SPI_IE_FIFO_HF 0x04 // RW, enable interrupt for SPI FIFO half
#define RB_SPI_IE_DMA_END 0x08 // RW, enable interrupt for SPI0 DMA completion
#define RB_SPI_IE_FIFO_OV 0x10 // RW, enable interrupt for SPI0 FIFO overflow
#define RB_SPI_IE_FST_BYTE 0x80 // RW, enable interrupt for SPI0 slave mode first byte received
#define SPI_CLOCK_DIV 3
#define SPI_SLAVE_PRESET 3
#define SPI_BUFFER 4
#define SPI_RUN_FLAG 5
#define RB_SPI_SLV_CMD_ACT 0x10 // RO, SPI0 slave first byte / command flag
#define RB_SPI_FIFO_READY 0x20 // RO, SPI FIFO ready status
#define RB_SPI_SLV_CS_LOAD 0x40 // RO, SPI0 slave chip-select loading status
#define RB_SPI_SLV_SELECT 0x80 // RO, SPI0 slave selection status
#define SPI_INT_FLAG 6
#define RB_SPI_IF_CNT_END 0x01 // RW1, interrupt flag for SPI total byte count end
#define RB_SPI_IF_BYTE_END 0x02 // RW1, interrupt flag for SPI byte exchanged
#define RB_SPI_IF_FIFO_HF 0x04 // RW1, interrupt flag for SPI FIFO half (RB_SPI_FIFO_DIR ? >=4bytes : <4bytes)
#define RB_SPI_IF_DMA_END 0x08 // RW1, interrupt flag for SPI0 DMA completion
#define RB_SPI_IF_FIFO_OV 0x10 // RW1, interrupt flag for SPI0 FIFO overflow
#define RB_SPI_FREE 0x40 // RO, current SPI free status
#define RB_SPI_IF_FST_BYTE 0x80 // RW1, interrupt flag for SPI0 slave mode first byte received
#define SPI_FIFO_COUNT 7
#define SPI_TOTAL_CNT 0x0C
#define SPI_FIFO 0x10
#define SPI_DMA_NOW 0x14
#define SPI_DMA_BEG 0x18
#define SPI_DMA_END 0x1C
/* I2C register */
#define R16_I2C_CTRL1 (*((PUINT16V)0x40004800)) // RW, I2C control 1
#define R16_I2C_CTRL2 (*((PUINT16V)0x40004804)) // RW, I2C control 2
#define R16_I2C_OADDR1 (*((PUINT16V)0x40004808)) // RW, I2C own address register 1
#define R16_I2C_OADDR2 (*((PUINT16V)0x4000480C)) // RW, I2C own address register 2
#define R16_I2C_DATAR (*((PUINT16V)0x40004810)) // RW, I2C data register
#define R16_I2C_STAR1 (*((PUINT16V)0x40004814)) // R0, I2C stauts register 1
#define R16_I2C_STAR2 (*((PUINT16V)0x40004818)) // R0, I2C status register 2
// #define R8_I2C_PEC (*((PUINT8V) 0x40004819)) // R0, I2C Packet error checking register
#define R16_I2C_CKCFGR (*((PUINT16V)0x4000481C)) // RW, I2C clock control register
#define R16_I2C_RTR (*((PUINT16V)0x40004820)) // RW, I2C trise register
/* I2C register address offset and bit define */
#define BA_I2C ((PUINT8V)0x40004800) // point I2C base address
#define I2C_CTRL1 0
#define RB_I2C_PE 0x0001 // RW, Peripheral enable
#define RB_I2C_SMBUS 0x0002 // RW, SMBUS mode: 0=I2C mode, 1=SMBUS mode
#define RB_I2C_SMBTYPE 0x0008 // RW, SMBus type: 0=Device, 1=Host
#define RB_I2C_EBARP 0x0010 // RW, ARP enable
#define RB_I2C_ENPEC 0x0020 // RW, PEC ebable
#define RB_I2C_ENGC 0x0040 // RW, General call enable
#define RB_I2C_NOSTRETCH 0x0080 // RW, Clock stretching disable (Slave mode)
#define RB_I2C_START 0x0100 // RW, Start generation: master mode: 0=no start, 1=repeated start; slave mode: 0=no start, 1=start at bus free
#define RB_I2C_STOP 0x0200 // RW, Stop generation: master mode: 0=no stop, 1=stop after the current byte transfer or after the current Start condition is sent; slave mode: 0=no stop, 1=Release the SCL and SDA lines after the current byte transfer
#define RB_I2C_ACK 0x0400 // RW, Acknowledge enable
#define RB_I2C_POS 0x0800 // RW, Acknowledge/PEC Position (for data reception)
#define RB_I2C_PEC 0x1000 // RW, Packet error checking: 0=No PEC transfer, 1=PEC transfer (in Tx or Rx mode)
#define RB_I2C_ALERT 0x2000 // RW, SMBus alert: 0=Releases SMBA pin high, 1=Drives SMBA pin low.
#define RB_I2C_SWRST 0x8000 // RW, Software reset
#define I2C_CTRL2 4
#define RB_I2C_FREQ 0x003F // RW, Peripheral clock frequency, The minimum allowed frequency is 2 MHz,the maximum frequency is 36 MHz
#define RB_I2C_ITERREN 0x0100 // RW, Error interrupt enable
#define RB_I2C_ITEVTEN 0x0200 // RW, Event interrupt enable
#define RB_I2C_ITBUFEN 0x0400 // RW, Buffer interrupt enable
#define I2C_OADDR1 8
#define RB_I2C_ADD0 0x0001 // RW, bit0 of address in 10-bit addressing mode
#define RB_I2C_ADD7_1 0x00FE // RW, bit[7:1] of address
#define RB_I2C_ADD9_8 0x0300 // RW, bit[9:8] of address in 10-bit addressing mode
#define RB_I2C_ADDMODE 0x8000 // RW, Addressing mode (slave mode): 0=7-bit slave address, 1=10-bit slave address
#define I2C_OADDR2 12
#define RB_I2C_ENDUAL 0x0001 // RW, Dual addressing mode enable
#define RB_I2C_ADD2 0x00FE // RW, bit[7:1] of address2
#define I2C_DATAR 16
#define I2C_STAR1 20
#define RB_I2C_SB 0x0001 // RW0, Start bit flag (Master mode)
#define RB_I2C_ADDR 0x0002 // RW0, Address sent (master mode)/matched (slave mode) flag
#define RB_I2C_BTF 0x0004 // RO, Byte transfer finished flag
#define RB_I2C_ADD10 0x0008 // RO, 10-bit header sent flag (Master mode)
#define RB_I2C_STOPF 0x0010 // RO, Stop detection flag (slave mode)
#define RB_I2C_RxNE 0x0040 // RO, Data register not empty flag (receivers)
#define RB_I2C_TxE 0x0080 // RO, Data register empty flag (transmitters)
#define RB_I2C_BERR 0x0100 // RW0, Bus error flag
#define RB_I2C_ARLO 0x0200 // RW0, Arbitration lost flag (master mode)
#define RB_I2C_AF 0x0400 // RW0, Acknowledge failure flag
#define RB_I2C_OVR 0x0800 // RW0, Overrun/Underrun flag
#define RB_I2C_PECERR 0x1000 // RW0, PEC Error flag in reception
#define RB_I2C_TIMEOUT 0x4000 // RW0, Timeout or Tlow error flag
#define RB_I2C_SMBALERT 0x8000 // RW0, SMBus alert flag
#define I2C_STAR2 24
#define RB_I2C_MSL 0x0001 // RO, Mode statu: 0=Slave mode, 1=Master mode
#define RB_I2C_BUSY 0x0002 // RO, Bus busy flag
#define RB_I2C_TRA 0x0004 // RO, Trans flag: 0=data bytes received, 1=data bytes transmitted
#define RB_I2C_GENCALL 0x0010 // RO, General call address (Slave mode) received flag
#define RB_I2C_SMBDEFAULT 0x0020 // RO, SMBus device default address (Slave mode) received flag
#define RB_I2C_SMBHOST 0x0040 // RO, SMBus host header (Slave mode) received flag
#define RB_I2C_DUALF 0x0080 // RO, Dual flag (Slave mode): 0=Received address matched with OAR1, 1=Received address matched with OAR2
#define RB_I2C_PECX 0xFF00 // RO, Packet error checking register
#define I2C_CKCFGR 28
#define RB_I2C_CCR 0x0FFF // RW, Controls the SCL clock in Fm/Sm mode (Master mode)
#define RB_I2C_DUTY 0x4000 // RW, Fm mode duty cycle: 0=L/H=2, 1=L/H=16/9
#define RB_I2C_F_S 0x8000 // RW, I2C master mode selection: 0=standard mode, 1=fast mode
#define I2C_RTR 32
#define RB_I2C_TRISE 0x003F // RW, Maximum rise time in Fm/Sm mode (Master mode)
/* PWM4/5/6/7/8/9/10/11 register */
#define R32_PWM_CONTROL (*((PUINT32V)0x40005000)) // RW, PWM control
#define R8_PWM_OUT_EN (*((PUINT8V)0x40005000)) // RW, PWM output enable control
#define R8_PWM_POLAR (*((PUINT8V)0x40005001)) // RW, PWM output polarity control
#define R8_PWM_CONFIG (*((PUINT8V)0x40005002)) // RW, PWM configuration
#define R8_PWM_CLOCK_DIV (*((PUINT8V)0x40005003)) // RW, PWM clock divisor
#define R32_PWM4_7_DATA (*((PUINT32V)0x40005004)) // RW, PWM4-7 data holding
#define R8_PWM4_DATA (*((PUINT8V)0x40005004)) // RW, PWM4 data holding
#define R8_PWM5_DATA (*((PUINT8V)0x40005005)) // RW, PWM5 data holding
#define R8_PWM6_DATA (*((PUINT8V)0x40005006)) // RW, PWM6 data holding
#define R8_PWM7_DATA (*((PUINT8V)0x40005007)) // RW, PWM7 data holding
#define R32_PWM8_11_DATA (*((PUINT32V)0x40005008)) // RW, PWM8-11 data holding
#define R8_PWM8_DATA (*((PUINT8V)0x40005008)) // RW, PWM8 data holding
#define R8_PWM9_DATA (*((PUINT8V)0x40005009)) // RW, PWM9 data holding
#define R8_PWM10_DATA (*((PUINT8V)0x4000500A)) // RW, PWM10 data holding
#define R8_PWM11_DATA (*((PUINT8V)0x4000500B)) // RW, PWM11 data holding
#define R8_PWM_INT_CTRL (*((PUINT32V)0x4000500C)) // RW, PWM interrupt control
#define RB_PWM_IE_CYC 0x01 // RW, enable interrupt for PWM cycle end
#define RB_PWM_CYC_PRE 0x02 // RW, select PWM cycle interrupt point: 0=after count 0xFE (0x7E for 7 bits mode...), 1=after count 0xF0 (0x70 for 7 bits mode...)
#define RB_PWM_IF_CYC 0x80 // RW1, interrupt flag for PWM cycle end
#define R32_PWM_REG_DATA8 (*((PUINT32V)0x40005010)) // RW, PWM8-9 data register
#define R32_PWM_REG_CYCLE (*((PUINT32V)0x40005014)) // RW, PWM cycle value
/* PWM4/5/6/7/8/9/10/11 register address offset and bit define */
#define BA_PWMX ((PUINT8V)0x40005000) // point PWM4/5/6/7/8/9/10/11 base address
#define PWM_OUT_EN 0
#define RB_PWM4_OUT_EN 0x01 // RW, PWM4 output enable
#define RB_PWM5_OUT_EN 0x02 // RW, PWM5 output enable
#define RB_PWM6_OUT_EN 0x04 // RW, PWM6 output enable
#define RB_PWM7_OUT_EN 0x08 // RW, PWM7 output enable
#define RB_PWM8_OUT_EN 0x10 // RW, PWM8 output enable
#define RB_PWM9_OUT_EN 0x20 // RW, PWM9 output enable
#define RB_PWM10_OUT_EN 0x40 // RW, PWM10 output enable
#define RB_PWM11_OUT_EN 0x80 // RW, PWM11 output enable
#define PWM_POLAR 1
#define RB_PWM4_POLAR 0x01 // RW, PWM4 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM5_POLAR 0x02 // RW, PWM5 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM6_POLAR 0x04 // RW, PWM6 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM7_POLAR 0x08 // RW, PWM7 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM8_POLAR 0x10 // RW, PWM8 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM9_POLAR 0x20 // RW, PWM9 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM10_POLAR 0x40 // RW, PWM10 output polarity: 0=default low and high action, 1=default high and low action
#define RB_PWM11_POLAR 0x80 // RW, PWM11 output polarity: 0=default low and high action, 1=default high and low action
#define PWM_CONFIG 2
#define RB_PWM_CYCLE_SEL 0x01 // RW, PWM cycle selection: 0=256/128/64/32 clocks, 1=255/127/63/31 clocks
#define RB_PWM_STAG_ST 0x02 // RO, PWM stagger cycle status
#define RB_PWM_CYC_MOD 0x0C // RW, PWM data width mode: 00=8 bits data, 01=7 bits data, 10=6 bits data, 11=16 bits data
#define RB_PWM4_5_STAG_EN 0x10 // RW, PWM4/5 stagger output enable: 0=independent output, 1=stagger output
#define RB_PWM6_7_STAG_EN 0x20 // RW, PWM6/7 stagger output enable: 0=independent output, 1=stagger output
#define RB_PWM8_9_STAG_EN 0x40 // RW, PWM8/9 stagger output enable: 0=independent output, 1=stagger output
#define RB_PWM10_11_STAG_EN 0x80 // RW, PWM10/11 stagger output enable: 0=independent output, 1=stagger output
#define PWM_CLOCK_DIV 3
#define PWM4_DATA_HOLD 4
#define PWM5_DATA_HOLD 5
#define PWM6_DATA_HOLD 6
#define PWM7_DATA_HOLD 7
#define PWM8_DATA_HOLD 8
#define PWM9_DATA_HOLD 9
#define PWM10_DATA_HOLD 10
#define PWM11_DATA_HOLD 11
/* LCD register */
#define R32_LCD_CMD (*((PUINT32V)(0x40006000)))
#define RB_LCD_SYS_EN 0x01 // RW, LCD digital system enable
#define RB_LCD_ON 0x02 // RW, LCD analog system enable
#define RB_LCD_BIAS 0x04 // RW, LCD bias select: 0=1/2 bias, 1=1/3 bias
#define RB_LCD_DUTY 0x18 // RW, LCD duty select: 00=1/2 duty, 01=1/3 duty, 10=1/4 duty
#define RB_LCD_SCAN_CLK 0x60 // RW, LCD scan clock select: 00=256Hz, 01=512Hz, 10=1KHz, 11=128Hz
#define RB_LCD_VLCD_SEL 0x80 // RW, LCD drive voltage：0=VIO33*100%(3.3V),1=VIO33*76%(2.5V)
#define RB_LCD_SEG0_7_EN 0xFF00 // RW, SEG0-SEG7 enable
#define RB_LCD_SEG8_15_EN 0xFF0000 // RW, SEG8-SEG15 enable
#define RB_LCD_SEG16_19_EN 0xF000000 // RW, SEG16-SEG19 enable
#define R32_LCD_RAM0 (*((PUINT32V)(0x40006004))) // RW, LCD driver data0, address 0-3
#define R32_LCD_RAM1 (*((PUINT32V)(0x40006008))) // RW, LCD driver data1, address 4-7
#define R32_LCD_RAM2 (*((PUINT32V)(0x4000600C))) // RW, LCD driver data2, address 8-12
/* Address space define */
#define BA_CODE ((PUINT32)0x00000000) // point code base address
#define SZ_CODE 0x00080000 // code size
#define BA_SFR ((PUINT32)0x40000000) // point SFR base address
#define SZ_SFR 0x00010000 // SFR size
#define BA_RAM ((PUINT32)0x20000000) // point RAM base address
#define SZ_RAM 0x00006800 // RAM size
/* Special Program Space */
#define DATA_FLASH_ADDR 0x70000 // start address of Data-Flash
#define DATA_FLASH_SIZE 0x8000 // size of Data-Flash
#define BOOT_LOAD_ADDR 0x78000 // start address of boot loader program
#define BOOT_LOAD_SIZE 0x6000 // size of boot loader program
#define BOOT_LOAD_CFG 0x7E000 // start address of configuration information for boot loader program
#define ROM_CFG_ADDR 0x7F000 // chip configuration information address
/*----- Reference Information --------------------------------------------*/
#define ID_CH592 0x92 // chip ID
#define ID_CH591 0x91 // chip ID
/* Interrupt routine address and interrupt number */
#define INT_ID_TMR0 16 // interrupt number for Timer0
#define INT_ID_GPIO_A 17 // interrupt number for GPIO port A
#define INT_ID_GPIO_B 18 // interrupt number for GPIO port B
#define INT_ID_SPI0 19 // interrupt number for SPI0
#define INT_ID_BLEB 20 // interrupt number for BLEBB
#define INT_ID_BLEL 21 // interrupt number for BLELLE
#define INT_ID_USB 22 // interrupt number for USB
#define INT_ID_TMR1 24 // interrupt number for Timer1
#define INT_ID_TMR2 25 // interrupt number for Timer2
#define INT_ID_UART0 26 // interrupt number for UART0
#define INT_ID_UART1 27 // interrupt number for UART1
#define INT_ID_RTC 28 // interrupt number for RTC
#define INT_ID_ADC 29 // interrupt number for ADC and TouchKey
#define INT_ID_I2C 30 // interrupt number for I2C
#define INT_ID_PWMX 31 // interrupt number for PWM4~11
#define INT_ID_TMR3 32 // interrupt number for Timer3
#define INT_ID_UART2 33 // interrupt number for UART2
#define INT_ID_UART3 34 // interrupt number for UART3
#define INT_ID_WDOG_BAT 35 // interrupt number for Watch-Dog timer and Battery low voltage
#define INT_VEC_ENTRY_SZ 4 // size of each interrupt vector entry
#define INT_ADDR_TMR0 (INT_ID_TMR0*INT_VEC_ENTRY_SZ) // interrupt vector address for Timer0
#define INT_ADDR_GPIO_A (INT_ID_GPIO_A*INT_VEC_ENTRY_SZ) // interrupt vector address for GPIO port A
#define INT_ADDR_GPIO_B (INT_ID_GPIO_B*INT_VEC_ENTRY_SZ) // interrupt vector address for GPIO port B
#define INT_ADDR_SPI0 (INT_ID_SPI0*INT_VEC_ENTRY_SZ) // interrupt vector address for SPI0
#define INT_ADDR_BLEB (INT_ID_BLEB*INT_VEC_ENTRY_SZ) // interrupt vector address for BLEBB
#define INT_ADDR_BLEL (INT_ID_BLEL*INT_VEC_ENTRY_SZ) // interrupt vector address for BLELLE
#define INT_ADDR_USB (INT_ID_USB*INT_VEC_ENTRY_SZ) // interrupt vector address for USB
#define INT_ADDR_TMR1 (INT_ID_TMR1*INT_VEC_ENTRY_SZ) // interrupt vector address for Timer1
#define INT_ADDR_TMR2 (INT_ID_TMR2*INT_VEC_ENTRY_SZ) // interrupt vector address for Timer2
#define INT_ADDR_UART0 (INT_ID_UART0*INT_VEC_ENTRY_SZ) // interrupt vector address for UART0
#define INT_ADDR_UART1 (INT_ID_UART1*INT_VEC_ENTRY_SZ) // interrupt vector address for UART1
#define INT_ADDR_RTC (INT_ID_RTC*INT_VEC_ENTRY_SZ) // interrupt vector address for RTC
