zephyr/ext/hal/nxp/mcux/drivers/imx/fsl_dcdc.c
Ryan QIAN a4633da9f5 ext: hal: nxp: mcux: Add device files for RT1060
Add mcux 2.4.0 drivers and device header files for mimxrt1061 and
mimxrt1060. Updates several drivers that were already imported for
other SoCs but also apply to mimxrt1061 and mimxrt1062.

Origins: NXP MCUxpresso SDK 2.4.0
URL: mcuxpresso.nxp.com
Maintained-by: External

Signed-off-by: Ryan QIAN <jianghao.qian@nxp.com>
2018-09-26 18:14:22 -05:00

325 lines
10 KiB
C

/*
* Copyright (c) 2017, NXP
* All rights reserved.
*
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#include "fsl_dcdc.h"
/* Component ID definition, used by tools. */
#ifndef FSL_COMPONENT_ID
#define FSL_COMPONENT_ID "platform.drivers.dcdc_1"
#endif
/*******************************************************************************
* Prototypes
******************************************************************************/
/*!
* @brief Get instance number for DCDC module.
*
* @param base DCDC peripheral base address
*/
static uint32_t DCDC_GetInstance(DCDC_Type *base);
/*******************************************************************************
* Variables
******************************************************************************/
/*! @brief Pointers to DCDC bases for each instance. */
static DCDC_Type *const s_dcdcBases[] = DCDC_BASE_PTRS;
#if !(defined(FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL) && FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL)
/*! @brief Pointers to DCDC clocks for each instance. */
static const clock_ip_name_t s_dcdcClocks[] = DCDC_CLOCKS;
#endif /* FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL */
/*******************************************************************************
* Code
******************************************************************************/
static uint32_t DCDC_GetInstance(DCDC_Type *base)
{
uint32_t instance;
/* Find the instance index from base address mappings. */
for (instance = 0; instance < ARRAY_SIZE(s_dcdcBases); instance++)
{
if (s_dcdcBases[instance] == base)
{
break;
}
}
assert(instance < ARRAY_SIZE(s_dcdcBases));
return instance;
}
void DCDC_Init(DCDC_Type *base)
{
#if !(defined(FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL) && FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL)
/* Enable the clock. */
CLOCK_EnableClock(s_dcdcClocks[DCDC_GetInstance(base)]);
#endif /* FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL */
}
void DCDC_Deinit(DCDC_Type *base)
{
#if !(defined(FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL) && FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL)
/* Disable the clock. */
CLOCK_DisableClock(s_dcdcClocks[DCDC_GetInstance(base)]);
#endif /* FSL_SDK_DISABLE_DRIVER_CLOCK_CONTROL */
}
void DCDC_SetClockSource(DCDC_Type *base, dcdc_clock_source_t clockSource)
{
uint32_t tmp32;
/* Configure the DCDC_REG0 register. */
tmp32 = base->REG0 &
~(DCDC_REG0_XTAL_24M_OK_MASK | DCDC_REG0_DISABLE_AUTO_CLK_SWITCH_MASK | DCDC_REG0_SEL_CLK_MASK |
DCDC_REG0_PWD_OSC_INT_MASK);
switch (clockSource)
{
case kDCDC_ClockInternalOsc:
tmp32 |= DCDC_REG0_DISABLE_AUTO_CLK_SWITCH_MASK;
break;
case kDCDC_ClockExternalOsc:
/* Choose the external clock and disable the internal clock. */
tmp32 |= DCDC_REG0_DISABLE_AUTO_CLK_SWITCH_MASK | DCDC_REG0_SEL_CLK_MASK | DCDC_REG0_PWD_OSC_INT_MASK;
