MCXC041#

ADC16: 16-bit SAR Analog-to-Digital Converter Driver#

void ADC16_Init(ADC_Type *base, const adc16_config_t *config)#

Initializes the ADC16 module.

Parameters:

base – ADC16 peripheral base address.
config – Pointer to configuration structure. See “adc16_config_t”.

void ADC16_Deinit(ADC_Type *base)#

De-initializes the ADC16 module.

Parameters:

base – ADC16 peripheral base address.

void ADC16_GetDefaultConfig(adc16_config_t *config)#

Gets an available pre-defined settings for the converter’s configuration.

This function initializes the converter configuration structure with available settings. The default values are as follows.

config->referenceVoltageSource     = kADC16_ReferenceVoltageSourceVref;
config->clockSource                = kADC16_ClockSourceAsynchronousClock;
config->enableAsynchronousClock    = false;
config->clockDivider               = kADC16_ClockDivider8;
config->resolution                 = kADC16_ResolutionSE12Bit;
config->longSampleMode             = kADC16_LongSampleDisabled;
config->enableHighSpeed            = false;
config->enableLowPower             = false;
config->enableContinuousConversion = false;

Parameters:

config – Pointer to the configuration structure.

status_t ADC16_DoAutoCalibration(ADC_Type *base)#

Automates the hardware calibration.

This auto calibration helps to adjust the plus/minus side gain automatically. Execute the calibration before using the converter. Note that the hardware trigger should be used during the calibration.

Parameters:

base – ADC16 peripheral base address.

Return values:

kStatus_Success – Calibration is done successfully.
kStatus_Fail – Calibration has failed.

Returns:

Execution status.

static inline void ADC16_SetOffsetValue(ADC_Type *base, int16_t value)#

Sets the offset value for the conversion result.

This offset value takes effect on the conversion result. If the offset value is not zero, the reading result is subtracted by it. Note, the hardware calibration fills the offset value automatically.

Parameters:

base – ADC16 peripheral base address.
value – Setting offset value.

static inline void ADC16_EnableDMA(ADC_Type *base, bool enable)#

Enables generating the DMA trigger when the conversion is complete.

Parameters:

base – ADC16 peripheral base address.
enable – Switcher of the DMA feature. “true” means enabled, “false” means not enabled.

static inline void ADC16_EnableHardwareTrigger(ADC_Type *base, bool enable)#

Enables the hardware trigger mode.

Parameters:

base – ADC16 peripheral base address.
enable – Switcher of the hardware trigger feature. “true” means enabled, “false” means not enabled.

void ADC16_SetChannelMuxMode(ADC_Type *base, adc16_channel_mux_mode_t mode)#

Sets the channel mux mode.

Some sample pins share the same channel index. The channel mux mode decides which pin is used for an indicated channel.

Parameters:

base – ADC16 peripheral base address.
mode – Setting channel mux mode. See “adc16_channel_mux_mode_t”.

void ADC16_SetHardwareCompareConfig(ADC_Type *base, const adc16_hardware_compare_config_t *config)#

Configures the hardware compare mode.

The hardware compare mode provides a way to process the conversion result automatically by using hardware. Only the result in the compare range is available. To compare the range, see “adc16_hardware_compare_mode_t” or the appopriate reference manual for more information.

Parameters:

base – ADC16 peripheral base address.
config – Pointer to the “adc16_hardware_compare_config_t” structure. Passing “NULL” disables the feature.

void ADC16_SetHardwareAverage(ADC_Type *base, adc16_hardware_average_mode_t mode)#

Sets the hardware average mode.

The hardware average mode provides a way to process the conversion result automatically by using hardware. The multiple conversion results are accumulated and averaged internally making them easier to read.

Parameters:

base – ADC16 peripheral base address.
mode – Setting the hardware average mode. See “adc16_hardware_average_mode_t”.

void ADC16_SetPGAConfig(ADC_Type *base, const adc16_pga_config_t *config)#

Configures the PGA for the converter’s front end.

Parameters:

base – ADC16 peripheral base address.
config – Pointer to the “adc16_pga_config_t” structure. Passing “NULL” disables the feature.

uint32_t ADC16_GetStatusFlags(ADC_Type *base)#

Gets the status flags of the converter.

Parameters:

base – ADC16 peripheral base address.

Returns:

Flags’ mask if indicated flags are asserted. See “_adc16_status_flags”.

void ADC16_ClearStatusFlags(ADC_Type *base, uint32_t mask)#

Clears the status flags of the converter.

Parameters:

base – ADC16 peripheral base address.
mask – Mask value for the cleared flags. See “_adc16_status_flags”.

static inline void ADC16_EnableAsynchronousClockOutput(ADC_Type *base, bool enable)#

Enable/disable ADC Asynchronous clock output to other modules.

Parameters:

base – ADC16 peripheral base address.
enable – Used to enable/disable ADC ADACK output.
- true Asynchronous clock and clock output is enabled regardless of the state of the ADC.
- false Asynchronous clock output disabled, asynchronous clock is enabled only if it is selected as input clock and a conversion is active.

void ADC16_SetChannelConfig(ADC_Type *base, uint32_t channelGroup, const adc16_channel_config_t *config)#

Configures the conversion channel.

This operation triggers the conversion when in software trigger mode. When in hardware trigger mode, this API configures the channel while the external trigger source helps to trigger the conversion.

Note that the “Channel Group” has a detailed description. To allow sequential conversions of the ADC to be triggered by internal peripherals, the ADC has more than one group of status and control registers, one for each conversion. The channel group parameter indicates which group of registers are used, for example, channel group 0 is for Group A registers and channel group 1 is for Group B registers. The channel groups are used in a “ping-pong” approach to control the ADC operation. At any point, only one of the channel groups is actively controlling ADC conversions. The channel group 0 is used for both software and hardware trigger modes. Channel group 1 and greater indicates multiple channel group registers for use only in hardware trigger mode. See the chip configuration information in the appropriate MCU reference manual for the number of SC1n registers (channel groups) specific to this device. Channel group 1 or greater are not used for software trigger operation. Therefore, writing to these channel groups does not initiate a new conversion. Updating the channel group 0 while a different channel group is actively controlling a conversion is allowed and vice versa. Writing any of the channel group registers while that specific channel group is actively controlling a conversion aborts the current conversion.

Parameters:

base – ADC16 peripheral base address.
channelGroup – Channel group index.
config – Pointer to the “adc16_channel_config_t” structure for the conversion channel.

static inline uint32_t ADC16_GetChannelConversionValue(ADC_Type *base, uint32_t channelGroup)#

Gets the conversion value.

Parameters:

base – ADC16 peripheral base address.
channelGroup – Channel group index.

Returns:

Conversion value.

uint32_t ADC16_GetChannelStatusFlags(ADC_Type *base, uint32_t channelGroup)#

Gets the status flags of channel.

Parameters:

base – ADC16 peripheral base address.
channelGroup – Channel group index.

Returns:

Flags’ mask if indicated flags are asserted. See “_adc16_channel_status_flags”.

FSL_ADC16_DRIVER_VERSION#: ADC16 driver version 2.3.0.

enum _adc16_channel_status_flags#

Channel status flags.

Values:

enumerator kADC16_ChannelConversionDoneFlag#: Conversion done.

enum _adc16_status_flags#

Converter status flags.

Values:

enumerator kADC16_ActiveFlag#: Converter is active.

enumerator kADC16_CalibrationFailedFlag#: Calibration is failed.

enum _adc_channel_mux_mode#

Channel multiplexer mode for each channel.

For some ADC16 channels, there are two pin selections in channel multiplexer. For example, ADC0_SE4a and ADC0_SE4b are the different channels that share the same channel number.

Values:

enumerator kADC16_ChannelMuxA#: For channel with channel mux a.

enumerator kADC16_ChannelMuxB#: For channel with channel mux b.

enum _adc16_clock_divider#

Clock divider for the converter.

Values:

enumerator kADC16_ClockDivider1#: For divider 1 from the input clock to the module.

enumerator kADC16_ClockDivider2#: For divider 2 from the input clock to the module.

enumerator kADC16_ClockDivider4#: For divider 4 from the input clock to the module.

enumerator kADC16_ClockDivider8#: For divider 8 from the input clock to the module.

enum _adc16_resolution#

Converter’s resolution.

Values:

enumerator kADC16_Resolution8or9Bit#: Single End 8-bit or Differential Sample 9-bit.

enumerator kADC16_Resolution12or13Bit#: Single End 12-bit or Differential Sample 13-bit.

enumerator kADC16_Resolution10or11Bit#: Single End 10-bit or Differential Sample 11-bit.

enumerator kADC16_ResolutionSE8Bit#: Single End 8-bit.

enumerator kADC16_ResolutionSE12Bit#: Single End 12-bit.

enumerator kADC16_ResolutionSE10Bit#: Single End 10-bit.

enumerator kADC16_ResolutionDF9Bit#: Differential Sample 9-bit.

enumerator kADC16_ResolutionDF13Bit#: Differential Sample 13-bit.

enumerator kADC16_ResolutionDF11Bit#: Differential Sample 11-bit.

enum _adc16_clock_source#

Clock source.

Values:

enumerator kADC16_ClockSourceAlt0#: Selection 0 of the clock source.

enumerator kADC16_ClockSourceAlt1#: Selection 1 of the clock source.

enumerator kADC16_ClockSourceAlt2#: Selection 2 of the clock source.

enumerator kADC16_ClockSourceAlt3#: Selection 3 of the clock source.

enumerator kADC16_ClockSourceAsynchronousClock#: Using internal asynchronous clock.

enum _adc16_long_sample_mode#

Long sample mode.

Values:

enumerator kADC16_LongSampleCycle24#: 20 extra ADCK cycles, 24 ADCK cycles total.

enumerator kADC16_LongSampleCycle16#: 12 extra ADCK cycles, 16 ADCK cycles total.

enumerator kADC16_LongSampleCycle10#: 6 extra ADCK cycles, 10 ADCK cycles total.

enumerator kADC16_LongSampleCycle6#: 2 extra ADCK cycles, 6 ADCK cycles total.

enumerator kADC16_LongSampleDisabled#: Disable the long sample feature.

enum _adc16_reference_voltage_source#

Reference voltage source.

Values:

enumerator kADC16_ReferenceVoltageSourceVref#: For external pins pair of VrefH and VrefL.

enumerator kADC16_ReferenceVoltageSourceValt#: For alternate reference pair of ValtH and ValtL.

enum _adc16_hardware_average_mode#

Hardware average mode.

Values:

enumerator kADC16_HardwareAverageCount4#: For hardware average with 4 samples.

enumerator kADC16_HardwareAverageCount8#: For hardware average with 8 samples.

enumerator kADC16_HardwareAverageCount16#: For hardware average with 16 samples.

enumerator kADC16_HardwareAverageCount32#: For hardware average with 32 samples.

enumerator kADC16_HardwareAverageDisabled#: Disable the hardware average feature.

enum _adc16_hardware_compare_mode#

Hardware compare mode.

Values:

enumerator kADC16_HardwareCompareMode0#: x < value1.

enumerator kADC16_HardwareCompareMode1#: x > value1.

enumerator kADC16_HardwareCompareMode2#: if value1 <= value2, then x < value1 || x > value2; else, value1 > x > value2.

enumerator kADC16_HardwareCompareMode3#: if value1 <= value2, then value1 <= x <= value2; else x >= value1 || x <= value2.

enum _adc16_pga_gain#

PGA’s Gain mode.

Values:

enumerator kADC16_PGAGainValueOf1#: For amplifier gain of 1.

enumerator kADC16_PGAGainValueOf2#: For amplifier gain of 2.

enumerator kADC16_PGAGainValueOf4#: For amplifier gain of 4.

enumerator kADC16_PGAGainValueOf8#: For amplifier gain of 8.

enumerator kADC16_PGAGainValueOf16#: For amplifier gain of 16.

enumerator kADC16_PGAGainValueOf32#: For amplifier gain of 32.

enumerator kADC16_PGAGainValueOf64#: For amplifier gain of 64.

typedef enum _adc_channel_mux_mode adc16_channel_mux_mode_t#

Channel multiplexer mode for each channel.

For some ADC16 channels, there are two pin selections in channel multiplexer. For example, ADC0_SE4a and ADC0_SE4b are the different channels that share the same channel number.

typedef enum _adc16_clock_divider adc16_clock_divider_t#: Clock divider for the converter.

typedef enum _adc16_resolution adc16_resolution_t#: Converter’s resolution.

typedef enum _adc16_clock_source adc16_clock_source_t#: Clock source.

typedef enum _adc16_long_sample_mode adc16_long_sample_mode_t#: Long sample mode.

typedef enum _adc16_reference_voltage_source adc16_reference_voltage_source_t#: Reference voltage source.

typedef enum _adc16_hardware_average_mode adc16_hardware_average_mode_t#: Hardware average mode.

typedef enum _adc16_hardware_compare_mode adc16_hardware_compare_mode_t#: Hardware compare mode.

typedef enum _adc16_pga_gain adc16_pga_gain_t#: PGA’s Gain mode.

typedef struct _adc16_config adc16_config_t#: ADC16 converter configuration.

typedef struct _adc16_hardware_compare_config adc16_hardware_compare_config_t#: ADC16 Hardware comparison configuration.

typedef struct _adc16_channel_config adc16_channel_config_t#: ADC16 channel conversion configuration.

typedef struct _adc16_pga_config adc16_pga_config_t#: ADC16 programmable gain amplifier configuration.

struct _adc16_config#

#include <fsl_adc16.h>

ADC16 converter configuration.

Public Members

adc16_reference_voltage_source_t referenceVoltageSource#: Select the reference voltage source.

adc16_clock_source_t clockSource#: Select the input clock source to converter.

bool enableAsynchronousClock#: Enable the asynchronous clock output.

adc16_clock_divider_t clockDivider#: Select the divider of input clock source.

adc16_resolution_t resolution#: Select the sample resolution mode.

adc16_long_sample_mode_t longSampleMode#: Select the long sample mode.

bool enableHighSpeed#: Enable the high-speed mode.

bool enableLowPower#: Enable low power.

bool enableContinuousConversion#: Enable continuous conversion mode.

adc16_hardware_average_mode_t hardwareAverageMode#: Set hardware average mode.

struct _adc16_hardware_compare_config#

#include <fsl_adc16.h>

ADC16 Hardware comparison configuration.

Public Members

adc16_hardware_compare_mode_t hardwareCompareMode#: Select the hardware compare mode. See “adc16_hardware_compare_mode_t”.

int16_t value1#: Setting value1 for hardware compare mode.

int16_t value2#: Setting value2 for hardware compare mode.

struct _adc16_channel_config#

#include <fsl_adc16.h>

ADC16 channel conversion configuration.

Public Members

uint32_t channelNumber#: Setting the conversion channel number. The available range is 0-31. See channel connection information for each chip in Reference Manual document.

bool enableInterruptOnConversionCompleted#: Generate an interrupt request once the conversion is completed.

bool enableDifferentialConversion#: Using Differential sample mode.

struct _adc16_pga_config#

#include <fsl_adc16.h>

ADC16 programmable gain amplifier configuration.

Public Members

adc16_pga_gain_t pgaGain#: Setting PGA gain.

bool enableRunInNormalMode#: Enable PGA working in normal mode, or low power mode by default.

bool disablePgaChopping#: Disable the PGA chopping function. The PGA employs chopping to remove/reduce offset and 1/f noise and offers an offset measurement configuration that aids the offset calibration.

bool enableRunInOffsetMeasurement#: Enable the PGA working in offset measurement mode. When this feature is enabled, the PGA disconnects itself from the external inputs and auto-configures into offset measurement mode. With this field set, run the ADC in the recommended settings and enable the maximum hardware averaging to get the PGA offset number. The output is the (PGA offset * (64+1)) for the given PGA setting.

Clock Driver#

enum _clock_name#

Clock name used to get clock frequency.

Values:

enumerator kCLOCK_CoreSysClk#: Core/system clock

enumerator kCLOCK_PlatClk#: Platform clock

enumerator kCLOCK_BusClk#: Bus clock

enumerator kCLOCK_FlashClk#: Flash clock

enumerator kCLOCK_Er32kClk#: External reference 32K clock (ERCLK32K)

enumerator kCLOCK_Osc0ErClk#: OSC0 external reference clock (OSC0ERCLK)

enumerator kCLOCK_McgFixedFreqClk#: MCG fixed frequency clock (MCGFFCLK)

enumerator kCLOCK_McgInternalRefClk#: MCG internal reference clock (MCGIRCLK)

enumerator kCLOCK_McgFllClk#: MCGFLLCLK

enumerator kCLOCK_McgPeriphClk#: MCG peripheral clock (MCGPCLK)

enumerator kCLOCK_McgIrc48MClk#: MCG IRC48M clock

enumerator kCLOCK_LpoClk#: LPO clock

enum _clock_ip_name#

Clock gate name used for CLOCK_EnableClock/CLOCK_DisableClock.

Values:

enumerator kCLOCK_IpInvalid#

enumerator kCLOCK_I2c0#

enumerator kCLOCK_Cmp0#

enumerator kCLOCK_Vref0#

enumerator kCLOCK_Spi0#

enumerator kCLOCK_Lptmr0#

enumerator kCLOCK_PortA#

enumerator kCLOCK_PortB#

enumerator kCLOCK_Lpuart0#

enumerator kCLOCK_Ftf0#

enumerator kCLOCK_Tpm0#

enumerator kCLOCK_Tpm1#

enumerator kCLOCK_Adc0#

enumerator kCLOCK_Rtc0#

enum _osc_cap_load#

Oscillator capacitor load setting.

Values:

enumerator kOSC_Cap2P#: 2 pF capacitor load

enumerator kOSC_Cap4P#: 4 pF capacitor load

enumerator kOSC_Cap8P#: 8 pF capacitor load

enumerator kOSC_Cap16P#: 16 pF capacitor load

enum _oscer_enable_mode#

OSCERCLK enable mode.

Values:

enumerator kOSC_ErClkEnable#: Enable.

enumerator kOSC_ErClkEnableInStop#: Enable in stop mode.

enum _osc_mode#

The OSC work mode.

Values:

enumerator kOSC_ModeExt#: Use external clock.

enumerator kOSC_ModeOscLowPower#: Oscillator low power.

enum _mcglite_clkout_src#

MCG_Lite clock source selection.

Values:

enumerator kMCGLITE_ClkSrcHirc#: MCGOUTCLK source is HIRC

enumerator kMCGLITE_ClkSrcLirc#: MCGOUTCLK source is LIRC

enumerator kMCGLITE_ClkSrcExt#: MCGOUTCLK source is external clock source

enumerator kMCGLITE_ClkSrcReserved#

enum _mcglite_lirc_mode#

MCG_Lite LIRC select.

Values:

enumerator kMCGLITE_Lirc2M#: Slow internal reference(LIRC) 2 MHz clock selected

enumerator kMCGLITE_Lirc8M#: Slow internal reference(LIRC) 8 MHz clock selected

enum _mcglite_lirc_div#

MCG_Lite divider factor selection for clock source.

Values:

enumerator kMCGLITE_LircDivBy1#: Divider is 1

enumerator kMCGLITE_LircDivBy2#: Divider is 2

enumerator kMCGLITE_LircDivBy4#: Divider is 4

enumerator kMCGLITE_LircDivBy8#: Divider is 8

enumerator kMCGLITE_LircDivBy16#: Divider is 16

enumerator kMCGLITE_LircDivBy32#: Divider is 32

enumerator kMCGLITE_LircDivBy64#: Divider is 64

enumerator kMCGLITE_LircDivBy128#: Divider is 128

enum _mcglite_mode#

MCG_Lite clock mode definitions.

Values:

enumerator kMCGLITE_ModeHirc48M#: Clock mode is HIRC 48 M

enumerator kMCGLITE_ModeLirc8M#: Clock mode is LIRC 8 M

enumerator kMCGLITE_ModeLirc2M#: Clock mode is LIRC 2 M

enumerator kMCGLITE_ModeExt#: Clock mode is EXT

enumerator kMCGLITE_ModeError#: Unknown mode

enum _mcglite_irclk_enable_mode#

MCG internal reference clock (MCGIRCLK) enable mode definition.

Values:

enumerator kMCGLITE_IrclkEnable#: MCGIRCLK enable.

enumerator kMCGLITE_IrclkEnableInStop#: MCGIRCLK enable in stop mode.

typedef enum _clock_name clock_name_t#: Clock name used to get clock frequency.

typedef enum _clock_ip_name clock_ip_name_t#: Clock gate name used for CLOCK_EnableClock/CLOCK_DisableClock.

typedef struct _sim_clock_config sim_clock_config_t#: SIM configuration structure for clock setting.

typedef struct _oscer_config oscer_config_t#: The OSC configuration for OSCERCLK.

typedef enum _osc_mode osc_mode_t#: The OSC work mode.

typedef struct _osc_config osc_config_t#

OSC Initialization Configuration Structure.

Defines the configuration data structure to initialize the OSC. When porting to a new board, set the following members according to the board settings:

freq: The external frequency.
workMode: The OSC module mode.

typedef enum _mcglite_clkout_src mcglite_clkout_src_t#: MCG_Lite clock source selection.

typedef enum _mcglite_lirc_mode mcglite_lirc_mode_t#: MCG_Lite LIRC select.

typedef enum _mcglite_lirc_div mcglite_lirc_div_t#: MCG_Lite divider factor selection for clock source.

typedef enum _mcglite_mode mcglite_mode_t#: MCG_Lite clock mode definitions.

typedef struct _mcglite_config mcglite_config_t#: MCG_Lite configure structure for mode change.

volatile uint32_t g_xtal0Freq#

External XTAL0 (OSC0) clock frequency.

The XTAL0/EXTAL0 (OSC0) clock frequency in Hz. When the clock is set up, use the function CLOCK_SetXtal0Freq to set the value in the clock driver. For example, if XTAL0 is 8 MHz:

CLOCK_InitOsc0(...); // Set up the OSC0
CLOCK_SetXtal0Freq(80000000); // Set the XTAL0 value to clock driver.

This is important for the multicore platforms where one core needs to set up the OSC0 using the CLOCK_InitOsc0. All other cores need to call the CLOCK_SetXtal0Freq to get a valid clock frequency.

volatile uint32_t g_xtal32Freq#

The external XTAL32/EXTAL32/RTC_CLKIN clock frequency.

The XTAL32/EXTAL32/RTC_CLKIN clock frequency in Hz. When the clock is set up, use the function CLOCK_SetXtal32Freq to set the value in the clock driver.

This is important for the multicore platforms where one core needs to set up the clock. All other cores need to call the CLOCK_SetXtal32Freq to get a valid clock frequency.

static inline void CLOCK_EnableClock(clock_ip_name_t name)#

Enable the clock for specific IP.

Parameters:

name – Which clock to enable, see clock_ip_name_t.

static inline void CLOCK_DisableClock(clock_ip_name_t name)#

Disable the clock for specific IP.

Parameters:

name – Which clock to disable, see clock_ip_name_t.

static inline void CLOCK_SetEr32kClock(uint32_t src)#

Set ERCLK32K source.

Parameters:

src – The value to set ERCLK32K clock source.

static inline void CLOCK_SetLpuart0Clock(uint32_t src)#

Set LPUART clock source.

Parameters:

src – The value to set LPUART clock source.

static inline void CLOCK_SetTpmClock(uint32_t src)#

Set TPM clock source.

Parameters:

src – The value to set TPM clock source.

static inline void CLOCK_SetClkOutClock(uint32_t src)#

Set CLKOUT source.

Parameters:

src – The value to set CLKOUT source.

static inline void CLOCK_SetRtcClkOutClock(uint32_t src)#

Set RTC_CLKOUT source.

Parameters:

src – The value to set RTC_CLKOUT source.

static inline void CLOCK_SetOutDiv(uint32_t outdiv1, uint32_t outdiv4)#

System clock divider.

Set the SIM_CLKDIV1[OUTDIV1], SIM_CLKDIV1[OUTDIV4].

Parameters:

outdiv1 – Clock 1 output divider value.
outdiv4 – Clock 4 output divider value.

uint32_t CLOCK_GetFreq(clock_name_t clockName)#

Gets the clock frequency for a specific clock name.

This function checks the current clock configurations and then calculates the clock frequency for a specific clock name defined in clock_name_t. The MCG must be properly configured before using this function.

Parameters:

clockName – Clock names defined in clock_name_t

Returns:

Clock frequency value in Hertz

uint32_t CLOCK_GetCoreSysClkFreq(void)#

Get the core clock or system clock frequency.

Returns:: Clock frequency in Hz.

uint32_t CLOCK_GetPlatClkFreq(void)#

Get the platform clock frequency.

Returns:: Clock frequency in Hz.

uint32_t CLOCK_GetBusClkFreq(void)#

Get the bus clock frequency.

Returns:: Clock frequency in Hz.

uint32_t CLOCK_GetFlashClkFreq(void)#

Get the flash clock frequency.

Returns:: Clock frequency in Hz.

uint32_t CLOCK_GetEr32kClkFreq(void)#

Get the external reference 32K clock frequency (ERCLK32K).

Returns:: Clock frequency in Hz.

uint32_t CLOCK_GetOsc0ErClkFreq(void)#

Get the OSC0 external reference clock frequency (OSC0ERCLK).

Returns:: Clock frequency in Hz.

void CLOCK_SetSimConfig(sim_clock_config_t const *config)#

Set the clock configure in SIM module.

This function sets system layer clock settings in SIM module.

Parameters:

config – Pointer to the configure structure.

static inline void CLOCK_SetSimSafeDivs(void)#

Set the system clock dividers in SIM to safe value.

The system level clocks (core clock, bus clock, flexbus clock and flash clock) must be in allowed ranges. During MCG clock mode switch, the MCG output clock changes then the system level clocks may be out of range. This function could be used before MCG mode change, to make sure system level clocks are in allowed range.

Parameters:

config – Pointer to the configure structure.

FSL_CLOCK_DRIVER_VERSION#: CLOCK driver version 2.0.0.

SDK_DEVICE_MAXIMUM_CPU_CLOCK_FREQUENCY#

RTC_CLOCKS#: Clock ip name array for RTC.

LPUART_CLOCKS#: Clock ip name array for LPUART.

SPI_CLOCKS#: Clock ip name array for SPI.

LPTMR_CLOCKS#: Clock ip name array for LPTMR.

ADC16_CLOCKS#: Clock ip name array for ADC16.

TPM_CLOCKS#: Clock ip name array for TPM.

VREF_CLOCKS#: Clock ip name array for VREF.

I2C_CLOCKS#: Clock ip name array for I2C.

PORT_CLOCKS#: Clock ip name array for PORT.

FTF_CLOCKS#: Clock ip name array for FTF.

CMP_CLOCKS#: Clock ip name array for CMP.

LPO_CLK_FREQ#: LPO clock frequency.

SYS_CLK#: Peripherals clock source definition.

BUS_CLK#

I2C0_CLK_SRC#

SPI0_CLK_SRC#

CLK_GATE_REG_OFFSET_SHIFT#

CLK_GATE_REG_OFFSET_MASK#

CLK_GATE_BIT_SHIFT_SHIFT#

CLK_GATE_BIT_SHIFT_MASK#

CLK_GATE_DEFINE(reg_offset, bit_shift)#

CLK_GATE_ABSTRACT_REG_OFFSET(x)#

CLK_GATE_ABSTRACT_BITS_SHIFT(x)#

uint32_t CLOCK_GetOutClkFreq(void)#

Gets the MCG_Lite output clock (MCGOUTCLK) frequency.

This function gets the MCG_Lite output clock frequency in Hz based on the current MCG_Lite register value.

Returns:: The frequency of MCGOUTCLK.

uint32_t CLOCK_GetInternalRefClkFreq(void)#

Gets the MCG internal reference clock (MCGIRCLK) frequency.

This function gets the MCG_Lite internal reference clock frequency in Hz based on the current MCG register value.

Returns:: The frequency of MCGIRCLK.

uint32_t CLOCK_GetPeriphClkFreq(void)#

Gets the current MCGPCLK frequency.

This function gets the MCGPCLK frequency in Hz based on the current MCG_Lite register settings.

Returns:: The frequency of MCGPCLK.

mcglite_mode_t CLOCK_GetMode(void)#

Gets the current MCG_Lite mode.

This function checks the MCG_Lite registers and determines the current MCG_Lite mode.

Returns:: The current MCG_Lite mode or error code.

status_t CLOCK_SetMcgliteConfig(mcglite_config_t const *targetConfig)#

Sets the MCG_Lite configuration.

This function configures the MCG_Lite, includes the output clock source, MCGIRCLK settings, HIRC settings, and so on. See mcglite_config_t for details.

Parameters:

targetConfig – Pointer to the target MCG_Lite mode configuration structure.

Returns:

Error code.

static inline void OSC_SetExtRefClkConfig(OSC_Type *base, oscer_config_t const *config)#

Configures the OSC external reference clock (OSCERCLK).

This function configures the OSC external reference clock (OSCERCLK). This is an example to enable the OSCERCLK in normal mode and stop mode, and set the output divider to 1.

oscer_config_t config =
{
    .enableMode = kOSC_ErClkEnable | kOSC_ErClkEnableInStop,
    .erclkDiv   = 1U,
};

OSC_SetExtRefClkConfig(OSC, &config);

Parameters:

base – OSC peripheral address.
config – Pointer to the configuration structure.

static inline void OSC_SetCapLoad(OSC_Type *base, uint8_t capLoad)#

Sets the capacitor load configuration for the oscillator.

This function sets the specified capacitor configuration for the oscillator. This should be done in the early system level initialization function call based on the system configuration.

Example:

// To enable only 2 pF and 8 pF capacitor load, please use like this.
OSC_SetCapLoad(OSC, kOSC_Cap2P | kOSC_Cap8P);

Parameters:

base – OSC peripheral address.
capLoad – OR’ed value for the capacitor load option.See _osc_cap_load.

void CLOCK_InitOsc0(osc_config_t const *config)#

Initializes the OSC0.

This function initializes the OSC0 according to the board configuration.

Parameters:

config – Pointer to the OSC0 configuration structure.

void CLOCK_DeinitOsc0(void)#

Deinitializes the OSC0.

This function deinitializes the OSC0.

static inline void CLOCK_SetXtal0Freq(uint32_t freq)#

Sets the XTAL0 frequency based on board settings.

Parameters:

freq – The XTAL0/EXTAL0 input clock frequency in Hz.

static inline void CLOCK_SetXtal32Freq(uint32_t freq)#

Sets the XTAL32/RTC_CLKIN frequency based on board settings.

Parameters:

freq – The XTAL32/EXTAL32/RTC_CLKIN input clock frequency in Hz.

uint8_t er32kSrc#: ERCLK32K source selection.

uint32_t clkdiv1#: SIM_CLKDIV1.

uint8_t enableMode#: OSCERCLK enable mode. OR’ed value of _oscer_enable_mode.

uint32_t freq#: External clock frequency.

uint8_t capLoad#: Capacitor load setting.

osc_mode_t workMode#: OSC work mode setting.

oscer_config_t oscerConfig#: Configuration for OSCERCLK.

mcglite_clkout_src_t outSrc#: MCGOUT clock select.

uint8_t irclkEnableMode#: MCGIRCLK enable mode, OR’ed value of _mcglite_irclk_enable_mode.

mcglite_lirc_mode_t ircs#: MCG_C2[IRCS].

mcglite_lirc_div_t fcrdiv#: MCG_SC[FCRDIV].

mcglite_lirc_div_t lircDiv2#: MCG_MC[LIRC_DIV2].

bool hircEnableInNotHircMode#: HIRC enable when not in HIRC mode.

FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL#

Configure whether driver controls clock.

When set to 0, peripheral drivers will enable clock in initialize function and disable clock in de-initialize function. When set to 1, peripheral driver will not control the clock, application could control the clock out of the driver.

Note

All drivers share this feature switcher. If it is set to 1, application should handle clock enable and disable for all drivers.

struct _sim_clock_config#: #include <fsl_clock.h>

SIM configuration structure for clock setting.

struct _oscer_config#: #include <fsl_clock.h>

The OSC configuration for OSCERCLK.

struct _osc_config#

#include <fsl_clock.h>

OSC Initialization Configuration Structure.

Defines the configuration data structure to initialize the OSC. When porting to a new board, set the following members according to the board settings:

freq: The external frequency.
workMode: The OSC module mode.

struct _mcglite_config#: #include <fsl_clock.h>

MCG_Lite configure structure for mode change.

CMP: Analog Comparator Driver#

void CMP_Init(CMP_Type *base, const cmp_config_t *config)#

Initializes the CMP.

This function initializes the CMP module. The operations included are as follows.

Enabling the clock for CMP module.
Configuring the comparator.
Enabling the CMP module. Note that for some devices, multiple CMP instances share the same clock gate. In this case, to enable the clock for any instance enables all CMPs. See the appropriate MCU reference manual for the clock assignment of the CMP.

Parameters:

base – CMP peripheral base address.
config – Pointer to the configuration structure.

void CMP_Deinit(CMP_Type *base)#

De-initializes the CMP module.

This function de-initializes the CMP module. The operations included are as follows.

Disabling the CMP module.
Disabling the clock for CMP module.

This function disables the clock for the CMP. Note that for some devices, multiple CMP instances share the same clock gate. In this case, before disabling the clock for the CMP, ensure that all the CMP instances are not used.

Parameters:

base – CMP peripheral base address.

static inline void CMP_Enable(CMP_Type *base, bool enable)#

Enables/disables the CMP module.

Parameters:

base – CMP peripheral base address.
enable – Enables or disables the module.

void CMP_GetDefaultConfig(cmp_config_t *config)#

Initializes the CMP user configuration structure.

This function initializes the user configuration structure to these default values.

config->enableCmp           = true;
config->hysteresisMode      = kCMP_HysteresisLevel0;
config->enableHighSpeed     = false;
config->enableInvertOutput  = false;
config->useUnfilteredOutput = false;
config->enablePinOut        = false;
config->enableTriggerMode   = false;

Parameters:

config – Pointer to the configuration structure.

void CMP_SetInputChannels(CMP_Type *base, uint8_t positiveChannel, uint8_t negativeChannel)#

Sets the input channels for the comparator.

This function sets the input channels for the comparator. Note that two input channels cannot be set the same way in the application. When the user selects the same input from the analog mux to the positive and negative port, the comparator is disabled automatically.

Parameters:

base – CMP peripheral base address.
positiveChannel – Positive side input channel number. Available range is 0-7.
negativeChannel – Negative side input channel number. Available range is 0-7.

void CMP_EnableDMA(CMP_Type *base, bool enable)#

Enables/disables the DMA request for rising/falling events.

This function enables/disables the DMA request for rising/falling events. Either event triggers the generation of the DMA request from CMP if the DMA feature is enabled. Both events are ignored for generating the DMA request from the CMP if the DMA is disabled.

Parameters:

base – CMP peripheral base address.
enable – Enables or disables the feature.

static inline void CMP_EnableWindowMode(CMP_Type *base, bool enable)#

Enables/disables the window mode.

Parameters:

base – CMP peripheral base address.
enable – Enables or disables the feature.

static inline void CMP_EnablePassThroughMode(CMP_Type *base, bool enable)#

Enables/disables the pass through mode.

Parameters:

base – CMP peripheral base address.
enable – Enables or disables the feature.

void CMP_SetFilterConfig(CMP_Type *base, const cmp_filter_config_t *config)#

Configures the filter.

Parameters:

base – CMP peripheral base address.
config – Pointer to the configuration structure.

void CMP_SetDACConfig(CMP_Type *base, const cmp_dac_config_t *config)#

Configures the internal DAC.

Parameters:

base – CMP peripheral base address.
config – Pointer to the configuration structure. “NULL” disables the feature.

void CMP_EnableInterrupts(CMP_Type *base, uint32_t mask)#

Enables the interrupts.

Parameters:

base – CMP peripheral base address.
mask – Mask value for interrupts. See “_cmp_interrupt_enable”.

void CMP_DisableInterrupts(CMP_Type *base, uint32_t mask)#

Disables the interrupts.

Parameters:

base – CMP peripheral base address.
mask – Mask value for interrupts. See “_cmp_interrupt_enable”.

uint32_t CMP_GetStatusFlags(CMP_Type *base)#

Gets the status flags.

Parameters:

base – CMP peripheral base address.

Returns:

Mask value for the asserted flags. See “_cmp_status_flags”.

void CMP_ClearStatusFlags(CMP_Type *base, uint32_t mask)#

Clears the status flags.

Parameters:

base – CMP peripheral base address.
mask – Mask value for the flags. See “_cmp_status_flags”.

FSL_CMP_DRIVER_VERSION#: CMP driver version 2.0.3.

enum _cmp_interrupt_enable#

Interrupt enable/disable mask.

Values:

enumerator kCMP_OutputRisingInterruptEnable#: Comparator interrupt enable rising.

enumerator kCMP_OutputFallingInterruptEnable#: Comparator interrupt enable falling.

enum _cmp_status_flags#

Status flags’ mask.

Values:

enumerator kCMP_OutputRisingEventFlag#: Rising-edge on the comparison output has occurred.

enumerator kCMP_OutputFallingEventFlag#: Falling-edge on the comparison output has occurred.

enumerator kCMP_OutputAssertEventFlag#: Return the current value of the analog comparator output.

enum _cmp_hysteresis_mode#

CMP Hysteresis mode.

Values:

enumerator kCMP_HysteresisLevel0#: Hysteresis level 0.

enumerator kCMP_HysteresisLevel1#: Hysteresis level 1.

enumerator kCMP_HysteresisLevel2#: Hysteresis level 2.

enumerator kCMP_HysteresisLevel3#: Hysteresis level 3.

enum _cmp_reference_voltage_source#

CMP Voltage Reference source.

Values:

enumerator kCMP_VrefSourceVin1#: Vin1 is selected as a resistor ladder network supply reference Vin.

enumerator kCMP_VrefSourceVin2#: Vin2 is selected as a resistor ladder network supply reference Vin.

typedef enum _cmp_hysteresis_mode cmp_hysteresis_mode_t#: CMP Hysteresis mode.

typedef enum _cmp_reference_voltage_source cmp_reference_voltage_source_t#: CMP Voltage Reference source.

typedef struct _cmp_config cmp_config_t#: Configures the comparator.

typedef struct _cmp_filter_config cmp_filter_config_t#: Configures the filter.

typedef struct _cmp_dac_config cmp_dac_config_t#: Configures the internal DAC.

struct _cmp_config#

#include <fsl_cmp.h>

Configures the comparator.

Public Members

bool enableCmp#: Enable the CMP module.

cmp_hysteresis_mode_t hysteresisMode#: CMP Hysteresis mode.

bool enableHighSpeed#: Enable High-speed (HS) comparison mode.

bool enableInvertOutput#: Enable the inverted comparator output.

bool useUnfilteredOutput#: Set the compare output(COUT) to equal COUTA(true) or COUT(false).

bool enablePinOut#: The comparator output is available on the associated pin.

bool enableTriggerMode#: Enable the trigger mode.

struct _cmp_filter_config#

#include <fsl_cmp.h>

Configures the filter.

Public Members

bool enableSample#: Using the external SAMPLE as a sampling clock input or using a divided bus clock.

uint8_t filterCount#: Filter Sample Count. Available range is 1-7; 0 disables the filter.

uint8_t filterPeriod#: Filter Sample Period. The divider to the bus clock. Available range is 0-255.

struct _cmp_dac_config#

#include <fsl_cmp.h>

Configures the internal DAC.

