arch/arm/mach-k3/j721s2_init.c - platform/external/u-boot - Gitiles

 // SPDX-License-Identifier: GPL-2.0+
 /*
  * J721E: SoC specific initialization
  *
  * Copyright (C) 2021 Texas Instruments Incorporated - http://www.ti.com/
  *	David Huang <d-huang@ti.com>
  */

 #include <common.h>
 #include <init.h>
 #include <spl.h>
 #include <asm/io.h>
 #include <asm/armv7_mpu.h>
 #include <asm/arch/hardware.h>
 #include "sysfw-loader.h"
 #include "common.h"
 #include <linux/soc/ti/ti_sci_protocol.h>
 #include <dm.h>
 #include <dm/uclass-internal.h>
 #include <dm/pinctrl.h>
 #include <dm/root.h>
 #include <mmc.h>
 #include <remoteproc.h>

 struct fwl_data cbass_hc_cfg0_fwls[] = {
 	{ "PCIE0_CFG", 2577, 7 },
 	{ "EMMC8SS0_CFG", 2579, 4 },
 	{ "USB3SS0_CORE", 2580, 4 },
 	{ "USB3SS1_CORE", 2581, 1 },
 }, cbass_hc2_fwls[] = {
 	{ "PCIE0", 2547, 24 },
 	{ "HC2_WIZ16B8M4CT2", 2552, 1 },
 }, cbass_rc_cfg0_fwls[] = {
 	{ "EMMCSD4SS0_CFG", 2400, 4 },
 }, infra_cbass0_fwls[] = {
 	{ "PSC0", 5, 1 },
 	{ "PLL_CTRL0", 6, 1 },
 	{ "PLL_MMR0", 8, 26 },
 	{ "CTRL_MMR0", 9, 16 },
 	{ "GPIO0", 16, 1 },
 }, mcu_cbass0_fwls[] = {
 	{ "MCU_R5FSS0_CORE0", 1024, 4 },
 	{ "MCU_R5FSS0_CORE0_CFG", 1025, 3 },
 	{ "MCU_R5FSS0_CORE1", 1028, 4 },
 	{ "MCU_R5FSS0_CORE1_CFG", 1029, 1 },
 	{ "MCU_FSS0_CFG", 1032, 12 },
 	{ "MCU_FSS0_S1", 1033, 8 },
 	{ "MCU_FSS0_S0", 1036, 8 },
 	{ "MCU_PSROM49152X32", 1048, 1 },
 	{ "MCU_MSRAM128KX64", 1050, 8 },
 	{ "MCU_MSRAM128KX64_CFG", 1051, 1 },
 	{ "MCU_TIMER0", 1056, 1 },
 	{ "MCU_TIMER9", 1065, 1 },
 	{ "MCU_USART0", 1120, 1 },
 	{ "MCU_I2C0", 1152, 1 },
 	{ "MCU_CTRL_MMR0", 1200, 8 },
 	{ "MCU_PLL_MMR0", 1201, 3 },
 	{ "MCU_CPSW0", 1220, 2 },
 }, wkup_cbass0_fwls[] = {
 	{ "WKUP_PSC0", 129, 1 },
 	{ "WKUP_PLL_CTRL0", 130, 1 },
 	{ "WKUP_CTRL_MMR0", 131, 16 },
 	{ "WKUP_GPIO0", 132, 1 },
 	{ "WKUP_I2C0", 144, 1 },
 	{ "WKUP_USART0", 160, 1 },
 }, navss_cbass0_fwls[] = {
 	{ "NACSS_VIRT0", 6253, 1 },
 };

 static void ctrl_mmr_unlock(void)
 {
 	/* Unlock all WKUP_CTRL_MMR0 module registers */
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 0);
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 1);
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 2);
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 3);
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 4);
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 6);
 	mmr_unlock(WKUP_CTRL_MMR0_BASE, 7);

