Changes to conform to coding standard.

This commit is contained in:
Gregory Nutt
2015-09-05 07:50:02 -06:00
parent 60d444cd69
commit 2ed09233d3
6 changed files with 204 additions and 196 deletions
+3 -3
View File
@@ -70,7 +70,7 @@
#if defined(CONFIG_EFM32_ADC1) #if defined(CONFIG_EFM32_ADC1)
/* This implementation is for the EFM32 F1, F2, and F4 only */ /* This implementation is for the EFM32GG Only */
#if defined(CONFIG_EFM32_EFM32GG) #if defined(CONFIG_EFM32_EFM32GG)
@@ -1280,6 +1280,6 @@ struct adc_dev_s *efm32_adcinitialize(int intf, const uint8_t *chanlist, int nch
return dev; return dev;
} }
#endif /* CONFIG_EFM32_EFM32F10XX || CONFIG_EFM32_EFM32F20XX || CONFIG_EFM32_EFM32F40XX */ #endif /* CONFIG_EFM32_EFM32GG */
#endif /* CONFIG_EFM32_ADC || CONFIG_EFM32_ADC2 || CONFIG_EFM32_ADC3 */ #endif /* CONFIG_EFM32_ADC1 */
#endif /* CONFIG_ADC */ #endif /* CONFIG_ADC */
+18 -14
View File
@@ -73,12 +73,12 @@
* Private Functions * Private Functions
****************************************************************************/ ****************************************************************************/
/****************************************************************************** /******************************************************************************
* Name: bitband_set_peripheral * Name: bitband_set_peripheral
*
* Description:
* Perform bit-band write operation on peripheral memory location. * Perform bit-band write operation on peripheral memory location.
* *
* Description
* Bit-banding provides atomic read-modify-write cycle for single bit * Bit-banding provides atomic read-modify-write cycle for single bit
* modification. Please refer to the reference manual for further details * modification. Please refer to the reference manual for further details
* about bit-banding. * about bit-banding.
@@ -86,12 +86,13 @@
* Note * Note
* This function is only atomic on cores which fully support bitbanding. * This function is only atomic on cores which fully support bitbanding.
* *
* Parameters * Input Parmeters:
* addr Peripheral address location to modify bit in. * addr Peripheral address location to modify bit in.
* bit Bit position to modify, 0-31. * bit Bit position to modify, 0-31.
* val Value to set bit to, 0 or 1. * val Value to set bit to, 0 or 1.
* *
******************************************************************************/ ******************************************************************************/
inline void bitband_set_peripheral(uint32_t addr, uint32_t bit, uint32_t val) inline void bitband_set_peripheral(uint32_t addr, uint32_t bit, uint32_t val)
{ {
uint32_t regval; uint32_t regval;
@@ -100,12 +101,12 @@ inline void bitband_set_peripheral(uint32_t addr, uint32_t bit, uint32_t val)
*((volatile uint32_t *)regval) = (uint32_t)val; *((volatile uint32_t *)regval) = (uint32_t)val;
} }
/****************************************************************************** /******************************************************************************
* Name: bitband_get_peripheral * Name: bitband_get_peripheral
*
* Description:
* Perform bit-band operation on peripheral memory location. * Perform bit-band operation on peripheral memory location.
* *
* Description
* This function reads a single bit from the peripheral bit-band alias region. * This function reads a single bit from the peripheral bit-band alias region.
* Bit-banding provides atomic read-modify-write cycle for single bit * Bit-banding provides atomic read-modify-write cycle for single bit
* modification. Please refer to the reference manual for further details * modification. Please refer to the reference manual for further details
@@ -114,13 +115,15 @@ inline void bitband_set_peripheral(uint32_t addr, uint32_t bit, uint32_t val)
* Note * Note
* This function is only atomic on cores which fully support bitbanding. * This function is only atomic on cores which fully support bitbanding.
* *
* Parameters * Input Parmeters:
* addr Peripheral address location to read. * addr Peripheral address location to read.
