/* ****************************************************************************** * @file HAL_GPIO.c * @version V1.0.0 * @date 2020 * @brief GPIO HAL module driver. * This file provides firmware functions to manage the following * functionalities of the General Purpose Input/Output (GPIO) peripheral: * @ Initialization functions * @ IO operation functions ****************************************************************************** */ #include "ACM32Fxx_HAL.h" /********************************************************************************* * Function : HAL_GPIO_IRQHandler * Description : GPIO interrupt Handler * Input : * Outpu : * Author : Chris_Kyle Data : 2020?那 **********************************************************************************/ void HAL_GPIO_IRQHandler(enum_GPIOx_t fe_GPIO, uint32_t fu32_GPIO_Pin) { GPIO_TypeDef *GPIOx; switch (fe_GPIO) { case GPIOA: case GPIOB: { GPIOx = GPIOAB; }break; case GPIOC: case GPIOD: { GPIOx = GPIOCD; }break; case GPIOE: case GPIOF: { GPIOx = GPIOEF; }break; default: break; } if (fe_GPIO == GPIOB || fe_GPIO == GPIOD || fe_GPIO == GPIOF) { fu32_GPIO_Pin <<= 16; } if (GPIOx->RIS & fu32_GPIO_Pin) { GPIOx->IC = fu32_GPIO_Pin; /* user can call your application process function here */ /* ...... */ } } /********************************************************************************* * Function : HAL_GPIO_Init * Description : Initializes the GPIOx peripheral according to the specified parameters in the GPIO_Init * Input : fe_GPIO: to select the GPIO peripheral. * Input : GPIO_Init: pointer to a GPIO_InitTypeDef structure that contains the configuration information for the specified GPIO peripheral. * Outpu : * Author : Chris_Kyle Data : 2020?那 **********************************************************************************/ void HAL_GPIO_Init(enum_GPIOx_t fe_GPIO, GPIO_InitTypeDef *GPIO_Init) { uint32_t lu32_Position = 0; uint32_t lu32_Current_Pin; uint32_t lu32_Position_Mask; volatile uint32_t *lu32_SEL1 = NULL; // ???辰 -> 1邦???∩車???∩??‾1 volatile uint32_t *lu32_SEL2 = NULL; // ???辰 -> 1邦???∩車???∩??‾2 volatile uint32_t *lu32_PollUP = NULL; // ???辰 -> 谷?角-??????∩??‾ volatile uint32_t *lu32_PollDown = NULL; // ???辰 -> ??角-??????∩??‾ volatile uint32_t *lu32_ODEnable = NULL; // ???辰 -> ?a??那1?邦??∩??‾ volatile uint32_t *lu32_ADS = NULL; // ???辰 -> 那y℅??⊿?㏒?a??????∩??