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zephyr/soc/nxp/imxrt/imxrt118x/soc.c
Lucien Zhao ef348187ae soc: nxp: imxrt: imxrt118x: change trdc permission getting strategy 
When TRDC permission fails to be obtained, it does not recycle to
access ELE core to prevent blocking problems. The current practice
only generates a log warning alarm.

Signed-off-by: Lucien Zhao <lucien.zhao@nxp.com>
2025-02-14 06:56:55 +01:00

677 lines
22 KiB
C
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/*
* Copyright 2024-2025 NXP
*
* SPDX-License-Identifier: Apache-2.0
*/
#include <zephyr/kernel.h>
#include <zephyr/device.h>
#include <zephyr/init.h>
#include <zephyr/logging/log.h>
#include <soc.h>
#include <zephyr/linker/sections.h>
#include <zephyr/linker/linker-defs.h>
#include <zephyr/cache.h>
#include <fsl_clock.h>
#include <fsl_gpc.h>
#include <fsl_pmu.h>
#include <fsl_dcdc.h>
#include <fsl_ele_base_api.h>
#include <fsl_trdc.h>
#if defined(CONFIG_WDT_MCUX_RTWDOG)
#include <fsl_soc_src.h>
#endif
#include <zephyr/dt-bindings/clock/imx_ccm_rev2.h>
#include <cmsis_core.h>
LOG_MODULE_REGISTER(soc, CONFIG_SOC_LOG_LEVEL);
/*
* Set ELE_STICK_FAILED_STS to 0 when ELE status check is not required,
* which is useful when debug reset, where the core has already get the
* TRDC ownership at first time and ELE is not able to release TRDC
* ownership again for the following TRDC ownership request.
*/
#define ELE_STICK_FAILED_STS 1
#if ELE_STICK_FAILED_STS
#define ELE_IS_FAILED(x) (x != kStatus_Success)
#else
#define ELE_IS_FAILED(x) false
#endif
#define ELE_TRDC_AON_ID 0x74
#define ELE_TRDC_WAKEUP_ID 0x78
#define ELE_CORE_CM33_ID 0x1
#define ELE_CORE_CM7_ID 0x2
#define EDMA_DID 0x7U
#ifdef CONFIG_INIT_ARM_PLL
static const clock_arm_pll_config_t armPllConfig_BOARD_BootClockRUN = {
#if defined(CONFIG_SOC_MIMXRT1189_CM33) || defined(CONFIG_SOC_MIMXRT1189_CM7)
/* Post divider, 0 - DIV by 2, 1 - DIV by 4, 2 - DIV by 8, 3 - DIV by 1 */
.postDivider = kCLOCK_PllPostDiv2,
/* PLL Loop divider, Fout = Fin * ( loopDivider / ( 2 * postDivider ) ) */
.loopDivider = 132,
#else
#error "Unknown SOC, no pll configuration defined"
#endif
};
#endif
#if defined(CONFIG_WDT_MCUX_RTWDOG)
#define RTWDOG_IF_SET_SRC(n, i) \
if (IS_ENABLED(DT_NODE_HAS_COMPAT_STATUS(DT_NODELABEL(rtwdog##n), nxp_rtwdog, okay))) { \
SRC_SetGlobalSystemResetMode(SRC_GENERAL_REG, kSRC_Wdog##i##Reset, \
kSRC_ResetSystem); \
}
#endif
const clock_sys_pll1_config_t sysPll1Config_BOARD_BootClockRUN = {
/* Enable Sys Pll1 divide-by-2 clock or not */
.pllDiv2En = 1,
/* Enable Sys Pll1 divide-by-5 clock or not */
.pllDiv5En = 1,
/* Spread spectrum parameter */
.ss = NULL,
/* Enable spread spectrum or not */
.ssEnable = false,
};
const clock_sys_pll2_config_t sysPll2Config_BOARD_BootClockRUN = {
/* Denominator of spread spectrum */
.mfd = 268435455,
/* Spread spectrum parameter */
.ss = NULL,
/* Enable spread spectrum or not */
.ssEnable = false,
};
/* Function Name : board_flexspi_clock_safe_config
* Description : FLEXSPI clock source safe configuration weak function.
* Called before clock source configuration.