#define INT_ADDR_ADC (INT_ID_ADC*INT_VEC_ENTRY_SZ) // interrupt vector address for ADC and TouchKey
#define INT_ADDR_I2C (INT_ID_I2C*INT_VEC_ENTRY_SZ) // interrupt vector address for I2C
#define INT_ADDR_PWMX (INT_ID_PWMX*INT_VEC_ENTRY_SZ) // interrupt vector address for PWM4~11
#define INT_ADDR_TMR3 (INT_ID_TMR3*INT_VEC_ENTRY_SZ) // interrupt vector address for Timer3
#define INT_ADDR_UART2 (INT_ID_UART2*INT_VEC_ENTRY_SZ) // interrupt vector address for UART2
#define INT_ADDR_UART3 (INT_ID_UART3*INT_VEC_ENTRY_SZ) // interrupt vector address for UART3
#define INT_ADDR_WDOG_BAT (INT_ID_WDOG_BAT*INT_VEC_ENTRY_SZ) // interrupt vector address for Watch-Dog timer and Battery low voltage
#ifndef TABLE_IRQN
#define __PFIC_PRIO_BITS 2 /*!< uses 8 Bits for the Priority Levels */
#define __Vendor_SysTickConfig 0 /*!< Set to 1 if different SysTick Config is used */
typedef enum IRQn
{
Reset_IRQn = 1,
NMI_IRQn = 2, /*!< Non Maskable Interrupt */
EXC_IRQn = 3, /*!< Exceptions Interrupt */
SysTick_IRQn = 12, /*!< System timer Interrupt */
SWI_IRQn = 14, /*!< software Interrupt */
TMR0_IRQn = 16,
GPIO_A_IRQn = 17,
GPIO_B_IRQn = 18,
SPI0_IRQn = 19,
BLEB_IRQn = 20,
BLEL_IRQn = 21,
USB_IRQn = 22,
TMR1_IRQn = 24,
TMR2_IRQn = 25,
UART0_IRQn = 26,
UART1_IRQn = 27,
RTC_IRQn = 28,
ADC_IRQn = 29,
I2C_IRQn = 30,
PWMX_IRQn = 31,
TMR3_IRQn = 32,
UART2_IRQn = 33,
UART3_IRQn = 34,
WDOG_BAT_IRQn = 35
} IRQn_Type;
#endif
#ifdef __cplusplus
}
#endif
#endif // __CH592SFR_H__
#ifndef __CH592USBSFR_H__
#define __CH592USBSFR_H__
#ifdef __cplusplus
extern "C" {
#endif
/******************************************************************************/
/* Peripheral memory map */
/******************************************************************************/
/* usb addresses
// USB: +8000H - 83FFH */
#define USB_BASE_ADDR (0x40008000)
#define BA_USB ((PUINT8V)0x40008000) // point USB base address
/* USB */
#define R32_USB_CONTROL (*((PUINT32V)0x40008000)) // USB control & interrupt enable & device address
#define R8_USB_CTRL (*((PUINT8V)0x40008000)) // USB base control
#define RB_UC_HOST_MODE 0x80 // enable USB host mode: 0=device mode, 1=host mode
#define RB_UC_LOW_SPEED 0x40 // enable USB low speed: 0=12Mbps, 1=1.5Mbps
#define RB_UC_DEV_PU_EN 0x20 // USB device enable and internal pullup resistance enable
#define RB_UC_SYS_CTRL1 0x20 // USB system control high bit
#define RB_UC_SYS_CTRL0 0x10 // USB system control low bit
#define MASK_UC_SYS_CTRL 0x30 // bit mask of USB system control
// bUC_HOST_MODE & bUC_SYS_CTRL1 & bUC_SYS_CTRL0: USB system control
// 0 00: disable USB device and disable internal pullup resistance
// 0 01: enable USB device and disable internal pullup resistance, need RB_PIN_USB_DP_PU=1 or need external pullup resistance
// 0 1x: enable USB device and enable internal pullup resistance
// 1 00: enable USB host and normal status
// 1 01: enable USB host and force UDP/UDM output SE0 state
// 1 10: enable USB host and force UDP/UDM output J state
// 1 11: enable USB host and force UDP/UDM output resume or K state
#define RB_UC_INT_BUSY 0x08 // enable automatic responding busy for device mode or automatic pause for host mode during interrupt flag UIF_TRANSFER valid
#define RB_UC_RESET_SIE 0x04 // force reset USB SIE, need software clear
#define RB_UC_CLR_ALL 0x02 // force clear FIFO and count of USB
#define RB_UC_DMA_EN 0x01 // DMA enable and DMA interrupt enable for USB
#define R8_UDEV_CTRL (*((PUINT8V)0x40008001)) // USB device physical prot control
#define RB_UD_PD_DIS 0x80 // disable USB UDP/UDM pulldown resistance: 0=enable pulldown, 1=disable
#define RB_UD_DP_PIN 0x20 // ReadOnly: indicate current UDP pin level
#define RB_UD_DM_PIN 0x10 // ReadOnly: indicate current UDM pin level
#define RB_UD_LOW_SPEED 0x04 // enable USB physical port low speed: 0=full speed, 1=low speed
#define RB_UD_GP_BIT 0x02 // general purpose bit
#define RB_UD_PORT_EN 0x01 // enable USB physical port I/O: 0=disable, 1=enable
#define R8_UHOST_CTRL R8_UDEV_CTRL // USB host physical prot control
#define RB_UH_PD_DIS 0x80 // disable USB UDP/UDM pulldown resistance: 0=enable pulldown, 1=disable
#define RB_UH_DP_PIN 0x20 // ReadOnly: indicate current UDP pin level
#define RB_UH_DM_PIN 0x10 // ReadOnly: indicate current UDM pin level
#define RB_UH_LOW_SPEED 0x04 // enable USB port low speed: 0=full speed, 1=low speed
#define RB_UH_BUS_RESET 0x02 // control USB bus reset: 0=normal, 1=force bus reset
#define RB_UH_PORT_EN 0x01 // enable USB port: 0=disable, 1=enable port, automatic disabled if USB device detached
#define R8_USB_INT_EN (*((PUINT8V)0x40008002)) // USB interrupt enable
#define RB_UIE_DEV_SOF 0x80 // enable interrupt for SOF received for USB device mode
#define RB_UIE_DEV_NAK 0x40 // enable interrupt for NAK responded for USB device mode
#define RB_MOD_1_WIRE 0x20 // enable single wire mode
#define RB_UIE_FIFO_OV 0x10 // enable interrupt for FIFO overflow
#define RB_UIE_HST_SOF 0x08 // enable interrupt for host SOF timer action for USB host mode
#define RB_UIE_SUSPEND 0x04 // enable interrupt for USB suspend or resume event
#define RB_UIE_TRANSFER 0x02 // enable interrupt for USB transfer completion
#define RB_UIE_DETECT 0x01 // enable interrupt for USB device detected event for USB host mode
#define RB_UIE_BUS_RST 0x01 // enable interrupt for USB bus reset event for USB device mode
#define R8_USB_DEV_AD (*((PUINT8V)0x40008003)) // USB device address
#define RB_UDA_GP_BIT 0x80 // general purpose bit
#define MASK_USB_ADDR 0x7F // bit mask for USB device address
#define R32_USB_STATUS (*((PUINT32V)0x40008004)) // USB miscellaneous status & interrupt flag & interrupt status
#define R8_USB_MIS_ST (*((PUINT8V)0x40008005)) // USB miscellaneous status
#define RB_UMS_SOF_PRES 0x80 // RO, indicate host SOF timer presage status
#define RB_UMS_SOF_ACT 0x40 // RO, indicate host SOF timer action status for USB host
#define RB_UMS_SIE_FREE 0x20 // RO, indicate USB SIE free status
#define RB_UMS_R_FIFO_RDY 0x10 // RO, indicate USB receiving FIFO ready status (not empty)
#define RB_UMS_BUS_RESET 0x08 // RO, indicate USB bus reset status
#define RB_UMS_SUSPEND 0x04 // RO, indicate USB suspend status
#define RB_UMS_DM_LEVEL 0x02 // RO, indicate UDM level saved at device attached to USB host
#define RB_UMS_DEV_ATTACH 0x01 // RO, indicate device attached status on USB host
#define R8_USB_INT_FG (*((PUINT8V)0x40008006)) // USB interrupt flag
#define RB_U_IS_NAK 0x80 // RO, indicate current USB transfer is NAK received
#define RB_U_TOG_OK 0x40 // RO, indicate current USB transfer toggle is OK
#define RB_U_SIE_FREE 0x20 // RO, indicate USB SIE free status
#define RB_UIF_FIFO_OV 0x10 // FIFO overflow interrupt flag for USB, direct bit address clear or write 1 to clear
#define RB_UIF_HST_SOF 0x08 // host SOF timer interrupt flag for USB host, direct bit address clear or write 1 to clear
#define RB_UIF_SUSPEND 0x04 // USB suspend or resume event interrupt flag, direct bit address clear or write 1 to clear
#define RB_UIF_TRANSFER 0x02 // USB transfer completion interrupt flag, direct bit address clear or write 1 to clear
#define RB_UIF_DETECT 0x01 // device detected event interrupt flag for USB host mode, direct bit address clear or write 1 to clear
#define RB_UIF_BUS_RST 0x01 // bus reset event interrupt flag for USB device mode, direct bit address clear or write 1 to clear
#define R8_USB_INT_ST (*((PUINT8V)0x40008007)) // USB interrupt status
#define RB_UIS_SETUP_ACT 0x80 // RO, indicate SETUP token & 8 bytes setup request received for USB device mode
#define RB_UIS_TOG_OK 0x40 // RO, indicate current USB transfer toggle is OK
#define RB_UIS_TOKEN1 0x20 // RO, current token PID code bit 1 received for USB device mode
#define RB_UIS_TOKEN0 0x10 // RO, current token PID code bit 0 received for USB device mode
#define MASK_UIS_TOKEN 0x30 // RO, bit mask of current token PID code received for USB device mode
#define UIS_TOKEN_OUT 0x00
#define UIS_TOKEN_SOF 0x10
#define UIS_TOKEN_IN 0x20
#define UIS_TOKEN_SETUP 0x30
// bUIS_TOKEN1 & bUIS_TOKEN0: current token PID code received for USB device mode, keep last status during SETUP token, clear RB_UIF_TRANSFER ( RB_UIF_TRANSFER from 1 to 0 ) to set free
// 00: OUT token PID received
// 01: SOF token PID received
// 10: IN token PID received
// 11: free
#define MASK_UIS_ENDP 0x0F // RO, bit mask of current transfer endpoint number for USB device mode
#define MASK_UIS_H_RES 0x0F // RO, bit mask of current transfer handshake response for USB host mode: 0000=no response, time out from device, others=handshake response PID received
#define R8_USB_RX_LEN (*((PUINT8V)0x40008008)) // USB receiving length
#define R32_USB_BUF_MODE (*((PUINT32V)0x4000800C)) // USB endpoint buffer mode
#define R8_UEP4_1_MOD (*((PUINT8V)0x4000800C)) // endpoint 4/1 mode
#define RB_UEP1_RX_EN 0x80 // enable USB endpoint 1 receiving (OUT)
#define RB_UEP1_TX_EN 0x40 // enable USB endpoint 1 transmittal (IN)
#define RB_UEP1_BUF_MOD 0x10 // buffer mode of USB endpoint 1
// bUEPn_RX_EN & bUEPn_TX_EN & bUEPn_BUF_MOD: USB endpoint 1/2/3 buffer mode, buffer start address is UEPn_DMA
// 0 0 x: disable endpoint and disable buffer
// 1 0 0: 64 bytes buffer for receiving (OUT endpoint)
// 1 0 1: dual 64 bytes buffer by toggle bit bUEP_R_TOG selection for receiving (OUT endpoint), total=128bytes
// 0 1 0: 64 bytes buffer for transmittal (IN endpoint)
// 0 1 1: dual 64 bytes buffer by toggle bit bUEP_T_TOG selection for transmittal (IN endpoint), total=128bytes
// 1 1 0: 64 bytes buffer for receiving (OUT endpoint) + 64 bytes buffer for transmittal (IN endpoint), total=128bytes
// 1 1 1: dual 64 bytes buffer by bUEP_R_TOG selection for receiving (OUT endpoint) + dual 64 bytes buffer by bUEP_T_TOG selection for transmittal (IN endpoint), total=256bytes
#define RB_UEP4_RX_EN 0x08 // enable USB endpoint 4 receiving (OUT)
#define RB_UEP4_TX_EN 0x04 // enable USB endpoint 4 transmittal (IN)
// bUEP4_RX_EN & bUEP4_TX_EN: USB endpoint 4 buffer mode, buffer start address is UEP0_DMA
// 0 0: single 64 bytes buffer for endpoint 0 receiving & transmittal (OUT & IN endpoint)
// 1 0: single 64 bytes buffer for endpoint 0 receiving & transmittal (OUT & IN endpoint) + 64 bytes buffer for endpoint 4 receiving (OUT endpoint), total=128bytes
// 0 1: single 64 bytes buffer for endpoint 0 receiving & transmittal (OUT & IN endpoint) + 64 bytes buffer for endpoint 4 transmittal (IN endpoint), total=128bytes
// 1 1: single 64 bytes buffer for endpoint 0 receiving & transmittal (OUT & IN endpoint)
// + 64 bytes buffer for endpoint 4 receiving (OUT endpoint) + 64 bytes buffer for endpoint 4 transmittal (IN endpoint), total=192bytes
#define R8_UEP2_3_MOD (*((PUINT8V)0x4000800D)) // endpoint 2/3 mode
#define RB_UEP3_RX_EN 0x80 // enable USB endpoint 3 receiving (OUT)
#define RB_UEP3_TX_EN 0x40 // enable USB endpoint 3 transmittal (IN)
#define RB_UEP3_BUF_MOD 0x10 // buffer mode of USB endpoint 3
#define RB_UEP2_RX_EN 0x08 // enable USB endpoint 2 receiving (OUT)
#define RB_UEP2_TX_EN 0x04 // enable USB endpoint 2 transmittal (IN)
#define RB_UEP2_BUF_MOD 0x01 // buffer mode of USB endpoint 2
#define R8_UEP567_MOD (*((PUINT8V)0x4000800E)) // endpoint 5/6/7 mode
#define RB_UEP7_RX_EN 0x20 // enable USB endpoint 7 receiving (OUT)
#define RB_UEP7_TX_EN 0x10 // enable USB endpoint 7 transmittal (IN)
#define RB_UEP6_RX_EN 0x08 // enable USB endpoint 6 receiving (OUT)
#define RB_UEP6_TX_EN 0x04 // enable USB endpoint 6 transmittal (IN)
#define RB_UEP5_RX_EN 0x02 // enable USB endpoint 5 receiving (OUT)
#define RB_UEP5_TX_EN 0x01 // enable USB endpoint 5 transmittal (IN)
// bUEPn_RX_EN & bUEPn_TX_EN: USB endpoint 5/6/7 buffer mode, buffer start address is UEPn_DMA
// 0 0: disable endpoint and disable buffer
// 1 0: 64 bytes buffer for receiving (OUT endpoint)
// 0 1: 64 bytes buffer for transmittal (IN endpoint)
// 1 1: 64 bytes buffer for receiving (OUT endpoint) + 64 bytes buffer for transmittal (IN endpoint), total=128bytes
#define R8_UH_EP_MOD R8_UEP2_3_MOD //host endpoint mode
#define RB_UH_EP_TX_EN 0x40 // enable USB host OUT endpoint transmittal
#define RB_UH_EP_TBUF_MOD 0x10 // buffer mode of USB host OUT endpoint
// bUH_EP_TX_EN & bUH_EP_TBUF_MOD: USB host OUT endpoint buffer mode, buffer start address is UH_TX_DMA
// 0 x: disable endpoint and disable buffer
// 1 0: 64 bytes buffer for transmittal (OUT endpoint)
// 1 1: dual 64 bytes buffer by toggle bit bUH_T_TOG selection for transmittal (OUT endpoint), total=128bytes
#define RB_UH_EP_RX_EN 0x08 // enable USB host IN endpoint receiving
#define RB_UH_EP_RBUF_MOD 0x01 // buffer mode of USB host IN endpoint
// bUH_EP_RX_EN & bUH_EP_RBUF_MOD: USB host IN endpoint buffer mode, buffer start address is UH_RX_DMA
// 0 x: disable endpoint and disable buffer
// 1 0: 64 bytes buffer for receiving (IN endpoint)
// 1 1: dual 64 bytes buffer by toggle bit bUH_R_TOG selection for receiving (IN endpoint), total=128bytes
#define R16_UEP0_DMA (*((PUINT16V)0x40008010)) // endpoint 0 DMA buffer address
#define R16_UEP1_DMA (*((PUINT16V)0x40008014)) // endpoint 1 DMA buffer address
#define R16_UEP2_DMA (*((PUINT16V)0x40008018)) // endpoint 2 DMA buffer address
#define R16_UH_RX_DMA R16_UEP2_DMA // host rx endpoint buffer address
#define R16_UEP3_DMA (*((PUINT16V)0x4000801C)) // endpoint 3 DMA buffer address
#define R16_UH_TX_DMA R16_UEP3_DMA // host tx endpoint buffer address
#define R16_UEP5_DMA (*((PUINT16V)0x40008054)) // endpoint 5 DMA buffer address
#define R16_UEP6_DMA (*((PUINT16V)0x40008058)) // endpoint 6 DMA buffer address
#define R16_UEP7_DMA (*((PUINT16V)0x4000805C)) // endpoint 7 DMA buffer address
#define R32_USB_EP0_CTRL (*((PUINT32V)0x40008020)) // endpoint 0 control & transmittal length
#define R8_UEP0_T_LEN (*((PUINT8V)0x40008020)) // endpoint 0 transmittal length
#define R8_UEP0_CTRL (*((PUINT8V)0x40008022)) // endpoint 0 control
#define R32_USB_EP1_CTRL (*((PUINT32V)0x40008024)) // endpoint 1 control & transmittal length
#define R8_UEP1_T_LEN (*((PUINT8V)0x40008024)) // endpoint 1 transmittal length
#define R8_UEP1_CTRL (*((PUINT8V)0x40008026)) // endpoint 1 control
#define RB_UEP_R_TOG 0x80 // expected data toggle flag of USB endpoint X receiving (OUT): 0=DATA0, 1=DATA1
#define RB_UEP_T_TOG 0x40 // prepared data toggle flag of USB endpoint X transmittal (IN): 0=DATA0, 1=DATA1
#define RB_UEP_AUTO_TOG 0x10 // enable automatic toggle after successful transfer completion on endpoint 1/2/3: 0=manual toggle, 1=automatic toggle