‾ GPIO_TypeDef *GPIOx; #if (USE_FULL_ASSERT == 1) /* Check the parameters */ if (!IS_GPIO_ALL_INSTANCE(fe_GPIO)) return; if (!IS_GPIO_PIN(GPIO_Init->Pin)) return; if (!IS_GPIO_MODE(GPIO_Init->Mode)) return; #endif switch (fe_GPIO) { case GPIOA: case GPIOB: { GPIOx = GPIOAB; System_Module_Enable(EN_GPIOAB); lu32_PollUP = &(SCU->PABPUR); lu32_PollDown = &(SCU->PABPDR); lu32_ODEnable = &(SCU->PABODR); lu32_ADS = &(SCU->PABADS); if (fe_GPIO == GPIOB) { GPIO_Init->Pin <<= 16; lu32_SEL1 = &(SCU->PBSEL1); lu32_SEL2 = &(SCU->PBSEL2); } else { lu32_SEL1 = &(SCU->PASEL1); lu32_SEL2 = &(SCU->PASEL2); } }break; case GPIOC: case GPIOD: { GPIOx = GPIOCD; System_Module_Enable(EN_GPIOCD); lu32_PollUP = &(SCU->PCDPUR); lu32_PollDown = &(SCU->PCDPDR); lu32_ODEnable = &(SCU->PCDODR); lu32_ADS = &(SCU->PCDADS); if (fe_GPIO == GPIOD) { GPIO_Init->Pin <<= 16; lu32_SEL1 = &(SCU->PDSEL1); lu32_SEL2 = &(SCU->PDSEL2); } else { lu32_SEL1 = &(SCU->PCSEL1); lu32_SEL2 = &(SCU->PCSEL2); } }break; case GPIOE: case GPIOF: { GPIOx = GPIOEF; System_Module_Enable(EN_GPIOEF); lu32_PollUP = &(SCU->PEFPUR); lu32_PollDown = &(SCU->PEFPDR); lu32_ODEnable = &(SCU->PEFODR); lu32_ADS = &(SCU->PEFADS); if (fe_GPIO == GPIOF) { GPIO_Init->Pin <<= 16; lu32_SEL1 = &(SCU->PFSEL1); } else { lu32_SEL1 = &(SCU->PESEL1); lu32_SEL2 = &(SCU->PESEL2); } }break; default: break; } /* Configure Select pins */ while ((GPIO_Init->Pin) >> lu32_Position != 0) { /* Get current pin position */ lu32_Current_Pin = (GPIO_Init->Pin) & (1uL << lu32_Position); if (lu32_Current_Pin) { switch (GPIO_Init->Mode) { /* GPIO IN Function */ case GPIO_MODE_INPUT: { GPIOx->DIR &= ~lu32_Current_Pin; }break; /* GPIO OUT Function */ case GPIO_MODE_OUTPUT_PP: case GPIO_MODE_OUTPUT_OD: { GPIOx->DIR |= lu32_Current_Pin; }break; /* Alternate Function */ case GPIO_MODE_AF_PP: case GPIO_MODE_AF_OD: { /* Get Position Mask */ if (lu32_Position < 16) { /* GOIOA?⊿GPIOC?⊿GPIOE */ lu32_Position_Mask = lu32_Position; } else { /* GPIOB?⊿GPIOD?⊿GPIOF */ lu32_Position_Mask = lu32_Position - 16; } /* SET GPIO Function */ if (lu32_Position_Mask < 8) { *lu32_SEL1 = (*lu32_SEL1 & ~(0xF << (lu32_Position_Mask * 4))) | (GPIO_Init->Alternate << (lu32_Position_Mask * 4)); } else { *lu32_SEL2 = (*lu32_SEL2 & ~(0xF << ((lu32_Position_Mask - 8) * 4))) | (GPIO_Init->Alternate << ((lu32_Position_Mask - 8) * 4)); } }break; /* GPIO INT Function */ case GPIO_MODE_IT_RISING: case GPIO_MODE_IT_FALLING: case GPIO_MODE_IT_RISING_FALLING: case GPIO_MODE_IT_HIGH_LEVEL: case GPIO_MODE_IT_LOW_LEVEL: { /* Set direction Input?⊿Enable INT */ GPIOx->DIR &= ~lu32_Current_Pin; GPIOx->IEN |= lu32_Current_Pin; /* Single edge */ if (GPIO_Init->Mode == GPIO_MODE_IT_RISING || GPIO_Init->Mode == GPIO_MODE_IT_FALLING) { /* edge trigger */ GPIOx->IS &= ~lu32_Current_Pin; /* Single trigger */ GPIOx->IBE &= ~lu32_Current_Pin; if (GPIO_Init->Mode == GPIO_MODE_IT_RISING) { GPIOx->IEV |= lu32_Current_Pin; } else { GPIOx->IEV &= ~lu32_Current_Pin; } } /* Double edge */ if (GPIO_Init->Mode == GPIO_MODE_IT_RISING_FALLING) { /* edge trigger */ GPIOx->IS &= ~lu32_Current_Pin; /* Double trigger */ GPIOx->IBE |= lu32_Current_Pin; } /* LEVEL trigger */ if (GPIO_Init->Mode == GPIO_MODE_IT_HIGH_LEVEL || GPIO_Init->Mode == GPIO_MODE_IT_LOW_LEVEL) { /* LEVEL trigger */ GPIOx->IS |= lu32_Current_Pin; if (GPIO_Init->Mode == GPIO_MODE_IT_HIGH_LEVEL) { GPIOx->IEV |= lu32_Current_Pin; } else { GPIOx->IEV &= ~lu32_Current_Pin; } } }break; default: break; } /* Set Pull UP or DOWN or NO */ if (GPIO_Init->Pull == GPIO_NOPULL) { *lu32_PollUP &= ~lu32_Current_Pin; *lu32_PollDown &= ~lu32_Current_Pin; } else if (GPIO_Init->Pull == GPIO_PULLUP) { *lu32_PollUP |= lu32_Current_Pin; *lu32_PollDown &= ~lu32_Current_Pin; } else if (GPIO_Init->Pull == GPIO_PULLDOWN) { *lu32_PollUP &= ~lu32_Current_Pin; *lu32_PollDown |= lu32_Current_Pin; } /* Set Open Drain Mode */ if (GPIO_Init->Mode & GPIO_MODE_OD_MASK) { *lu32_ODEnable |= lu32_Current_Pin; } else { *lu32_ODEnable &= ~lu32_Current_Pin; } /* GPIO Function */ if (GPIO_Init->Mode & GPIO_MODE_IO_MASK) { /* Get Position Mask */ if (lu32_Position < 16) { /* GOIOA?⊿GPIOC?⊿GPIOE */ lu32_Position_Mask = lu32_Position; } else { /* GPIOB?⊿GPIOD?⊿GPIOF */ lu32_Position_Mask = lu32_Position - 16; } /* SET GPIO Function */ if (lu32_Position_Mask < 8) { *lu32_SEL1 = (*lu32_SEL1 & ~(0xF << (lu32_Position_Mask * 4))) | (GPIO_FUNCTION_0 << (lu32_Position_Mask * 4)); } else { *lu32_SEL2 = (*lu32_SEL2 & ~(0xF << ((lu32_Position_Mask - 8) * 4))) | (GPIO_FUNCTION_0 << ((lu32_Position_Mask - 8) * 4)); } } /* SET Digital or Analog */ if (GPIO_Init->Mode == GPIO_MODE_ANALOG) { *lu32_ADS |= lu32_Current_Pin; } else { *lu32_ADS &= ~lu32_Current_Pin; } } lu32_Position++; } } /********************************************************************************* * Function : HAL_GPIO_DeInit * Description : De-initializes the GPIOx peripheral registers to their default reset values. * Input : fe_GPIO㏒oto select the GPIO peripheral. * Input : fu32_Pin㏒ospecifies the port bit to be written. This parameter can be one of GPIO_PIN_x where x can be (0..15). * Outpu : * Author : Chris_Kyle Data : 2020 **********************************************************************************/ void HAL_GPIO_DeInit(enum_GPIOx_t fe_GPIO, uint32_t fu32_Pin) { uint32_t lu32_Position = 0; uint32_t lu32_Current_Pin; uint32_t lu32_Position_Mask; volatile uint32_t *lu32_SEL1 = NULL; // ???辰 -> 1邦???∩車???∩??‾1 volatile uint32_t *lu32_SEL2 = NULL; // ???辰 -> 1邦???∩車???∩??‾2 volatile uint32_t *lu32_PollUP = NULL; // ???辰 -> 谷?角-??????∩??‾ volatile uint32_t *lu32_PollDown = NULL; // ???辰 -> ??角-??????∩??‾ volatile uint32_t *lu32_ODEnable = NULL; // ???辰 -> ?a??那1?邦??∩??‾ volatile uint32_t *lu32_ADS = NULL; // ???辰 -> 那y℅??⊿?㏒?a??????∩??