* Note : Users need override this function to change FLEXSPI clock source to stable
* source when executing code on FLEXSPI memory(XIP). If XIP, the function
* should runs in RAM and move the FLEXSPI clock source to a stable clock
* to avoid instruction/data fetch issue during clock updating.
*/
__attribute__((weak)) void board_flexspi_clock_safe_config(void)
{
}
/**
* @brief Initialize the system clock
*/
__weak void clock_init(void)
{
clock_root_config_t rootCfg = {0};
/* Init OSC RC 400M */
CLOCK_OSC_EnableOscRc400M();
CLOCK_OSC_GateOscRc400M(false);
#if CONFIG_CPU_CORTEX_M7
/* Switch both core to OscRC400M first */
rootCfg.mux = kCLOCK_M7_ClockRoot_MuxOscRc400M;
rootCfg.div = 1;
CLOCK_SetRootClock(kCLOCK_Root_M7, &rootCfg);
#endif
#if CONFIG_CPU_CORTEX_M33
rootCfg.mux = kCLOCK_M33_ClockRoot_MuxOscRc400M;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_M33, &rootCfg);
#endif
#if CONFIG_CPU_CORTEX_M7
DCDC_SetVDD1P0BuckModeTargetVoltage(DCDC, kDCDC_CORE0, kDCDC_1P0Target1P1V);
DCDC_SetVDD1P0BuckModeTargetVoltage(DCDC, kDCDC_CORE1, kDCDC_1P0Target1P1V);
/* FBB need to be enabled in OverDrive(OD) mode */
PMU_EnableFBB(ANADIG_PMU, true);
#endif
/* Config CLK_1M */
CLOCK_OSC_Set1MHzOutputBehavior(kCLOCK_1MHzOutEnableFreeRunning1Mhz);
/* Init OSC RC 24M */
CLOCK_OSC_EnableOscRc24M(true);
/* Config OSC 24M */
ANADIG_OSC->OSC_24M_CTRL |= ANADIG_OSC_OSC_24M_CTRL_OSC_EN(1) |
ANADIG_OSC_OSC_24M_CTRL_BYPASS_EN(0) | ANADIG_OSC_OSC_24M_CTRL_LP_EN(1) |
ANADIG_OSC_OSC_24M_CTRL_OSC_24M_GATE(0);
/* Wait for 24M OSC to be stable. */
while (ANADIG_OSC_OSC_24M_CTRL_OSC_24M_STABLE_MASK !=
(ANADIG_OSC->OSC_24M_CTRL & ANADIG_OSC_OSC_24M_CTRL_OSC_24M_STABLE_MASK)) {
}
/* Call function board_flexspi_clock_safe_config() to move FlexSPI clock to a stable
* clock source to avoid instruction/data fetch issue when updating PLL if XIP
* (execute code on FLEXSPI memory).
*/
board_flexspi_clock_safe_config();
#ifdef CONFIG_INIT_ARM_PLL
/* Init Arm Pll. */
CLOCK_InitArmPll(&armPllConfig_BOARD_BootClockRUN);
#endif
/* Init Sys Pll1. */
CLOCK_InitSysPll1(&sysPll1Config_BOARD_BootClockRUN);
/* Init Sys Pll2. */
CLOCK_InitSysPll2(&sysPll2Config_BOARD_BootClockRUN);
/* Init System Pll2 pfd0. */
CLOCK_InitPfd(kCLOCK_PllSys2, kCLOCK_Pfd0, 27);
/* Init System Pll2 pfd1. */
CLOCK_InitPfd(kCLOCK_PllSys2, kCLOCK_Pfd1, 16);
/* Init System Pll2 pfd2. */
CLOCK_InitPfd(kCLOCK_PllSys2, kCLOCK_Pfd2, 24);
/* Init System Pll2 pfd3. */
CLOCK_InitPfd(kCLOCK_PllSys2, kCLOCK_Pfd3, 32);
/* Init Sys Pll3. */
CLOCK_InitSysPll3();
/* Init System Pll3 pfd0. */
CLOCK_InitPfd(kCLOCK_PllSys3, kCLOCK_Pfd0, 22);
/* Init System Pll3 pfd1. */
CLOCK_InitPfd(kCLOCK_PllSys3, kCLOCK_Pfd1, 33);
/* Init System Pll3 pfd2. */
CLOCK_InitPfd(kCLOCK_PllSys3, kCLOCK_Pfd2, 22);
/* Init System Pll3 pfd3. */
CLOCK_InitPfd(kCLOCK_PllSys3, kCLOCK_Pfd3, 18);
/* Bypass Audio Pll. */
CLOCK_SetPllBypass(kCLOCK_PllAudio, true);
/* DeInit Audio Pll. */
CLOCK_DeinitAudioPll();
#if defined(CONFIG_SOC_MIMXRT1189_CM7)
/* Module clock root configurations. */
/* Configure M7 using ARM_PLL_CLK */
rootCfg.mux = kCLOCK_M7_ClockRoot_MuxArmPllOut;
rootCfg.div = 1;
CLOCK_SetRootClock(kCLOCK_Root_M7, &rootCfg);
#endif
#if defined(CONFIG_SOC_MIMXRT1189_CM33)
/* Configure M33 using SYS_PLL3_CLK */
rootCfg.mux = kCLOCK_M33_ClockRoot_MuxSysPll3Out;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_M33, &rootCfg);
#endif
/* Configure BUS_AON using SYS_PLL2_CLK */