* bit Bit position to modify, 0-31. * bit Bit position to modify, 0-31.
* *
* Returned Value:
* Return bit value read, 0 or 1. * Return bit value read, 0 or 1.
* *
******************************************************************************/ ******************************************************************************/
inline uint32_t bitband_get_peripheral(uint32_t addr, uint32_t bit) inline uint32_t bitband_get_peripheral(uint32_t addr, uint32_t bit)
{ {
uint32_t regval; uint32_t regval;
@@ -129,12 +132,12 @@ inline uint32_t bitband_get_peripheral(uint32_t addr, uint32_t bit)
return *((volatile uint32_t *)regval); return *((volatile uint32_t *)regval);
} }
/****************************************************************************** /******************************************************************************
* Name: bitband_set_sram * Name: bitband_set_sram
*
* Description:
* Perform bit-band write operation on SRAM memory location. * Perform bit-band write operation on SRAM memory location.
* *
* Description
* Bit-banding provides atomic read-modify-write cycle for single bit * Bit-banding provides atomic read-modify-write cycle for single bit
* modification. Please refer to the reference manual for further details * modification. Please refer to the reference manual for further details
* about bit-banding. * about bit-banding.
@@ -142,12 +145,13 @@ inline uint32_t bitband_get_peripheral(uint32_t addr, uint32_t bit)
* Note * Note
* This function is only atomic on cores which fully support bitbanding. * This function is only atomic on cores which fully support bitbanding.
* *
* Parameters * Input Parmeters:
* addr SRAM address location to modify bit in. * addr SRAM address location to modify bit in.
* bit Bit position to modify, 0-31. * bit Bit position to modify, 0-31.
* val Value to set bit to, 0 or 1. * val Value to set bit to, 0 or 1.
* *
******************************************************************************/ ******************************************************************************/
inline void bitband_set_sram(uint32_t addr, uint32_t bit, uint32_t val) inline void bitband_set_sram(uint32_t addr, uint32_t bit, uint32_t val)
{ {
uint32_t regval; uint32_t regval;
@@ -156,12 +160,12 @@ inline void bitband_set_sram(uint32_t addr, uint32_t bit, uint32_t val)
*((volatile uint32_t *)regval) = (uint32_t)val; *((volatile uint32_t *)regval) = (uint32_t)val;
} }
/****************************************************************************** /******************************************************************************
* Name: bitband_get_sram * Name: bitband_get_sram
*
* Description::
* Perform bit-band operation on SRAM memory location. * Perform bit-band operation on SRAM memory location.
* *
* Description
* This function reads a single bit from the RAM bit-band alias region. * This function reads a single bit from the RAM bit-band alias region.
* Bit-banding provides atomic read-modify-write cycle for single bit * Bit-banding provides atomic read-modify-write cycle for single bit
* modification. Please refer to the reference manual for further details * modification. Please refer to the reference manual for further details
@@ -170,13 +174,15 @@ inline void bitband_set_sram(uint32_t addr, uint32_t bit, uint32_t val)
* Note * Note
* This function is only atomic on cores which fully support bitbanding. * This function is only atomic on cores which fully support bitbanding.
* *
* Parameters * Input Parmeters:
* addr Peripheral address location to read. * addr Peripheral address location to read.
* bit Bit position to modify, 0-31. * bit Bit position to modify, 0-31.
* *
* Returned Value:
* Return bit value read, 0 or 1. * Return bit value read, 0 or 1.
