Browse Source

feat(plat/nxp/ls1028a): add ls1028a soc support

The QorIQ LS1028A processor integrates two 64-bit ARM Cortex-A72
cores with a GPU and LCD controller, as well as a TSNenabled
Ethernet port and a TSN-enabled switch with four external ports.

Signed-off-by: Ruchika Gupta <ruchika.gupta@nxp.com>
Signed-off-by: Pankaj Gupta <pankaj.gupta@nxp.com>
Signed-off-by: Jiafei Pan <Jiafei.Pan@nxp.com>
Signed-off-by: Yangbo Lu <yangbo.lu@nxp.com>
Signed-off-by: Ran Wang <ran.wang_1@nxp.com>
Change-Id: I9f65c6af5db7e20702828cd208290c1b43a54941
pull/1981/head
Jiafei Pan 3 years ago
parent
commit
9d250f03d7
  1. 1387
      plat/nxp/soc-ls1028a/aarch64/ls1028a.S
  2. 70
      plat/nxp/soc-ls1028a/aarch64/ls1028a_helpers.S
  3. 149
      plat/nxp/soc-ls1028a/include/soc.h
  4. 420
      plat/nxp/soc-ls1028a/soc.c
  5. 95
      plat/nxp/soc-ls1028a/soc.def
  6. 113
      plat/nxp/soc-ls1028a/soc.mk

1387
plat/nxp/soc-ls1028a/aarch64/ls1028a.S

File diff suppressed because it is too large

70
plat/nxp/soc-ls1028a/aarch64/ls1028a_helpers.S

@ -0,0 +1,70 @@
/*
* Copyright 2018-2021 NXP
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#include <arch.h>
#include <asm_macros.S>
#include <platform_def.h>
.globl plat_secondary_cold_boot_setup
.globl plat_is_my_cpu_primary
.globl plat_reset_handler
.globl platform_mem_init
func platform_mem1_init
ret
endfunc platform_mem1_init
func platform_mem_init
ret
endfunc platform_mem_init
func apply_platform_errata
ret
endfunc apply_platform_errata
func plat_reset_handler
mov x29, x30
bl apply_platform_errata
#if defined(IMAGE_BL31)
ldr x0, =POLICY_SMMU_PAGESZ_64K
cbz x0, 1f
/* Set the SMMU page size in the sACR register */
bl _set_smmu_pagesz_64
#endif
1:
mov x30, x29
ret
endfunc plat_reset_handler
/*
* void plat_secondary_cold_boot_setup (void);
*
* This function performs any platform specific actions
* needed for a secondary cpu after a cold reset e.g
* mark the cpu's presence, mechanism to place it in a
* holding pen etc.
*/
func plat_secondary_cold_boot_setup
/* ls1028a does not do cold boot for secondary CPU */
cb_panic:
b cb_panic
endfunc plat_secondary_cold_boot_setup
/*
* unsigned int plat_is_my_cpu_primary (void);
*
* Find out whether the current cpu is the primary
* cpu.
*/
func plat_is_my_cpu_primary
mrs x0, mpidr_el1
and x0, x0, #(MPIDR_CLUSTER_MASK | MPIDR_CPU_MASK)
cmp x0, 0x0
cset w0, eq
ret
endfunc plat_is_my_cpu_primary