 	/* Unlock all MCU_CTRL_MMR0 module registers */
 	mmr_unlock(MCU_CTRL_MMR0_BASE, 0);
 	mmr_unlock(MCU_CTRL_MMR0_BASE, 1);
 	mmr_unlock(MCU_CTRL_MMR0_BASE, 2);
 	mmr_unlock(MCU_CTRL_MMR0_BASE, 3);
 	mmr_unlock(MCU_CTRL_MMR0_BASE, 4);

 	/* Unlock all CTRL_MMR0 module registers */
 	mmr_unlock(CTRL_MMR0_BASE, 0);
 	mmr_unlock(CTRL_MMR0_BASE, 1);
 	mmr_unlock(CTRL_MMR0_BASE, 2);
 	mmr_unlock(CTRL_MMR0_BASE, 3);
 	mmr_unlock(CTRL_MMR0_BASE, 5);
 	mmr_unlock(CTRL_MMR0_BASE, 7);
 }

 void k3_mmc_stop_clock(void)
 {
 	if (IS_ENABLED(CONFIG_K3_LOAD_SYSFW)) {
 		if (spl_boot_device() == BOOT_DEVICE_MMC1) {
 			struct mmc *mmc = find_mmc_device(0);

 			if (!mmc)
 				return;

 			mmc->saved_clock = mmc->clock;
 			mmc_set_clock(mmc, 0, true);
 		}
 	}
 }

 void k3_mmc_restart_clock(void)
 {
 	if (IS_ENABLED(CONFIG_K3_LOAD_SYSFW)) {
 		if (spl_boot_device() == BOOT_DEVICE_MMC1) {
 			struct mmc *mmc = find_mmc_device(0);

 			if (!mmc)
 				return;

 			mmc_set_clock(mmc, mmc->saved_clock, false);
 		}
 	}
 }

 /*
  * This uninitialized global variable would normal end up in the .bss section,
  * but the .bss is cleared between writing and reading this variable, so move
  * it to the .data section.
  */
 u32 bootindex __attribute__((section(".data")));
 static struct rom_extended_boot_data bootdata __section(".data");

 static void store_boot_info_from_rom(void)
 {
 	bootindex = *(u32 *)(CONFIG_SYS_K3_BOOT_PARAM_TABLE_INDEX);
 	memcpy(&bootdata, (uintptr_t *)ROM_EXTENDED_BOOT_DATA_INFO,
 	       sizeof(struct rom_extended_boot_data));
 }

 void k3_spl_init(void)
 {
 	struct udevice *dev;
 	int ret;
 	/*
 	 * Cannot delay this further as there is a chance that
 	 * K3_BOOT_PARAM_TABLE_INDEX can be over written by SPL MALLOC section.
 	 */
 	store_boot_info_from_rom();

 	/* Make all control module registers accessible */
 	ctrl_mmr_unlock();

 	if (IS_ENABLED(CONFIG_CPU_V7R)) {
 		disable_linefill_optimization();
 		setup_k3_mpu_regions();
 	}

 	/* Init DM early */
 	spl_early_init();

 	/* Prepare console output */
 	preloader_console_init();

 	if (IS_ENABLED(CONFIG_K3_LOAD_SYSFW)) {
 		/*
 		 * Process pinctrl for the serial0 a.k.a. WKUP_UART0 module and continue
 		 * regardless of the result of pinctrl. Do this without probing the
 		 * device, but instead by searching the device that would request the
 		 * given sequence number if probed. The UART will be used by the system
 		 * firmware (SYSFW) image for various purposes and SYSFW depends on us
 		 * to initialize its pin settings.
 		 */
 		ret = uclass_find_device_by_seq(UCLASS_SERIAL, 0, &dev);
 		if (!ret)
 			pinctrl_select_state(dev, "default");

