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TiSmartCar/include/core/ti/driverlib/dl_flashctl.h
Boen_Shi 8be2866433 feat(base): 初始化 MSPM0 开发环境 
- 添加头文件和配置文件支持
- 更新.gitignore忽略编译和IDE相关文件
- 添加基础的bsp代码
2026-07-16 14:45:26 +08:00

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/*
* Copyright (c) 2020, Texas Instruments Incorporated
* All rights reserved.
*
* Redistribution and use in source and binary forms, with or without
* modification, are permitted provided that the following conditions
* are met:
*
* * Redistributions of source code must retain the above copyright
* notice, this list of conditions and the following disclaimer.
*
* * Redistributions in binary form must reproduce the above copyright
* notice, this list of conditions and the following disclaimer in the
* documentation and/or other materials provided with the distribution.
*
* * Neither the name of Texas Instruments Incorporated nor the names of
* its contributors may be used to endorse or promote products derived
* from this software without specific prior written permission.
*
* THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS "AS IS"
* AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT LIMITED TO,
* THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR A PARTICULAR
* PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT OWNER OR
* CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL, SPECIAL,
* EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT LIMITED TO,
* PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE, DATA, OR PROFITS;
* OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY THEORY OF LIABILITY,
* WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT (INCLUDING NEGLIGENCE OR
* OTHERWISE) ARISING IN ANY WAY OUT OF THE USE OF THIS SOFTWARE,
* EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
*/
/*!****************************************************************************
* @file dl_flashctl.h
* @brief Flash Controller Driver Library
* @defgroup FLASHCTL Flash Controller (FLASHCTL)
*
* @anchor ti_dl_dl_flashctl_Overview
* # Overview
*
* The Flash Controller Driver Library allows full configuration of
* the MSPM0 Non-Volatile memory system.
* The non-volatile memory (NVM) system provides nonvolatile flash memory for
* storing executable code and data.
*
* <hr>
******************************************************************************
*/
/** @addtogroup FLASHCTL
* @{
*/
#ifndef ti_dl_dl_flashctl__include
#define ti_dl_dl_flashctl__include
#include <stdbool.h>
#include <stdint.h>
#include <ti/devices/msp/msp.h>
#include <ti/driverlib/dl_common.h>
#include <ti/driverlib/m0p/dl_factoryregion.h>
#include <ti/driverlib/m0p/dl_sysctl.h>
#ifdef __cplusplus
extern "C" {
#endif
#if (FLASHCTL_SYS_DATAWIDTH == 128)
/*!
* @brief Device has 128 bit flash word width
*/
#define DEVICE_HAS_FLASH_128_BIT_WORD
#endif
#if (FLASHCTL_SYS_WEPROTAWIDTH == 0)
/*!
* @brief Device does not have CMDWEPROTA
*/
#define DEVICE_HAS_NO_CMDWEPROTA
#endif
/* clang-format off */
/*!
* @brief Address for Bank 0
*/
#define FLASHCTL_BANK0_ADDRESS (0x00000000)
/*!
* @brief Address for MAIN memory region
*/
#define FLASHCTL_MAIN_ADDRESS (0x00000000)
/*!
* @brief Address for NONMAIN memory region
*/
#define FLASHCTL_NONMAIN_ADDRESS (0x41c00000)
/*!
* @brief Number of NONMAIN sectors
*/
#define NUMBER_OF_NONMAIN_SECTORS (1)
/*!
* @brief Address for DATA memory region
*/
#define FLASHCTL_DATA_ADDRESS (0x41d00000)
/*!
* @brief Enable programming 8 bits without ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_8_WITHOUT_ECC (0x00000001)
/*!
* @brief Enable programming 16 bits without ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_16_WITHOUT_ECC (0x00000003)
/*!
* @brief Enable programming 32 bits without ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_32_WITHOUT_ECC (0x0000000F)
/*!
* @brief Enable programming 64 bits without ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_64_WITHOUT_ECC (0x000000FF)
/*!
* @brief Enable programming 8 bits with ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_8_WITH_ECC (0x00000101)
/*!
* @brief Enable programming 16 bits with ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_16_WITH_ECC (0x00000103)
/*!
* @brief Enable programming 32 bits with ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_32_WITH_ECC (0x0000010F)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_PROGRAM_64_WITH_ECC (0x000001FF)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_8_WITHOUT_ECC (0x00000001)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_16_WITHOUT_ECC (0x00000003)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_32_WITHOUT_ECC (0x0000000F)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_64_WITHOUT_ECC (0x000000FF)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_8_WITH_ECC (0x00000101)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_16_WITH_ECC (0x00000103)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_32_WITH_ECC (0x0000010F)
/*!
* @brief Enable programming 64 bits with ECC enabled
*/
#define DL_FLASHCTL_READ_VERIFY_64_WITH_ECC (0x000001FF)
/** @addtogroup DL_FLASHCTL_INTERRUPT
* @{
*/
/*!
* @brief Flash Command execution has completed
*/
#define DL_FLASHCTL_INTERRUPT_DONE (FLASHCTL_MIS_DONE_SET)
/** @}*/
/** @addtogroup DL_FLASHCTL_COMMAND_TYPE
* @{
*/
/*!
* @brief No Operation Flash Command
*/
#define DL_FLASHCTL_COMMAND_TYPE_NO_OPERATION (FLASHCTL_CMDTYPE_COMMAND_NOOP)
/*!
* @brief Program Command Type
*/
#define DL_FLASHCTL_COMMAND_TYPE_PROGRAM (FLASHCTL_CMDTYPE_COMMAND_PROGRAM)
/*!
* @brief Erase Command Type
*/
#define DL_FLASHCTL_COMMAND_TYPE_ERASE (FLASHCTL_CMDTYPE_COMMAND_ERASE)
/*!
* @brief Read-Verify Command Type
*/
#define DL_FLASHCTL_COMMAND_TYPE_READ_VERIFY \
(FLASHCTL_CMDTYPE_COMMAND_READVERIFY)
/*!
* @brief Blank Verify Command Type
*/
#define DL_FLASHCTL_COMMAND_TYPE_BLANK_VERIFY \
(FLASHCTL_CMDTYPE_COMMAND_BLANKVERIFY)
/*!
* @brief Mode Change Command Type
*/
#define DL_FLASHCTL_COMMAND_TYPE_MODE_CHANGE \
(FLASHCTL_CMDTYPE_COMMAND_MODECHANGE)
/*!
* @brief Clear Status Command Type
*/
#define DL_FLASHCTL_COMMAND_TYPE_CLEAR_STATUS \
(FLASHCTL_CMDTYPE_COMMAND_CLEARSTATUS)
/** @}*/
/*!