rootCfg.mux = kCLOCK_BUS_AON_ClockRoot_MuxSysPll2Out;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Bus_Aon, &rootCfg);
/* Configure BUS_WAKEUP using SYS_PLL2_CLK */
rootCfg.mux = kCLOCK_BUS_WAKEUP_ClockRoot_MuxSysPll2Out;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Bus_Wakeup, &rootCfg);
/* Configure WAKEUP_AXI using SYS_PLL3_CLK */
rootCfg.mux = kCLOCK_WAKEUP_AXI_ClockRoot_MuxSysPll3Out;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Wakeup_Axi, &rootCfg);
/* Configure SWO_TRACE using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_SWO_TRACE_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Swo_Trace, &rootCfg);
#if CONFIG_CPU_CORTEX_M33
/* Configure M33_SYSTICK using OSC_24M */
rootCfg.mux = kCLOCK_M33_SYSTICK_ClockRoot_MuxOsc24MOut;
rootCfg.div = 240;
CLOCK_SetRootClock(kCLOCK_Root_M33_Systick, &rootCfg);
#endif
#if CONFIG_CPU_CORTEX_M7
/* Configure M7_SYSTICK using OSC_24M */
rootCfg.mux = kCLOCK_M7_SYSTICK_ClockRoot_MuxOsc24MOut;
rootCfg.div = 240;
CLOCK_SetRootClock(kCLOCK_Root_M7_Systick, &rootCfg);
#endif
#if defined(CONFIG_UART_MCUX_LPUART) && \
(DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpuart1)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpuart2)))
/* Configure LPUART0102 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPUART0102_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 10;
#endif
#if defined(CONFIG_I2C_MCUX_LPI2C) && \
(DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpi2c1)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpi2c2)))
/* Configure LPI2C0102 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPI2C0102_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Lpi2c0102, &rootCfg);
#endif
#if defined(CONFIG_I2C_MCUX_LPI2C) && \
(DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpi2c3)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpi2c4)))
/* Configure LPI2C0304 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPI2C0304_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Lpi2c0304, &rootCfg);
#endif
#if defined(CONFIG_I2C_MCUX_LPI2C) && \
(DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpi2c5)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(lpi2c6)))
/* Configure LPI2C0506 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPI2C0506_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Lpi2c0506, &rootCfg);
#endif
#if defined(CONFIG_SPI_MCUX_LPSPI)
#if (DT_NODE_HAS_STATUS(DT_NODELABEL(lpspi1), okay) \
|| DT_NODE_HAS_STATUS(DT_NODELABEL(lpspi2), okay))
/* Configure LPSPI0102 using SYS_PLL3_PFD1_CLK */
rootCfg.mux = kCLOCK_LPSPI0102_ClockRoot_MuxSysPll3Pfd1;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Lpspi0102, &rootCfg);
#endif
#if (DT_NODE_HAS_STATUS(DT_NODELABEL(lpspi3), okay) \
|| DT_NODE_HAS_STATUS(DT_NODELABEL(lpspi4), okay))
/* Configure LPSPI0304 using SYS_PLL3_PFD1_CLK */
rootCfg.mux = kCLOCK_LPSPI0304_ClockRoot_MuxSysPll3Pfd1;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Lpspi0304, &rootCfg);
#endif
#if (DT_NODE_HAS_STATUS(DT_NODELABEL(lpspi5), okay) \
|| DT_NODE_HAS_STATUS(DT_NODELABEL(lpspi6), okay))
/* Configure LPSPI0506 using SYS_PLL3_PFD1_CLK */
rootCfg.mux = kCLOCK_LPSPI0506_ClockRoot_MuxSysPll3Pfd1;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Lpspi0506, &rootCfg);
#endif
#endif /* CONFIG_SPI_MCUX_LPSPI */
#if defined(CONFIG_COUNTER_MCUX_GPT)
#if (DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(gpt1)))
/* Configure GPT1 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_GPT1_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 1;