* *
******************************************************************************/ ******************************************************************************/
inline uint32_t bitband_get_sram(uint32_t addr, uint32_t bit) inline uint32_t bitband_get_sram(uint32_t addr, uint32_t bit)
{ {
uint32_t regval; uint32_t regval;
@@ -185,5 +191,3 @@ inline uint32_t bitband_get_sram(uint32_t addr, uint32_t bit)
return *((volatile uint32_t *)regval); return *((volatile uint32_t *)regval);
} }
#endif #endif
+37 -28
View File
@@ -1,7 +1,7 @@
/***************************************************************************** /*****************************************************************************
* arch/arm/src/efm32/efm32_flash.c * arch/arm/src/efm32/efm32_flash.c
* *
* Copyright 2014 Silicon Laboratories, Inc. http://www.silabs.com</b> * Copyright 2014 Silicon Laboratories, Inc. http://www.silabs.com
* *
* Permission is granted to anyone to use this software for any purpose, * Permission is granted to anyone to use this software for any purpose,
* including commercial applications, and to alter it and redistribute it * including commercial applications, and to alter it and redistribute it
@@ -113,16 +113,15 @@
# define EFM32_USERDATA_PAGESIZE (EFM32_USERDATA_SIZE/EFM32_USERDATA_NPAGES) # define EFM32_USERDATA_PAGESIZE (EFM32_USERDATA_SIZE/EFM32_USERDATA_NPAGES)
#endif #endif
/* /* brief:
* brief:
* The timeout used while waiting for the flash to become ready after * The timeout used while waiting for the flash to become ready after
* a write. This number indicates the number of iterations to perform before * a write. This number indicates the number of iterations to perform before
* issuing a timeout. * issuing a timeout.
* note: * note:
* This timeout is set very large (in the order of 100x longer than * This timeout is set very large (in the order of 100x longer than
* necessary). This is to avoid any corner cases. * necessary). This is to avoid any corner cases.
*
*/ */
#define MSC_PROGRAM_TIMEOUT 10000000ul #define MSC_PROGRAM_TIMEOUT 10000000ul
/************************************************************************************ /************************************************************************************
@@ -179,17 +178,17 @@ void efm32_flash_unlock(void)
regval |= (cycles << _MSC_TIMEBASE_BASE_SHIFT); regval |= (cycles << _MSC_TIMEBASE_BASE_SHIFT);
} }
putreg32(regval,EFM32_MSC_TIMEBASE); putreg32(regval,EFM32_MSC_TIMEBASE);
#endif #endif
} }
/******************************************************************************* /*******************************************************************************
* Name: msc_load_verify_address * Name: msc_load_verify_address
* Perform address phase of FLASH write cycle. *
* Description: * Description:
* Perform address phase of FLASH write cycle.
*
* This function performs the address phase of a Flash write operation by * This function performs the address phase of a Flash write operation by
* writing the given flash address to the ADDRB register and issuing the * writing the given flash address to the ADDRB register and issuing the
* LADDRIM command to load the address. * LADDRIM command to load the address.
@@ -207,8 +206,8 @@ void efm32_flash_unlock(void)
* -EBUSY - Busy timeout. * -EBUSY - Busy timeout.
* -EINVAL - Operation tried to access a non-flash area. * -EINVAL - Operation tried to access a non-flash area.
* -EACCES - Operation tried to access a locked area of the flash. * -EACCES - Operation tried to access a locked area of the flash.
******************************************************************************* *******************************************************************************/
*/
int __ramfunc__ msc_load_verify_address(uint32_t* address) int __ramfunc__ msc_load_verify_address(uint32_t* address)
{ {
uint32_t status; uint32_t status;
@@ -248,25 +247,31 @@ int __ramfunc__ msc_load_verify_address(uint32_t* address)
if (status & MSC_STATUS_LOCKED) if (status & MSC_STATUS_LOCKED)
return -EACCES; return -EACCES;
} }
return OK; return OK;
} }
/******************************************************************************* /*******************************************************************************
* Name:msc_load_data * Name:msc_load_data
* Perform data phase of FLASH write cycle. *
* Description: * Description:
* Perform data phase of FLASH write cycle.
*
* This function performs the data phase of a Flash write operation by loading * This function performs the data phase of a Flash write operation by loading
* the given number of 32-bit words to the WDATA register. * the given number of 32-bit words to the WDATA register.