#define RB_UEP_R_RES1 0x08 // handshake response type high bit for USB endpoint X receiving (OUT)
#define RB_UEP_R_RES0 0x04 // handshake response type low bit for USB endpoint X receiving (OUT)
#define MASK_UEP_R_RES 0x0C // bit mask of handshake response type for USB endpoint X receiving (OUT)
#define UEP_R_RES_ACK 0x00
#define UEP_R_RES_TOUT 0x04
#define UEP_R_RES_NAK 0x08
#define UEP_R_RES_STALL 0x0C
// RB_UEP_R_RES1 & RB_UEP_R_RES0: handshake response type for USB endpoint X receiving (OUT)
// 00: ACK (ready)
// 01: no response, time out to host, for non-zero endpoint isochronous transactions
// 10: NAK (busy)
// 11: STALL (error)
#define RB_UEP_T_RES1 0x02 // handshake response type high bit for USB endpoint X transmittal (IN)
#define RB_UEP_T_RES0 0x01 // handshake response type low bit for USB endpoint X transmittal (IN)
#define MASK_UEP_T_RES 0x03 // bit mask of handshake response type for USB endpoint X transmittal (IN)
#define UEP_T_RES_ACK 0x00
#define UEP_T_RES_TOUT 0x01
#define UEP_T_RES_NAK 0x02
#define UEP_T_RES_STALL 0x03
// bUEP_T_RES1 & bUEP_T_RES0: handshake response type for USB endpoint X transmittal (IN)
// 00: DATA0 or DATA1 then expecting ACK (ready)
// 01: DATA0 or DATA1 then expecting no response, time out from host, for non-zero endpoint isochronous transactions
// 10: NAK (busy)
// 11: STALL (error)
#define R8_UH_SETUP R8_UEP1_CTRL // host aux setup
#define RB_UH_PRE_PID_EN 0x80 // USB host PRE PID enable for low speed device via hub
#define RB_UH_SOF_EN 0x40 // USB host automatic SOF enable
#define R32_USB_EP2_CTRL (*((PUINT32V)0x40008028)) // endpoint 2 control & transmittal length
#define R8_UEP2_T_LEN (*((PUINT8V)0x40008028)) // endpoint 2 transmittal length
#define R8_UEP2_CTRL (*((PUINT8V)0x4000802A)) // endpoint 2 control
#define R8_UH_EP_PID R8_UEP2_T_LEN // host endpoint and PID
#define MASK_UH_TOKEN 0xF0 // bit mask of token PID for USB host transfer
#define MASK_UH_ENDP 0x0F // bit mask of endpoint number for USB host transfer
#define R8_UH_RX_CTRL R8_UEP2_CTRL // host receiver endpoint control
#define RB_UH_R_TOG 0x80 // expected data toggle flag of host receiving (IN): 0=DATA0, 1=DATA1
#define RB_UH_R_AUTO_TOG 0x10 // enable automatic toggle after successful transfer completion: 0=manual toggle, 1=automatic toggle
#define RB_UH_R_RES 0x04 // prepared handshake response type for host receiving (IN): 0=ACK (ready), 1=no response, time out to device, for isochronous transactions
#define R32_USB_EP3_CTRL (*((PUINT32V)0x4000802c)) // endpoint 3 control & transmittal length
#define R8_UEP3_T_LEN (*((PUINT8V)0x4000802c)) // endpoint 3 transmittal length
#define R8_UEP3_CTRL (*((PUINT8V)0x4000802e)) // endpoint 3 control
#define R8_UH_TX_LEN R8_UEP3_T_LEN // host transmittal endpoint transmittal length
#define R8_UH_TX_CTRL R8_UEP3_CTRL // host transmittal endpoint control
#define RB_UH_T_TOG 0x40 // prepared data toggle flag of host transmittal (SETUP/OUT): 0=DATA0, 1=DATA1
#define RB_UH_T_AUTO_TOG 0x10 // enable automatic toggle after successful transfer completion: 0=manual toggle, 1=automatic toggle
#define RB_UH_T_RES 0x01 // expected handshake response type for host transmittal (SETUP/OUT): 0=ACK (ready), 1=no response, time out from device, for isochronous transactions
#define R32_USB_EP4_CTRL (*((PUINT32V)0x40008030)) // endpoint 4 control & transmittal length
#define R8_UEP4_T_LEN (*((PUINT8V)0x40008030)) // endpoint 4 transmittal length
#define R8_UEP4_CTRL (*((PUINT8V)0x40008032)) // endpoint 4 control
#define R32_USB_EP5_CTRL (*((PUINT32V)0x40008064)) // endpoint 5 control & transmittal length
#define R8_UEP5_T_LEN (*((PUINT8V)0x40008064)) // endpoint 5 transmittal length
#define R8_UEP5_CTRL (*((PUINT8V)0x40008066)) // endpoint 5 control
#define R32_USB_EP6_CTRL (*((PUINT32V)0x40008068)) // endpoint 6 control & transmittal length
#define R8_UEP6_T_LEN (*((PUINT8V)0x40008068)) // endpoint 6 transmittal length
#define R8_UEP6_CTRL (*((PUINT8V)0x4000806A)) // endpoint 6 control
#define R32_USB_EP7_CTRL (*((PUINT32V)0x4000806C)) // endpoint 7 control & transmittal length
#define R8_UEP7_T_LEN (*((PUINT8V)0x4000806C)) // endpoint 7 transmittal length
#define R8_UEP7_CTRL (*((PUINT8V)0x4000806E)) // endpoint 7 control
#ifdef __cplusplus
}
#endif
#endif //__CH592USBSFR_H__
#ifndef __USB_TYPE__
#define __USB_TYPE__
#ifdef __cplusplus
extern "C" {
#endif
/*----- USB constant and structure define --------------------------------*/
/* USB PID */
#ifndef USB_PID_SETUP
#define USB_PID_NULL 0x00 /* reserved PID */
#define USB_PID_SOF 0x05
#define USB_PID_SETUP 0x0D
#define USB_PID_IN 0x09
#define USB_PID_OUT 0x01
#define USB_PID_ACK 0x02
#define USB_PID_NAK 0x0A
#define USB_PID_STALL 0x0E
#define USB_PID_DATA0 0x03
#define USB_PID_DATA1 0x0B
#define USB_PID_PRE 0x0C
#endif
/* USB standard device request code */
#ifndef USB_GET_DESCRIPTOR
#define USB_GET_STATUS 0x00
#define USB_CLEAR_FEATURE 0x01
#define USB_SET_FEATURE 0x03
#define USB_SET_ADDRESS 0x05
#define USB_GET_DESCRIPTOR 0x06
#define USB_SET_DESCRIPTOR 0x07
#define USB_GET_CONFIGURATION 0x08
#define USB_SET_CONFIGURATION 0x09
#define USB_GET_INTERFACE 0x0A
#define USB_SET_INTERFACE 0x0B
#define USB_SYNCH_FRAME 0x0C
#endif
/* USB hub class request code */
#ifndef HUB_GET_DESCRIPTOR
#define HUB_GET_STATUS 0x00
#define HUB_CLEAR_FEATURE 0x01
#define HUB_GET_STATE 0x02
#define HUB_SET_FEATURE 0x03
#define HUB_GET_DESCRIPTOR 0x06
#define HUB_SET_DESCRIPTOR 0x07
#endif
/* USB HID class request code */
#ifndef HID_GET_REPORT
#define HID_GET_REPORT 0x01
#define HID_GET_IDLE 0x02
#define HID_GET_PROTOCOL 0x03
#define HID_SET_REPORT 0x09
#define HID_SET_IDLE 0x0A
#define HID_SET_PROTOCOL 0x0B
#endif
/* Bit define for USB request type */
#ifndef USB_REQ_TYP_MASK
#define USB_REQ_TYP_IN 0x80 /* control IN, device to host */
#define USB_REQ_TYP_OUT 0x00 /* control OUT, host to device */
#define USB_REQ_TYP_READ 0x80 /* control read, device to host */
#define USB_REQ_TYP_WRITE 0x00 /* control write, host to device */
#define USB_REQ_TYP_MASK 0x60 /* bit mask of request type */
#define USB_REQ_TYP_STANDARD 0x00
#define USB_REQ_TYP_CLASS 0x20
#define USB_REQ_TYP_VENDOR 0x40
#define USB_REQ_TYP_RESERVED 0x60
#define USB_REQ_RECIP_MASK 0x1F /* bit mask of request recipient */
#define USB_REQ_RECIP_DEVICE 0x00
#define USB_REQ_RECIP_INTERF 0x01
#define USB_REQ_RECIP_ENDP 0x02
#define USB_REQ_RECIP_OTHER 0x03
#endif
/* USB request type for hub class request */
#ifndef HUB_GET_HUB_DESCRIPTOR
#define HUB_CLEAR_HUB_FEATURE 0x20
#define HUB_CLEAR_PORT_FEATURE 0x23
#define HUB_GET_BUS_STATE 0xA3
#define HUB_GET_HUB_DESCRIPTOR 0xA0
#define HUB_GET_HUB_STATUS 0xA0
#define HUB_GET_PORT_STATUS 0xA3
#define HUB_SET_HUB_DESCRIPTOR 0x20
#define HUB_SET_HUB_FEATURE 0x20
#define HUB_SET_PORT_FEATURE 0x23
#endif
/* Hub class feature selectors */
#ifndef HUB_PORT_RESET
#define HUB_C_HUB_LOCAL_POWER 0
#define HUB_C_HUB_OVER_CURRENT 1
#define HUB_PORT_CONNECTION 0
#define HUB_PORT_ENABLE 1
#define HUB_PORT_SUSPEND 2
#define HUB_PORT_OVER_CURRENT 3
#define HUB_PORT_RESET 4
#define HUB_PORT_POWER 8
#define HUB_PORT_LOW_SPEED 9
#define HUB_C_PORT_CONNECTION 16
#define HUB_C_PORT_ENABLE 17
#define HUB_C_PORT_SUSPEND 18
#define HUB_C_PORT_OVER_CURRENT 19
#define HUB_C_PORT_RESET 20
#endif
/* USB descriptor type */
#ifndef USB_DESCR_TYP_DEVICE
#define USB_DESCR_TYP_DEVICE 0x01
#define USB_DESCR_TYP_CONFIG 0x02
#define USB_DESCR_TYP_STRING 0x03
#define USB_DESCR_TYP_INTERF 0x04
#define USB_DESCR_TYP_ENDP 0x05
#define USB_DESCR_TYP_QUALIF 0x06
#define USB_DESCR_TYP_SPEED 0x07
#define USB_DESCR_TYP_OTG 0x09
#define USB_DESCR_TYP_HID 0x21
#define USB_DESCR_TYP_REPORT 0x22
#define USB_DESCR_TYP_PHYSIC 0x23
#define USB_DESCR_TYP_CS_INTF 0x24
#define USB_DESCR_TYP_CS_ENDP 0x25
#define USB_DESCR_TYP_HUB 0x29
#endif
/* USB device class */
#ifndef USB_DEV_CLASS_HUB
#define USB_DEV_CLASS_RESERVED 0x00
#define USB_DEV_CLASS_AUDIO 0x01
#define USB_DEV_CLASS_COMMUNIC 0x02
#define USB_DEV_CLASS_HID 0x03
#define USB_DEV_CLASS_MONITOR 0x04
#define USB_DEV_CLASS_PHYSIC_IF 0x05
#define USB_DEV_CLASS_POWER 0x06
#define USB_DEV_CLASS_PRINTER 0x07
#define USB_DEV_CLASS_STORAGE 0x08
#define USB_DEV_CLASS_HUB 0x09
#define USB_DEV_CLASS_VEN_SPEC 0xFF
#endif
/* USB endpoint type and attributes */
#ifndef USB_ENDP_TYPE_MASK
#define USB_ENDP_DIR_MASK 0x80
#define USB_ENDP_ADDR_MASK 0x0F
#define USB_ENDP_TYPE_MASK 0x03
#define USB_ENDP_TYPE_CTRL 0x00
#define USB_ENDP_TYPE_ISOCH 0x01
#define USB_ENDP_TYPE_BULK 0x02
#define USB_ENDP_TYPE_INTER 0x03
#endif
#ifndef USB_DEVICE_ADDR
#define USB_DEVICE_ADDR 0x02 /* 默认的USB设备地址 */
#endif
#ifndef DEFAULT_ENDP0_SIZE
#define DEFAULT_ENDP0_SIZE 8 /* default maximum packet size for endpoint 0 */
#endif
#ifndef MAX_PACKET_SIZE
#define MAX_PACKET_SIZE 64 /* maximum packet size */
#endif
#ifndef USB_BO_CBW_SIZE
#define USB_BO_CBW_SIZE 0x1F /* 命令块CBW的总长度 */
#define USB_BO_CSW_SIZE 0x0D /* 命令状态块CSW的总长度 */
#endif
#ifndef USB_BO_CBW_SIG
#define USB_BO_CBW_SIG 0x43425355 /* 命令块CBW识别标志'USBC' */
#define USB_BO_CSW_SIG 0x53425355 /* 命令状态块CSW识别标志'USBS' */
#endif
#ifndef __PACKED
#define __PACKED __attribute__((packed))
#endif
typedef struct __PACKED _USB_SETUP_REQ {
UINT8 bRequestType;
UINT8 bRequest;
UINT16 wValue;
UINT16 wIndex;
UINT16 wLength;
} USB_SETUP_REQ, *PUSB_SETUP_REQ;
typedef struct __PACKED _USB_DEVICE_DESCR {
UINT8 bLength;
UINT8 bDescriptorType;
UINT16 bcdUSB;
UINT8 bDeviceClass;
UINT8 bDeviceSubClass;
UINT8 bDeviceProtocol;
UINT8 bMaxPacketSize0;
UINT16 idVendor;
UINT16 idProduct;
UINT16 bcdDevice;
UINT8 iManufacturer;
UINT8 iProduct;
UINT8 iSerialNumber;
UINT8 bNumConfigurations;
} USB_DEV_DESCR, *PUSB_DEV_DESCR;
typedef struct __PACKED _USB_CONFIG_DESCR {
UINT8 bLength;
UINT8 bDescriptorType;
UINT16 wTotalLength;
UINT8 bNumInterfaces;
UINT8 bConfigurationValue;
UINT8 iConfiguration;
UINT8 bmAttributes;
UINT8 MaxPower;
} USB_CFG_DESCR, *PUSB_CFG_DESCR;
typedef struct __PACKED _USB_INTERF_DESCR {
UINT8 bLength;
UINT8 bDescriptorType;
UINT8 bInterfaceNumber;
UINT8 bAlternateSetting;
UINT8 bNumEndpoints;
UINT8 bInterfaceClass;
UINT8 bInterfaceSubClass;
UINT8 bInterfaceProtocol;
UINT8 iInterface;
} USB_ITF_DESCR, *PUSB_ITF_DESCR;
typedef struct __PACKED _USB_ENDPOINT_DESCR {
UINT8 bLength;
UINT8 bDescriptorType;
UINT8 bEndpointAddress;
UINT8 bmAttributes;
UINT16 wMaxPacketSize;
UINT8 bInterval;
} USB_ENDP_DESCR, *PUSB_ENDP_DESCR;
typedef struct __PACKED _USB_CONFIG_DESCR_LONG {
USB_CFG_DESCR cfg_descr;
USB_ITF_DESCR itf_descr;
USB_ENDP_DESCR endp_descr[1];
} USB_CFG_DESCR_LONG, *PUSB_CFG_DESCR_LONG;
typedef USB_CFG_DESCR_LONG *PXUSB_CFG_DESCR_LONG;
typedef struct __PACKED _USB_HUB_DESCR {
UINT8 bDescLength;
UINT8 bDescriptorType;
UINT8 bNbrPorts;
UINT8 wHubCharacteristicsL;
UINT8 wHubCharacteristicsH;
UINT8 bPwrOn2PwrGood;
UINT8 bHubContrCurrent;
UINT8 DeviceRemovable;
UINT8 PortPwrCtrlMask;
} USB_HUB_DESCR, *PUSB_HUB_DESCR;
typedef USB_HUB_DESCR *PXUSB_HUB_DESCR;
typedef struct __PACKED _USB_HID_DESCR {
UINT8 bLength;
UINT8 bDescriptorType;
UINT16 bcdHID;
UINT8 bCountryCode;
UINT8 bNumDescriptors;
UINT8 bDescriptorTypeX;
UINT8 wDescriptorLengthL;
UINT8 wDescriptorLengthH;
} USB_HID_DESCR, *PUSB_HID_DESCR;
typedef USB_HID_DESCR *PXUSB_HID_DESCR;
typedef struct __PACKED _UDISK_BOC_CBW { /* command of BulkOnly USB-FlashDisk */
UINT32 mCBW_Sig;
UINT32 mCBW_Tag;
UINT32 mCBW_DataLen; /* uppest byte of data length, always is 0 */
UINT8 mCBW_Flag; /* transfer direction and etc. */
UINT8 mCBW_LUN;
UINT8 mCBW_CB_Len; /* length of command block */
UINT8 mCBW_CB_Buf[16]; /* command block buffer */
} UDISK_BOC_CBW, *PUDISK_BOC_CBW;
typedef UDISK_BOC_CBW *PXUDISK_BOC_CBW;
typedef struct __PACKED _UDISK_BOC_CSW { /* status of BulkOnly USB-FlashDisk */
UINT32 mCSW_Sig;
UINT32 mCSW_Tag;
UINT32 mCSW_Residue; /* return: remainder bytes */
UINT8 mCSW_Status; /* return: result status */
} UDISK_BOC_CSW, *PUDISK_BOC_CSW;
typedef UDISK_BOC_CSW *PXUDISK_BOC_CSW;
#ifdef __cplusplus
}
#endif
#endif // __USB_TYPE__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_adc.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_ADC_H__
#define __CH59x_ADC_H__
#ifdef __cplusplus
extern "C" {
#endif
#define ROM_CFG_TMP_25C 0x7F014
/**
* @brief adc single channel define
*/
typedef enum
{
CH_EXTIN_0 = 0, // ADC 外部模拟通道 0
CH_EXTIN_1, // ADC 外部模拟通道 1
CH_EXTIN_2, // ADC 外部模拟通道 2
CH_EXTIN_3, // ADC 外部模拟通道 3
CH_EXTIN_4, // ADC 外部模拟通道 4
CH_EXTIN_5, // ADC 外部模拟通道 5
CH_EXTIN_6, // ADC 外部模拟通道 6
CH_EXTIN_7, // ADC 外部模拟通道 7
CH_EXTIN_8, // ADC 外部模拟通道 8
CH_EXTIN_9, // ADC 外部模拟通道 9
CH_EXTIN_10, // ADC 外部模拟通道 10
CH_EXTIN_11, // ADC 外部模拟通道 11
CH_EXTIN_12, // ADC 外部模拟通道 12
CH_EXTIN_13, // ADC 外部模拟通道 13
CH_INTE_VBAT = 14, // ADC 内部电池检测通道
CH_INTE_VTEMP = 15, // ADC 内部温度传感器检测通道
} ADC_SingleChannelTypeDef;
/**
* @brief adc differential channel define
*/
typedef enum
{
CH_DIFF_0_2 = 0, // ADC 差分通道 #0-#2
CH_DIFF_1_3, // ADC 差分通道 #1-#3
} ADC_DiffChannelTypeDef;
/**
* @brief adc sampling clock
*/
typedef enum
{
SampleFreq_3_2 = 0, // 3.2M 采样频率
SampleFreq_8, // 8M 采样频率
SampleFreq_5_33, // 5.33M 采样频率
SampleFreq_4, // 4M 采样频率
} ADC_SampClkTypeDef;
/**
* @brief adc signal PGA
*/
typedef enum
{
ADC_PGA_1_4 = 0, // -12dB, 1/4倍
ADC_PGA_1_2, // -6dB, 1/2倍
ADC_PGA_0, // 0dB, 1倍，无增益
ADC_PGA_2, // 6dB, 2倍
ADC_PGA_2_ = 0x10, // 6dB, 2倍
ADC_PGA_4, // 12dB, 4倍
ADC_PGA_8, // 18dB, 8倍
ADC_PGA_16, // 24dB, 16倍
} ADC_SignalPGATypeDef;
/**
* @brief Configuration DMA mode
*/
typedef enum
{
ADC_Mode_Single = 0, // 单次模式
ADC_Mode_LOOP, // 循环模式
} ADC_DMAModeTypeDef;
/**
* @brief 设置 ADC 采样通道
*
* @param d - refer to ADC_SingleChannelTypeDef
*/
#define ADC_ChannelCfg(d) (R8_ADC_CHANNEL = d)
/**
* @brief 设置 ADC 采样时钟
*
* @param d - refer to ADC_SampClkTypeDef
*/
#define ADC_SampClkCfg(d) (R8_ADC_CFG = R8_ADC_CFG & (~RB_ADC_CLK_DIV) | (d << 6))
/**
* @brief 设置 ADC 信号增益
*
* @param d - refer to ADC_SignalPGATypeDef
*/
#define ADC_PGACfg(d) (R8_ADC_CFG = R8_ADC_CFG & (~RB_ADC_PGA_GAIN) | (d << 4))
/**
* @brief 设置内部温度传感器校准值
*
* @param d - 校准值
*/
#define ADC_TempCalibCfg(d) (R8_TEM_SENSOR = R8_TEM_SENSOR & (~RB_TEM_SEN_CALIB) | d)
/**
* @brief 外部信号单通道采样初始化
*
* @param sp - refer to ADC_SampClkTypeDef
* @param ga - refer to ADC_SignalPGATypeDef
*/
void ADC_ExtSingleChSampInit(ADC_SampClkTypeDef sp, ADC_SignalPGATypeDef ga);
/**
* @brief 外部信号差分通道采样初始化
*
* @param sp - refer to ADC_SampClkTypeDef
* @param ga - refer to ADC_SignalPGATypeDef
*/
void ADC_ExtDiffChSampInit(ADC_SampClkTypeDef sp, ADC_SignalPGATypeDef ga);
/**
* @brief 触摸按键通道采样初始化
*/
void TouchKey_ChSampInit(void);
/**
* @brief 关闭TouchKey电源
*/
#define TouchKey_DisableTSPower() (R8_TKEY_CFG &= ~RB_TKEY_PWR_ON)