Public Members

cmp_reference_voltage_source_t referenceVoltageSource#: Supply voltage reference source.

uint8_t DACValue#: Value for the DAC Output Voltage. Available range is 0-63.

COP: Watchdog Driver#

void COP_GetDefaultConfig(cop_config_t *config)#

Initializes the COP configuration structure.

This function initializes the COP configuration structure to default values. The default values are:

copConfig->enableWindowMode = false;
copConfig->timeoutMode = kCOP_LongTimeoutMode;
copConfig->enableStop = false;
copConfig->enableDebug = false;
copConfig->clockSource = kCOP_LpoClock;
copConfig->timeoutCycles = kCOP_2Power10CyclesOr2Power18Cycles;

FGPIO Driver#

void FGPIO_PinInit(FGPIO_Type *base, uint32_t pin, const gpio_pin_config_t *config)#

Initializes a FGPIO pin used by the board.

To initialize the FGPIO driver, define a pin configuration, as either input or output, in the user file. Then, call the FGPIO_PinInit() function.

This is an example to define an input pin or an output pin configuration:

Define a digital input pin configuration,
gpio_pin_config_t config =
{
  kGPIO_DigitalInput,
  0,
}
Define a digital output pin configuration,
gpio_pin_config_t config =
{
  kGPIO_DigitalOutput,
  0,
}

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
pin – FGPIO port pin number
config – FGPIO pin configuration pointer

static inline void FGPIO_PinWrite(FGPIO_Type *base, uint32_t pin, uint8_t output)#

Sets the output level of the multiple FGPIO pins to the logic 1 or 0.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
pin – FGPIO pin number
output – FGPIOpin output logic level.
- 0: corresponding pin output low-logic level.
- 1: corresponding pin output high-logic level.

static inline void FGPIO_PortSet(FGPIO_Type *base, uint32_t mask)#

Sets the output level of the multiple FGPIO pins to the logic 1.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
mask – FGPIO pin number macro

static inline void FGPIO_PortClear(FGPIO_Type *base, uint32_t mask)#

Sets the output level of the multiple FGPIO pins to the logic 0.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
mask – FGPIO pin number macro

static inline void FGPIO_PortToggle(FGPIO_Type *base, uint32_t mask)#

Reverses the current output logic of the multiple FGPIO pins.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
mask – FGPIO pin number macro

static inline uint32_t FGPIO_PinRead(FGPIO_Type *base, uint32_t pin)#

Reads the current input value of the FGPIO port.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
pin – FGPIO pin number

Return values:

FGPIO – port input value

0: corresponding pin input low-logic level.
1: corresponding pin input high-logic level.

uint32_t FGPIO_PortGetInterruptFlags(FGPIO_Type *base)#

Reads the FGPIO port interrupt status flag.

If a pin is configured to generate the DMA request, the corresponding flag is cleared automatically at the completion of the requested DMA transfer. Otherwise, the flag remains set until a logic one is written to that flag. If configured for a level-sensitive interrupt that remains asserted, the flag is set again immediately.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)

Return values:

The – current FGPIO port interrupt status flags, for example, 0x00010001 means the pin 0 and 17 have the interrupt.

void FGPIO_PortClearInterruptFlags(FGPIO_Type *base, uint32_t mask)#

Clears the multiple FGPIO pin interrupt status flag.

Parameters:

base – FGPIO peripheral base pointer (FGPIOA, FGPIOB, FGPIOC, and so on.)
mask – FGPIO pin number macro

C90TFS Flash Driver#

ftfx adapter#

Ftftx CACHE Driver#

enum _ftfx_cache_ram_func_constants#

Constants for execute-in-RAM flash function.

Values:

enumerator kFTFx_CACHE_RamFuncMaxSizeInWords#: The maximum size of execute-in-RAM function.

typedef struct _flash_prefetch_speculation_status ftfx_prefetch_speculation_status_t#: FTFx prefetch speculation status.

typedef struct _ftfx_cache_config ftfx_cache_config_t#

FTFx cache driver state information.

An instance of this structure is allocated by the user of the flash driver and passed into each of the driver APIs.

status_t FTFx_CACHE_Init(ftfx_cache_config_t *config)#

Initializes the global FTFx cache structure members.

This function checks and initializes the Flash module for the other FTFx cache APIs.

Parameters:

config – Pointer to the storage for the driver runtime state.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.

status_t FTFx_CACHE_ClearCachePrefetchSpeculation(ftfx_cache_config_t *config, bool isPreProcess)#

Process the cache/prefetch/speculation to the flash.

Parameters:

config – A pointer to the storage for the driver runtime state.
isPreProcess – The possible option used to control flash cache/prefetch/speculation

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – Invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.

status_t FTFx_CACHE_PflashSetPrefetchSpeculation(ftfx_prefetch_speculation_status_t *speculationStatus)#

Sets the PFlash prefetch speculation to the intended speculation status.

Parameters:

speculationStatus – The expected protect status to set to the PFlash protection register. Each bit is

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidSpeculationOption – An invalid speculation option argument is provided.

status_t FTFx_CACHE_PflashGetPrefetchSpeculation(ftfx_prefetch_speculation_status_t *speculationStatus)#

Gets the PFlash prefetch speculation status.

Parameters:

speculationStatus – Speculation status returned by the PFlash IP.

Return values:

kStatus_FTFx_Success – API was executed successfully.

struct _flash_prefetch_speculation_status#

#include <fsl_ftfx_cache.h>

FTFx prefetch speculation status.

Public Members

bool instructionOff#: Instruction speculation.

bool dataOff#: Data speculation.

union function_bit_operation_ptr_t#

Public Members

uint32_t commadAddr#

void (*callFlashCommand)(volatile uint32_t *base, uint32_t bitMask, uint32_t bitShift, uint32_t bitValue)#

struct _ftfx_cache_config#

#include <fsl_ftfx_cache.h>

FTFx cache driver state information.

An instance of this structure is allocated by the user of the flash driver and passed into each of the driver APIs.

Public Members

uint8_t flashMemoryIndex#: 0 - primary flash; 1 - secondary flash

function_bit_operation_ptr_t bitOperFuncAddr#: An buffer point to the flash execute-in-RAM function.

ftfx controller#

FTFx driver status codes.

Values:

enumerator kStatus_FTFx_Success#: API is executed successfully

enumerator kStatus_FTFx_InvalidArgument#: Invalid argument

enumerator kStatus_FTFx_SizeError#: Error size

enumerator kStatus_FTFx_AlignmentError#: Parameter is not aligned with the specified baseline

enumerator kStatus_FTFx_AddressError#: Address is out of range

enumerator kStatus_FTFx_AccessError#: Invalid instruction codes and out-of bound addresses

enumerator kStatus_FTFx_ProtectionViolation#: The program/erase operation is requested to execute on protected areas

enumerator kStatus_FTFx_CommandFailure#: Run-time error during command execution.

enumerator kStatus_FTFx_UnknownProperty#: Unknown property.

enumerator kStatus_FTFx_EraseKeyError#: API erase key is invalid.

enumerator kStatus_FTFx_RegionExecuteOnly#: The current region is execute-only.

enumerator kStatus_FTFx_ExecuteInRamFunctionNotReady#: Execute-in-RAM function is not available.

enumerator kStatus_FTFx_PartitionStatusUpdateFailure#: Failed to update partition status.

enumerator kStatus_FTFx_SetFlexramAsEepromError#: Failed to set FlexRAM as EEPROM.

enumerator kStatus_FTFx_RecoverFlexramAsRamError#: Failed to recover FlexRAM as RAM.

enumerator kStatus_FTFx_SetFlexramAsRamError#: Failed to set FlexRAM as RAM.

enumerator kStatus_FTFx_RecoverFlexramAsEepromError#: Failed to recover FlexRAM as EEPROM.

enumerator kStatus_FTFx_CommandNotSupported#: Flash API is not supported.

enumerator kStatus_FTFx_SwapSystemNotInUninitialized#: Swap system is not in an uninitialzed state.

enumerator kStatus_FTFx_SwapIndicatorAddressError#: The swap indicator address is invalid.

enumerator kStatus_FTFx_ReadOnlyProperty#: The flash property is read-only.

enumerator kStatus_FTFx_InvalidPropertyValue#: The flash property value is out of range.

enumerator kStatus_FTFx_InvalidSpeculationOption#: The option of flash prefetch speculation is invalid.

enumerator kStatus_FTFx_CommandOperationInProgress#: The option of flash command is processing.

enum _ftfx_driver_api_keys#

Enumeration for FTFx driver API keys.

Note

The resulting value is built with a byte order such that the string being readable in expected order when viewed in a hex editor, if the value is treated as a 32-bit little endian value.

Values:

enumerator kFTFx_ApiEraseKey#: Key value used to validate all FTFx erase APIs.

void FTFx_API_Init(ftfx_config_t *config)#

Initializes the global flash properties structure members.

This function checks and initializes the Flash module for the other Flash APIs.

Parameters:

config – Pointer to the storage for the driver runtime state.

status_t FTFx_API_UpdateFlexnvmPartitionStatus(ftfx_config_t *config)#

Updates FlexNVM memory partition status according to data flash 0 IFR.

This function updates FlexNVM memory partition status.

Parameters:

config – Pointer to the storage for the driver runtime state.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FTFx_CMD_Erase(ftfx_config_t *config, uint32_t start, uint32_t lengthInBytes, uint32_t key)#

Erases the flash sectors encompassed by parameters passed into function.

This function erases the appropriate number of flash sectors based on the desired start address and length.

Parameters:

config – The pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be erased. The start address does not need to be sector-aligned but must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words) to be erased. Must be word-aligned.
key – The value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – The parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – The address is out of range.
kStatus_FTFx_EraseKeyError – The API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_EraseSectorNonBlocking(ftfx_config_t *config, uint32_t start, uint32_t key)#

Erases the flash sectors encompassed by parameters passed into function.

This function erases one flash sector size based on the start address.

Parameters:

config – The pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be erased. The start address does not need to be sector-aligned but must be word-aligned.
key – The value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – The parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – The address is out of range.
kStatus_FTFx_EraseKeyError – The API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.

status_t FTFx_CMD_EraseAll(ftfx_config_t *config, uint32_t key)#

Erases entire flash.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FTFx_CMD_EraseAllUnsecure(ftfx_config_t *config, uint32_t key)#

Erases the entire flash, including protected sectors.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FTFx_CMD_EraseAllExecuteOnlySegments(ftfx_config_t *config, uint32_t key)#

Erases all program flash execute-only segments defined by the FXACC registers.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_Program(ftfx_config_t *config, uint32_t start, const uint8_t *src, uint32_t lengthInBytes)#

Programs flash with data at locations passed in through parameters.

This function programs the flash memory with the desired data for a given flash area as determined by the start address and the length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_ProgramOnce(ftfx_config_t *config, uint32_t index, const uint8_t *src, uint32_t lengthInBytes)#

Programs Program Once Field through parameters.

This function programs the Program Once Field with the desired data for a given flash area as determined by the index and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
index – The index indicating which area of the Program Once Field to be programmed.
src – A pointer to the source buffer of data that is to be programmed into the Program Once Field.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_ProgramSection(ftfx_config_t *config, uint32_t start, const uint8_t *src, uint32_t lengthInBytes)#

Programs flash with data at locations passed in through parameters via the Program Section command.

This function programs the flash memory with the desired data for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_SetFlexramAsRamError – Failed to set flexram as RAM.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_RecoverFlexramAsEepromError – Failed to recover FlexRAM as EEPROM.

status_t FTFx_CMD_ProgramPartition(ftfx_config_t *config, ftfx_partition_flexram_load_opt_t option, uint32_t eepromDataSizeCode, uint32_t flexnvmPartitionCode, uint8_t CSEcKeySize, uint8_t CFE)#

Prepares the FlexNVM block for use as data flash, EEPROM backup, or a combination of both and initializes the FlexRAM.

Parameters:

config – Pointer to storage for the driver runtime state.
option – The option used to set FlexRAM load behavior during reset.
eepromDataSizeCode – Determines the amount of FlexRAM used in each of the available EEPROM subsystems.
flexnvmPartitionCode – Specifies how to split the FlexNVM block between data flash memory and EEPROM backup memory supporting EEPROM functions.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – Invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.

status_t FTFx_CMD_ReadOnce(ftfx_config_t *config, uint32_t index, uint8_t *dst, uint32_t lengthInBytes)#

Reads the Program Once Field through parameters.

This function reads the read once feild with given index and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
index – The index indicating the area of program once field to be read.
dst – A pointer to the destination buffer of data that is used to store data to be read.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_ReadResource(ftfx_config_t *config, uint32_t start, uint8_t *dst, uint32_t lengthInBytes, ftfx_read_resource_opt_t option)#

Reads the resource with data at locations passed in through parameters.

This function reads the flash memory with the desired location for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
dst – A pointer to the destination buffer of data that is used to store data to be read.
lengthInBytes – The length, given in bytes (not words or long-words), to be read. Must be word-aligned.
option – The resource option which indicates which area should be read back.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with the specified baseline.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_VerifyErase(ftfx_config_t *config, uint32_t start, uint32_t lengthInBytes, ftfx_margin_value_t margin)#

Verifies an erasure of the desired flash area at a specified margin level.

This function checks the appropriate number of flash sectors based on the desired start address and length to check whether the flash is erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be verified. The start address does not need to be sector-aligned but must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be verified. Must be word-aligned.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_VerifyEraseAll(ftfx_config_t *config, ftfx_margin_value_t margin)#

Verifies erasure of the entire flash at a specified margin level.

This function checks whether the flash is erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_VerifyEraseAllExecuteOnlySegments(ftfx_config_t *config, ftfx_margin_value_t margin)#

Verifies whether the program flash execute-only segments have been erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_VerifyProgram(ftfx_config_t *config, uint32_t start, uint32_t lengthInBytes, const uint8_t *expectedData, ftfx_margin_value_t margin, uint32_t *failedAddress, uint32_t *failedData)#

Verifies programming of the desired flash area at a specified margin level.

This function verifies the data programed in the flash memory using the Flash Program Check Command and compares it to the expected data for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be verified. Must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be verified. Must be word-aligned.
expectedData – A pointer to the expected data that is to be verified against.
margin – Read margin choice.
failedAddress – A pointer to the returned failing address.
failedData – A pointer to the returned failing data. Some derivatives do not include failed data as part of the FCCOBx registers. In this case, zeros are returned upon failure.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_REG_GetSecurityState(ftfx_config_t *config, ftfx_security_state_t *state)#

Returns the security state via the pointer passed into the function.

This function retrieves the current flash security status, including the security enabling state and the backdoor key enabling state.

Parameters:

config – A pointer to storage for the driver runtime state.
state – A pointer to the value returned for the current security status code:

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.

status_t FTFx_CMD_SecurityBypass(ftfx_config_t *config, const uint8_t *backdoorKey)#

Allows users to bypass security with a backdoor key.

If the MCU is in secured state, this function unsecures the MCU by comparing the provided backdoor key with ones in the flash configuration field.

Parameters:

config – A pointer to the storage for the driver runtime state.
backdoorKey – A pointer to the user buffer containing the backdoor key.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_SetFlexramFunction(ftfx_config_t *config, ftfx_flexram_func_opt_t option)#

Sets the FlexRAM function command.

Parameters:

config – A pointer to the storage for the driver runtime state.
option – The option used to set the work mode of FlexRAM.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FTFx_CMD_SwapControl(ftfx_config_t *config, uint32_t address, ftfx_swap_control_opt_t option, ftfx_swap_state_config_t *returnInfo)#

Configures the Swap function or checks the swap state of the Flash module.

Parameters:

config – A pointer to the storage for the driver runtime state.
address – Address used to configure the flash Swap function.
option – The possible option used to configure Flash Swap function or check the flash Swap status
returnInfo – A pointer to the data which is used to return the information of flash Swap.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_SwapIndicatorAddressError – Swap indicator address is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

enum _ftfx_partition_flexram_load_option#

Enumeration for the FlexRAM load during reset option.

Values:

enumerator kFTFx_PartitionFlexramLoadOptLoadedWithValidEepromData#: FlexRAM is loaded with valid EEPROM data during reset sequence.

enumerator kFTFx_PartitionFlexramLoadOptNotLoaded#: FlexRAM is not loaded during reset sequence.

enum _ftfx_read_resource_opt#

Enumeration for the two possible options of flash read resource command.

Values:

enumerator kFTFx_ResourceOptionFlashIfr#: Select code for Program flash 0 IFR, Program flash swap 0 IFR, Data flash 0 IFR

enumerator kFTFx_ResourceOptionVersionId#: Select code for the version ID

enum _ftfx_margin_value#

Enumeration for supported FTFx margin levels.

Values:

enumerator kFTFx_MarginValueNormal#: Use the ‘normal’ read level for 1s.

enumerator kFTFx_MarginValueUser#: Apply the ‘User’ margin to the normal read-1 level.

enumerator kFTFx_MarginValueFactory#: Apply the ‘Factory’ margin to the normal read-1 level.

enumerator kFTFx_MarginValueInvalid#: Not real margin level, Used to determine the range of valid margin level.

enum _ftfx_security_state#

Enumeration for the three possible FTFx security states.

Values:

enumerator kFTFx_SecurityStateNotSecure#: Flash is not secure.

enumerator kFTFx_SecurityStateBackdoorEnabled#: Flash backdoor is enabled.

enumerator kFTFx_SecurityStateBackdoorDisabled#: Flash backdoor is disabled.

enum _ftfx_flexram_function_option#

Enumeration for the two possilbe options of set FlexRAM function command.

Values:

enumerator kFTFx_FlexramFuncOptAvailableAsRam#: An option used to make FlexRAM available as RAM

enumerator kFTFx_FlexramFuncOptEepromQuickWriteRecovery#: An option used to complete interrupted EEPROM quick write process

enumerator kFTFx_FlexramFuncOptEepromQuickWriteStatus#: An option used to make EEPROM quick write status query

enumerator kFTFx_FlexramFuncOptAvailableForEepromQuickWrite#: An option used to make FlexRAM available for EEPROM in Quick Write mode

enumerator kFTFx_FlexramFuncOptAvailableForEeprom#: An option used to make FlexRAM available for EEPROM

enum _flash_acceleration_ram_property#

Enumeration for acceleration ram property.

Values:

enumerator kFLASH_AccelerationRamSize#

enum _ftfx_swap_control_option#

Enumeration for the possible options of Swap control commands.

Values:

enumerator kFTFx_SwapControlOptionIntializeSystem#: An option used to initialize the Swap system

enumerator kFTFx_SwapControlOptionSetInUpdateState#: An option used to set the Swap in an update state

enumerator kFTFx_SwapControlOptionSetInCompleteState#: An option used to set the Swap in a complete state

enumerator kFTFx_SwapControlOptionReportStatus#: An option used to report the Swap status

enumerator kFTFx_SwapControlOptionDisableSystem#: An option used to disable the Swap status

enum _ftfx_swap_state#

Enumeration for the possible flash Swap status.

Values:

enumerator kFTFx_SwapStateUninitialized#: Flash Swap system is in an uninitialized state.

enumerator kFTFx_SwapStateReady#: Flash Swap system is in a ready state.

enumerator kFTFx_SwapStateUpdate#: Flash Swap system is in an update state.

enumerator kFTFx_SwapStateUpdateErased#: Flash Swap system is in an updateErased state.

enumerator kFTFx_SwapStateComplete#: Flash Swap system is in a complete state.

enumerator kFTFx_SwapStateDisabled#: Flash Swap system is in a disabled state.

enum _ftfx_swap_block_status#

Enumeration for the possible flash Swap block status.

Values:

enumerator kFTFx_SwapBlockStatusLowerHalfProgramBlocksAtZero#: Swap block status is that lower half program block at zero.

enumerator kFTFx_SwapBlockStatusUpperHalfProgramBlocksAtZero#: Swap block status is that upper half program block at zero.

enum _ftfx_memory_type#

Enumeration for FTFx memory type.

Values:

enumerator kFTFx_MemTypePflash#

enumerator kFTFx_MemTypeFlexnvm#

typedef enum _ftfx_partition_flexram_load_option ftfx_partition_flexram_load_opt_t#: Enumeration for the FlexRAM load during reset option.

typedef enum _ftfx_read_resource_opt ftfx_read_resource_opt_t#: Enumeration for the two possible options of flash read resource command.

typedef enum _ftfx_margin_value ftfx_margin_value_t#: Enumeration for supported FTFx margin levels.

typedef enum _ftfx_security_state ftfx_security_state_t#: Enumeration for the three possible FTFx security states.

typedef enum _ftfx_flexram_function_option ftfx_flexram_func_opt_t#: Enumeration for the two possilbe options of set FlexRAM function command.

typedef enum _ftfx_swap_control_option ftfx_swap_control_opt_t#: Enumeration for the possible options of Swap control commands.

typedef enum _ftfx_swap_state ftfx_swap_state_t#: Enumeration for the possible flash Swap status.

typedef enum _ftfx_swap_block_status ftfx_swap_block_status_t#: Enumeration for the possible flash Swap block status.

typedef struct _ftfx_swap_state_config ftfx_swap_state_config_t#: Flash Swap information.

typedef struct _ftfx_special_mem ftfx_spec_mem_t#: ftfx special memory access information.

typedef struct _ftfx_mem_descriptor ftfx_mem_desc_t#: Flash memory descriptor.

typedef struct _ftfx_ops_config ftfx_ops_config_t#: Active FTFx information for the current operation.

typedef struct _ftfx_ifr_descriptor ftfx_ifr_desc_t#: Flash IFR memory descriptor.

typedef struct _ftfx_config ftfx_config_t#

Flash driver state information.

An instance of this structure is allocated by the user of the flash driver and passed into each of the driver APIs.

struct _ftfx_swap_state_config#

#include <fsl_ftfx_controller.h>

Flash Swap information.

Public Members

ftfx_swap_state_t flashSwapState#: The current Swap system status.

ftfx_swap_block_status_t currentSwapBlockStatus#: The current Swap block status.

ftfx_swap_block_status_t nextSwapBlockStatus#: The next Swap block status.

struct _ftfx_special_mem#

#include <fsl_ftfx_controller.h>

ftfx special memory access information.

Public Members

uint32_t base#: Base address of flash special memory.

uint32_t size#: size of flash special memory.

uint32_t count#: flash special memory count.

struct _ftfx_mem_descriptor#

#include <fsl_ftfx_controller.h>

Flash memory descriptor.

Public Members

uint32_t blockBase#: A base address of the flash block

uint32_t aliasBlockBase#: A base address of the alias flash block

uint32_t totalSize#: The size of the flash block.

uint32_t sectorSize#: The size in bytes of a sector of flash.

uint32_t blockCount#: A number of flash blocks.

struct _ftfx_ops_config#

#include <fsl_ftfx_controller.h>

Active FTFx information for the current operation.

Public Members

uint32_t convertedAddress#: A converted address for the current flash type.

struct _ftfx_ifr_descriptor#: #include <fsl_ftfx_controller.h>

Flash IFR memory descriptor.

union function_ptr_t#

Public Members

uint32_t commadAddr#

void (*callFlashCommand)(volatile uint8_t *FTMRx_fstat)#

struct _ftfx_config#

#include <fsl_ftfx_controller.h>

Flash driver state information.

An instance of this structure is allocated by the user of the flash driver and passed into each of the driver APIs.

Public Members

uint32_t flexramBlockBase#: The base address of the FlexRAM/acceleration RAM

uint32_t flexramTotalSize#: The size of the FlexRAM/acceleration RAM

uint16_t eepromTotalSize#: The size of EEPROM area which was partitioned from FlexRAM

function_ptr_t runCmdFuncAddr#: An buffer point to the flash execute-in-RAM function.

struct __unnamed3__#

Public Members

uint8_t type#: Type of flash block.

uint8_t index#: Index of flash block.

struct feature#

struct addrAligment#

struct feature#

struct resRange#

Public Members

uint8_t versionIdStart#: Version ID start address

uint32_t pflashIfrStart#: Program Flash 0 IFR start address

uint32_t dflashIfrStart#: Data Flash 0 IFR start address

uint32_t pflashSwapIfrStart#: Program Flash Swap IFR start address

struct idxInfo#

ftfx feature#

FTFx_DRIVER_IS_FLASH_RESIDENT#

Flash driver location.

Used for the flash resident application.

FTFx_DRIVER_IS_EXPORTED#

Flash Driver Export option.

Used for the MCUXpresso SDK application.

FTFx_FLASH1_HAS_PROT_CONTROL#: Indicates whether the secondary flash has its own protection register in flash module.

FTFx_FLASH1_HAS_XACC_CONTROL#: Indicates whether the secondary flash has its own Execute-Only access register in flash module.

FTFx_DRIVER_HAS_FLASH1_SUPPORT#: Indicates whether the secondary flash is supported in the Flash driver.

FTFx_FLASH_COUNT#

FTFx_FLASH1_IS_INDEPENDENT_BLOCK#

Ftftx FLASH Driver#

status_t FLASH_Init(flash_config_t *config)#

Initializes the global flash properties structure members.

This function checks and initializes the Flash module for the other Flash APIs.

Parameters:

config – Pointer to the storage for the driver runtime state.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FLASH_Erase(flash_config_t *config, uint32_t start, uint32_t lengthInBytes, uint32_t key)#

Erases the Dflash sectors encompassed by parameters passed into function.

This function erases the appropriate number of flash sectors based on the desired start address and length.

Parameters:

config – The pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be erased. The start address does not need to be sector-aligned but must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words) to be erased. Must be word-aligned.
key – The value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully; the appropriate number of flash sectors based on the desired start address and length were erased successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – The parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – The address is out of range.
kStatus_FTFx_EraseKeyError – The API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_EraseSectorNonBlocking(flash_config_t *config, uint32_t start, uint32_t key)#

Erases the Dflash sectors encompassed by parameters passed into function.

This function erases one flash sector size based on the start address, and it is executed asynchronously.

NOTE: This function can only erase one flash sector at a time, and the other commands can be executed after the previous command has been completed.

Parameters:

config – The pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be erased. The start address does not need to be sector-aligned but must be word-aligned.
key – The value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – The parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – The address is out of range.
kStatus_FTFx_EraseKeyError – The API erase key is invalid.

status_t FLASH_EraseAll(flash_config_t *config, uint32_t key)#

Erases entire flexnvm.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully; the all pflash and flexnvm were erased successfully, the swap and eeprom have been reset to unconfigured state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FLASH_EraseAllUnsecure(flash_config_t *config, uint32_t key)#

Erases the entire flexnvm, including protected sectors.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully; the protected sectors of flash were reset to unprotected status.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FLASH_Program(flash_config_t *config, uint32_t start, uint8_t *src, uint32_t lengthInBytes)#

Programs flash with data at locations passed in through parameters.

This function programs the flash memory with the desired data for a given flash area as determined by the start address and the length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desired data were programed successfully into flash based on desired start address and length.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_ProgramOnce(flash_config_t *config, uint32_t index, uint8_t *src, uint32_t lengthInBytes)#

Program the Program-Once-Field through parameters.

This function Program the Program-once-feild with given index and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
index – The index indicating the area of program once field to be read.
src – A pointer to the source buffer of data that is used to store data to be write.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; The index indicating the area of program once field was programed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_ProgramSection(flash_config_t *config, uint32_t start, uint8_t *src, uint32_t lengthInBytes)#

Programs flash with data at locations passed in through parameters via the Program Section command.

This function programs the flash memory with the desired data for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desired data have been programed successfully into flash based on start address and length.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_SetFlexramAsRamError – Failed to set flexram as RAM.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_RecoverFlexramAsEepromError – Failed to recover FlexRAM as EEPROM.

status_t FLASH_ReadResource(flash_config_t *config, uint32_t start, uint8_t *dst, uint32_t lengthInBytes, ftfx_read_resource_opt_t option)#

Reads the resource with data at locations passed in through parameters.

This function reads the flash memory with the desired location for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
dst – A pointer to the destination buffer of data that is used to store data to be read.
lengthInBytes – The length, given in bytes (not words or long-words), to be read. Must be word-aligned.
option – The resource option which indicates which area should be read back.

Return values:

kStatus_FTFx_Success – API was executed successfully; the data have been read successfully from program flash IFR, data flash IFR space, and the Version ID field.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with the specified baseline.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_ReadOnce(flash_config_t *config, uint32_t index, uint8_t *dst, uint32_t lengthInBytes)#

Reads the Program Once Field through parameters.

This function reads the read once feild with given index and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
index – The index indicating the area of program once field to be read.
dst – A pointer to the destination buffer of data that is used to store data to be read.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; the data have been successfuly read form Program flash0 IFR map and Program Once field based on index and length.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_VerifyErase(flash_config_t *config, uint32_t start, uint32_t lengthInBytes, ftfx_margin_value_t margin)#

Verifies an erasure of the desired flash area at a specified margin level.

This function checks the appropriate number of flash sectors based on the desired start address and length to check whether the flash is erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be verified. The start address does not need to be sector-aligned but must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be verified. Must be word-aligned.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully; the specified FLASH region has been erased.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_VerifyEraseAll(flash_config_t *config, ftfx_margin_value_t margin)#

Verifies erasure of the entire flash at a specified margin level.

This function checks whether the flash is erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully; all program flash and flexnvm were in erased state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_VerifyProgram(flash_config_t *config, uint32_t start, uint32_t lengthInBytes, const uint8_t *expectedData, ftfx_margin_value_t margin, uint32_t *failedAddress, uint32_t *failedData)#

Verifies programming of the desired flash area at a specified margin level.

This function verifies the data programmed in the flash memory using the Flash Program Check Command and compares it to the expected data for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be verified. Must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be verified. Must be word-aligned.
expectedData – A pointer to the expected data that is to be verified against.
margin – Read margin choice.
failedAddress – A pointer to the returned failing address.
failedData – A pointer to the returned failing data. Some derivatives do not include failed data as part of the FCCOBx registers. In this case, zeros are returned upon failure.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desired data have been successfully programed into specified FLASH region.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_GetSecurityState(flash_config_t *config, ftfx_security_state_t *state)#

Returns the security state via the pointer passed into the function.

This function retrieves the current flash security status, including the security enabling state and the backdoor key enabling state.

Parameters:

config – A pointer to storage for the driver runtime state.
state – A pointer to the value returned for the current security status code:

Return values:

kStatus_FTFx_Success – API was executed successfully; the security state of flash was stored to state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.

status_t FLASH_SecurityBypass(flash_config_t *config, const uint8_t *backdoorKey)#

Allows users to bypass security with a backdoor key.

If the MCU is in secured state, this function unsecures the MCU by comparing the provided backdoor key with ones in the flash configuration field.

Parameters:

config – A pointer to the storage for the driver runtime state.
backdoorKey – A pointer to the user buffer containing the backdoor key.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_SetFlexramFunction(flash_config_t *config, ftfx_flexram_func_opt_t option)#

Sets the FlexRAM function command.

Parameters:

config – A pointer to the storage for the driver runtime state.
option – The option used to set the work mode of FlexRAM.

Return values:

kStatus_FTFx_Success – API was executed successfully; the FlexRAM has been successfully configured as RAM or EEPROM.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLASH_Swap(flash_config_t *config, uint32_t address, bool isSetEnable)#

Swaps the lower half flash with the higher half flash.

Parameters:

config – A pointer to the storage for the driver runtime state.
address – Address used to configure the flash swap function
isSetEnable – The possible option used to configure the Flash Swap function or check the flash Swap status.

Return values:

kStatus_FTFx_Success – API was executed successfully; the lower half flash and higher half flash have been swaped.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_SwapIndicatorAddressError – Swap indicator address is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_SwapSystemNotInUninitialized – Swap system is not in an uninitialized state.

status_t FLASH_IsProtected(flash_config_t *config, uint32_t start, uint32_t lengthInBytes, flash_prot_state_t *protection_state)#

Returns the protection state of the desired flash area via the pointer passed into the function.

This function retrieves the current flash protect status for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be checked. Must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words) to be checked. Must be word-aligned.
protection_state – A pointer to the value returned for the current protection status code for the desired flash area.

Return values:

kStatus_FTFx_Success – API was executed successfully; the protection state of specified FLASH region was stored to protection_state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – The address is out of range.

status_t FLASH_IsExecuteOnly(flash_config_t *config, uint32_t start, uint32_t lengthInBytes, flash_xacc_state_t *access_state)#

Returns the access state of the desired flash area via the pointer passed into the function.

This function retrieves the current flash access status for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be checked. Must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be checked. Must be word-aligned.
access_state – A pointer to the value returned for the current access status code for the desired flash area.

Return values:

kStatus_FTFx_Success – API was executed successfully; the executeOnly state of specified FLASH region was stored to access_state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – The parameter is not aligned to the specified baseline.
kStatus_FTFx_AddressError – The address is out of range.

status_t FLASH_PflashSetProtection(flash_config_t *config, pflash_prot_status_t *protectStatus)#

Sets the PFlash Protection to the intended protection status.

Parameters:

config – A pointer to storage for the driver runtime state.
protectStatus – The expected protect status to set to the PFlash protection register. Each bit is corresponding to protection of 1/32(64) of the total PFlash. The least significant bit is corresponding to the lowest address area of PFlash. The most significant bit is corresponding to the highest address area of PFlash. There are two possible cases as shown below: 0: this area is protected. 1: this area is unprotected.

Return values:

kStatus_FTFx_Success – API was executed successfully; the specified FLASH region is protected.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_CommandFailure – Run-time error during command execution.

status_t FLASH_PflashGetProtection(flash_config_t *config, pflash_prot_status_t *protectStatus)#

Gets the PFlash protection status.

Parameters:

config – A pointer to the storage for the driver runtime state.
protectStatus – Protect status returned by the PFlash IP. Each bit is corresponding to the protection of 1/32(64) of the total PFlash. The least significant bit corresponds to the lowest address area of the PFlash. The most significant bit corresponds to the highest address area of PFlash. There are two possible cases as shown below: 0: this area is protected. 1: this area is unprotected.

Return values:

kStatus_FTFx_Success – API was executed successfully; the Protection state was stored to protectStatus;
kStatus_FTFx_InvalidArgument – An invalid argument is provided.

status_t FLASH_GetProperty(flash_config_t *config, flash_property_tag_t whichProperty, uint32_t *value)#

Returns the desired flash property.

Parameters:

config – A pointer to the storage for the driver runtime state.
whichProperty – The desired property from the list of properties in enum flash_property_tag_t
value – A pointer to the value returned for the desired flash property.

Return values:

kStatus_FTFx_Success – API was executed successfully; the flash property was stored to value.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_UnknownProperty – An unknown property tag.

status_t FLASH_GetCommandState(void)#

Get previous command status.

This function is used to obtain the execution status of the previous command.

Return values:

kStatus_FTFx_Success – The previous command is executed successfully.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

FSL_FLASH_DRIVER_VERSION#

Flash driver version for SDK.

Version 3.3.0.

FSL_FLASH_DRIVER_VERSION_ROM#

Flash driver version for ROM.

Version 3.0.0.

enum _flash_protection_state#

Enumeration for the three possible flash protection levels.

Values:

enumerator kFLASH_ProtectionStateUnprotected#: Flash region is not protected.

enumerator kFLASH_ProtectionStateProtected#: Flash region is protected.

enumerator kFLASH_ProtectionStateMixed#: Flash is mixed with protected and unprotected region.

enum _flash_execute_only_access_state#

Enumeration for the three possible flash execute access levels.

Values:

enumerator kFLASH_AccessStateUnLimited#: Flash region is unlimited.

enumerator kFLASH_AccessStateExecuteOnly#: Flash region is execute only.

enumerator kFLASH_AccessStateMixed#: Flash is mixed with unlimited and execute only region.

enum _flash_property_tag#

Enumeration for various flash properties.

Values:

enumerator kFLASH_PropertyPflash0SectorSize#: Pflash sector size property.

enumerator kFLASH_PropertyPflash0TotalSize#: Pflash total size property.

enumerator kFLASH_PropertyPflash0BlockSize#: Pflash block size property.

enumerator kFLASH_PropertyPflash0BlockCount#: Pflash block count property.

enumerator kFLASH_PropertyPflash0BlockBaseAddr#: Pflash block base address property.

enumerator kFLASH_PropertyPflash0FacSupport#: Pflash fac support property.

enumerator kFLASH_PropertyPflash0AccessSegmentSize#: Pflash access segment size property.

enumerator kFLASH_PropertyPflash0AccessSegmentCount#: Pflash access segment count property.

enumerator kFLASH_PropertyPflash1SectorSize#: Pflash sector size property.

enumerator kFLASH_PropertyPflash1TotalSize#: Pflash total size property.

enumerator kFLASH_PropertyPflash1BlockSize#: Pflash block size property.

enumerator kFLASH_PropertyPflash1BlockCount#: Pflash block count property.

enumerator kFLASH_PropertyPflash1BlockBaseAddr#: Pflash block base address property.

enumerator kFLASH_PropertyPflash1FacSupport#: Pflash fac support property.

enumerator kFLASH_PropertyPflash1AccessSegmentSize#: Pflash access segment size property.

enumerator kFLASH_PropertyPflash1AccessSegmentCount#: Pflash access segment count property.

enumerator kFLASH_PropertyFlexRamBlockBaseAddr#: FlexRam block base address property.

enumerator kFLASH_PropertyFlexRamTotalSize#: FlexRam total size property.

typedef enum _flash_protection_state flash_prot_state_t#: Enumeration for the three possible flash protection levels.

typedef union _pflash_protection_status pflash_prot_status_t#: PFlash protection status.

typedef enum _flash_execute_only_access_state flash_xacc_state_t#: Enumeration for the three possible flash execute access levels.

typedef enum _flash_property_tag flash_property_tag_t#: Enumeration for various flash properties.

typedef struct _flash_config flash_config_t#

Flash driver state information.

An instance of this structure is allocated by the user of the flash driver and passed into each of the driver APIs.

kStatus_FLASH_Success#

kFLASH_ApiEraseKey#

union _pflash_protection_status#

#include <fsl_ftfx_flash.h>

PFlash protection status.

Public Members

uint32_t protl#: PROT[31:0] .

uint32_t proth#: PROT[63:32].

uint8_t protsl#: PROTS[7:0] .

uint8_t protsh#: PROTS[15:8] .

uint8_t reserved[2]#

struct _flash_config#

#include <fsl_ftfx_flash.h>

Flash driver state information.

An instance of this structure is allocated by the user of the flash driver and passed into each of the driver APIs.

Ftftx FLEXNVM Driver#

status_t FLEXNVM_Init(flexnvm_config_t *config)#

Initializes the global flash properties structure members.

This function checks and initializes the Flash module for the other Flash APIs.

Parameters:

config – Pointer to the storage for the driver runtime state.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FLEXNVM_DflashErase(flexnvm_config_t *config, uint32_t start, uint32_t lengthInBytes, uint32_t key)#

Erases the Dflash sectors encompassed by parameters passed into function.

This function erases the appropriate number of flash sectors based on the desired start address and length.

Parameters:

config – The pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be erased. The start address does not need to be sector-aligned but must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words) to be erased. Must be word-aligned.
key – The value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully; the appropriate number of date flash sectors based on the desired start address and length were erased successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – The parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – The address is out of range.
kStatus_FTFx_EraseKeyError – The API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_EraseAll(flexnvm_config_t *config, uint32_t key)#

Erases entire flexnvm.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully; the entire flexnvm has been erased successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FLEXNVM_EraseAllUnsecure(flexnvm_config_t *config, uint32_t key)#

Erases the entire flexnvm, including protected sectors.