 		/*
 		 * Load, start up, and configure system controller firmware. Provide
 		 * the U-Boot console init function to the SYSFW post-PM configuration
 		 * callback hook, effectively switching on (or over) the console
 		 * output.
 		 */
 		k3_sysfw_loader(is_rom_loaded_sysfw(&bootdata),
 				k3_mmc_stop_clock, k3_mmc_restart_clock);

 		if (IS_ENABLED(CONFIG_SPL_CLK_K3)) {
 			/*
 			 * Force probe of clk_k3 driver here to ensure basic default clock
 			 * configuration is always done for enabling PM services.
 			 */
 			ret = uclass_get_device_by_driver(UCLASS_CLK,
 							  DM_DRIVER_GET(ti_clk),
 							  &dev);
 			if (ret)
 				panic("Failed to initialize clk-k3!\n");
 		}

 		remove_fwl_configs(cbass_hc_cfg0_fwls, ARRAY_SIZE(cbass_hc_cfg0_fwls));
 		remove_fwl_configs(cbass_hc2_fwls, ARRAY_SIZE(cbass_hc2_fwls));
 		remove_fwl_configs(cbass_rc_cfg0_fwls, ARRAY_SIZE(cbass_rc_cfg0_fwls));
 		remove_fwl_configs(infra_cbass0_fwls, ARRAY_SIZE(infra_cbass0_fwls));
 		remove_fwl_configs(mcu_cbass0_fwls, ARRAY_SIZE(mcu_cbass0_fwls));
 		remove_fwl_configs(wkup_cbass0_fwls, ARRAY_SIZE(wkup_cbass0_fwls));
 		remove_fwl_configs(navss_cbass0_fwls, ARRAY_SIZE(navss_cbass0_fwls));
 	}

 	/* Output System Firmware version info */
 	k3_sysfw_print_ver();
 }

 bool check_rom_loaded_sysfw(void)
 {
 	return is_rom_loaded_sysfw(&bootdata);
 }

 void k3_mem_init(void)
 {
 	struct udevice *dev;
 	int ret;

 	if (IS_ENABLED(CONFIG_K3_J721E_DDRSS)) {
 		ret = uclass_get_device_by_name(UCLASS_MISC, "msmc", &dev);
 		if (ret)
 			panic("Probe of msmc failed: %d\n", ret);

 		ret = uclass_get_device(UCLASS_RAM, 0, &dev);
 		if (ret)
 			panic("DRAM 0 init failed: %d\n", ret);

 		ret = uclass_next_device_err(&dev);
 		if (ret)
 			panic("DRAM 1 init failed: %d\n", ret);
 	}
 	spl_enable_dcache();
 }

 /* Support for the various EVM / SK families */
 #if defined(CONFIG_SPL_OF_LIST) && defined(CONFIG_TI_I2C_BOARD_DETECT)
 void do_dt_magic(void)
 {
 	int ret, rescan, mmc_dev = -1;
 	static struct mmc *mmc;

 	do_board_detect();

 	/*
 	 * Board detection has been done.
 	 * Let us see if another dtb wouldn't be a better match
 	 * for our board
 	 */
 	if (IS_ENABLED(CONFIG_CPU_V7R)) {
 		ret = fdtdec_resetup(&rescan);
 		if (!ret && rescan) {
 			dm_uninit();
 			dm_init_and_scan(true);
 		}
 	}

 	/*
 	 * Because of multi DTB configuration, the MMC device has
 	 * to be re-initialized after reconfiguring FDT inorder to
 	 * boot from MMC. Do this when boot mode is MMC and ROM has
 	 * not loaded SYSFW.
 	 */
 	switch (spl_boot_device()) {
 	case BOOT_DEVICE_MMC1:
 		mmc_dev = 0;
 		break;
 	case BOOT_DEVICE_MMC2:
 	case BOOT_DEVICE_MMC2_2:
 		mmc_dev = 1;
 		break;
 	}

 	if (mmc_dev > 0 && !check_rom_loaded_sysfw()) {
 		ret = mmc_init_device(mmc_dev);
 		if (!ret) {
 			mmc = find_mmc_device(mmc_dev);
 			if (mmc) {
 				ret = mmc_init(mmc);
 				if (ret)
 					printf("mmc init failed with error: %d\n", ret);
 			}
 		}
 	}
 }
 #endif