CLOCK_SetRootClock(kCLOCK_Root_Gpt1, &rootCfg);
#endif /* DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(gpt1)) */
#if (DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(gpt2)))
/* Configure GPT2 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_GPT2_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 1;
CLOCK_SetRootClock(kCLOCK_Root_Gpt2, &rootCfg);
#endif /* DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(gpt2)) */
#endif /* CONFIG_COUNTER_MCUX_GPT */
#ifdef CONFIG_MCUX_ACMP
#if (DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(acmp1)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(acmp2)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(acmp3)) \
|| DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(acmp4)))
/* Configure ACMP using MuxSysPll3Out */
rootCfg.mux = kCLOCK_ACMP_ClockRoot_MuxSysPll3Out;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Acmp, &rootCfg);
#endif
#endif /* CONFIG_MCUX_ACMP */
#if defined(CONFIG_ETH_NXP_IMX_NETC) && (DT_CHILD_NUM_STATUS_OKAY(DT_NODELABEL(netc)) != 0)
/* Configure ENET using SYS_PLL1_DIV2_CLK */
rootCfg.mux = kCLOCK_ENET_ClockRoot_MuxSysPll1Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Enet, &rootCfg);
/* Configure TMR_1588 using SYS_PLL3_CLK */
rootCfg.mux = kCLOCK_TMR_1588_ClockRoot_MuxSysPll3Out;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Tmr_1588, &rootCfg);
/* Configure NETC using SYS_PLL3_PFD3_CLK */
rootCfg.mux = kCLOCK_NETC_ClockRoot_MuxSysPll3Pfd3;
rootCfg.div = 2;
CLOCK_SetRootClock(kCLOCK_Root_Netc, &rootCfg);
/* Configure MAC0 using SYS_PLL1_DIV2_CLK */
rootCfg.mux = kCLOCK_MAC0_ClockRoot_MuxSysPll1Div2;
rootCfg.div = 10;
CLOCK_SetRootClock(kCLOCK_Root_Mac0, &rootCfg);
/* Configure MAC1 using SYS_PLL1_DIV2_CLK */
rootCfg.mux = kCLOCK_MAC1_ClockRoot_MuxSysPll1Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Mac1, &rootCfg);
/* Configure MAC2 using SYS_PLL1_DIV2_CLK */
rootCfg.mux = kCLOCK_MAC2_ClockRoot_MuxSysPll1Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Mac2, &rootCfg);
/* Configure MAC3 using SYS_PLL1_DIV2_CLK */
rootCfg.mux = kCLOCK_MAC3_ClockRoot_MuxSysPll1Div2;
rootCfg.div = 4;
CLOCK_SetRootClock(kCLOCK_Root_Mac3, &rootCfg);
/* Configure MAC4 using SYS_PLL1_DIV2_CLK */
rootCfg.mux = kCLOCK_MAC4_ClockRoot_MuxSysPll1Div2;
rootCfg.div = 10;
CLOCK_SetRootClock(kCLOCK_Root_Mac4, &rootCfg);
/* Set NETC PORT Ref clock source. */
BLK_CTRL_WAKEUPMIX->NETC_PORT_MISC_CFG &=
~BLK_CTRL_WAKEUPMIX_NETC_PORT_MISC_CFG_PORT0_RMII_REF_CLK_DIR_MASK;
BLK_CTRL_WAKEUPMIX->NETC_PORT_MISC_CFG &=
~BLK_CTRL_WAKEUPMIX_NETC_PORT_MISC_CFG_PORT1_RMII_REF_CLK_DIR_MASK;
BLK_CTRL_WAKEUPMIX->NETC_PORT_MISC_CFG &=
~BLK_CTRL_WAKEUPMIX_NETC_PORT_MISC_CFG_PORT2_RMII_REF_CLK_DIR_MASK;
BLK_CTRL_WAKEUPMIX->NETC_PORT_MISC_CFG &=
~BLK_CTRL_WAKEUPMIX_NETC_PORT_MISC_CFG_PORT3_RMII_REF_CLK_DIR_MASK;
BLK_CTRL_WAKEUPMIX->NETC_PORT_MISC_CFG &=
~BLK_CTRL_WAKEUPMIX_NETC_PORT_MISC_CFG_PORT4_RMII_REF_CLK_DIR_MASK;
/* Set TMR 1588 Ref clock source. */
BLK_CTRL_WAKEUPMIX->NETC_PORT_MISC_CFG |=
BLK_CTRL_WAKEUPMIX_NETC_PORT_MISC_CFG_TMR_EXT_CLK_SEL_MASK;
#endif
#ifdef CONFIG_CAN_MCUX_FLEXCAN
#if DT_NODE_HAS_STATUS(DT_NODELABEL(flexcan1), okay)
/* Configure CAN1 using MuxSysPll3Out */
rootCfg.mux = kCLOCK_CAN1_ClockRoot_MuxSysPll3Out;
rootCfg.div = 6;
CLOCK_SetRootClock(kCLOCK_Root_Can1, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(flexcan2), okay)
/* Configure CAN2 using MuxSysPll3Out */