Parameters:

config – Pointer to the storage for the driver runtime state.
key – A value used to validate all flash erase APIs.

Return values:

kStatus_FTFx_Success – API was executed successfully; the flexnvm is not in securityi state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_EraseKeyError – API erase key is invalid.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_PartitionStatusUpdateFailure – Failed to update the partition status.

status_t FLEXNVM_DflashProgram(flexnvm_config_t *config, uint32_t start, uint8_t *src, uint32_t lengthInBytes)#

Programs flash with data at locations passed in through parameters.

This function programs the flash memory with the desired data for a given flash area as determined by the start address and the length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desired date have been successfully programed into specified date flash region.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with the specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_DflashProgramSection(flexnvm_config_t *config, uint32_t start, uint8_t *src, uint32_t lengthInBytes)#

Programs flash with data at locations passed in through parameters via the Program Section command.

This function programs the flash memory with the desired data for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desired date have been successfully programed into specified date flash area.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_SetFlexramAsRamError – Failed to set flexram as RAM.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.
kStatus_FTFx_RecoverFlexramAsEepromError – Failed to recover FlexRAM as EEPROM.

status_t FLEXNVM_ProgramPartition(flexnvm_config_t *config, ftfx_partition_flexram_load_opt_t option, uint32_t eepromDataSizeCode, uint32_t flexnvmPartitionCode)#

Prepares the FlexNVM block for use as data flash, EEPROM backup, or a combination of both and initializes the FlexRAM.

Parameters:

config – Pointer to storage for the driver runtime state.
option – The option used to set FlexRAM load behavior during reset.
eepromDataSizeCode – Determines the amount of FlexRAM used in each of the available EEPROM subsystems.
flexnvmPartitionCode – Specifies how to split the FlexNVM block between data flash memory and EEPROM backup memory supporting EEPROM functions.

Return values:

kStatus_FTFx_Success – API was executed successfully; the FlexNVM block for use as data flash, EEPROM backup, or a combination of both have been Prepared.
kStatus_FTFx_InvalidArgument – Invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.

status_t FLEXNVM_ProgramPartition_CSE(flexnvm_config_t *config, ftfx_partition_flexram_load_opt_t option, uint32_t eepromDataSizeCode, uint32_t flexnvmPartitionCode, uint8_t CSEcKeySize, uint8_t SFE)#

Prepares the FlexNVM block for use as data flash, EEPROM backup, or a combination of both and initializes the FlexRAM. This is the CSE enabled version for IP’s like FTFC.

Parameters:

config – Pointer to storage for the driver runtime state.
option – The option used to set FlexRAM load behavior during reset.
eepromDataSizeCode – Determines the amount of FlexRAM used in each of the available EEPROM subsystems.
flexnvmPartitionCode – Specifies how to split the FlexNVM block between data flash memory and EEPROM backup memory supporting EEPROM functions.
CSEcKeySize – CSEc/SHE key size, see RM for details and possible values
SFE – Security Flag Extension (SFE), see RM for details and possible values

Return values:

kStatus_FTFx_Success – API was executed successfully; the FlexNVM block for use as data flash, EEPROM backup, or a combination of both have been Prepared.
kStatus_FTFx_InvalidArgument – Invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during command execution.

status_t FLEXNVM_ReadResource(flexnvm_config_t *config, uint32_t start, uint8_t *dst, uint32_t lengthInBytes, ftfx_read_resource_opt_t option)#

Reads the resource with data at locations passed in through parameters.

This function reads the flash memory with the desired location for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
dst – A pointer to the destination buffer of data that is used to store data to be read.
lengthInBytes – The length, given in bytes (not words or long-words), to be read. Must be word-aligned.
option – The resource option which indicates which area should be read back.

Return values:

kStatus_FTFx_Success – API was executed successfully; the data have been read successfully from program flash IFR, data flash IFR space, and the Version ID field
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with the specified baseline.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_DflashVerifyErase(flexnvm_config_t *config, uint32_t start, uint32_t lengthInBytes, ftfx_margin_value_t margin)#

Verifies an erasure of the desired flash area at a specified margin level.

This function checks the appropriate number of flash sectors based on the desired start address and length to check whether the flash is erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be verified. The start address does not need to be sector-aligned but must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be verified. Must be word-aligned.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully; the specified data flash region is in erased state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_VerifyEraseAll(flexnvm_config_t *config, ftfx_margin_value_t margin)#

Verifies erasure of the entire flash at a specified margin level.

This function checks whether the flash is erased to the specified read margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
margin – Read margin choice.

Return values:

kStatus_FTFx_Success – API was executed successfully; the entire flexnvm region is in erased state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_DflashVerifyProgram(flexnvm_config_t *config, uint32_t start, uint32_t lengthInBytes, const uint8_t *expectedData, ftfx_margin_value_t margin, uint32_t *failedAddress, uint32_t *failedData)#

Verifies programming of the desired flash area at a specified margin level.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be verified. Must be word-aligned.
lengthInBytes – The length, given in bytes (not words or long-words), to be verified. Must be word-aligned.
expectedData – A pointer to the expected data that is to be verified against.
margin – Read margin choice.
failedAddress – A pointer to the returned failing address.
failedData – A pointer to the returned failing data. Some derivatives do not include failed data as part of the FCCOBx registers. In this case, zeros are returned upon failure.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desired data hve been programed successfully into specified data flash region.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AlignmentError – Parameter is not aligned with specified baseline.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_GetSecurityState(flexnvm_config_t *config, ftfx_security_state_t *state)#

Returns the security state via the pointer passed into the function.

This function retrieves the current flash security status, including the security enabling state and the backdoor key enabling state.

Parameters:

config – A pointer to storage for the driver runtime state.
state – A pointer to the value returned for the current security status code:

Return values:

kStatus_FTFx_Success – API was executed successfully; the security state of flexnvm was stored to state.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.

status_t FLEXNVM_SecurityBypass(flexnvm_config_t *config, const uint8_t *backdoorKey)#

Allows users to bypass security with a backdoor key.

If the MCU is in secured state, this function unsecures the MCU by comparing the provided backdoor key with ones in the flash configuration field.

Parameters:

config – A pointer to the storage for the driver runtime state.
backdoorKey – A pointer to the user buffer containing the backdoor key.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_SetFlexramFunction(flexnvm_config_t *config, ftfx_flexram_func_opt_t option)#

Sets the FlexRAM function command.

Parameters:

config – A pointer to the storage for the driver runtime state.
option – The option used to set the work mode of FlexRAM.

Return values:

kStatus_FTFx_Success – API was executed successfully; the FlexRAM has been successfully configured as RAM or EEPROM
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_ExecuteInRamFunctionNotReady – Execute-in-RAM function is not available.
kStatus_FTFx_AccessError – Invalid instruction codes and out-of bounds addresses.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_CommandFailure – Run-time error during the command execution.

status_t FLEXNVM_DflashSetProtection(flexnvm_config_t *config, uint8_t protectStatus)#

Sets the DFlash protection to the intended protection status.

Parameters:

config – A pointer to the storage for the driver runtime state.
protectStatus – The expected protect status to set to the DFlash protection register. Each bit corresponds to the protection of the 1/8 of the total DFlash. The least significant bit corresponds to the lowest address area of the DFlash. The most significant bit corresponds to the highest address area of the DFlash. There are two possible cases as shown below: 0: this area is protected. 1: this area is unprotected.

Return values:

kStatus_FTFx_Success – API was executed successfully; the specified DFlash region is protected.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_CommandNotSupported – Flash API is not supported.
kStatus_FTFx_CommandFailure – Run-time error during command execution.

status_t FLEXNVM_DflashGetProtection(flexnvm_config_t *config, uint8_t *protectStatus)#

Gets the DFlash protection status.

Parameters:

config – A pointer to the storage for the driver runtime state.
protectStatus – DFlash Protect status returned by the PFlash IP. Each bit corresponds to the protection of the 1/8 of the total DFlash. The least significant bit corresponds to the lowest address area of the DFlash. The most significant bit corresponds to the highest address area of the DFlash, and so on. There are two possible cases as below: 0: this area is protected. 1: this area is unprotected.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_CommandNotSupported – Flash API is not supported.

status_t FLEXNVM_EepromSetProtection(flexnvm_config_t *config, uint8_t protectStatus)#

Sets the EEPROM protection to the intended protection status.

Parameters:

config – A pointer to the storage for the driver runtime state.
protectStatus – The expected protect status to set to the EEPROM protection register. Each bit corresponds to the protection of the 1/8 of the total EEPROM. The least significant bit corresponds to the lowest address area of the EEPROM. The most significant bit corresponds to the highest address area of EEPROM, and so on. There are two possible cases as shown below: 0: this area is protected. 1: this area is unprotected.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_CommandNotSupported – Flash API is not supported.
kStatus_FTFx_CommandFailure – Run-time error during command execution.

status_t FLEXNVM_EepromGetProtection(flexnvm_config_t *config, uint8_t *protectStatus)#

Gets the EEPROM protection status.

Parameters:

config – A pointer to the storage for the driver runtime state.
protectStatus – DFlash Protect status returned by the PFlash IP. Each bit corresponds to the protection of the 1/8 of the total EEPROM. The least significant bit corresponds to the lowest address area of the EEPROM. The most significant bit corresponds to the highest address area of the EEPROM. There are two possible cases as below: 0: this area is protected. 1: this area is unprotected.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_CommandNotSupported – Flash API is not supported.

status_t FLEXNVM_GetProperty(flexnvm_config_t *config, flexnvm_property_tag_t whichProperty, uint32_t *value)#

Returns the desired flexnvm property.

Parameters:

config – A pointer to the storage for the driver runtime state.
whichProperty – The desired property from the list of properties in enum flexnvm_property_tag_t
value – A pointer to the value returned for the desired flexnvm property.

Return values:

kStatus_FTFx_Success – API was executed successfully.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_UnknownProperty – An unknown property tag.

enum _flexnvm_property_tag#

Enumeration for various flexnvm properties.

Values:

enumerator kFLEXNVM_PropertyDflashSectorSize#: Dflash sector size property.

enumerator kFLEXNVM_PropertyDflashTotalSize#: Dflash total size property.

enumerator kFLEXNVM_PropertyDflashBlockSize#: Dflash block size property.

enumerator kFLEXNVM_PropertyDflashBlockCount#: Dflash block count property.

enumerator kFLEXNVM_PropertyDflashBlockBaseAddr#: Dflash block base address property.

enumerator kFLEXNVM_PropertyAliasDflashBlockBaseAddr#: Dflash block base address Alias property.

enumerator kFLEXNVM_PropertyFlexRamBlockBaseAddr#: FlexRam block base address property.

enumerator kFLEXNVM_PropertyFlexRamTotalSize#: FlexRam total size property.

enumerator kFLEXNVM_PropertyEepromTotalSize#: EEPROM total size property.

typedef enum _flexnvm_property_tag flexnvm_property_tag_t#: Enumeration for various flexnvm properties.

typedef struct _flexnvm_config flexnvm_config_t#

Flexnvm driver state information.

An instance of this structure is allocated by the user of the Flexnvm driver and passed into each of the driver APIs.

status_t FLEXNVM_EepromWrite(flexnvm_config_t *config, uint32_t start, uint8_t *src, uint32_t lengthInBytes)#

Programs the EEPROM with data at locations passed in through parameters.

This function programs the emulated EEPROM with the desired data for a given flash area as determined by the start address and length.

Parameters:

config – A pointer to the storage for the driver runtime state.
start – The start address of the desired flash memory to be programmed. Must be word-aligned.
src – A pointer to the source buffer of data that is to be programmed into the flash.
lengthInBytes – The length, given in bytes (not words or long-words), to be programmed. Must be word-aligned.

Return values:

kStatus_FTFx_Success – API was executed successfully; the desires data have been successfully programed into specified eeprom region.
kStatus_FTFx_InvalidArgument – An invalid argument is provided.
kStatus_FTFx_AddressError – Address is out of range.
kStatus_FTFx_SetFlexramAsEepromError – Failed to set flexram as eeprom.
kStatus_FTFx_ProtectionViolation – The program/erase operation is requested to execute on protected areas.
kStatus_FTFx_RecoverFlexramAsRamError – Failed to recover the FlexRAM as RAM.

struct _flexnvm_config#

#include <fsl_ftfx_flexnvm.h>

Flexnvm driver state information.

An instance of this structure is allocated by the user of the Flexnvm driver and passed into each of the driver APIs.

ftfx utilities#

ALIGN_DOWN(x, a)#: Alignment(down) utility.

ALIGN_UP(x, a)#: Alignment(up) utility.

MAKE_VERSION(major, minor, bugfix)#: Constructs the version number for drivers.

MAKE_STATUS(group, code)#: Constructs a status code value from a group and a code number.

FOUR_CHAR_CODE(a, b, c, d)#: Constructs the four character code for the Flash driver API key.

B1P4(b)#: bytes2word utility.

B1P3(b)#

B1P2(b)#

B1P1(b)#

B2P3(b)#

B2P2(b)#

B2P1(b)#

B3P2(b)#

B3P1(b)#

BYTE2WORD_1_3(x, y)#

BYTE2WORD_2_2(x, y)#

BYTE2WORD_3_1(x, y)#

BYTE2WORD_1_1_2(x, y, z)#

BYTE2WORD_1_2_1(x, y, z)#

BYTE2WORD_2_1_1(x, y, z)#

BYTE2WORD_1_1_1_1(x, y, z, w)#

GPIO: General-Purpose Input/Output Driver#

FSL_GPIO_DRIVER_VERSION#: GPIO driver version.

enum _gpio_pin_direction#

GPIO direction definition.

Values:

enumerator kGPIO_DigitalInput#: Set current pin as digital input

enumerator kGPIO_DigitalOutput#: Set current pin as digital output

enum _gpio_checker_attribute#

GPIO checker attribute.

Values:

enumerator kGPIO_UsernonsecureRWUsersecureRWPrivilegedsecureRW#: User nonsecure:Read+Write; User Secure:Read+Write; Privileged Secure:Read+Write

enumerator kGPIO_UsernonsecureRUsersecureRWPrivilegedsecureRW#: User nonsecure:Read; User Secure:Read+Write; Privileged Secure:Read+Write

enumerator kGPIO_UsernonsecureNUsersecureRWPrivilegedsecureRW#: User nonsecure:None; User Secure:Read+Write; Privileged Secure:Read+Write

enumerator kGPIO_UsernonsecureRUsersecureRPrivilegedsecureRW#: User nonsecure:Read; User Secure:Read; Privileged Secure:Read+Write

enumerator kGPIO_UsernonsecureNUsersecureRPrivilegedsecureRW#: User nonsecure:None; User Secure:Read; Privileged Secure:Read+Write

enumerator kGPIO_UsernonsecureNUsersecureNPrivilegedsecureRW#: User nonsecure:None; User Secure:None; Privileged Secure:Read+Write

enumerator kGPIO_UsernonsecureNUsersecureNPrivilegedsecureR#: User nonsecure:None; User Secure:None; Privileged Secure:Read

enumerator kGPIO_UsernonsecureNUsersecureNPrivilegedsecureN#: User nonsecure:None; User Secure:None; Privileged Secure:None

enumerator kGPIO_IgnoreAttributeCheck#: Ignores the attribute check

typedef enum _gpio_pin_direction gpio_pin_direction_t#: GPIO direction definition.

typedef enum _gpio_checker_attribute gpio_checker_attribute_t#: GPIO checker attribute.

typedef struct _gpio_pin_config gpio_pin_config_t#

The GPIO pin configuration structure.

Each pin can only be configured as either an output pin or an input pin at a time. If configured as an input pin, leave the outputConfig unused. Note that in some use cases, the corresponding port property should be configured in advance with the PORT_SetPinConfig().

GPIO_FIT_REG(value)#

struct _gpio_pin_config#

#include <fsl_gpio.h>

The GPIO pin configuration structure.

Public Members

gpio_pin_direction_t pinDirection#: GPIO direction, input or output

uint8_t outputLogic#: Set a default output logic, which has no use in input

GPIO Driver#

void GPIO_PortInit(GPIO_Type *base)#

Initializes the GPIO peripheral.

This function ungates the GPIO clock.

Parameters:

base – GPIO peripheral base pointer.

void GPIO_PortDenit(GPIO_Type *base)#

Denitializes the GPIO peripheral.

Parameters:

base – GPIO peripheral base pointer.

void GPIO_PinInit(GPIO_Type *base, uint32_t pin, const gpio_pin_config_t *config)#

Initializes a GPIO pin used by the board.

To initialize the GPIO, define a pin configuration, as either input or output, in the user file. Then, call the GPIO_PinInit() function.

This is an example to define an input pin or an output pin configuration.

Define a digital input pin configuration,
gpio_pin_config_t config =
{
  kGPIO_DigitalInput,
  0,
}
Define a digital output pin configuration,
gpio_pin_config_t config =
{
  kGPIO_DigitalOutput,
  0,
}

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
pin – GPIO port pin number
config – GPIO pin configuration pointer

static inline void GPIO_PinWrite(GPIO_Type *base, uint32_t pin, uint8_t output)#

Sets the output level of the multiple GPIO pins to the logic 1 or 0.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
pin – GPIO pin number
output – GPIO pin output logic level.
- 0: corresponding pin output low-logic level.
- 1: corresponding pin output high-logic level.

static inline void GPIO_PortSet(GPIO_Type *base, uint32_t mask)#

Sets the output level of the multiple GPIO pins to the logic 1.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
mask – GPIO pin number macro

static inline void GPIO_PortClear(GPIO_Type *base, uint32_t mask)#

Sets the output level of the multiple GPIO pins to the logic 0.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
mask – GPIO pin number macro

static inline void GPIO_PortToggle(GPIO_Type *base, uint32_t mask)#

Reverses the current output logic of the multiple GPIO pins.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
mask – GPIO pin number macro

static inline uint32_t GPIO_PinRead(GPIO_Type *base, uint32_t pin)#

Reads the current input value of the GPIO port.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
pin – GPIO pin number

Return values:

GPIO – port input value

0: corresponding pin input low-logic level.
1: corresponding pin input high-logic level.

uint32_t GPIO_PortGetInterruptFlags(GPIO_Type *base)#

Reads the GPIO port interrupt status flag.

If a pin is configured to generate the DMA request, the corresponding flag is cleared automatically at the completion of the requested DMA transfer. Otherwise, the flag remains set until a logic one is written to that flag. If configured for a level sensitive interrupt that remains asserted, the flag is set again immediately.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)

Return values:

The – current GPIO port interrupt status flag, for example, 0x00010001 means the pin 0 and 17 have the interrupt.

void GPIO_PortClearInterruptFlags(GPIO_Type *base, uint32_t mask)#

Clears multiple GPIO pin interrupt status flags.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
mask – GPIO pin number macro

void GPIO_CheckAttributeBytes(GPIO_Type *base, gpio_checker_attribute_t attribute)#

brief The GPIO module supports a device-specific number of data ports, organized as 32-bit words/8-bit Bytes. Each 32-bit/8-bit data port includes a GACR register, which defines the byte-level attributes required for a successful access to the GPIO programming model. If the GPIO module’s GACR register organized as 32-bit words, the attribute controls for the 4 data bytes in the GACR follow a standard little endian data convention.

Parameters:

base – GPIO peripheral base pointer (GPIOA, GPIOB, GPIOC, and so on.)
attribute – GPIO checker attribute

I2C: Inter-Integrated Circuit Driver#

I2C Driver#

void I2C_MasterInit(I2C_Type *base, const i2c_master_config_t *masterConfig, uint32_t srcClock_Hz)#

Initializes the I2C peripheral. Call this API to ungate the I2C clock and configure the I2C with master configuration.

Note

This API should be called at the beginning of the application. Otherwise, any operation to the I2C module can cause a hard fault because the clock is not enabled. The configuration structure can be custom filled or it can be set with default values by using the I2C_MasterGetDefaultConfig(). After calling this API, the master is ready to transfer. This is an example.

i2c_master_config_t config = {
.enableMaster = true,
.enableStopHold = false,
.highDrive = false,
.baudRate_Bps = 100000,
.glitchFilterWidth = 0
};
I2C_MasterInit(I2C0, &config, 12000000U);

Parameters:

base – I2C base pointer
masterConfig – A pointer to the master configuration structure
srcClock_Hz – I2C peripheral clock frequency in Hz

void I2C_SlaveInit(I2C_Type *base, const i2c_slave_config_t *slaveConfig, uint32_t srcClock_Hz)#

Initializes the I2C peripheral. Call this API to ungate the I2C clock and initialize the I2C with the slave configuration.

Note

This API should be called at the beginning of the application. Otherwise, any operation to the I2C module can cause a hard fault because the clock is not enabled. The configuration structure can partly be set with default values by I2C_SlaveGetDefaultConfig() or it can be custom filled by the user. This is an example.

i2c_slave_config_t config = {
.enableSlave = true,
.enableGeneralCall = false,
.addressingMode = kI2C_Address7bit,
.slaveAddress = 0x1DU,
.enableWakeUp = false,
.enablehighDrive = false,
.enableBaudRateCtl = false,
.sclStopHoldTime_ns = 4000
};
I2C_SlaveInit(I2C0, &config, 12000000U);

Parameters:

base – I2C base pointer
slaveConfig – A pointer to the slave configuration structure
srcClock_Hz – I2C peripheral clock frequency in Hz

void I2C_MasterDeinit(I2C_Type *base)#

De-initializes the I2C master peripheral. Call this API to gate the I2C clock. The I2C master module can’t work unless the I2C_MasterInit is called.

Parameters:

base – I2C base pointer

void I2C_SlaveDeinit(I2C_Type *base)#

De-initializes the I2C slave peripheral. Calling this API gates the I2C clock. The I2C slave module can’t work unless the I2C_SlaveInit is called to enable the clock.

Parameters:

base – I2C base pointer

uint32_t I2C_GetInstance(I2C_Type *base)#

Get instance number for I2C module.

Parameters:

base – I2C peripheral base address.

void I2C_MasterGetDefaultConfig(i2c_master_config_t *masterConfig)#

Sets the I2C master configuration structure to default values.

The purpose of this API is to get the configuration structure initialized for use in the I2C_MasterConfigure(). Use the initialized structure unchanged in the I2C_MasterConfigure() or modify the structure before calling the I2C_MasterConfigure(). This is an example.

i2c_master_config_t config;
I2C_MasterGetDefaultConfig(&config);

Parameters:

masterConfig – A pointer to the master configuration structure.

void I2C_SlaveGetDefaultConfig(i2c_slave_config_t *slaveConfig)#

Sets the I2C slave configuration structure to default values.

The purpose of this API is to get the configuration structure initialized for use in the I2C_SlaveConfigure(). Modify fields of the structure before calling the I2C_SlaveConfigure(). This is an example.

i2c_slave_config_t config;
I2C_SlaveGetDefaultConfig(&config);

Parameters:

slaveConfig – A pointer to the slave configuration structure.

static inline void I2C_Enable(I2C_Type *base, bool enable)#

Enables or disables the I2C peripheral operation.

Parameters:

base – I2C base pointer
enable – Pass true to enable and false to disable the module.

uint32_t I2C_MasterGetStatusFlags(I2C_Type *base)#

Gets the I2C status flags.

Parameters:

base – I2C base pointer

Returns:

status flag, use status flag to AND _i2c_flags to get the related status.

static inline uint32_t I2C_SlaveGetStatusFlags(I2C_Type *base)#

Gets the I2C status flags.

Parameters:

base – I2C base pointer

Returns:

status flag, use status flag to AND _i2c_flags to get the related status.

static inline void I2C_MasterClearStatusFlags(I2C_Type *base, uint32_t statusMask)#

Clears the I2C status flag state.

The following status register flags can be cleared kI2C_ArbitrationLostFlag and kI2C_IntPendingFlag.

Parameters:

base – I2C base pointer
statusMask – The status flag mask, defined in type i2c_status_flag_t. The parameter can be any combination of the following values:
- kI2C_StartDetectFlag (if available)
- kI2C_StopDetectFlag (if available)
- kI2C_ArbitrationLostFlag
- kI2C_IntPendingFlagFlag

static inline void I2C_SlaveClearStatusFlags(I2C_Type *base, uint32_t statusMask)#

Clears the I2C status flag state.

The following status register flags can be cleared kI2C_ArbitrationLostFlag and kI2C_IntPendingFlag

Parameters:

base – I2C base pointer
statusMask – The status flag mask, defined in type i2c_status_flag_t. The parameter can be any combination of the following values:
- kI2C_StartDetectFlag (if available)
- kI2C_StopDetectFlag (if available)
- kI2C_ArbitrationLostFlag
- kI2C_IntPendingFlagFlag

void I2C_EnableInterrupts(I2C_Type *base, uint32_t mask)#

Enables I2C interrupt requests.

Parameters:

base – I2C base pointer
mask – interrupt source The parameter can be combination of the following source if defined:
- kI2C_GlobalInterruptEnable
- kI2C_StopDetectInterruptEnable/kI2C_StartDetectInterruptEnable
- kI2C_SdaTimeoutInterruptEnable

void I2C_DisableInterrupts(I2C_Type *base, uint32_t mask)#

Disables I2C interrupt requests.

Parameters:

base – I2C base pointer
mask – interrupt source The parameter can be combination of the following source if defined:
- kI2C_GlobalInterruptEnable
- kI2C_StopDetectInterruptEnable/kI2C_StartDetectInterruptEnable
- kI2C_SdaTimeoutInterruptEnable

static inline void I2C_EnableDMA(I2C_Type *base, bool enable)#

Enables/disables the I2C DMA interrupt.

Parameters:

base – I2C base pointer
enable – true to enable, false to disable

static inline uint32_t I2C_GetDataRegAddr(I2C_Type *base)#

Gets the I2C tx/rx data register address. This API is used to provide a transfer address for I2C DMA transfer configuration.

Parameters:

base – I2C base pointer

Returns:

data register address

void I2C_MasterSetBaudRate(I2C_Type *base, uint32_t baudRate_Bps, uint32_t srcClock_Hz)#

Sets the I2C master transfer baud rate.

Parameters:

base – I2C base pointer
baudRate_Bps – the baud rate value in bps
srcClock_Hz – Source clock

status_t I2C_MasterStart(I2C_Type *base, uint8_t address, i2c_direction_t direction)#

Sends a START on the I2C bus.

This function is used to initiate a new master mode transfer by sending the START signal. The slave address is sent following the I2C START signal.

Parameters:

base – I2C peripheral base pointer
address – 7-bit slave device address.
direction – Master transfer directions(transmit/receive).

Return values:

kStatus_Success – Successfully send the start signal.
kStatus_I2C_Busy – Current bus is busy.

status_t I2C_MasterStop(I2C_Type *base)#

Sends a STOP signal on the I2C bus.

Return values:

kStatus_Success – Successfully send the stop signal.
kStatus_I2C_Timeout – Send stop signal failed, timeout.

status_t I2C_MasterRepeatedStart(I2C_Type *base, uint8_t address, i2c_direction_t direction)#

Sends a REPEATED START on the I2C bus.

Parameters:

base – I2C peripheral base pointer
address – 7-bit slave device address.
direction – Master transfer directions(transmit/receive).

Return values:

kStatus_Success – Successfully send the start signal.
kStatus_I2C_Busy – Current bus is busy but not occupied by current I2C master.

status_t I2C_MasterWriteBlocking(I2C_Type *base, const uint8_t *txBuff, size_t txSize, uint32_t flags)#

Performs a polling send transaction on the I2C bus.

Parameters:

base – The I2C peripheral base pointer.
txBuff – The pointer to the data to be transferred.
txSize – The length in bytes of the data to be transferred.
flags – Transfer control flag to decide whether need to send a stop, use kI2C_TransferDefaultFlag to issue a stop and kI2C_TransferNoStop to not send a stop.

Return values:

kStatus_Success – Successfully complete the data transmission.
kStatus_I2C_ArbitrationLost – Transfer error, arbitration lost.
kStataus_I2C_Nak – Transfer error, receive NAK during transfer.

status_t I2C_MasterReadBlocking(I2C_Type *base, uint8_t *rxBuff, size_t rxSize, uint32_t flags)#

Performs a polling receive transaction on the I2C bus.

Note

The I2C_MasterReadBlocking function stops the bus before reading the final byte. Without stopping the bus prior for the final read, the bus issues another read, resulting in garbage data being read into the data register.

Parameters:

base – I2C peripheral base pointer.
rxBuff – The pointer to the data to store the received data.
rxSize – The length in bytes of the data to be received.
flags – Transfer control flag to decide whether need to send a stop, use kI2C_TransferDefaultFlag to issue a stop and kI2C_TransferNoStop to not send a stop.

Return values:

kStatus_Success – Successfully complete the data transmission.
kStatus_I2C_Timeout – Send stop signal failed, timeout.

status_t I2C_SlaveWriteBlocking(I2C_Type *base, const uint8_t *txBuff, size_t txSize)#

Performs a polling send transaction on the I2C bus.

Parameters:

base – The I2C peripheral base pointer.
txBuff – The pointer to the data to be transferred.
txSize – The length in bytes of the data to be transferred.

Return values:

kStatus_Success – Successfully complete the data transmission.
kStatus_I2C_ArbitrationLost – Transfer error, arbitration lost.
kStataus_I2C_Nak – Transfer error, receive NAK during transfer.

status_t I2C_SlaveReadBlocking(I2C_Type *base, uint8_t *rxBuff, size_t rxSize)#

Performs a polling receive transaction on the I2C bus.

Parameters:

base – I2C peripheral base pointer.
rxBuff – The pointer to the data to store the received data.
rxSize – The length in bytes of the data to be received.

Return values:

kStatus_Success – Successfully complete data receive.
kStatus_I2C_Timeout – Wait status flag timeout.

status_t I2C_MasterTransferBlocking(I2C_Type *base, i2c_master_transfer_t *xfer)#

Performs a master polling transfer on the I2C bus.

Note

The API does not return until the transfer succeeds or fails due to arbitration lost or receiving a NAK.

Parameters:

base – I2C peripheral base address.
xfer – Pointer to the transfer structure.

Return values:

kStatus_Success – Successfully complete the data transmission.
kStatus_I2C_Busy – Previous transmission still not finished.
kStatus_I2C_Timeout – Transfer error, wait signal timeout.
kStatus_I2C_ArbitrationLost – Transfer error, arbitration lost.
kStataus_I2C_Nak – Transfer error, receive NAK during transfer.

void I2C_MasterTransferCreateHandle(I2C_Type *base, i2c_master_handle_t *handle, i2c_master_transfer_callback_t callback, void *userData)#

Initializes the I2C handle which is used in transactional functions.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_master_handle_t structure to store the transfer state.
callback – pointer to user callback function.
userData – user parameter passed to the callback function.

status_t I2C_MasterTransferNonBlocking(I2C_Type *base, i2c_master_handle_t *handle, i2c_master_transfer_t *xfer)#

Performs a master interrupt non-blocking transfer on the I2C bus.

Note

Calling the API returns immediately after transfer initiates. The user needs to call I2C_MasterGetTransferCount to poll the transfer status to check whether the transfer is finished. If the return status is not kStatus_I2C_Busy, the transfer is finished.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_master_handle_t structure which stores the transfer state.
xfer – pointer to i2c_master_transfer_t structure.

Return values:

kStatus_Success – Successfully start the data transmission.
kStatus_I2C_Busy – Previous transmission still not finished.
kStatus_I2C_Timeout – Transfer error, wait signal timeout.

status_t I2C_MasterTransferGetCount(I2C_Type *base, i2c_master_handle_t *handle, size_t *count)#

Gets the master transfer status during a interrupt non-blocking transfer.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_master_handle_t structure which stores the transfer state.
count – Number of bytes transferred so far by the non-blocking transaction.

Return values:

kStatus_InvalidArgument – count is Invalid.
kStatus_Success – Successfully return the count.

status_t I2C_MasterTransferAbort(I2C_Type *base, i2c_master_handle_t *handle)#

Aborts an interrupt non-blocking transfer early.

Note

This API can be called at any time when an interrupt non-blocking transfer initiates to abort the transfer early.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_master_handle_t structure which stores the transfer state

Return values:

kStatus_I2C_Timeout – Timeout during polling flag.
kStatus_Success – Successfully abort the transfer.

void I2C_MasterTransferHandleIRQ(I2C_Type *base, void *i2cHandle)#

Master interrupt handler.

Parameters:

base – I2C base pointer.
i2cHandle – pointer to i2c_master_handle_t structure.

void I2C_SlaveTransferCreateHandle(I2C_Type *base, i2c_slave_handle_t *handle, i2c_slave_transfer_callback_t callback, void *userData)#

Initializes the I2C handle which is used in transactional functions.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_slave_handle_t structure to store the transfer state.
callback – pointer to user callback function.
userData – user parameter passed to the callback function.

status_t I2C_SlaveTransferNonBlocking(I2C_Type *base, i2c_slave_handle_t *handle, uint32_t eventMask)#

Starts accepting slave transfers.

Call this API after calling the I2C_SlaveInit() and I2C_SlaveTransferCreateHandle() to start processing transactions driven by an I2C master. The slave monitors the I2C bus and passes events to the callback that was passed into the call to I2C_SlaveTransferCreateHandle(). The callback is always invoked from the interrupt context.

The set of events received by the callback is customizable. To do so, set the eventMask parameter to the OR’d combination of i2c_slave_transfer_event_t enumerators for the events you wish to receive. The kI2C_SlaveTransmitEvent and kLPI2C_SlaveReceiveEvent events are always enabled and do not need to be included in the mask. Alternatively, pass 0 to get a default set of only the transmit and receive events that are always enabled. In addition, the kI2C_SlaveAllEvents constant is provided as a convenient way to enable all events.

Parameters:

base – The I2C peripheral base address.
handle – Pointer to i2c_slave_handle_t structure which stores the transfer state.
eventMask – Bit mask formed by OR’ing together i2c_slave_transfer_event_t enumerators to specify which events to send to the callback. Other accepted values are 0 to get a default set of only the transmit and receive events, and kI2C_SlaveAllEvents to enable all events.

Return values:

kStatus_Success – Slave transfers were successfully started.
kStatus_I2C_Busy – Slave transfers have already been started on this handle.

void I2C_SlaveTransferAbort(I2C_Type *base, i2c_slave_handle_t *handle)#

Aborts the slave transfer.

Note

This API can be called at any time to stop slave for handling the bus events.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_slave_handle_t structure which stores the transfer state.

status_t I2C_SlaveTransferGetCount(I2C_Type *base, i2c_slave_handle_t *handle, size_t *count)#

Gets the slave transfer remaining bytes during a interrupt non-blocking transfer.

Parameters:

base – I2C base pointer.
handle – pointer to i2c_slave_handle_t structure.
count – Number of bytes transferred so far by the non-blocking transaction.

Return values:

kStatus_InvalidArgument – count is Invalid.
kStatus_Success – Successfully return the count.

void I2C_SlaveTransferHandleIRQ(I2C_Type *base, void *i2cHandle)#

Slave interrupt handler.

Parameters:

base – I2C base pointer.
i2cHandle – pointer to i2c_slave_handle_t structure which stores the transfer state

void I2C_DriverIRQHandler(uint32_t instance)#

I2C driver IRQ handler common entry.

Parameters:

instance – I2C peripheral instance number.

FSL_I2C_DRIVER_VERSION#: I2C driver version.

I2C status return codes.

Values:

enumerator kStatus_I2C_Busy#: I2C is busy with current transfer.

enumerator kStatus_I2C_Idle#: Bus is Idle.

enumerator kStatus_I2C_Nak#: NAK received during transfer.

enumerator kStatus_I2C_ArbitrationLost#: Arbitration lost during transfer.

enumerator kStatus_I2C_Timeout#: Timeout polling status flags.

enumerator kStatus_I2C_Addr_Nak#: NAK received during the address probe.

enum _i2c_flags#

I2C peripheral flags.

Note

These enumerations are meant to be OR’d together to form a bit mask.

Values:

enumerator kI2C_ReceiveNakFlag#: I2C receive NAK flag.

enumerator kI2C_IntPendingFlag#: I2C interrupt pending flag. This flag can be cleared.

enumerator kI2C_TransferDirectionFlag#: I2C transfer direction flag.

enumerator kI2C_RangeAddressMatchFlag#: I2C range address match flag.

enumerator kI2C_ArbitrationLostFlag#: I2C arbitration lost flag. This flag can be cleared.

enumerator kI2C_BusBusyFlag#: I2C bus busy flag.

enumerator kI2C_AddressMatchFlag#: I2C address match flag.

enumerator kI2C_TransferCompleteFlag#: I2C transfer complete flag.

enumerator kI2C_StopDetectFlag#: I2C stop detect flag. This flag can be cleared.

enumerator kI2C_StartDetectFlag#: I2C start detect flag. This flag can be cleared.

enum _i2c_interrupt_enable#

I2C feature interrupt source.

Values:

enumerator kI2C_GlobalInterruptEnable#: I2C global interrupt.

enumerator kI2C_StopDetectInterruptEnable#: I2C stop detect interrupt.

enumerator kI2C_StartStopDetectInterruptEnable#: I2C start&stop detect interrupt.

enum _i2c_direction#

The direction of master and slave transfers.

Values:

enumerator kI2C_Write#: Master transmits to the slave.

enumerator kI2C_Read#: Master receives from the slave.

enum _i2c_slave_address_mode#

Addressing mode.

Values:

enumerator kI2C_Address7bit#: 7-bit addressing mode.

enumerator kI2C_RangeMatch#: Range address match addressing mode.

enum _i2c_master_transfer_flags#

I2C transfer control flag.

Values:

enumerator kI2C_TransferDefaultFlag#: A transfer starts with a start signal, stops with a stop signal.

enumerator kI2C_TransferNoStartFlag#: A transfer starts without a start signal, only support write only or write+read with no start flag, do not support read only with no start flag.

enumerator kI2C_TransferRepeatedStartFlag#: A transfer starts with a repeated start signal.

enumerator kI2C_TransferNoStopFlag#: A transfer ends without a stop signal.

enum _i2c_slave_transfer_event#

Set of events sent to the callback for nonblocking slave transfers.

These event enumerations are used for two related purposes. First, a bit mask created by OR’ing together events is passed to I2C_SlaveTransferNonBlocking() to specify which events to enable. Then, when the slave callback is invoked, it is passed the current event through its transfer parameter.

Note

These enumerations are meant to be OR’d together to form a bit mask of events.

Values:

enumerator kI2C_SlaveAddressMatchEvent#: Received the slave address after a start or repeated start.

enumerator kI2C_SlaveTransmitEvent#: A callback is requested to provide data to transmit (slave-transmitter role).

enumerator kI2C_SlaveReceiveEvent#: A callback is requested to provide a buffer in which to place received data (slave-receiver role).

enumerator kI2C_SlaveTransmitAckEvent#: A callback needs to either transmit an ACK or NACK.

enumerator kI2C_SlaveStartEvent#: A start/repeated start was detected.

enumerator kI2C_SlaveCompletionEvent#: A stop was detected or finished transfer, completing the transfer.

enumerator kI2C_SlaveGenaralcallEvent#: Received the general call address after a start or repeated start.

enumerator kI2C_SlaveAllEvents#: A bit mask of all available events.

Common sets of flags used by the driver.