‾ GPIO_TypeDef *GPIOx; #if (USE_FULL_ASSERT == 1) /* Check the parameters */ if (!IS_GPIO_ALL_INSTANCE(fe_GPIO)) return; if (!IS_GPIO_PIN(fu32_Pin)) return; #endif switch (fe_GPIO) { case GPIOA: case GPIOB: { GPIOx = GPIOAB; System_Module_Enable(EN_GPIOAB); lu32_PollUP = &(SCU->PABPUR); lu32_PollDown = &(SCU->PABPDR); lu32_ODEnable = &(SCU->PABODR); lu32_ADS = &(SCU->PABADS); if (fe_GPIO == GPIOB) { fu32_Pin <<= 16; lu32_SEL1 = &(SCU->PBSEL1); lu32_SEL2 = &(SCU->PBSEL2); } else { lu32_SEL1 = &(SCU->PASEL1); lu32_SEL2 = &(SCU->PASEL2); } }break; case GPIOC: case GPIOD: { GPIOx = GPIOCD; System_Module_Enable(EN_GPIOCD); lu32_PollUP = &(SCU->PCDPUR); lu32_PollDown = &(SCU->PCDPDR); lu32_ODEnable = &(SCU->PCDODR); lu32_ADS = &(SCU->PCDADS); if (fe_GPIO == GPIOD) { fu32_Pin <<= 16; lu32_SEL1 = &(SCU->PDSEL1); lu32_SEL2 = &(SCU->PDSEL2); } else { lu32_SEL1 = &(SCU->PCSEL1); lu32_SEL2 = &(SCU->PCSEL2); } }break; case GPIOE: case GPIOF: { GPIOx = GPIOEF; System_Module_Enable(EN_GPIOEF); lu32_PollUP = &(SCU->PEFPUR); lu32_PollDown = &(SCU->PEFPDR); lu32_ODEnable = &(SCU->PEFODR); lu32_ADS = &(SCU->PEFADS); if (fe_GPIO == GPIOF) { fu32_Pin <<= 16; lu32_SEL1 = &(SCU->PFSEL1); } else { lu32_SEL1 = &(SCU->PESEL1); lu32_SEL2 = &(SCU->PESEL2); } }break; default: break; } /* Configure Select pins */ while (fu32_Pin >> lu32_Position != 0) { /* Get current pin position */ lu32_Current_Pin = fu32_Pin & (1uL << lu32_Position); if (lu32_Current_Pin) { /* GPIO IN Function */ GPIOx->DIR &= ~lu32_Current_Pin; GPIOx->CLR |= lu32_Current_Pin; /* Disable Enable INT */ GPIOx->IEN &= ~lu32_Current_Pin; /* Clear trigger config */ GPIOx->IS &= ~lu32_Current_Pin; GPIOx->IBE &= ~lu32_Current_Pin; GPIOx->IEV &= ~lu32_Current_Pin; /* Get Position Mask */ if (lu32_Position < 16) { /* GOIOA?⊿GPIOC?⊿GPIOE */ lu32_Position_Mask = lu32_Position; } else { /* GPIOB?⊿GPIOD?⊿GPIOF */ lu32_Position_Mask = lu32_Position - 16; } /* SET GPIO Function */ if (lu32_Position_Mask < 8) { *lu32_SEL1 &= ~(0xF << (lu32_Position_Mask * 4)); } else { *lu32_SEL2 &= ~(0xF << ((lu32_Position_Mask - 8) * 4)); } /* NO Pull */ *lu32_PollUP &= ~lu32_Current_Pin; *lu32_PollDown &= ~lu32_Current_Pin; /* Not Open Drain */ *lu32_ODEnable &= ~lu32_Current_Pin; /* Analog Mode */ *lu32_ADS |= lu32_Current_Pin; } lu32_Position++; } } /********************************************************************************* * Function : HAL_GPIO_AnalogEnable * Description : Quickly Configure to analog function * Input : fe_GPIO㏒oto select the GPIO peripheral. * Input : fu32_Pin㏒ospecifies the port bit to be written. This parameter can be one of GPIO_PIN_x where x can be (0..15). * Outpu : * Author : Chris_Kyle Data : 2020?那 **********************************************************************************/ void HAL_GPIO_AnalogEnable(enum_GPIOx_t fe_GPIO, uint32_t fu32_Pin) { uint32_t lu32_Position = 0; uint32_t lu32_Current_Pin; volatile uint32_t *lp32_ADS = NULL; // ???