* @brief Size of one flash sector
*/
#define DL_FLASHCTL_SECTOR_SIZE (1024)
/* clang-format on */
/*! @enum DL_FLASHCTL_COMMAND_SIZE */
typedef enum {
/*! Flash Command size is one word */
DL_FLASHCTL_COMMAND_SIZE_ONE_WORD = FLASHCTL_CMDTYPE_SIZE_ONEWORD,
/*! Flash Command size is two words */
DL_FLASHCTL_COMMAND_SIZE_TWO_WORDS = FLASHCTL_CMDTYPE_SIZE_TWOWORD,
/*! Flash Command size is four words */
DL_FLASHCTL_COMMAND_SIZE_FOUR_WORDS = FLASHCTL_CMDTYPE_SIZE_FOURWORD,
/*! Flash Command size is eight words */
DL_FLASHCTL_COMMAND_SIZE_EIGHT_WORDS = FLASHCTL_CMDTYPE_SIZE_EIGHTWORD,
/*! Flash Command size is a sector */
DL_FLASHCTL_COMMAND_SIZE_SECTOR = FLASHCTL_CMDTYPE_SIZE_SECTOR,
/*! Flash Command size is a bank */
DL_FLASHCTL_COMMAND_SIZE_BANK = FLASHCTL_CMDTYPE_SIZE_BANK
} DL_FLASHCTL_COMMAND_SIZE;
/*! @enum DL_FLASHCTL_REGION_SELECT */
typedef enum {
/*! Flash Region Select Main */
DL_FLASHCTL_REGION_SELECT_MAIN = FLASHCTL_CMDCTL_REGIONSEL_MAIN,
/*! Flash Region Select Non-Main */
DL_FLASHCTL_REGION_SELECT_NONMAIN = FLASHCTL_CMDCTL_REGIONSEL_NONMAIN
} DL_FLASHCTL_REGION_SELECT;
/*! @enum DL_FLASHCTL_BANK_SELECT */
typedef enum {
/*! Bank 0 */
DL_FLASHCTL_BANK_SELECT_0 = FLASHCTL_CMDCTL_BANKSEL_BANK0,
/*! Bank 1 */
DL_FLASHCTL_BANK_SELECT_1 = FLASHCTL_CMDCTL_BANKSEL_BANK1,
/*! Bank 2 */
DL_FLASHCTL_BANK_SELECT_2 = FLASHCTL_CMDCTL_BANKSEL_BANK2,
/*! Bank 3 */
DL_FLASHCTL_BANK_SELECT_3 = FLASHCTL_CMDCTL_BANKSEL_BANK3,
/*! Bank 4 */
DL_FLASHCTL_BANK_SELECT_4 = FLASHCTL_CMDCTL_BANKSEL_BANK4
} DL_FLASHCTL_BANK_SELECT;
/*! @enum DL_FLASHCTL_FAIL_TYPE */
typedef enum {
/*! Flash Command did not fail during execution */
DL_FLASHCTL_FAIL_TYPE_NO_FAILURE = 0x0,
/*! Flash Command failed due to write/erase protect sector violation */
DL_FLASHCTL_FAIL_TYPE_WRITE_ERASE_PROTECT =
(FLASHCTL_STATCMD_FAILWEPROT_STATFAIL),
/*! Flash Command failed due to verify error */
DL_FLASHCTL_FAIL_TYPE_VERIFY_ERROR = FLASHCTL_STATCMD_FAILVERIFY_STATFAIL,
/*! Flash Command failed due to the use of an illegal address */
DL_FLASHCTL_FAIL_TYPE_ILLEGAL_ADDRESS =
FLASHCTL_STATCMD_FAILILLADDR_STATFAIL,
/*! Flash Command failed because a bank has been set to a mode other than READ */
DL_FLASHCTL_FAIL_TYPE_WRONG_BANK_MODE = FLASHCTL_STATCMD_FAILMODE_STATFAIL,
/*! Flash Command failed due to an undefined error */
DL_FLASHCTL_FAIL_TYPE_MISCELLANEOUS = FLASHCTL_STATCMD_FAILMISC_STATFAIL,
} DL_FLASHCTL_FAIL_TYPE;
/*! @enum DL_FLASHCTL_COMMAND_STATUS */
typedef enum {
/*! Flash Command passed */
DL_FLASHCTL_COMMAND_STATUS_PASSED = (FLASHCTL_STATCMD_CMDDONE_STATDONE |
FLASHCTL_STATCMD_CMDPASS_STATPASS),
/*! Flash Command failed */
DL_FLASHCTL_COMMAND_STATUS_FAILED = (FLASHCTL_STATCMD_CMDDONE_STATDONE |
FLASHCTL_STATCMD_CMDPASS_STATFAIL),
/*! Flash Command is still in progress */
DL_FLASHCTL_COMMAND_STATUS_IN_PROGRESS =
(FLASHCTL_STATCMD_CMDINPROGRESS_STATINPROGRESS)
} DL_FLASHCTL_COMMAND_STATUS;
/*! @enum DL_FLASHCTL_IIDX */
typedef enum {
/*! DONE Interrupt Pending */
DL_FLASHCTL_IIDX_DONE = FLASHCTL_IIDX_STAT_DONE
} DL_FLASHCTL_IIDX;
/**
* @brief Enable flash interrupt
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
*/
__STATIC_INLINE void DL_FlashCTL_enableInterrupt(FLASHCTL_Regs *flashctl)
{
flashctl->GEN.IMASK = FLASHCTL_IMASK_DONE_ENABLED;
}
/**
* @brief Disable flash interrupt
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
*/
__STATIC_INLINE void DL_FlashCTL_disableInterrupt(FLASHCTL_Regs *flashctl)
{
flashctl->GEN.IMASK = FLASHCTL_IMASK_DONE_DISABLED;
}
/**
* @brief Check if the flash interrupt is enabled
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If the flash interrupt is enabled
*
* @retval false if interrupt is disabled
* @retval true if interrupt is enabled
*/
__STATIC_INLINE bool DL_FlashCTL_isInterruptEnabled(
const FLASHCTL_Regs *flashctl)
{
return (flashctl->GEN.IMASK == FLASHCTL_IMASK_DONE_ENABLED);
}
/**
* @brief Check interrupt flag of enabled flash interrupt
*
* Checks if the flash interrupt that was previously enabled is pending.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If the flash interrupt is pending
*
* @retval 0 if no interrupt is enabled
* @retval The value of @ref DL_FLASHCTL_INTERRUPT
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getEnabledInterruptStatus(
const FLASHCTL_Regs *flashctl)
{
return (flashctl->GEN.MIS);
}
/**
* @brief Check interrupt flag of the flash interrupt
*
* Checks if the flash interrupt is pending. Interrupts do not have to be
* previously enabled.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If the flash interrupt is pending
*
* @retval 0 if no interrupt is enabled
* @retval The value of @ref DL_FLASHCTL_INTERRUPT
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getRawInterruptStatus(
const FLASHCTL_Regs *flashctl)
{
return (flashctl->GEN.RIS);
}
/**
* @brief Get highest priority pending flash interrupt
*
* Checks if the flash interrupt is pending. Interrupts do not have to be
* previously enabled.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The highest priority pending FLASH interrupt
*
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getPendingInterrupt(
const FLASHCTL_Regs *flashctl)
{
return (flashctl->GEN.IIDX);
}
/**
* @brief Clear pending flash interrupt
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
__STATIC_INLINE void DL_FlashCTL_clearInterruptStatus(FLASHCTL_Regs *flashctl)
{
flashctl->GEN.ICLR = FLASHCTL_ICLR_DONE_CLR;
}
/**
* @brief Checks if a command execution has been initiated
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If a command has been set to execute
*
*/
__STATIC_INLINE bool DL_FlashCTL_isCommandExecuted(
const FLASHCTL_Regs *flashctl)
{
return (flashctl->GEN.CMDEXEC == FLASHCTL_CMDEXEC_VAL_EXECUTE);
}
/**
* @brief Initiates a command execution
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
*/
__STATIC_INLINE void DL_FlashCTL_setCommandExecute(FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDEXEC = FLASHCTL_CMDEXEC_VAL_EXECUTE;
}
/**
* @brief Disable Stair-Step Erase
*
* The default VHV trim voltage setting will be used for all erase pulses.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