Values:

enumerator kClearFlags#: All flags which are cleared by the driver upon starting a transfer.

enumerator kIrqFlags#

typedef enum _i2c_direction i2c_direction_t#: The direction of master and slave transfers.

typedef enum _i2c_slave_address_mode i2c_slave_address_mode_t#: Addressing mode.

typedef enum _i2c_slave_transfer_event i2c_slave_transfer_event_t#

Set of events sent to the callback for nonblocking slave transfers.

Note

These enumerations are meant to be OR’d together to form a bit mask of events.

typedef struct _i2c_master_config i2c_master_config_t#: I2C master user configuration.

typedef struct _i2c_slave_config i2c_slave_config_t#: I2C slave user configuration.

typedef struct _i2c_master_handle i2c_master_handle_t#: I2C master handle typedef.

typedef void (*i2c_master_transfer_callback_t)(I2C_Type *base, i2c_master_handle_t *handle, status_t status, void *userData)#: I2C master transfer callback typedef.

typedef struct _i2c_slave_handle i2c_slave_handle_t#: I2C slave handle typedef.

typedef struct _i2c_master_transfer i2c_master_transfer_t#: I2C master transfer structure.

typedef struct _i2c_slave_transfer i2c_slave_transfer_t#: I2C slave transfer structure.

typedef void (*i2c_slave_transfer_callback_t)(I2C_Type *base, i2c_slave_transfer_t *xfer, void *userData)#: I2C slave transfer callback typedef.

I2C_RETRY_TIMES#: Retry times for waiting flag.

I2C_MASTER_FACK_CONTROL#: Mater Fast ack control, control if master needs to manually write ack, this is used to low the speed of transfer for SoCs with feature FSL_FEATURE_I2C_HAS_DOUBLE_BUFFERING.

I2C_HAS_STOP_DETECT#

struct _i2c_master_config#

#include <fsl_i2c.h>

I2C master user configuration.

Public Members

bool enableMaster#: Enables the I2C peripheral at initialization time.

bool enableStopHold#: Controls the stop hold enable.

bool enableDoubleBuffering#: Controls double buffer enable; notice that enabling the double buffer disables the clock stretch.

uint32_t baudRate_Bps#: Baud rate configuration of I2C peripheral.

uint8_t glitchFilterWidth#: Controls the width of the glitch.

struct _i2c_slave_config#

#include <fsl_i2c.h>

I2C slave user configuration.

Public Members

bool enableSlave#: Enables the I2C peripheral at initialization time.

bool enableGeneralCall#: Enables the general call addressing mode.

bool enableWakeUp#: Enables/disables waking up MCU from low-power mode.

bool enableDoubleBuffering#: Controls a double buffer enable; notice that enabling the double buffer disables the clock stretch.

bool enableBaudRateCtl#: Enables/disables independent slave baud rate on SCL in very fast I2C modes.

uint16_t slaveAddress#: A slave address configuration.

uint16_t upperAddress#: A maximum boundary slave address used in a range matching mode.

i2c_slave_address_mode_t addressingMode#: An addressing mode configuration of i2c_slave_address_mode_config_t.

uint32_t sclStopHoldTime_ns#: the delay from the rising edge of SCL (I2C clock) to the rising edge of SDA (I2C data) while SCL is high (stop condition), SDA hold time and SCL start hold time are also configured according to the SCL stop hold time.

struct _i2c_master_transfer#

#include <fsl_i2c.h>

I2C master transfer structure.

Public Members

uint32_t flags#: A transfer flag which controls the transfer.

uint8_t slaveAddress#: 7-bit slave address.

i2c_direction_t direction#: A transfer direction, read or write.

uint32_t subaddress#: A sub address. Transferred MSB first.

uint8_t subaddressSize#: A size of the command buffer.

uint8_t *volatile data#: A transfer buffer.

volatile size_t dataSize#: A transfer size.

struct _i2c_master_handle#

#include <fsl_i2c.h>

I2C master handle structure.

Public Members

i2c_master_transfer_t transfer#: I2C master transfer copy.

size_t transferSize#: Total bytes to be transferred.

uint8_t state#: A transfer state maintained during transfer.

i2c_master_transfer_callback_t completionCallback#: A callback function called when the transfer is finished.

void *userData#: A callback parameter passed to the callback function.

struct _i2c_slave_transfer#

#include <fsl_i2c.h>

I2C slave transfer structure.

Public Members

i2c_slave_transfer_event_t event#: A reason that the callback is invoked.

uint8_t *volatile data#: A transfer buffer.

volatile size_t dataSize#: A transfer size.

status_t completionStatus#: Success or error code describing how the transfer completed. Only applies for kI2C_SlaveCompletionEvent.

size_t transferredCount#: A number of bytes actually transferred since the start or since the last repeated start.

struct _i2c_slave_handle#

#include <fsl_i2c.h>

I2C slave handle structure.

Public Members

volatile bool isBusy#: Indicates whether a transfer is busy.

i2c_slave_transfer_t transfer#: I2C slave transfer copy.

uint32_t eventMask#: A mask of enabled events.

i2c_slave_transfer_callback_t callback#: A callback function called at the transfer event.

void *userData#: A callback parameter passed to the callback.

Common Driver#

FSL_COMMON_DRIVER_VERSION#: common driver version.

DEBUG_CONSOLE_DEVICE_TYPE_NONE#: No debug console.

DEBUG_CONSOLE_DEVICE_TYPE_UART#: Debug console based on UART.

DEBUG_CONSOLE_DEVICE_TYPE_LPUART#: Debug console based on LPUART.

DEBUG_CONSOLE_DEVICE_TYPE_LPSCI#: Debug console based on LPSCI.

DEBUG_CONSOLE_DEVICE_TYPE_USBCDC#: Debug console based on USBCDC.

DEBUG_CONSOLE_DEVICE_TYPE_FLEXCOMM#: Debug console based on FLEXCOMM.

DEBUG_CONSOLE_DEVICE_TYPE_IUART#: Debug console based on i.MX UART.

DEBUG_CONSOLE_DEVICE_TYPE_VUSART#: Debug console based on LPC_VUSART.

DEBUG_CONSOLE_DEVICE_TYPE_MINI_USART#: Debug console based on LPC_USART.

DEBUG_CONSOLE_DEVICE_TYPE_SWO#: Debug console based on SWO.

DEBUG_CONSOLE_DEVICE_TYPE_QSCI#: Debug console based on QSCI.

MIN(a, b)#: Computes the minimum of a and b.

MAX(a, b)#: Computes the maximum of a and b.

UINT16_MAX#: Max value of uint16_t type.

UINT32_MAX#: Max value of uint32_t type.

UINTPTR_SIZE#

UINT64_H(X)#: Macro to get upper 32 bits of a 64-bit value

UINT64_L(X)#: Macro to get lower 32 bits of a 64-bit value

MCUX_MASK_INVERT_8(mask)#: 8-bit mask inversion.

MCUX_MASK_INVERT_16(mask)#: 16-bit mask inversion.

MCUX_MASK_INVERT_32(mask)#: 32-bit mask inversion for completeness.

MCUX_REG_WRITE8(reg, value)#: 8-bit register write macro

MCUX_REG_WRITE16(reg, value)#: 16-bit register write macro

MCUX_REG_WRITE32(reg, value)#: 32-bit register write macro

MCUX_REG_READ8(reg)#: 8-bit register read macro

MCUX_REG_READ16(reg)#: 16-bit register read macro

MCUX_REG_READ32(reg)#: 32-bit register read macro

MCUX_REG_BIT_SET8(reg, mask)#: 8-bit register bit set macro

MCUX_REG_BIT_SET16(reg, mask)#: 16-bit register bit set macro

MCUX_REG_BIT_SET32(reg, mask)#: 32-bit register bit set macro

MCUX_REG_BIT_CLEAR8(reg, mask)#: 8-bit register bit clear macro

MCUX_REG_BIT_CLEAR16(reg, mask)#: 16-bit register bit clear macro

MCUX_REG_BIT_CLEAR32(reg, mask)#: 32-bit register bit clear macro

MCUX_REG_BIT_GET8(reg, mask)#: 8-bit register bit get macro

MCUX_REG_BIT_GET16(reg, mask)#: 16-bit register bit get macro

MCUX_REG_BIT_GET32(reg, mask)#: 32-bit register bit get macro

MCUX_REG_MODIFY8(reg, mask, value)#: 32-bit register read-modify-write macro

MCUX_REG_MODIFY16(reg, mask, value)#: 16-bit register read-modify-write macro

MCUX_REG_MODIFY32(reg, mask, value)#: 32-bit register read-modify-write macro

SDK_ATOMIC_LOCAL_ADD(addr, val)#: Add value val from the variable at address address.

SDK_ATOMIC_LOCAL_SUB(addr, val)#: Subtract value val to the variable at address address.

SDK_ATOMIC_LOCAL_SET(addr, bits)#: Set the bits specifiled by bits to the variable at address address.

SDK_ATOMIC_LOCAL_CLEAR(addr, bits)#: Clear the bits specifiled by bits to the variable at address address.

SDK_ATOMIC_LOCAL_TOGGLE(addr, bits)#: Toggle the bits specifiled by bits to the variable at address address.

SDK_ATOMIC_LOCAL_CLEAR_AND_SET(addr, clearBits, setBits)#: For the variable at address address, clear the bits specifiled by clearBits and set the bits specifiled by setBits.

SDK_ATOMIC_LOCAL_COMPARE_AND_SET(addr, expected, newValue)#: For the variable at address address, check whether the value equal to expected. If value same as expected then update newValue to address and return true , else return false .

SDK_ATOMIC_LOCAL_TEST_AND_SET(addr, newValue)#: For the variable at address address, set as newValue value and return old value.

USEC_TO_COUNT(us, clockFreqInHz)#: Macro to convert a microsecond period to raw count value

COUNT_TO_USEC(count, clockFreqInHz)#: Macro to convert a raw count value to microsecond

MSEC_TO_COUNT(ms, clockFreqInHz)#: Macro to convert a millisecond period to raw count value

COUNT_TO_MSEC(count, clockFreqInHz)#: Macro to convert a raw count value to millisecond

SDK_ISR_EXIT_BARRIER#

SDK_ALIGN(var, alignbytes)#: Macro to define a variable with alignbytes alignment

SDK_SIZEALIGN(var, alignbytes)#

Macro to define a variable with L1 d-cache line size alignment

Macro to define a variable with L2 cache line size alignment

Macro to change a value to a given size aligned value (rounded up)

SDK_SIZEALIGN_UP(var, alignbytes)#: Macro to change a value to a given size aligned value (rounded up), the wrapper of SDK_SIZEALIGN

SDK_SIZEALIGN_DOWN(var, alignbytes)#: Macro to change a value to a given size aligned value (rounded down)

SDK_IS_ALIGNED(var, alignbytes)#: Macro to check if a value is aligned to a given size

AT_NONCACHEABLE_SECTION(var)#: Define a variable var, and place it in non-cacheable section.

AT_NONCACHEABLE_SECTION_ALIGN(var, alignbytes)#: Define a variable var, and place it in non-cacheable section, the start address of the variable is aligned to alignbytes.

AT_NONCACHEABLE_SECTION_INIT(var)#: Define a variable var with initial value, and place it in non-cacheable section.

AT_NONCACHEABLE_SECTION_ALIGN_INIT(var, alignbytes)#: Define a variable var with initial value, and place it in non-cacheable section, the start address of the variable is aligned to alignbytes.

AT_CACHE_LINE_SECTION(var)#: Define a variable var, which is cache line size aligned and be placed in CacheLineData section.

AT_CACHE_LINE_SECTION_INIT(var)#: Define a variable var with initial value, which is cache line size aligned and be placed in CacheLineData.init section.

AT_QUICKACCESS_SECTION_CODE(func)#: Place function in a section which can be accessed quickly by core.

AT_QUICKACCESS_SECTION_DATA(var)#: Place data in a section which can be accessed quickly by core.

AT_QUICKACCESS_SECTION_DATA_ALIGN(var, alignbytes)#: Place data in a section which can be accessed quickly by core, and the variable address is set to align with alignbytes.

MCUX_RAMFUNC#

Function attribute to place function in RAM. For example, to place function my_func in ram, use like:

MCUX_RAMFUNC my_func

RAMFUNCTION_SECTION_CODE(func)#: Place function in ram.

MCUX_DEPRECATED#: Deprecated APIs.

MCUX_DEPRECATED_MACRO#: Deprecated macros.

MCUX_EXPERIMENTAL#: Experimental APIs.

MCUX_EXPERIMENTAL_MACRO#: Experimental macros.

enum _status_groups#

Status group numbers.

Values:

enumerator kStatusGroup_Generic#: Group number for generic status codes.

enumerator kStatusGroup_FLASH#: Group number for FLASH status codes.

enumerator kStatusGroup_LPSPI#: Group number for LPSPI status codes.

enumerator kStatusGroup_FLEXIO_SPI#: Group number for FLEXIO SPI status codes.

enumerator kStatusGroup_DSPI#: Group number for DSPI status codes.

enumerator kStatusGroup_FLEXIO_UART#: Group number for FLEXIO UART status codes.

enumerator kStatusGroup_FLEXIO_I2C#: Group number for FLEXIO I2C status codes.

enumerator kStatusGroup_LPI2C#: Group number for LPI2C status codes.

enumerator kStatusGroup_UART#: Group number for UART status codes.

enumerator kStatusGroup_I2C#: Group number for UART status codes.

enumerator kStatusGroup_LPSCI#: Group number for LPSCI status codes.

enumerator kStatusGroup_LPUART#: Group number for LPUART status codes.

enumerator kStatusGroup_SPI#: Group number for SPI status code.

enumerator kStatusGroup_XRDC#: Group number for XRDC status code.

enumerator kStatusGroup_SEMA42#: Group number for SEMA42 status code.

enumerator kStatusGroup_SDHC#: Group number for SDHC status code

enumerator kStatusGroup_SDMMC#: Group number for SDMMC status code

enumerator kStatusGroup_SAI#: Group number for SAI status code

enumerator kStatusGroup_MCG#: Group number for MCG status codes.

enumerator kStatusGroup_SCG#: Group number for SCG status codes.

enumerator kStatusGroup_SDSPI#: Group number for SDSPI status codes.

enumerator kStatusGroup_FLEXIO_I2S#: Group number for FLEXIO I2S status codes

enumerator kStatusGroup_FLEXIO_MCULCD#: Group number for FLEXIO LCD status codes

enumerator kStatusGroup_FLASHIAP#: Group number for FLASHIAP status codes

enumerator kStatusGroup_FLEXCOMM_I2C#: Group number for FLEXCOMM I2C status codes

enumerator kStatusGroup_I2S#: Group number for I2S status codes

enumerator kStatusGroup_IUART#: Group number for IUART status codes

enumerator kStatusGroup_CSI#: Group number for CSI status codes

enumerator kStatusGroup_MIPI_DSI#: Group number for MIPI DSI status codes

enumerator kStatusGroup_SDRAMC#: Group number for SDRAMC status codes.

enumerator kStatusGroup_POWER#: Group number for POWER status codes.

enumerator kStatusGroup_ENET#: Group number for ENET status codes.

enumerator kStatusGroup_PHY#: Group number for PHY status codes.

enumerator kStatusGroup_TRGMUX#: Group number for TRGMUX status codes.

enumerator kStatusGroup_SMARTCARD#: Group number for SMARTCARD status codes.

enumerator kStatusGroup_LMEM#: Group number for LMEM status codes.

enumerator kStatusGroup_QSPI#: Group number for QSPI status codes.

enumerator kStatusGroup_DMA#: Group number for DMA status codes.

enumerator kStatusGroup_EDMA#: Group number for EDMA status codes.

enumerator kStatusGroup_DMAMGR#: Group number for DMAMGR status codes.

enumerator kStatusGroup_FLEXCAN#: Group number for FlexCAN status codes.

enumerator kStatusGroup_LTC#: Group number for LTC status codes.

enumerator kStatusGroup_FLEXIO_CAMERA#: Group number for FLEXIO CAMERA status codes.

enumerator kStatusGroup_LPC_SPI#: Group number for LPC_SPI status codes.

enumerator kStatusGroup_LPC_USART#: Group number for LPC_USART status codes.

enumerator kStatusGroup_DMIC#: Group number for DMIC status codes.

enumerator kStatusGroup_SDIF#: Group number for SDIF status codes.

enumerator kStatusGroup_SPIFI#: Group number for SPIFI status codes.

enumerator kStatusGroup_OTP#: Group number for OTP status codes.

enumerator kStatusGroup_MCAN#: Group number for MCAN status codes.

enumerator kStatusGroup_CAAM#: Group number for CAAM status codes.

enumerator kStatusGroup_ECSPI#: Group number for ECSPI status codes.

enumerator kStatusGroup_USDHC#: Group number for USDHC status codes.

enumerator kStatusGroup_LPC_I2C#: Group number for LPC_I2C status codes.

enumerator kStatusGroup_DCP#: Group number for DCP status codes.

enumerator kStatusGroup_MSCAN#: Group number for MSCAN status codes.

enumerator kStatusGroup_ESAI#: Group number for ESAI status codes.

enumerator kStatusGroup_FLEXSPI#: Group number for FLEXSPI status codes.

enumerator kStatusGroup_MMDC#: Group number for MMDC status codes.

enumerator kStatusGroup_PDM#: Group number for MIC status codes.

enumerator kStatusGroup_SDMA#: Group number for SDMA status codes.

enumerator kStatusGroup_ICS#: Group number for ICS status codes.

enumerator kStatusGroup_SPDIF#: Group number for SPDIF status codes.

enumerator kStatusGroup_LPC_MINISPI#: Group number for LPC_MINISPI status codes.

enumerator kStatusGroup_HASHCRYPT#: Group number for Hashcrypt status codes

enumerator kStatusGroup_LPC_SPI_SSP#: Group number for LPC_SPI_SSP status codes.

enumerator kStatusGroup_I3C#: Group number for I3C status codes

enumerator kStatusGroup_LPC_I2C_1#: Group number for LPC_I2C_1 status codes.

enumerator kStatusGroup_NOTIFIER#: Group number for NOTIFIER status codes.

enumerator kStatusGroup_DebugConsole#: Group number for debug console status codes.

enumerator kStatusGroup_SEMC#: Group number for SEMC status codes.

enumerator kStatusGroup_ApplicationRangeStart#: Starting number for application groups.

enumerator kStatusGroup_IAP#: Group number for IAP status codes

enumerator kStatusGroup_SFA#: Group number for SFA status codes

enumerator kStatusGroup_SPC#: Group number for SPC status codes.

enumerator kStatusGroup_PUF#: Group number for PUF status codes.

enumerator kStatusGroup_TOUCH_PANEL#: Group number for touch panel status codes

enumerator kStatusGroup_VBAT#: Group number for VBAT status codes

enumerator kStatusGroup_XSPI#: Group number for XSPI status codes

enumerator kStatusGroup_PNGDEC#: Group number for PNGDEC status codes

enumerator kStatusGroup_JPEGDEC#: Group number for JPEGDEC status codes

enumerator kStatusGroup_AUDMIX#: Group number for AUDMIX status codes

enumerator kStatusGroup_HAL_GPIO#: Group number for HAL GPIO status codes.

enumerator kStatusGroup_HAL_UART#: Group number for HAL UART status codes.

enumerator kStatusGroup_HAL_TIMER#: Group number for HAL TIMER status codes.

enumerator kStatusGroup_HAL_SPI#: Group number for HAL SPI status codes.

enumerator kStatusGroup_HAL_I2C#: Group number for HAL I2C status codes.

enumerator kStatusGroup_HAL_FLASH#: Group number for HAL FLASH status codes.

enumerator kStatusGroup_HAL_PWM#: Group number for HAL PWM status codes.

enumerator kStatusGroup_HAL_RNG#: Group number for HAL RNG status codes.

enumerator kStatusGroup_HAL_I2S#: Group number for HAL I2S status codes.

enumerator kStatusGroup_HAL_ADC_SENSOR#: Group number for HAL ADC SENSOR status codes.

enumerator kStatusGroup_TIMERMANAGER#: Group number for TiMER MANAGER status codes.

enumerator kStatusGroup_SERIALMANAGER#: Group number for SERIAL MANAGER status codes.

enumerator kStatusGroup_LED#: Group number for LED status codes.

enumerator kStatusGroup_BUTTON#: Group number for BUTTON status codes.

enumerator kStatusGroup_EXTERN_EEPROM#: Group number for EXTERN EEPROM status codes.

enumerator kStatusGroup_SHELL#: Group number for SHELL status codes.

enumerator kStatusGroup_MEM_MANAGER#: Group number for MEM MANAGER status codes.

enumerator kStatusGroup_LIST#: Group number for List status codes.

enumerator kStatusGroup_OSA#: Group number for OSA status codes.

enumerator kStatusGroup_COMMON_TASK#: Group number for Common task status codes.

enumerator kStatusGroup_MSG#: Group number for messaging status codes.

enumerator kStatusGroup_SDK_OCOTP#: Group number for OCOTP status codes.

enumerator kStatusGroup_SDK_FLEXSPINOR#: Group number for FLEXSPINOR status codes.

enumerator kStatusGroup_CODEC#: Group number for codec status codes.

enumerator kStatusGroup_ASRC#: Group number for codec status ASRC.

enumerator kStatusGroup_OTFAD#: Group number for codec status codes.

enumerator kStatusGroup_SDIOSLV#: Group number for SDIOSLV status codes.

enumerator kStatusGroup_MECC#: Group number for MECC status codes.

enumerator kStatusGroup_ENET_QOS#: Group number for ENET_QOS status codes.

enumerator kStatusGroup_LOG#: Group number for LOG status codes.

enumerator kStatusGroup_I3CBUS#: Group number for I3CBUS status codes.

enumerator kStatusGroup_QSCI#: Group number for QSCI status codes.

enumerator kStatusGroup_ELEMU#: Group number for ELEMU status codes.

enumerator kStatusGroup_QUEUEDSPI#: Group number for QSPI status codes.

enumerator kStatusGroup_POWER_MANAGER#: Group number for POWER_MANAGER status codes.

enumerator kStatusGroup_IPED#: Group number for IPED status codes.

enumerator kStatusGroup_ELS_PKC#: Group number for ELS PKC status codes.

enumerator kStatusGroup_CSS_PKC#: Group number for CSS PKC status codes.

enumerator kStatusGroup_HOSTIF#: Group number for HOSTIF status codes.

enumerator kStatusGroup_CLIF#: Group number for CLIF status codes.

enumerator kStatusGroup_BMA#: Group number for BMA status codes.

enumerator kStatusGroup_NETC#: Group number for NETC status codes.

enumerator kStatusGroup_ELE#: Group number for ELE status codes.

enumerator kStatusGroup_GLIKEY#: Group number for GLIKEY status codes.

enumerator kStatusGroup_AON_POWER#: Group number for AON_POWER status codes.

enumerator kStatusGroup_AON_COMMON#: Group number for AON_COMMON status codes.

enumerator kStatusGroup_ENDAT3#: Group number for ENDAT3 status codes.

enumerator kStatusGroup_HIPERFACE#: Group number for HIPERFACE status codes.

enumerator kStatusGroup_NPX#: Group number for NPX status codes.

enumerator kStatusGroup_ELA_CSEC#: Group number for ELA_CSEC status codes.

enumerator kStatusGroup_FLEXIO_T_FORMAT#: Group number for T-format status codes.

enumerator kStatusGroup_FLEXIO_A_FORMAT#: Group number for A-format status codes.

enumerator kStatusGroup_LPC_QSPI#: Group number for LPC QSPI status codes.

enumerator kStatusGroup_EVENT_CTRL#: Group number for Event controller status codes.

Generic status return codes.

Values:

enumerator kStatus_Success#: Generic status for Success.

enumerator kStatus_Fail#: Generic status for Fail.

enumerator kStatus_ReadOnly#: Generic status for read only failure.

enumerator kStatus_OutOfRange#: Generic status for out of range access.

enumerator kStatus_InvalidArgument#: Generic status for invalid argument check.

enumerator kStatus_Timeout#: Generic status for timeout.

enumerator kStatus_NoTransferInProgress#: Generic status for no transfer in progress.

enumerator kStatus_Busy#: Generic status for module is busy.

enumerator kStatus_NoData#: Generic status for no data is found for the operation.

typedef int32_t status_t#: Type used for all status and error return values.

void *SDK_Malloc(size_t size, size_t alignbytes)#

Allocate memory with given alignment and aligned size.

This is provided to support the dynamically allocated memory used in cache-able region.

Parameters:

size – The length required to malloc.
alignbytes – The alignment size.

Return values:

The – allocated memory.

void SDK_Free(void *ptr)#

Free memory.

Parameters:

ptr – The memory to be release.

void SDK_DelayAtLeastUs(uint32_t delayTime_us, uint32_t coreClock_Hz)#

Delay at least for some time. Please note that, this API uses while loop for delay, different run-time environments make the time not precise, if precise delay count was needed, please implement a new delay function with hardware timer.

Parameters:

delayTime_us – Delay time in unit of microsecond.
coreClock_Hz – Core clock frequency with Hz.

static inline status_t EnableIRQ(IRQn_Type interrupt)#

Enable specific interrupt.

Enable LEVEL1 interrupt. For some devices, there might be multiple interrupt levels. For example, there are NVIC and intmux. Here the interrupts connected to NVIC are the LEVEL1 interrupts, because they are routed to the core directly. The interrupts connected to intmux are the LEVEL2 interrupts, they are routed to NVIC first then routed to core.

This function only enables the LEVEL1 interrupts. The number of LEVEL1 interrupts is indicated by the feature macro FSL_FEATURE_NUMBER_OF_LEVEL1_INT_VECTORS.

Parameters:

interrupt – The IRQ number.

Return values:

kStatus_Success – Interrupt enabled successfully
kStatus_Fail – Failed to enable the interrupt

static inline status_t DisableIRQ(IRQn_Type interrupt)#

Disable specific interrupt.

Disable LEVEL1 interrupt. For some devices, there might be multiple interrupt levels. For example, there are NVIC and intmux. Here the interrupts connected to NVIC are the LEVEL1 interrupts, because they are routed to the core directly. The interrupts connected to intmux are the LEVEL2 interrupts, they are routed to NVIC first then routed to core.

This function only disables the LEVEL1 interrupts. The number of LEVEL1 interrupts is indicated by the feature macro FSL_FEATURE_NUMBER_OF_LEVEL1_INT_VECTORS.

Parameters:

interrupt – The IRQ number.

Return values:

kStatus_Success – Interrupt disabled successfully
kStatus_Fail – Failed to disable the interrupt

static inline status_t EnableIRQWithPriority(IRQn_Type interrupt, uint8_t priNum)#

Enable the IRQ, and also set the interrupt priority.

Only handle LEVEL1 interrupt. For some devices, there might be multiple interrupt levels. For example, there are NVIC and intmux. Here the interrupts connected to NVIC are the LEVEL1 interrupts, because they are routed to the core directly. The interrupts connected to intmux are the LEVEL2 interrupts, they are routed to NVIC first then routed to core.

This function only handles the LEVEL1 interrupts. The number of LEVEL1 interrupts is indicated by the feature macro FSL_FEATURE_NUMBER_OF_LEVEL1_INT_VECTORS.

Parameters:

interrupt – The IRQ to Enable.
priNum – Priority number set to interrupt controller register.

Return values:

kStatus_Success – Interrupt priority set successfully
kStatus_Fail – Failed to set the interrupt priority.

static inline status_t IRQ_SetPriority(IRQn_Type interrupt, uint8_t priNum)#

Set the IRQ priority.

This function only handles the LEVEL1 interrupts. The number of LEVEL1 interrupts is indicated by the feature macro FSL_FEATURE_NUMBER_OF_LEVEL1_INT_VECTORS.

Parameters:

interrupt – The IRQ to set.
priNum – Priority number set to interrupt controller register.

Return values:

kStatus_Success – Interrupt priority set successfully
kStatus_Fail – Failed to set the interrupt priority.

static inline status_t IRQ_ClearPendingIRQ(IRQn_Type interrupt)#

Clear the pending IRQ flag.

This function only handles the LEVEL1 interrupts. The number of LEVEL1 interrupts is indicated by the feature macro FSL_FEATURE_NUMBER_OF_LEVEL1_INT_VECTORS.

Parameters:

interrupt – The flag which IRQ to clear.

Return values:

kStatus_Success – Interrupt priority set successfully
kStatus_Fail – Failed to set the interrupt priority.

static inline uint32_t DisableGlobalIRQ(void)#

Disable the global IRQ.

Disable the global interrupt and return the current primask register. User is required to provided the primask register for the EnableGlobalIRQ().

Returns:: Current primask value.

static inline void EnableGlobalIRQ(uint32_t primask)#

Enable the global IRQ.

Set the primask register with the provided primask value but not just enable the primask. The idea is for the convenience of integration of RTOS. some RTOS get its own management mechanism of primask. User is required to use the EnableGlobalIRQ() and DisableGlobalIRQ() in pair.

Parameters:

primask – value of primask register to be restored. The primask value is supposed to be provided by the DisableGlobalIRQ().

static inline bool _SDK_AtomicLocalCompareAndSet(uint32_t *addr, uint32_t expected, uint32_t newValue)#

static inline uint32_t _SDK_AtomicTestAndSet(uint32_t *addr, uint32_t newValue)#

FSL_DRIVER_TRANSFER_DOUBLE_WEAK_IRQ#: Macro to use the default weak IRQ handler in drivers.

MAKE_STATUS(group, code): Construct a status code value from a group and code number.

MAKE_VERSION(major, minor, bugfix)

Construct the version number for drivers.

The driver version is a 32-bit number, for both 32-bit platforms(such as Cortex M) and 16-bit platforms(such as DSC).

| Unused    || Major Version || Minor Version ||  Bug Fix    |
31        25  24           17  16            9  8            0

ARRAY_SIZE(x)#: Computes the number of elements in an array.

SUPPRESS_FALL_THROUGH_WARNING()#: For switch case code block, if case section ends without “break;” statement, there wil be fallthrough warning with compiler flag -Wextra or -Wimplicit-fallthrough=n when using armgcc. To suppress this warning, “SUPPRESS_FALL_THROUGH_WARNING();” need to be added at the end of each case section which misses “break;”statement.

MSDK_REG_SECURE_ADDR(x)#: Convert the register address to the one used in secure mode.

MSDK_REG_NONSECURE_ADDR(x)#: Convert the register address to the one used in non-secure mode.

MSDK_HAS_DWT_CYCCNT#: The chip supports DWT CYCCNT or not.

MSDK_INVALID_IRQ_HANDLER#: Invalid IRQ handler address.

LLWU: Low-Leakage Wakeup Unit Driver#

static inline void LLWU_GetVersionId(LLWU_Type *base, llwu_version_id_t *versionId)#

Gets the LLWU version ID.

This function gets the LLWU version ID, including the major version number, the minor version number, and the feature specification number.

Parameters:

base – LLWU peripheral base address.
versionId – A pointer to the version ID structure.

static inline void LLWU_GetParam(LLWU_Type *base, llwu_param_t *param)#

Gets the LLWU parameter.

This function gets the LLWU parameter, including a wakeup pin number, a module number, a DMA number, and a pin filter number.

Parameters:

base – LLWU peripheral base address.
param – A pointer to the LLWU parameter structure.

void LLWU_SetExternalWakeupPinMode(LLWU_Type *base, uint32_t pinIndex, llwu_external_pin_mode_t pinMode)#

Sets the external input pin source mode.

This function sets the external input pin source mode that is used as a wake up source.

Parameters:

base – LLWU peripheral base address.
pinIndex – A pin index to be enabled as an external wakeup source starting from 1.
pinMode – A pin configuration mode defined in the llwu_external_pin_modes_t.

bool LLWU_GetExternalWakeupPinFlag(LLWU_Type *base, uint32_t pinIndex)#

Gets the external wakeup source flag.

This function checks the external pin flag to detect whether the MCU is woken up by the specific pin.

Parameters:

base – LLWU peripheral base address.
pinIndex – A pin index, which starts from 1.

Returns:

True if the specific pin is a wakeup source.

void LLWU_ClearExternalWakeupPinFlag(LLWU_Type *base, uint32_t pinIndex)#

Clears the external wakeup source flag.

This function clears the external wakeup source flag for a specific pin.

Parameters:

base – LLWU peripheral base address.
pinIndex – A pin index, which starts from 1.

static inline void LLWU_EnableInternalModuleInterruptWakup(LLWU_Type *base, uint32_t moduleIndex, bool enable)#

Enables/disables the internal module source.

This function enables/disables the internal module source mode that is used as a wake up source.

Parameters:

base – LLWU peripheral base address.
moduleIndex – A module index to be enabled as an internal wakeup source starting from 1.
enable – An enable or a disable setting

static inline void LLWU_EnableInternalModuleDmaRequestWakup(LLWU_Type *base, uint32_t moduleIndex, bool enable)#

Enables/disables the internal module DMA wakeup source.

This function enables/disables the internal DMA that is used as a wake up source.

Parameters:

base – LLWU peripheral base address.
moduleIndex – An internal module index which is used as a DMA request source, starting from 1.
enable – Enable or disable the DMA request source

void LLWU_SetPinFilterMode(LLWU_Type *base, uint32_t filterIndex, llwu_external_pin_filter_mode_t filterMode)#

Sets the pin filter configuration.

This function sets the pin filter configuration.

Parameters:

base – LLWU peripheral base address.
filterIndex – A pin filter index used to enable/disable the digital filter, starting from 1.
filterMode – A filter mode configuration

bool LLWU_GetPinFilterFlag(LLWU_Type *base, uint32_t filterIndex)#

Gets the pin filter configuration.

This function gets the pin filter flag.

Parameters:

base – LLWU peripheral base address.
filterIndex – A pin filter index, which starts from 1.

Returns:

True if the flag is a source of the existing low-leakage power mode.

void LLWU_ClearPinFilterFlag(LLWU_Type *base, uint32_t filterIndex)#

Clears the pin filter configuration.

This function clears the pin filter flag.

Parameters:

base – LLWU peripheral base address.
filterIndex – A pin filter index to clear the flag, starting from 1.

void LLWU_SetResetPinMode(LLWU_Type *base, bool pinEnable, bool pinFilterEnable)#

Sets the reset pin mode.

This function determines how the reset pin is used as a low leakage mode exit source.

Parameters:

base – LLWU peripheral base address.
pinEnable – Enable reset the pin filter
pinFilterEnable – Specify whether the pin filter is enabled in Low-Leakage power mode.

FSL_LLWU_DRIVER_VERSION#: LLWU driver version.

enum _llwu_external_pin_mode#

External input pin control modes.

Values:

enumerator kLLWU_ExternalPinDisable#: Pin disabled as a wakeup input.

enumerator kLLWU_ExternalPinRisingEdge#: Pin enabled with the rising edge detection.

enumerator kLLWU_ExternalPinFallingEdge#: Pin enabled with the falling edge detection.

enumerator kLLWU_ExternalPinAnyEdge#: Pin enabled with any change detection.

enum _llwu_pin_filter_mode#

Digital filter control modes.

Values:

enumerator kLLWU_PinFilterDisable#: Filter disabled.

enumerator kLLWU_PinFilterRisingEdge#: Filter positive edge detection.

enumerator kLLWU_PinFilterFallingEdge#: Filter negative edge detection.

enumerator kLLWU_PinFilterAnyEdge#: Filter any edge detection.

typedef enum _llwu_external_pin_mode llwu_external_pin_mode_t#: External input pin control modes.

typedef enum _llwu_pin_filter_mode llwu_pin_filter_mode_t#: Digital filter control modes.

typedef struct _llwu_version_id llwu_version_id_t#: IP version ID definition.

typedef struct _llwu_param llwu_param_t#: IP parameter definition.

typedef struct _llwu_external_pin_filter_mode llwu_external_pin_filter_mode_t#: An external input pin filter control structure.

LLWU_REG_VAL(x)#

struct _llwu_version_id#

#include <fsl_llwu.h>

IP version ID definition.

Public Members

uint16_t feature#: A feature specification number.

uint8_t minor#: The minor version number.

uint8_t major#: The major version number.

struct _llwu_param#

#include <fsl_llwu.h>

IP parameter definition.

Public Members

uint8_t filters#: A number of the pin filter.

uint8_t dmas#: A number of the wakeup DMA.

uint8_t modules#: A number of the wakeup module.

uint8_t pins#: A number of the wake up pin.

struct _llwu_external_pin_filter_mode#

#include <fsl_llwu.h>

An external input pin filter control structure.

Public Members

uint32_t pinIndex#: A pin number

llwu_pin_filter_mode_t filterMode#: Filter mode

LPTMR: Low-Power Timer#

void LPTMR_Init(LPTMR_Type *base, const lptmr_config_t *config)#

Ungates the LPTMR clock and configures the peripheral for a basic operation.

Note

This API should be called at the beginning of the application using the LPTMR driver.

Parameters:

base – LPTMR peripheral base address
config – A pointer to the LPTMR configuration structure.

void LPTMR_Deinit(LPTMR_Type *base)#

Gates the LPTMR clock.

Parameters:

base – LPTMR peripheral base address

void LPTMR_GetDefaultConfig(lptmr_config_t *config)#

Fills in the LPTMR configuration structure with default settings.

The default values are as follows.

config->timerMode = kLPTMR_TimerModeTimeCounter;
config->pinSelect = kLPTMR_PinSelectInput_0;
config->pinPolarity = kLPTMR_PinPolarityActiveHigh;
config->enableFreeRunning = false;
config->bypassPrescaler = true;
config->prescalerClockSource = kLPTMR_PrescalerClock_1;
config->value = kLPTMR_Prescale_Glitch_0;

Parameters:

config – A pointer to the LPTMR configuration structure.

static inline void LPTMR_EnableInterrupts(LPTMR_Type *base, uint32_t mask)#

Enables the selected LPTMR interrupts.

Parameters:

base – LPTMR peripheral base address
mask – The interrupts to enable. This is a logical OR of members of the enumeration lptmr_interrupt_enable_t

static inline void LPTMR_DisableInterrupts(LPTMR_Type *base, uint32_t mask)#

Disables the selected LPTMR interrupts.

Parameters:

base – LPTMR peripheral base address
mask – The interrupts to disable. This is a logical OR of members of the enumeration lptmr_interrupt_enable_t.

static inline uint32_t LPTMR_GetEnabledInterrupts(LPTMR_Type *base)#

Gets the enabled LPTMR interrupts.

Parameters:

base – LPTMR peripheral base address

Returns:

The enabled interrupts. This is the logical OR of members of the enumeration lptmr_interrupt_enable_t

static inline uint32_t LPTMR_GetStatusFlags(LPTMR_Type *base)#

Gets the LPTMR status flags.

Parameters:

base – LPTMR peripheral base address

Returns:

The status flags. This is the logical OR of members of the enumeration lptmr_status_flags_t

static inline void LPTMR_ClearStatusFlags(LPTMR_Type *base, uint32_t mask)#

Clears the LPTMR status flags.

Parameters:

base – LPTMR peripheral base address
mask – The status flags to clear. This is a logical OR of members of the enumeration lptmr_status_flags_t.

static inline void LPTMR_SetTimerPeriod(LPTMR_Type *base, uint32_t ticks)#

Sets the timer period in units of count.

Timers counts from 0 until it equals the count value set here. The count value is written to the CMR register.

Note

The TCF flag is set with the CNR equals the count provided here and then increments.
Call the utility macros provided in the fsl_common.h to convert to ticks.

Parameters:

base – LPTMR peripheral base address
ticks – A timer period in units of ticks

static inline uint32_t LPTMR_GetCurrentTimerCount(LPTMR_Type *base)#

Reads the current timer counting value.