*
* note: * note:
* This function MUST be executed from RAM. Failure to execute this portion * This function MUST be executed from RAM. Failure to execute this portion
* of the code in RAM will result in a hardfault. For IAR, Rowley and * of the code in RAM will result in a hardfault. For IAR, Rowley and
* Codesourcery this will be achieved automatically. For Keil uVision 4 you * Codesourcery this will be achieved automatically. For Keil uVision 4 you
* must define a section called "ram_code" and place this manually in your * must define a section called "ram_code" and place this manually in your
* project's scatter file. * project's scatter file.
* paramelters: *
* Input Parameters:
* data : Pointer to the first data word to load. * data : Pointer to the first data word to load.
* num_words : Number of data words (32-bit) to load. * num_words : Number of data words (32-bit) to load.
* return: *
* Returned Value:
* Returns the status of the data load operation, #msc_Return_TypeDef * Returns the status of the data load operation, #msc_Return_TypeDef
* OK - Operation completed successfully. * OK - Operation completed successfully.
* -ETIMEDOUT - Operation timed out waiting for flash operation * -ETIMEDOUT - Operation timed out waiting for flash operation
@@ -287,14 +292,12 @@ int __ramfunc__ msc_load_write_data(uint32_t* data, uint32_t num_words,
if (!(getreg32(EFM32_MSC_WRITECTRL) & MSC_WRITECTRL_LPWRITE)) if (!(getreg32(EFM32_MSC_WRITECTRL) & MSC_WRITECTRL_LPWRITE))
{ {
/* If the number of words to be written are odd, we need to align by writing /* If the number of words to be written are odd, we need to align by writing
* a single word first, before setting the WDOUBLE bit. * a single word first, before setting the WDOUBLE bit.
*/ */
if (num_words & 0x1) if (num_words & 0x1)
{ {
/* Wait for the msc to be ready for the next word. */ /* Wait for the msc to be ready for the next word. */
timeout = MSC_PROGRAM_TIMEOUT; timeout = MSC_PROGRAM_TIMEOUT;
@@ -361,7 +364,6 @@ int __ramfunc__ msc_load_write_data(uint32_t* data, uint32_t num_words,
if (num_words > 0) if (num_words > 0)
{ {
/* Write strategy: msc_write_int_safe */ /* Write strategy: msc_write_int_safe */
if (write_strategy_safe) if (write_strategy_safe)
@@ -381,9 +383,11 @@ int __ramfunc__ msc_load_write_data(uint32_t* data, uint32_t num_words,
while (!(getreg32(EFM32_MSC_STATUS) & MSC_STATUS_WDATAREADY)) while (!(getreg32(EFM32_MSC_STATUS) & MSC_STATUS_WDATAREADY))
{ {
} }
putreg32(*data++,EFM32_MSC_WDATA); putreg32(*data++,EFM32_MSC_WDATA);
word_index++; word_index++;
} }
putreg32(MSC_WRITECMD_WRITEONCE,EFM32_MSC_WRITECMD); putreg32(MSC_WRITECMD_WRITEONCE,EFM32_MSC_WRITECMD);
/* Wait for the transaction to finish. */ /* Wait for the transaction to finish. */
@@ -402,6 +406,7 @@ int __ramfunc__ msc_load_write_data(uint32_t* data, uint32_t num_words,