149
plat/nxp/soc-ls1028a/include/soc.h

@ -0,0 +1,149 @@
/*
* Copyright 2018-2021 NXP
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#ifndef SOC_H
#define SOC_H
/* Chassis specific defines - common across SoC's of a particular platform */
#include <dcfg_lsch3.h>
#include <soc_default_base_addr.h>
#include <soc_default_helper_macros.h>
/*
* SVR Definition of LS1028A
* (not include major and minor rev)
* These info is listed in Table B-6. DCFG differences
* between LS1028A and LS1027A of LS1028ARM(Reference Manual)
*/
#define SVR_LS1017AN 0x870B25
#define SVR_LS1017AE 0x870B24
#define SVR_LS1018AN 0x870B21
#define SVR_LS1018AE 0x870B20
#define SVR_LS1027AN 0x870B05
#define SVR_LS1027AE 0x870B04
#define SVR_LS1028AN 0x870B01
#define SVR_LS1028AE 0x870B00
/* Number of cores in platform */
#define PLATFORM_CORE_COUNT 2
#define NUMBER_OF_CLUSTERS 1
#define CORES_PER_CLUSTER 2
/* Set to 0 if the clusters are not symmetrical */
#define SYMMETRICAL_CLUSTERS 1
#define NUM_DRAM_REGIONS 3
#define NXP_DRAM0_ADDR 0x80000000
#define NXP_DRAM0_MAX_SIZE 0x80000000 /* 2GB */
#define NXP_DRAM1_ADDR 0x2080000000
#define NXP_DRAM1_MAX_SIZE 0x1F80000000 /* 126G */
#define NXP_DRAM2_ADDR 0x6000000000
#define NXP_DRAM2_MAX_SIZE 0x2000000000 /* 128G */
/* DRAM0 Size defined in platform_def.h */
#define NXP_DRAM0_SIZE PLAT_DEF_DRAM0_SIZE
/* CCSR space memory Map */
#undef NXP_UART_ADDR
#define NXP_UART_ADDR 0x021C0500
#undef NXP_UART1_ADDR
#define NXP_UART1_ADDR 0x021C0600
#undef NXP_WDOG1_TZ_ADDR
#define NXP_WDOG1_TZ_ADDR 0x023C0000
#undef NXP_GICR_ADDR
#define NXP_GICR_ADDR 0x06040000
#undef NXP_GICR_SGI_ADDR
#define NXP_GICR_SGI_ADDR 0x06050000
/* EPU register offsets and values */
#define EPU_EPGCR_OFFSET 0x0
#define EPU_EPIMCR10_OFFSET 0x128
#define EPU_EPCTR10_OFFSET 0xa28
#define EPU_EPCCR10_OFFSET 0x828
#define EPU_EPCCR10_VAL 0xb2800000
#define EPU_EPIMCR10_VAL 0xba000000
#define EPU_EPCTR10_VAL 0x0
#define EPU_EPGCR_VAL (1 << 31)
/* PORSR1 */
#define PORSR1_RCW_MASK 0x07800000
#define PORSR1_RCW_SHIFT 23
#define SDHC1_VAL 0x8
#define SDHC2_VAL 0x9
#define I2C1_VAL 0xa
#define FLEXSPI_NAND2K_VAL 0xc
#define FLEXSPI_NAND4K_VAL 0xd
#define FLEXSPI_NOR 0xf
/*
* Required LS standard platform porting definitions
* for CCI-400
*/
#define NXP_CCI_CLUSTER0_SL_IFACE_IX 4
/* Defines required for using XLAT tables from ARM common code */
#define PLAT_PHY_ADDR_SPACE_SIZE (1ull << 40)
#define PLAT_VIRT_ADDR_SPACE_SIZE (1ull << 40)
/* Clock Divisors */
#define NXP_PLATFORM_CLK_DIVIDER 1
#define NXP_UART_CLK_DIVIDER 2
/* dcfg register offsets and values */
#define DCFG_DEVDISR2_ENETC (1 << 31)
#define MPIDR_AFFINITY0_MASK 0x00FF
#define MPIDR_AFFINITY1_MASK 0xFF00
#define CPUECTLR_DISABLE_TWALK_PREFETCH 0x4000000000
#define CPUECTLR_INS_PREFETCH_MASK 0x1800000000
#define CPUECTLR_DAT_PREFETCH_MASK 0x0300000000
#define OSDLR_EL1_DLK_LOCK 0x1
#define CNTP_CTL_EL0_EN 0x1
#define CNTP_CTL_EL0_IMASK 0x2
#define SYSTEM_PWR_DOMAINS 1
#define PLAT_NUM_PWR_DOMAINS (PLATFORM_CORE_COUNT + \
NUMBER_OF_CLUSTERS + \
SYSTEM_PWR_DOMAINS)
/* Power state coordination occurs at the system level */
#define PLAT_PD_COORD_LVL MPIDR_AFFLVL2
#define PLAT_MAX_PWR_LVL PLAT_PD_COORD_LVL
/* Local power state for power domains in Run state */
#define LS_LOCAL_STATE_RUN PSCI_LOCAL_STATE_RUN
/* define retention state */
#define PLAT_MAX_RET_STATE (PSCI_LOCAL_STATE_RUN + 1)
#define LS_LOCAL_STATE_RET PLAT_MAX_RET_STATE
/* define power-down state */
#define PLAT_MAX_OFF_STATE (PLAT_MAX_RET_STATE + 1)
#define LS_LOCAL_STATE_OFF PLAT_MAX_OFF_STATE
/* One cache line needed for bakery locks on ARM platforms */
#define PLAT_PERCPU_BAKERY_LOCK_SIZE (1 * CACHE_WRITEBACK_GRANULE)
#ifndef __ASSEMBLER__
/* CCI slave interfaces */
static const int cci_map[] = {
NXP_CCI_CLUSTER0_SL_IFACE_IX,
};
void soc_init_lowlevel(void);
void soc_init_percpu(void);
void _soc_set_start_addr(unsigned long addr);
void _set_platform_security(void);
#endif
#endif /* SOC_H */