/**
* @brief 内置温度传感器采样初始化
*/
void ADC_InterTSSampInit(void);
/**
* @brief 关闭温度传感器电源
*/
#define ADC_DisableTSPower() (R8_TEM_SENSOR = 0)
/**
* @brief 内置电池电压采样初始化
*/
void ADC_InterBATSampInit(void);
/**
* @brief ADC执行单次转换
*
* @return ADC转换后的数据
*/
uint16_t ADC_ExcutSingleConver(void);
/**
* @brief 采样数据粗调,获取偏差值,必须先配置ADC后调用此函数获取校准值
*
* @return 偏差
*/
signed short ADC_DataCalib_Rough(void);
/**
* @brief TouchKey转换后数据
*
* @param charg - Touchkey充电时间,5bits有效, t=charg*Tadc
* @param disch - Touchkey放电时间,3bits有效, t=disch*Tadc
*
* @return 当前TouchKey等效数据
*/
uint16_t TouchKey_ExcutSingleConver(uint8_t charg, uint8_t disch);
/**
* @brief 设置连续 ADC的周期
*
* @param cycle - 单位为 16个系统时钟
*/
void ADC_AutoConverCycle(uint8_t cycle);
/**
* @brief 配置DMA功能
*
* @param s - 是否打开DMA功能
* @param startAddr - DMA 起始地址
* @param endAddr - DMA 结束地址
* @param m - 配置DMA模式
*/
void ADC_DMACfg(uint8_t s, uint32_t startAddr, uint32_t endAddr, ADC_DMAModeTypeDef m);
/**
* @brief Convert ADC value to temperature(Celsius)
*
* @param adc_val - adc value
*
* @return temperature (Celsius)
*/
int adc_to_temperature_celsius(uint16_t adc_val);
/**
* @brief 获取ADC转换值
*
* @return ADC转换值
*/
#define ADC_ReadConverValue() (R16_ADC_DATA)
/**
* @brief ADC执行单次转换
*/
#define ADC_StartUp() (R8_ADC_CONVERT = RB_ADC_START)
/**
* @brief 获取ADC中断状态
*/
#define ADC_GetITStatus() (R8_ADC_INT_FLAG & RB_ADC_IF_EOC)
/**
* @brief 清除ADC中断标志
*/
#define ADC_ClearITFlag() (R8_ADC_CONVERT = 0)
/**
* @brief 获取ADC DMA完成状态
*/
#define ADC_GetDMAStatus() (R8_ADC_DMA_IF & RB_ADC_IF_DMA_END)
/**
* @brief 清除ADC DMA完成标志
*/
#define ADC_ClearDMAFlag() (R8_ADC_DMA_IF |= RB_ADC_IF_DMA_END)
/**
* @brief 开启定时间隔自动连续 ADC
*/
#define ADC_StartAutoDMA() (R8_ADC_CTRL_DMA |= RB_ADC_AUTO_EN)
/**
* @brief 停止定时间隔自动连续 ADC
*/
#define ADC_StopAutoDMA() (R8_ADC_CTRL_DMA &= ~RB_ADC_AUTO_EN)
/**
* @brief 开启连续转换 ADC
*/
#define ADC_StartContDMA() (R8_ADC_CTRL_DMA |= RB_ADC_CONT_EN)
/**
* @brief 停止连续转换 ADC
*/
#define ADC_StopContDMA() (R8_ADC_CTRL_DMA &= ~RB_ADC_CONT_EN)
/**
* @brief 获取TouchKey中断状态
*/
#define TouchKey_GetITStatus() (R8_ADC_INT_FLAG & RB_ADC_IF_EOC)
/**
* @brief 清除TouchKey中断标志
*/
#define TouchKey_ClearITFlag() (R8_TKEY_CTRL |= RB_TKEY_PWR_ON)
/**
* @brief 关闭ADC电源
*/
#define ADC_DisablePower() (R8_ADC_CFG &= ~RB_ADC_POWER_ON)
#ifdef __cplusplus
}
#endif
#endif // __CH59x_ADC_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_clk.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_CLK_H__
#define __CH59x_CLK_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief 系统主频定义
*/
typedef enum
{
CLK_SOURCE_LSI = 0x00,
CLK_SOURCE_LSE,
CLK_SOURCE_HSE_16MHz = 0x22,
CLK_SOURCE_HSE_8MHz = 0x24,
CLK_SOURCE_HSE_6_4MHz = 0x25,
CLK_SOURCE_HSE_4MHz = 0x28,
CLK_SOURCE_PLL_60MHz = 0x48,
CLK_SOURCE_PLL_48MHz = (0x40 | 10),
CLK_SOURCE_PLL_32MHz = (0x40 | 15),
CLK_SOURCE_PLL_24MHz = (0x40 | 20),
} SYS_CLKTypeDef;
/**
* @brief 32K时钟选择
*/
typedef enum
{
Clk32K_LSI = 0,
Clk32K_LSE,
} LClk32KTypeDef;
/**
* @brief 32M晶振电流挡位
*/
typedef enum
{
HSE_RCur_75 = 0,
HSE_RCur_100,
HSE_RCur_125,
HSE_RCur_150
} HSECurrentTypeDef;
/**
* @brief 32M晶振内部电容挡位
*/
typedef enum
{
HSECap_10p = 0,
HSECap_12p,
HSECap_14p,
HSECap_16p,
HSECap_18p,
HSECap_20p,
HSECap_22p,
HSECap_24p
} HSECapTypeDef;
/**
* @brief 32K晶振电流挡位
*/
typedef enum
{
LSE_RCur_70 = 0,
LSE_RCur_100,
LSE_RCur_140,
LSE_RCur_200
} LSECurrentTypeDef;
/**
* @brief 32K晶振内部电容挡位
*/
typedef enum
{
LSECap_2p = 0,
LSECap_13p,
LSECap_14p,
LSECap_15p,
LSECap_16p,
LSECap_17p,
LSECap_18p,
LSECap_19p,
LSECap_20p,
LSECap_21p,
LSECap_22p,
LSECap_23p,
LSECap_24p,
LSECap_25p,
LSECap_26p,
LSECap_27p
} LSECapTypeDef;
#define RTC_MAX_COUNT 0xA8C00000
#define MAX_DAY 0x00004000
#define MAX_2_SEC 0x0000A8C0
//#define MAX_SEC 0x545FFFFF
#define BEGYEAR 2020
#define IsLeapYear(yr) (!((yr) % 400) || (((yr) % 100) && !((yr) % 4)))
#define YearLength(yr) (IsLeapYear(yr) ? 366 : 365)
#define monthLength(lpyr, mon) (((mon) == 1) ? (28 + (lpyr)) : (((mon) > 6) ? (((mon) & 1) ? 31 : 30) : (((mon) & 1) ? 30 : 31)))
/**
* @brief rtc timer mode period define
*/
typedef enum
{
Period_0_125_S = 0, // 0.125s 周期
Period_0_25_S, // 0.25s 周期
Period_0_5_S, // 0.5s 周期
Period_1_S, // 1s 周期
Period_2_S, // 2s 周期
Period_4_S, // 4s 周期
Period_8_S, // 8s 周期
Period_16_S, // 16s 周期
} RTC_TMRCycTypeDef;
/**
* @brief rtc interrupt event define
*/
typedef enum
{
RTC_TRIG_EVENT = 0, // RTC 触发事件
RTC_TMR_EVENT, // RTC 周期定时事件
} RTC_EVENTTypeDef;
/**
* @brief rtc interrupt event define
*/
typedef enum
{
RTC_TRIG_MODE = 0, // RTC 触发模式
RTC_TMR_MODE, // RTC 周期定时模式
} RTC_MODETypeDef;
typedef enum
{
/* 校准精度越高，耗时越长 */
Level_32 = 3, // 用时 1.2ms 1000ppm (32M 主频) 1100ppm (60M 主频)
Level_64, // 用时 2.2ms 800ppm (32M 主频) 1000ppm (60M 主频)
Level_128, // 用时 4.2ms 600ppm (32M 主频) 800ppm (60M 主频)
} Cali_LevelTypeDef;
/**
* @brief 32K 低频时钟来源
*
* @param hc - 选择32K使用内部还是外部
*/
void LClk32K_Select(LClk32KTypeDef hc);
/**
* @brief HSE晶体 偏置电流配置
*
* @param c - 75%,100%,125%,150%
*/
void HSECFG_Current(HSECurrentTypeDef c);
/**
* @brief HSE晶体 负载电容配置
*
* @param c - refer to HSECapTypeDef
*/
void HSECFG_Capacitance(HSECapTypeDef c);
/**
* @brief LSE晶体 偏置电流配置
*
* @param c - 70%,100%,140%,200%
*/
void LSECFG_Current(LSECurrentTypeDef c);
/**
* @brief LSE晶体 负载电容配置
*
* @param c - refer to LSECapTypeDef
*/
void LSECFG_Capacitance(LSECapTypeDef c);
void Calibration_LSI(Cali_LevelTypeDef cali_Lv); /* 用主频校准内部32K时钟 */
/**
* @brief RTC时钟初始化当前时间
*
* @param y - 配置年，MAX_Y = BEGYEAR + 44
* @param mon - 配置月，MAX_MON = 12
* @param d - 配置日，MAX_D = 31
* @param h - 配置小时，MAX_H = 23
* @param m - 配置分钟，MAX_M = 59
* @param s - 配置秒，MAX_S = 59
*/
void RTC_InitTime(uint16_t y, uint16_t mon, uint16_t d, uint16_t h, uint16_t m, uint16_t s);
/**
* @brief 获取当前时间
*
* @param py - 获取到的年，MAX_Y = BEGYEAR + 44
* @param pmon - 获取到的月，MAX_MON = 12
* @param pd - 获取到的日，MAX_D = 31
* @param ph - 获取到的小时，MAX_H = 23
* @param pm - 获取到的分钟，MAX_M = 59
* @param ps - 获取到的秒，MAX_S = 59
*/
void RTC_GetTime(uint16_t *py, uint16_t *pmon, uint16_t *pd, uint16_t *ph, uint16_t *pm, uint16_t *ps);
/**
* @brief 基于LSE/LSI时钟，配置当前RTC 周期数
*
* @param cyc - 配置周期计数初值，MAX_CYC = 0xA8BFFFFF = 2831155199
*/
void RTC_SetCycle32k(uint32_t cyc);
/**
* @brief 基于LSE/LSI时钟，获取当前RTC 周期数
*
* @return 当前周期数，MAX_CYC = 0xA8BFFFFF = 2831155199
*/
uint32_t RTC_GetCycle32k(void);
/**
* @brief RTC定时模式配置（注意定时基准固定为32768Hz）
*
* @param t - refer to RTC_TMRCycTypeDef
*/
void RTC_TRIGFunCfg(uint32_t cyc);
/**
* @brief RTC定时模式配置（注意定时基准固定为32768Hz）
*
* @param t - refer to RTC_TMRCycTypeDef
*/
void RTC_TMRFunCfg(RTC_TMRCycTypeDef t);
/**
* @brief RTC 模式功能关闭
*
* @param m - 需要关闭的当前模式
*/
void RTC_ModeFunDisable(RTC_MODETypeDef m);
/**
* @brief 获取RTC中断标志
*
* @param f - refer to RTC_EVENTTypeDef
*
* @return 中断标志状态
*/
uint8_t RTC_GetITFlag(RTC_EVENTTypeDef f);
/**
* @brief 清除RTC中断标志
*
* @param f - refer to RTC_EVENTTypeDef
*/
void RTC_ClearITFlag(RTC_EVENTTypeDef f);
/**
* @brief 32K 低频时钟电源配置
*/
void LClk32K_Cfg(LClk32KTypeDef hc, FunctionalState s);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_CLK_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_common.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_COMM_H__
#define __CH59x_COMM_H__
#ifdef __cplusplus
extern "C" {
#endif
#ifndef NULL
#define NULL 0
#endif
#define ALL 0xFFFF
#ifndef __HIGH_CODE
#define __HIGH_CODE __attribute__((section(".highcode")))
#endif
#ifndef __INTERRUPT
#ifdef INT_SOFT
#define __INTERRUPT __attribute__((interrupt()))
#else
#define __INTERRUPT __attribute__((interrupt("WCH-Interrupt-fast")))
#endif
#endif
#define Debug_UART0 0
#define Debug_UART1 1
#define Debug_UART2 2
#define Debug_UART3 3
#ifdef DEBUG
#include <stdio.h>
#endif
/**
* @brief 系统主频时钟（Hz）
*/
#ifndef FREQ_SYS
#define FREQ_SYS 60000000
#endif
#ifndef SAFEOPERATE
#define SAFEOPERATE __nop();__nop()
#endif
/**
* @brief 32K时钟（Hz）
*/
#ifdef CLK_OSC32K
#if ( CLK_OSC32K == 1 )
#define CAB_LSIFQ 32000
#else
#define CAB_LSIFQ 32768
#endif
#else
#define CAB_LSIFQ 32000
#endif
#include <string.h>
#include <stdint.h>
#include "CH592SFR.h"
#include "core_riscv.h"
#include "CH59x_clk.h"
#include "CH59x_uart.h"
#include "CH59x_gpio.h"
#include "CH59x_i2c.h"
#include "CH59x_flash.h"
#include "CH59x_pwr.h"
#include "CH59x_pwm.h"
#include "CH59x_adc.h"
#include "CH59x_sys.h"
#include "CH59x_timer.h"
#include "CH59x_spi.h"
#include "CH59x_usbdev.h"
#include "CH59x_usbhost.h"
#include "ISP592.h"
#define DelayMs(x) mDelaymS(x)
#define DelayUs(x) mDelayuS(x)
#ifdef __cplusplus
}
#endif
#endif // __CH59x_COMM_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_flash.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_FLASH_H__
#define __CH59x_FLASH_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief 读取Flash-ROM
*
* @param StartAddr - read address
* @param Buffer - read buffer
* @param len - read len
*/
void FLASH_ROM_READ(uint32_t StartAddr, void *Buffer, uint32_t len);
void FLASH_ROM_READ(UINT32 StartAddr, PVOID Buffer, UINT32 len); /* 读取Flash-ROM */
UINT8 UserOptionByteConfig(FunctionalState RESET_EN, FunctionalState BOOT_PIN, FunctionalState UART_NO_KEY_EN,
UINT32 FLASHProt_Size);
UINT8 UserOptionByteClose_SWD(void);
void UserOptionByte_Active(void);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_FLASH_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_gpio.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_GPIO_H__
#define __CH59x_GPIO_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief GPIO_pins_define
*/
#define GPIO_Pin_0 (0x00000001) /*!< Pin 0 selected */
#define GPIO_Pin_1 (0x00000002) /*!< Pin 1 selected */
#define GPIO_Pin_2 (0x00000004) /*!< Pin 2 selected */
#define GPIO_Pin_3 (0x00000008) /*!< Pin 3 selected */
#define GPIO_Pin_4 (0x00000010) /*!< Pin 4 selected */
#define GPIO_Pin_5 (0x00000020) /*!< Pin 5 selected */
#define GPIO_Pin_6 (0x00000040) /*!< Pin 6 selected */
#define GPIO_Pin_7 (0x00000080) /*!< Pin 7 selected */
#define GPIO_Pin_8 (0x00000100) /*!< Pin 8 selected */
#define GPIO_Pin_9 (0x00000200) /*!< Pin 9 selected */
#define GPIO_Pin_10 (0x00000400) /*!< Pin 10 selected */
#define GPIO_Pin_11 (0x00000800) /*!< Pin 11 selected */
#define GPIO_Pin_12 (0x00001000) /*!< Pin 12 selected */
#define GPIO_Pin_13 (0x00002000) /*!< Pin 13 selected */
#define GPIO_Pin_14 (0x00004000) /*!< Pin 14 selected */
#define GPIO_Pin_15 (0x00008000) /*!< Pin 15 selected */
#define GPIO_Pin_16 (0x00010000) /*!< Pin 16 selected */
#define GPIO_Pin_17 (0x00020000) /*!< Pin 17 selected */
#define GPIO_Pin_18 (0x00040000) /*!< Pin 18 selected */
#define GPIO_Pin_19 (0x00080000) /*!< Pin 19 selected */
#define GPIO_Pin_20 (0x00100000) /*!< Pin 20 selected */
#define GPIO_Pin_21 (0x00200000) /*!< Pin 21 selected */
#define GPIO_Pin_22 (0x00400000) /*!< Pin 22 selected */
#define GPIO_Pin_23 (0x00800000) /*!< Pin 23 selected */
#define GPIO_Pin_All (0xFFFFFFFF) /*!< All pins selected */
/**
* @brief Configuration GPIO Mode
*/
typedef enum
{
GPIO_ModeIN_Floating, //浮空输入
GPIO_ModeIN_PU, //上拉输入
GPIO_ModeIN_PD, //下拉输入
GPIO_ModeOut_PP_5mA, //推挽输出最大5mA
GPIO_ModeOut_PP_20mA, //推挽输出最大20mA
} GPIOModeTypeDef;
/**
* @brief Configuration GPIO IT Mode
*/
typedef enum
{
GPIO_ITMode_LowLevel, //低电平触发
GPIO_ITMode_HighLevel, //高电平触发
GPIO_ITMode_FallEdge, //下降沿触发
GPIO_ITMode_RiseEdge, //上升沿触发
} GPIOITModeTpDef;
/**
* @brief GPIOA端口引脚模式配置
*
* @param pin - PA0-PA15
* @param mode - 输入输出类型
*/
void GPIOA_ModeCfg(uint32_t pin, GPIOModeTypeDef mode);
/**
* @brief GPIOB端口引脚模式配置
*
* @param pin - PB0-PB23
* @param mode - 输入输出类型
*/
void GPIOB_ModeCfg(uint32_t pin, GPIOModeTypeDef mode);
/**
* @brief GPIOA端口引脚输出置低
*
* @param pin - PA0-PA15
*/
#define GPIOA_ResetBits(pin) (R32_PA_CLR |= pin)
/**
* @brief GPIOA端口引脚输出置高
*
* @param pin - PA0-PA15
*/
#define GPIOA_SetBits(pin) (R32_PA_OUT |= pin)
/**
* @brief GPIOB端口引脚输出置低
*
* @param pin - PB0-PB23
*/
#define GPIOB_ResetBits(pin) (R32_PB_CLR |= pin)
/**
* @brief GPIOB端口引脚输出置高
*
* @param pin - PB0-PB23
*/
#define GPIOB_SetBits(pin) (R32_PB_OUT |= pin)
/**
* @brief GPIOA端口引脚输出电平翻转
*
* @param pin - PA0-PA15
*/
#define GPIOA_InverseBits(pin) (R32_PA_OUT ^= pin)
/**
* @brief GPIOB端口引脚输出电平翻转
*
* @param pin - PB0-PB23
*/
#define GPIOB_InverseBits(pin) (R32_PB_OUT ^= pin)
/**
* @brief GPIOA端口32位数据返回，低16位有效
*
* @return GPIOA端口32位数据
*/
#define GPIOA_ReadPort() (R32_PA_PIN)
/**
* @brief GPIOB端口32位数据返回，低24位有效
*
* @return GPIOB端口32位数据
*/
#define GPIOB_ReadPort() (R32_PB_PIN)
/**
* @brief GPIOA端口引脚状态，0-引脚低电平，(!0)-引脚高电平
*
* @param pin - PA0-PA15
*
* @return GPIOA端口引脚状态
*/
#define GPIOA_ReadPortPin(pin) (R32_PA_PIN & (pin))
/**
* @brief GPIOB端口引脚状态，0-引脚低电平，(!0)-引脚高电平
*
* @param pin - PB0-PB23
*
* @return GPIOB端口引脚状态
*/
#define GPIOB_ReadPortPin(pin) (R32_PB_PIN & (pin))
/**
* @brief GPIOA引脚中断模式配置
*
* @param pin - PA0-PA15
* @param mode - 触发类型
*/
void GPIOA_ITModeCfg(uint32_t pin, GPIOITModeTpDef mode);
/**
* @brief GPIOB引脚中断模式配置
*
* @param pin - PB0-PB23
* @param mode - 触发类型
*/
void GPIOB_ITModeCfg(uint32_t pin, GPIOITModeTpDef mode);
/**
* @brief 读取GPIOA端口中断标志状态
*
* @return GPIOA端口中断标志状态
*/
#define GPIOA_ReadITFlagPort() (R16_PA_INT_IF)
/**
* @brief 读取GPIOB端口中断标志状态
*
* @return GPIOB端口中断标志状态
*/
#define GPIOB_ReadITFlagPort() ((R16_PB_INT_IF & (~((GPIO_Pin_22 | GPIO_Pin_23) >> 14))) | ((R16_PB_INT_IF << 14) & (GPIO_Pin_22 | GPIO_Pin_23)))
/**
* @brief 读取GPIOA端口引脚中断标志状态
*
* @param pin - PA0-PA15
*
* @return GPIOA端口引脚中断标志状态
*/
#define GPIOA_ReadITFlagBit(pin) (R16_PA_INT_IF & (pin))
/**
* @brief 读取GPIOB端口引脚中断标志状态
*
* @param pin - PB0-PB23
*
* @return GPIOB端口引脚中断标志状态
*/
#define GPIOB_ReadITFlagBit(pin) (R16_PB_INT_IF & ((pin) | (((pin) & (GPIO_Pin_22 | GPIO_Pin_23)) >> 14)))
/**
* @brief 清除GPIOA端口引脚中断标志状态
*
* @param pin - PA0-PA15
*/
#define GPIOA_ClearITFlagBit(pin) (R16_PA_INT_IF = pin)
/**
* @brief 清除GPIOB端口引脚中断标志状态
*
* @param pin - PB0-PB23
*/
#define GPIOB_ClearITFlagBit(pin) (R16_PB_INT_IF = ((pin) | (((pin) & (GPIO_Pin_22 | GPIO_Pin_23)) >> 14)))
/**
* @brief 外设功能引脚映射
*
* @param s - 是否使能映射
* @param perph - RB_RF_ANT_SW_EN - RF antenna switch control output on PB16/PB17/PB18/PB19/PB20/PB21
* RB_PIN_U0_INV - RXD0/RXD0_/TXD0/TXD0_ invert input/output
* RB_PIN_INTX - INTX: INT24/INT25 PB8/PB9 -> INT24_/INT25_ PB22/PB23
* RB_PIN_MODEM - MODEM: PB1/PB5 -> PB14/PB15
* RB_PIN_I2C - I2C: PB13/PB12 -> PB21/PB20
* RB_PIN_PWMX - PWMX: PA12/PA13/PB4/PB6/PB7 -> PA6/PA7/PB1/PB2/PB3
* RB_PIN_SPI0 - SPI0: PA12/PA13/PA14/PA15 -> PB12/PB13/PB14/PB15
* RB_PIN_UART3 - UART3: PA4/PA5 -> PB20/PB21
* RB_PIN_UART2 - UART2: PA6/PA7 -> PB22/PB23
* RB_PIN_UART1 - UART1: PA8/PA9 -> PB12/PB13
* RB_PIN_UART0 - UART0: PB4/PB7 -> PA15/PA14
* RB_PIN_TMR3 - TMR2: PA9 -> PB23