This function returns the real-time timer counting value in a range from 0 to a timer period.

Note

Call the utility macros provided in the fsl_common.h to convert ticks to usec or msec.

Parameters:

base – LPTMR peripheral base address

Returns:

The current counter value in ticks

static inline void LPTMR_StartTimer(LPTMR_Type *base)#

Starts the timer.

After calling this function, the timer counts up to the CMR register value. Each time the timer reaches the CMR value and then increments, it generates a trigger pulse and sets the timeout interrupt flag. An interrupt is also triggered if the timer interrupt is enabled.

Parameters:

base – LPTMR peripheral base address

static inline void LPTMR_StopTimer(LPTMR_Type *base)#

Stops the timer.

This function stops the timer and resets the timer’s counter register.

Parameters:

base – LPTMR peripheral base address

FSL_LPTMR_DRIVER_VERSION#: Driver Version

enum _lptmr_pin_select#

LPTMR pin selection used in pulse counter mode.

Values:

enumerator kLPTMR_PinSelectInput_0#: Pulse counter input 0 is selected

enumerator kLPTMR_PinSelectInput_1#: Pulse counter input 1 is selected

enumerator kLPTMR_PinSelectInput_2#: Pulse counter input 2 is selected

enumerator kLPTMR_PinSelectInput_3#: Pulse counter input 3 is selected

enum _lptmr_pin_polarity#

LPTMR pin polarity used in pulse counter mode.

Values:

enumerator kLPTMR_PinPolarityActiveHigh#: Pulse Counter input source is active-high

enumerator kLPTMR_PinPolarityActiveLow#: Pulse Counter input source is active-low

enum _lptmr_timer_mode#

LPTMR timer mode selection.

Values:

enumerator kLPTMR_TimerModeTimeCounter#: Time Counter mode

enumerator kLPTMR_TimerModePulseCounter#: Pulse Counter mode

enum _lptmr_prescaler_glitch_value#

LPTMR prescaler/glitch filter values.

Values:

enumerator kLPTMR_Prescale_Glitch_0#: Prescaler divide 2, glitch filter does not support this setting

enumerator kLPTMR_Prescale_Glitch_1#: Prescaler divide 4, glitch filter 2

enumerator kLPTMR_Prescale_Glitch_2#: Prescaler divide 8, glitch filter 4

enumerator kLPTMR_Prescale_Glitch_3#: Prescaler divide 16, glitch filter 8

enumerator kLPTMR_Prescale_Glitch_4#: Prescaler divide 32, glitch filter 16

enumerator kLPTMR_Prescale_Glitch_5#: Prescaler divide 64, glitch filter 32

enumerator kLPTMR_Prescale_Glitch_6#: Prescaler divide 128, glitch filter 64

enumerator kLPTMR_Prescale_Glitch_7#: Prescaler divide 256, glitch filter 128

enumerator kLPTMR_Prescale_Glitch_8#: Prescaler divide 512, glitch filter 256

enumerator kLPTMR_Prescale_Glitch_9#: Prescaler divide 1024, glitch filter 512

enumerator kLPTMR_Prescale_Glitch_10#: Prescaler divide 2048 glitch filter 1024

enumerator kLPTMR_Prescale_Glitch_11#: Prescaler divide 4096, glitch filter 2048

enumerator kLPTMR_Prescale_Glitch_12#: Prescaler divide 8192, glitch filter 4096

enumerator kLPTMR_Prescale_Glitch_13#: Prescaler divide 16384, glitch filter 8192

enumerator kLPTMR_Prescale_Glitch_14#: Prescaler divide 32768, glitch filter 16384

enumerator kLPTMR_Prescale_Glitch_15#: Prescaler divide 65536, glitch filter 32768

enum _lptmr_prescaler_clock_select#

LPTMR prescaler/glitch filter clock select.

Note

Clock connections are SoC-specific

Values:

enum _lptmr_interrupt_enable#

List of the LPTMR interrupts.

Values:

enumerator kLPTMR_TimerInterruptEnable#: Timer interrupt enable

enum _lptmr_status_flags#

List of the LPTMR status flags.

Values:

enumerator kLPTMR_TimerCompareFlag#: Timer compare flag

typedef enum _lptmr_pin_select lptmr_pin_select_t#: LPTMR pin selection used in pulse counter mode.

typedef enum _lptmr_pin_polarity lptmr_pin_polarity_t#: LPTMR pin polarity used in pulse counter mode.

typedef enum _lptmr_timer_mode lptmr_timer_mode_t#: LPTMR timer mode selection.

typedef enum _lptmr_prescaler_glitch_value lptmr_prescaler_glitch_value_t#: LPTMR prescaler/glitch filter values.

typedef enum _lptmr_prescaler_clock_select lptmr_prescaler_clock_select_t#: LPTMR prescaler/glitch filter clock select.

Note

Clock connections are SoC-specific

typedef enum _lptmr_interrupt_enable lptmr_interrupt_enable_t#: List of the LPTMR interrupts.

typedef enum _lptmr_status_flags lptmr_status_flags_t#: List of the LPTMR status flags.

typedef struct _lptmr_config lptmr_config_t#

LPTMR config structure.

This structure holds the configuration settings for the LPTMR peripheral. To initialize this structure to reasonable defaults, call the LPTMR_GetDefaultConfig() function and pass a pointer to your configuration structure instance.

The configuration struct can be made constant so it resides in flash.

static inline void LPTMR_EnableTimerDMA(LPTMR_Type *base, bool enable)#

Enable or disable timer DMA request.

Toggles CSR[TDRE] on the LPTMR side only: when enabled, every compare event (CSR[TCF]=1) raises an LPTMR DMA request line which is auto-cleared after the DMA controller services it.

Note

LPTMR runs on a low-power clock that is asynchronous to the EDMA bus clock. On some EDMA IP variants the channel has TWO gates that must BOTH be opened for an LPTMR request to be accepted: the base hardware request gate (ERQ, opened by EDMA_EnableChannelRequest()) and an extra asynchronous-request gate (opened by EDMA_EnableAsyncRequest() on EDMA4; the classic EDMA + DMAMUX combination does not need this).

Parameters:

base – base LPTMR peripheral base address
enable – Switcher of timer DMA feature. “true” means to enable, “false” means to disable.

struct _lptmr_config#

#include <fsl_lptmr.h>

LPTMR config structure.

The configuration struct can be made constant so it resides in flash.

Public Members

lptmr_timer_mode_t timerMode#: Time counter mode or pulse counter mode

lptmr_pin_select_t pinSelect#: LPTMR pulse input pin select; used only in pulse counter mode

lptmr_pin_polarity_t pinPolarity#: LPTMR pulse input pin polarity; used only in pulse counter mode

bool enableFreeRunning#: True: enable free running, counter is reset on overflow False: counter is reset when the compare flag is set

bool bypassPrescaler#: True: bypass prescaler; false: use clock from prescaler

lptmr_prescaler_clock_select_t prescalerClockSource#: LPTMR clock source

lptmr_prescaler_glitch_value_t value#: Prescaler or glitch filter value

LPUART: Low Power Universal Asynchronous Receiver/Transmitter Driver#

LPUART Driver#

static inline void LPUART_SoftwareReset(LPUART_Type *base)#

Resets the LPUART using software.

This function resets all internal logic and registers except the Global Register. Remains set until cleared by software.

Parameters:

base – LPUART peripheral base address.

status_t LPUART_Init(LPUART_Type *base, const lpuart_config_t *config, uint32_t srcClock_Hz)#

Initializes an LPUART instance with the user configuration structure and the peripheral clock.

This function configures the LPUART module with user-defined settings. Call the LPUART_GetDefaultConfig() function to configure the configuration structure and get the default configuration. The example below shows how to use this API to configure the LPUART.

lpuart_config_t lpuartConfig;
lpuartConfig.baudRate_Bps = 115200U;
lpuartConfig.parityMode = kLPUART_ParityDisabled;
lpuartConfig.dataBitsCount = kLPUART_EightDataBits;
lpuartConfig.isMsb = false;
lpuartConfig.stopBitCount = kLPUART_OneStopBit;
lpuartConfig.txFifoWatermark = 0;
lpuartConfig.rxFifoWatermark = 1;
LPUART_Init(LPUART1, &lpuartConfig, 20000000U);

Parameters:

base – LPUART peripheral base address.
config – Pointer to a user-defined configuration structure.
srcClock_Hz – LPUART clock source frequency in HZ.

Return values:

kStatus_LPUART_BaudrateNotSupport – Baudrate is not support in current clock source.
kStatus_Success – LPUART initialize succeed

status_t LPUART_Deinit(LPUART_Type *base)#

Deinitializes a LPUART instance.

This function waits for transmit to complete, disables TX and RX, and disables the LPUART clock.

Parameters:

base – LPUART peripheral base address.

Return values:

kStatus_Success – Deinit is success.
kStatus_LPUART_Timeout – Timeout during deinit.

void LPUART_GetDefaultConfig(lpuart_config_t *config)#

Gets the default configuration structure.

This function initializes the LPUART configuration structure to a default value. The default values are: lpuartConfig->baudRate_Bps = 115200U; lpuartConfig->parityMode = kLPUART_ParityDisabled; lpuartConfig->dataBitsCount = kLPUART_EightDataBits; lpuartConfig->isMsb = false; lpuartConfig->stopBitCount = kLPUART_OneStopBit; lpuartConfig->txFifoWatermark = 0; lpuartConfig->rxFifoWatermark = 1; lpuartConfig->rxIdleType = kLPUART_IdleTypeStartBit; lpuartConfig->rxIdleConfig = kLPUART_IdleCharacter1; lpuartConfig->enableTx = false; lpuartConfig->enableRx = false;

Parameters:

config – Pointer to a configuration structure.

status_t LPUART_SetBaudRate(LPUART_Type *base, uint32_t baudRate_Bps, uint32_t srcClock_Hz)#

Sets the LPUART instance baudrate.

This function configures the LPUART module baudrate. This function is used to update the LPUART module baudrate after the LPUART module is initialized by the LPUART_Init.

LPUART_SetBaudRate(LPUART1, 115200U, 20000000U);

Parameters:

base – LPUART peripheral base address.
baudRate_Bps – LPUART baudrate to be set.
srcClock_Hz – LPUART clock source frequency in HZ.

Return values:

kStatus_LPUART_BaudrateNotSupport – Baudrate is not supported in the current clock source.
kStatus_Success – Set baudrate succeeded.

void LPUART_Enable9bitMode(LPUART_Type *base, bool enable)#

Enable 9-bit data mode for LPUART.

This function set the 9-bit mode for LPUART module. The 9th bit is not used for parity thus can be modified by user.

Parameters:

base – LPUART peripheral base address.
enable – true to enable, flase to disable.

static inline void LPUART_SetMatchAddress(LPUART_Type *base, uint16_t address1, uint16_t address2)#

Set the LPUART address.

This function configures the address for LPUART module that works as slave in 9-bit data mode. One or two address fields can be configured. When the address field’s match enable bit is set, the frame it receices with MSB being 1 is considered as an address frame, otherwise it is considered as data frame. Once the address frame matches one of slave’s own addresses, this slave is addressed. This address frame and its following data frames are stored in the receive buffer, otherwise the frames will be discarded. To un-address a slave, just send an address frame with unmatched address.

Note

Any LPUART instance joined in the multi-slave system can work as slave. The position of the address mark is the same as the parity bit when parity is enabled for 8 bit and 9 bit data formats.

Parameters:

base – LPUART peripheral base address.
address1 – LPUART slave address1.
address2 – LPUART slave address2.

static inline void LPUART_EnableMatchAddress(LPUART_Type *base, bool match1, bool match2)#

Enable the LPUART match address feature.

Parameters:

base – LPUART peripheral base address.
match1 – true to enable match address1, false to disable.
match2 – true to enable match address2, false to disable.

static inline void LPUART_SetRxFifoWatermark(LPUART_Type *base, uint8_t water)#

Sets the rx FIFO watermark.

Parameters:

base – LPUART peripheral base address.
water – Rx FIFO watermark.

static inline void LPUART_SetTxFifoWatermark(LPUART_Type *base, uint8_t water)#

Sets the tx FIFO watermark.

Parameters:

base – LPUART peripheral base address.
water – Tx FIFO watermark.

static inline void LPUART_TransferEnable16Bit(lpuart_handle_t *handle, bool enable)#

Sets the LPUART using 16bit transmit, only for 9bit or 10bit mode.

This function Enable 16bit Data transmit in lpuart_handle_t.

Parameters:

handle – LPUART handle pointer.
enable – true to enable, false to disable.

uint32_t LPUART_GetStatusFlags(LPUART_Type *base)#

Gets LPUART status flags.

This function gets all LPUART status flags. The flags are returned as the logical OR value of the enumerators _lpuart_flags. To check for a specific status, compare the return value with enumerators in the _lpuart_flags. For example, to check whether the TX is empty:

if (kLPUART_TxDataRegEmptyFlag & LPUART_GetStatusFlags(LPUART1))
{
    ...
}

Parameters:

base – LPUART peripheral base address.

Returns:

LPUART status flags which are ORed by the enumerators in the _lpuart_flags.

status_t LPUART_ClearStatusFlags(LPUART_Type *base, uint32_t mask)#

Clears status flags with a provided mask.

This function clears LPUART status flags with a provided mask. Automatically cleared flags can’t be cleared by this function. Flags that can only cleared or set by hardware are: kLPUART_TxDataRegEmptyFlag, kLPUART_TransmissionCompleteFlag, kLPUART_RxDataRegFullFlag, kLPUART_RxActiveFlag, kLPUART_NoiseErrorFlag, kLPUART_ParityErrorFlag, kLPUART_TxFifoEmptyFlag,kLPUART_RxFifoEmptyFlag Note: This API should be called when the Tx/Rx is idle, otherwise it takes no effects.

Parameters:

base – LPUART peripheral base address.
mask – the status flags to be cleared. The user can use the enumerators in the _lpuart_status_flag_t to do the OR operation and get the mask.

Return values:

kStatus_LPUART_FlagCannotClearManually – The flag can’t be cleared by this function but it is cleared automatically by hardware.
kStatus_Success – Status in the mask are cleared.

Returns:

0 succeed, others failed.

void LPUART_EnableInterrupts(LPUART_Type *base, uint32_t mask)#

Enables LPUART interrupts according to a provided mask.

This function enables the LPUART interrupts according to a provided mask. The mask is a logical OR of enumeration members. See the _lpuart_interrupt_enable. This examples shows how to enable TX empty interrupt and RX full interrupt:

LPUART_EnableInterrupts(LPUART1,kLPUART_TxDataRegEmptyInterruptEnable | kLPUART_RxDataRegFullInterruptEnable);

Parameters:

base – LPUART peripheral base address.
mask – The interrupts to enable. Logical OR of _lpuart_interrupt_enable.

void LPUART_DisableInterrupts(LPUART_Type *base, uint32_t mask)#

Disables LPUART interrupts according to a provided mask.

This function disables the LPUART interrupts according to a provided mask. The mask is a logical OR of enumeration members. See _lpuart_interrupt_enable. This example shows how to disable the TX empty interrupt and RX full interrupt:

LPUART_DisableInterrupts(LPUART1,kLPUART_TxDataRegEmptyInterruptEnable | kLPUART_RxDataRegFullInterruptEnable);

Parameters:

base – LPUART peripheral base address.
mask – The interrupts to disable. Logical OR of _lpuart_interrupt_enable.

uint32_t LPUART_GetEnabledInterrupts(LPUART_Type *base)#

Gets enabled LPUART interrupts.

This function gets the enabled LPUART interrupts. The enabled interrupts are returned as the logical OR value of the enumerators _lpuart_interrupt_enable. To check a specific interrupt enable status, compare the return value with enumerators in _lpuart_interrupt_enable. For example, to check whether the TX empty interrupt is enabled:

uint32_t enabledInterrupts = LPUART_GetEnabledInterrupts(LPUART1);

if (kLPUART_TxDataRegEmptyInterruptEnable & enabledInterrupts)
{
    ...
}

Parameters:

base – LPUART peripheral base address.

Returns:

LPUART interrupt flags which are logical OR of the enumerators in _lpuart_interrupt_enable.

static inline uintptr_t LPUART_GetDataRegisterAddress(LPUART_Type *base)#

Gets the LPUART data register address.

This function returns the LPUART data register address, which is mainly used by the DMA/eDMA.

Parameters:

base – LPUART peripheral base address.

Returns:

LPUART data register addresses which are used both by the transmitter and receiver.

static inline void LPUART_EnableTxDMA(LPUART_Type *base, bool enable)#

Enables or disables the LPUART transmitter DMA request.

This function enables or disables the transmit data register empty flag, STAT[TDRE], to generate DMA requests.

Parameters:

base – LPUART peripheral base address.
enable – True to enable, false to disable.

static inline void LPUART_EnableRxDMA(LPUART_Type *base, bool enable)#

Enables or disables the LPUART receiver DMA.

This function enables or disables the receiver data register full flag, STAT[RDRF], to generate DMA requests.

Parameters:

base – LPUART peripheral base address.
enable – True to enable, false to disable.

uint32_t LPUART_GetInstance(LPUART_Type *base)#

Get the LPUART instance from peripheral base address.

Parameters:

base – LPUART peripheral base address.

Returns:

LPUART instance.

static inline void LPUART_EnableTx(LPUART_Type *base, bool enable)#

Enables or disables the LPUART transmitter.

This function enables or disables the LPUART transmitter.

Parameters:

base – LPUART peripheral base address.
enable – True to enable, false to disable.

static inline void LPUART_EnableRx(LPUART_Type *base, bool enable)#

Enables or disables the LPUART receiver.

This function enables or disables the LPUART receiver.

Parameters:

base – LPUART peripheral base address.
enable – True to enable, false to disable.

static inline void LPUART_WriteByte(LPUART_Type *base, uint8_t data)#

Writes to the transmitter register.

This function writes data to the transmitter register directly. The upper layer must ensure that the TX register is empty or that the TX FIFO has room before calling this function.

Parameters:

base – LPUART peripheral base address.
data – Data write to the TX register.

static inline uint8_t LPUART_ReadByte(LPUART_Type *base)#

Reads the receiver register.

This function reads data from the receiver register directly. The upper layer must ensure that the receiver register is full or that the RX FIFO has data before calling this function.

Parameters:

base – LPUART peripheral base address.

Returns:

Data read from data register.

static inline uint8_t LPUART_GetRxFifoCount(LPUART_Type *base)#

Gets the rx FIFO data count.

Parameters:

base – LPUART peripheral base address.

Returns:

rx FIFO data count.

static inline uint8_t LPUART_GetTxFifoCount(LPUART_Type *base)#

Gets the tx FIFO data count.

Parameters:

base – LPUART peripheral base address.

Returns:

tx FIFO data count.

void LPUART_SendAddress(LPUART_Type *base, uint8_t address)#

Transmit an address frame in 9-bit data mode.

Parameters:

base – LPUART peripheral base address.
address – LPUART slave address.

status_t LPUART_WriteBlocking(LPUART_Type *base, const uint8_t *data, size_t length)#

Writes to the transmitter register using a blocking method.

This function polls the transmitter register, first waits for the register to be empty or TX FIFO to have room, and writes data to the transmitter buffer, then waits for the dat to be sent out to the bus.

Parameters:

base – LPUART peripheral base address.
data – Start address of the data to write.
length – Size of the data to write.

Return values:

kStatus_LPUART_Timeout – Transmission timed out and was aborted.
kStatus_Success – Successfully wrote all data.

status_t LPUART_WriteBlocking16bit(LPUART_Type *base, const uint16_t *data, size_t length)#

Writes to the transmitter register using a blocking method in 9bit or 10bit mode.

Note

This function only support 9bit or 10bit transfer. Please make sure only 10bit of data is valid and other bits are 0.

Parameters:

base – LPUART peripheral base address.
data – Start address of the data to write.
length – Size of the data to write.

Return values:

kStatus_LPUART_Timeout – Transmission timed out and was aborted.
kStatus_Success – Successfully wrote all data.

status_t LPUART_ReadBlocking(LPUART_Type *base, uint8_t *data, size_t length)#

Reads the receiver data register using a blocking method.

This function polls the receiver register, waits for the receiver register full or receiver FIFO has data, and reads data from the TX register.

Parameters:

base – LPUART peripheral base address.
data – Start address of the buffer to store the received data.
length – Size of the buffer.

Return values:

kStatus_LPUART_RxHardwareOverrun – Receiver overrun happened while receiving data.
kStatus_LPUART_NoiseError – Noise error happened while receiving data.
kStatus_LPUART_FramingError – Framing error happened while receiving data.
kStatus_LPUART_ParityError – Parity error happened while receiving data.
kStatus_LPUART_Timeout – Transmission timed out and was aborted.
kStatus_Success – Successfully received all data.

status_t LPUART_ReadBlocking16bit(LPUART_Type *base, uint16_t *data, size_t length)#

Reads the receiver data register in 9bit or 10bit mode.

Note

This function only support 9bit or 10bit transfer.

Parameters:

base – LPUART peripheral base address.
data – Start address of the buffer to store the received data by 16bit, only 10bit is valid.
length – Size of the buffer.

Return values:

kStatus_LPUART_RxHardwareOverrun – Receiver overrun happened while receiving data.
kStatus_LPUART_NoiseError – Noise error happened while receiving data.
kStatus_LPUART_FramingError – Framing error happened while receiving data.
kStatus_LPUART_ParityError – Parity error happened while receiving data.
kStatus_LPUART_Timeout – Transmission timed out and was aborted.
kStatus_Success – Successfully received all data.

void LPUART_TransferCreateHandle(LPUART_Type *base, lpuart_handle_t *handle, lpuart_transfer_callback_t callback, void *userData)#

Initializes the LPUART handle.

This function initializes the LPUART handle, which can be used for other LPUART transactional APIs. Usually, for a specified LPUART instance, call this API once to get the initialized handle.

The LPUART driver supports the “background” receiving, which means that user can set up an RX ring buffer optionally. Data received is stored into the ring buffer even when the user doesn’t call the LPUART_TransferReceiveNonBlocking() API. If there is already data received in the ring buffer, the user can get the received data from the ring buffer directly. The ring buffer is disabled if passing NULL as ringBuffer.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.
callback – Callback function.
userData – User data.

status_t LPUART_TransferSendNonBlocking(LPUART_Type *base, lpuart_handle_t *handle, lpuart_transfer_t *xfer)#

Transmits a buffer of data using the interrupt method.

This function send data using an interrupt method. This is a non-blocking function, which returns directly without waiting for all data written to the transmitter register. When all data is written to the TX register in the ISR, the LPUART driver calls the callback function and passes the kStatus_LPUART_TxIdle as status parameter.

Note

The kStatus_LPUART_TxIdle is passed to the upper layer when all data are written to the TX register. However, there is no check to ensure that all the data sent out. Before disabling the TX, check the kLPUART_TransmissionCompleteFlag to ensure that the transmit is finished.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.
xfer – LPUART transfer structure, see lpuart_transfer_t.

Return values:

kStatus_Success – Successfully start the data transmission.
kStatus_LPUART_TxBusy – Previous transmission still not finished, data not all written to the TX register.
kStatus_InvalidArgument – Invalid argument.

void LPUART_TransferStartRingBuffer(LPUART_Type *base, lpuart_handle_t *handle, uint8_t *ringBuffer, size_t ringBufferSize)#

Sets up the RX ring buffer.

This function sets up the RX ring buffer to a specific UART handle.

When the RX ring buffer is used, data received is stored into the ring buffer even when the user doesn’t call the UART_TransferReceiveNonBlocking() API. If there is already data received in the ring buffer, the user can get the received data from the ring buffer directly.

Note

When using RX ring buffer, one byte is reserved for internal use. In other words, if ringBufferSize is 32, then only 31 bytes are used for saving data.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.
ringBuffer – Start address of ring buffer for background receiving. Pass NULL to disable the ring buffer.
ringBufferSize – size of the ring buffer.

void LPUART_TransferStopRingBuffer(LPUART_Type *base, lpuart_handle_t *handle)#

Aborts the background transfer and uninstalls the ring buffer.

This function aborts the background transfer and uninstalls the ring buffer.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.

size_t LPUART_TransferGetRxRingBufferLength(LPUART_Type *base, lpuart_handle_t *handle)#

Get the length of received data in RX ring buffer.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.

Returns:

Length of received data in RX ring buffer.

void LPUART_TransferAbortSend(LPUART_Type *base, lpuart_handle_t *handle)#

Aborts the interrupt-driven data transmit.

This function aborts the interrupt driven data sending. The user can get the remainBtyes to find out how many bytes are not sent out.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.

status_t LPUART_TransferGetSendCount(LPUART_Type *base, lpuart_handle_t *handle, uint32_t *count)#

Gets the number of bytes that have been sent out to bus.

This function gets the number of bytes that have been sent out to bus by an interrupt method.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.
count – Send bytes count.

Return values:

kStatus_NoTransferInProgress – No send in progress.
kStatus_InvalidArgument – Parameter is invalid.
kStatus_Success – Get successfully through the parameter count;

status_t LPUART_TransferReceiveNonBlocking(LPUART_Type *base, lpuart_handle_t *handle, lpuart_transfer_t *xfer, size_t *receivedBytes)#

Receives a buffer of data using the interrupt method.

This function receives data using an interrupt method. This is a non-blocking function which returns without waiting to ensure that all data are received. If the RX ring buffer is used and not empty, the data in the ring buffer is copied and the parameter receivedBytes shows how many bytes are copied from the ring buffer. After copying, if the data in the ring buffer is not enough for read, the receive request is saved by the LPUART driver. When the new data arrives, the receive request is serviced first. When all data is received, the LPUART driver notifies the upper layer through a callback function and passes a status parameter kStatus_UART_RxIdle. For example, the upper layer needs 10 bytes but there are only 5 bytes in ring buffer. The 5 bytes are copied to xfer->data, which returns with the parameter receivedBytes set to 5. For the remaining 5 bytes, the newly arrived data is saved from xfer->data[5]. When 5 bytes are received, the LPUART driver notifies the upper layer. If the RX ring buffer is not enabled, this function enables the RX and RX interrupt to receive data to xfer->data. When all data is received, the upper layer is notified.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.
xfer – LPUART transfer structure, see uart_transfer_t.
receivedBytes – Bytes received from the ring buffer directly.

Return values:

kStatus_Success – Successfully queue the transfer into the transmit queue.
kStatus_LPUART_RxBusy – Previous receive request is not finished.
kStatus_InvalidArgument – Invalid argument.

void LPUART_TransferAbortReceive(LPUART_Type *base, lpuart_handle_t *handle)#

Aborts the interrupt-driven data receiving.

This function aborts the interrupt-driven data receiving. The user can get the remainBytes to find out how many bytes not received yet.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.

status_t LPUART_TransferGetReceiveCount(LPUART_Type *base, lpuart_handle_t *handle, uint32_t *count)#

Gets the number of bytes that have been received.

This function gets the number of bytes that have been received.

Parameters:

base – LPUART peripheral base address.
handle – LPUART handle pointer.
count – Receive bytes count.

Return values:

kStatus_NoTransferInProgress – No receive in progress.
kStatus_InvalidArgument – Parameter is invalid.
kStatus_Success – Get successfully through the parameter count;

void LPUART_TransferHandleIRQ(LPUART_Type *base, void *irqHandle)#

LPUART IRQ handle function.

This function handles the LPUART transmit and receive IRQ request.

Parameters:

base – LPUART peripheral base address.
irqHandle – LPUART handle pointer.

void LPUART_TransferHandleErrorIRQ(LPUART_Type *base, void *irqHandle)#

LPUART Error IRQ handle function.

This function handles the LPUART error IRQ request.

Parameters:

base – LPUART peripheral base address.
irqHandle – LPUART handle pointer.

void LPUART_DriverIRQHandler(uint32_t instance)#

LPUART driver IRQ handler common entry.

This function provides the common IRQ request entry for LPUART.

Parameters:

instance – LPUART instance.

FSL_LPUART_DRIVER_VERSION#: LPUART driver version.

Error codes for the LPUART driver.

Values:

enumerator kStatus_LPUART_TxBusy#: TX busy

enumerator kStatus_LPUART_RxBusy#: RX busy

enumerator kStatus_LPUART_TxIdle#: LPUART transmitter is idle.

enumerator kStatus_LPUART_RxIdle#: LPUART receiver is idle.

enumerator kStatus_LPUART_TxWatermarkTooLarge#: TX FIFO watermark too large

enumerator kStatus_LPUART_RxWatermarkTooLarge#: RX FIFO watermark too large

enumerator kStatus_LPUART_FlagCannotClearManually#: Some flag can’t manually clear

enumerator kStatus_LPUART_Error#: Error happens on LPUART.

enumerator kStatus_LPUART_RxRingBufferOverrun#: LPUART RX software ring buffer overrun.

enumerator kStatus_LPUART_RxHardwareOverrun#: LPUART RX receiver overrun.

enumerator kStatus_LPUART_NoiseError#: LPUART noise error.

enumerator kStatus_LPUART_FramingError#: LPUART framing error.

enumerator kStatus_LPUART_ParityError#: LPUART parity error.

enumerator kStatus_LPUART_BaudrateNotSupport#: Baudrate is not support in current clock source

enumerator kStatus_LPUART_IdleLineDetected#: IDLE flag.

enumerator kStatus_LPUART_Timeout#: LPUART times out.

enum _lpuart_parity_mode#

LPUART parity mode.

Values:

enumerator kLPUART_ParityDisabled#: Parity disabled

enumerator kLPUART_ParityEven#: Parity enabled, type even, bit setting: PE|PT = 10

enumerator kLPUART_ParityOdd#: Parity enabled, type odd, bit setting: PE|PT = 11

enum _lpuart_data_bits#

LPUART data bits count.

Values:

enumerator kLPUART_EightDataBits#: Eight data bit

enumerator kLPUART_SevenDataBits#: Seven data bit

enum _lpuart_stop_bit_count#

LPUART stop bit count.

Values:

enumerator kLPUART_OneStopBit#: One stop bit

enumerator kLPUART_TwoStopBit#: Two stop bits

enum _lpuart_transmit_cts_source#

LPUART transmit CTS source.

Values:

enumerator kLPUART_CtsSourcePin#: CTS resource is the LPUART_CTS pin.

enumerator kLPUART_CtsSourceMatchResult#: CTS resource is the match result.

enum _lpuart_transmit_cts_config#

LPUART transmit CTS configure.

Values:

enumerator kLPUART_CtsSampleAtStart#: CTS input is sampled at the start of each character.

enumerator kLPUART_CtsSampleAtIdle#: CTS input is sampled when the transmitter is idle

enum _lpuart_transmit_rts_polarity#

LPUART transmitter RTS polarity.

Values:

enumerator kLPUART_RtsPolarityLow#: Transmitter RTS is active low.

enumerator kLPUART_RtsPolarityHigh#: Transmitter RTS is active high.

enum _lpuart_idle_type_select#

LPUART idle flag type defines when the receiver starts counting.

Values:

enumerator kLPUART_IdleTypeStartBit#: Start counting after a valid start bit.

enumerator kLPUART_IdleTypeStopBit#: Start counting after a stop bit.

enum _lpuart_idle_config#

LPUART idle detected configuration. This structure defines the number of idle characters that must be received before the IDLE flag is set.

Values:

enumerator kLPUART_IdleCharacter1#: the number of idle characters.

enumerator kLPUART_IdleCharacter2#: the number of idle characters.

enumerator kLPUART_IdleCharacter4#: the number of idle characters.

enumerator kLPUART_IdleCharacter8#: the number of idle characters.

enumerator kLPUART_IdleCharacter16#: the number of idle characters.

enumerator kLPUART_IdleCharacter32#: the number of idle characters.

enumerator kLPUART_IdleCharacter64#: the number of idle characters.

enumerator kLPUART_IdleCharacter128#: the number of idle characters.

enum _lpuart_interrupt_enable#

LPUART interrupt configuration structure, default settings all disabled.

This structure contains the settings for all LPUART interrupt configurations.

Values:

enumerator kLPUART_LinBreakInterruptEnable#: LIN break detect. bit 7

enumerator kLPUART_RxActiveEdgeInterruptEnable#: Receive Active Edge. bit 6

enumerator kLPUART_TxDataRegEmptyInterruptEnable#: Transmit data register empty. bit 23

enumerator kLPUART_TransmissionCompleteInterruptEnable#: Transmission complete. bit 22

enumerator kLPUART_RxDataRegFullInterruptEnable#: Receiver data register full. bit 21

enumerator kLPUART_IdleLineInterruptEnable#: Idle line. bit 20

enumerator kLPUART_RxOverrunInterruptEnable#: Receiver Overrun. bit 27

enumerator kLPUART_NoiseErrorInterruptEnable#: Noise error flag. bit 26

enumerator kLPUART_FramingErrorInterruptEnable#: Framing error flag. bit 25

enumerator kLPUART_ParityErrorInterruptEnable#: Parity error flag. bit 24

enumerator kLPUART_Match1InterruptEnable#: Parity error flag. bit 15

enumerator kLPUART_Match2InterruptEnable#: Parity error flag. bit 14

enumerator kLPUART_TxFifoOverflowInterruptEnable#: Transmit FIFO Overflow. bit 9

enumerator kLPUART_RxFifoUnderflowInterruptEnable#: Receive FIFO Underflow. bit 8

enumerator kLPUART_AllInterruptEnable#

enum _lpuart_flags#

LPUART status flags.

This provides constants for the LPUART status flags for use in the LPUART functions.

Values:

enumerator kLPUART_TxDataRegEmptyFlag#: Transmit data register empty flag, sets when transmit buffer is empty. bit 23

enumerator kLPUART_TransmissionCompleteFlag#: Transmission complete flag, sets when transmission activity complete. bit 22

enumerator kLPUART_RxDataRegFullFlag#: Receive data register full flag, sets when the receive data buffer is full. bit 21

enumerator kLPUART_IdleLineFlag#: Idle line detect flag, sets when idle line detected. bit 20

enumerator kLPUART_RxOverrunFlag#: Receive Overrun, sets when new data is received before data is read from receive register. bit 19

enumerator kLPUART_NoiseErrorFlag#: Receive takes 3 samples of each received bit. If any of these samples differ, noise flag sets. bit 18

enumerator kLPUART_FramingErrorFlag#: Frame error flag, sets if logic 0 was detected where stop bit expected. bit 17

enumerator kLPUART_ParityErrorFlag#: If parity enabled, sets upon parity error detection. bit 16

enumerator kLPUART_LinBreakFlag#: LIN break detect interrupt flag, sets when LIN break char detected and LIN circuit enabled. bit 31

enumerator kLPUART_RxActiveEdgeFlag#: Receive pin active edge interrupt flag, sets when active edge detected. bit 30

enumerator kLPUART_RxActiveFlag#: Receiver Active Flag (RAF), sets at beginning of valid start. bit 24

enumerator kLPUART_DataMatch1Flag#: The next character to be read from LPUART_DATA matches MA1. bit 15

enumerator kLPUART_DataMatch2Flag#: The next character to be read from LPUART_DATA matches MA2. bit 14

enumerator kLPUART_TxFifoEmptyFlag#: TXEMPT bit, sets if transmit buffer is empty. bit 7

enumerator kLPUART_RxFifoEmptyFlag#: RXEMPT bit, sets if receive buffer is empty. bit 6

enumerator kLPUART_TxFifoOverflowFlag#: TXOF bit, sets if transmit buffer overflow occurred. bit 1

enumerator kLPUART_RxFifoUnderflowFlag#: RXUF bit, sets if receive buffer underflow occurred. bit 0

enumerator kLPUART_AllClearFlags#

enumerator kLPUART_AllFlags#

typedef enum _lpuart_parity_mode lpuart_parity_mode_t#: LPUART parity mode.

typedef enum _lpuart_data_bits lpuart_data_bits_t#: LPUART data bits count.

typedef enum _lpuart_stop_bit_count lpuart_stop_bit_count_t#: LPUART stop bit count.

typedef enum _lpuart_transmit_cts_source lpuart_transmit_cts_source_t#: LPUART transmit CTS source.

typedef enum _lpuart_transmit_cts_config lpuart_transmit_cts_config_t#: LPUART transmit CTS configure.

typedef enum _lpuart_transmit_rts_polarity lpuart_transmit_rts_polarity_t#: LPUART transmitter RTS polarity.

typedef enum _lpuart_idle_type_select lpuart_idle_type_select_t#: LPUART idle flag type defines when the receiver starts counting.

typedef enum _lpuart_idle_config lpuart_idle_config_t#: LPUART idle detected configuration. This structure defines the number of idle characters that must be received before the IDLE flag is set.

typedef struct _lpuart_config lpuart_config_t#: LPUART configuration structure.

typedef struct _lpuart_transfer lpuart_transfer_t#: LPUART transfer structure.

typedef struct _lpuart_handle lpuart_handle_t#

typedef void (*lpuart_transfer_callback_t)(LPUART_Type *base, lpuart_handle_t *handle, status_t status, void *userData)#: LPUART transfer callback function.

typedef void (*lpuart_isr_t)(LPUART_Type *base, void *handle)#

void *s_lpuartHandle[]#

const IRQn_Type s_lpuartTxIRQ[]#

lpuart_isr_t s_lpuartIsr[]#

UART_RETRY_TIMES#: Retry times for waiting flag.

struct _lpuart_config#

#include <fsl_lpuart.h>

LPUART configuration structure.

Public Members

uint32_t baudRate_Bps#: LPUART baud rate

lpuart_parity_mode_t parityMode#: Parity mode, disabled (default), even, odd

lpuart_data_bits_t dataBitsCount#: Data bits count, eight (default), seven

bool isMsb#: Data bits order, LSB (default), MSB

lpuart_stop_bit_count_t stopBitCount#: Number of stop bits, 1 stop bit (default) or 2 stop bits

uint8_t txFifoWatermark#: TX FIFO watermark

uint8_t rxFifoWatermark#: RX FIFO watermark

bool enableRxRTS#: RX RTS enable

bool enableTxRTS#: TX RTS enable

bool enableTxCTS#: TX CTS enable

lpuart_transmit_cts_source_t txCtsSource#: TX CTS source

lpuart_transmit_cts_config_t txCtsConfig#: TX CTS configure

lpuart_transmit_rts_polarity_t txRtsPolarity#: TX RTS polarity

uint8_t rtsWatermark#: RTS watermark

lpuart_idle_type_select_t rxIdleType#: RX IDLE type.

lpuart_idle_config_t rxIdleConfig#: RX IDLE configuration.

bool enableTx#: Enable TX

bool enableRx#: Enable RX

bool swapTxdRxd#: Swap TXD and RXD pins

bool inverseTxd#: Transmit Data Inversion - Setting true reverses the polarity of the transmitted data output

struct _lpuart_transfer#

#include <fsl_lpuart.h>

LPUART transfer structure.

Public Members

size_t dataSize#: The byte count to be transfer.

struct _lpuart_handle#

#include <fsl_lpuart.h>

LPUART handle structure.