__STATIC_INLINE void DL_FlashCTL_disbleStairStepErase(FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDCTL |= FLASHCTL_CMDCTL_SSERASEDIS_DISABLE;
}
/**
* @brief Checks if stair-step erase is disabled
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If stair-step erase is disabled
*
*/
__STATIC_INLINE bool DL_FlashCTL_isStairStepEraseDisabled(
const FLASHCTL_Regs *flashctl)
{
return ((flashctl->GEN.CMDCTL & FLASHCTL_CMDCTL_SSERASEDIS_MASK) ==
FLASHCTL_CMDCTL_SSERASEDIS_DISABLE);
}
/**
* @brief Enable Stair-Step Erase
*
* The VHV voltage will be stepped during successive erase pulses. The step
* count, step voltage, begin and end voltages are all hard-wired. This is
* enabled by default.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
__STATIC_INLINE void DL_FlashCTL_enableStairStepErase(FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDCTL &= ~(FLASHCTL_CMDCTL_SSERASEDIS_MASK);
}
/**
* @brief Enable address override mode
*
* This overrides hardware address translation in CMDADDR from a system address
* to a bank address and bank ID. Use data written to CMDADDR directly as the
* bank address. Use the value written to CMDCTL.BANKSEL directly as the bank
* ID. Use the value written to CMDCTL.REGIONSEL directly as the region ID.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @sa DL_FlashCTL_setCommandAddress
* @sa DL_FlashCTL_setBankSelect
* @sa DL_FlashCTL_setRegionSelect
*/
__STATIC_INLINE void DL_FlashCTL_enableAddressOverrideMode(
FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDCTL |= FLASHCTL_CMDCTL_ADDRXLATEOVR_OVERRIDE;
}
/**
* @brief Checks if address override mode is enabled
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If address override mode is enabled
*/
__STATIC_INLINE bool DL_FlashCTL_isAddressOverrideModeEnabled(
const FLASHCTL_Regs *flashctl)
{
return ((flashctl->GEN.CMDCTL & FLASHCTL_CMDCTL_ADDRXLATEOVR_MASK) ==
FLASHCTL_CMDCTL_ADDRXLATEOVR_OVERRIDE);
}
/**
* @brief Disable address override mode
*
* Disable address override mode and return to system addressed mode.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
__STATIC_INLINE void DL_FlashCTL_disableAddressOverrideMode(
FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDCTL &= ~(FLASHCTL_CMDCTL_ADDRXLATEOVR_MASK);
}
/**
* @brief Enable overriding hardware generation of ECC code
*
* Override hardware ECC code generation by the flash controller. When enabled,
* the user can then manually set the ECC code to be programmed by calling
* @ref DL_FlashCTL_setCommandDataECC.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @sa DL_FlashCTL_setCommandDataECC
*/
__STATIC_INLINE void DL_FlashCTL_enableOverrideHardwareGeneratedECC(
FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDCTL |= FLASHCTL_CMDCTL_ECCGENOVR_OVERRIDE;
}
/**
* @brief Checks if overriding hardware generation of ECC code is enabled
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return If overriding hardware generation of ECC code is enabled
*/
__STATIC_INLINE bool DL_FlashCTL_isOverrideHardwareGeneratedECCEnabled(
const FLASHCTL_Regs *flashctl)
{
return ((flashctl->GEN.CMDCTL & FLASHCTL_CMDCTL_ECCGENOVR_MASK) ==
FLASHCTL_CMDCTL_ECCGENOVR_OVERRIDE);
}
/**
* @brief Disable overriding hardware generation of ECC code
*
* Disable overriding hardware generation of ECC code, so the flash controller
* will handle generating the needed ECC bits from the data
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
__STATIC_INLINE void DL_FlashCTL_disableOverrideHardwareGeneratedECC(
FLASHCTL_Regs *flashctl)
{
flashctl->GEN.CMDCTL &= ~(FLASHCTL_CMDCTL_ECCGENOVR_MASK);
}
/**
* @brief Set the region select
*
* A specific region ID can be written to this field to indicate to which
* region an operation should be applied if CMDCTL.ADDRXLATEOVR is set.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] region Region to select. One of @ref DL_FLASHCTL_REGION_SELECT
*
* @sa DL_FlashCTL_enableAddressOverrideMode
*/
__STATIC_INLINE void DL_FlashCTL_setRegionSelect(
FLASHCTL_Regs *flashctl, DL_FLASHCTL_REGION_SELECT region)
{
DL_Common_updateReg(&flashctl->GEN.CMDCTL, (uint32_t) region,
(uint32_t) FLASHCTL_CMDCTL_REGIONSEL_MASK);
}
/**
* @brief Get the region select
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The region selected
*
* @retval One of @ref DL_FLASHCTL_REGION_SELECT
*/
__STATIC_INLINE DL_FLASHCTL_REGION_SELECT DL_FlashCTL_getRegionSelect(
const FLASHCTL_Regs *flashctl)
{
uint32_t region = flashctl->GEN.CMDCTL & FLASHCTL_CMDCTL_REGIONSEL_MASK;
return (DL_FLASHCTL_REGION_SELECT)(region);
}
/**
* @brief Set the bank select
*
* A specific bank ID can be written to this field to indicate which bank an
* operation should be applied if CMDCTL.ADDRXLATEOVR is set.
*
* @note Refer to the device datasheet for the number of banks that are
* available on your device.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] bank Bank to select. One of @ref DL_FLASHCTL_BANK_SELECT
*
* @sa DL_FlashCTL_enableAddressOverrideMode
*/
__STATIC_INLINE void DL_FlashCTL_setBankSelect(
FLASHCTL_Regs *flashctl, DL_FLASHCTL_BANK_SELECT bank)
{
DL_Common_updateReg(&flashctl->GEN.CMDCTL, (uint32_t) bank,
(uint32_t) FLASHCTL_CMDCTL_BANKSEL_MASK);
}
/**
* @brief Get the bank select
*
* @note Refer to the device datasheet for the number of banks that are
* available on your device.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The bank selected
*
* @retval One of @ref DL_FLASHCTL_BANK_SELECT
*/
__STATIC_INLINE DL_FLASHCTL_BANK_SELECT DL_FlashCTL_getBankSelect(
const FLASHCTL_Regs *flashctl)
{
uint32_t bank = flashctl->GEN.CMDCTL & FLASHCTL_CMDCTL_BANKSEL_MASK;
return (DL_FLASHCTL_BANK_SELECT)(bank);
}
/**
* @brief Set the bytes to enable for programming data
*
* This register forms a per-byte enable for programming data. Each bit in
* CMDBYTEN corresponds to a byte in the addressed flash word to be programmed,
* including the ECC byte. This allows sub-word programming (programming of
* less than the full 64 or 72 bit flash word) if desired.