ret = -ETIMEDOUT; ret = -ETIMEDOUT;
break; break;
} }
#if defined(CONFIG_EFM32_EFM32G) #if defined(CONFIG_EFM32_EFM32G)
putreg32(getreg32(EFM32_MSC_ADDRB)+4,EFM32_MSC_ADDRB); putreg32(getreg32(EFM32_MSC_ADDRB)+4,EFM32_MSC_ADDRB);
putreg32(MSC_WRITECMD_LADDRIM,EFM32_MSC_WRITECMD); putreg32(MSC_WRITECMD_LADDRIM,EFM32_MSC_WRITECMD);
@@ -462,6 +467,7 @@ int __ramfunc__ msc_load_write_data(uint32_t* data, uint32_t num_words,
{ {
putreg32(MSC_WRITECMD_WRITETRIG,EFM32_MSC_WRITECMD); putreg32(MSC_WRITECMD_WRITETRIG,EFM32_MSC_WRITECMD);
} }
data++; data++;
word_index++; word_index++;
} }
@@ -493,14 +499,10 @@ int __ramfunc__ msc_load_write_data(uint32_t* data, uint32_t num_words,
#endif #endif
return ret; return ret;
} }
void efm32_flash_lock(void) void efm32_flash_lock(void)
{ {
/* Disable writing to the flash */ /* Disable writing to the flash */
bitband_set_peripheral(EFM32_MSC_WRITECTRL,_MSC_WRITECTRL_WREN_SHIFT,0); bitband_set_peripheral(EFM32_MSC_WRITECTRL,_MSC_WRITECTRL_WREN_SHIFT,0);
@@ -508,7 +510,6 @@ void efm32_flash_lock(void)
/* Unlock the EFM32_MSC */ /* Unlock the EFM32_MSC */
putreg32(0,EFM32_MSC_LOCK); putreg32(0,EFM32_MSC_LOCK);
} }
#ifndef EFM32_FLASH_SIZE #ifndef EFM32_FLASH_SIZE
@@ -533,7 +534,9 @@ uint32_t efm32_get_flash_page_size(void)
regval = (regval & _DEVINFO_MEMINFO_FLASH_PAGE_SIZE_MASK) \ regval = (regval & _DEVINFO_MEMINFO_FLASH_PAGE_SIZE_MASK) \
>> _DEVINFO_MEMINFO_FLASH_PAGE_SIZE_SHIFT; >> _DEVINFO_MEMINFO_FLASH_PAGE_SIZE_SHIFT;
if (regval == 0xff) if (regval == 0xff)
{
return 512; return 512;
}
return 1 << (regval+10); return 1 << (regval+10);
} }
@@ -554,12 +557,16 @@ uint32_t efm32_get_flash_page_nbr(void)
size_t up_progmem_pagesize(size_t page) size_t up_progmem_pagesize(size_t page)
{ {
if (page < EFM32_FLASH_NPAGES) if (page < EFM32_FLASH_NPAGES)
{
return EFM32_FLASH_PAGESIZE; return EFM32_FLASH_PAGESIZE;
}
page -= EFM32_FLASH_NPAGES; page -= EFM32_FLASH_NPAGES;
if (page < EFM32_USERDATA_NPAGES) if (page < EFM32_USERDATA_NPAGES)
{
return EFM32_USERDATA_PAGESIZE; return EFM32_USERDATA_PAGESIZE;
}
return 0; return 0;
} }
@@ -568,13 +575,13 @@ ssize_t up_progmem_getpage(size_t addr)
{ {
#if (EFM32_FLASH_BASE != 0) #if (EFM32_FLASH_BASE != 0)
if ((addr >= (EFM32_FLASH_BASE)) && \ if ((addr >= (EFM32_FLASH_BASE)) && \
(addr < (EFM32_FLASH_BASE+EFM32_FLASH_SIZE) ) (addr < (EFM32_FLASH_BASE+EFM32_FLASH_SIZE)))
)
{ {
addr -= EFM32_FLASH_BASE; addr -= EFM32_FLASH_BASE;
return addr / EFM32_FLASH_PAGESIZE; return addr / EFM32_FLASH_PAGESIZE;
} }
#else #else
if (addr < EFM32_FLASH_SIZE) if (addr < EFM32_FLASH_SIZE)
{ {
@@ -583,8 +590,7 @@ ssize_t up_progmem_getpage(size_t addr)
#endif #endif
if ((addr >= (EFM32_USERDATA_BASE)) && \ if ((addr >= (EFM32_USERDATA_BASE)) && \
(addr < (EFM32_USERDATA_BASE+EFM32_USERDATA_SIZE) ) (addr < (EFM32_USERDATA_BASE+EFM32_USERDATA_SIZE)))