* RB_PIN_TMR2 - TMR2: PA11 -> PB11
* RB_PIN_TMR1 - TMR1: PA10 -> PB10
* RB_PIN_TMR0 - TMR0: PA9 -> PB23
*/
void GPIOPinRemap(FunctionalState s, uint16_t perph);
/**
* @brief 模拟外设GPIO引脚功能控制
*
* @param s - 是否启用模拟外设功能
* @param perph - RB_PIN_ADC8_9_IE - ADC/TKEY 9/8通道
* RB_PIN_ADC6_7_IE - ADC/TKEY 7/6通道
* RB_PIN_ADC10_IE - ADC/TKEY 10通道
* RB_PIN_ADC11_IE - ADC/TKEY 11 通道
* RB_PIN_USB2_DP_PU - USB2 U2D+引脚内部上拉电阻
* RB_PIN_USB2_IE - USB2引脚
* RB_PIN_USB_DP_PU - USB UD+引脚内部上拉电阻
* RB_PIN_USB_IE - USB 引脚
* RB_PIN_ADC0_IE - ADC/TKEY 0 通道
* RB_PIN_ADC1_IE - ADC/TKEY 1 通道
* RB_PIN_ADC12_IE - ADC/TKEY 12 通道
* RB_PIN_ADC13_IE - ADC/TKEY 13 通道
* RB_PIN_XT32K_IE - 32KHz晶振LSE引脚
* RB_PIN_ADC2_3_IE - ADC/TKEY 2/3 通道
* RB_PIN_ADC4_5_IE - ADC/TKEY 4/5 通道
*/
void GPIOAGPPCfg(FunctionalState s, uint16_t perph);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_GPIO_H__

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#ifndef __CH59x_I2C_H__
#define __CH59x_I2C_H__
#ifdef __cplusplus
extern "C" {
#endif
/* I2C_transfer_direction */
#define I2C_Direction_Transmitter ((uint8_t)0x00)
#define I2C_Direction_Receiver ((uint8_t)0x01)
/* I2C ADD0 mask */
#define OADDR1_ADD0_Set ((uint16_t)0x0001)
#define OADDR1_ADD0_Reset ((uint16_t)0xFFFE)
/* I2C_NACK_position */
#define I2C_NACKPosition_Next ((uint16_t)RB_I2C_POS)
#define I2C_NACKPosition_Current ((uint16_t)~RB_I2C_POS)
/* I2C_PEC_position */
#define I2C_PECPosition_Next ((uint16_t)RB_I2C_POS)
#define I2C_PECPosition_Current ((uint16_t)~RB_I2C_POS)
/* I2C_SMBus_alert_pin_level */
#define I2C_SMBusAlert_Low ((uint16_t)RB_I2C_ALERT)
#define I2C_SMBusAlert_High ((uint16_t)~RB_I2C_ALERT)
/* I2C FLAG mask */
#define FLAG_Mask ((uint32_t)0x00FFFFFF)
/* I2C Interrupt Enable mask */
#define ITEN_Mask ((uint32_t)0x07000000)
/* I2C_mode */
typedef enum
{
I2C_Mode_I2C = 0x0000,
I2C_Mode_SMBusDevice = 0x0002,
I2C_Mode_SMBusHost = 0x000A,
} I2C_ModeTypeDef;
/* I2C_duty_cycle_in_fast_mode */
typedef enum
{
I2C_DutyCycle_16_9 = RB_I2C_DUTY, /* I2C fast mode Tlow/Thigh = 16/9 */
I2C_DutyCycle_2 = 0x0000, /* I2C fast mode Tlow/Thigh = 2 */
} I2C_DutyTypeDef;
/* I2C_acknowledgement - Enables or disables the acknowledgement.*/
typedef enum
{
I2C_Ack_Enable = RB_I2C_ACK,
I2C_Ack_Disable = 0x0000,
} I2C_AckTypeDef;
/* I2C_acknowledged_address - Specifies if 7-bit or 10-bit address is acknowledged. */
typedef enum
{
I2C_AckAddr_7bit = 0x4000,
I2C_AckAddr_10bit = 0xC000,
} I2C_AckAddrTypeDef;
/* I2C_interrupts_definition */
typedef enum
{
I2C_IT_BUF = 0x0400, /* Buffer interrupt mask. */
I2C_IT_EVT = 0x0200, /* Event interrupt mask. */
I2C_IT_ERR = 0x0100, /* Error interrupt mask. */
} I2C_ITTypeDef;
/* I2C_interrupts_definition */
#define I2C_IT_SMBALERT ((uint32_t)0x01008000)
#define I2C_IT_TIMEOUT ((uint32_t)0x01004000)
#define I2C_IT_PECERR ((uint32_t)0x01001000)
#define I2C_IT_OVR ((uint32_t)0x01000800)
#define I2C_IT_AF ((uint32_t)0x01000400)
#define I2C_IT_ARLO ((uint32_t)0x01000200)
#define I2C_IT_BERR ((uint32_t)0x01000100)
#define I2C_IT_TXE ((uint32_t)0x06000080)
#define I2C_IT_RXNE ((uint32_t)0x06000040)
#define I2C_IT_STOPF ((uint32_t)0x02000010)
#define I2C_IT_ADD10 ((uint32_t)0x02000008)
#define I2C_IT_BTF ((uint32_t)0x02000004)
#define I2C_IT_ADDR ((uint32_t)0x02000002)
#define I2C_IT_SB ((uint32_t)0x02000001)
/* SR2 register flags */
#define I2C_FLAG_DUALF ((uint32_t)0x00800000)
#define I2C_FLAG_SMBHOST ((uint32_t)0x00400000)
#define I2C_FLAG_SMBDEFAULT ((uint32_t)0x00200000)
#define I2C_FLAG_GENCALL ((uint32_t)0x00100000)
#define I2C_FLAG_TRA ((uint32_t)0x00040000)
#define I2C_FLAG_BUSY ((uint32_t)0x00020000)
#define I2C_FLAG_MSL ((uint32_t)0x00010000)
/* SR1 register flags */
#define I2C_FLAG_SMBALERT ((uint32_t)0x10008000)
#define I2C_FLAG_TIMEOUT ((uint32_t)0x10004000)
#define I2C_FLAG_PECERR ((uint32_t)0x10001000)
#define I2C_FLAG_OVR ((uint32_t)0x10000800)
#define I2C_FLAG_AF ((uint32_t)0x10000400)
#define I2C_FLAG_ARLO ((uint32_t)0x10000200)
#define I2C_FLAG_BERR ((uint32_t)0x10000100)
#define I2C_FLAG_TXE ((uint32_t)0x10000080)
#define I2C_FLAG_RXNE ((uint32_t)0x10000040)
#define I2C_FLAG_STOPF ((uint32_t)0x10000010)
#define I2C_FLAG_ADD10 ((uint32_t)0x10000008)
#define I2C_FLAG_BTF ((uint32_t)0x10000004)
#define I2C_FLAG_ADDR ((uint32_t)0x10000002)
#define I2C_FLAG_SB ((uint32_t)0x10000001)
/****************I2C Master Events (Events grouped in order of communication)********************/
#define I2C_EVENT_MASTER_MODE_SELECT ((uint32_t)0x00030001) /* BUSY, MSL and SB flag */
#define I2C_EVENT_MASTER_TRANSMITTER_MODE_SELECTED ((uint32_t)0x00070082) /* BUSY, MSL, ADDR, TXE and TRA flags */
#define I2C_EVENT_MASTER_RECEIVER_MODE_SELECTED ((uint32_t)0x00030002) /* BUSY, MSL and ADDR flags */
#define I2C_EVENT_MASTER_MODE_ADDRESS10 ((uint32_t)0x00030008) /* BUSY, MSL and ADD10 flags */
#define I2C_EVENT_MASTER_BYTE_RECEIVED ((uint32_t)0x00030040) /* BUSY, MSL and RXNE flags */
#define I2C_EVENT_MASTER_BYTE_TRANSMITTING ((uint32_t)0x00070080) /* TRA, BUSY, MSL, TXE flags */
#define I2C_EVENT_MASTER_BYTE_TRANSMITTED ((uint32_t)0x00070084) /* TRA, BUSY, MSL, TXE and BTF flags */
/******************I2C Slave Events (Events grouped in order of communication)******************/
#define I2C_EVENT_SLAVE_RECEIVER_ADDRESS_MATCHED ((uint32_t)0x00020002) /* BUSY and ADDR flags */
#define I2C_EVENT_SLAVE_TRANSMITTER_ADDRESS_MATCHED ((uint32_t)0x00060082) /* TRA, BUSY, TXE and ADDR flags */
#define I2C_EVENT_SLAVE_RECEIVER_SECONDADDRESS_MATCHED ((uint32_t)0x00820000) /* DUALF and BUSY flags */
#define I2C_EVENT_SLAVE_TRANSMITTER_SECONDADDRESS_MATCHED ((uint32_t)0x00860080) /* DUALF, TRA, BUSY and TXE flags */
#define I2C_EVENT_SLAVE_GENERALCALLADDRESS_MATCHED ((uint32_t)0x00120000) /* GENCALL and BUSY flags */
#define I2C_EVENT_SLAVE_BYTE_RECEIVED ((uint32_t)0x00020040) /* BUSY and RXNE flags */
#define I2C_EVENT_SLAVE_STOP_DETECTED ((uint32_t)0x00000010) /* STOPF flag */
#define I2C_EVENT_SLAVE_BYTE_TRANSMITTED ((uint32_t)0x00060084) /* TRA, BUSY, TXE and BTF flags */
#define I2C_EVENT_SLAVE_BYTE_TRANSMITTING ((uint32_t)0x00060080) /* TRA, BUSY and TXE flags */
#define I2C_EVENT_SLAVE_ACK_FAILURE ((uint32_t)0x00000400) /* AF flag */
void I2C_Init(I2C_ModeTypeDef I2C_Mode, UINT32 I2C_ClockSpeed, I2C_DutyTypeDef I2C_DutyCycle,
I2C_AckTypeDef I2C_Ack, I2C_AckAddrTypeDef I2C_AckAddr, UINT16 I2C_OwnAddress1);
void I2C_Cmd(FunctionalState NewState);
void I2C_GenerateSTART(FunctionalState NewState);
void I2C_GenerateSTOP(FunctionalState NewState);
void I2C_AcknowledgeConfig(FunctionalState NewState);
void I2C_OwnAddress2Config(uint8_t Address);
void I2C_DualAddressCmd(FunctionalState NewState);
void I2C_GeneralCallCmd(FunctionalState NewState);
void I2C_ITConfig(I2C_ITTypeDef I2C_IT, FunctionalState NewState);
void I2C_SendData(uint8_t Data);
uint8_t I2C_ReceiveData(void);
void I2C_Send7bitAddress(uint8_t Address, uint8_t I2C_Direction);
void I2C_SoftwareResetCmd(FunctionalState NewState);
void I2C_NACKPositionConfig(uint16_t I2C_NACKPosition);
void I2C_SMBusAlertConfig(uint16_t I2C_SMBusAlert);
void I2C_TransmitPEC(FunctionalState NewState);
void I2C_PECPositionConfig(uint16_t I2C_PECPosition);
void I2C_CalculatePEC(FunctionalState NewState);
uint8_t I2C_GetPEC(void);
void I2C_ARPCmd(FunctionalState NewState);
void I2C_StretchClockCmd(FunctionalState NewState);
void I2C_FastModeDutyCycleConfig(uint16_t I2C_DutyCycle);
/****************************************************************************************
* I2C State Monitoring Functions
****************************************************************************************/
uint8_t I2C_CheckEvent(uint32_t I2C_EVENT);
uint32_t I2C_GetLastEvent(void);
FlagStatus I2C_GetFlagStatus(uint32_t I2C_FLAG);
void I2C_ClearFlag(uint32_t I2C_FLAG);
ITStatus I2C_GetITStatus(uint32_t I2C_IT);
void I2C_ClearITPendingBit(uint32_t I2C_IT);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_I2C_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_lcd.h
* Author : WCH
* Version : V1.0
* Date : 2022/12/05
* Description :
********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_LCD_H__
#define __CH59x_LCD_H__
#ifdef __cplusplus
extern "C" {
#endif
#include "CH592SFR.h"
/**
* @brief Configuration LCD driver power
*/
typedef enum
{
LCD_PS_3V3 = 0, // 3.3V 驱动
LCD_PS_2V5, // 2.5V 驱动
}LCDDrvPowerTypeDef;
/**
* @brief Configuration LCD bias
*/
typedef enum
{
LCD_1_2_Bias = 0, // 2级分压
LCD_1_3_Bias, // 3级分压
}LCDBiasTypeDef;
/**
* @brief Configuration LCD duty
*/
typedef enum
{
LCD_1_2_Duty = 0, // COM0-COM1
LCD_1_3_Duty, // COM0-COM2
LCD_1_4_Duty, // COM0-COM3
}LCDDutyTypeDef;
/**
* @brief Configuration LCD scan clk
*/
typedef enum
{
LCD_CLK_256 = 0, // 256Hz
LCD_CLK_512, // 512Hz
LCD_CLK_1000, // 1KHz
LCD_CLK_128 // 128Hz
}LCDSCANCLKTypeDef;
/* LCD段式屏驱动初始化配置 */
void LCD_Init(LCDDutyTypeDef duty, LCDBiasTypeDef bias);
#define LCD_PowerDown() (R32_LCD_CMD &= ~(RB_LCD_ON | RB_LCD_SYS_EN)) /* LCD功能模块关闭 */
#define LCD_PowerOn() (R32_LCD_CMD |= (RB_LCD_ON | RB_LCD_SYS_EN)) /* LCD功能模块开启 */
// 输入值参考 LCDDrvPowerTypeDef
#define LCD_PowerCfg( d ) (R32_LCD_CMD = (R32_LCD_CMD & ~RB_LCD_VLCD_SEL) | (d<<7)) /* 配置LCD的 供电电压选择 */
// 输入值参考 LCDSCANCLKTypeDef
#define LCD_ScanCLKCfg( d ) (R32_LCD_CMD = (R32_LCD_CMD & ~RB_LCD_SCAN_CLK) | (d<<5)) /* 配置LCD的 扫描时钟选择 */
// 输入值参考 LCDDutyTypeDef
#define LCD_DutyCfg( d ) (R32_LCD_CMD = (R32_LCD_CMD & ~RB_LCD_DUTY) | (d<<3)) /* 配置LCD的 duty选择 */
// 输入值参考 LCDBiasTypeDef
#define LCD_BiasCfg( d ) (R32_LCD_CMD = (R32_LCD_CMD & ~RB_LCD_BIAS) | (d<<2)) /* 配置LCD的 bias选择 */
#define LCD_WriteData0( d ) (R32_LCD_RAM0 = (R32_LCD_RAM0 & 0xffffff00) | ((UINT32)d)) /* 填充SEG0驱动数值 */
#define LCD_WriteData1( d ) (R32_LCD_RAM0 = (R32_LCD_RAM0 & 0xffff00ff) | ((UINT32)d<<8)) /* 填充SEG1驱动数值 */
#define LCD_WriteData2( d ) (R32_LCD_RAM0 = (R32_LCD_RAM0 & 0xff00ffff) | ((UINT32)d<<16)) /* 填充SEG2驱动数值 */
#define LCD_WriteData3( d ) (R32_LCD_RAM0 = (R32_LCD_RAM0 & 0x00ffffff) | ((UINT32)d<<24)) /* 填充SEG3驱动数值 */
#define LCD_WriteData4( d ) (R32_LCD_RAM1 = (R32_LCD_RAM1 & 0xffffff00) | ((UINT32)d)) /* 填充SEG4驱动数值 */
#define LCD_WriteData5( d ) (R32_LCD_RAM1 = (R32_LCD_RAM1 & 0xffff00ff) | ((UINT32)d<<8)) /* 填充SEG5驱动数值 */
#define LCD_WriteData6( d ) (R32_LCD_RAM1 = (R32_LCD_RAM1 & 0xff00ffff) | ((UINT32)d<<16)) /* 填充SEG6驱动数值 */
#define LCD_WriteData7( d ) (R32_LCD_RAM1 = (R32_LCD_RAM1 & 0x00ffffff) | ((UINT32)d<<24)) /* 填充SEG7驱动数值 */
#define LCD_WriteData8( d ) (R32_LCD_RAM2 = (R32_LCD_RAM2 & 0xffffff00) | ((UINT32)d)) /* 填充SEG8驱动数值 */
#define LCD_WriteData9( d ) (R32_LCD_RAM2 = (R32_LCD_RAM2 & 0xffff00ff) | ((UINT32)d<<8)) /* 填充SEG9驱动数值 */
#define LCD_WriteData10( d ) (R32_LCD_RAM2 = (R32_LCD_RAM2 & 0xff00ffff) | ((UINT32)d<<16)) /* 填充SEG10驱动数值 */
#ifdef __cplusplus
}
#endif
#endif // __CH59x_LCD_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_pwm.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_PWM_H__
#define __CH59x_PWM_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief channel of PWM define
*/
#define CH_PWM4 0x01 // PWM4 通道
#define CH_PWM5 0x02 // PWM5 通道
#define CH_PWM6 0x04 // PWM6 通道
#define CH_PWM7 0x08 // PWM7 通道
#define CH_PWM8 0x10 // PWM8 通道
#define CH_PWM9 0x20 // PWM9 通道
#define CH_PWM10 0x40 // PWM10 通道
#define CH_PWM11 0x80 // PWM11 通道
/**
* @brief channel of PWM define
*/
typedef enum
{
High_Level = 0, // 默认低电平，高电平有效
Low_Level, // 默认高电平，低电平有效
} PWMX_PolarTypeDef;
/**
* @brief Configuration PWM4_11 Cycle size
*/
typedef enum
{
PWMX_Cycle_256 = 0, // 256 个PWMX周期
PWMX_Cycle_255, // 255 个PWMX周期
PWMX_Cycle_128, // 128 个PWMX周期
PWMX_Cycle_127, // 127 个PWMX周期
PWMX_Cycle_64, // 64 个PWMX周期
PWMX_Cycle_63, // 63 个PWMX周期
PWMX_Cycle_32, // 32 个PWMX周期
PWMX_Cycle_31, // 31 个PWMX周期
} PWMX_CycleTypeDef;
/**
* @brief PWM4-PWM11 通道基准时钟配置
*
* @param d - 通道基准时钟 = d*Tsys
*/
#define PWMX_CLKCfg(d) (R8_PWM_CLOCK_DIV = d)
/**
* @brief PWM4-PWM11基准时钟配置
*
* @param cyc - refer to PWMX_CycleTypeDef
*/
void PWMX_CycleCfg(PWMX_CycleTypeDef cyc);
/**
* @brief 设置 PWM4 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM4_ActDataWidth(d) (R8_PWM4_DATA = d)
/**
* @brief 设置 PWM5 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM5_ActDataWidth(d) (R8_PWM5_DATA = d)
/**
* @brief 设置 PWM6 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM6_ActDataWidth(d) (R8_PWM6_DATA = d)
/**
* @brief 设置 PWM7 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM7_ActDataWidth(d) (R8_PWM7_DATA = d)
/**
* @brief 设置 PWM8 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM8_ActDataWidth(d) (R8_PWM8_DATA = d)
/**
* @brief 设置 PWM9 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM9_ActDataWidth(d) (R8_PWM9_DATA = d)
/**
* @brief 设置 PWM10 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM10_ActDataWidth(d) (R8_PWM10_DATA = d)
/**
* @brief 设置 PWM11 有效数据脉宽
*
* @param d - 有效数据脉宽
*/
#define PWM11_ActDataWidth(d) (R8_PWM11_DATA = d)
/**
* @brief PWM4-PWM11通道输出波形配置
*
* @param ch - select channel of pwm, refer to channel of PWM define
* @param da - effective pulse width
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param s - control pwmx function, ENABLE or DISABLE
*/
void PWMX_ACTOUT(uint8_t ch, uint8_t da, PWMX_PolarTypeDef pr, FunctionalState s);
/**
* @brief PWM 交替输出模式配置
*
* @param ch - select group of PWM alternate output
* RB_PWM4_5_STAG_EN - PWM4 和 PWM5 通道交替输出
* RB_PWM6_7_STAG_EN - PWM6 和 PWM7 通道交替输出
* RB_PWM8_9_STAG_EN - PWM8 和 PWM9 通道交替输出
* RB_PWM10_11_STAG_EN - PWM10 和 PWM11 通道交替输出
* @param s - control pwmx function, ENABLE or DISABLE
*/
void PWMX_AlterOutCfg(uint8_t ch, FunctionalState s);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_PWM_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_pwr.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_PWR_H__
#define __CH59x_PWR_H__
#ifdef __cplusplus
extern "C" {
#endif
#define ROM_CFG_ADR_HW 0x7F00C // config address for hardware config for LDO&OSC and etc
/**
* @brief Peripher CLK control bit define
*/
#define BIT_SLP_CLK_TMR0 (0x00000001) /*!< TMR0 peripher clk bit */
#define BIT_SLP_CLK_TMR1 (0x00000002) /*!< TMR1 peripher clk bit */
#define BIT_SLP_CLK_TMR2 (0x00000004) /*!< TMR2 peripher clk bit */
#define BIT_SLP_CLK_TMR3 (0x00000008) /*!< TMR3 peripher clk bit */
#define BIT_SLP_CLK_UART0 (0x00000010) /*!< UART0 peripher clk bit */
#define BIT_SLP_CLK_UART1 (0x00000020) /*!< UART1 peripher clk bit */
#define BIT_SLP_CLK_UART2 (0x00000040) /*!< UART2 peripher clk bit */
#define BIT_SLP_CLK_UART3 (0x00000080) /*!< UART3 peripher clk bit */
#define BIT_SLP_CLK_SPI0 (0x00000100) /*!< SPI0 peripher clk bit */
//#define BIT_SLP_CLK_SPI1 (0x00000200) /*!< SPI1 peripher clk bit */