*
* ECC data bytes are protected by the MSB bits in this register, depending on
* the presence of ECC and the flash word data width. Note: Refer to the TRM on
* how to correctly handle ECC for sub-word programs. You cannot correctly
* program the ECC bits if the whole 64 bits of the data word is not
* programmed, so the ECC byte should not be enabled until all 64 bits of the
* flash word are programmed.
*
* This register is written to all 0 after the completion of all FLASHCTL
* commands.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] byteMask Mask of bytes to enable. Between [0,0x1FF].
* For example:
* - byteMask = 0x0, Disable all bytes for programming
* - byteMask = 0x1, Enable 8-bit programming
* - byteMask = 0x3, Enable 16-bit programming
* - byteMask = 0xF, Enable 32-bit programming
* - byteMask = 0xFF, Enable 64-bit programming
* - byteMask = 0x1FF, Enable 64-bit programming with
* ECC enabled
*/
__STATIC_INLINE void DL_FlashCTL_setCommandByteEnable(
FLASHCTL_Regs *flashctl, uint32_t byteMask)
{
flashctl->GEN.CMDBYTEN = byteMask;
}
/**
* @brief Get the bytes that are enabled for programming data
*
* This register forms a per-byte enable for programming data. Each bit in
* CMDBYTEN corresponds to a byte in the addressed flash word to be programmed,
* including the ECC byte. This allows sub-word programming (programming of
* less than the full 64 or 72 bit flash word) if desired.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The enabled bytes
*
* @retval Value between [0,0x1FF].
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getCommandByteEnable(
const FLASHCTL_Regs *flashctl)
{
return ((uint32_t) flashctl->GEN.CMDCTL &
(uint32_t)(FLASHCTL_CMDBYTEN_VAL_MASK));
}
/**
* @brief Set the data for a command data register
*
* The command data registers, CMDDATAx, are used to form the data for a
* command. For devices which only support single word programming, only the
* CMDDATA0 and CMDDATA1 registers are used to load data to be programmed to
* the flash memory. CMDDATA0 is always loaded with BIT31-BIT0 of the target
* data, and CMDDATA1 is always loaded with BIT63-BIT32 of the target data.
* If fewer than 64 data bits are being programmed, see the special handling
* requirements section in the device TRM for programming less than one flash
* word.
*
* @note Ensure that you have enabled the correct bytes for programming enabled
* with @ref DL_FlashCTL_setCommandByteEnable.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] index Select the command data register to write to.
* Please see the device TRM for the number of CMDDATA
* registers. For example:
* - index = 0, Select CMDDATA0
* - index = 1, Select CMDDATA1
* @param[in] data Data to write to the command data register.
* Value between [0,0xFFFFFFFF]
*/
__STATIC_INLINE void DL_FlashCTL_setCommandData(
FLASHCTL_Regs *flashctl, uint8_t index, const uint32_t *data)
{
volatile uint32_t *pReg = &(flashctl->GEN.CMDDATA0) + index;
*pReg = *data;
}
/**
* @brief Get the data from a command data register
*
* For devices which only support single word programming, only the
* CMDDATA0 and CMDDATA1 registers are used to load data to be programmed to
* the flash memory. CMDDATA0 is always loaded with BIT31-BIT0 of the target
* data, and CMDDATA1 is always loaded with BIT63-BIT32 of the target data.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] index Select the command data register to write to.
* Please see the device TRM for the number of CMDDATA
* registers. For example:
* - index = 0, Select CMDDATA0
* - index = 1, Select CMDDATA1
*
* @return The data in the command data register
*
* @retval Value between [0,0xFFFFFFFF].
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getCommandData(
FLASHCTL_Regs *flashctl, uint8_t index)
{
volatile uint32_t *pReg = &(flashctl->GEN.CMDDATA0);
return (
(uint32_t)(*(pReg + index) & (uint32_t) FLASHCTL_CMDDATA0_VAL_MASK));
}
/**
* @brief Set the ECC code in the command data ECC register
*
* This register forms the ECC portion of the data for a command.
*
* @note The ECC data can be manually set only when hardware ECC code
* generation is disabled with
* @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
*
* @note Ensure that you have enabled the correct bytes for programming ECC
* enabled with @ref DL_FlashCTL_setCommandByteEnable
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] index Select the command data ECC register to write to.
* Please see the device TRM for the number of
* CMDDATAECC registers. For example:
* - index = 0, Select CMDDATAECC0
* - index = 1, Select CMDDATAECC1
* @param[in] data Data to write to the command data ECC register.
* Value between [0, 0xFF]
*/
__STATIC_INLINE void DL_FlashCTL_setCommandDataECC(
FLASHCTL_Regs *flashctl, uint8_t index, const uint8_t *data)
{
volatile uint32_t *pReg = &(flashctl->GEN.CMDDATAECC0) + index;
*pReg = *data;
}
/**
* @brief Get the ECC code in the command data ECC register
*
* This register forms the ECC portion of the data for a command.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] index Select the command data register ECC to write to.
* Please see the device TRM for the number of
* CMDDATAECC registers. For example:
* - index = 0, Select CMDDATAECC0
* - index = 1, Select CMDDATAECC1
*
* @return The data in the command data ECC register
*
* @retval Value between [0,0xFF].
*/
__STATIC_INLINE uint8_t DL_FlashCTL_getCommandDataECC(
FLASHCTL_Regs *flashctl, uint8_t index)
{
volatile uint32_t *pReg = &(flashctl->GEN.CMDDATAECC0);
return ((uint8_t)(
*(pReg + index) & (uint32_t) FLASHCTL_CMDDATAECC0_VAL0_MASK));
}
/**
* @brief Sets the target address for a command
*
* The target address for a command must be flash word (64-bit) aligned. This
* means that the target address must be aligned to a 0b000 boundary (for
* example, the 3 LSBs in the address must be zero).
*
* 1) For single-word program, this address indicates the flash bank word to be
* programmed.
* 2) For multi-word program, this address indicates the first flash bank
* address for the program. The address will be incremented
* 3) For sector and bank erase, this address indicates the sector or bank to
* be erased.