 #ifdef CONFIG_SPL_BUILD
 void board_init_f(ulong dummy)
 {
 	k3_spl_init();
 #if defined(CONFIG_SPL_OF_LIST) && defined(CONFIG_TI_I2C_BOARD_DETECT)
 	do_dt_magic();
 #endif
 	k3_mem_init();
 }
 #endif

 u32 spl_mmc_boot_mode(struct mmc *mmc, const u32 boot_device)
 {
 	switch (boot_device) {
 	case BOOT_DEVICE_MMC1:
 		return MMCSD_MODE_EMMCBOOT;
 	case BOOT_DEVICE_MMC2:
 		return MMCSD_MODE_FS;
 	default:
 		return MMCSD_MODE_RAW;
 	}
 }

 static u32 __get_backup_bootmedia(u32 main_devstat)
 {
 	u32 bkup_boot = (main_devstat & MAIN_DEVSTAT_BKUP_BOOTMODE_MASK) >>
 			MAIN_DEVSTAT_BKUP_BOOTMODE_SHIFT;

 	switch (bkup_boot) {
 	case BACKUP_BOOT_DEVICE_USB:
 		return BOOT_DEVICE_DFU;
 	case BACKUP_BOOT_DEVICE_UART:
 		return BOOT_DEVICE_UART;
 	case BACKUP_BOOT_DEVICE_ETHERNET:
 		return BOOT_DEVICE_ETHERNET;
 	case BACKUP_BOOT_DEVICE_MMC2:
 	{
 		u32 port = (main_devstat & MAIN_DEVSTAT_BKUP_MMC_PORT_MASK) >>
 			    MAIN_DEVSTAT_BKUP_MMC_PORT_SHIFT;
 		if (port == 0x0)
 			return BOOT_DEVICE_MMC1;
 		return BOOT_DEVICE_MMC2;
 	}
 	case BACKUP_BOOT_DEVICE_SPI:
 		return BOOT_DEVICE_SPI;
 	case BACKUP_BOOT_DEVICE_I2C:
 		return BOOT_DEVICE_I2C;
 	}

 	return BOOT_DEVICE_RAM;
 }

 static u32 __get_primary_bootmedia(u32 main_devstat, u32 wkup_devstat)
 {
 	u32 bootmode = (wkup_devstat & WKUP_DEVSTAT_PRIMARY_BOOTMODE_MASK) >>
 			WKUP_DEVSTAT_PRIMARY_BOOTMODE_SHIFT;

 	bootmode |= (main_devstat & MAIN_DEVSTAT_BOOT_MODE_B_MASK) <<
 			BOOT_MODE_B_SHIFT;

 	if (bootmode == BOOT_DEVICE_OSPI || bootmode ==	BOOT_DEVICE_QSPI ||
 	    bootmode == BOOT_DEVICE_XSPI)
 		bootmode = BOOT_DEVICE_SPI;

 	if (bootmode == BOOT_DEVICE_MMC2) {
 		u32 port = (main_devstat &
 			    MAIN_DEVSTAT_PRIM_BOOTMODE_MMC_PORT_MASK) >>
 			   MAIN_DEVSTAT_PRIM_BOOTMODE_PORT_SHIFT;
 		if (port == 0x0)
 			bootmode = BOOT_DEVICE_MMC1;
 	}

 	return bootmode;
 }

 u32 spl_boot_device(void)
 {
 	u32 wkup_devstat = readl(CTRLMMR_WKUP_DEVSTAT);
 	u32 main_devstat;

 	if (wkup_devstat & WKUP_DEVSTAT_MCU_OMLY_MASK) {
 		printf("ERROR: MCU only boot is not yet supported\n");
 		return BOOT_DEVICE_RAM;
 	}