)
{ {
addr -= EFM32_USERDATA_BASE; addr -= EFM32_USERDATA_BASE;
@@ -611,7 +617,6 @@ size_t up_progmem_getaddress(size_t page)
return SIZE_MAX; return SIZE_MAX;
} }
size_t up_progmem_npages(void) size_t up_progmem_npages(void)
{ {
return EFM32_FLASH_NPAGES+EFM32_USERDATA_NPAGES; return EFM32_FLASH_NPAGES+EFM32_USERDATA_NPAGES;
@@ -700,9 +705,11 @@ ssize_t __ramfunc__ up_progmem_erasepage(size_t page)
irqrestore(irqs); irqrestore(irqs);
if (ret != 0) if (ret != 0)
{
return ret; return ret;
}
/* success */ /* Success */
return up_progmem_pagesize(page); return up_progmem_pagesize(page);
} }
@@ -805,7 +812,8 @@ ssize_t __ramfunc__ up_progmem_write(size_t addr, const void *buf, size_t size)
irqs = irqsave(); irqs = irqsave();
/* First we load address. The address is auto-incremented within a page. /* First we load address. The address is auto-incremented within a page.
Therefore the address phase is only needed once for each page. */ * Therefore the address phase is only needed once for each page.
*/
ret = msc_load_verify_address(address + word_count); ret = msc_load_verify_address(address + word_count);
@@ -840,10 +848,11 @@ ssize_t __ramfunc__ up_progmem_write(size_t addr, const void *buf, size_t size)
#endif #endif
if (ret < 0) if (ret < 0)
{
return ret; return ret;
}
return word_count; return word_count;
} }
#endif /* defined(CONFIG_ARCH_CHIP_EFM32) */ #endif /* defined(CONFIG_ARCH_CHIP_EFM32) */
+2 -3
View File
@@ -1,7 +1,7 @@
/************************************************************************************ /************************************************************************************
* arch/arm/src/efm32/efm32_gpioirq.c * arch/arm/src/efm32/efm32_gpioirq.c
* *
* Copyright (C) 2014 Gregory Nutt. All rights reserved. * Copyright (C) 2014-2015 Gregory Nutt. All rights reserved.
* Author: Gregory Nutt <gnutt@nuttx.org> * Author: Gregory Nutt <gnutt@nuttx.org>
* *
* Redistribution and use in source and binary forms, with or without * Redistribution and use in source and binary forms, with or without
@@ -302,7 +302,6 @@ void efm32_gpioirqenable(int irq)
void efm32_gpioirqdisable(int irq) void efm32_gpioirqdisable(int irq)
{ {
if (irq >= EFM32_IRQ_EXTI0 && irq <= EFM32_IRQ_EXTI15) if (irq >= EFM32_IRQ_EXTI0 && irq <= EFM32_IRQ_EXTI15)
{ {
/* Enable the interrupt associated with the pin */ /* Enable the interrupt associated with the pin */
@@ -311,6 +310,7 @@ void efm32_gpioirqdisable(int irq)
irqstate_t flags; irqstate_t flags;
uint32_t regval; uint32_t regval;
uint32_t bit; uint32_t bit;
bit = ((uint32_t)1 << (irq - EFM32_IRQ_EXTI0)); bit = ((uint32_t)1 << (irq - EFM32_IRQ_EXTI0));
flags = irqsave(); flags = irqsave();
regval = getreg32(EFM32_GPIO_IEN); regval = getreg32(EFM32_GPIO_IEN);
@@ -333,7 +333,6 @@ void efm32_gpioirqdisable(int irq)