* 4) For read verify, this address forms the start address for the verify
* operation.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination address to program/erase/read
*
*/
__STATIC_INLINE void DL_FlashCTL_setCommandAddress(
FLASHCTL_Regs *flashctl, uint32_t address)
{
flashctl->GEN.CMDADDR = address;
}
/**
* @brief Returns the status of the current command
*
* Checks if the command is still in progress or finished and if it passed or
* failed
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The status of the current command
*
* @retval One of @ref DL_FLASHCTL_COMMAND_STATUS values
*/
__STATIC_INLINE DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_getCommandStatus(
const FLASHCTL_Regs *flashctl)
{
uint32_t commandStatus =
flashctl->GEN.STATCMD &
(FLASHCTL_STATCMD_CMDDONE_MASK | FLASHCTL_STATCMD_CMDPASS_MASK |
FLASHCTL_STATCMD_CMDINPROGRESS_MASK |
FLASHCTL_STATCMD_CMDPASS_STATFAIL);
return (DL_FLASHCTL_COMMAND_STATUS)(commandStatus);
}
/**
* @brief Returns the reason a command failed
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The type of command failure
*
* @retval One of @ref DL_FLASHCTL_FAIL_TYPE values
*/
__STATIC_INLINE DL_FLASHCTL_FAIL_TYPE DL_FlashCTL_getFailureStatus(
const FLASHCTL_Regs *flashctl)
{
uint32_t commandFailureType =
flashctl->GEN.STATCMD &
(FLASHCTL_STATCMD_FAILWEPROT_MASK | FLASHCTL_STATCMD_FAILVERIFY_MASK |
FLASHCTL_STATCMD_FAILILLADDR_MASK |
FLASHCTL_STATCMD_FAILMODE_MASK | FLASHCTL_STATCMD_FAILMISC_MASK);
return (DL_FLASHCTL_FAIL_TYPE)(commandFailureType);
}
/**
* @brief Blocking function that waits for a command execution to finish
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the command was successful
*
* @retval false if command didn't succeed
* @retval true if command was successful
*/
__STATIC_INLINE bool DL_FlashCTL_waitForCmdDone(const FLASHCTL_Regs *flashctl)
{
/* Wait for command to complete */
while ((flashctl->GEN.STATCMD & FLASHCTL_STATCMD_CMDDONE_MASK) !=
FLASHCTL_STATCMD_CMDDONE_STATDONE) {
;
}
return ((flashctl->GEN.STATCMD & FLASHCTL_STATCMD_CMDPASS_MASK) ==
FLASHCTL_STATCMD_CMDPASS_STATPASS);
}
/**
* @brief Sets clear status bit and executes command
*
* This will clear the STATCMD register and re-apply max protection to the
* CMDWEPROTx registers
*
* @pre This command should be called before @ref DL_FlashCTL_unprotectSector
* to ensure that memory is not re-protected after unprotecting it.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
__STATIC_INLINE void DL_FlashCTL_executeClearStatus(FLASHCTL_Regs *flashctl)
{
/* Set COMMAND bit within CMDTYPE register to clear status*/
flashctl->GEN.CMDTYPE = DL_FLASHCTL_COMMAND_TYPE_CLEAR_STATUS;
/* Set bit to execute command */
flashctl->GEN.CMDEXEC = FLASHCTL_CMDEXEC_VAL_EXECUTE;
/* Wait for the clear status command to finish*/
while ((FLASHCTL->GEN.STATCMD & FLASHCTL_STATCMD_CMDINPROGRESS_MASK) ==
FLASHCTL_STATCMD_CMDINPROGRESS_STATINPROGRESS) {
;
}
}
/**
* @brief Gets the sector number of the input address over the whole
* memory map
*
* If the device has two 128KB banks, and the input address is 0x20000, then
* this API will return the sector number as 128.
* To get the sector number over the whole memory map of the device, refer to
* @ref DL_FlashCTL_getFlashSectorNumberInBank.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] addr Memory address within the desired sector
*
* @return The sector number that contains the input address
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getFlashSectorNumber(
FLASHCTL_Regs *flashctl, uint32_t addr)
{
return (addr >> (uint32_t) 10);
}
/**
* @brief Gets the sector number of the input address relative to the
* bank of the address
*
* If the device has two 128KB banks, and the input address is 0x20000, then
* this API will return the sector number as 0. This is because 0x20000 is in
* Sector 0 of Bank 1.
* To get the sector number over the whole memory map of the device, refer to
* @ref DL_FlashCTL_getFlashSectorNumber.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] addr Memory address within the desired sector
*
* @return The sector number in the current bank that contains the address
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getFlashSectorNumberInBank(
FLASHCTL_Regs *flashctl, uint32_t addr)
{
uint8_t numBanks = DL_FactoryRegion_getNumBanks();
uint32_t mainFlashSize = DL_FactoryRegion_getMAINFlashSize();
uint32_t sector, bankSectors, sectorInBank;
/* Current sector over the whole memory map */
sector = DL_FlashCTL_getFlashSectorNumber(flashctl, addr);
if (numBanks > 1) {
/* Number of sectors per bank, considered max sector
* count for a bank-adjusted sector. Assume banks are
* evenly distributed */
bankSectors = (mainFlashSize / numBanks);
/* We will not assume that the maximum number of bank sectors is a
* multiple of 2. Which does mean incurring a modulo operation. */
sectorInBank = sector % bankSectors;
} else {
sectorInBank = sector;
}
return sectorInBank;
}
/**
* @brief Set the number of wait states used by the Flash
*
* Changes the number of wait states used by the Flash controller. When
* changing the frequency of the clock, the number of wait states may need to
* be updated.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] waitState Number of wait states to set. Recommended values
* are based on the system clock speed:
* - 0MHz-24MHz: 0 wait state
* - 24MHz-48MHz: 1 wait state
* - 48MHz-72MHz: 2 wait states
* - 72MHz-80MHz: 3 wait states
*/
__STATIC_INLINE void DL_FlashCTL_setWaitState(
FLASHCTL_Regs *flashctl, uint32_t waitState)
{
flashctl->GEN.CFGCMD = waitState;
}
/**
* @brief Get the number of wait states used by the Flash
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return The number of wait states used by the Flash
*/
__STATIC_INLINE uint32_t DL_FlashCTL_getWaitState(
const FLASHCTL_Regs *flashctl)
{
return (flashctl->GEN.CFGCMD & FLASHCTL_CFGCMD_WAITSTATE_MASK);
}
/**
* @brief Performs an erase on unprotected memory
*
* Performs an erase on unprotected memory within a sector or bank of memory
* containing the input memory address.
*
* NOTE: The user is responsible for unprotecting the regions of memory prior
* to calling this API. Memory will be automatically protected following the
* command execution.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address within desired sector or bank to
* erase
* @param[in] memorySize The size of the memory block to erase. One of:
* @arg DL_FLASHCTL_COMMAND_SIZE_BANK
* @arg DL_FLASHCTL_COMMAND_SIZE_SECTOR
*
* @post This API just starts the erase process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
void DL_FlashCTL_eraseMemory(FLASHCTL_Regs *flashctl, uint32_t address,
DL_FLASHCTL_COMMAND_SIZE memorySize);
/**
* @brief Performs an erase on unprotected memory, and executes command
* from RAM
*
* Performs an erase on unprotected memory within a sector or bank of memory
* containing the input memory address.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* NOTE: The user is responsible for unprotecting the regions of memory prior
* to calling this API. Memory will be automatically protected following the
* command execution.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address within desired sector or bank to
* erase
* @param[in] memorySize The size of the memory block to erase. One of:
* @arg DL_FLASHCTL_COMMAND_SIZE_BANK
* @arg DL_FLASHCTL_COMMAND_SIZE_SECTOR
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @post This API just starts the erase process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_eraseMemoryFromRAM(
FLASHCTL_Regs *flashctl, uint32_t address,
DL_FLASHCTL_COMMAND_SIZE memorySize);
/**
* @brief Performs a mass erase on main memory on one bank
*
* Performs a mass erase on main memory on Bank 0 only. This API should be used
* on single bank devices.
*
* NOTE: This API sets all main memory to unprotected from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the erase succeeded
*
* @retval false if erase didn't succeed
* @retval true if erase was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
bool DL_FlashCTL_massErase(FLASHCTL_Regs *flashctl);
/**
* @brief Performs a mass erase on main memory, and executes command
* from RAM
*
* Performs a mass erase on main memory on Bank 0 only. This API should be used
* on single bank devices.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* NOTE: This API sets all main memory to unprotected from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_massEraseFromRAM(
FLASHCTL_Regs *flashctl);
/**
* @brief Performs a mass erase on main memory, and erases all flash banks
*
* Performs a mass erase on main memory within each flash bank.