辰 -> 那y℅??⊿?㏒?a??????∩??‾ GPIO_TypeDef *GPIOx; #if (USE_FULL_ASSERT == 1) /* Check the parameters */ if (!IS_GPIO_ALL_INSTANCE(fe_GPIO)) return; if (!IS_GPIO_PIN(fu32_Pin)) return; #endif switch (fe_GPIO) { case GPIOA: case GPIOB: { System_Module_Enable(EN_GPIOAB); lp32_ADS = &(SCU->PABADS); if (fe_GPIO == GPIOB) { fu32_Pin <<= 16; } }break; case GPIOC: case GPIOD: { System_Module_Enable(EN_GPIOCD); lp32_ADS = &(SCU->PCDADS); if (fe_GPIO == GPIOD) { fu32_Pin <<= 16; } }break; case GPIOE: case GPIOF: { System_Module_Enable(EN_GPIOEF); lp32_ADS = &(SCU->PEFADS); if (fe_GPIO == GPIOF) { fu32_Pin <<= 16; } }break; default: break; } /* Configure Select pins */ while ((fu32_Pin) >> lu32_Position != 0) { /* Get current pin position */ lu32_Current_Pin = (fu32_Pin) & (1uL << lu32_Position); if (lu32_Current_Pin) { *lp32_ADS |= lu32_Current_Pin; } lu32_Position++; } } /********************************************************************************* * Function : HAL_GPIO_WritePin * Description : Set or clear the selected data port bit. * Input : * Outpu : * Author : Chris_Kyle Data : 2020?那 **********************************************************************************/ void HAL_GPIO_WritePin(enum_GPIOx_t fe_GPIO, uint32_t fu32_GPIO_Pin, enum_PinState_t fe_PinState) { GPIO_TypeDef *GPIOx; #if (USE_FULL_ASSERT == 1) /* Check the parameters */ if (!IS_GPIO_ALL_INSTANCE(fe_GPIO)) return; if (!IS_GPIO_PIN(fu32_GPIO_Pin)) return; if (!IS_GPIO_PIN_ACTION(fe_PinState)) return; #endif switch (fe_GPIO) { case GPIOA: case GPIOB: { GPIOx = GPIOAB; }break; case GPIOC: case GPIOD: { GPIOx = GPIOCD; }break; case GPIOE: case GPIOF: { GPIOx = GPIOEF; }break; default: break; } if (fe_GPIO == GPIOB || fe_GPIO == GPIOD || fe_GPIO == GPIOF) { fu32_GPIO_Pin <<= 16; } if (GPIO_PIN_SET == fe_PinState) { GPIOx->ODATA |= fu32_GPIO_Pin; } else { GPIOx->ODATA &= ~fu32_GPIO_Pin; } } /********************************************************************************* * Function : HAL_GPIO_ReadPin * Description : Read the specified input port pin. * Input : * Outpu : * Author : Chris_Kyle Data : 2020?那 **********************************************************************************/ enum_PinState_t HAL_GPIO_ReadPin(enum_GPIOx_t fe_GPIO, uint32_t fu32_GPIO_Pin) { GPIO_TypeDef *GPIOx; switch (fe_GPIO) { case GPIOA: case GPIOB: { GPIOx = GPIOAB; }break; case GPIOC: case GPIOD: { GPIOx = GPIOCD; }break; case GPIOE: case GPIOF: { GPIOx = GPIOEF; }break; default: break; } if (fe_GPIO == GPIOB || fe_GPIO == GPIOD || fe_GPIO == GPIOF) { fu32_GPIO_Pin <<= 16; } if (GPIOx->IDATA & fu32_GPIO_Pin) { return GPIO_PIN_SET; } else { return GPIO_PIN_CLEAR; } }