rootCfg.mux = kCLOCK_CAN2_ClockRoot_MuxSysPll3Out;
rootCfg.div = 6;
CLOCK_SetRootClock(kCLOCK_Root_Can2, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(flexcan3), okay)
/* Configure CAN3 using MuxSysPll3Out */
rootCfg.mux = kCLOCK_CAN3_ClockRoot_MuxSysPll3Out;
rootCfg.div = 6;
CLOCK_SetRootClock(kCLOCK_Root_Can3, &rootCfg);
#endif
#endif /* CONFIG_CAN_MCUX_FLEXCAN */
#if defined(CONFIG_MCUX_LPTMR_TIMER) || defined(CONFIG_COUNTER_MCUX_LPTMR)
#if DT_NODE_HAS_STATUS(DT_NODELABEL(lptmr1), okay)
/* Configure LPTIMER1 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPTIMER1_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Lptimer1, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(lptmr2), okay)
/* Configure LPTIMER2 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPTIMER2_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Lptimer2, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(lptmr3), okay)
/* Configure LPTIMER3 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_LPTIMER3_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Lptimer3, &rootCfg);
#endif
#endif /* CONFIG_MCUX_LPTMR_TIMER || CONFIG_COUNTER_MCUX_LPTMR */
#if !(DT_NODE_HAS_COMPAT(DT_PARENT(DT_CHOSEN(zephyr_flash)), nxp_imx_flexspi_nor)) && \
defined(CONFIG_MEMC_MCUX_FLEXSPI) && DT_NODE_HAS_STATUS(DT_NODELABEL(flexspi), okay)
/* Configure FLEXSPI1 using SYS_PLL3_PFD0_CLK */
rootCfg.mux = kCLOCK_FLEXSPI1_ClockRoot_MuxSysPll3Pfd0;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Flexspi1, &rootCfg);
#endif
#ifdef CONFIG_HAS_MCUX_TPM
#if DT_NODE_HAS_STATUS(DT_NODELABEL(tpm2), okay)
/* Configure TPM2 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_TPM2_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Tpm2, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(tpm4), okay)
/* Configure TPM4 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_TPM4_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Tpm4, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(tpm5), okay)
/* Configure TPM5 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_TPM5_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Tpm5, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(tpm6), okay)
/* Configure TPM6 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_TPM6_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 3;
CLOCK_SetRootClock(kCLOCK_Root_Tpm6, &rootCfg);
#endif
#endif /* CONFIG_HAS_MCUX_TPM */
#ifdef CONFIG_DT_HAS_NXP_MCUX_I3C_ENABLED
#if DT_NODE_HAS_STATUS(DT_NODELABEL(i3c1), okay)
/* Configure I3C1 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_I3C1_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 10;
CLOCK_SetRootClock(kCLOCK_Root_I3c1, &rootCfg);
#endif
#if DT_NODE_HAS_STATUS(DT_NODELABEL(i3c2), okay)
/* Configure I3C2 using SYS_PLL3_DIV2_CLK */
rootCfg.mux = kCLOCK_I3C2_ClockRoot_MuxSysPll3Div2;
rootCfg.div = 10;
CLOCK_SetRootClock(kCLOCK_Root_I3c2, &rootCfg);
#endif
#endif /* CONFIG_DT_HAS_NXP_MCUX_I3C_ENABLED */
#if DT_NODE_HAS_STATUS_OKAY(DT_NODELABEL(usb1)) && CONFIG_UDC_NXP_EHCI
CLOCK_EnableUsbhs0PhyPllClock(kCLOCK_Usb480M,
DT_PROP_BY_PHANDLE(DT_NODELABEL(usb1), clocks, clock_frequency));
CLOCK_EnableUsbhs0Clock(kCLOCK_Usb480M,
DT_PROP_BY_PHANDLE(DT_NODELABEL(usb1), clocks, clock_frequency));
#endif
/* Keep core clock ungated during WFI */
CCM->LPCG[1].LPM0 = 0x33333333;
CCM->LPCG[1].LPM1 = 0x33333333;
/* Keep the system clock running so SYSTICK can wake up
* the system from wfi.