*
* NOTE: This API sets all main memory to unprotected from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the erase succeeded
*
* @retval false if erase didn't succeed
* @retval true if erase was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
bool DL_FlashCTL_massEraseMultiBank(FLASHCTL_Regs *flashctl);
/**
* @brief Performs a factory reset erase on main and non-main memory
*
* Performs an erase on Bank 0 of main memory and non-main memory on the
* device. This API should be used on single bank devices.
*
* NOTE: This API sets all main memory to protected from erase/program if
* successful. If unsuccessful, all memory will be unprotected
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the erase succeeded
*
* @retval false if erase didn't succeed
* @retval true if erase was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
bool DL_FlashCTL_factoryReset(FLASHCTL_Regs *flashctl);
/**
* @brief Performs a factory reset erase on main and non-main memory, and
* executes command from RAM
*
* Performs an erase on Bank 0 of main memory and non-main memory on the
* device. This API should be used on single bank devices.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* NOTE: This API sets all main memory to protected from erase/program if
* successful. If unsuccessful, all memory will be unprotected
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_factoryResetFromRAM(
FLASHCTL_Regs *flashctl);
/**
* @brief Performs a factory reset erase on main and non-main memory
*
* Performs an erase on all flash banks of main memory and non-main memory on
* the device.
*
* NOTE: This API sets all main memory to protected from erase/program if
* successful. If unsuccessful, all memory will be unprotected
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the erase succeeded
*
* @retval false if erase didn't succeed
* @retval true if erase was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
*/
bool DL_FlashCTL_factoryResetMultiBank(FLASHCTL_Regs *flashctl);
/**
* @brief Programs 8 bit data to unprotected memory at the given address
*
* The device datasheet specifies a maximum limit on program operations per
* word line before erasure of the sector containing the word line is required.
* Exceeding this maximum may result in data corruption within the word line.
* If 8-bit (byte) program operations are performed, or the same memory
* locations are programmed more than once, the max program limit per word line
* must be considered and not exceeded. Because of that, it is better to buffer
* data and use the @ref DL_FlashCTL_programMemory16,
* @ref DL_FlashCTL_programMemory32 or @ref DL_FlashCTL_programMemory64 APIs to
* program memory to reduce in the number of program operations in a wordline.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 8-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
void DL_FlashCTL_programMemory8(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Programs 8 bit data to unprotected memory at the given address,
* and executes command from RAM
*
* The device datasheet specifies a maximum limit on program operations per
* word line before erasure of the sector containing the word line is required.
* Exceeding this maximum may result in data corruption within the word line.
* If 8-bit (byte) program operations are performed, or the same memory
* locations are programmed more than once, the max program limit per word line
* must be considered and not exceeded. Because of that, it is better to buffer
* data and use the @ref DL_FlashCTL_programMemory16,
* @ref DL_FlashCTL_programMemory32 or @ref DL_FlashCTL_programMemory64 APIs to
* program memory to reduce in the number of program operations in a wordline.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 8-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM8(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Programs 16 bit data to unprotected memory at the given address
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 16-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
void DL_FlashCTL_programMemory16(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Programs 16 bit data to unprotected memory at the given
* address, and executes command from RAM
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 16-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM16(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Programs 32 bit data to unprotected memory at the given address
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
void DL_FlashCTL_programMemory32(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 32 bit data to unprotected memory at the given
* address, and executes command from RAM
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM32(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 64 bit data to unprotected memory at the given address
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
void DL_FlashCTL_programMemory64(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 64 bit data to unprotected memory at the given
* address, and executes command from RAM
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM64(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 8 bit data with hardware generated ECC code
*
* Programs 8 bit data, along with the 8 ECC bits which correspond to the
* 8-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 8-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory8WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Programs 8 bit data with hardware generated ECC code, and
* executes command from RAM
*
* Programs 8 bit data, along with the 8 ECC bits which correspond to the
* 8-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 8-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM8WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Programs 16 bit data with hardware generated ECC code
*
* Programs 16 bit data, along with the 8 ECC bits which correspond to the
* 16-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 16-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory16WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Programs 16 bit data with hardware generated ECC code, and
* executes command from RAM
*
* Programs 16 bit data, along with the 8 ECC bits which correspond to the
* 16-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 16-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM16WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Programs 32 bit data with hardware generated ECC code
*
* Programs 32 bit data, along with the 8 ECC bits which correspond to the
* 32-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory32WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 32 bit data with hardware generated ECC code, and
* executes command from RAM
*
* Programs 32 bit data, along with the 8 ECC bits which correspond to the
* 32-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM32WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 64 bit data with hardware generated ECC code
*
* Programs 64 bit data, along with the 8 ECC bits which correspond to the
* 64-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory64WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 64 bit data with hardware generated ECC code, and
* executes command from RAM
*
* Programs 16 bit data, along with the 8 ECC bits which correspond to the
* 16-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM64WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 8 bit data with user provided ECC code
*
* Programs 8 bit data, along with the 8 ECC bits which correspond to the
* 8-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 8-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory8WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint8_t *data, const uint8_t *eccCode);
/**
* @brief Programs 8 bit data with user provided ECC code, and executes
* command from RAM
*
* Programs 8 bit data, along with the 8 ECC bits which correspond to the
* 8-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 8-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM8WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data,
const uint8_t *eccCode);
/**
* @brief Programs 16 bit data with user provided ECC code
*
* Programs 16 bit data, along with the 8 ECC bits which correspond to the
* 16-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 16-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory16WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint16_t *data, const uint8_t *eccCode);
/**
* @brief Programs 16 bit data with user provided ECC code, and executes
* command from RAM
*
* Programs 16 bit data, along with the 8 ECC bits which correspond to the
* 16-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 16-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM16WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data,
const uint8_t *eccCode);
/**
* @brief Programs 32 bit data with user provided ECC code
*
* Programs 32 bit data, along with the 8 ECC bits which correspond to the
* 32-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory32WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint32_t *data, const uint8_t *eccCode);
/**
* @brief Programs 32 bit data with user provided ECC code, and executes
* command from RAM
*
* Programs 32 bit data, along with the 8 ECC bits which correspond to the
* 32-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM32WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data,
const uint8_t *eccCode);
/**
* @brief Programs 64 bit data with user provided ECC code
*
* Programs 64 bit data, along with the 8 ECC bits which correspond to the
* 64-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory64WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint32_t *data, const uint8_t *eccCode);
/**
* @brief Programs 64 bit data with user provided ECC code, and executes
* command from RAM
*
* Programs 64 bit data, along with the 8 ECC bits which correspond to the
* 64-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM64WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data,
const uint8_t *eccCode);
/**
* @brief Programs provided data with hardware generated ECC code
*
* Blocking function that programs a set of data, along with the 8 ECC bits
* which correspond to the data at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program. Value
* should be an even number, to ensure data is
* programmed 64-bits at a time.
* @param[in] data Pointer to the data source to program into flash
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the program succeeded
*
* @retval false Program didn't succeed, or invalid dataSize
* @retval true Program was successful
*
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
bool DL_FlashCTL_programMemoryBlocking64WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, uint32_t *data,
uint32_t dataSize, DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Programs provided data with hardware generated ECC code, and
* executes command from RAM
*
* Blocking function that programs a set of data, along with the 8 ECC bits
* which correspond to the data at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program. Value
* should be an even number, to ensure data is
* programmed 64-bits at a time.