break;
case kDCDC_ClockAutoSwitch:
/* Set to switch from internal ring osc to xtal 24M if auto mode is enabled. */
tmp32 |= DCDC_REG0_XTAL_24M_OK_MASK;
break;
default:
break;
}
base->REG0 = tmp32;
}
void DCDC_GetDefaultDetectionConfig(dcdc_detection_config_t *config)
{
assert(NULL != config);
config->enableXtalokDetection = false;
config->powerDownOverVoltageDetection = true;
config->powerDownLowVlotageDetection = false;
config->powerDownOverCurrentDetection = true;
config->powerDownPeakCurrentDetection = true;
config->powerDownZeroCrossDetection = true;
config->OverCurrentThreshold = kDCDC_OverCurrentThresholdAlt0;
config->PeakCurrentThreshold = kDCDC_PeakCurrentThresholdAlt0;
}
void DCDC_SetDetectionConfig(DCDC_Type *base, const dcdc_detection_config_t *config)
{
assert(NULL != config);
uint32_t tmp32;
/* Configure the DCDC_REG0 register. */
tmp32 = base->REG0 &
~(DCDC_REG0_XTALOK_DISABLE_MASK | DCDC_REG0_PWD_HIGH_VOLT_DET_MASK | DCDC_REG0_PWD_CMP_BATT_DET_MASK |
DCDC_REG0_PWD_OVERCUR_DET_MASK | DCDC_REG0_PWD_CUR_SNS_CMP_MASK | DCDC_REG0_PWD_ZCD_MASK |
DCDC_REG0_CUR_SNS_THRSH_MASK | DCDC_REG0_OVERCUR_TRIG_ADJ_MASK);
tmp32 |= DCDC_REG0_CUR_SNS_THRSH(config->PeakCurrentThreshold) |
DCDC_REG0_OVERCUR_TRIG_ADJ(config->OverCurrentThreshold);
if (false == config->enableXtalokDetection)
{
tmp32 |= DCDC_REG0_XTALOK_DISABLE_MASK;
}
if (config->powerDownOverVoltageDetection)
{
tmp32 |= DCDC_REG0_PWD_HIGH_VOLT_DET_MASK;
}
if (config->powerDownLowVlotageDetection)
{
tmp32 |= DCDC_REG0_PWD_CMP_BATT_DET_MASK;
}
if (config->powerDownOverCurrentDetection)
{
tmp32 |= DCDC_REG0_PWD_OVERCUR_DET_MASK;
}
if (config->powerDownPeakCurrentDetection)
{
tmp32 |= DCDC_REG0_PWD_CUR_SNS_CMP_MASK;
}
if (config->powerDownZeroCrossDetection)
{
tmp32 |= DCDC_REG0_PWD_ZCD_MASK;
}
base->REG0 = tmp32;
}
void DCDC_GetDefaultLowPowerConfig(dcdc_low_power_config_t *config)
{
assert(NULL != config);
config->enableOverloadDetection = true;
config->enableAdjustHystereticValue = false;
config->countChargingTimePeriod = kDCDC_CountChargingTimePeriod8Cycle;
config->countChargingTimeThreshold = kDCDC_CountChargingTimeThreshold32;
}
void DCDC_SetLowPowerConfig(DCDC_Type *base, const dcdc_low_power_config_t *config)
{
assert(NULL != config);
uint32_t tmp32;
/* Configure the DCDC_REG0 register. */
tmp32 = base->REG0 &
~(DCDC_REG0_EN_LP_OVERLOAD_SNS_MASK | DCDC_REG0_LP_HIGH_HYS_MASK | DCDC_REG0_LP_OVERLOAD_FREQ_SEL_MASK |
DCDC_REG0_LP_OVERLOAD_THRSH_MASK);
tmp32 |= DCDC_REG0_LP_OVERLOAD_FREQ_SEL(config->countChargingTimePeriod) |
DCDC_REG0_LP_OVERLOAD_THRSH(config->countChargingTimeThreshold);
if (config->enableOverloadDetection)
{
tmp32 |= DCDC_REG0_EN_LP_OVERLOAD_SNS_MASK;
}
if (config->enableAdjustHystereticValue)
{
tmp32 |= DCDC_REG0_LP_HIGH_HYS_MASK;
}
base->REG0 = tmp32;
}
uint32_t DCDC_GetstatusFlags(DCDC_Type *base)
{
uint32_t tmp32 = 0U;
if (DCDC_REG0_STS_DC_OK_MASK == (DCDC_REG0_STS_DC_OK_MASK & base->REG0))
{
tmp32 |= kDCDC_LockedOKStatus;
}
return tmp32;
}
void DCDC_ResetCurrentAlertSignal(DCDC_Type *base, bool enable)
{
if (enable)
{
base->REG0 |= DCDC_REG0_CURRENT_ALERT_RESET_MASK;
}
else
{
base->REG0 &= ~DCDC_REG0_CURRENT_ALERT_RESET_MASK;
}
}
void DCDC_GetDefaultLoopControlConfig(dcdc_loop_control_config_t *config)
{
assert(NULL != config);