#define BIT_SLP_CLK_PWMX (0x00000400) /*!< PWMX peripher clk bit */
//#define BIT_SLP_CLK_LCD (0x00000800) /*!< LCD peripher clk bit */
#define BIT_SLP_CLK_USB (0x00001000) /*!< USB peripher clk bit */
//#define BIT_SLP_CLK_ETH (0x00002000) /*!< ETH peripher clk bit */
//#define BIT_SLP_CLK_LED (0x00004000) /*!< LED peripher clk bit */
#define BIT_SLP_CLK_BLE (0x00008000) /*!< BLE peripher clk bit */
#define BIT_SLP_CLK_RAMX (0x10000000) /*!< main SRAM RAM16K peripher clk bit */
#define BIT_SLP_CLK_RAM2K (0x20000000) /*!< RAM2K peripher clk bit */
#define BIT_SLP_CLK_ALL (0x3000FFFF) /*!< All peripher clk bit */
/**
* @brief unit of controllable power supply
*/
#define UNIT_SYS_LSE RB_CLK_XT32K_PON // 外部32K 时钟振荡
#define UNIT_SYS_LSI RB_CLK_INT32K_PON // 内部32K 时钟振荡
#define UNIT_SYS_HSE RB_CLK_XT32M_PON // 外部32M 时钟振荡
#define UNIT_SYS_PLL RB_CLK_PLL_PON // PLL 时钟振荡
/**
* @brief wakeup mode define
*/
typedef enum
{
Short_Delay = 0,
Long_Delay,
} WakeUP_ModeypeDef;
/**
* @brief wakeup mode define
*/
typedef enum
{
/* 下面等级将使用高精度监控，210uA消耗 */
HALevel_1V9 = 0, // 1.7-1.9
HALevel_2V1, // 1.9-2.1
HALevel_2V3, // 2.1-2.3
HALevel_2V5, // 2.3-2.5
/* 下面等级将使用低功耗监控，1uA消耗 */
LPLevel_1V8 = 0x80,
LPLevel_1V9,
LPLevel_2V0,
LPLevel_2V1,
LPLevel_2V2,
LPLevel_2V3,
LPLevel_2V4,
LPLevel_2V5,
} VolM_LevelypeDef;
/**
* @brief 启用内部DC/DC电源，用于节约系统功耗
*
* @param s - 是否打开DCDC电源
*/
void PWR_DCDCCfg(FunctionalState s);
/**
* @brief 可控单元模块的电源控制
*
* @param s - 是否打开电源
* @param unit - please refer to unit of controllable power supply
*/
void PWR_UnitModCfg(FunctionalState s, uint8_t unit);
/**
* @brief 外设时钟控制位
*
* @param s - 是否打开对应外设时钟
* @param perph - please refer to Peripher CLK control bit define
*/
void PWR_PeriphClkCfg(FunctionalState s, uint16_t perph);
/**
* @brief 睡眠唤醒源配置
*
* @param s - 是否打开此外设睡眠唤醒功能
* @param perph - 需要设置的唤醒源
* RB_SLP_USB_WAKE - USB 为唤醒源
* RB_SLP_RTC_WAKE - RTC 为唤醒源
* RB_SLP_GPIO_WAKE - GPIO 为唤醒源
* RB_SLP_BAT_WAKE - BAT 为唤醒源
* @param mode - refer to WakeUP_ModeypeDef
*/
void PWR_PeriphWakeUpCfg(FunctionalState s, uint8_t perph, WakeUP_ModeypeDef mode);
/**
* @brief 电源监控
*
* @param s - 是否打开此功能
* @param vl - refer to VolM_LevelypeDef
*/
void PowerMonitor(FunctionalState s, VolM_LevelypeDef vl);
/**
* @brief 低功耗-Idle模式
*/
void LowPower_Idle(void);
/**
* @brief 低功耗-Halt模式，此低功耗切到HSI/5时钟运行，唤醒后需要用户自己重新选择系统时钟源
*/
void LowPower_Halt(void);
/**
* @brief 低功耗-Sleep模式，此低功耗切到HSI/5时钟运行，唤醒后需要用户自己重新选择系统时钟源
* @note 注意调用此函数，DCDC功能强制关闭，唤醒后可以手动再次打开
*
* @param rm - 供电模块选择
* RB_PWR_RAM2K - 2K retention SRAM 供电
* RB_PWR_RAM16K - 16K main SRAM 供电
* RB_PWR_EXTEND - USB 和 BLE 单元保留区域供电
* RB_PWR_XROM - FlashROM 供电
* NULL - 以上单元都断电
*/
void LowPower_Sleep(uint16_t rm);
/**
* @brief 低功耗-Shutdown模式，此低功耗切到HSI/5时钟运行，唤醒后需要用户自己重新选择系统时钟源
* @note 注意调用此函数，DCDC功能强制关闭，唤醒后可以手动再次打开
*
* @param rm - 供电模块选择
* RB_PWR_RAM2K - 2K retention SRAM 供电
* RB_PWR_RAM16K - 16K main SRAM 供电
* NULL - 以上单元都断电
*/
void LowPower_Shutdown(uint16_t rm);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_PWR_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_SPI.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_SPI_H__
#define __CH59x_SPI_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief SPI0 interrupt bit define
*/
#define SPI0_IT_FST_BYTE RB_SPI_IE_FST_BYTE // 从机模式的首字节命令模式下，接收到首字节中断
#define SPI0_IT_FIFO_OV RB_SPI_IE_FIFO_OV // FIFO 溢出
#define SPI0_IT_DMA_END RB_SPI_IE_DMA_END // DMA 传输结束
#define SPI0_IT_FIFO_HF RB_SPI_IE_FIFO_HF // FIFO 使用过半
#define SPI0_IT_BYTE_END RB_SPI_IE_BYTE_END // 单字节传输完成
#define SPI0_IT_CNT_END RB_SPI_IE_CNT_END // 全部字节传输完成
/**
* @brief Configuration data mode
*/
typedef enum
{
Mode0_LowBitINFront = 0, // 模式0，低位在前
Mode0_HighBitINFront, // 模式0，高位在前
Mode3_LowBitINFront, // 模式3，低位在前
Mode3_HighBitINFront, // 模式3，高位在前
} ModeBitOrderTypeDef;
/**
* @brief Configuration SPI0 slave mode
*/
typedef enum
{
Mode_DataStream = 0, // 数据流模式
Mose_FirstCmd, // 首字节命令模式
} Slave_ModeTypeDef;
/**
* @brief 主机模式默认初始化：模式0+3线全双工+8MHz
*/
void SPI0_MasterDefInit(void);
/**
* @brief SPI0 基准时钟配置，= d*Tsys
*
* @param c - 时钟分频系数
*/
void SPI0_CLKCfg(uint8_t c);
/**
* @brief 设置数据流模式
*
* @param m - 数据流模式 refer to ModeBitOrderTypeDef
*/
void SPI0_DataMode(ModeBitOrderTypeDef m);
/**
* @brief 发送单字节 (buffer)
*
* @param d - 发送字节
*/
void SPI0_MasterSendByte(uint8_t d);
/**
* @brief 接收单字节 (buffer)
*
* @param none
*/
uint8_t SPI0_MasterRecvByte(void);
/**
* @brief 使用FIFO连续发送多字节
*
* @param pbuf - 待发送的数据内容首地址
* @param len - 请求发送的数据长度，最大4095
*/
void SPI0_MasterTrans(uint8_t *pbuf, uint16_t len);
/**
* @brief 使用FIFO连续接收多字节
*
* @param pbuf - 待接收的数据首地址
* @param len - 待接收的数据长度，最大4095
*/
void SPI0_MasterRecv(uint8_t *pbuf, uint16_t len);
/**
* @brief DMA方式连续发送数据
*
* @param pbuf - 待发送数据起始地址,需要四字节对其
* @param len - 待发送数据长度
*/
void SPI0_MasterDMATrans(uint8_t *pbuf, uint16_t len);
/**
* @brief DMA方式连续接收数据
*
* @param pbuf - 待接收数据存放起始地址,需要四字节对其
* @param len - 待接收数据长度
*/
void SPI0_MasterDMARecv(uint8_t *pbuf, uint16_t len);
void SPI1_MasterDefInit(void); /* 主机模式默认初始化：模式0+3线全双工+8MHz */
void SPI1_CLKCfg(UINT8 c); /* SPI1 基准时钟配置，= d*Tsys */
void SPI1_DataMode(ModeBitOrderTypeDef m); /* 设置数据流模式 */
void SPI1_MasterSendByte(UINT8 d); /* 发送单字节 (buffer) */
UINT8 SPI1_MasterRecvByte(void); /* 接收单字节 (buffer) */
void SPI1_MasterTrans(UINT8 *pbuf, UINT16 len); /* 使用FIFO连续发送多字节 */
void SPI1_MasterRecv(UINT8 *pbuf, UINT16 len); /* 使用FIFO连续接收多字节 */
/**
* @brief 设备模式默认初始化，建议设置MISO的GPIO对应为输入模式
*/
void SPI0_SlaveInit(void);
/**
* @brief 加载首字节数据内容
*
* @param d - 首字节数据内容
*/
#define SetFirstData(d) (R8_SPI0_SLAVE_PRE = d)
/**
* @brief 从机模式，发送一字节数据
*
* @param d - 待发送数据
*/
void SPI0_SlaveSendByte(uint8_t d);
/**
* @brief 从机模式，接收一字节数据
*
* @return 接收到数据
*/
uint8_t SPI0_SlaveRecvByte(void);
/**
* @brief 从机模式，发送多字节数据
*
* @param pbuf - 待发送的数据内容首地址
* @param len - 请求发送的数据长度，最大4095
*/
void SPI0_SlaveTrans(uint8_t *pbuf, uint16_t len);
/**
* @brief 从机模式，接收多字节数据
*
* @param pbuf - 接收收数据存放起始地址
* @param len - 请求接收数据长度
*/
void SPI0_SlaveRecv(uint8_t *pbuf, uint16_t len);
/**
* @brief DMA方式连续发送数据
*
* @param pbuf - 待发送数据起始地址,需要四字节对其
* @param len - 待发送数据长度
*/
void SPI0_SlaveDMATrans(uint8_t *pbuf, uint16_t len);
/**
* @brief DMA方式连续接收数据
*
* @param pbuf - 待接收数据存放起始地址,需要四字节对其
* @param len - 待接收数据长度
*/
void SPI0_SlaveDMARecv(uint8_t *pbuf, uint16_t len);
/**
* @brief 配置SPI0中断
*
* @param s - 使能/关闭
* @param f - refer to SPI0 interrupt bit define
*/
#define SPI0_ITCfg(s, f) ((s) ? (R8_SPI0_INTER_EN |= f) : (R8_SPI0_INTER_EN &= ~f))
/**
* @brief 获取中断标志状态，0-未置位，(!0)-触发
*
* @param f - refer to SPI0 interrupt bit define
*/
#define SPI0_GetITFlag(f) (R8_SPI0_INT_FLAG & f)
/**
* @brief 清除当前中断标志
*
* @param f - refer to SPI0 interrupt bit define
*/
#define SPI0_ClearITFlag(f) (R8_SPI0_INT_FLAG = f)
/**
* @brief 关闭SPI0
*/
#define SPI0_Disable() (R8_SPI0_CTRL_MOD &= ~(RB_SPI_MOSI_OE | RB_SPI_SCK_OE | RB_SPI_MISO_OE))
#ifdef __cplusplus
}
#endif
#endif // __CH59x_SPI_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_SYS.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_SYS_H__
#define __CH59x_SYS_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief rtc interrupt event define
*/
typedef enum
{
RST_STATUS_SW = 0, // 软件复位
RST_STATUS_RPOR, // 上电复位
RST_STATUS_WTR, // 看门狗超时复位
RST_STATUS_MR, // 外部手动复位
RST_STATUS_LRM0, // 唤醒复位-软复位引起
RST_STATUS_GPWSM, // 下电模式唤醒复位
RST_STATUS_LRM1, // 唤醒复位-看门狗引起
RST_STATUS_LRM2, // 唤醒复位-手动复位引起
} SYS_ResetStaTypeDef;
/**
* @brief rtc interrupt event define
*/
typedef enum
{
INFO_ROM_READ = 0, // FlashROM 代码和数据区 是否可读
INFO_RESET_EN = 2, // RST#外部手动复位输入功能是否开启
INFO_BOOT_EN, // 系统引导程序 BootLoader 是否开启
INFO_DEBUG_EN, // 系统仿真调试接口是否开启
INFO_LOADER, // 当前系统是否处于Bootloader 区
STA_SAFEACC_ACT, // 当前系统是否处于安全访问状态，否则RWA属性区域不可访问
} SYS_InfoStaTypeDef;
/**
* @brief 获取芯片ID类，一般为固定值
*/
#define SYS_GetChipID() R8_CHIP_ID
/**
* @brief 获取安全访问ID，一般为固定值
*/
#define SYS_GetAccessID() R8_SAFE_ACCESS_ID
/**
* @brief 配置系统运行时钟
*
* @param sc - 系统时钟源选择 refer to SYS_CLKTypeDef
*/
void SetSysClock(SYS_CLKTypeDef sc);
/**
* @brief 获取当前系统时钟
*
* @return Hz
*/
uint32_t GetSysClock(void);
/**
* @brief 获取当前系统信息状态
*
* @param i - refer to SYS_InfoStaTypeDef
*
* @return 是否开启
*/
uint8_t SYS_GetInfoSta(SYS_InfoStaTypeDef i);
/**
* @brief 获取系统上次复位状态
*
* @return refer to SYS_ResetStaTypeDef
*/
#define SYS_GetLastResetSta() (R8_RESET_STATUS & RB_RESET_FLAG)
/**
* @brief 执行系统软件复位
*/
void SYS_ResetExecute(void);
/**
* @brief 设置复位保存寄存器的值，不受手动复位、 软件复位、 看门狗复位或者普通唤醒复位的影响
*
* @param i - refer to SYS_InfoStaTypeDef
*/
#define SYS_ResetKeepBuf(d) (R8_GLOB_RESET_KEEP = d)
/**
* @brief 关闭所有中断，并保留当前中断值
*
* @param pirqv - 当前保留中断值
*/
void SYS_DisableAllIrq(uint32_t *pirqv);
/**
* @brief 恢复之前关闭的中断值
*
* @param irq_status - 当前保留中断值
*/
void SYS_RecoverIrq(uint32_t irq_status);
/**
* @brief 获取当前系统(SYSTICK)计数值
*
* @return 当前计数值
*/
uint32_t SYS_GetSysTickCnt(void);
/**
* @brief 加载看门狗计数初值，递增型
*
* @param c - 看门狗计数初值
*/
#define WWDG_SetCounter(c) (R8_WDOG_COUNT = c)
/**
* @brief 看门狗定时器溢出中断使能
*
* @param s - 溢出是否中断
*/
void WWDG_ITCfg(FunctionalState s);
/**
* @brief 看门狗定时器复位功能
*
* @param s - 溢出是否复位
*/
void WWDG_ResetCfg(FunctionalState s);
/**
* @brief 获取当前看门狗定时器溢出标志
*
* @return 看门狗定时器溢出标志
*/
#define WWDG_GetFlowFlag() (R8_RST_WDOG_CTRL & RB_WDOG_INT_FLAG)
/**
* @brief 清除看门狗中断标志，重新加载计数值也可清除
*/
void WWDG_ClearFlag(void);
/**
* @brief uS 延时
*
* @param t - 时间参数
*/
void mDelayuS(uint16_t t);
/**
* @brief mS 延时
*
* @param t - 时间参数
*/
void mDelaymS(uint16_t t);
extern volatile uint32_t IRQ_STA;
/**
* @brief Enter safe access mode.
*
* @NOTE: After enter safe access mode, about 16 system frequency cycles
* are in safe mode, and one or more secure registers can be rewritten
* within the valid period. The safe mode will be automatically
* terminated after the above validity period is exceeded.
*/
__attribute__((always_inline)) static inline void sys_safe_access_enable(void)
{
if(read_csr(0x800)&0x08)
{
IRQ_STA = read_csr(0x800);
write_csr(0x800, (IRQ_STA&(~0x08)));
}
SAFEOPERATE;
R8_SAFE_ACCESS_SIG = SAFE_ACCESS_SIG1;
R8_SAFE_ACCESS_SIG = SAFE_ACCESS_SIG2;
SAFEOPERATE;
}
__attribute__((always_inline)) static inline void sys_safe_access_disable(void)
{
R8_SAFE_ACCESS_SIG = 0;
write_csr(0x800, read_csr(0x800)|(IRQ_STA&0x08));
IRQ_STA = 0;
SAFEOPERATE;
}
#ifdef __cplusplus
}
#endif
#endif // __CH59x_SYS_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_timer.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_TIMER_H__
#define __CH59x_TIMER_H__
#ifdef __cplusplus
extern "C" {
#endif
#define DataBit_25 (1 << 25)
/**
* @brief TMR0 interrupt bit define
*/
#define TMR0_3_IT_CYC_END 0x01 // 周期结束标志：捕捉-超时，定时-周期结束，PWM-周期结束
#define TMR0_3_IT_DATA_ACT 0x02 // 数据有效标志：捕捉-新数据，PWM-有效电平结束
#define TMR0_3_IT_FIFO_HF 0x04 // FIFO 使用过半：捕捉- FIFO>=4， PWM- FIFO<4
#define TMR1_2_IT_DMA_END 0x08 // DMA 结束，支持TMR1和TMR2
#define TMR0_3_IT_FIFO_OV 0x10 // FIFO 溢出：捕捉- FIFO满， PWM- FIFO空
/**
* @brief Configuration PWM effective level repeat times
*/
typedef enum
{
PWM_Times_1 = 0, // PWM 有效输出重复1次数
PWM_Times_4, // PWM 有效输出重复4次数
PWM_Times_8, // PWM 有效输出重复8次数
PWM_Times_16, // PWM 有效输出重复16次数
} PWM_RepeatTsTypeDef;
/**
* @brief Configuration Cap mode
*/
typedef enum
{
CAP_NULL = 0, // 不捕捉 & 不计数
Edge_To_Edge, // 任意边沿之间 & 计数任意边沿
FallEdge_To_FallEdge, // 下降沿到下降沿 & 计数下降沿
RiseEdge_To_RiseEdge, // 上升沿到上升沿 & 计数上升沿
} CapModeTypeDef;
/**
* @brief Configuration DMA mode
*/
typedef enum
{
Mode_Single = 0, // 单次模式
Mode_LOOP, // 循环模式
} DMAModeTypeDef;
/**
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*/
void TMR0_TimerInit(uint32_t t);
/**
* @brief 获取当前定时器值，最大67108864
*
* @return 当前定时器值
*/
#define TMR0_GetCurrentTimer() R32_TMR0_COUNT
/**
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*/
void TMR0_EXTSingleCounterInit(CapModeTypeDef cap);
/**
* @brief 设置计数统计溢出大小，最大67108862
*
* @param cyc - 计数统计溢出大小
*/
#define TMR0_CountOverflowCfg(cyc) (R32_TMR0_CNT_END = (cyc + 2))
/**
* @brief 获取当前计数值，最大67108862
*
* @return 当前计数值
*/
#define TMR0_GetCurrentCount() R32_TMR0_COUNT
/**
* @brief PWM0 通道输出波形周期配置, 最大67108864
*
* @param cyc - 输出波形周期
*/
#define TMR0_PWMCycleCfg(cyc) (R32_TMR0_CNT_END = cyc)
/**
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*/
void TMR0_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts);
/**
* @brief PWM0 有效数据脉宽, 最大67108864
*
* @param d - 有效数据脉宽
*/
#define TMR0_PWMActDataWidth(d) (R32_TMR0_FIFO = d)
/**
* @brief CAP0 捕捉电平超时配置, 最大33554432
*
* @param cyc - 捕捉电平超时
*/
#define TMR0_CAPTimeoutCfg(cyc) (R32_TMR0_CNT_END = cyc)
/**
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*/
void TMR0_CapInit(CapModeTypeDef cap);
/**
* @brief 获取脉冲数据
*
* @return 脉冲数据
*/
#define TMR0_CAPGetData() R32_TMR0_FIFO
/**
* @brief 获取当前已捕获数据个数
*
* @return 当前已捕获数据个数
*/
#define TMR0_CAPDataCounter() R8_TMR0_FIFO_COUNT
/**
* @brief 关闭 TMR0 PWM输出
*/
#define TMR0_PWMDisable() (R8_TMR0_CTRL_MOD &= ~RB_TMR_OUT_EN)
/**
* @brief 开启 TMR0 PWM输出
*/
#define TMR0_PWMEnable() (R8_TMR0_CTRL_MOD |= RB_TMR_OUT_EN)
/**
* @brief 关闭 TMR0
*/
#define TMR0_Disable() (R8_TMR0_CTRL_MOD &= ~RB_TMR_COUNT_EN)
/**
* @brief 开启 TMR0
*/
#define TMR0_Enable() (R8_TMR0_CTRL_MOD |= RB_TMR_COUNT_EN)
/**
* @brief 中断配置
*
* @param s - 使能/关闭
* @param f - refer to TMR interrupt bit define
*/
#define TMR0_ITCfg(s, f) ((s) ? (R8_TMR0_INTER_EN |= f) : (R8_TMR0_INTER_EN &= ~f))
/**
* @brief 清除中断标志
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR0_ClearITFlag(f) (R8_TMR0_INT_FLAG = f)
/**
* @brief 查询中断标志状态
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR0_GetITFlag(f) (R8_TMR0_INT_FLAG & f)
/**
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*/
void TMR1_TimerInit(uint32_t t);
/**
* @brief 获取当前定时器值，最大67108864
*
* @return 当前定时器值
*/
#define TMR1_GetCurrentTimer() R32_TMR1_COUNT
/**
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*/
void TMR1_EXTSingleCounterInit(CapModeTypeDef cap);
/**
* @brief 设置计数统计溢出大小，最大67108862
*
* @param cyc - 计数统计溢出大小
*/
#define TMR1_CountOverflowCfg(cyc) (R32_TMR1_CNT_END = (cyc + 2))
/**
* @brief 获取当前计数值，最大67108862
*
* @return 当前计数值
*/
#define TMR1_GetCurrentCount() R32_TMR1_COUNT
/**
* @brief PWM1 通道输出波形周期配置, 最大67108864
*
* @param cyc - 输出波形周期
*/
#define TMR1_PWMCycleCfg(cyc) (R32_TMR1_CNT_END = cyc)
/**
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*/
void TMR1_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts);
/**
* @brief PWM1 有效数据脉宽, 最大67108864
*
* @param d - 有效数据脉宽
*/
#define TMR1_PWMActDataWidth(d) (R32_TMR1_FIFO = d)
/**
* @brief CAP1 捕捉电平超时配置, 最大33554432
*
* @param cyc - 捕捉电平超时
*/
#define TMR1_CAPTimeoutCfg(cyc) (R32_TMR1_CNT_END = cyc)
/**
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*/
void TMR1_CapInit(CapModeTypeDef cap);
/**
* @brief 获取脉冲数据
*
* @return 脉冲数据