Public Members

volatile size_t txDataSize#: Size of the remaining data to send.

size_t txDataSizeAll#: Size of the data to send out.

volatile size_t rxDataSize#: Size of the remaining data to receive.

size_t rxDataSizeAll#: Size of the data to receive.

size_t rxRingBufferSize#: Size of the ring buffer.

volatile uint16_t rxRingBufferHead#: Index for the driver to store received data into ring buffer.

volatile uint16_t rxRingBufferTail#: Index for the user to get data from the ring buffer.

lpuart_transfer_callback_t callback#: Callback function.

void *userData#: LPUART callback function parameter.

volatile uint8_t txState#: TX transfer state.

volatile uint8_t rxState#: RX transfer state.

bool isSevenDataBits#: Seven data bits flag.

bool is16bitData#: 16bit data bits flag, only used for 9bit or 10bit data

union __unnamed13__#

Public Members

uint8_t *data#: The buffer of data to be transfer.

uint8_t *rxData#: The buffer to receive data.

uint16_t *rxData16#: The buffer to receive data.

const uint8_t *txData#: The buffer of data to be sent.

const uint16_t *txData16#: The buffer of data to be sent.

union __unnamed15__#

Public Members

const uint8_t *volatile txData#: Address of remaining data to send.

const uint16_t *volatile txData16#: Address of remaining data to send.

union __unnamed17__#

Public Members

uint8_t *volatile rxData#: Address of remaining data to receive.

uint16_t *volatile rxData16#: Address of remaining data to receive.

union __unnamed19__#

Public Members

uint8_t *rxRingBuffer#: Start address of the receiver ring buffer.

uint16_t *rxRingBuffer16#: Start address of the receiver ring buffer.

MCM: Miscellaneous Control Module#

FSL_MCM_DRIVER_VERSION#: MCM driver version.

Enum _mcm_interrupt_flag. Interrupt status flag mask. .

Values:

enumerator kMCM_CacheWriteBuffer#: Cache Write Buffer Error Enable.

enumerator kMCM_ParityError#: Cache Parity Error Enable.

enumerator kMCM_FPUInvalidOperation#: FPU Invalid Operation Interrupt Enable.

enumerator kMCM_FPUDivideByZero#: FPU Divide-by-zero Interrupt Enable.

enumerator kMCM_FPUOverflow#: FPU Overflow Interrupt Enable.

enumerator kMCM_FPUUnderflow#: FPU Underflow Interrupt Enable.

enumerator kMCM_FPUInexact#: FPU Inexact Interrupt Enable.

enumerator kMCM_FPUInputDenormalInterrupt#: FPU Input Denormal Interrupt Enable.

typedef union _mcm_buffer_fault_attribute mcm_buffer_fault_attribute_t#: The union of buffer fault attribute.

typedef union _mcm_lmem_fault_attribute mcm_lmem_fault_attribute_t#: The union of LMEM fault attribute.

static inline void MCM_EnableCrossbarRoundRobin(MCM_Type *base, bool enable)#

Enables/Disables crossbar round robin.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable crossbar round robin.
- true Enable crossbar round robin.
- false disable crossbar round robin.

static inline void MCM_EnableInterruptStatus(MCM_Type *base, uint32_t mask)#

Enables the interrupt.

Parameters:

base – MCM peripheral base address.
mask – Interrupt status flags mask(_mcm_interrupt_flag).

static inline void MCM_DisableInterruptStatus(MCM_Type *base, uint32_t mask)#

Disables the interrupt.

Parameters:

base – MCM peripheral base address.
mask – Interrupt status flags mask(_mcm_interrupt_flag).

static inline uint16_t MCM_GetInterruptStatus(MCM_Type *base)#

Gets the Interrupt status .

Parameters:

base – MCM peripheral base address.

static inline void MCM_ClearCacheWriteBufferErroStatus(MCM_Type *base)#

Clears the Interrupt status .

Parameters:

base – MCM peripheral base address.

static inline uint32_t MCM_GetBufferFaultAddress(MCM_Type *base)#

Gets buffer fault address.

Parameters:

base – MCM peripheral base address.

static inline void MCM_GetBufferFaultAttribute(MCM_Type *base, mcm_buffer_fault_attribute_t *bufferfault)#

Gets buffer fault attributes.

Parameters:

base – MCM peripheral base address.
bufferfault – Structure to store the result.

static inline uint32_t MCM_GetBufferFaultData(MCM_Type *base)#

Gets buffer fault data.

Parameters:

base – MCM peripheral base address.

static inline void MCM_LimitCodeCachePeripheralWriteBuffering(MCM_Type *base, bool enable)#

Limit code cache peripheral write buffering.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable limit code cache peripheral write buffering.
- true Enable limit code cache peripheral write buffering.
- false disable limit code cache peripheral write buffering.

static inline void MCM_BypassFixedCodeCacheMap(MCM_Type *base, bool enable)#

Bypass fixed code cache map.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable bypass fixed code cache map.
- true Enable bypass fixed code cache map.
- false disable bypass fixed code cache map.

static inline void MCM_EnableCodeBusCache(MCM_Type *base, bool enable)#

Enables/Disables code bus cache.

Parameters:

base – MCM peripheral base address.
enable – Used to disable/enable code bus cache.
- true Enable code bus cache.
- false disable code bus cache.

static inline void MCM_ForceCodeCacheToNoAllocation(MCM_Type *base, bool enable)#

Force code cache to no allocation.

Parameters:

base – MCM peripheral base address.
enable – Used to force code cache to allocation or no allocation.
- true Force code cache to no allocation.
- false Force code cache to allocation.

static inline void MCM_EnableCodeCacheWriteBuffer(MCM_Type *base, bool enable)#

Enables/Disables code cache write buffer.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable code cache write buffer.
- true Enable code cache write buffer.
- false Disable code cache write buffer.

static inline void MCM_ClearCodeBusCache(MCM_Type *base)#

Clear code bus cache.

Parameters:

base – MCM peripheral base address.

static inline void MCM_EnablePcParityFaultReport(MCM_Type *base, bool enable)#

Enables/Disables PC Parity Fault Report.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable PC Parity Fault Report.
- true Enable PC Parity Fault Report.
- false disable PC Parity Fault Report.

static inline void MCM_EnablePcParity(MCM_Type *base, bool enable)#

Enables/Disables PC Parity.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable PC Parity.
- true Enable PC Parity.
- false disable PC Parity.

static inline void MCM_LockConfigState(MCM_Type *base)#

Lock the configuration state.

Parameters:

base – MCM peripheral base address.

static inline void MCM_EnableCacheParityReporting(MCM_Type *base, bool enable)#

Enables/Disables cache parity reporting.

Parameters:

base – MCM peripheral base address.
enable – Used to enable/disable cache parity reporting.
- true Enable cache parity reporting.
- false disable cache parity reporting.

static inline uint32_t MCM_GetLmemFaultAddress(MCM_Type *base)#

Gets LMEM fault address.

Parameters:

base – MCM peripheral base address.

static inline void MCM_GetLmemFaultAttribute(MCM_Type *base, mcm_lmem_fault_attribute_t *lmemFault)#

Get LMEM fault attributes.

Parameters:

base – MCM peripheral base address.
lmemFault – Structure to store the result.

static inline uint64_t MCM_GetLmemFaultData(MCM_Type *base)#

Gets LMEM fault data.

Parameters:

base – MCM peripheral base address.

MCM_LMFATR_TYPE_MASK#

MCM_LMFATR_MODE_MASK#

MCM_LMFATR_BUFF_MASK#

MCM_LMFATR_CACH_MASK#

MCM_ISCR_STAT_MASK#

FSL_COMPONENT_ID#

union _mcm_buffer_fault_attribute#

#include <fsl_mcm.h>

The union of buffer fault attribute.

Public Members

uint32_t attribute#: Indicates the faulting attributes, when a properly-enabled cache write buffer error interrupt event is detected.

struct _mcm_buffer_fault_attribute._mcm_buffer_fault_attribut attribute_memory#

struct _mcm_buffer_fault_attribut#

Public Members

uint32_t busErrorDataAccessType#: Indicates the type of cache write buffer access.

uint32_t busErrorPrivilegeLevel#: Indicates the privilege level of the cache write buffer access.

uint32_t busErrorSize#: Indicates the size of the cache write buffer access.

uint32_t busErrorAccess#: Indicates the type of system bus access.

uint32_t busErrorMasterID#: Indicates the crossbar switch bus master number of the captured cache write buffer bus error.

uint32_t busErrorOverrun#: Indicates if another cache write buffer bus error is detected.

union _mcm_lmem_fault_attribute#

#include <fsl_mcm.h>

The union of LMEM fault attribute.

Public Members

uint32_t attribute#: Indicates the attributes of the LMEM fault detected.

struct _mcm_lmem_fault_attribute._mcm_lmem_fault_attribut attribute_memory#

struct _mcm_lmem_fault_attribut#

Public Members

uint32_t parityFaultProtectionSignal#: Indicates the features of parity fault protection signal.

uint32_t parityFaultMasterSize#: Indicates the parity fault master size.

uint32_t parityFaultWrite#: Indicates the parity fault is caused by read or write.

uint32_t backdoorAccess#: Indicates the LMEM access fault is initiated by core access or backdoor access.

uint32_t parityFaultSyndrome#: Indicates the parity fault syndrome.

uint32_t overrun#: Indicates the number of faultss.

PMC: Power Management Controller#

static inline void PMC_GetVersionId(PMC_Type *base, pmc_version_id_t *versionId)#

Gets the PMC version ID.

This function gets the PMC version ID, including major version number, minor version number, and a feature specification number.

Parameters:

base – PMC peripheral base address.
versionId – Pointer to version ID structure.

void PMC_GetParam(PMC_Type *base, pmc_param_t *param)#

Gets the PMC parameter.

This function gets the PMC parameter including the VLPO enable and the HVD enable.

Parameters:

base – PMC peripheral base address.
param – Pointer to PMC param structure.

void PMC_ConfigureLowVoltDetect(PMC_Type *base, const pmc_low_volt_detect_config_t *config)#

Configures the low-voltage detect setting.

This function configures the low-voltage detect setting, including the trip point voltage setting, enables or disables the interrupt, enables or disables the system reset.

Parameters:

base – PMC peripheral base address.
config – Low-voltage detect configuration structure.

static inline bool PMC_GetLowVoltDetectFlag(PMC_Type *base)#

Gets the Low-voltage Detect Flag status.

This function reads the current LVDF status. If it returns 1, a low-voltage event is detected.

Parameters:

base – PMC peripheral base address.

Returns:

Current low-voltage detect flag

true: Low-voltage detected
false: Low-voltage not detected

static inline void PMC_ClearLowVoltDetectFlag(PMC_Type *base)#

Acknowledges clearing the Low-voltage Detect flag.

This function acknowledges the low-voltage detection errors (write 1 to clear LVDF).

Parameters:

base – PMC peripheral base address.

void PMC_ConfigureLowVoltWarning(PMC_Type *base, const pmc_low_volt_warning_config_t *config)#

Configures the low-voltage warning setting.

This function configures the low-voltage warning setting, including the trip point voltage setting and enabling or disabling the interrupt.

Parameters:

base – PMC peripheral base address.
config – Low-voltage warning configuration structure.

static inline bool PMC_GetLowVoltWarningFlag(PMC_Type *base)#

Gets the Low-voltage Warning Flag status.

This function polls the current LVWF status. When 1 is returned, it indicates a low-voltage warning event. LVWF is set when V Supply transitions below the trip point or after reset and V Supply is already below the V LVW.

Parameters:

base – PMC peripheral base address.

Returns:

Current LVWF status

true: Low-voltage Warning Flag is set.
false: the Low-voltage Warning does not happen.

static inline void PMC_ClearLowVoltWarningFlag(PMC_Type *base)#

Acknowledges the Low-voltage Warning flag.

This function acknowledges the low voltage warning errors (write 1 to clear LVWF).

Parameters:

base – PMC peripheral base address.

void PMC_ConfigureHighVoltDetect(PMC_Type *base, const pmc_high_volt_detect_config_t *config)#

Configures the high-voltage detect setting.

This function configures the high-voltage detect setting, including the trip point voltage setting, enabling or disabling the interrupt, enabling or disabling the system reset.

Parameters:

base – PMC peripheral base address.
config – High-voltage detect configuration structure.

static inline bool PMC_GetHighVoltDetectFlag(PMC_Type *base)#

Gets the High-voltage Detect Flag status.

This function reads the current HVDF status. If it returns 1, a low voltage event is detected.

Parameters:

base – PMC peripheral base address.

Returns:

Current high-voltage detect flag

true: High-voltage detected
false: High-voltage not detected

static inline void PMC_ClearHighVoltDetectFlag(PMC_Type *base)#

Acknowledges clearing the High-voltage Detect flag.

This function acknowledges the high-voltage detection errors (write 1 to clear HVDF).

Parameters:

base – PMC peripheral base address.

void PMC_ConfigureBandgapBuffer(PMC_Type *base, const pmc_bandgap_buffer_config_t *config)#

Configures the PMC bandgap.

This function configures the PMC bandgap, including the drive select and behavior in low-power mode.

Parameters:

base – PMC peripheral base address.
config – Pointer to the configuration structure

static inline bool PMC_GetPeriphIOIsolationFlag(PMC_Type *base)#

Gets the acknowledge Peripherals and I/O pads isolation flag.

This function reads the Acknowledge Isolation setting that indicates whether certain peripherals and the I/O pads are in a latched state as a result of having been in the VLLS mode.

Parameters:

base – PMC peripheral base address.
base – Base address for current PMC instance.

Returns:

ACK isolation 0 - Peripherals and I/O pads are in a normal run state. 1 - Certain peripherals and I/O pads are in an isolated and latched state.

static inline void PMC_ClearPeriphIOIsolationFlag(PMC_Type *base)#

Acknowledges the isolation flag to Peripherals and I/O pads.

This function clears the ACK Isolation flag. Writing one to this setting when it is set releases the I/O pads and certain peripherals to their normal run mode state.

Parameters:

base – PMC peripheral base address.

static inline bool PMC_IsRegulatorInRunRegulation(PMC_Type *base)#

Gets the regulator regulation status.

This function returns the regulator to run a regulation status. It provides the current status of the internal voltage regulator.

Parameters:

base – PMC peripheral base address.
base – Base address for current PMC instance.

Returns:

Regulation status 0 - Regulator is in a stop regulation or in transition to/from the regulation. 1 - Regulator is in a run regulation.

FSL_PMC_DRIVER_VERSION#

PMC driver version.

Version 2.0.4.

enum _pmc_low_volt_detect_volt_select#

Low-voltage Detect Voltage Select.

Values:

enumerator kPMC_LowVoltDetectLowTrip#: Low-trip point selected (VLVD = VLVDL )

enumerator kPMC_LowVoltDetectHighTrip#: High-trip point selected (VLVD = VLVDH )

enum _pmc_low_volt_warning_volt_select#

Low-voltage Warning Voltage Select.

Values:

enumerator kPMC_LowVoltWarningLowTrip#: Low-trip point selected (VLVW = VLVW1)

enumerator kPMC_LowVoltWarningMid1Trip#: Mid 1 trip point selected (VLVW = VLVW2)

enumerator kPMC_LowVoltWarningMid2Trip#: Mid 2 trip point selected (VLVW = VLVW3)

enumerator kPMC_LowVoltWarningHighTrip#: High-trip point selected (VLVW = VLVW4)

enum _pmc_high_volt_detect_volt_select#

High-voltage Detect Voltage Select.

Values:

enumerator kPMC_HighVoltDetectLowTrip#: Low-trip point selected (VHVD = VHVDL )

enumerator kPMC_HighVoltDetectHighTrip#: High-trip point selected (VHVD = VHVDH )

enum _pmc_bandgap_buffer_drive_select#

Bandgap Buffer Drive Select.

Values:

enumerator kPMC_BandgapBufferDriveLow#: Low-drive.

enumerator kPMC_BandgapBufferDriveHigh#: High-drive.

enum _pmc_vlp_freq_option#

VLPx Option.

Values:

enumerator kPMC_FreqRestrict#: Frequency is restricted in VLPx mode.

enumerator kPMC_FreqUnrestrict#: Frequency is unrestricted in VLPx mode.

typedef enum _pmc_low_volt_detect_volt_select pmc_low_volt_detect_volt_select_t#: Low-voltage Detect Voltage Select.

typedef enum _pmc_low_volt_warning_volt_select pmc_low_volt_warning_volt_select_t#: Low-voltage Warning Voltage Select.

typedef enum _pmc_high_volt_detect_volt_select pmc_high_volt_detect_volt_select_t#: High-voltage Detect Voltage Select.

typedef enum _pmc_bandgap_buffer_drive_select pmc_bandgap_buffer_drive_select_t#: Bandgap Buffer Drive Select.

typedef enum _pmc_vlp_freq_option pmc_vlp_freq_mode_t#: VLPx Option.

typedef struct _pmc_version_id pmc_version_id_t#: IP version ID definition.

typedef struct _pmc_param pmc_param_t#: IP parameter definition.

typedef struct _pmc_low_volt_detect_config pmc_low_volt_detect_config_t#: Low-voltage Detect Configuration Structure.

typedef struct _pmc_low_volt_warning_config pmc_low_volt_warning_config_t#: Low-voltage Warning Configuration Structure.

typedef struct _pmc_high_volt_detect_config pmc_high_volt_detect_config_t#: High-voltage Detect Configuration Structure.

typedef struct _pmc_bandgap_buffer_config pmc_bandgap_buffer_config_t#: Bandgap Buffer configuration.

struct _pmc_version_id#

#include <fsl_pmc.h>

IP version ID definition.

Public Members

uint16_t feature#: Feature Specification Number.

uint8_t minor#: Minor version number.

uint8_t major#: Major version number.

struct _pmc_param#

#include <fsl_pmc.h>

IP parameter definition.

Public Members

bool vlpoEnable#: VLPO enable.

bool hvdEnable#: HVD enable.

struct _pmc_low_volt_detect_config#

#include <fsl_pmc.h>

Low-voltage Detect Configuration Structure.

Public Members

bool enableInt#: Enable interrupt when Low-voltage detect

bool enableReset#: Enable system reset when Low-voltage detect

pmc_low_volt_detect_volt_select_t voltSelect#: Low-voltage detect trip point voltage selection

struct _pmc_low_volt_warning_config#

#include <fsl_pmc.h>

Low-voltage Warning Configuration Structure.

Public Members

bool enableInt#: Enable interrupt when low-voltage warning

pmc_low_volt_warning_volt_select_t voltSelect#: Low-voltage warning trip point voltage selection

struct _pmc_high_volt_detect_config#

#include <fsl_pmc.h>

High-voltage Detect Configuration Structure.

Public Members

bool enableInt#: Enable interrupt when high-voltage detect

bool enableReset#: Enable system reset when high-voltage detect

pmc_high_volt_detect_volt_select_t voltSelect#: High-voltage detect trip point voltage selection

struct _pmc_bandgap_buffer_config#

#include <fsl_pmc.h>

Bandgap Buffer configuration.

Public Members

bool enable#: Enable bandgap buffer.

bool enableInLowPowerMode#: Enable bandgap buffer in low-power mode.

pmc_bandgap_buffer_drive_select_t drive#: Bandgap buffer drive select.

PORT: Port Control and Interrupts#

static inline void PORT_SetPinConfig(PORT_Type *base, uint32_t pin, const port_pin_config_t *config)#

Sets the port PCR register.

This is an example to define an input pin or output pin PCR configuration.

// Define a digital input pin PCR configuration
port_pin_config_t config = {
     kPORT_PullUp,
     kPORT_FastSlewRate,
     kPORT_PassiveFilterDisable,
     kPORT_OpenDrainDisable,
     kPORT_LowDriveStrength,
     kPORT_MuxAsGpio,
     kPORT_UnLockRegister,
};

Parameters:

base – PORT peripheral base pointer.
pin – PORT pin number.
config – PORT PCR register configuration structure.

static inline void PORT_SetMultiplePinsConfig(PORT_Type *base, uint32_t mask, const port_pin_config_t *config)#

Sets the port PCR register for multiple pins.

This is an example to define input pins or output pins PCR configuration.

Define a digital input pin PCR configuration
port_pin_config_t config = {
     kPORT_PullUp ,
     kPORT_PullEnable,
     kPORT_FastSlewRate,
     kPORT_PassiveFilterDisable,
     kPORT_OpenDrainDisable,
     kPORT_LowDriveStrength,
     kPORT_MuxAsGpio,
     kPORT_UnlockRegister,
};

Parameters:

base – PORT peripheral base pointer.
mask – PORT pin number macro.
config – PORT PCR register configuration structure.

static inline void PORT_SetMultipleInterruptPinsConfig(PORT_Type *base, uint32_t mask, port_interrupt_t config)#

Sets the port interrupt configuration in PCR register for multiple pins.

Parameters:

base – PORT peripheral base pointer.
mask – PORT pin number macro.
config – PORT pin interrupt configuration.
- kPORT_InterruptOrDMADisabled: Interrupt/DMA request disabled.
- kPORT_DMARisingEdge : DMA request on rising edge(if the DMA requests exit).
- kPORT_DMAFallingEdge: DMA request on falling edge(if the DMA requests exit).
- kPORT_DMAEitherEdge : DMA request on either edge(if the DMA requests exit).
- kPORT_FlagRisingEdge : Flag sets on rising edge(if the Flag states exit).
- kPORT_FlagFallingEdge : Flag sets on falling edge(if the Flag states exit).
- kPORT_FlagEitherEdge : Flag sets on either edge(if the Flag states exit).
- kPORT_InterruptLogicZero : Interrupt when logic zero.
- kPORT_InterruptRisingEdge : Interrupt on rising edge.
- kPORT_InterruptFallingEdge: Interrupt on falling edge.
- kPORT_InterruptEitherEdge : Interrupt on either edge.
- kPORT_InterruptLogicOne : Interrupt when logic one.
- kPORT_ActiveHighTriggerOutputEnable : Enable active high-trigger output (if the trigger states exit).
- kPORT_ActiveLowTriggerOutputEnable : Enable active low-trigger output (if the trigger states exit).

static inline void PORT_SetPinMux(PORT_Type *base, uint32_t pin, port_mux_t mux)#

Configures the pin muxing.

Note

: This function is NOT recommended to use together with the PORT_SetPinsConfig, because the PORT_SetPinsConfig need to configure the pin mux anyway (Otherwise the pin mux is reset to zero : kPORT_PinDisabledOrAnalog). This function is recommended to use to reset the pin mux

Parameters:

base – PORT peripheral base pointer.
pin – PORT pin number.
mux – pin muxing slot selection.
- kPORT_PinDisabledOrAnalog: Pin disabled or work in analog function.
- kPORT_MuxAsGpio : Set as GPIO.
- kPORT_MuxAlt2 : chip-specific.
- kPORT_MuxAlt3 : chip-specific.
- kPORT_MuxAlt4 : chip-specific.
- kPORT_MuxAlt5 : chip-specific.
- kPORT_MuxAlt6 : chip-specific.
- kPORT_MuxAlt7 : chip-specific.

static inline void PORT_EnablePinsDigitalFilter(PORT_Type *base, uint32_t mask, bool enable)#

Enables the digital filter in one port, each bit of the 32-bit register represents one pin.

Parameters:

base – PORT peripheral base pointer.
mask – PORT pin number macro.
enable – PORT digital filter configuration.

static inline void PORT_SetDigitalFilterConfig(PORT_Type *base, const port_digital_filter_config_t *config)#

Sets the digital filter in one port, each bit of the 32-bit register represents one pin.

Parameters:

base – PORT peripheral base pointer.
config – PORT digital filter configuration structure.

static inline void PORT_SetPinInterruptConfig(PORT_Type *base, uint32_t pin, port_interrupt_t config)#

Configures the port pin interrupt/DMA request.

Parameters:

base – PORT peripheral base pointer.
pin – PORT pin number.
config – PORT pin interrupt configuration.
- kPORT_InterruptOrDMADisabled: Interrupt/DMA request disabled.
- kPORT_DMARisingEdge : DMA request on rising edge(if the DMA requests exit).
- kPORT_DMAFallingEdge: DMA request on falling edge(if the DMA requests exit).
- kPORT_DMAEitherEdge : DMA request on either edge(if the DMA requests exit).
- kPORT_FlagRisingEdge : Flag sets on rising edge(if the Flag states exit).
- kPORT_FlagFallingEdge : Flag sets on falling edge(if the Flag states exit).
- kPORT_FlagEitherEdge : Flag sets on either edge(if the Flag states exit).
- kPORT_InterruptLogicZero : Interrupt when logic zero.
- kPORT_InterruptRisingEdge : Interrupt on rising edge.
- kPORT_InterruptFallingEdge: Interrupt on falling edge.
- kPORT_InterruptEitherEdge : Interrupt on either edge.
- kPORT_InterruptLogicOne : Interrupt when logic one.
- kPORT_ActiveHighTriggerOutputEnable : Enable active high-trigger output (if the trigger states exit).
- kPORT_ActiveLowTriggerOutputEnable : Enable active low-trigger output (if the trigger states exit).

static inline void PORT_SetPinDriveStrength(PORT_Type *base, uint32_t pin, uint8_t strength)#

Configures the port pin drive strength.

Parameters:

base – PORT peripheral base pointer.
pin – PORT pin number.
strength – PORT pin drive strength
- kPORT_LowDriveStrength = 0U - Low-drive strength is configured.
- kPORT_HighDriveStrength = 1U - High-drive strength is configured.

static inline uint32_t PORT_GetPinsInterruptFlags(PORT_Type *base)#

Reads the whole port status flag.

If a pin is configured to generate the DMA request, the corresponding flag is cleared automatically at the completion of the requested DMA transfer. Otherwise, the flag remains set until a logic one is written to that flag. If configured for a level sensitive interrupt that remains asserted, the flag is set again immediately.

Parameters:

base – PORT peripheral base pointer.

Returns:

Current port interrupt status flags, for example, 0x00010001 means the pin 0 and 16 have the interrupt.

static inline void PORT_ClearPinsInterruptFlags(PORT_Type *base, uint32_t mask)#

Clears the multiple pin interrupt status flag.

Parameters:

base – PORT peripheral base pointer.
mask – PORT pin number macro.

FSL_PORT_DRIVER_VERSION#: PORT driver version.

enum _port_pull#

Internal resistor pull feature selection.

Values:

enumerator kPORT_PullDisable#: Internal pull-up/down resistor is disabled.

enumerator kPORT_PullDown#: Internal pull-down resistor is enabled.

enumerator kPORT_PullUp#: Internal pull-up resistor is enabled.

enum _port_slew_rate#

Slew rate selection.

Values:

enumerator kPORT_FastSlewRate#: Fast slew rate is configured.

enumerator kPORT_SlowSlewRate#: Slow slew rate is configured.

enum _port_open_drain_enable#

Open Drain feature enable/disable.

Values:

enumerator kPORT_OpenDrainDisable#: Open drain output is disabled.

enumerator kPORT_OpenDrainEnable#: Open drain output is enabled.

enum _port_passive_filter_enable#

Passive filter feature enable/disable.

Values:

enumerator kPORT_PassiveFilterDisable#: Passive input filter is disabled.

enumerator kPORT_PassiveFilterEnable#: Passive input filter is enabled.

enum _port_drive_strength#

Configures the drive strength.

Values:

enumerator kPORT_LowDriveStrength#: Low-drive strength is configured.

enumerator kPORT_HighDriveStrength#: High-drive strength is configured.

enum _port_lock_register#

Unlock/lock the pin control register field[15:0].

Values:

enumerator kPORT_UnlockRegister#: Pin Control Register fields [15:0] are not locked.

enumerator kPORT_LockRegister#: Pin Control Register fields [15:0] are locked.

enum _port_mux#

Pin mux selection.

Values:

enumerator kPORT_PinDisabledOrAnalog#: Corresponding pin is disabled, but is used as an analog pin.

enumerator kPORT_MuxAsGpio#: Corresponding pin is configured as GPIO.

enumerator kPORT_MuxAlt0#: Chip-specific

enumerator kPORT_MuxAlt1#: Chip-specific

enumerator kPORT_MuxAlt2#: Chip-specific

enumerator kPORT_MuxAlt3#: Chip-specific

enumerator kPORT_MuxAlt4#: Chip-specific

enumerator kPORT_MuxAlt5#: Chip-specific

enumerator kPORT_MuxAlt6#: Chip-specific

enumerator kPORT_MuxAlt7#: Chip-specific

enumerator kPORT_MuxAlt8#: Chip-specific

enumerator kPORT_MuxAlt9#: Chip-specific

enumerator kPORT_MuxAlt10#: Chip-specific

enumerator kPORT_MuxAlt11#: Chip-specific

enumerator kPORT_MuxAlt12#: Chip-specific

enumerator kPORT_MuxAlt13#: Chip-specific

enumerator kPORT_MuxAlt14#: Chip-specific

enumerator kPORT_MuxAlt15#: Chip-specific

enum _port_interrupt#

Configures the interrupt generation condition.

Values:

enumerator kPORT_InterruptOrDMADisabled#: Interrupt/DMA request is disabled.

enumerator kPORT_DMARisingEdge#: DMA request on rising edge.

enumerator kPORT_DMAFallingEdge#: DMA request on falling edge.

enumerator kPORT_DMAEitherEdge#: DMA request on either edge.

enumerator kPORT_FlagRisingEdge#: Flag sets on rising edge.

enumerator kPORT_FlagFallingEdge#: Flag sets on falling edge.

enumerator kPORT_FlagEitherEdge#: Flag sets on either edge.

enumerator kPORT_InterruptLogicZero#: Interrupt when logic zero.

enumerator kPORT_InterruptRisingEdge#: Interrupt on rising edge.

enumerator kPORT_InterruptFallingEdge#: Interrupt on falling edge.

enumerator kPORT_InterruptEitherEdge#: Interrupt on either edge.

enumerator kPORT_InterruptLogicOne#: Interrupt when logic one.

enumerator kPORT_ActiveHighTriggerOutputEnable#: Enable active high-trigger output.

enumerator kPORT_ActiveLowTriggerOutputEnable#: Enable active low-trigger output.

enum _port_digital_filter_clock_source#

Digital filter clock source selection.

Values:

enumerator kPORT_BusClock#: Digital filters are clocked by the bus clock.

enumerator kPORT_LpoClock#: Digital filters are clocked by the 1 kHz LPO clock.

typedef enum _port_mux port_mux_t#: Pin mux selection.

typedef enum _port_interrupt port_interrupt_t#: Configures the interrupt generation condition.

typedef enum _port_digital_filter_clock_source port_digital_filter_clock_source_t#: Digital filter clock source selection.

typedef struct _port_digital_filter_config port_digital_filter_config_t#: PORT digital filter feature configuration definition.

typedef struct _port_pin_config port_pin_config_t#: PORT pin configuration structure.

FSL_COMPONENT_ID

struct _port_digital_filter_config#

#include <fsl_port.h>

PORT digital filter feature configuration definition.

Public Members

uint32_t digitalFilterWidth#: Set digital filter width

port_digital_filter_clock_source_t clockSource#: Set digital filter clockSource

struct _port_pin_config#

#include <fsl_port.h>

PORT pin configuration structure.

Public Members

uint16_t pullSelect#: No-pull/pull-down/pull-up select

uint16_t slewRate#: Fast/slow slew rate Configure

uint16_t passiveFilterEnable#: Passive filter enable/disable

uint16_t openDrainEnable#: Open drain enable/disable

uint16_t driveStrength#: Fast/slow drive strength configure

uint16_t lockRegister#: Lock/unlock the PCR field[15:0]

RCM: Reset Control Module Driver#

static inline void RCM_GetVersionId(RCM_Type *base, rcm_version_id_t *versionId)#

Gets the RCM version ID.

This function gets the RCM version ID including the major version number, the minor version number, and the feature specification number.

Parameters:

base – RCM peripheral base address.
versionId – Pointer to the version ID structure.

static inline uint32_t RCM_GetResetSourceImplementedStatus(RCM_Type *base)#

Gets the reset source implemented status.

This function gets the RCM parameter that indicates whether the corresponding reset source is implemented. Use source masks defined in the rcm_reset_source_t to get the desired source status.

This is an example.

uint32_t status;

To test whether the MCU is reset using Watchdog.
status = RCM_GetResetSourceImplementedStatus(RCM) & (kRCM_SourceWdog | kRCM_SourcePin);

Parameters:

base – RCM peripheral base address.

Returns:

All reset source implemented status bit map.

static inline uint32_t RCM_GetPreviousResetSources(RCM_Type *base)#

Gets the reset source status which caused a previous reset.

This function gets the current reset source status. Use source masks defined in the rcm_reset_source_t to get the desired source status.

This is an example.

uint32_t resetStatus;

To get all reset source statuses.
resetStatus = RCM_GetPreviousResetSources(RCM) & kRCM_SourceAll;

To test whether the MCU is reset using Watchdog.
resetStatus = RCM_GetPreviousResetSources(RCM) & kRCM_SourceWdog;

To test multiple reset sources.
resetStatus = RCM_GetPreviousResetSources(RCM) & (kRCM_SourceWdog | kRCM_SourcePin);

Parameters:

base – RCM peripheral base address.

Returns:

All reset source status bit map.

static inline uint32_t RCM_GetStickyResetSources(RCM_Type *base)#

Gets the sticky reset source status.

This function gets the current reset source status that has not been cleared by software for a specific source.

This is an example.

uint32_t resetStatus;

To get all reset source statuses.
resetStatus = RCM_GetStickyResetSources(RCM) & kRCM_SourceAll;

To test whether the MCU is reset using Watchdog.
resetStatus = RCM_GetStickyResetSources(RCM) & kRCM_SourceWdog;

To test multiple reset sources.
resetStatus = RCM_GetStickyResetSources(RCM) & (kRCM_SourceWdog | kRCM_SourcePin);

Parameters:

base – RCM peripheral base address.

Returns:

All reset source status bit map.

static inline void RCM_ClearStickyResetSources(RCM_Type *base, uint32_t sourceMasks)#

Clears the sticky reset source status.

This function clears the sticky system reset flags indicated by source masks.

This is an example.

Clears multiple reset sources.
RCM_ClearStickyResetSources(kRCM_SourceWdog | kRCM_SourcePin);

Parameters:

base – RCM peripheral base address.
sourceMasks – reset source status bit map

void RCM_ConfigureResetPinFilter(RCM_Type *base, const rcm_reset_pin_filter_config_t *config)#

Configures the reset pin filter.

This function sets the reset pin filter including the filter source, filter width, and so on.

Parameters:

base – RCM peripheral base address.
config – Pointer to the configuration structure.

static inline bool RCM_GetEasyPortModePinStatus(RCM_Type *base)#

Gets the EZP_MS_B pin assert status.

This function gets the easy port mode status (EZP_MS_B) pin assert status.

Parameters:

base – RCM peripheral base address.

Returns:

status true - asserted, false - reasserted

static inline rcm_boot_rom_config_t RCM_GetBootRomSource(RCM_Type *base)#

Gets the ROM boot source.

This function gets the ROM boot source during the last chip reset.

Parameters:

base – RCM peripheral base address.

Returns:

The ROM boot source.

static inline void RCM_ClearBootRomSource(RCM_Type *base)#

Clears the ROM boot source flag.

This function clears the ROM boot source flag.

Parameters:

base – Register base address of RCM

void RCM_SetForceBootRomSource(RCM_Type *base, rcm_boot_rom_config_t config)#

Forces the boot from ROM.

This function forces booting from ROM during all subsequent system resets.

Parameters:

base – RCM peripheral base address.
config – Boot configuration.

static inline void RCM_SetSystemResetInterruptConfig(RCM_Type *base, uint32_t intMask, rcm_reset_delay_t delay)#

Sets the system reset interrupt configuration.

For a graceful shut down, the RCM supports delaying the assertion of the system reset for a period of time when the reset interrupt is generated. This function can be used to enable the interrupt and the delay period. The interrupts are passed in as bit mask. See rcm_int_t for details. For example, to delay a reset for 512 LPO cycles after the WDOG timeout or loss-of-clock occurs, configure as follows: RCM_SetSystemResetInterruptConfig(kRCM_IntWatchDog | kRCM_IntLossOfClk, kRCM_ResetDelay512Lpo);

Parameters:

base – RCM peripheral base address.
intMask – Bit mask of the system reset interrupts to enable. See rcm_interrupt_enable_t for details.
delay – Bit mask of the system reset interrupts to enable.

FSL_RCM_DRIVER_VERSION#: RCM driver version 2.0.6.

enum _rcm_reset_source#

System Reset Source Name definitions.

Values:

enumerator kRCM_SourceWakeup#: Low-leakage wakeup reset

enumerator kRCM_SourceLvd#: Low-voltage detect reset

enumerator kRCM_SourceLoc#: Loss of clock reset

enumerator kRCM_SourceLol#: Loss of lock reset

enumerator kRCM_SourceWdog#: Watchdog reset

enumerator kRCM_SourcePin#: External pin reset

enumerator kRCM_SourcePor#: Power on reset

enumerator kRCM_SourceJtag#: JTAG generated reset

enumerator kRCM_SourceLockup#: Core lock up reset

enumerator kRCM_SourceSw#: Software reset

enumerator kRCM_SourceMdmap#: MDM-AP system reset

enumerator kRCM_SourceEzpt#: EzPort reset

enumerator kRCM_SourceSackerr#: Parameter could get all reset flags

enumerator kRCM_SourceAll#

enum _rcm_run_wait_filter_mode#

Reset pin filter select in Run and Wait modes.

Values:

enumerator kRCM_FilterDisable#: All filtering disabled

enumerator kRCM_FilterBusClock#: Bus clock filter enabled

enumerator kRCM_FilterLpoClock#: LPO clock filter enabled

enum _rcm_boot_rom_config#

Boot from ROM configuration.

Values:

enumerator kRCM_BootFlash#: Boot from flash

enumerator kRCM_BootRomCfg0#: Boot from boot ROM due to BOOTCFG0

enumerator kRCM_BootRomFopt#: Boot from boot ROM due to FOPT[7]

enumerator kRCM_BootRomBoth#: Boot from boot ROM due to both BOOTCFG0 and FOPT[7]

enum _rcm_reset_delay#

Maximum delay time from interrupt asserts to system reset.

Values:

enumerator kRCM_ResetDelay8Lpo#: Delay 8 LPO cycles.

enumerator kRCM_ResetDelay32Lpo#: Delay 32 LPO cycles.

enumerator kRCM_ResetDelay128Lpo#: Delay 128 LPO cycles.

enumerator kRCM_ResetDelay512Lpo#: Delay 512 LPO cycles.

enum _rcm_interrupt_enable#

System reset interrupt enable bit definitions.

Values:

enumerator kRCM_IntNone#: No interrupt enabled.

enumerator kRCM_IntLossOfClk#: Loss of clock interrupt.

enumerator kRCM_IntLossOfLock#: Loss of lock interrupt.

enumerator kRCM_IntWatchDog#: Watch dog interrupt.

enumerator kRCM_IntExternalPin#: External pin interrupt.

enumerator kRCM_IntGlobal#: Global interrupts.

enumerator kRCM_IntCoreLockup#: Core lock up interrupt

enumerator kRCM_IntSoftware#: software interrupt

enumerator kRCM_IntStopModeAckErr#: Stop mode ACK error interrupt.

enumerator kRCM_IntCore1#: Core 1 interrupt.

enumerator kRCM_IntAll#: Enable all interrupts.

typedef enum _rcm_reset_source rcm_reset_source_t#: System Reset Source Name definitions.

typedef enum _rcm_run_wait_filter_mode rcm_run_wait_filter_mode_t#: Reset pin filter select in Run and Wait modes.

typedef enum _rcm_boot_rom_config rcm_boot_rom_config_t#: Boot from ROM configuration.

typedef enum _rcm_reset_delay rcm_reset_delay_t#: Maximum delay time from interrupt asserts to system reset.

typedef enum _rcm_interrupt_enable rcm_interrupt_enable_t#: System reset interrupt enable bit definitions.

typedef struct _rcm_version_id rcm_version_id_t#: IP version ID definition.

typedef struct _rcm_reset_pin_filter_config rcm_reset_pin_filter_config_t#: Reset pin filter configuration.

struct _rcm_version_id#

#include <fsl_rcm.h>

IP version ID definition.