 	/* MAIN CTRL MMR can only be read if MCU ONLY is 0 */
 	main_devstat = readl(CTRLMMR_MAIN_DEVSTAT);

 	if (bootindex == K3_PRIMARY_BOOTMODE)
 		return __get_primary_bootmedia(main_devstat, wkup_devstat);
 	else
 		return __get_backup_bootmedia(main_devstat);
 }
	// SPDX-License-Identifier: GPL-2.0+
	/*
	* J721E: SoC specific initialization
	*
	* Copyright (C) 2021 Texas Instruments Incorporated - http://www.ti.com/
	* David Huang <d-huang@ti.com>
	*/

	#include <common.h>
	#include <init.h>
	#include <spl.h>
	#include <asm/io.h>
	#include <asm/armv7_mpu.h>
	#include <asm/arch/hardware.h>
	#include "sysfw-loader.h"
	#include "common.h"
	#include <linux/soc/ti/ti_sci_protocol.h>
	#include <dm.h>
	#include <dm/uclass-internal.h>
	#include <dm/pinctrl.h>
	#include <dm/root.h>
	#include <mmc.h>
	#include <remoteproc.h>

	struct fwl_data cbass_hc_cfg0_fwls[] = {
	{ "PCIE0_CFG", 2577, 7 },
	{ "EMMC8SS0_CFG", 2579, 4 },
	{ "USB3SS0_CORE", 2580, 4 },
	{ "USB3SS1_CORE", 2581, 1 },
	}, cbass_hc2_fwls[] = {
	{ "PCIE0", 2547, 24 },
	{ "HC2_WIZ16B8M4CT2", 2552, 1 },
	}, cbass_rc_cfg0_fwls[] = {
	{ "EMMCSD4SS0_CFG", 2400, 4 },
	}, infra_cbass0_fwls[] = {
	{ "PSC0", 5, 1 },
	{ "PLL_CTRL0", 6, 1 },
	{ "PLL_MMR0", 8, 26 },
	{ "CTRL_MMR0", 9, 16 },
	{ "GPIO0", 16, 1 },
	}, mcu_cbass0_fwls[] = {
	{ "MCU_R5FSS0_CORE0", 1024, 4 },
	{ "MCU_R5FSS0_CORE0_CFG", 1025, 3 },
	{ "MCU_R5FSS0_CORE1", 1028, 4 },
	{ "MCU_R5FSS0_CORE1_CFG", 1029, 1 },
	{ "MCU_FSS0_CFG", 1032, 12 },
	{ "MCU_FSS0_S1", 1033, 8 },
	{ "MCU_FSS0_S0", 1036, 8 },
	{ "MCU_PSROM49152X32", 1048, 1 },
	{ "MCU_MSRAM128KX64", 1050, 8 },
	{ "MCU_MSRAM128KX64_CFG", 1051, 1 },
	{ "MCU_TIMER0", 1056, 1 },
	{ "MCU_TIMER9", 1065, 1 },
	{ "MCU_USART0", 1120, 1 },
	{ "MCU_I2C0", 1152, 1 },
	{ "MCU_CTRL_MMR0", 1200, 8 },
	{ "MCU_PLL_MMR0", 1201, 3 },
	{ "MCU_CPSW0", 1220, 2 },
	}, wkup_cbass0_fwls[] = {
	{ "WKUP_PSC0", 129, 1 },
	{ "WKUP_PLL_CTRL0", 130, 1 },
	{ "WKUP_CTRL_MMR0", 131, 16 },
	{ "WKUP_GPIO0", 132, 1 },
	{ "WKUP_I2C0", 144, 1 },
	{ "WKUP_USART0", 160, 1 },
	}, navss_cbass0_fwls[] = {
	{ "NACSS_VIRT0", 6253, 1 },
	};

	static void ctrl_mmr_unlock(void)
	{
	/* Unlock all WKUP_CTRL_MMR0 module registers */
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 0);
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 1);
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 2);
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 3);
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 4);
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 6);
	mmr_unlock(WKUP_CTRL_MMR0_BASE, 7);