420
plat/nxp/soc-ls1028a/soc.c

@ -0,0 +1,420 @@
/*
* Copyright 2018-2021 NXP
*
* SPDX-License-Identifier: BSD-3-Clause
*/
#include <endian.h>
#include <arch.h>
#include <caam.h>
#include <cassert.h>
#include <cci.h>
#include <common/debug.h>
#include <dcfg.h>
#include <i2c.h>
#include <lib/xlat_tables/xlat_tables_v2.h>
#include <ls_interconnect.h>
#include <mmio.h>
#if TRUSTED_BOARD_BOOT
#include <nxp_smmu.h>
#endif
#include <nxp_timer.h>
#ifdef CONFIG_OCRAM_ECC_EN
#include <ocram.h>
#endif
#include <plat_console.h>
#include <plat_gic.h>
#include <plat_tzc400.h>
#include <pmu.h>
#include <scfg.h>
#if defined(NXP_SFP_ENABLED)
#include <sfp.h>
#endif
#include <errata.h>
#include "plat_common.h"
#include "platform_def.h"
#include "soc.h"
static dcfg_init_info_t dcfg_init_data = {
.g_nxp_dcfg_addr = NXP_DCFG_ADDR,
.nxp_sysclk_freq = NXP_SYSCLK_FREQ,
.nxp_ddrclk_freq = NXP_DDRCLK_FREQ,
.nxp_plat_clk_divider = NXP_PLATFORM_CLK_DIVIDER,
};
static struct soc_type soc_list[] = {
SOC_ENTRY(LS1017AN, LS1017AN, 1, 1),
SOC_ENTRY(LS1017AE, LS1017AE, 1, 1),
SOC_ENTRY(LS1018AN, LS1018AN, 1, 1),
SOC_ENTRY(LS1018AE, LS1018AE, 1, 1),
SOC_ENTRY(LS1027AN, LS1027AN, 1, 2),
SOC_ENTRY(LS1027AE, LS1027AE, 1, 2),
SOC_ENTRY(LS1028AN, LS1028AN, 1, 2),
SOC_ENTRY(LS1028AE, LS1028AE, 1, 2),
};
CASSERT(NUMBER_OF_CLUSTERS && NUMBER_OF_CLUSTERS <= 256,
assert_invalid_ls1028a_cluster_count);
/*
* Function returns the base counter frequency
* after reading the first entry at CNTFID0 (0x20 offset).
*
* Function is used by:
* 1. ARM common code for PSCI management.
* 2. ARM Generic Timer init.
*
*/
unsigned int plat_get_syscnt_freq2(void)
{
unsigned int counter_base_frequency;
/*
* Below register specifies the base frequency of the system counter.
* As per NXP Board Manuals:
* The system counter always works with SYS_REF_CLK/4 frequency clock.
*/
counter_base_frequency = mmio_read_32(NXP_TIMER_ADDR + CNTFID_OFF);
return counter_base_frequency;
}
#ifdef IMAGE_BL2
void soc_preload_setup(void)
{
}
void soc_early_init(void)
{
uint8_t num_clusters, cores_per_cluster;
#ifdef CONFIG_OCRAM_ECC_EN
ocram_init(NXP_OCRAM_ADDR, NXP_OCRAM_SIZE);
#endif
dcfg_init(&dcfg_init_data);
enable_timer_base_to_cluster(NXP_PMU_ADDR);
enable_core_tb(NXP_PMU_ADDR);
dram_regions_info_t *dram_regions_info = get_dram_regions_info();
#ifdef POLICY_FUSE_PROVISION
gpio_init(&gpio_init_data);
sec_init(NXP_CAAM_ADDR);
#endif
#if LOG_LEVEL > 0
/* Initialize the console to provide early debug support */
plat_console_init(NXP_CONSOLE_ADDR,
NXP_UART_CLK_DIVIDER, NXP_CONSOLE_BAUDRATE);
#endif
enum boot_device dev = get_boot_dev();
/*
* Mark the buffer for SD in OCRAM as non secure.