*/
GPC_CM_SetNextCpuMode(0, kGPC_RunMode);
GPC_CM_SetNextCpuMode(1, kGPC_RunMode);
GPC_CM_EnableCpuSleepHold(0, false);
GPC_CM_EnableCpuSleepHold(1, false);
}
/**
* @brief Initialize the system clock
*/
static ALWAYS_INLINE void trdc_enable_all_access(void)
{
status_t sts;
uint8_t i, j;
/* Get ELE FW status */
do {
uint32_t ele_fw_sts;
sts = ELE_BaseAPI_GetFwStatus(MU_RT_S3MUA, &ele_fw_sts);
} while (sts != kStatus_Success);
#if defined(CONFIG_SOC_MIMXRT1189_CM33)
/* Release TRDC AON to CM33 core */
sts = ELE_BaseAPI_ReleaseRDC(MU_RT_S3MUA, ELE_TRDC_AON_ID, ELE_CORE_CM33_ID);
#elif defined(CONFIG_SOC_MIMXRT1189_CM7)
/* Release TRDC AON to CM7 core */
sts = ELE_BaseAPI_ReleaseRDC(MU_RT_S3MUA, ELE_TRDC_AON_ID, ELE_CORE_CM7_ID);
#endif
if (sts != kStatus_Success) {
LOG_WRN("warning: TRDC AON permission get failed. If core don't get TRDC "
"AON permission, AON domain permission can't be configured.");
}
#if defined(CONFIG_SOC_MIMXRT1189_CM33)
/* Release TRDC Wakeup to CM33 core */
sts = ELE_BaseAPI_ReleaseRDC(MU_RT_S3MUA, ELE_TRDC_WAKEUP_ID, ELE_CORE_CM33_ID);
#elif defined(CONFIG_SOC_MIMXRT1189_CM7)
/* Release TRDC Wakeup to CM7 core */
sts = ELE_BaseAPI_ReleaseRDC(MU_RT_S3MUA, ELE_TRDC_WAKEUP_ID, ELE_CORE_CM7_ID);
#endif
if (sts != kStatus_Success) {
LOG_WRN("warning: TRDC Wakeup permission get failed. If core don't get TRDC "
"Wakeup permission, Wakeup domain permission can't be configured.");
}
/* Set the master domain access configuration for eDMA3/eDMA4 */
trdc_non_processor_domain_assignment_t edmaAssignment;
/* By default, EDMA access is done in privilege and security mode,
* However, the NSE bit reset value in TRDC is 0, so that TRDC does
* not allow nonsecurity access to other memory by default.