	/* Unlock all MCU_CTRL_MMR0 module registers */
	mmr_unlock(MCU_CTRL_MMR0_BASE, 0);
	mmr_unlock(MCU_CTRL_MMR0_BASE, 1);
	mmr_unlock(MCU_CTRL_MMR0_BASE, 2);
	mmr_unlock(MCU_CTRL_MMR0_BASE, 3);
	mmr_unlock(MCU_CTRL_MMR0_BASE, 4);

	/* Unlock all CTRL_MMR0 module registers */
	mmr_unlock(CTRL_MMR0_BASE, 0);
	mmr_unlock(CTRL_MMR0_BASE, 1);
	mmr_unlock(CTRL_MMR0_BASE, 2);
	mmr_unlock(CTRL_MMR0_BASE, 3);
	mmr_unlock(CTRL_MMR0_BASE, 5);
	mmr_unlock(CTRL_MMR0_BASE, 7);
	}

	void k3_mmc_stop_clock(void)
	{
	if (IS_ENABLED(CONFIG_K3_LOAD_SYSFW)) {
	if (spl_boot_device() == BOOT_DEVICE_MMC1) {
	struct mmc *mmc = find_mmc_device(0);

	if (!mmc)
	return;

	mmc->saved_clock = mmc->clock;
	mmc_set_clock(mmc, 0, true);
	}
	}
	}

	void k3_mmc_restart_clock(void)
	{
	if (IS_ENABLED(CONFIG_K3_LOAD_SYSFW)) {
	if (spl_boot_device() == BOOT_DEVICE_MMC1) {
	struct mmc *mmc = find_mmc_device(0);

	if (!mmc)
	return;

	mmc_set_clock(mmc, mmc->saved_clock, false);
	}
	}
	}

	/*
	* This uninitialized global variable would normal end up in the .bss section,
	* but the .bss is cleared between writing and reading this variable, so move
	* it to the .data section.
	*/
	u32 bootindex __attribute__((section(".data")));
	static struct rom_extended_boot_data bootdata __section(".data");

	static void store_boot_info_from_rom(void)
	{
	bootindex = (u32 )(CONFIG_SYS_K3_BOOT_PARAM_TABLE_INDEX);
	memcpy(&bootdata, (uintptr_t *)ROM_EXTENDED_BOOT_DATA_INFO,
	sizeof(struct rom_extended_boot_data));
	}

	void k3_spl_init(void)
	{
	struct udevice *dev;
	int ret;
	/*
	* Cannot delay this further as there is a chance that
	* K3_BOOT_PARAM_TABLE_INDEX can be over written by SPL MALLOC section.
	*/
	store_boot_info_from_rom();

	/* Make all control module registers accessible */
	ctrl_mmr_unlock();

	if (IS_ENABLED(CONFIG_CPU_V7R)) {
	disable_linefill_optimization();
	setup_k3_mpu_regions();
	}

	/* Init DM early */
	spl_early_init();

	/* Prepare console output */
	preloader_console_init();

	if (IS_ENABLED(CONFIG_K3_LOAD_SYSFW)) {
	/*
	* Process pinctrl for the serial0 a.k.a. WKUP_UART0 module and continue
	* regardless of the result of pinctrl. Do this without probing the
	* device, but instead by searching the device that would request the
	* given sequence number if probed. The UART will be used by the system
	* firmware (SYSFW) image for various purposes and SYSFW depends on us
	* to initialize its pin settings.
	*/
	ret = uclass_find_device_by_seq(UCLASS_SERIAL, 0, &dev);
	if (!ret)
	pinctrl_select_state(dev, "default");