* The buffer is assumed to be at end of OCRAM for
* the logic below to calculate TZPC programming
*/
if (dev == BOOT_DEVICE_EMMC || dev == BOOT_DEVICE_SDHC2_EMMC) {
/*
* Calculate the region in OCRAM which is secure
* The buffer for SD needs to be marked non-secure
* to allow SD to do DMA operations on it
*/
uint32_t secure_region = (NXP_OCRAM_SIZE - NXP_SD_BLOCK_BUF_SIZE);
uint32_t mask = secure_region/TZPC_BLOCK_SIZE;
mmio_write_32(NXP_OCRAM_TZPC_ADDR, mask);
/* Add the entry for buffer in MMU Table */
mmap_add_region(NXP_SD_BLOCK_BUF_ADDR, NXP_SD_BLOCK_BUF_ADDR,
NXP_SD_BLOCK_BUF_SIZE, MT_DEVICE | MT_RW | MT_NS);
}
#if TRUSTED_BOARD_BOOT
uint32_t mode;
sfp_init(NXP_SFP_ADDR);
/*
* For secure boot disable SMMU.
* Later when platform security policy comes in picture,
* this might get modified based on the policy
*/
if (check_boot_mode_secure(&mode) == true) {
bypass_smmu(NXP_SMMU_ADDR);
}
/*
* For Mbedtls currently crypto is not supported via CAAM
* enable it when that support is there. In tbbr.mk
* the CAAM_INTEG is set as 0.
*/
#ifndef MBEDTLS_X509
/* Initialize the crypto accelerator if enabled */
if (is_sec_enabled()) {
sec_init(NXP_CAAM_ADDR);
} else {
INFO("SEC is disabled.\n");
}
#endif
#endif
/* Set eDDRTQ for DDR performance */
scfg_setbits32((void *)(NXP_SCFG_ADDR + 0x210), 0x1f1f1f1f);
soc_errata();
/*
* Initialize Interconnect for this cluster during cold boot.
* No need for locks as no other CPU is active.
*/
cci_init(NXP_CCI_ADDR, cci_map, ARRAY_SIZE(cci_map));
/*
* Enable Interconnect coherency for the primary CPU's cluster.
*/
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
plat_ls_interconnect_enter_coherency(num_clusters);
delay_timer_init(NXP_TIMER_ADDR);
i2c_init(NXP_I2C_ADDR);
dram_regions_info->total_dram_size = init_ddr();
}
void soc_bl2_prepare_exit(void)
{
#if defined(NXP_SFP_ENABLED) && defined(DISABLE_FUSE_WRITE)
set_sfp_wr_disable();
#endif
}
/*
* This function returns the boot device based on RCW_SRC
*/
enum boot_device get_boot_dev(void)
{
enum boot_device src = BOOT_DEVICE_NONE;
uint32_t porsr1;
uint32_t rcw_src;
porsr1 = read_reg_porsr1();
rcw_src = (porsr1 & PORSR1_RCW_MASK) >> PORSR1_RCW_SHIFT;
switch (rcw_src) {
case FLEXSPI_NOR:
src = BOOT_DEVICE_FLEXSPI_NOR;
INFO("RCW BOOT SRC is FLEXSPI NOR\n");
break;
case FLEXSPI_NAND2K_VAL:
case FLEXSPI_NAND4K_VAL:
INFO("RCW BOOT SRC is FLEXSPI NAND\n");
src = BOOT_DEVICE_FLEXSPI_NAND;
break;
case SDHC1_VAL:
src = BOOT_DEVICE_EMMC;
INFO("RCW BOOT SRC is SD\n");
break;
case SDHC2_VAL:
src = BOOT_DEVICE_SDHC2_EMMC;
INFO("RCW BOOT SRC is EMMC\n");
break;
default:
break;
}
return src;
}
/*
* This function sets up access permissions on memory regions