Public Members

uint16_t feature#: Feature Specification Number.

uint8_t minor#: Minor version number.

uint8_t major#: Major version number.

struct _rcm_reset_pin_filter_config#

#include <fsl_rcm.h>

Reset pin filter configuration.

Public Members

bool enableFilterInStop#: Reset pin filter select in stop mode.

rcm_run_wait_filter_mode_t filterInRunWait#: Reset pin filter in run/wait mode.

uint8_t busClockFilterCount#: Reset pin bus clock filter width.

RTC: Real Time Clock#

void RTC_Init(RTC_Type *base, const rtc_config_t *config)#

Ungates the RTC clock and configures the peripheral for basic operation.

This function issues a software reset if the timer invalid flag is set.

Note

This API should be called at the beginning of the application using the RTC driver.

Parameters:

base – RTC peripheral base address
config – Pointer to the user’s RTC configuration structure.

static inline void RTC_Deinit(RTC_Type *base)#

Stops the timer and gate the RTC clock.

Parameters:

base – RTC peripheral base address

void RTC_GetDefaultConfig(rtc_config_t *config)#

Fills in the RTC config struct with the default settings.

The default values are as follows.

config->clockOutput = false;
config->wakeupSelect = false;
config->updateMode = false;
config->supervisorAccess = false;
config->compensationInterval = 0;
config->compensationTime = 0;

Parameters:

config – Pointer to the user’s RTC configuration structure.

status_t RTC_SetDatetime(RTC_Type *base, const rtc_datetime_t *datetime)#

Sets the RTC date and time according to the given time structure.

The RTC counter must be stopped prior to calling this function because writes to the RTC seconds register fail if the RTC counter is running.

Parameters:

base – RTC peripheral base address
datetime – Pointer to the structure where the date and time details are stored.

Returns:

kStatus_Success: Success in setting the time and starting the RTC kStatus_InvalidArgument: Error because the datetime format is incorrect

void RTC_GetDatetime(RTC_Type *base, rtc_datetime_t *datetime)#

Gets the RTC time and stores it in the given time structure.

Parameters:

base – RTC peripheral base address
datetime – Pointer to the structure where the date and time details are stored.

status_t RTC_SetAlarm(RTC_Type *base, const rtc_datetime_t *alarmTime)#

Sets the RTC alarm time.

The function checks whether the specified alarm time is greater than the present time. If not, the function does not set the alarm and returns an error.

Parameters:

base – RTC peripheral base address
alarmTime – Pointer to the structure where the alarm time is stored.

Returns:

kStatus_Success: success in setting the RTC alarm kStatus_InvalidArgument: Error because the alarm datetime format is incorrect kStatus_Fail: Error because the alarm time has already passed

void RTC_GetAlarm(RTC_Type *base, rtc_datetime_t *datetime)#

Returns the RTC alarm time.

Parameters:

base – RTC peripheral base address
datetime – Pointer to the structure where the alarm date and time details are stored.

void RTC_EnableInterrupts(RTC_Type *base, uint32_t mask)#

Enables the selected RTC interrupts.

Parameters:

base – RTC peripheral base address
mask – The interrupts to enable. This is a logical OR of members of the enumeration rtc_interrupt_enable_t

void RTC_DisableInterrupts(RTC_Type *base, uint32_t mask)#

Disables the selected RTC interrupts.

Parameters:

base – RTC peripheral base address
mask – The interrupts to enable. This is a logical OR of members of the enumeration rtc_interrupt_enable_t

uint32_t RTC_GetEnabledInterrupts(RTC_Type *base)#

Gets the enabled RTC interrupts.

Parameters:

base – RTC peripheral base address

Returns:

The enabled interrupts. This is the logical OR of members of the enumeration rtc_interrupt_enable_t

uint32_t RTC_GetStatusFlags(RTC_Type *base)#

Gets the RTC status flags.

Parameters:

base – RTC peripheral base address

Returns:

The status flags. This is the logical OR of members of the enumeration rtc_status_flags_t

void RTC_ClearStatusFlags(RTC_Type *base, uint32_t mask)#

Clears the RTC status flags.

Parameters:

base – RTC peripheral base address
mask – The status flags to clear. This is a logical OR of members of the enumeration rtc_status_flags_t

static inline void RTC_EnableLPOClock(RTC_Type *base, bool enable)#

Enable/Disable RTC 1kHz LPO clock.

Note

After setting this bit, RTC prescaler increments using the LPO 1kHz clock and not the RTC 32kHz crystal clock.

Parameters:

base – RTC peripheral base address
enable – Enable/Disable RTC 1kHz LPO clock

static inline void RTC_StartTimer(RTC_Type *base)#

Starts the RTC time counter.

After calling this function, the timer counter increments once a second provided SR[TOF] or SR[TIF] are not set.

Parameters:

base – RTC peripheral base address

static inline void RTC_StopTimer(RTC_Type *base)#

Stops the RTC time counter.

RTC’s seconds register can be written to only when the timer is stopped.

Parameters:

base – RTC peripheral base address

void RTC_GetMonotonicCounter(RTC_Type *base, uint64_t *counter)#

Reads the values of the Monotonic Counter High and Monotonic Counter Low and returns them as a single value.

Parameters:

base – RTC peripheral base address
counter – Pointer to variable where the value is stored.

void RTC_SetMonotonicCounter(RTC_Type *base, uint64_t counter)#

Writes values Monotonic Counter High and Monotonic Counter Low by decomposing the given single value. The Monotonic Overflow Flag in RTC_SR is cleared due to the API.

Parameters:

base – RTC peripheral base address
counter – Counter value

status_t RTC_IncrementMonotonicCounter(RTC_Type *base)#

Increments the Monotonic Counter by one.

Increments the Monotonic Counter (registers RTC_MCLR and RTC_MCHR accordingly) by setting the monotonic counter enable (MER[MCE]) and then writing to the RTC_MCLR register. A write to the monotonic counter low that causes it to overflow also increments the monotonic counter high.

Parameters:

base – RTC peripheral base address

Returns:

kStatus_Success: success kStatus_Fail: error occurred, either time invalid or monotonic overflow flag was found

FSL_RTC_DRIVER_VERSION#: Version 2.4.0

enum _rtc_interrupt_enable#

List of RTC interrupts.

Values:

enumerator kRTC_TimeInvalidInterruptEnable#: Time invalid interrupt.

enumerator kRTC_TimeOverflowInterruptEnable#: Time overflow interrupt.

enumerator kRTC_AlarmInterruptEnable#: Alarm interrupt.

enumerator kRTC_MonotonicOverflowInterruptEnable#: Monotonic Overflow Interrupt Enable

enumerator kRTC_SecondsInterruptEnable#: Seconds interrupt.

enumerator kRTC_TestModeInterruptEnable#

enumerator kRTC_FlashSecurityInterruptEnable#

enumerator kRTC_TamperPinInterruptEnable#

enumerator kRTC_SecurityModuleInterruptEnable#

enumerator kRTC_LossOfClockInterruptEnable#

enum _rtc_status_flags#

List of RTC flags.

Values:

enumerator kRTC_TimeInvalidFlag#: Time invalid flag

enumerator kRTC_TimeOverflowFlag#: Time overflow flag

enumerator kRTC_AlarmFlag#: Alarm flag

enumerator kRTC_MonotonicOverflowFlag#: Monotonic Overflow Flag

enumerator kRTC_TamperInterruptDetectFlag#: Tamper interrupt detect flag

enumerator kRTC_TestModeFlag#

enumerator kRTC_FlashSecurityFlag#

enumerator kRTC_TamperPinFlag#

enumerator kRTC_SecurityTamperFlag#

enumerator kRTC_LossOfClockTamperFlag#

enum _rtc_osc_cap_load#

List of RTC Oscillator capacitor load settings.

Values:

enumerator kRTC_Capacitor_2p#: 2 pF capacitor load

enumerator kRTC_Capacitor_4p#: 4 pF capacitor load

enumerator kRTC_Capacitor_8p#: 8 pF capacitor load

enumerator kRTC_Capacitor_16p#: 16 pF capacitor load

enum _rtc_timer_seconds_interrupt_frequency#

List of RTC Timer Seconds Interrupt Frequencies.

Values:

enumerator kRTC_TimerSecondsFrequency1Hz#: Timer seconds frequency is 1Hz

enumerator kRTC_TimerSecondsFrequency2Hz#: Timer seconds frequency is 2Hz

enumerator kRTC_TimerSecondsFrequency4Hz#: Timer seconds frequency is 4Hz

enumerator kRTC_TimerSecondsFrequency8Hz#: Timer seconds frequency is 8Hz

enumerator kRTC_TimerSecondsFrequency16Hz#: Timer seconds frequency is 16Hz

enumerator kRTC_TimerSecondsFrequency32Hz#: Timer seconds frequency is 32Hz

enumerator kRTC_TimerSecondsFrequency64Hz#: Timer seconds frequency is 64Hz

enumerator kRTC_TimerSecondsFrequency128Hz#: Timer seconds frequency is 128Hz

typedef enum _rtc_interrupt_enable rtc_interrupt_enable_t#: List of RTC interrupts.

typedef enum _rtc_status_flags rtc_status_flags_t#: List of RTC flags.

typedef enum _rtc_osc_cap_load rtc_osc_cap_load_t#: List of RTC Oscillator capacitor load settings.

typedef enum _rtc_timer_seconds_interrupt_frequency rtc_timer_seconds_interrupt_frequency_t#: List of RTC Timer Seconds Interrupt Frequencies.

typedef struct _rtc_datetime rtc_datetime_t#: Structure is used to hold the date and time.

typedef struct _rtc_pin_config rtc_pin_config_t#: RTC pin config structure.

typedef struct _rtc_config rtc_config_t#

RTC config structure.

This structure holds the configuration settings for the RTC peripheral. To initialize this structure to reasonable defaults, call the RTC_GetDefaultConfig() function and pass a pointer to your config structure instance.

The config struct can be made const so it resides in flash

static inline uint32_t RTC_GetTamperTimeSeconds(RTC_Type *base)#

Get the RTC tamper time seconds.

Parameters:

base – RTC peripheral base address

static inline void RTC_SetOscCapLoad(RTC_Type *base, uint32_t capLoad)#

This function sets the specified capacitor configuration for the RTC oscillator.

Parameters:

base – RTC peripheral base address
capLoad – Oscillator loads to enable. This is a logical OR of members of the enumeration rtc_osc_cap_load_t

static inline void RTC_Reset(RTC_Type *base)#

Performs a software reset on the RTC module.

This resets all RTC registers except for the SWR bit and the RTC_WAR and RTC_RAR registers. The SWR bit is cleared by software explicitly clearing it.

Parameters:

base – RTC peripheral base address

static inline void RTC_EnableWakeUpPin(RTC_Type *base, bool enable)#

Enables or disables the RTC Wakeup Pin Operation.

This function enable or disable RTC Wakeup Pin. The wakeup pin is optional and not available on all devices.

Parameters:

base – RTC_Type base pointer.
enable – true to enable, false to disable.

static inline void RTC_EnableClockOutput(RTC_Type *base, bool enable)#

Enables or disables the RTC 32 kHz clock output.

This function enables or disables the RTC 32 kHz clock output.

Parameters:

base – RTC_Type base pointer.
enable – true to enable, false to disable.

void RTC_SetTimerSecondsInterruptFrequency(RTC_Type *base, rtc_timer_seconds_interrupt_frequency_t freq)#

Sets the RTC timer seconds interrupt frequency.

This function sets the RTC timer seconds interrupt frequency.

Parameters:

base – RTC peripheral base address
freq – The timer seconds interrupt frequency. This is a member of the enumeration rtc_timer_seconds_interrupt_frequency_t

struct _rtc_datetime#

#include <fsl_rtc.h>

Structure is used to hold the date and time.

Public Members

uint16_t year#: Range from 1970 to 2099.

uint8_t month#: Range from 1 to 12.

uint8_t day#: Range from 1 to 31 (depending on month).

uint8_t hour#: Range from 0 to 23.

uint8_t minute#: Range from 0 to 59.

uint8_t second#: Range from 0 to 59.

struct _rtc_pin_config#

#include <fsl_rtc.h>

RTC pin config structure.

Public Members

bool inputLogic#: true: Tamper pin input data is logic one. false: Tamper pin input data is logic zero.

bool pinActiveLow#: true: Tamper pin is active low. false: Tamper pin is active high.

bool filterEnable#: true: Input filter is enabled on the tamper pin. false: Input filter is disabled on the tamper pin.

bool pullSelectNegate#: true: Tamper pin pull resistor direction will negate the tamper pin. false: Tamper pin pull resistor direction will assert the tamper pin.

bool pullEnable#: true: Pull resistor is enabled on tamper pin. false: Pull resistor is disabled on tamper pin.

struct _rtc_config#

#include <fsl_rtc.h>

RTC config structure.

The config struct can be made const so it resides in flash

Public Members

bool clockOutput#: true: The 32 kHz clock is not output to other peripherals; false: The 32 kHz clock is output to other peripherals

bool wakeupSelect#: true: Wakeup pin outputs the 32 KHz clock; false:Wakeup pin used to wakeup the chip

bool updateMode#: true: Registers can be written even when locked under certain conditions, false: No writes allowed when registers are locked

bool supervisorAccess#: true: Non-supervisor accesses are allowed; false: Non-supervisor accesses are not supported

uint32_t compensationInterval#: Compensation interval that is written to the CIR field in RTC TCR Register

uint32_t compensationTime#: Compensation time that is written to the TCR field in RTC TCR Register

SIM: System Integration Module Driver#

FSL_SIM_DRIVER_VERSION#: Driver version.

enum _sim_usb_volt_reg_enable_mode#

USB voltage regulator enable setting.

Values:

enumerator kSIM_UsbVoltRegEnable#: Enable voltage regulator.

enumerator kSIM_UsbVoltRegEnableInLowPower#: Enable voltage regulator in VLPR/VLPW modes.

enumerator kSIM_UsbVoltRegEnableInStop#: Enable voltage regulator in STOP/VLPS/LLS/VLLS modes.

enumerator kSIM_UsbVoltRegEnableInAllModes#: Enable voltage regulator in all power modes.

enum _sim_flash_mode#

Flash enable mode.

Values:

enumerator kSIM_FlashDisableInWait#: Disable flash in wait mode.

enumerator kSIM_FlashDisable#: Disable flash in normal mode.

typedef struct _sim_uid sim_uid_t#: Unique ID.

void SIM_SetUsbVoltRegulatorEnableMode(uint32_t mask)#

Sets the USB voltage regulator setting.

This function configures whether the USB voltage regulator is enabled in normal RUN mode, STOP/VLPS/LLS/VLLS modes, and VLPR/VLPW modes. The configurations are passed in as mask value of _sim_usb_volt_reg_enable_mode. For example, to enable USB voltage regulator in RUN/VLPR/VLPW modes and disable in STOP/VLPS/LLS/VLLS mode, use:

SIM_SetUsbVoltRegulatorEnableMode(kSIM_UsbVoltRegEnable | kSIM_UsbVoltRegEnableInLowPower);

Parameters:

mask – USB voltage regulator enable setting.

void SIM_GetUniqueId(sim_uid_t *uid)#

Gets the unique identification register value.

Parameters:

uid – Pointer to the structure to save the UID value.

static inline void SIM_SetFlashMode(uint8_t mode)#

Sets the flash enable mode.

Parameters:

mode – The mode to set; see _sim_flash_mode for mode details.

struct _sim_uid#

#include <fsl_sim.h>

Unique ID.

Public Members

uint32_t H#: UIDH.

uint32_t M#: SIM_UIDM.

uint32_t L#: UIDL.

SMC: System Mode Controller Driver#

static inline void SMC_GetVersionId(SMC_Type *base, smc_version_id_t *versionId)#

Gets the SMC version ID.

This function gets the SMC version ID, including major version number, minor version number, and feature specification number.

Parameters:

base – SMC peripheral base address.
versionId – Pointer to the version ID structure.

void SMC_GetParam(SMC_Type *base, smc_param_t *param)#

Gets the SMC parameter.

This function gets the SMC parameter including the enabled power mdoes.

Parameters:

base – SMC peripheral base address.
param – Pointer to the SMC param structure.

static inline void SMC_SetPowerModeProtection(SMC_Type *base, uint8_t allowedModes)#

Configures all power mode protection settings.

This function configures the power mode protection settings for supported power modes in the specified chip family. The available power modes are defined in the smc_power_mode_protection_t. This should be done at an early system level initialization stage. See the reference manual for details. This register can only write once after the power reset.

The allowed modes are passed as bit map. For example, to allow LLS and VLLS, use SMC_SetPowerModeProtection(kSMC_AllowPowerModeVlls | kSMC_AllowPowerModeVlps). To allow all modes, use SMC_SetPowerModeProtection(kSMC_AllowPowerModeAll).

Parameters:

base – SMC peripheral base address.
allowedModes – Bitmap of the allowed power modes.

static inline smc_power_state_t SMC_GetPowerModeState(SMC_Type *base)#

Gets the current power mode status.

This function returns the current power mode status. After the application switches the power mode, it should always check the status to check whether it runs into the specified mode or not. The application should check this mode before switching to a different mode. The system requires that only certain modes can switch to other specific modes. See the reference manual for details and the smc_power_state_t for information about the power status.

Parameters:

base – SMC peripheral base address.

Returns:

Current power mode status.

void SMC_PreEnterStopModes(void)#

Prepares to enter stop modes.

This function should be called before entering STOP/VLPS/LLS/VLLS modes.

void SMC_PostExitStopModes(void)#

Recovers after wake up from stop modes.

This function should be called after wake up from STOP/VLPS/LLS/VLLS modes. It is used with SMC_PreEnterStopModes.

void SMC_PreEnterWaitModes(void)#

Prepares to enter wait modes.

This function should be called before entering WAIT/VLPW modes.

void SMC_PostExitWaitModes(void)#

Recovers after wake up from stop modes.

This function should be called after wake up from WAIT/VLPW modes. It is used with SMC_PreEnterWaitModes.

status_t SMC_SetPowerModeRun(SMC_Type *base)#

Configures the system to RUN power mode.

Parameters:

base – SMC peripheral base address.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeHsrun(SMC_Type *base)#

Configures the system to HSRUN power mode.

Parameters:

base – SMC peripheral base address.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeWait(SMC_Type *base)#

Configures the system to WAIT power mode.

Parameters:

base – SMC peripheral base address.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeStop(SMC_Type *base, smc_partial_stop_option_t option)#

Configures the system to Stop power mode.

Parameters:

base – SMC peripheral base address.
option – Partial Stop mode option.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeVlpr(SMC_Type *base, bool wakeupMode)#

Configures the system to VLPR power mode.

Parameters:

base – SMC peripheral base address.
wakeupMode – Enter Normal Run mode if true, else stay in VLPR mode.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeVlpw(SMC_Type *base)#

Configures the system to VLPW power mode.

Parameters:

base – SMC peripheral base address.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeVlps(SMC_Type *base)#

Configures the system to VLPS power mode.

Parameters:

base – SMC peripheral base address.

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeLls(SMC_Type *base, const smc_power_mode_lls_config_t *config)#

Configures the system to LLS power mode.

Parameters:

base – SMC peripheral base address.
config – The LLS power mode configuration structure

Returns:

SMC configuration error code.

status_t SMC_SetPowerModeVlls(SMC_Type *base, const smc_power_mode_vlls_config_t *config)#

Configures the system to VLLS power mode.

Parameters:

base – SMC peripheral base address.
config – The VLLS power mode configuration structure.

Returns:

SMC configuration error code.

FSL_SMC_DRIVER_VERSION#: SMC driver version.

enum _smc_power_mode_protection#

Power Modes Protection.

Values:

enumerator kSMC_AllowPowerModeVlls#: Allow Very-low-leakage Stop Mode.

enumerator kSMC_AllowPowerModeLls#: Allow Low-leakage Stop Mode.

enumerator kSMC_AllowPowerModeVlp#: Allow Very-Low-power Mode.

enumerator kSMC_AllowPowerModeHsrun#: Allow High-speed Run mode.

enumerator kSMC_AllowPowerModeAll#: Allow all power mode.

enum _smc_power_state#

Power Modes in PMSTAT.

Values:

enumerator kSMC_PowerStateRun#: 0000_0001 - Current power mode is RUN

enumerator kSMC_PowerStateStop#: 0000_0010 - Current power mode is STOP

enumerator kSMC_PowerStateVlpr#: 0000_0100 - Current power mode is VLPR

enumerator kSMC_PowerStateVlpw#: 0000_1000 - Current power mode is VLPW

enumerator kSMC_PowerStateVlps#: 0001_0000 - Current power mode is VLPS

enumerator kSMC_PowerStateLls#: 0010_0000 - Current power mode is LLS

enumerator kSMC_PowerStateVlls#: 0100_0000 - Current power mode is VLLS

enumerator kSMC_PowerStateHsrun#: 1000_0000 - Current power mode is HSRUN

enum _smc_run_mode#

Run mode definition.

Values:

enumerator kSMC_RunNormal#: Normal RUN mode.

enumerator kSMC_RunVlpr#: Very-low-power RUN mode.

enumerator kSMC_Hsrun#: High-speed Run mode (HSRUN).

enum _smc_stop_mode#

Stop mode definition.

Values:

enumerator kSMC_StopNormal#: Normal STOP mode.

enumerator kSMC_StopVlps#: Very-low-power STOP mode.

enumerator kSMC_StopLls#: Low-leakage Stop mode.

enumerator kSMC_StopVlls#: Very-low-leakage Stop mode.

enum _smc_stop_submode#

VLLS/LLS stop sub mode definition.

Values:

enumerator kSMC_StopSub0#: Stop submode 0, for VLLS0/LLS0.

enumerator kSMC_StopSub1#: Stop submode 1, for VLLS1/LLS1.

enumerator kSMC_StopSub2#: Stop submode 2, for VLLS2/LLS2.

enumerator kSMC_StopSub3#: Stop submode 3, for VLLS3/LLS3.

enum _smc_partial_stop_mode#

Partial STOP option.

Values:

enumerator kSMC_PartialStop#: STOP - Normal Stop mode

enumerator kSMC_PartialStop1#: Partial Stop with both system and bus clocks disabled

enumerator kSMC_PartialStop2#: Partial Stop with system clock disabled and bus clock enabled

_smc_status, SMC configuration status.

Values:

enumerator kStatus_SMC_StopAbort#: Entering Stop mode is abort

typedef enum _smc_power_mode_protection smc_power_mode_protection_t#: Power Modes Protection.

typedef enum _smc_power_state smc_power_state_t#: Power Modes in PMSTAT.

typedef enum _smc_run_mode smc_run_mode_t#: Run mode definition.

typedef enum _smc_stop_mode smc_stop_mode_t#: Stop mode definition.

typedef enum _smc_stop_submode smc_stop_submode_t#: VLLS/LLS stop sub mode definition.

typedef enum _smc_partial_stop_mode smc_partial_stop_option_t#: Partial STOP option.

typedef struct _smc_version_id smc_version_id_t#: IP version ID definition.

typedef struct _smc_param smc_param_t#: IP parameter definition.

typedef struct _smc_power_mode_lls_config smc_power_mode_lls_config_t#: SMC Low-Leakage Stop power mode configuration.

typedef struct _smc_power_mode_vlls_config smc_power_mode_vlls_config_t#: SMC Very Low-Leakage Stop power mode configuration.

struct _smc_version_id#

#include <fsl_smc.h>

IP version ID definition.

Public Members

uint16_t feature#: Feature Specification Number.

uint8_t minor#: Minor version number.

uint8_t major#: Major version number.

struct _smc_param#

#include <fsl_smc.h>

IP parameter definition.

Public Members

bool hsrunEnable#: HSRUN mode enable.

bool llsEnable#: LLS mode enable.

bool lls2Enable#: LLS2 mode enable.

bool vlls0Enable#: VLLS0 mode enable.

struct _smc_power_mode_lls_config#

#include <fsl_smc.h>

SMC Low-Leakage Stop power mode configuration.

Public Members

smc_stop_submode_t subMode#: Low-leakage Stop sub-mode

bool enableLpoClock#: Enable LPO clock in LLS mode

struct _smc_power_mode_vlls_config#

#include <fsl_smc.h>

SMC Very Low-Leakage Stop power mode configuration.

Public Members

smc_stop_submode_t subMode#: Very Low-leakage Stop sub-mode

bool enablePorDetectInVlls0#: Enable Power on reset detect in VLLS mode

bool enableRam2InVlls2#: Enable RAM2 power in VLLS2

bool enableLpoClock#: Enable LPO clock in VLLS mode

SPI: Serial Peripheral Interface Driver#

SPI Driver#

void SPI_MasterGetDefaultConfig(spi_master_config_t *config)#

Sets the SPI master configuration structure to default values.

The purpose of this API is to get the configuration structure initialized for use in SPI_MasterInit(). User may use the initialized structure unchanged in SPI_MasterInit(), or modify some fields of the structure before calling SPI_MasterInit(). After calling this API, the master is ready to transfer. Example:

spi_master_config_t config;
SPI_MasterGetDefaultConfig(&config);

Parameters:

config – pointer to master config structure

void SPI_MasterInit(SPI_Type *base, const spi_master_config_t *config, uint32_t srcClock_Hz)#

Initializes the SPI with master configuration.

The configuration structure can be filled by user from scratch, or be set with default values by SPI_MasterGetDefaultConfig(). After calling this API, the slave is ready to transfer. Example

spi_master_config_t config = {
.baudRate_Bps = 400000,
...
};
SPI_MasterInit(SPI0, &config);

Parameters:

base – SPI base pointer
config – pointer to master configuration structure
srcClock_Hz – Source clock frequency.

void SPI_SlaveGetDefaultConfig(spi_slave_config_t *config)#

Sets the SPI slave configuration structure to default values.

The purpose of this API is to get the configuration structure initialized for use in SPI_SlaveInit(). Modify some fields of the structure before calling SPI_SlaveInit(). Example:

spi_slave_config_t config;
SPI_SlaveGetDefaultConfig(&config);

Parameters:

config – pointer to slave configuration structure

void SPI_SlaveInit(SPI_Type *base, const spi_slave_config_t *config)#

Initializes the SPI with slave configuration.

The configuration structure can be filled by user from scratch or be set with default values by SPI_SlaveGetDefaultConfig(). After calling this API, the slave is ready to transfer. Example

spi_slave_config_t config = {
.polarity = kSPIClockPolarity_ActiveHigh;
.phase = kSPIClockPhase_FirstEdge;
.direction = kSPIMsbFirst;
...
};
SPI_MasterInit(SPI0, &config);

Parameters:

base – SPI base pointer
config – pointer to master configuration structure

void SPI_Deinit(SPI_Type *base)#

De-initializes the SPI.

Calling this API resets the SPI module, gates the SPI clock. The SPI module can’t work unless calling the SPI_MasterInit/SPI_SlaveInit to initialize module.

Parameters:

base – SPI base pointer

static inline void SPI_Enable(SPI_Type *base, bool enable)#

Enables or disables the SPI.

Parameters:

base – SPI base pointer
enable – pass true to enable module, false to disable module

uint32_t SPI_GetStatusFlags(SPI_Type *base)#

Gets the status flag.

Parameters:

base – SPI base pointer

Returns:

SPI Status, use status flag to AND _spi_flags could get the related status.

static inline void SPI_ClearInterrupt(SPI_Type *base, uint8_t mask)#

Clear the interrupt if enable INCTLR.

Parameters:

base – SPI base pointer
mask – Interrupt need to be cleared The parameter could be any combination of the following values:
- kSPI_RxFullAndModfInterruptEnable
- kSPI_TxEmptyInterruptEnable
- kSPI_MatchInterruptEnable
- kSPI_RxFifoNearFullInterruptEnable
- kSPI_TxFifoNearEmptyInterruptEnable

void SPI_EnableInterrupts(SPI_Type *base, uint32_t mask)#

Enables the interrupt for the SPI.

Parameters:

base – SPI base pointer
mask – SPI interrupt source. The parameter can be any combination of the following values:
- kSPI_RxFullAndModfInterruptEnable
- kSPI_TxEmptyInterruptEnable
- kSPI_MatchInterruptEnable
- kSPI_RxFifoNearFullInterruptEnable
- kSPI_TxFifoNearEmptyInterruptEnable

void SPI_DisableInterrupts(SPI_Type *base, uint32_t mask)#

Disables the interrupt for the SPI.

Parameters:

base – SPI base pointer
mask – SPI interrupt source. The parameter can be any combination of the following values:
- kSPI_RxFullAndModfInterruptEnable
- kSPI_TxEmptyInterruptEnable
- kSPI_MatchInterruptEnable
- kSPI_RxFifoNearFullInterruptEnable
- kSPI_TxFifoNearEmptyInterruptEnable

static inline void SPI_EnableDMA(SPI_Type *base, uint8_t mask, bool enable)#

Enables the DMA source for SPI.

Parameters:

base – SPI base pointer
mask – SPI DMA source.
enable – True means enable DMA, false means disable DMA

static inline uint32_t SPI_GetDataRegisterAddress(SPI_Type *base)#

Gets the SPI tx/rx data register address.

This API is used to provide a transfer address for the SPI DMA transfer configuration.

Parameters:

base – SPI base pointer

Returns:

data register address

uint32_t SPI_GetInstance(SPI_Type *base)#

Get the instance for SPI module.

Parameters:

base – SPI base address

static inline void SPI_SetPinMode(SPI_Type *base, spi_pin_mode_t pinMode)#

Sets the pin mode for transfer.

Parameters:

base – SPI base pointer
pinMode – pin mode for transfer AND _spi_pin_mode could get the related configuration.

void SPI_MasterSetBaudRate(SPI_Type *base, uint32_t baudRate_Bps, uint32_t srcClock_Hz)#

Sets the baud rate for SPI transfer. This is only used in master.

Parameters:

base – SPI base pointer
baudRate_Bps – baud rate needed in Hz.
srcClock_Hz – SPI source clock frequency in Hz.

static inline void SPI_SetMatchData(SPI_Type *base, uint32_t matchData)#

Sets the match data for SPI.

The match data is a hardware comparison value. When the value received in the SPI receive data buffer equals the hardware comparison value, the SPI Match Flag in the S register (S[SPMF]) sets. This can also generate an interrupt if the enable bit sets.

Parameters:

base – SPI base pointer
matchData – Match data.

void SPI_EnableFIFO(SPI_Type *base, bool enable)#

Enables or disables the FIFO if there is a FIFO.

Parameters:

base – SPI base pointer
enable – True means enable FIFO, false means disable FIFO.

status_t SPI_WriteBlocking(SPI_Type *base, uint8_t *buffer, size_t size)#

Sends a buffer of data bytes using a blocking method.

Note

This function blocks via polling until all bytes have been sent.

Parameters:

base – SPI base pointer
buffer – The data bytes to send
size – The number of data bytes to send

Returns:

kStatus_SPI_Timeout The transfer timed out and was aborted.

void SPI_WriteData(SPI_Type *base, uint16_t data)#

Writes a data into the SPI data register.

Parameters:

base – SPI base pointer
data – needs to be write.

uint16_t SPI_ReadData(SPI_Type *base)#

Gets a data from the SPI data register.

Parameters:

base – SPI base pointer

Returns:

Data in the register.

void SPI_SetDummyData(SPI_Type *base, uint8_t dummyData)#

Set up the dummy data.

Parameters:

base – SPI peripheral address.
dummyData – Data to be transferred when tx buffer is NULL.

void SPI_MasterTransferCreateHandle(SPI_Type *base, spi_master_handle_t *handle, spi_master_callback_t callback, void *userData)#

Initializes the SPI master handle.

This function initializes the SPI master handle which can be used for other SPI master transactional APIs. Usually, for a specified SPI instance, call this API once to get the initialized handle.

Parameters:

base – SPI peripheral base address.
handle – SPI handle pointer.
callback – Callback function.
userData – User data.

status_t SPI_MasterTransferBlocking(SPI_Type *base, spi_transfer_t *xfer)#

Transfers a block of data using a polling method.

Parameters:

base – SPI base pointer
xfer – pointer to spi_xfer_config_t structure

Return values:

kStatus_Success – Successfully start a transfer.
kStatus_InvalidArgument – Input argument is invalid.

status_t SPI_MasterTransferNonBlocking(SPI_Type *base, spi_master_handle_t *handle, spi_transfer_t *xfer)#

Performs a non-blocking SPI interrupt transfer.

Note

The API immediately returns after transfer initialization is finished. Call SPI_GetStatusIRQ() to get the transfer status.

Note

If SPI transfer data frame size is 16 bits, the transfer size cannot be an odd number.

Parameters:

base – SPI peripheral base address.
handle – pointer to spi_master_handle_t structure which stores the transfer state
xfer – pointer to spi_xfer_config_t structure

Return values:

kStatus_Success – Successfully start a transfer.
kStatus_InvalidArgument – Input argument is invalid.
kStatus_SPI_Busy – SPI is not idle, is running another transfer.

status_t SPI_MasterTransferGetCount(SPI_Type *base, spi_master_handle_t *handle, size_t *count)#

Gets the bytes of the SPI interrupt transferred.

Parameters:

base – SPI peripheral base address.
handle – Pointer to SPI transfer handle, this should be a static variable.
count – Transferred bytes of SPI master.

Return values:

kStatus_SPI_Success – Succeed get the transfer count.
kStatus_NoTransferInProgress – There is not a non-blocking transaction currently in progress.

void SPI_MasterTransferAbort(SPI_Type *base, spi_master_handle_t *handle)#

Aborts an SPI transfer using interrupt.

Parameters:

base – SPI peripheral base address.
handle – Pointer to SPI transfer handle, this should be a static variable.

void SPI_MasterTransferHandleIRQ(SPI_Type *base, spi_master_handle_t *handle)#

Interrupts the handler for the SPI.

Parameters:

base – SPI peripheral base address.
handle – pointer to spi_master_handle_t structure which stores the transfer state.

void SPI_SlaveTransferCreateHandle(SPI_Type *base, spi_slave_handle_t *handle, spi_slave_callback_t callback, void *userData)#

Initializes the SPI slave handle.

This function initializes the SPI slave handle which can be used for other SPI slave transactional APIs. Usually, for a specified SPI instance, call this API once to get the initialized handle.

Parameters:

base – SPI peripheral base address.
handle – SPI handle pointer.
callback – Callback function.
userData – User data.

status_t SPI_SlaveTransferNonBlocking(SPI_Type *base, spi_slave_handle_t *handle, spi_transfer_t *xfer)#

Performs a non-blocking SPI slave interrupt transfer.

Note

The API returns immediately after the transfer initialization is finished. Call SPI_GetStatusIRQ() to get the transfer status.

Note

If SPI transfer data frame size is 16 bits, the transfer size cannot be an odd number.

Parameters:

base – SPI peripheral base address.
handle – pointer to spi_slave_handle_t structure which stores the transfer state
xfer – pointer to spi_xfer_config_t structure

Return values:

kStatus_Success – Successfully start a transfer.
kStatus_InvalidArgument – Input argument is invalid.
kStatus_SPI_Busy – SPI is not idle, is running another transfer.

static inline status_t SPI_SlaveTransferGetCount(SPI_Type *base, spi_slave_handle_t *handle, size_t *count)#

Gets the bytes of the SPI interrupt transferred.

Parameters:

base – SPI peripheral base address.
handle – Pointer to SPI transfer handle, this should be a static variable.
count – Transferred bytes of SPI slave.

Return values:

kStatus_SPI_Success – Succeed get the transfer count.
kStatus_NoTransferInProgress – There is not a non-blocking transaction currently in progress.

static inline void SPI_SlaveTransferAbort(SPI_Type *base, spi_slave_handle_t *handle)#

Aborts an SPI slave transfer using interrupt.

Parameters:

base – SPI peripheral base address.
handle – Pointer to SPI transfer handle, this should be a static variable.

void SPI_SlaveTransferHandleIRQ(SPI_Type *base, spi_slave_handle_t *handle)#

Interrupts a handler for the SPI slave.

Parameters:

base – SPI peripheral base address.
handle – pointer to spi_slave_handle_t structure which stores the transfer state

void SPI_DriverIRQHandler(uint32_t instance)#

SPI driver IRQ handler common entry.

Parameters:

instance – SPI peripheral instance number.

FSL_SPI_DRIVER_VERSION#: SPI driver version.

Return status for the SPI driver.

Values:

enumerator kStatus_SPI_Busy#: SPI bus is busy

enumerator kStatus_SPI_Idle#: SPI is idle

enumerator kStatus_SPI_Error#: SPI error

enumerator kStatus_SPI_Timeout#: SPI timeout polling status flags.

enum _spi_clock_polarity#

SPI clock polarity configuration.

Values:

enumerator kSPI_ClockPolarityActiveHigh#: Active-high SPI clock (idles low).

enumerator kSPI_ClockPolarityActiveLow#: Active-low SPI clock (idles high).

enum _spi_clock_phase#

SPI clock phase configuration.

Values:

enumerator kSPI_ClockPhaseFirstEdge#: First edge on SPSCK occurs at the middle of the first cycle of a data transfer.

enumerator kSPI_ClockPhaseSecondEdge#: First edge on SPSCK occurs at the start of the first cycle of a data transfer.

enum _spi_shift_direction#

SPI data shifter direction options.

Values:

enumerator kSPI_MsbFirst#: Data transfers start with most significant bit.

enumerator kSPI_LsbFirst#: Data transfers start with least significant bit.

enum _spi_ss_output_mode#

SPI slave select output mode options.

Values:

enumerator kSPI_SlaveSelectAsGpio#: Slave select pin configured as GPIO.

enumerator kSPI_SlaveSelectFaultInput#: Slave select pin configured for fault detection.

enumerator kSPI_SlaveSelectAutomaticOutput#: Slave select pin configured for automatic SPI output.

enum _spi_pin_mode#

SPI pin mode options.

Values:

enumerator kSPI_PinModeNormal#: Pins operate in normal, single-direction mode.

enumerator kSPI_PinModeInput#: Bidirectional mode. Master: MOSI pin is input; Slave: MISO pin is input.

enumerator kSPI_PinModeOutput#: Bidirectional mode. Master: MOSI pin is output; Slave: MISO pin is output.

enum _spi_data_bitcount_mode#

SPI data length mode options.

Values:

enumerator kSPI_8BitMode#: 8-bit data transmission mode

enumerator kSPI_16BitMode#: 16-bit data transmission mode

enum _spi_interrupt_enable#

SPI interrupt sources.

Values:

enumerator kSPI_RxFullAndModfInterruptEnable#: Receive buffer full (SPRF) and mode fault (MODF) interrupt

enumerator kSPI_TxEmptyInterruptEnable#: Transmit buffer empty interrupt

enumerator kSPI_MatchInterruptEnable#: Match interrupt

enumerator kSPI_RxFifoNearFullInterruptEnable#: Receive FIFO nearly full interrupt

enumerator kSPI_TxFifoNearEmptyInterruptEnable#: Transmit FIFO nearly empty interrupt

enum _spi_flags#

SPI status flags.