* @param[in] data Pointer to the data source to program into flash
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS
DL_FlashCTL_programMemoryBlockingFromRAM64WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, uint32_t *data,
uint32_t dataSize, DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Programs provided data with user provided ECC code
*
* Blocking function that programs a set of data, along with the 8 ECC bits
* which correspond to the data at the given address. This API assumes that
* hardware generation of the ECC code HAS been disabled, and so the user
* must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program. Value
* should be an even number, to ensure data is
* programmed 64-bits at a time.
* @param[in] data Pointer to the data source to program into flash
* @param[in] eccCode Pointer to ECC code to program corresponding to data
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the program succeeded
*
* @retval false Program didn't succeed, or invalid dataSize
* @retval true Program was successful
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
bool DL_FlashCTL_programMemoryBlocking64WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, uint32_t *data, uint8_t *eccCode, uint32_t dataSize,
DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Programs provided data with user provided ECC code, and
* executes command from RAM
*
* Blocking function that programs a set of data, along with the 8 ECC bits
* which correspond to the data at the given address. This API assumes that
* hardware generation of the ECC code HAS been disabled, and so the user
* must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program. Value
* should be an even number, to ensure data is
* programmed 64-bits at a time.
* @param[in] data Pointer to the data source to program into flash
* @param[in] eccCode Pointer to ECC code to program corresponding to data
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
DL_FLASHCTL_COMMAND_STATUS
DL_FlashCTL_programMemoryBlockingFromRAM64WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, uint32_t *data,
uint8_t *eccCode, uint32_t dataSize,
DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Programs provided data to unprotected memory at a given address
*
* Blocking function that programs a set of data. Data will be programmed as
* flash words (64-bits). If dataSize is an odd number, then the last word
* will be programmed as 32-bit data.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program
* @param[in] data Pointer to the data source to program into flash
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the program succeeded
*
* @retval false Program didn't succeed
* @retval true Program was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
bool DL_FlashCTL_programMemoryBlocking(FLASHCTL_Regs *flashctl,
uint32_t address, uint32_t *data, uint32_t dataSize,
DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Programs provided data to unprotected memory at a given
* address, and executes command from RAM
*
* Blocking function that programs a set of data. Data will be programmed as
* flash words (64-bits). If dataSize is an odd number, then the last word
* will be programmed as 32-bit data.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program
* @param[in] data Pointer to the data source to program into flash
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_programMemoryFromRAM(
FLASHCTL_Regs *flashctl, uint32_t address, uint32_t *data,
uint32_t dataSize, DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Unprotects all main memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_unprotectMainMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Unprotects all data memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_unprotectDataMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Protects all main memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_protectMainMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Unprotects all non-main memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_unprotectNonMainMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Protects all non-main memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_protectNonMainMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Unprotects all user memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_unprotectAllMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Protects all user memory from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*/
void DL_FlashCTL_protectAllMemory(FLASHCTL_Regs *flashctl);
/**
* @brief Sets a given sector to unprotected from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] addr Address of sector to unprotect
* @param[in] regionSelect The region of memory to unprotect. One of
* @ref DL_FLASHCTL_REGION_SELECT
*/
void DL_FlashCTL_unprotectSector(FLASHCTL_Regs *flashctl, uint32_t addr,
DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Sets a given sector to protected from erase/program
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] addr Address of sector to protect
* @param[in] regionSelect The region of memory to protect. One of
* @ref DL_FLASHCTL_REGION_SELECT
*/
void DL_FlashCTL_protectSector(FLASHCTL_Regs *flashctl, uint32_t addr,
DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Verifies 8-bit data in specified address
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*/
void DL_FlashCTL_readVerify8(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Verifies 8-bit data in specified address, and executes command
* from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM8(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Verifies 16-bit data in specified address
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*/
void DL_FlashCTL_readVerify16(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Verifies 16-bit data in specified address, and executes command
* from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM16(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Verifies 32-bit data in specified address
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*/
void DL_FlashCTL_readVerify32(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 32-bit data in specified address, and executes command
* from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM32(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 64-bit data in specified address
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify.
* @param[in] data Pointer to the data source to verify
*/
void DL_FlashCTL_readVerify64(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 64-bit data in specified address, and executes command
* from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify.
* @param[in] data Pointer to the data source to verify
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM64(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 8-bit data in specified address with hardware
* generated ECC code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify8WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Verifies 8-bit data in specified address with hardware generated
* ECC code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM8WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data);
/**
* @brief Verifies 16-bit data in specified address with hardware
* generated ECC code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify16WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Verifies 16-bit data in specified address with hardware
* generated ECC code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM16WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data);
/**
* @brief Verifies 32-bit data in specified address with hardware
* generated ECC code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify32WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 32-bit data in specified address with hardware
* generated ECC code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM32WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 64-bit data in specified address with hardware
* generated ECC code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify64WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 32-bit data in specified address with hardware
* generated ECC code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code has NOT
* been disabled, and so the flash controller will generate the ECC bits.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM64WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Verifies 8-bit data in specified address with user provided ECC
* code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify8WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint8_t *data, const uint8_t *eccCode);
/**
* @brief Verifies 8-bit data in specified address with user provided ECC
* code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM8WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint8_t *data,
const uint8_t *eccCode);
/**
* @brief Verifies 16-bit data in specified address with user provided ECC
* code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify16WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint16_t *data, const uint8_t *eccCode);
/**
* @brief Verifies 16-bit data in specified address with user provided ECC
* code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM16WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint16_t *data,
const uint8_t *eccCode);
/**
* @brief Verifies 32-bit data in specified address with user provided ECC
* code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify32WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint32_t *data, const uint8_t *eccCode);
/**
* @brief Verifies 32-bit data in specified address with user provided ECC
* code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM32WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data,
const uint8_t *eccCode);
/**
* @brief Verifies 64-bit data in specified address with user provided ECC
* code
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_readVerify64WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint32_t *data, const uint8_t *eccCode);
/**
* @brief Verifies 64-bit data in specified address with user provided ECC
* code, and executes command from RAM
*
* The READVERIFY command may be used to read a flash location and compare it
* to data to be verified along with the 8 ECC bits which correspond to the
* data. This API assumes that hardware generation of the ECC code HAS been
* disabled, so the user must provide the ECC code to program.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
* @param[in] data Pointer to the data source to verify
* @param[in] eccCode Pointer to ECC code to program corresponding to data
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
*
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_readVerifyFromRAM64WithECCManual(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data,
const uint8_t *eccCode);
/**
* @brief Verifies that a flash word is blank
*
* A blank flash word is defined as a flash word which has been successfully
* erased with the ERASE command and not yet programmed away from that
* non-erased state with the PROGRAM command. The BLANKVERIFY command may be
* used to test if a flash word is in a blank state, indicating it has not yet
* been programmed away from an erased state. The BLANKVERIFY command may only
* be applied to a single flash word at a time.
*
* @post This API just starts the command process. Check if the command
* completed execution using an interrupt or the
* @ref DL_FlashCTL_waitForCmdDone API.