	/*
	* Load, start up, and configure system controller firmware. Provide
	* the U-Boot console init function to the SYSFW post-PM configuration
	* callback hook, effectively switching on (or over) the console
	* output.
	*/
	k3_sysfw_loader(is_rom_loaded_sysfw(&bootdata),
	k3_mmc_stop_clock, k3_mmc_restart_clock);

	if (IS_ENABLED(CONFIG_SPL_CLK_K3)) {
	/*
	* Force probe of clk_k3 driver here to ensure basic default clock
	* configuration is always done for enabling PM services.
	*/
	ret = uclass_get_device_by_driver(UCLASS_CLK,
	DM_DRIVER_GET(ti_clk),
	&dev);
	if (ret)
	panic("Failed to initialize clk-k3!\n");
	}

	remove_fwl_configs(cbass_hc_cfg0_fwls, ARRAY_SIZE(cbass_hc_cfg0_fwls));
	remove_fwl_configs(cbass_hc2_fwls, ARRAY_SIZE(cbass_hc2_fwls));
	remove_fwl_configs(cbass_rc_cfg0_fwls, ARRAY_SIZE(cbass_rc_cfg0_fwls));
	remove_fwl_configs(infra_cbass0_fwls, ARRAY_SIZE(infra_cbass0_fwls));
	remove_fwl_configs(mcu_cbass0_fwls, ARRAY_SIZE(mcu_cbass0_fwls));
	remove_fwl_configs(wkup_cbass0_fwls, ARRAY_SIZE(wkup_cbass0_fwls));
	remove_fwl_configs(navss_cbass0_fwls, ARRAY_SIZE(navss_cbass0_fwls));
	}

	/* Output System Firmware version info */
	k3_sysfw_print_ver();
	}

	bool check_rom_loaded_sysfw(void)
	{
	return is_rom_loaded_sysfw(&bootdata);
	}

	void k3_mem_init(void)
	{
	struct udevice *dev;
	int ret;

	if (IS_ENABLED(CONFIG_K3_J721E_DDRSS)) {
	ret = uclass_get_device_by_name(UCLASS_MISC, "msmc", &dev);
	if (ret)
	panic("Probe of msmc failed: %d\n", ret);

	ret = uclass_get_device(UCLASS_RAM, 0, &dev);
	if (ret)
	panic("DRAM 0 init failed: %d\n", ret);

	ret = uclass_next_device_err(&dev);
	if (ret)
	panic("DRAM 1 init failed: %d\n", ret);
	}
	spl_enable_dcache();
	}

	/* Support for the various EVM / SK families */
	#if defined(CONFIG_SPL_OF_LIST) && defined(CONFIG_TI_I2C_BOARD_DETECT)
	void do_dt_magic(void)
	{
	int ret, rescan, mmc_dev = -1;
	static struct mmc *mmc;

	do_board_detect();

	/*
	* Board detection has been done.
	* Let us see if another dtb wouldn't be a better match
	* for our board
	*/
	if (IS_ENABLED(CONFIG_CPU_V7R)) {
	ret = fdtdec_resetup(&rescan);
	if (!ret && rescan) {
	dm_uninit();
	dm_init_and_scan(true);
	}
	}

	/*
	* Because of multi DTB configuration, the MMC device has
	* to be re-initialized after reconfiguring FDT inorder to
	* boot from MMC. Do this when boot mode is MMC and ROM has
	* not loaded SYSFW.
	*/
	switch (spl_boot_device()) {
	case BOOT_DEVICE_MMC1:
	mmc_dev = 0;
	break;
	case BOOT_DEVICE_MMC2:
	case BOOT_DEVICE_MMC2_2:
	mmc_dev = 1;
	break;
	}

	if (mmc_dev > 0 && !check_rom_loaded_sysfw()) {
	ret = mmc_init_device(mmc_dev);
	if (!ret) {
	mmc = find_mmc_device(mmc_dev);
	if (mmc) {
	ret = mmc_init(mmc);
	if (ret)
	printf("mmc init failed with error: %d\n", ret);
	}
	}
	}
	}
	#endif