config->enableCommonHysteresis = false;
config->enableCommonThresholdDetection = false;
config->enableInvertHysteresisSign = false;
config->enableRCThresholdDetection = false;
config->enableRCScaleCircuit = 0U;
config->complementFeedForwardStep = 0U;
config->controlParameterMagnitude = 2U;
config->integralProportionalRatio = 2U;
}
void DCDC_SetLoopControlConfig(DCDC_Type *base, const dcdc_loop_control_config_t *config)
{
assert(NULL != config);
uint32_t tmp32;
/* Configure the DCDC_REG1 register. */
tmp32 = base->REG1 & ~(DCDC_REG1_LOOPCTRL_EN_HYST_MASK | DCDC_REG1_LOOPCTRL_HST_THRESH_MASK);
if (config->enableCommonHysteresis)
{
tmp32 |= DCDC_REG1_LOOPCTRL_EN_HYST_MASK;
}
if (config->enableCommonThresholdDetection)
{
tmp32 |= DCDC_REG1_LOOPCTRL_HST_THRESH_MASK;
}
base->REG1 = tmp32;
/* configure the DCDC_REG2 register. */
tmp32 = base->REG2 &
~(DCDC_REG2_LOOPCTRL_HYST_SIGN_MASK | DCDC_REG2_LOOPCTRL_RCSCALE_THRSH_MASK |
DCDC_REG2_LOOPCTRL_EN_RCSCALE_MASK | DCDC_REG2_LOOPCTRL_DC_FF_MASK | DCDC_REG2_LOOPCTRL_DC_R_MASK |
DCDC_REG2_LOOPCTRL_DC_C_MASK);
tmp32 |= DCDC_REG2_LOOPCTRL_DC_FF(config->complementFeedForwardStep) |
DCDC_REG2_LOOPCTRL_DC_R(config->controlParameterMagnitude) |
DCDC_REG2_LOOPCTRL_DC_C(config->integralProportionalRatio) |
DCDC_REG2_LOOPCTRL_EN_RCSCALE(config->enableRCScaleCircuit);
if (config->enableInvertHysteresisSign)
{
tmp32 |= DCDC_REG2_LOOPCTRL_HYST_SIGN_MASK;
}
if (config->enableRCThresholdDetection)
{
tmp32 |= DCDC_REG2_LOOPCTRL_RCSCALE_THRSH_MASK;
}
base->REG2 = tmp32;
}
void DCDC_SetMinPowerConfig(DCDC_Type *base, const dcdc_min_power_config_t *config)
{
assert(NULL != config);
uint32_t tmp32;
tmp32 = base->REG3 & ~DCDC_REG3_MINPWR_DC_HALFCLK_MASK;
if (config->enableUseHalfFreqForContinuous)
{
tmp32 |= DCDC_REG3_MINPWR_DC_HALFCLK_MASK;
}
base->REG3 = tmp32;
}
void DCDC_AdjustTargetVoltage(DCDC_Type *base, uint32_t VDDRun, uint32_t VDDStandby)
{
uint32_t tmp32;
/* Unlock the step for the output. */
base->REG3 &= ~DCDC_REG3_DISABLE_STEP_MASK;
/* Configure the DCDC_REG3 register. */
tmp32 = base->REG3 & ~(DCDC_REG3_TARGET_LP_MASK | DCDC_REG3_TRG_MASK);
tmp32 |= DCDC_REG3_TARGET_LP(VDDStandby) | DCDC_REG3_TRG(VDDRun);
base->REG3 = tmp32;
/* DCDC_STS_DC_OK bit will be de-asserted after target register changes. After output voltage settling to new
* target value, DCDC_STS_DC_OK will be asserted. */
while (DCDC_REG0_STS_DC_OK_MASK != (DCDC_REG0_STS_DC_OK_MASK & base->REG0))
{
}
}
void DCDC_SetInternalRegulatorConfig(DCDC_Type *base, const dcdc_internal_regulator_config_t *config)
{
assert(NULL != config);
uint32_t tmp32;
/* Configure the DCDC_REG1 register. */
tmp32 = base->REG1 & ~(DCDC_REG1_REG_FBK_SEL_MASK | DCDC_REG1_REG_RLOAD_SW_MASK);
tmp32 |= DCDC_REG1_REG_FBK_SEL(config->feedbackPoint);
if (config->enableLoadResistor)
{
tmp32 |= DCDC_REG1_REG_RLOAD_SW_MASK;
}
base->REG1 = tmp32;
}
void DCDC_BootIntoDCM(DCDC_Type *base)
{
base->REG0 &= ~(DCDC_REG0_PWD_ZCD_MASK | DCDC_REG0_PWD_CMP_OFFSET_MASK);
base->REG2 = (~DCDC_REG2_LOOPCTRL_EN_RCSCALE_MASK & base->REG2) | DCDC_REG2_LOOPCTRL_EN_RCSCALE(0x4U) |
DCDC_REG2_DCM_SET_CTRL_MASK;
}
void DCDC_BootIntoCCM(DCDC_Type *base)
{
base->REG0 = (~DCDC_REG0_PWD_CMP_OFFSET_MASK & base->REG0) | DCDC_REG0_PWD_ZCD_MASK;
base->REG2 = (~DCDC_REG2_LOOPCTRL_EN_RCSCALE_MASK & base->REG2) | DCDC_REG2_LOOPCTRL_EN_RCSCALE(0x3U);
}