Values:

enumerator kSPI_RxBufferFullFlag#: Read buffer full flag

enumerator kSPI_MatchFlag#: Match flag

enumerator kSPI_TxBufferEmptyFlag#: Transmit buffer empty flag

enumerator kSPI_ModeFaultFlag#: Mode fault flag

enumerator kSPI_RxFifoNearFullFlag#: Rx FIFO near full

enumerator kSPI_TxFifoNearEmptyFlag#: Tx FIFO near empty

enumerator kSPI_TxFifoFullFlag#: Tx FIFO full

enumerator kSPI_RxFifoEmptyFlag#: Rx FIFO empty

enumerator kSPI_TxFifoError#: Tx FIFO error

enumerator kSPI_RxFifoError#: Rx FIFO error

enumerator kSPI_TxOverflow#: Tx FIFO Overflow

enumerator kSPI_RxOverflow#: Rx FIFO Overflow

enum _spi_w1c_interrupt#

SPI FIFO write-1-to-clear interrupt flags.

Values:

enumerator kSPI_RxFifoFullClearInterrupt#: Receive FIFO full interrupt

enumerator kSPI_TxFifoEmptyClearInterrupt#: Transmit FIFO empty interrupt

enumerator kSPI_RxNearFullClearInterrupt#: Receive FIFO nearly full interrupt

enumerator kSPI_TxNearEmptyClearInterrupt#: Transmit FIFO nearly empty interrupt

enum _spi_txfifo_watermark#

SPI TX FIFO watermark settings.

Values:

enumerator kSPI_TxFifoOneFourthEmpty#: SPI tx watermark at 1/4 FIFO size

enumerator kSPI_TxFifoOneHalfEmpty#: SPI tx watermark at 1/2 FIFO size

enum _spi_rxfifo_watermark#

SPI RX FIFO watermark settings.

Values:

enumerator kSPI_RxFifoThreeFourthsFull#: SPI rx watermark at 3/4 FIFO size

enumerator kSPI_RxFifoOneHalfFull#: SPI rx watermark at 1/2 FIFO size

enum _spi_dma_enable_t#

SPI DMA source.

Values:

enumerator kSPI_TxDmaEnable#: Tx DMA request source

enumerator kSPI_RxDmaEnable#: Rx DMA request source

enumerator kSPI_DmaAllEnable#: All DMA request source

typedef enum _spi_clock_polarity spi_clock_polarity_t#: SPI clock polarity configuration.

typedef enum _spi_clock_phase spi_clock_phase_t#: SPI clock phase configuration.

typedef enum _spi_shift_direction spi_shift_direction_t#: SPI data shifter direction options.

typedef enum _spi_ss_output_mode spi_ss_output_mode_t#: SPI slave select output mode options.

typedef enum _spi_pin_mode spi_pin_mode_t#: SPI pin mode options.

typedef enum _spi_data_bitcount_mode spi_data_bitcount_mode_t#: SPI data length mode options.

typedef enum _spi_w1c_interrupt spi_w1c_interrupt_t#: SPI FIFO write-1-to-clear interrupt flags.

typedef enum _spi_txfifo_watermark spi_txfifo_watermark_t#: SPI TX FIFO watermark settings.

typedef enum _spi_rxfifo_watermark spi_rxfifo_watermark_t#: SPI RX FIFO watermark settings.

typedef struct _spi_master_config spi_master_config_t#: SPI master user configure structure.

typedef struct _spi_slave_config spi_slave_config_t#: SPI slave user configure structure.

typedef struct _spi_transfer spi_transfer_t#: SPI transfer structure.

typedef struct _spi_master_handle spi_master_handle_t#

typedef spi_master_handle_t spi_slave_handle_t#: Slave handle is the same with master handle

typedef void (*spi_master_callback_t)(SPI_Type *base, spi_master_handle_t *handle, status_t status, void *userData)#: SPI master callback for finished transmit.

typedef void (*spi_slave_callback_t)(SPI_Type *base, spi_slave_handle_t *handle, status_t status, void *userData)#: SPI master callback for finished transmit.

volatile uint8_t g_spiDummyData[]#: Global variable for dummy data value setting.

SPI_DUMMYDATA#: SPI dummy transfer data, the data is sent while txBuff is NULL.

SPI_RETRY_TIMES#: Retry times for waiting flag.

struct _spi_master_config#

#include <fsl_spi.h>

SPI master user configure structure.

Public Members

bool enableMaster#: Enable SPI at initialization time

bool enableStopInWaitMode#: SPI stop in wait mode

spi_clock_polarity_t polarity#: Clock polarity

spi_clock_phase_t phase#: Clock phase

spi_shift_direction_t direction#: MSB or LSB

spi_data_bitcount_mode_t dataMode#: 8bit or 16bit mode

spi_txfifo_watermark_t txWatermark#: Tx watermark settings

spi_rxfifo_watermark_t rxWatermark#: Rx watermark settings

spi_ss_output_mode_t outputMode#: SS pin setting

spi_pin_mode_t pinMode#: SPI pin mode select

uint32_t baudRate_Bps#: Baud Rate for SPI in Hz

struct _spi_slave_config#

#include <fsl_spi.h>

SPI slave user configure structure.

Public Members

bool enableSlave#: Enable SPI at initialization time

bool enableStopInWaitMode#: SPI stop in wait mode

spi_clock_polarity_t polarity#: Clock polarity

spi_clock_phase_t phase#: Clock phase

spi_shift_direction_t direction#: MSB or LSB

spi_data_bitcount_mode_t dataMode#: 8bit or 16bit mode

spi_txfifo_watermark_t txWatermark#: Tx watermark settings

spi_rxfifo_watermark_t rxWatermark#: Rx watermark settings

spi_pin_mode_t pinMode#: SPI pin mode select

struct _spi_transfer#

#include <fsl_spi.h>

SPI transfer structure.

Public Members

const uint8_t *txData#: Send buffer

uint8_t *rxData#: Receive buffer

size_t dataSize#: Transfer bytes

uint32_t flags#: SPI control flag, useless to SPI.

struct _spi_master_handle#

#include <fsl_spi.h>

SPI transfer handle structure.

Public Members

const uint8_t *volatile txData#: Transfer buffer

uint8_t *volatile rxData#: Receive buffer

volatile size_t txRemainingBytes#: Send data remaining in bytes

volatile size_t rxRemainingBytes#: Receive data remaining in bytes

volatile uint32_t state#: SPI internal state

size_t transferSize#: Bytes to be transferred

uint8_t bytePerFrame#: SPI mode, 2bytes or 1byte in a frame

uint8_t watermark#: Watermark value for SPI transfer

spi_master_callback_t callback#: SPI callback

void *userData#: Callback parameter

TPM: Timer PWM Module#

uint32_t TPM_GetInstance(TPM_Type *base)#

Gets the instance from the base address.

Parameters:

base – TPM peripheral base address

Returns:

The TPM instance

void TPM_Init(TPM_Type *base, const tpm_config_t *config)#

Ungates the TPM clock and configures the peripheral for basic operation.

Note

This API should be called at the beginning of the application using the TPM driver.

Parameters:

base – TPM peripheral base address
config – Pointer to user’s TPM config structure.

void TPM_Deinit(TPM_Type *base)#

Stops the counter and gates the TPM clock.

Parameters:

base – TPM peripheral base address

void TPM_GetDefaultConfig(tpm_config_t *config)#

Fill in the TPM config struct with the default settings.

The default values are:

     config->prescale = kTPM_Prescale_Divide_1;
     config->useGlobalTimeBase = false;
     config->syncGlobalTimeBase = false;
     config->dozeEnable = false;
     config->dbgMode = false;
     config->enableReloadOnTrigger = false;
     config->enableStopOnOverflow = false;
     config->enableStartOnTrigger = false;
#if FSL_FEATURE_TPM_HAS_PAUSE_COUNTER_ON_TRIGGER
     config->enablePauseOnTrigger = false;
#endif
     config->triggerSelect = kTPM_Trigger_Select_0;
#if FSL_FEATURE_TPM_HAS_EXTERNAL_TRIGGER_SELECTION
     config->triggerSource = kTPM_TriggerSource_External;
     config->extTriggerPolarity = kTPM_ExtTrigger_Active_High;
#endif
#if defined(FSL_FEATURE_TPM_HAS_POL) && FSL_FEATURE_TPM_HAS_POL
     config->chnlPolarity = 0U;
#endif

Parameters:

config – Pointer to user’s TPM config structure.

tpm_clock_prescale_t TPM_CalculateCounterClkDiv(TPM_Type *base, uint32_t counterPeriod_Hz, uint32_t srcClock_Hz)#

Calculates the counter clock prescaler.

This function calculates the values for SC[PS].

return Calculated clock prescaler value.

Parameters:

base – TPM peripheral base address
counterPeriod_Hz – The desired frequency in Hz which corresponding to the time when the counter reaches the mod value
srcClock_Hz – TPM counter clock in Hz

static inline void TPM_Reset(TPM_Type *base)#

Performs a software reset on the TPM module.

Reset all internal logic and registers, except the Global Register. Remains set until cleared by software.

Note

TPM software reset is available on certain SoC’s only

Parameters:

base – TPM peripheral base address

status_t TPM_SetupPwm(TPM_Type *base, const tpm_chnl_pwm_signal_param_t *chnlParams, uint8_t numOfChnls, tpm_pwm_mode_t mode, uint32_t pwmFreq_Hz, uint32_t srcClock_Hz)#

Configures the PWM signal parameters.

User calls this function to configure the PWM signals period, mode, dutycycle and edge. Use this function to configure all the TPM channels that will be used to output a PWM signal

Parameters:

base – TPM peripheral base address
chnlParams – Array of PWM channel parameters to configure the channel(s)
numOfChnls – Number of channels to configure, this should be the size of the array passed in
mode – PWM operation mode, options available in enumeration tpm_pwm_mode_t
pwmFreq_Hz – PWM signal frequency in Hz
srcClock_Hz – TPM counter clock in Hz

Returns:

kStatus_Success PWM setup successful kStatus_Error PWM setup failed kStatus_Timeout PWM setup timeout when write register CnV or MOD

status_t TPM_UpdatePwmDutycycle(TPM_Type *base, tpm_chnl_t chnlNumber, tpm_pwm_mode_t currentPwmMode, uint8_t dutyCyclePercent)#

Update the duty cycle of an active PWM signal.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number. In combined mode, this represents the channel pair number
currentPwmMode – The current PWM mode set during PWM setup
dutyCyclePercent – New PWM pulse width, value should be between 0 to 100 0=inactive signal(0% duty cycle)… 100=active signal (100% duty cycle)

Returns:

kStatus_Success if the PWM setup was successful, kStatus_Error on failure

void TPM_UpdateChnlEdgeLevelSelect(TPM_Type *base, tpm_chnl_t chnlNumber, uint8_t level)#

Update the edge level selection for a channel.

Note

When the TPM has PWM pause level select feature (FSL_FEATURE_TPM_HAS_PAUSE_LEVEL_SELECT = 1), the PWM output cannot be turned off by selecting the output level. In this case, must use TPM_DisableChannel API to close the PWM output.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number
level – The level to be set to the ELSnB:ELSnA field; valid values are 00, 01, 10, 11. See the appropriate SoC reference manual for details about this field.

static inline uint8_t TPM_GetChannelContorlBits(TPM_Type *base, tpm_chnl_t chnlNumber)#

Get the channel control bits value (mode, edge and level bit fields).

Deprecated:: Please use TPM_GetChannelControlBits() instead.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number

Returns:

The contorl bits value. This is the logical OR of members of the enumeration tpm_chnl_control_bit_mask_t.

static inline uint8_t TPM_GetChannelControlBits(TPM_Type *base, tpm_chnl_t chnlNumber)#

Get the channel control bits value (mode, edge and level bit fields).

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number

Returns:

The control bits value. This is the logical OR of members of the enumeration tpm_chnl_control_bit_mask_t.

static inline status_t TPM_DisableChannel(TPM_Type *base, tpm_chnl_t chnlNumber)#

Dsiable the channel.

This function disable the channel by clear all mode and level control bits.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number

Returns:

kStatus_Success PWM setup successful kStatus_Timeout PWM setup timeout when write register CnSC

static inline status_t TPM_EnableChannel(TPM_Type *base, tpm_chnl_t chnlNumber, uint8_t control)#

Enable the channel according to mode and level configs.

This function enable the channel output according to input mode/level config parameters.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number
control – The contorl bits value. This is the logical OR of members of the enumeration tpm_chnl_control_bit_mask_t.

Returns:

kStatus_Success PWM setup successful kStatus_Timeout PWM setup timeout when write register CnSC

void TPM_SetupInputCapture(TPM_Type *base, tpm_chnl_t chnlNumber, tpm_input_capture_edge_t captureMode)#

Enables capturing an input signal on the channel using the function parameters.

When the edge specified in the captureMode argument occurs on the channel, the TPM counter is captured into the CnV register. The user has to read the CnV register separately to get this value.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number
captureMode – Specifies which edge to capture

status_t TPM_SetupOutputCompare(TPM_Type *base, tpm_chnl_t chnlNumber, tpm_output_compare_mode_t compareMode, uint32_t compareValue)#

Configures the TPM to generate timed pulses.

When the TPM counter matches the value of compareVal argument (this is written into CnV reg), the channel output is changed based on what is specified in the compareMode argument.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number
compareMode – Action to take on the channel output when the compare condition is met
compareValue – Value to be programmed in the CnV register.

Returns:

kStatus_Success PWM setup successful kStatus_Timeout PWM setup timeout when write register CnV

void TPM_SetupDualEdgeCapture(TPM_Type *base, tpm_chnl_t chnlPairNumber, const tpm_dual_edge_capture_param_t *edgeParam, uint32_t filterValue)#

Configures the dual edge capture mode of the TPM.

This function allows to measure a pulse width of the signal on the input of channel of a channel pair. The filter function is disabled if the filterVal argument passed is zero.

Parameters:

base – TPM peripheral base address
chnlPairNumber – The TPM channel pair number; options are 0, 1, 2, 3
edgeParam – Sets up the dual edge capture function
filterValue – Filter value, specify 0 to disable filter.

void TPM_SetupQuadDecode(TPM_Type *base, const tpm_phase_params_t *phaseAParams, const tpm_phase_params_t *phaseBParams, tpm_quad_decode_mode_t quadMode)#

Configures the parameters and activates the quadrature decode mode.

Parameters:

base – TPM peripheral base address
phaseAParams – Phase A configuration parameters
phaseBParams – Phase B configuration parameters
quadMode – Selects encoding mode used in quadrature decoder mode

static inline void TPM_SetChannelPolarity(TPM_Type *base, tpm_chnl_t chnlNumber, bool enable)#

Set the input and output polarity of each of the channels.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number
enable – true: Set the channel polarity to active high; false: Set the channel polarity to active low;

static inline void TPM_EnableChannelExtTrigger(TPM_Type *base, tpm_chnl_t chnlNumber, bool enable)#

Enable external trigger input to be used by channel.

In input capture mode, configures the trigger input that is used by the channel to capture the counter value. In output compare or PWM mode, configures the trigger input used to modulate the channel output. When modulating the output, the output is forced to the channel initial value whenever the trigger is not asserted.

Note

No matter how many external trigger sources there are, only input trigger 0 and 1 are used. The even numbered channels share the input trigger 0 and the odd numbered channels share the second input trigger 1.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number
enable – true: Configures trigger input 0 or 1 to be used by channel; false: Trigger input has no effect on the channel

void TPM_EnableInterrupts(TPM_Type *base, uint32_t mask)#

Enables the selected TPM interrupts.

Parameters:

base – TPM peripheral base address
mask – The interrupts to enable. This is a logical OR of members of the enumeration tpm_interrupt_enable_t

void TPM_DisableInterrupts(TPM_Type *base, uint32_t mask)#

Disables the selected TPM interrupts.

Parameters:

base – TPM peripheral base address
mask – The interrupts to disable. This is a logical OR of members of the enumeration tpm_interrupt_enable_t

uint32_t TPM_GetEnabledInterrupts(TPM_Type *base)#

Gets the enabled TPM interrupts.

Parameters:

base – TPM peripheral base address

Returns:

The enabled interrupts. This is the logical OR of members of the enumeration tpm_interrupt_enable_t

void TPM_RegisterCallBack(TPM_Type *base, tpm_callback_t callback)#

If channel or overflow interrupt is enabled by the user, then a callback can be registered which will be invoked when the interrupt is triggered.

Parameters:

base – TPM peripheral base address
callback – Callback function

void TPM_DriverIRQHandler(uint32_t instance)#

TPM driver IRQ handler common entry.

This function provides the common IRQ request entry for TPM.

Parameters:

instance – TPM instance.

static inline uint32_t TPM_GetChannelValue(TPM_Type *base, tpm_chnl_t chnlNumber)#

Gets the TPM channel value.

Note

The TPM channel value contain the captured TPM counter value for the input modes or the match value for the output modes.

Parameters:

base – TPM peripheral base address
chnlNumber – The channel number

Returns:

The channle CnV regisyer value.

static inline uint32_t TPM_GetStatusFlags(TPM_Type *base)#

Gets the TPM status flags.

Parameters:

base – TPM peripheral base address

Returns:

The status flags. This is the logical OR of members of the enumeration tpm_status_flags_t

static inline void TPM_ClearStatusFlags(TPM_Type *base, uint32_t mask)#

Clears the TPM status flags.

Parameters:

base – TPM peripheral base address
mask – The status flags to clear. This is a logical OR of members of the enumeration tpm_status_flags_t

static inline status_t TPM_SetTimerPeriod(TPM_Type *base, uint32_t ticks)#

Sets the timer period in units of ticks.

Timers counts from 0 until it equals the count value set here. The count value is written to the MOD register.

Note

This API allows the user to use the TPM module as a timer. Do not mix usage of this API with TPM’s PWM setup API’s.
Call the utility macros provided in the fsl_common.h to convert usec or msec to ticks.

Parameters:

base – TPM peripheral base address
ticks – A timer period in units of ticks, which should be equal or greater than 1.

Returns:

kStatus_Success PWM setup successful kStatus_Timeout PWM setup timeout when write register CnSC

static inline uint32_t TPM_GetCurrentTimerCount(TPM_Type *base)#

Reads the current timer counting value.

This function returns the real-time timer counting value in a range from 0 to a timer period.

Note

Call the utility macros provided in the fsl_common.h to convert ticks to usec or msec.

Parameters:

base – TPM peripheral base address

Returns:

The current counter value in ticks

static inline void TPM_StartTimer(TPM_Type *base, tpm_clock_source_t clockSource)#

Starts the TPM counter.

Parameters:

base – TPM peripheral base address
clockSource – TPM clock source; once clock source is set the counter will start running

static inline status_t TPM_StopTimer(TPM_Type *base)#

Stops the TPM counter.

Parameters:

base – TPM peripheral base address

Returns:

kStatus_Success PWM setup successful kStatus_Timeout PWM setup timeout when write register CnSC

FSL_TPM_DRIVER_VERSION#: TPM driver version 2.5.0.

enum _tpm_chnl#

List of TPM channels.

Note

Actual number of available channels is SoC dependent

Values:

enumerator kTPM_Chnl_0#: TPM channel number 0

enumerator kTPM_Chnl_1#: TPM channel number 1

enumerator kTPM_Chnl_2#: TPM channel number 2

enumerator kTPM_Chnl_3#: TPM channel number 3

enumerator kTPM_Chnl_4#: TPM channel number 4

enumerator kTPM_Chnl_5#: TPM channel number 5

enumerator kTPM_Chnl_6#: TPM channel number 6

enumerator kTPM_Chnl_7#: TPM channel number 7

enum _tpm_pwm_mode#

TPM PWM operation modes.

Values:

enumerator kTPM_EdgeAlignedPwm#: Edge aligned PWM

enumerator kTPM_CombinedPwm#: Combined PWM (Edge-aligned, center-aligned, or asymmetrical PWMs can be obtained in combined mode using different software configurations)

enum _tpm_pwm_level_select#

TPM PWM output pulse mode: high-true, low-true or no output.

Note

When the TPM has PWM pause level select feature, the PWM output cannot be turned off by selecting the output level. In this case, the channel must be closed to close the PWM output.

Values:

enumerator kTPM_NoPwmSignal#: No PWM output on pin

enumerator kTPM_LowTrue#: Low true pulses

enumerator kTPM_HighTrue#: High true pulses

enum _tpm_chnl_control_bit_mask#

List of TPM channel modes and level control bit mask.

Values:

enumerator kTPM_ChnlELSnAMask#: Channel ELSA bit mask.

enumerator kTPM_ChnlELSnBMask#: Channel ELSB bit mask.

enumerator kTPM_ChnlMSAMask#: Channel MSA bit mask.

enumerator kTPM_ChnlMSBMask#: Channel MSB bit mask.

enum _tpm_trigger_select#

Trigger sources available.

This is used for both internal & external trigger sources (external trigger sources available in certain SoC’s)

Note

The actual trigger sources available is SoC-specific.

Values:

enumerator kTPM_Trigger_Select_0#

enumerator kTPM_Trigger_Select_1#

enumerator kTPM_Trigger_Select_2#

enumerator kTPM_Trigger_Select_3#

enumerator kTPM_Trigger_Select_4#

enumerator kTPM_Trigger_Select_5#

enumerator kTPM_Trigger_Select_6#

enumerator kTPM_Trigger_Select_7#

enumerator kTPM_Trigger_Select_8#

enumerator kTPM_Trigger_Select_9#

enumerator kTPM_Trigger_Select_10#

enumerator kTPM_Trigger_Select_11#

enumerator kTPM_Trigger_Select_12#

enumerator kTPM_Trigger_Select_13#

enumerator kTPM_Trigger_Select_14#

enumerator kTPM_Trigger_Select_15#

enum _tpm_trigger_source#

Trigger source options available.

Note

This selection is available only on some SoC’s. For SoC’s without this selection, the only trigger source available is internal triger.

Values:

enumerator kTPM_TriggerSource_External#: Use external trigger input

enumerator kTPM_TriggerSource_Internal#: Use internal trigger (channel pin input capture)

enum _tpm_ext_trigger_polarity#

External trigger source polarity.

Note

Selects the polarity of the external trigger source.

Values:

enumerator kTPM_ExtTrigger_Active_High#: External trigger input is active high

enumerator kTPM_ExtTrigger_Active_Low#: External trigger input is active low

enum _tpm_output_compare_mode#

TPM output compare modes.

Values:

enumerator kTPM_NoOutputSignal#: No channel output when counter reaches CnV

enumerator kTPM_ToggleOnMatch#: Toggle output

enumerator kTPM_ClearOnMatch#: Clear output

enumerator kTPM_SetOnMatch#: Set output

enumerator kTPM_HighPulseOutput#: Pulse output high

enumerator kTPM_LowPulseOutput#: Pulse output low

enum _tpm_input_capture_edge#

TPM input capture edge.

Values:

enumerator kTPM_RisingEdge#: Capture on rising edge only

enumerator kTPM_FallingEdge#: Capture on falling edge only

enumerator kTPM_RiseAndFallEdge#: Capture on rising or falling edge

enum _tpm_quad_decode_mode#

TPM quadrature decode modes.

Note

This mode is available only on some SoC’s.

Values:

enumerator kTPM_QuadPhaseEncode#: Phase A and Phase B encoding mode

enumerator kTPM_QuadCountAndDir#: Count and direction encoding mode

enum _tpm_phase_polarity#

TPM quadrature phase polarities.

Values:

enumerator kTPM_QuadPhaseNormal#: Phase input signal is not inverted

enumerator kTPM_QuadPhaseInvert#: Phase input signal is inverted

enum _tpm_clock_source#

TPM clock source selection.

Values:

enumerator kTPM_SystemClock#: System clock

enumerator kTPM_ExternalClock#: External TPM_EXTCLK pin clock

enumerator kTPM_ExternalInputTriggerClock#: Selected external input trigger clock

enum _tpm_clock_prescale#

TPM prescale value selection for the clock source.

Values:

enumerator kTPM_Prescale_Divide_1#: Divide by 1

enumerator kTPM_Prescale_Divide_2#: Divide by 2

enumerator kTPM_Prescale_Divide_4#: Divide by 4

enumerator kTPM_Prescale_Divide_8#: Divide by 8

enumerator kTPM_Prescale_Divide_16#: Divide by 16

enumerator kTPM_Prescale_Divide_32#: Divide by 32

enumerator kTPM_Prescale_Divide_64#: Divide by 64

enumerator kTPM_Prescale_Divide_128#: Divide by 128

enum _tpm_interrupt_enable#

List of TPM interrupts.

Values:

enumerator kTPM_Chnl0InterruptEnable#: Channel 0 interrupt.

enumerator kTPM_Chnl1InterruptEnable#: Channel 1 interrupt.

enumerator kTPM_Chnl2InterruptEnable#: Channel 2 interrupt.

enumerator kTPM_Chnl3InterruptEnable#: Channel 3 interrupt.

enumerator kTPM_Chnl4InterruptEnable#: Channel 4 interrupt.

enumerator kTPM_Chnl5InterruptEnable#: Channel 5 interrupt.

enumerator kTPM_Chnl6InterruptEnable#: Channel 6 interrupt.

enumerator kTPM_Chnl7InterruptEnable#: Channel 7 interrupt.

enumerator kTPM_TimeOverflowInterruptEnable#: Time overflow interrupt.

enum _tpm_status_flags#

List of TPM flags.

Values:

enumerator kTPM_Chnl0Flag#: Channel 0 flag

enumerator kTPM_Chnl1Flag#: Channel 1 flag

enumerator kTPM_Chnl2Flag#: Channel 2 flag

enumerator kTPM_Chnl3Flag#: Channel 3 flag

enumerator kTPM_Chnl4Flag#: Channel 4 flag

enumerator kTPM_Chnl5Flag#: Channel 5 flag

enumerator kTPM_Chnl6Flag#: Channel 6 flag

enumerator kTPM_Chnl7Flag#: Channel 7 flag

enumerator kTPM_TimeOverflowFlag#: Time overflow flag

typedef enum _tpm_chnl tpm_chnl_t#: List of TPM channels.

Note

Actual number of available channels is SoC dependent

typedef enum _tpm_pwm_mode tpm_pwm_mode_t#: TPM PWM operation modes.

typedef enum _tpm_pwm_level_select tpm_pwm_level_select_t#: TPM PWM output pulse mode: high-true, low-true or no output.

Note

When the TPM has PWM pause level select feature, the PWM output cannot be turned off by selecting the output level. In this case, the channel must be closed to close the PWM output.

typedef enum _tpm_chnl_control_bit_mask tpm_chnl_control_bit_mask_t#: List of TPM channel modes and level control bit mask.

typedef struct _tpm_chnl_pwm_signal_param tpm_chnl_pwm_signal_param_t#: Options to configure a TPM channel’s PWM signal.

typedef enum _tpm_trigger_select tpm_trigger_select_t#

Trigger sources available.

This is used for both internal & external trigger sources (external trigger sources available in certain SoC’s)

Note

The actual trigger sources available is SoC-specific.

typedef enum _tpm_trigger_source tpm_trigger_source_t#: Trigger source options available.

Note

This selection is available only on some SoC’s. For SoC’s without this selection, the only trigger source available is internal triger.

typedef enum _tpm_ext_trigger_polarity tpm_ext_trigger_polarity_t#: External trigger source polarity.

Note

Selects the polarity of the external trigger source.

typedef enum _tpm_output_compare_mode tpm_output_compare_mode_t#: TPM output compare modes.

typedef enum _tpm_input_capture_edge tpm_input_capture_edge_t#: TPM input capture edge.

typedef struct _tpm_dual_edge_capture_param tpm_dual_edge_capture_param_t#: TPM dual edge capture parameters.

Note

This mode is available only on some SoC’s.

typedef enum _tpm_quad_decode_mode tpm_quad_decode_mode_t#: TPM quadrature decode modes.

Note

This mode is available only on some SoC’s.

typedef enum _tpm_phase_polarity tpm_phase_polarity_t#: TPM quadrature phase polarities.

typedef struct _tpm_phase_param tpm_phase_params_t#: TPM quadrature decode phase parameters.

typedef enum _tpm_clock_source tpm_clock_source_t#: TPM clock source selection.

typedef enum _tpm_clock_prescale tpm_clock_prescale_t#: TPM prescale value selection for the clock source.

typedef struct _tpm_config tpm_config_t#

TPM config structure.

This structure holds the configuration settings for the TPM peripheral. To initialize this structure to reasonable defaults, call the TPM_GetDefaultConfig() function and pass a pointer to your config structure instance.

The config struct can be made const so it resides in flash

typedef enum _tpm_interrupt_enable tpm_interrupt_enable_t#: List of TPM interrupts.

typedef enum _tpm_status_flags tpm_status_flags_t#: List of TPM flags.

typedef void (*tpm_callback_t)(TPM_Type *base)#

TPM callback function pointer.

Param base:: TPM peripheral base address.

TPM_TIMEOUT#

Max loops to wait for writing register.

When writing MOD CnV CnSC and SC register, driver will wait until register is updated. This parameter defines how many loops to check completion before return timeout. If defined as 0, driver will wait forever until completion.

TPM_MAX_COUNTER_VALUE(x)#: Help macro to get the max counter value.

struct _tpm_chnl_pwm_signal_param#

#include <fsl_tpm.h>

Options to configure a TPM channel’s PWM signal.

Public Members

tpm_chnl_t chnlNumber#: TPM channel to configure. In combined mode (available in some SoC’s), this represents the channel pair number

tpm_pwm_level_select_t level#: PWM output active level select

uint8_t dutyCyclePercent#: PWM pulse width, value should be between 0 to 100 0=inactive signal(0% duty cycle)… 100=always active signal (100% duty cycle)

uint8_t firstEdgeDelayPercent#: Used only in combined PWM mode to generate asymmetrical PWM. Specifies the delay to the first edge in a PWM period. If unsure, leave as 0. Should be specified as percentage of the PWM period, (dutyCyclePercent + firstEdgeDelayPercent) value should be not greate than 100.

bool enableComplementary#: Used only in combined PWM mode. true: The combined channels output complementary signals; false: The combined channels output same signals;

uint8_t deadTimeValue[2]#: The dead time value for channel n and n+1 in combined complementary PWM mode. Deadtime insertion is disabled when this value is zero, otherwise deadtime insertion for channel n/n+1 is configured as (deadTimeValue * 4) clock cycles. deadTimeValue’s available range is 0 ~ 15.

struct _tpm_dual_edge_capture_param#

#include <fsl_tpm.h>

TPM dual edge capture parameters.

Note

This mode is available only on some SoC’s.

Public Members

bool enableSwap#: true: Use channel n+1 input, channel n input is ignored; false: Use channel n input, channel n+1 input is ignored

tpm_input_capture_edge_t currChanEdgeMode#: Input capture edge select for channel n

tpm_input_capture_edge_t nextChanEdgeMode#: Input capture edge select for channel n+1

struct _tpm_phase_param#

#include <fsl_tpm.h>

TPM quadrature decode phase parameters.

Public Members

uint32_t phaseFilterVal#: Filter value, filter is disabled when the value is zero

tpm_phase_polarity_t phasePolarity#: Phase polarity

struct _tpm_config#

#include <fsl_tpm.h>

TPM config structure.

The config struct can be made const so it resides in flash

Public Members

tpm_clock_prescale_t prescale#: Select TPM clock prescale value

bool useGlobalTimeBase#: true: The TPM channels use an external global time base (the local counter still use for generate overflow interrupt and DMA request); false: All TPM channels use the local counter as their timebase

bool syncGlobalTimeBase#: true: The TPM counter is synchronized to the global time base; false: disabled

tpm_trigger_select_t triggerSelect#: Input trigger to use for controlling the counter operation

tpm_trigger_source_t triggerSource#: Decides if we use external or internal trigger.

tpm_ext_trigger_polarity_t extTriggerPolarity#: when using external trigger source, need selects the polarity of it.

bool enableDoze#: true: TPM counter is paused in doze mode; false: TPM counter continues in doze mode

bool enableDebugMode#: true: TPM counter continues in debug mode; false: TPM counter is paused in debug mode

bool enableReloadOnTrigger#: true: TPM counter is reloaded on trigger; false: TPM counter not reloaded

bool enableStopOnOverflow#: true: TPM counter stops after overflow; false: TPM counter continues running after overflow

bool enableStartOnTrigger#: true: TPM counter only starts when a trigger is detected; false: TPM counter starts immediately

bool enablePauseOnTrigger#: true: TPM counter will pause while trigger remains asserted; false: TPM counter continues running

uint8_t chnlPolarity#: Defines the input/output polarity of the channels in POL register

VREF: Voltage Reference Driver#

status_t VREF_Init(VREF_Type *base, const vref_config_t *config)#

Enables the clock gate and configures the VREF module according to the configuration structure.

This function must be called before calling all other VREF driver functions, read/write registers, and configurations with user-defined settings. The example below shows how to set up vref_config_t parameters and how to call the VREF_Init function by passing in these parameters. This is an example.

vref_config_t vrefConfig;
vrefConfig.bufferMode = kVREF_ModeHighPowerBuffer;
vrefConfig.enableExternalVoltRef = false;
vrefConfig.enableLowRef = false;
VREF_Init(VREF, &vrefConfig);

Parameters:

base – VREF peripheral address.
config – Pointer to the configuration structure.

Return values:

kStatus_Success – run success.
kStatus_Timeout – timeout occurs.

void VREF_Deinit(VREF_Type *base)#

Stops and disables the clock for the VREF module.

This function should be called to shut down the module. This is an example.

vref_config_t vrefUserConfig;
VREF_Init(VREF);
VREF_GetDefaultConfig(&vrefUserConfig);
...
VREF_Deinit(VREF);

Parameters:

base – VREF peripheral address.

void VREF_GetDefaultConfig(vref_config_t *config)#

Initializes the VREF configuration structure.

This function initializes the VREF configuration structure to default values. This is an example.

vrefConfig->bufferMode = kVREF_ModeHighPowerBuffer;
vrefConfig->enableExternalVoltRef = false;
vrefConfig->enableLowRef = false;

Parameters:

config – Pointer to the initialization structure.

status_t VREF_SetTrimVal(VREF_Type *base, uint8_t trimValue)#

Sets a TRIM value for the reference voltage.

This function sets a TRIM value for the reference voltage. Note that the TRIM value maximum is 0x3F.

Parameters:

base – VREF peripheral address.
trimValue – Value of the trim register to set the output reference voltage (maximum 0x3F (6-bit)).

Return values:

kStatus_Success – run success.
kStatus_Timeout – timeout occurs.

static inline uint8_t VREF_GetTrimVal(VREF_Type *base)#

Reads the value of the TRIM meaning output voltage.

This function gets the TRIM value from the TRM register.

Parameters:

base – VREF peripheral address.

Returns:

Six-bit value of trim setting.

status_t VREF_SetTrim2V1Val(VREF_Type *base, uint8_t trimValue)#

Sets a TRIM value for the reference voltage (2V1).

This function sets a TRIM value for the reference voltage (2V1). Note that the TRIM value maximum is 0x3F.

Parameters:

base – VREF peripheral address.
trimValue – Value of the trim register to set the output reference voltage (maximum 0x3F (6-bit)).

Return values:

kStatus_Success – run success.
kStatus_Timeout – timeout occurs.

static inline uint8_t VREF_GetTrim2V1Val(VREF_Type *base)#

Reads the value of the TRIM meaning output voltage (2V1).

This function gets the TRIM value from the VREF_TRM4 register.

Parameters:

base – VREF peripheral address.

Returns:

Six-bit value of trim setting.

status_t VREF_SetLowReferenceTrimVal(VREF_Type *base, uint8_t trimValue)#

Sets the TRIM value for the low voltage reference.

This function sets the TRIM value for low reference voltage. Note the following.

The TRIM value maximum is 0x05U
The values 111b and 110b are not valid/allowed.

Parameters:

base – VREF peripheral address.
trimValue – Value of the trim register to set output low reference voltage (maximum 0x05U (3-bit)).

Return values:

kStatus_Success – run success.
kStatus_Timeout – timeout occurs.

static inline uint8_t VREF_GetLowReferenceTrimVal(VREF_Type *base)#

Reads the value of the TRIM meaning output voltage.

This function gets the TRIM value from the VREFL_TRM register.

Parameters:

base – VREF peripheral address.

Returns:

Three-bit value of the trim setting.

FSL_VREF_DRIVER_VERSION#: Version 2.1.3.

VREF_INTERNAL_VOLTAGE_STABLE_TIMEOUT#

Max loops to wait for VREF internal voltage stable.

This parameter defines how many loops to check completion before return timeout. If defined as 0, driver will wait forever until completion.

enum _vref_buffer_mode#

VREF modes.

Values:

enumerator kVREF_ModeBandgapOnly#: Bandgap on only, for stabilization and startup

enumerator kVREF_ModeHighPowerBuffer#: High-power buffer mode enabled

enumerator kVREF_ModeLowPowerBuffer#: Low-power buffer mode enabled

typedef enum _vref_buffer_mode vref_buffer_mode_t#: VREF modes.

typedef struct _vref_config vref_config_t#: The description structure for the VREF module.

VREF_SC_MODE_LV#

VREF_SC_REGEN#

VREF_SC_VREFEN#

VREF_SC_ICOMPEN#

VREF_SC_REGEN_MASK#

VREF_SC_VREFST_MASK#

VREF_SC_VREFEN_MASK#

VREF_SC_MODE_LV_MASK#

VREF_SC_ICOMPEN_MASK#

TRM#

VREF_TRM_TRIM#

VREF_TRM_CHOPEN_MASK#

VREF_TRM_TRIM_MASK#

VREF_TRM_CHOPEN_SHIFT#

VREF_TRM_TRIM_SHIFT#

VREF_SC_MODE_LV_SHIFT#

VREF_SC_REGEN_SHIFT#

VREF_SC_VREFST_SHIFT#

VREF_SC_ICOMPEN_SHIFT#

struct _vref_config#

#include <fsl_vref.h>

The description structure for the VREF module.

Public Members

vref_buffer_mode_t bufferMode#: Buffer mode selection

bool enableLowRef#: Set VREFL (0.4 V) reference buffer enable or disable

bool enableExternalVoltRef#: Select external voltage reference or not (internal)

bool enable2V1VoltRef#: Enable Internal Voltage Reference (2.1V)

MCXC041

Contents

MCXC041#

ADC16: 16-bit SAR Analog-to-Digital Converter Driver#

Clock Driver#

CMP: Analog Comparator Driver#

COP: Watchdog Driver#

FGPIO Driver#

C90TFS Flash Driver#

ftfx adapter#

Ftftx CACHE Driver#

ftfx controller#

ftfx feature#

Ftftx FLASH Driver#

Ftftx FLEXNVM Driver#

ftfx utilities#

GPIO: General-Purpose Input/Output Driver#

GPIO Driver#

I2C: Inter-Integrated Circuit Driver#

I2C Driver#

Common Driver#

LLWU: Low-Leakage Wakeup Unit Driver#

LPTMR: Low-Power Timer#

LPUART: Low Power Universal Asynchronous Receiver/Transmitter Driver#

LPUART Driver#

MCM: Miscellaneous Control Module#

PMC: Power Management Controller#

PORT: Port Control and Interrupts#

RCM: Reset Control Module Driver#

RTC: Real Time Clock#

SIM: System Integration Module Driver#

SMC: System Mode Controller Driver#

SPI: Serial Peripheral Interface Driver#

SPI Driver#

TPM: Timer PWM Module#

VREF: Voltage Reference Driver#