*/
#define TMR1_CAPGetData() R32_TMR1_FIFO
/**
* @brief 获取当前已捕获数据个数
*
* @return 当前已捕获数据个数
*/
#define TMR1_CAPDataCounter() R8_TMR1_FIFO_COUNT
/**
* @brief 配置DMA功能
*
* @param s - 是否打开DMA功能
* @param startAddr - DMA 起始地址
* @param endAddr - DMA 结束地址
* @param m - 配置DMA模式
*/
void TMR1_DMACfg(uint8_t s, uint16_t startAddr, uint16_t endAddr, DMAModeTypeDef m);
/**
* @brief 关闭 TMR1 PWM输出
*/
#define TMR1_PWMDisable() (R8_TMR1_CTRL_MOD &= ~RB_TMR_OUT_EN)
/**
* @brief 开启 TMR1 PWM输出
*/
#define TMR1_PWMEnable() (R8_TMR1_CTRL_MOD |= RB_TMR_OUT_EN)
/**
* @brief 关闭 TMR1
*/
#define TMR1_Disable() (R8_TMR1_CTRL_MOD &= ~RB_TMR_COUNT_EN)
/**
* @brief 开启 TMR1
*/
#define TMR1_Enable() (R8_TMR1_CTRL_MOD |= RB_TMR_COUNT_EN)
/**
* @brief 中断配置
*
* @param s - 使能/关闭
* @param f - refer to TMR interrupt bit define
*/
#define TMR1_ITCfg(s, f) ((s) ? (R8_TMR1_INTER_EN |= f) : (R8_TMR1_INTER_EN &= ~f))
/**
* @brief 清除中断标志
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR1_ClearITFlag(f) (R8_TMR1_INT_FLAG = f)
/**
* @brief 查询中断标志状态
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR1_GetITFlag(f) (R8_TMR1_INT_FLAG & f)
/**
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*/
void TMR2_TimerInit(uint32_t t);
/**
* @brief 获取当前定时器值，最大67108864
*
* @return 当前定时器值
*/
#define TMR2_GetCurrentTimer() R32_TMR2_COUNT
/**
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*/
void TMR2_EXTSingleCounterInit(CapModeTypeDef cap);
/**
* @brief 设置计数统计溢出大小，最大67108862
*
* @param cyc - 计数统计溢出大小
*/
#define TMR2_CountOverflowCfg(cyc) (R32_TMR2_CNT_END = (cyc + 2))
/**
* @brief 获取当前计数值，最大67108862
*
* @return 当前计数值
*/
#define TMR2_GetCurrentCount() R32_TMR2_COUNT
/**
* @brief PWM2 通道输出波形周期配置, 最大67108864
*
* @param cyc - 输出波形周期
*/
#define TMR2_PWMCycleCfg(cyc) (R32_TMR2_CNT_END = cyc)
/**
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*/
void TMR2_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts);
/**
* @brief PWM2 有效数据脉宽, 最大67108864
*
* @param d - 有效数据脉宽
*/
#define TMR2_PWMActDataWidth(d) (R32_TMR2_FIFO = d)
/**
* @brief CAP2 捕捉电平超时配置, 最大33554432
*
* @param cyc - 捕捉电平超时
*/
#define TMR2_CAPTimeoutCfg(cyc) (R32_TMR2_CNT_END = cyc)
/**
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*/
void TMR2_CapInit(CapModeTypeDef cap);
/**
* @brief 获取脉冲数据
*
* @return 脉冲数据
*/
#define TMR2_CAPGetData() R32_TMR2_FIFO
/**
* @brief 获取当前已捕获数据个数
*
* @return 当前已捕获数据个数
*/
#define TMR2_CAPDataCounter() R8_TMR2_FIFO_COUNT
/**
* @brief 配置DMA功能
*
* @param s - 是否打开DMA功能
* @param startAddr - DMA 起始地址
* @param endAddr - DMA 结束地址
* @param m - 配置DMA模式
*/
void TMR2_DMACfg(uint8_t s, uint32_t startAddr, uint32_t endAddr, DMAModeTypeDef m);
/**
* @brief 关闭 TMR2 PWM输出
*/
#define TMR2_PWMDisable() (R8_TMR2_CTRL_MOD &= ~RB_TMR_OUT_EN)
/**
* @brief 开启 TMR2 PWM输出
*/
#define TMR2_PWMEnable() (R8_TMR2_CTRL_MOD |= RB_TMR_OUT_EN)
/**
* @brief 关闭 TMR2
*/
#define TMR2_Disable() (R8_TMR2_CTRL_MOD &= ~RB_TMR_COUNT_EN)
/**
* @brief 开启 TMR2
*/
#define TMR2_Enable() (R8_TMR2_CTRL_MOD |= RB_TMR_COUNT_EN)
/**
* @brief 中断配置
*
* @param s - 使能/关闭
* @param f - refer to TMR interrupt bit define
*/
#define TMR2_ITCfg(s, f) ((s) ? (R8_TMR2_INTER_EN |= f) : (R8_TMR2_INTER_EN &= ~f))
/**
* @brief 清除中断标志
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR2_ClearITFlag(f) (R8_TMR2_INT_FLAG = f)
/**
* @brief 查询中断标志状态
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR2_GetITFlag(f) (R8_TMR2_INT_FLAG & f)
/**
* @brief 定时功能初始化
*
* @param t - 定时时间，基于当前系统时钟Tsys, 最长定时周期 67108864
*/
void TMR3_TimerInit(uint32_t t);
/**
* @brief 获取当前定时器值，最大67108864
*
* @return 当前定时器值
*/
#define TMR3_GetCurrentTimer() R32_TMR3_COUNT
/**
* @brief 边沿计数功能初始化
*
* @param cap - 采集计数类型
*/
void TMR3_EXTSingleCounterInit(CapModeTypeDef cap);
/**
* @brief 设置计数统计溢出大小，最大67108862
*
* @param cyc - 计数统计溢出大小
*/
#define TMR3_CountOverflowCfg(cyc) (R32_TMR3_CNT_END = (cyc + 2))
/**
* @brief 获取当前计数值，最大67108862
*
* @return 当前计数值
*/
#define TMR3_GetCurrentCount() R32_TMR3_COUNT
/**
* @brief PWM3 通道输出波形周期配置, 最大67108864
*
* @param cyc - 输出波形周期
*/
#define TMR3_PWMCycleCfg(cyc) (R32_TMR3_CNT_END = cyc)
/**
* @brief PWM 输出初始化
*
* @param pr - select wave polar, refer to PWMX_PolarTypeDef
* @param ts - set pwm repeat times, refer to PWM_RepeatTsTypeDef
*/
void TMR3_PWMInit(PWMX_PolarTypeDef pr, PWM_RepeatTsTypeDef ts);
/**
* @brief PWM3 有效数据脉宽, 最大67108864
*
* @param d - 有效数据脉宽
*/
#define TMR3_PWMActDataWidth(d) (R32_TMR3_FIFO = d)
/**
* @brief CAP3 捕捉电平超时配置, 最大33554432
*
* @param cyc - 捕捉电平超时
*/
#define TMR3_CAPTimeoutCfg(cyc) (R32_TMR3_CNT_END = cyc)
/**
* @brief 外部信号捕捉功能初始化
*
* @param cap - select capture mode, refer to CapModeTypeDef
*/
void TMR3_CapInit(CapModeTypeDef cap);
/**
* @brief 获取脉冲数据
*
* @return 脉冲数据
*/
#define TMR3_CAPGetData() R32_TMR3_FIFO
/**
* @brief 获取当前已捕获数据个数
*
* @return 当前已捕获数据个数
*/
#define TMR3_CAPDataCounter() R8_TMR3_FIFO_COUNT
/**
* @brief 关闭 TMR3 PWM输出
*/
#define TMR3_PWMDisable() (R8_TMR3_CTRL_MOD &= ~RB_TMR_OUT_EN)
/**
* @brief 开启 TMR3 PWM输出
*/
#define TMR3_PWMEnable() (R8_TMR3_CTRL_MOD |= RB_TMR_OUT_EN)
/**
* @brief 关闭 TMR3
*/
#define TMR3_Disable() (R8_TMR3_CTRL_MOD &= ~RB_TMR_COUNT_EN)
/**
* @brief 开启 TMR3
*/
#define TMR3_Enable() (R8_TMR3_CTRL_MOD |= RB_TMR_COUNT_EN)
/**
* @brief 中断配置
*
* @param s - 使能/关闭
* @param f - refer to TMR interrupt bit define
*/
#define TMR3_ITCfg(s, f) ((s) ? (R8_TMR3_INTER_EN |= f) : (R8_TMR3_INTER_EN &= ~f))
/**
* @brief 清除中断标志
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR3_ClearITFlag(f) (R8_TMR3_INT_FLAG = f)
/**
* @brief 查询中断标志状态
*
* @param f - refer to TMR interrupt bit define
*/
#define TMR3_GetITFlag(f) (R8_TMR3_INT_FLAG & f)
#ifdef __cplusplus
}
#endif
#endif // __CH59x_TIMER_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_uart.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_UART_H__
#define __CH59x_UART_H__
#ifdef __cplusplus
extern "C" {
#endif
/**
* @brief LINE error and status define
*/
#define STA_ERR_BREAK RB_LSR_BREAK_ERR // 数据间隔错误
#define STA_ERR_FRAME RB_LSR_FRAME_ERR // 数据帧错误
#define STA_ERR_PAR RB_LSR_PAR_ERR // 奇偶校验位出错
#define STA_ERR_FIFOOV RB_LSR_OVER_ERR // 接收数据溢出
#define STA_TXFIFO_EMP RB_LSR_TX_FIFO_EMP // 当前发送FIFO空，可以继续填充发送数据
#define STA_TXALL_EMP RB_LSR_TX_ALL_EMP // 当前所有发送数据都发送完成
#define STA_RECV_DATA RB_LSR_DATA_RDY // 当前有接收到数据
/**
* @brief Configuration UART TrigByte num
*/
typedef enum
{
UART_1BYTE_TRIG = 0, // 1字节触发
UART_2BYTE_TRIG, // 2字节触发
UART_4BYTE_TRIG, // 4字节触发
UART_7BYTE_TRIG, // 7字节触发
} UARTByteTRIGTypeDef;
/**
* @brief 串口默认初始化配置
*/
void UART0_DefInit(void);
/**
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*/
void UART0_BaudRateCfg(uint32_t baudrate);
/**
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*/
void UART0_ByteTrigCfg(UARTByteTRIGTypeDef b);
/**
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*/
void UART0_INTCfg(FunctionalState s, uint8_t i);
/**
* @brief 串口软件复位
*/
void UART0_Reset(void);
/**
* @brief 清除当前接收FIFO
*/
#define UART0_CLR_RXFIFO() (R8_UART0_FCR |= RB_FCR_RX_FIFO_CLR)
/**
* @brief 清除当前发送FIFO
*/
#define UART0_CLR_TXFIFO() (R8_UART0_FCR |= RB_FCR_TX_FIFO_CLR)
/**
* @brief 获取当前中断标志
*
* @return 当前中断标志
*/
#define UART0_GetITFlag() (R8_UART0_IIR & RB_IIR_INT_MASK)
/**
* @brief 获取当前通讯状态
*
* @return refer to LINE error and status define
*/
#define UART0_GetLinSTA() (R8_UART0_LSR)
/**
* @brief 串口单字节发送
*
* @param b 待发送的字节
*/
#define UART0_SendByte(b) (R8_UART0_THR = b)
/**
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*/
void UART0_SendString(uint8_t *buf, uint16_t l);
/**
* @brief 串口读取单字节
*
* @return 读取到的单字节
*/
#define UART0_RecvByte() (R8_UART0_RBR)
/**
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART0_RecvString(uint8_t *buf);
/**
* @brief 串口默认初始化配置
*/
void UART1_DefInit(void);
/**
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*/
void UART1_BaudRateCfg(uint32_t baudrate);
/**
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*/
void UART1_ByteTrigCfg(UARTByteTRIGTypeDef b);
/**
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*/
void UART1_INTCfg(FunctionalState s, uint8_t i);
/**
* @brief 串口软件复位
*/
void UART1_Reset(void);
/**
* @brief 清除当前接收FIFO
*/
#define UART1_CLR_RXFIFO() (R8_UART1_FCR |= RB_FCR_RX_FIFO_CLR)
/**
* @brief 清除当前发送FIFO
*/
#define UART1_CLR_TXFIFO() (R8_UART1_FCR |= RB_FCR_TX_FIFO_CLR)
/**
* @brief 获取当前中断标志
*
* @return 当前中断标志
*/
#define UART1_GetITFlag() (R8_UART1_IIR & RB_IIR_INT_MASK)
/**
* @brief 获取当前通讯状态
*
* @return refer to LINE error and status define
*/
#define UART1_GetLinSTA() (R8_UART1_LSR)
/**
* @brief 串口单字节发送
*
* @param b 待发送的字节
*/
#define UART1_SendByte(b) (R8_UART1_THR = b)
/**
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*/
void UART1_SendString(uint8_t *buf, uint16_t l);
/**
* @brief 串口读取单字节
*
* @return 读取到的单字节
*/
#define UART1_RecvByte() (R8_UART1_RBR)
/**
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART1_RecvString(uint8_t *buf);
/**
* @brief 串口默认初始化配置
*/
void UART2_DefInit(void);
/**
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*/
void UART2_BaudRateCfg(uint32_t baudrate);
/**
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*/
void UART2_ByteTrigCfg(UARTByteTRIGTypeDef b);
/**
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*/
void UART2_INTCfg(FunctionalState s, uint8_t i);
/**
* @brief 串口软件复位
*/
void UART2_Reset(void);
/**
* @brief 清除当前接收FIFO
*/
#define UART2_CLR_RXFIFO() (R8_UART2_FCR |= RB_FCR_RX_FIFO_CLR)
/**
* @brief 清除当前发送FIFO
*/
#define UART2_CLR_TXFIFO() (R8_UART2_FCR |= RB_FCR_TX_FIFO_CLR)
/**
* @brief 获取当前中断标志
*
* @return 当前中断标志
*/
#define UART2_GetITFlag() (R8_UART2_IIR & RB_IIR_INT_MASK)
/**
* @brief 获取当前通讯状态
*
* @return refer to LINE error and status define
*/
#define UART2_GetLinSTA() (R8_UART2_LSR)
/**
* @brief 串口单字节发送
*
* @param b 待发送的字节
*/
#define UART2_SendByte(b) (R8_UART2_THR = b)
/**
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*/
void UART2_SendString(uint8_t *buf, uint16_t l);
/**
* @brief 串口读取单字节
*
* @return 读取到的单字节
*/
#define UART2_RecvByte() (R8_UART2_RBR)
/**
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART2_RecvString(uint8_t *buf);
/**
* @brief 串口默认初始化配置
*/
void UART3_DefInit(void);
/**
* @brief 串口波特率配置
*
* @param baudrate - 波特率
*/
void UART3_BaudRateCfg(uint32_t baudrate);
/**
* @brief 串口字节触发中断配置
*
* @param b - 触发字节数 refer to UARTByteTRIGTypeDef
*/
void UART3_ByteTrigCfg(UARTByteTRIGTypeDef b);
/**
* @brief 串口中断配置
*
* @param s - 中断控制状态，是否使能相应中断
* @param i - 中断类型
* RB_IER_MODEM_CHG - 调制解调器输入状态变化中断使能位（仅 UART0 支持）
* RB_IER_LINE_STAT - 接收线路状态中断
* RB_IER_THR_EMPTY - 发送保持寄存器空中断
* RB_IER_RECV_RDY - 接收数据中断
*/
void UART3_INTCfg(FunctionalState s, uint8_t i);
/**
* @brief 串口软件复位
*/
void UART3_Reset(void);
/**
* @brief 清除当前接收FIFO
*/
#define UART3_CLR_RXFIFO() (R8_UART3_FCR |= RB_FCR_RX_FIFO_CLR)
/**
* @brief 清除当前发送FIFO
*/
#define UART3_CLR_TXFIFO() (R8_UART3_FCR |= RB_FCR_TX_FIFO_CLR)
/**
* @brief 获取当前中断标志
*
* @return 当前中断标志
*/
#define UART3_GetITFlag() (R8_UART3_IIR & RB_IIR_INT_MASK)
/**
* @brief 获取当前通讯状态
*
* @return refer to LINE error and status define
*/
#define UART3_GetLinSTA() (R8_UART3_LSR)
/**
* @brief 串口单字节发送
*
* @param b 待发送的字节
*/
#define UART3_SendByte(b) (R8_UART3_THR = b)
/**
* @brief 串口多字节发送
*
* @param buf - 待发送的数据内容首地址
* @param l - 待发送的数据长度
*/
void UART3_SendString(uint8_t *buf, uint16_t l);
/**
* @brief 串口读取单字节
*
* @return 读取到的单字节
*/
#define UART3_RecvByte() (R8_UART3_RBR)
/**
* @brief 串口读取多字节
*
* @param buf - 读取数据存放缓存区首地址
*
* @return 读取数据长度
*/
uint16_t UART3_RecvString(uint8_t *buf);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_UART_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_usbdev.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_USBDEV_H__
#define __CH59x_USBDEV_H__
#ifdef __cplusplus
extern "C" {
#endif
/* HID类请求 */
#define DEF_USB_GET_IDLE 0x02 /* get idle for key or mouse */
#define DEF_USB_GET_PROTOCOL 0x03 /* get protocol for bios type */
#define DEF_USB_SET_REPORT 0x09 /* set report for key */
#define DEF_USB_SET_IDLE 0x0A /* set idle for key or mouse */
#define DEF_USB_SET_PROTOCOL 0x0B /* set protocol for bios type */
/* 以下缓存区是USB模块收发使用的数据缓冲区，总共9个通道（9块缓存），用户可根据实际使用的通道数定义相应缓存区 */
extern uint8_t *pEP0_RAM_Addr; //ep0(64)+ep4_out(64)+ep4_in(64)
extern uint8_t *pEP1_RAM_Addr; //ep1_out(64)+ep1_in(64)
extern uint8_t *pEP2_RAM_Addr; //ep2_out(64)+ep2_in(64)
extern uint8_t *pEP3_RAM_Addr; //ep3_out(64)+ep3_in(64)
#define pSetupReqPak ((PUSB_SETUP_REQ)pEP0_RAM_Addr)
#define pEP0_DataBuf (pEP0_RAM_Addr)
#define pEP1_OUT_DataBuf (pEP1_RAM_Addr)
#define pEP1_IN_DataBuf (pEP1_RAM_Addr + 64)
#define pEP2_OUT_DataBuf (pEP2_RAM_Addr)
#define pEP2_IN_DataBuf (pEP2_RAM_Addr + 64)
#define pEP3_OUT_DataBuf (pEP3_RAM_Addr)
#define pEP3_IN_DataBuf (pEP3_RAM_Addr + 64)
#define pEP4_OUT_DataBuf (pEP0_RAM_Addr + 64)
#define pEP4_IN_DataBuf (pEP0_RAM_Addr + 128)
/**
* @brief USB设备功能初始化，4个端点，8个通道。
*/
void USB_DeviceInit(void);
/**
* @brief USB设备应答传输处理
*/
void USB_DevTransProcess(void);
/**
* @brief 端点1下传数据处理
*
* @param l - 待处理数据长度(<64B)
*/
void DevEP1_OUT_Deal(uint8_t l);
/**
* @brief 端点2下传数据处理
*
* @param l - 待处理数据长度(<64B)
*/
void DevEP2_OUT_Deal(uint8_t l);
/**
* @brief 端点3下传数据处理
*
* @param l - 待处理数据长度(<64B)
*/
void DevEP3_OUT_Deal(uint8_t l);
/**
* @brief 端点4下传数据处理
*
* @param l - 待处理数据长度(<64B)
*/
void DevEP4_OUT_Deal(uint8_t l);
/**
* @brief 端点1数据上传
*
* @param l - 上传数据长度(<64B)
*/
void DevEP1_IN_Deal(uint8_t l);
/**
* @brief 端点2数据上传
*
* @param l - 上传数据长度(<64B)
*/
void DevEP2_IN_Deal(uint8_t l);
/**
* @brief 端点3数据上传
*
* @param l - 上传数据长度(<64B)
*/
void DevEP3_IN_Deal(uint8_t l);
/**
* @brief 端点4数据上传
*
* @param l - 上传数据长度(<64B)
*/
void DevEP4_IN_Deal(uint8_t l);
/**
* @brief 查询端点1是否上传完成
*
* @return 0-未完成 (!0)-已完成
*/
#define EP1_GetINSta() (R8_UEP1_CTRL & UEP_T_RES_NAK)
/**
* @brief 查询端点2是否上传完成
*
* @return 0-未完成 (!0)-已完成
*/
#define EP2_GetINSta() (R8_UEP2_CTRL & UEP_T_RES_NAK)
/**
* @brief 查询端点3是否上传完成
*
* @return 0-未完成 (!0)-已完成
*/
#define EP3_GetINSta() (R8_UEP3_CTRL & UEP_T_RES_NAK)
/**
* @brief 查询端点4是否上传完成
*
* @return 0-未完成 (!0)-已完成
*/
#define EP4_GetINSta() (R8_UEP4_CTRL & UEP_T_RES_NAK)
/**
* @brief 关闭USB上拉电阻
*/
#define USB_DisablePin() (R16_PIN_ANALOG_IE &= ~(RB_PIN_USB_IE | RB_PIN_USB_DP_PU))
/**
* @brief 关闭USB
*/
#define USB_Disable() (R32_USB_CONTROL = 0)
#ifdef __cplusplus
}
#endif
#endif // __CH59x_USBDEV_H__

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/********************************** (C) COPYRIGHT *******************************
* File Name : CH59x_usbhost.h
* Author : WCH
* Version : V1.2
* Date : 2021/11/17
* Description
*********************************************************************************
* Copyright (c) 2021 Nanjing Qinheng Microelectronics Co., Ltd.