* @post @ref DL_FlashCTL_getFailureStatus should be called to determine
* the result of the BLANKVERIFY command. The
* @ref DL_FlashCTL_getFailureStatus API will return
* @ref DL_FLASHCTL_FAIL_TYPE_VERIFY_ERROR if the flash location has
* not been erased, and return @ref DL_FLASHCTL_FAIL_TYPE_NO_FAILURE
* if the flash location is blank.
*
* NOTE: After this command is executed, the flash controller will
* configure all memory to a protected state.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
*/
void DL_FlashCTL_blankVerify(FLASHCTL_Regs *flashctl, uint32_t address);
/**
* @brief Verifies that a flash word is blank, and executes command from
* RAM
*
* A blank flash word is defined as a flash word which has been successfully
* erased with the ERASE command and not yet programmed away from that
* non-erased state with the PROGRAM command. The BLANKVERIFY command may be
* used to test if a flash word is in a blank state, indicating it has not yet
* been programmed away from an erased state. The BLANKVERIFY command may only
* be applied to a single flash word at a time.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* @post This API just starts the command process. Check if the command
* completed execution using an interrupt or the
* @ref DL_FlashCTL_waitForCmdDone API.
* @post @ref DL_FlashCTL_getFailureStatus should be called to determine
* the result of the BLANKVERIFY command. The
* @ref DL_FlashCTL_getFailureStatus API will return
* @ref DL_FLASHCTL_FAIL_TYPE_VERIFY_ERROR if the flash location has
* not been erased, and return @ref DL_FLASHCTL_FAIL_TYPE_NO_FAILURE
* if the flash location is blank.
*
* NOTE: After this command is executed, the flash controller will
* configure all memory to a protected state.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Memory address of flash to verify
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_blankVerifyFromRAM(
FLASHCTL_Regs *flashctl, uint32_t address);
/**
* @brief Programs 128 bit data to unprotected memory at the given address
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
void DL_FlashCTL_programMemory128(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
/**
* @brief Programs 128 bit data with hardware generated ECC code
*
* Programs 128 bit data, along with the 16 ECC bits which correspond to the
* 128-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code has NOT been disabled,
* and so the flash controller will generate the ECC bits.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
*
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory128WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, const uint32_t *data);
// /**
// * @brief Programs 128 bit data with hardware generated ECC code
// *
// * Programs 128 bit data, along with the 16 ECC bits which correspond to the
// * 128-bit data word, to unprotected memory at the given address. This API
// * assumes that hardware generation of the ECC code has NOT been disabled,
// * and so the flash controller will generate the ECC bits.
// *
// * @param[in] flashctl Pointer to the register overlay for the peripheral
// * @param[in] address Destination memory address to program data. The
// * address must be flash word (64-bit) aligned i.e.
// * aligned to a 0b000 boundary.
// * @param[in] data Pointer to the 32-bit source data
// *
// * @pre Before programming memory, the user must unprotect the region
// * of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
// * @post This API just starts the program process. Check the result of it
// * using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
// *
// * NOTE: After completion of a program operation, the flash controller will
// * configure all memory to a protected state.
// * NOTE: After completion of a program operation, the flash controller will
// * disable programming of the ECC code (regardless of whether ECC code is
// * hardware generated or manually provided).
// */
// void DL_FlashCTL_programMemory128WithECCGenerated(
// FLASHCTL_Regs *flashctl, uint32_t address, uint32_t *data);
/**
* @brief Programs 128 bit data with user provided ECC code
*
* Programs 128 bit data, along with the 16 ECC bits which correspond to the
* 128-bit data word, to unprotected memory at the given address. This API
* assumes that hardware generation of the ECC code HAS been disabled,
* and so the user must provide the ECC code to program.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] data Pointer to the 32-bit source data
* @param[in] eccCode Pointer to the ECC code to program
*
* @pre User must call @ref DL_FlashCTL_enableOverrideHardwareGeneratedECC
* to disable hardware generation of the ECC code, so the ECC code
* can be manually provided for programming. This override setting
* will persist through multiple programs, until
* @ref DL_FlashCTL_disableOverrideHardwareGeneratedECC is called
* @pre Before programming memory, the user must unprotect the region
* of memory to program. Refer to @ref DL_FlashCTL_unprotectSector
* @post This API just starts the program process. Check the result of it
* using an interrupt or the @ref DL_FlashCTL_waitForCmdDone API
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: After completion of a program operation, the flash controller will
* disable programming of the ECC code (regardless of whether ECC code is
* hardware generated or manually provided).
*/
void DL_FlashCTL_programMemory128WithECCManual(FLASHCTL_Regs *flashctl,
uint32_t address, const uint32_t *data, const uint8_t *eccCode);
/**
* @brief Programs provided data up to 128-bits with ECC generated
* while blocking between writes
*
* Blocking function that programs a set of data using multi-word programming
* for up to 2 flash words. Refer to the device datasheet if the device
* supports multi-word programming.
* When possible, the data will be programmed as either 64-bit data or as
* 32-bit data.
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
* @param[in] address Destination memory address to program data. The
* address must be flash word (64-bit) aligned i.e.
* aligned to a 0b000 boundary.
* @param[in] dataSize The number of 32-bit words to program
* @param[in] data Pointer to the data source to program into flash
* @param[in] regionSelect The region of memory to erase. One of
* @ref DL_FLASHCTL_REGION_SELECT
*
* @return Whether or not the program succeeded
*
* @retval false Program didn't succeed
* @retval true Program was successful
*
* NOTE: After completion of a program operation, the flash controller will
* configure all memory to a protected state.
* NOTE: This API does not enable programming the ECC code.
*/
bool DL_FlashCTL_programMemoryBlocking128WithECCGenerated(
FLASHCTL_Regs *flashctl, uint32_t address, uint32_t *data,
uint32_t dataSize, DL_FLASHCTL_REGION_SELECT regionSelect);
/**
* @brief Performs an erase on DATA bank
*
* Performs an erase on DATA bank only. This API should be used
* on devices with a DATA bank. To determine if device has DATA
* bank use @ref DL_FactoryRegion_getDATAFlashSize API.
*
* NOTE: This API erases all of DATA bank
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the erase succeeded
*
* @retval false If erase didn't succeed
* @retval true If erase was successful
*
*/
bool DL_FlashCTL_eraseDataBank(FLASHCTL_Regs *flashctl);
/**
* @brief Performs an erase on DATA bank, and executes command
* from RAM
*
* Performs an erase on DATA bank only. This API should be used
* on devices with a DATA bank. To determine if device has DATA
* bank use @ref DL_FactoryRegion_getDATAFlashSize API.
*
* The command is executed from RAM, and blocks until the command is finished.
*
* NOTE: This API erases all of DATA bank
*
* @param[in] flashctl Pointer to the register overlay for the peripheral
*
* @return Whether or not the command was successful.
* One of @ref DL_FLASHCTL_COMMAND_STATUS
*
* @retval DL_FLASHCTL_COMMAND_STATUS_FAILED if command didn't succeed
* @retval DL_FLASHCTL_COMMAND_STATUS_PASSED if command was successful
*
*/
DL_FLASHCTL_COMMAND_STATUS DL_FlashCTL_eraseDataBankFromRAM(
FLASHCTL_Regs *flashctl);
#ifdef __cplusplus
}
#endif
#endif /* ti_dl_dl_flashctl__include */
/** @}*/
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