	#ifdef CONFIG_SPL_BUILD
	void board_init_f(ulong dummy)
	{
	k3_spl_init();
	#if defined(CONFIG_SPL_OF_LIST) && defined(CONFIG_TI_I2C_BOARD_DETECT)
	do_dt_magic();
	#endif
	k3_mem_init();
	}
	#endif

	u32 spl_mmc_boot_mode(struct mmc *mmc, const u32 boot_device)
	{
	switch (boot_device) {
	case BOOT_DEVICE_MMC1:
	return MMCSD_MODE_EMMCBOOT;
	case BOOT_DEVICE_MMC2:
	return MMCSD_MODE_FS;
	default:
	return MMCSD_MODE_RAW;
	}
	}

	static u32 __get_backup_bootmedia(u32 main_devstat)
	{
	u32 bkup_boot = (main_devstat & MAIN_DEVSTAT_BKUP_BOOTMODE_MASK) >>
	MAIN_DEVSTAT_BKUP_BOOTMODE_SHIFT;

	switch (bkup_boot) {
	case BACKUP_BOOT_DEVICE_USB:
	return BOOT_DEVICE_DFU;
	case BACKUP_BOOT_DEVICE_UART:
	return BOOT_DEVICE_UART;
	case BACKUP_BOOT_DEVICE_ETHERNET:
	return BOOT_DEVICE_ETHERNET;
	case BACKUP_BOOT_DEVICE_MMC2:
	{
	u32 port = (main_devstat & MAIN_DEVSTAT_BKUP_MMC_PORT_MASK) >>
	MAIN_DEVSTAT_BKUP_MMC_PORT_SHIFT;
	if (port == 0x0)
	return BOOT_DEVICE_MMC1;
	return BOOT_DEVICE_MMC2;
	}
	case BACKUP_BOOT_DEVICE_SPI:
	return BOOT_DEVICE_SPI;
	case BACKUP_BOOT_DEVICE_I2C:
	return BOOT_DEVICE_I2C;
	}

	return BOOT_DEVICE_RAM;
	}

	static u32 __get_primary_bootmedia(u32 main_devstat, u32 wkup_devstat)
	{
	u32 bootmode = (wkup_devstat & WKUP_DEVSTAT_PRIMARY_BOOTMODE_MASK) >>
	WKUP_DEVSTAT_PRIMARY_BOOTMODE_SHIFT;

	bootmode \|= (main_devstat & MAIN_DEVSTAT_BOOT_MODE_B_MASK) <<
	BOOT_MODE_B_SHIFT;

	if (bootmode == BOOT_DEVICE_OSPI \|\| bootmode == BOOT_DEVICE_QSPI \|\|
	bootmode == BOOT_DEVICE_XSPI)
	bootmode = BOOT_DEVICE_SPI;

	if (bootmode == BOOT_DEVICE_MMC2) {
	u32 port = (main_devstat &
	MAIN_DEVSTAT_PRIM_BOOTMODE_MMC_PORT_MASK) >>
	MAIN_DEVSTAT_PRIM_BOOTMODE_PORT_SHIFT;
	if (port == 0x0)
	bootmode = BOOT_DEVICE_MMC1;
	}

	return bootmode;
	}

	u32 spl_boot_device(void)
	{
	u32 wkup_devstat = readl(CTRLMMR_WKUP_DEVSTAT);
	u32 main_devstat;

	if (wkup_devstat & WKUP_DEVSTAT_MCU_OMLY_MASK) {
	printf("ERROR: MCU only boot is not yet supported\n");
	return BOOT_DEVICE_RAM;
	}

	/* MAIN CTRL MMR can only be read if MCU ONLY is 0 */
	main_devstat = readl(CTRLMMR_MAIN_DEVSTAT);

	if (bootindex == K3_PRIMARY_BOOTMODE)
	return __get_primary_bootmedia(main_devstat, wkup_devstat);
	else
	return __get_backup_bootmedia(main_devstat);
	}