void efm32_gpioirqclear(int irq) void efm32_gpioirqclear(int irq)
{ {
if (irq >= EFM32_IRQ_EXTI0 && irq <= EFM32_IRQ_EXTI15) if (irq >= EFM32_IRQ_EXTI0 && irq <= EFM32_IRQ_EXTI15)
{ {
/* Enable the interrupt associated with the pin */ /* Enable the interrupt associated with the pin */
-4
View File
@@ -1255,7 +1255,6 @@ static int efm32_i2c_isr(struct efm32_i2c_priv_s *priv)
efm32_i2c_putreg(priv,EFM32_I2C_CMD_OFFSET,I2C_CMD_NACK); efm32_i2c_putreg(priv,EFM32_I2C_CMD_OFFSET,I2C_CMD_NACK);
} }
} }
} }
goto done; goto done;
@@ -1603,16 +1602,13 @@ static int efm32_i2c_process(FAR struct i2c_dev_s *dev,
/* Abort */ /* Abort */
efm32_i2c_putreg(priv, EFM32_I2C_CMD_OFFSET, I2C_CMD_ABORT); efm32_i2c_putreg(priv, EFM32_I2C_CMD_OFFSET, I2C_CMD_ABORT);
} }
else else
{ {
/* Check for error status conditions */ /* Check for error status conditions */
switch(priv->result) switch(priv->result)
{ {
/* Arbitration lost during transfer. */ /* Arbitration lost during transfer. */
case I2CRESULT_ARBLOST: case I2CRESULT_ARBLOST:
+32 -32
View File
@@ -80,83 +80,83 @@ typedef struct
static efm32_reset_cause_list_t efm32_reset_cause_list[] = static efm32_reset_cause_list_t efm32_reset_cause_list[] =
{ {
{ {
0x0001, //0bXXXX XXXX XXXX XXX1 0x0001, /* 0bXXXX XXXX XXXX XXX1 */
0x0001, //0bXXXX XXXX XXXX XXX1 0x0001, /* 0bXXXX XXXX XXXX XXX1 */
"A Power-on Reset has been performed. X bits are don't care." "A Power-on Reset has been performed. X bits are don't care."
}, },
{ {
0x0002, //0bXXXX XXXX 0XXX XX10 0x0002, /* 0bXXXX XXXX 0XXX XX10 */
0x0003, //0bXXXX XXXX 1XXX XX11 0x0003, /* 0bXXXX XXXX 1XXX XX11 */
"A Brown-out has been detected on the unregulated power." "A Brown-out has been detected on the unregulated power."
}, },
{ {
0x0004, //0bXXXX XXXX XXX0 0100 0x0004, /* 0bXXXX XXXX XXX0 0100 */
0x001F, //0bXXXX XXXX XXX1 1111 0x001F, /* 0bXXXX XXXX XXX1 1111 */
"A Brown-out has been detected on the regulated power." "A Brown-out has been detected on the regulated power."
}, },
{ {
0x0008, //0bXXXX XXXX XXXX 1X00 0x0008, /* 0bXXXX XXXX XXXX 1X00 */
0x000B, //0bXXXX XXXX XXXX 1X11 0x000B, /* 0bXXXX XXXX XXXX 1X11 */
"An external reset has been applied." "An external reset has been applied."
}, },
{ {
0x0010, //0bXXXX XXXX XXX1 XX00 0x0010, /* 0bXXXX XXXX XXX1 XX00 */
0x0013, //0bXXXX XXXX XXX1 XX11 0x0013, /* 0bXXXX XXXX XXX1 XX11 */
"A watchdog reset has occurred." "A watchdog reset has occurred."
}, },
{ {
0x0020, //0bXXXX X000 0010 0000 0x0020, /* 0bXXXX X000 0010 0000 */
0x07FF, //0bXXXX X111 1111 1111 0x07FF, /* 0bXXXX X111 1111 1111 */
"A lockup reset has occurred." "A lockup reset has occurred."
}, },
{ {
0x0040, //0bXXXX X000 01X0 0000 0x0040, /* 0bXXXX X000 01X0 0000 */
0x07DF, //0bXXXX X111 11X1 1111 0x07DF, /* 0bXXXX X111 11X1 1111 */
"A system request reset has occurred." "A system request reset has occurred."