* Attention: This software (modified or not) and binary are used for
* microcontroller manufactured by Nanjing Qinheng Microelectronics.
*******************************************************************************/
#ifndef __CH59x_USBHOST_H__
#define __CH59x_USBHOST_H__
#ifdef __cplusplus
extern "C" {
#endif
#if DISK_LIB_ENABLE
#if DISK_WITHOUT_USB_HUB
/* 不使用U盘文件系统库或者U盘挂载USBhub下面，需要关闭下面定义 */
#define FOR_ROOT_UDISK_ONLY
#endif
/* 使用U盘文件系统库，需要开启下面定义, 不使用请关闭 */
#define DISK_BASE_BUF_LEN 512 /* 默认的磁盘数据缓冲区大小为512字节,建议选择为2048甚至4096以支持某些大扇区的U盘,为0则禁止在.H文件中定义缓冲区并由应用程序在pDISK_BASE_BUF中指定 */
#endif
// 各子程序返回状态码
#define ERR_SUCCESS 0x00 // 操作成功
#define ERR_USB_CONNECT 0x15 /* 检测到USB设备连接事件,已经连接 */
#define ERR_USB_DISCON 0x16 /* 检测到USB设备断开事件,已经断开 */
#define ERR_USB_BUF_OVER 0x17 /* USB传输的数据有误或者数据太多缓冲区溢出 */
#define ERR_USB_DISK_ERR 0x1F /* USB存储器操作失败,在初始化时可能是USB存储器不支持,在读写操作中可能是磁盘损坏或者已经断开 */
#define ERR_USB_TRANSFER 0x20 /* NAK/STALL等更多错误码在0x20~0x2F */
#define ERR_USB_UNSUPPORT 0xFB /* 不支持的USB设备*/
#define ERR_USB_UNKNOWN 0xFE /* 设备操作出错*/
#define ERR_AOA_PROTOCOL 0x41 /* 协议版本出错 */
/*USB设备相关信息表,最多支持1个设备*/
#define ROOT_DEV_DISCONNECT 0
#define ROOT_DEV_CONNECTED 1
#define ROOT_DEV_FAILED 2
#define ROOT_DEV_SUCCESS 3
#define DEV_TYPE_KEYBOARD (USB_DEV_CLASS_HID | 0x20)
#define DEV_TYPE_MOUSE (USB_DEV_CLASS_HID | 0x30)
#define DEF_AOA_DEVICE 0xF0
#define DEV_TYPE_UNKNOW 0xFF
/*
约定: USB设备地址分配规则(参考USB_DEVICE_ADDR)
地址值 设备位置
0x02 内置Root-HUB下的USB设备或外部HUB
0x1x 内置Root-HUB下的外部HUB的端口x下的USB设备,x为1~n
*/
#define HUB_MAX_PORTS 4
#define WAIT_USB_TOUT_200US 800 // 等待USB中断超时时间
typedef struct
{
uint8_t DeviceStatus; // 设备状态,0-无设备,1-有设备但尚未初始化,2-有设备但初始化枚举失败,3-有设备且初始化枚举成功
uint8_t DeviceAddress; // 设备被分配的USB地址
uint8_t DeviceSpeed; // 0为低速,非0为全速
uint8_t DeviceType; // 设备类型
uint16_t DeviceVID;
uint16_t DevicePID;
uint8_t GpVar[4]; // 通用变量，存放端点
uint8_t GpHUBPortNum; // 通用变量,如果是HUB，表示HUB端口数
} _RootHubDev;
typedef struct
{
UINT8 DeviceStatus; // 设备状态,0-无设备,1-有设备但尚未初始化,2-有设备但初始化枚举失败,3-有设备且初始化枚举成功
UINT8 DeviceAddress; // 设备被分配的USB地址
UINT8 DeviceSpeed; // 0为低速,非0为全速
UINT8 DeviceType; // 设备类型
UINT16 DeviceVID;
UINT16 DevicePID;
UINT8 GpVar[4]; // 通用变量
} _DevOnHubPort; // 假定:不超过1个外部HUB,每个外部HUB不超过HUB_MAX_PORTS个端口(多了不管)
extern _RootHubDev ThisUsbDev;
extern _DevOnHubPort DevOnHubPort[HUB_MAX_PORTS]; // 假定:不超过1个外部HUB,每个外部HUB不超过HUB_MAX_PORTS个端口(多了不管)
extern uint8_t UsbDevEndp0Size; // USB设备的端点0的最大包尺寸 */
extern uint8_t FoundNewDev;
extern uint8_t *pHOST_RX_RAM_Addr;
extern uint8_t *pHOST_TX_RAM_Addr;
extern _RootHubDev ThisUsb2Dev;
extern _DevOnHubPort DevOnU2HubPort[HUB_MAX_PORTS]; // 假定:不超过1个外部HUB,每个外部HUB不超过HUB_MAX_PORTS个端口(多了不管)
extern uint8_t Usb2DevEndp0Size; // USB设备的端点0的最大包尺寸 */
extern uint8_t FoundNewU2Dev;
extern uint8_t *pU2HOST_RX_RAM_Addr;
extern uint8_t *pU2HOST_TX_RAM_Addr;
#define pSetupReq ((PUSB_SETUP_REQ)pHOST_TX_RAM_Addr)
#define pU2SetupReq ((PUSB_SETUP_REQ)pU2HOST_TX_RAM_Addr)
extern uint8_t Com_Buffer[];
extern uint8_t U2Com_Buffer[];
/* 以下为USB主机请求包 */
extern const uint8_t SetupGetDevDescr[]; // 获取设备描述符*/
extern const uint8_t SetupGetCfgDescr[]; // 获取配置描述符*/
extern const uint8_t SetupSetUsbAddr[]; // 设置USB地址*/
extern const uint8_t SetupSetUsbConfig[]; // 设置USB配置*/
extern const uint8_t SetupSetUsbInterface[]; // 设置USB接口配置*/
extern const uint8_t SetupClrEndpStall[]; // 清除端点STALL*/
extern const uint8_t SetupGetU2DevDescr[]; // 获取设备描述符*/
extern const uint8_t SetupGetU2CfgDescr[]; // 获取配置描述符*/
extern const uint8_t SetupSetUsb2Addr[]; // 设置USB地址*/
extern const uint8_t SetupSetUsb2Config[]; // 设置USB配置*/
extern const uint8_t SetupSetUsb2Interface[]; // 设置USB接口配置*/
extern const uint8_t SetupClrU2EndpStall[]; // 清除端点STALL*/
/**
* @brief 关闭ROOT-HUB端口,实际上硬件已经自动关闭,此处只是清除一些结构状态
*/
void DisableRootHubPort(void);
/**
* @brief 分析ROOT-HUB状态,处理ROOT-HUB端口的设备插拔事件
* 如果设备拔出,函数中调用DisableRootHubPort()函数,将端口关闭,插入事件,置相应端口的状态位
*
* @return 返回ERR_SUCCESS为没有情况,返回ERR_USB_CONNECT为检测到新连接,返回ERR_USB_DISCON为检测到断开
*/
uint8_t AnalyzeRootHub(void);
/**
* @brief 设置USB主机当前操作的USB设备地址
*
* @param addr - USB设备地址
*/
void SetHostUsbAddr(uint8_t addr);
/**
* @brief 设置当前USB速度
*
* @param FullSpeed - USB速度
*/
void SetUsbSpeed(uint8_t FullSpeed);
/**
* @brief 检测到设备后,复位总线,为枚举设备准备,设置为默认为全速
*/
void ResetRootHubPort(void);
/**
* @brief 使能ROOT-HUB端口,相应的bUH_PORT_EN置1开启端口,设备断开可能导致返回失败
*
* @return 返回ERR_SUCCESS为检测到新连接,返回ERR_USB_DISCON为无连接
*/
uint8_t EnableRootHubPort(void);
/**
* @brief 等待USB中断
*
* @return 返回ERR_SUCCESS 数据接收或者发送成功,返回ERR_USB_UNKNOWN 数据接收或者发送失败
*/
uint8_t WaitUSB_Interrupt(void);
/**
* @brief 传输事务,输入目的端点地址/PID令牌,同步标志,以20uS为单位的NAK重试总时间(0则不重试,0xFFFF无限重试),返回0成功,超时/出错重试
* 本子程序着重于易理解,而在实际应用中,为了提供运行速度,应该对本子程序代码进行优化
*
* @param endp_pid - 令牌和地址, 高4位是token_pid令牌, 低4位是端点地址
* @param tog - 同步标志
* @param timeout - 超时时间
*
* @return ERR_USB_UNKNOWN 超时，可能硬件异常
* ERR_USB_DISCON 设备断开
* ERR_USB_CONNECT 设备连接
* ERR_SUCCESS 传输完成
*/
uint8_t USBHostTransact(uint8_t endp_pid, uint8_t tog, uint32_t timeout);
/**
* @brief 执行控制传输,8字节请求码在pSetupReq中,DataBuf为可选的收发缓冲区
*
* @param DataBuf - 如果需要接收和发送数据,那么DataBuf需指向有效缓冲区用于存放后续数据
* @param RetLen - 实际成功收发的总长度保存在RetLen指向的字节变量中
*
* @return ERR_USB_BUF_OVER IN状态阶段出错
* ERR_SUCCESS 数据交换成功
*/
uint8_t HostCtrlTransfer(uint8_t *DataBuf, uint8_t *RetLen);
/**
* @brief 复制控制传输的请求包
*
* @param pReqPkt - 控制请求包地址
*/
void CopySetupReqPkg(const uint8_t *pReqPkt);
/**
* @brief 获取设备描述符,返回在 pHOST_TX_RAM_Addr 中
*
* @return ERR_USB_BUF_OVER 描述符长度错误
* ERR_SUCCESS 成功
*/
uint8_t CtrlGetDeviceDescr(void);
/**
* @brief 获取配置描述符,返回在 pHOST_TX_RAM_Addr 中
*
* @return ERR_USB_BUF_OVER 描述符长度错误
* ERR_SUCCESS 成功
*/
uint8_t CtrlGetConfigDescr(void);
/**
* @brief 设置USB设备地址
*
* @param addr - 设备地址
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlSetUsbAddress(uint8_t addr);
/**
* @brief 设置USB设备配置
*
* @param cfg - 配置值
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlSetUsbConfig(uint8_t cfg);
/**
* @brief 清除端点STALL
*
* @param endp - 端点地址
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlClearEndpStall(uint8_t endp);
/**
* @brief 设置USB设备接口
*
* @param cfg - 配置值
*
* @return ERR_SUCCESS 成功
*/
uint8_t CtrlSetUsbIntercace(uint8_t cfg);
/**
* @brief USB主机功能初始化
*/
void USB_HostInit(void);
uint8_t EnumAllHubPort(void);// 枚举所有ROOT-HUB端口下外部HUB后的二级USB设备
void SelectHubPort(uint8_t HubPortIndex); // HubPortIndex=0选择操作指定的ROOT-HUB端口,否则选择操作指定的ROOT-HUB端口的外部HUB的指定端口
uint16_t SearchTypeDevice(uint8_t type); // 在ROOT-HUB以及外部HUB各端口上搜索指定类型的设备所在的端口号,输出端口号为0xFFFF则未搜索到.
uint8_t SETorOFFNumLock(uint8_t *buf); // NumLock的点灯判断
/*************************************************************/
/**
* @brief 初始化指定ROOT-HUB端口的USB设备
*
* @return 错误码
*/
uint8_t InitRootDevice(void);
/**
* @brief 获取HID设备报表描述符,返回在TxBuffer中
*
* @return 错误码
*/
uint8_t CtrlGetHIDDeviceReport(uint8_t infc);
/**
* @brief 获取HUB描述符,返回在Com_Buffer中
*
* @return 错误码
*/
uint8_t CtrlGetHubDescr(void);
/**
* @brief 查询HUB端口状态,返回在Com_Buffer中
*
* @param HubPortIndex - 端口号
*
* @return 错误码
*/
uint8_t HubGetPortStatus(uint8_t HubPortIndex);
/**
* @brief 设置HUB端口特性
*
* @param HubPortIndex - 端口号
* @param FeatureSelt - 端口特性
*
* @return 错误码
*/
uint8_t HubSetPortFeature(uint8_t HubPortIndex, uint8_t FeatureSelt);
/**
* @brief 清除HUB端口特性
*
* @param HubPortIndex - 端口号
* @param FeatureSelt - 端口特性
*
* @return 错误码
*/
uint8_t HubClearPortFeature(uint8_t HubPortIndex, uint8_t FeatureSelt);
#ifdef __cplusplus
}
#endif
#endif // __CH59x_USBHOST_H__

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/* CH592 Flash-ROM & Data-Flash */
/* Website: http://wch.cn */
/* Email: tech@wch.cn */
/* Author: W.ch 2020.06 */
/* V1.0 FlashROM library for USER/BOOT */
/* for the target in USER code area on the chip divided into USER code area and BOOT area */
/* 用于具有用户代码区和引导区的芯片、操作目标为用户代码区的情况，
可以在用户代码中被调用（IAP，擦写自身），也可以在引导代码中被调用（更新用户代码） */
/* Flash-ROM feature:
for store program code, support block erasing, dword and page writing, dword verifying, unit for Length is byte,
minimal quantity for write or verify is one dword (4-bytes),
256 bytes/page for writing, FLASH_ROM_WRITE support one dword or more dword writing, but multiple of 256 is the best,
4KB (4096 bytes) bytes/block for erasing, so multiple of 4096 is the best */
/* Data-Flash(EEPROM) feature:
for store data, support block erasing, byte and page writing, byte reading,
minimal quantity for write or read is one byte,
256 bytes/page for writing, EEPROM_WRITE support one byte or more byte writing, but multiple of 256 is the best,
0.25KB/4KB (256/4096 bytes) bytes/block for erasing, so multiple of 256 or 4096 is the best */
#ifndef EEPROM_PAGE_SIZE
#define EEPROM_PAGE_SIZE 256 // Flash-ROM & Data-Flash page size for writing
#define EEPROM_BLOCK_SIZE 4096 // Flash-ROM & Data-Flash block size for erasing
#define EEPROM_MIN_ER_SIZE EEPROM_PAGE_SIZE // Data-Flash minimal size for erasing
//#define EEPROM_MIN_ER_SIZE EEPROM_BLOCK_SIZE // Flash-ROM minimal size for erasing
#define EEPROM_MIN_WR_SIZE 1 // Data-Flash minimal size for writing
#define EEPROM_MAX_SIZE 0x8000 // Data-Flash maximum size, 32KB
#endif
#ifndef FLASH_MIN_WR_SIZE
#define FLASH_MIN_WR_SIZE 4 // Flash-ROM minimal size for writing
#endif
#ifndef FLASH_ROM_MAX_SIZE
#define FLASH_ROM_MAX_SIZE 0x070000 // Flash-ROM maximum program size, 448KB
#endif
#ifndef CMD_FLASH_ROM_SW_RESET
// CMD_* for caller from FlashROM or RAM, auto execute CMD_FLASH_ROM_SW_RESET before command
#define CMD_FLASH_ROM_START_IO 0x00 // start FlashROM I/O, without parameter
#define CMD_FLASH_ROM_SW_RESET 0x04 // software reset FlashROM, without parameter
#define CMD_GET_ROM_INFO 0x06 // get information from FlashROM, parameter @Address,Buffer
#define CMD_GET_UNIQUE_ID 0x07 // get 64 bit unique ID, parameter @Buffer
#define CMD_FLASH_ROM_PWR_DOWN 0x0D // power-down FlashROM, without parameter
#define CMD_FLASH_ROM_PWR_UP 0x0C // power-up FlashROM, without parameter
#define CMD_FLASH_ROM_LOCK 0x08 // lock(protect)/unlock FlashROM data block, return 0 if success, parameter @StartAddr
// StartAddr: 0=unlock all, 1=lock boot code, 3=lock all code and data
#define CMD_EEPROM_ERASE 0x09 // erase Data-Flash block, return 0 if success, parameter @StartAddr,Length
#define CMD_EEPROM_WRITE 0x0A // write Data-Flash data block, return 0 if success, parameter @StartAddr,Buffer,Length
#define CMD_EEPROM_READ 0x0B // read Data-Flash data block, parameter @StartAddr,Buffer,Length
#define CMD_FLASH_ROM_ERASE 0x01 // erase FlashROM block, return 0 if success, parameter @StartAddr,Length
#define CMD_FLASH_ROM_WRITE 0x02 // write FlashROM data block, minimal block is dword, return 0 if success, parameter @StartAddr,Buffer,Length
#define CMD_FLASH_ROM_VERIFY 0x03 // read FlashROM data block, minimal block is dword, return 0 if success, parameter @StartAddr,Buffer,Length
#endif
#define ROM_CFG_MAC_ADDR 0x7F018 // address for MAC address information
#define ROM_CFG_BOOT_INFO 0x7DFF8 // address for BOOT information
/**
* @brief execute Flash/EEPROM command, caller from FlashROM or RAM
*
* @param cmd - CMD_* for caller from FlashROM or RAM.
* @param StartAddr - Address of the data to be process.
* @param Buffer - Pointer to the buffer where data should be process, Must be aligned to 4 bytes.
* @param Length - Size of data to be process, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
extern uint32_t FLASH_EEPROM_CMD( uint8_t cmd, uint32_t StartAddr, void *Buffer, uint32_t Length );
/**
* @brief start FlashROM I/O
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_START_IO( ) FLASH_EEPROM_CMD( CMD_FLASH_ROM_START_IO, 0, NULL, 0 )
/**
* @brief software reset FlashROM
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_SW_RESET( ) FLASH_EEPROM_CMD( CMD_FLASH_ROM_SW_RESET, 0, NULL, 0 )
/**
* @brief get 6 bytes MAC address
*
* @param Buffer - Pointer to the buffer where data should be stored, Must be aligned to 4 bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define GetMACAddress(Buffer) FLASH_EEPROM_CMD( CMD_GET_ROM_INFO, ROM_CFG_MAC_ADDR, Buffer, 0 )
/**
* @brief get 8 bytes BOOT information
*
* @param Buffer - Pointer to the buffer where data should be stored, Must be aligned to 4 bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define GET_BOOT_INFO(Buffer) FLASH_EEPROM_CMD( CMD_GET_ROM_INFO, ROM_CFG_BOOT_INFO, Buffer, 0 )
/**
* @brief get 64 bit unique ID
*
* @param Buffer - Pointer to the buffer where data should be stored, Must be aligned to 4 bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define GET_UNIQUE_ID(Buffer) FLASH_EEPROM_CMD( CMD_GET_UNIQUE_ID, 0, Buffer, 0 )
/**
* @brief power-down FlashROM
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_PWR_DOWN( ) FLASH_EEPROM_CMD( CMD_FLASH_ROM_PWR_DOWN, 0, NULL, 0 )
/**
* @brief power-up FlashROM
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_PWR_UP( ) FLASH_EEPROM_CMD( CMD_FLASH_ROM_PWR_UP, 0, NULL, 0 )
/**
* @brief read Data-Flash data block
*
* @param StartAddr - Address of the data to be read.
* @param Buffer - Pointer to the buffer where data should be stored, Must be aligned to 4 bytes.
* @param Length - Size of data to be read, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define EEPROM_READ(StartAddr,Buffer,Length) FLASH_EEPROM_CMD( CMD_EEPROM_READ, StartAddr, Buffer, Length )
/**
*
* @param StartAddr - Address of the data to be erased.
* @param Length - Size of data to be erased, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define EEPROM_ERASE(StartAddr,Length) FLASH_EEPROM_CMD( CMD_EEPROM_ERASE, StartAddr, NULL, Length )
/**
* @brief write Data-Flash data block
*
* @param StartAddr - Address of the data to be written.
* @param Buffer - Pointer to the source buffer, Must be aligned to 4 bytes.
* @param Length - Size of data to be written, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define EEPROM_WRITE(StartAddr,Buffer,Length) FLASH_EEPROM_CMD( CMD_EEPROM_WRITE, StartAddr, Buffer, Length )
/**
* @brief erase FlashROM block
*
* @param StartAddr - Address of the data to be erased.
* @param Length - Size of data to be erased, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_ERASE(StartAddr,Length) FLASH_EEPROM_CMD( CMD_FLASH_ROM_ERASE, StartAddr, NULL, Length )
/**
* @brief write FlashROM data block, minimal block is dword.
*
* @param StartAddr - Address of the data to be written.
* @param Buffer - Pointer to the source buffer, Must be aligned to 4 bytes.
* @param Length - Size of data to be written, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_WRITE(StartAddr,Buffer,Length) FLASH_EEPROM_CMD( CMD_FLASH_ROM_WRITE, StartAddr, Buffer, Length )
/**
* @brief verify FlashROM data block, minimal block is dword.
*
* @param StartAddr - Address of the data to verify.
* @param Buffer - Pointer to the source buffer, Must be aligned to 4 bytes.
* @param Length - Size of data to verify, in bytes.
*
* @return 0-SUCCESS (!0)-FAILURE
*/
#define FLASH_ROM_VERIFY(StartAddr,Buffer,Length) FLASH_EEPROM_CMD( CMD_FLASH_ROM_VERIFY, StartAddr, Buffer, Length )

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