* So by DAC module, EDMA access mode is changed to security/privilege
* mode by the DAC module
*/
(void)memset(&edmaAssignment, 0, sizeof(edmaAssignment));
edmaAssignment.domainId = EDMA_DID;
edmaAssignment.privilegeAttr = kTRDC_MasterPrivilege;
edmaAssignment.secureAttr = kTRDC_ForceSecure;
edmaAssignment.bypassDomainId = true;
edmaAssignment.lock = false;
TRDC_SetNonProcessorDomainAssignment(TRDC1, kTRDC1_MasterDMA3, &edmaAssignment);
TRDC_SetNonProcessorDomainAssignment(TRDC2, kTRDC2_MasterDMA4, &edmaAssignment);
/* Enable all access modes for MBC and MRC of TRDCA and TRDCW */
trdc_hardware_config_t hwConfig;
trdc_memory_access_control_config_t memAccessConfig;
(void)memset(&memAccessConfig, 0, sizeof(memAccessConfig));
memAccessConfig.nonsecureUsrX = 1U;
memAccessConfig.nonsecureUsrW = 1U;
memAccessConfig.nonsecureUsrR = 1U;
memAccessConfig.nonsecurePrivX = 1U;
memAccessConfig.nonsecurePrivW = 1U;
memAccessConfig.nonsecurePrivR = 1U;
memAccessConfig.secureUsrX = 1U;
memAccessConfig.secureUsrW = 1U;
memAccessConfig.secureUsrR = 1U;
memAccessConfig.securePrivX = 1U;
memAccessConfig.securePrivW = 1U;
memAccessConfig.securePrivR = 1U;
TRDC_GetHardwareConfig(TRDC1, &hwConfig);
for (i = 0U; i < hwConfig.mrcNumber; i++) {
/* Set TRDC1(A) secure access for eDMA domain, MRC i, all region for i memory */
TRDC_MrcDomainNseClear(TRDC1, i, 1UL << EDMA_DID);
for (j = 0U; j < 8; j++) {
TRDC_MrcSetMemoryAccessConfig(TRDC1, &memAccessConfig, i, j);
}
}
for (i = 0U; i < hwConfig.mbcNumber; i++) {
/* Set TRDC1(A) secure access for eDMA domain, MBC i, all memory blocks */
TRDC_MbcNseClearAll(TRDC1, i, 1UL << EDMA_DID, 0xF);
for (j = 0U; j < 8; j++) {
TRDC_MbcSetMemoryAccessConfig(TRDC1, &memAccessConfig, i, j);
}
}
TRDC_GetHardwareConfig(TRDC2, &hwConfig);
for (i = 0U; i < hwConfig.mrcNumber; i++) {
/* Set TRDC2(W) secure access for eDMA domain, MRC i, all region for i memory */
TRDC_MrcDomainNseClear(TRDC2, i, 1UL << EDMA_DID);
for (j = 0U; j < 8; j++) {
TRDC_MrcSetMemoryAccessConfig(TRDC2, &memAccessConfig, i, j);
}
}
for (i = 0U; i < hwConfig.mbcNumber; i++) {
/* Set TRDC2(W) secure access for eDMA domain, MBC i, all memory blocks */
TRDC_MbcNseClearAll(TRDC2, i, 1UL << EDMA_DID, 0xF);
for (j = 0U; j < 8; j++) {
TRDC_MbcSetMemoryAccessConfig(TRDC2, &memAccessConfig, i, j);
}
}
}
/**
*
* @brief Perform basic hardware initialization
*
* Initialize the interrupt controller device drivers.
* Also initialize the timer device driver, if required.
* If dual core operation is enabled, the second core image will be loaded to RAM
*
* @return 0
*/
void soc_early_init_hook(void)
{
/* Initialize system clock */
clock_init();
/* Get trdc and enable all access modes for MBC and MRC of TRDCA and TRDCW */
trdc_enable_all_access();
#if defined(CONFIG_WDT_MCUX_RTWDOG)
/* Unmask the watchdog reset channel */
RTWDOG_IF_SET_SRC(0, 1)
RTWDOG_IF_SET_SRC(1, 2)
RTWDOG_IF_SET_SRC(2, 3)
RTWDOG_IF_SET_SRC(3, 4)
RTWDOG_IF_SET_SRC(4, 5)
/* Clear the reset status otherwise TCM memory will reload in next reset */
uint32_t mask = SRC_GetResetStatusFlags(SRC_GENERAL_REG);
SRC_ClearGlobalSystemResetStatus(SRC_GENERAL_REG, mask);
#endif
/* Enable data cache */
sys_cache_data_enable();
__ISB();
__DSB();
}
#ifdef CONFIG_SOC_RESET_HOOK
void soc_reset_hook(void)
{
SystemInit();
}
#endif
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