}, },
{ {
0x0080, //0bXXXX X000 1XX0 0XX0 0x0080, /* 0bXXXX X000 1XX0 0XX0 */
0x0799, //0bXXXX X111 1XX1 1XX1 0x0799, /* 0bXXXX X111 1XX1 1XX1 */
"The system has woken up from EM4." "The system has woken up from EM4."
}, },
{ {
0x0180, //0bXXXX X001 1XX0 0XX0 0x0180, /* 0bXXXX X001 1XX0 0XX0 */
0x0799, //0bXXXX X111 1XX1 1XX1 0x0799, /* 0bXXXX X111 1XX1 1XX1 */
"The system has woken up from EM4 on an EM4 wakeup reset request from pin." "The system has woken up from EM4 on an EM4 wakeup reset request from pin."
}, },
{ {
0x0200, //0bXXXX X01X XXX0 0000 0x0200, /* 0bXXXX X01X XXX0 0000 */
0x061F, //0bXXXX X11X XXX1 1111 0x061F, /* 0bXXXX X11X XXX1 1111 */
"A Brown-out has been detected on Analog Power Domain 0 (AVDD0)." "A Brown-out has been detected on Analog Power Domain 0 (AVDD0)."
}, },
{ {
0x0400, //0bXXXX X10X XXX0 0000 0x0400, /* 0bXXXX X10X XXX0 0000 */
0x061F, //0bXXXX X11X XXX1 1111 0x061F, /* 0bXXXX X11X XXX1 1111 */
"A Brown-out has been detected on Analog Power Domain 1 (AVDD1)." "A Brown-out has been detected on Analog Power Domain 1 (AVDD1)."
}, },
{ {
0x0800, //0bXXXX 1XXX XXXX 0XX0 0x0800, /* 0bXXXX 1XXX XXXX 0XX0 */
0x0809, //0bXXXX 1XXX XXXX 1XX1 0x0809, /* 0bXXXX 1XXX XXXX 1XX1 */
"A Brown-out has been detected by the Backup BOD on VDD_DREG." "A Brown-out has been detected by the Backup BOD on VDD_DREG."
}, },
{ {
0x1000, //0bXXX1 XXXX XXXX 0XX0 0x1000, /* 0bXXX1 XXXX XXXX 0XX0 */
0x1009, //0bXXX1 XXXX XXXX 1XX1 0x1009, /* 0bXXX1 XXXX XXXX 1XX1 */
"A Brown-out has been detected by the Backup BOD on BU_VIN." "A Brown-out has been detected by the Backup BOD on BU_VIN."
}, },
{ {
0x2000, //0bXX1X XXXX XXXX 0XX0 0x2000, /* 0bXX1X XXXX XXXX 0XX0 */
0x2009, //0bXX1X XXXX XXXX 1XX1 0x2009, /* 0bXX1X XXXX XXXX 1XX1 */
"A Brown-out has been detected by the Backup BOD on unregulated power" "A Brown-out has been detected by the Backup BOD on unregulated power"
}, },
{ {
0x4000, //0bX1XX XXXX XXXX 0XX0 0x4000, /* 0bX1XX XXXX XXXX 0XX0 */
0x4009, //0bX1XX XXXX XXXX 1XX1 0x4009, /* 0bX1XX XXXX XXXX 1XX1 */
"A Brown-out has been detected by the Backup BOD on regulated power." "A Brown-out has been detected by the Backup BOD on regulated power."
}, },
{ {
0x8000, //0b1XXX XXXX XXXX XXX0 0x8000, /* 0b1XXX XXXX XXXX XXX0 */
0x8001, //0b1XXX XXXX XXXX XXX1 0x8001, /* 0b1XXX XXXX XXXX XXX1 */
"The system has been in Backup mode." "The system has been in Backup mode."
} }
}; };