****************************************************************************/
void soc_mem_access(void)
{
dram_regions_info_t *info_dram_regions = get_dram_regions_info();
struct tzc400_reg tzc400_reg_list[MAX_NUM_TZC_REGION];
int dram_idx = 0;
/* index 0 is reserved for region-0 */
int index = 1;
for (dram_idx = 0; dram_idx < info_dram_regions->num_dram_regions;
dram_idx++) {
if (info_dram_regions->region[dram_idx].size == 0) {
ERROR("DDR init failure, or");
ERROR("DRAM regions not populated correctly.\n");
break;
}
index = populate_tzc400_reg_list(tzc400_reg_list,
dram_idx, index,
info_dram_regions->region[dram_idx].addr,
info_dram_regions->region[dram_idx].size,
NXP_SECURE_DRAM_SIZE, NXP_SP_SHRD_DRAM_SIZE);
}
mem_access_setup(NXP_TZC_ADDR, index, tzc400_reg_list);
}
#else
static unsigned char _power_domain_tree_desc[NUMBER_OF_CLUSTERS + 2];
/*
* This function dynamically constructs the topology according to
* SoC Flavor and returns it.
*/
const unsigned char *plat_get_power_domain_tree_desc(void)
{
uint8_t num_clusters, cores_per_cluster;
unsigned int i;
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
/*
* The highest level is the system level. The next level is constituted
* by clusters and then cores in clusters.
*/
_power_domain_tree_desc[0] = 1;
_power_domain_tree_desc[1] = num_clusters;
for (i = 0; i < _power_domain_tree_desc[1]; i++)
_power_domain_tree_desc[i + 2] = cores_per_cluster;
return _power_domain_tree_desc;
}
/*
* This function returns the core count within the cluster corresponding to
* `mpidr`.
*/
unsigned int plat_ls_get_cluster_core_count(u_register_t mpidr)
{
uint8_t num_clusters, cores_per_cluster;
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
return num_clusters;
}
void soc_early_platform_setup2(void)
{
dcfg_init(&dcfg_init_data);
/* Initialize system level generic timer for Socs */
delay_timer_init(NXP_TIMER_ADDR);
#if LOG_LEVEL > 0
/* Initialize the console to provide early debug support */
plat_console_init(NXP_CONSOLE_ADDR,
NXP_UART_CLK_DIVIDER, NXP_CONSOLE_BAUDRATE);
#endif
}
void soc_platform_setup(void)
{
/* Initialize the GIC driver, cpu and distributor interfaces */
static uintptr_t target_mask_array[PLATFORM_CORE_COUNT];
static interrupt_prop_t ls_interrupt_props[] = {
PLAT_LS_G1S_IRQ_PROPS(INTR_GROUP1S),
PLAT_LS_G0_IRQ_PROPS(INTR_GROUP0)
};
plat_ls_gic_driver_init(NXP_GICD_ADDR, NXP_GICR_ADDR,
PLATFORM_CORE_COUNT,
ls_interrupt_props,
ARRAY_SIZE(ls_interrupt_props),
target_mask_array,
plat_core_pos);
plat_ls_gic_init();
enable_init_timer();
}
/* This function initializes the soc from the BL31 module */
void soc_init(void)
{
uint8_t num_clusters, cores_per_cluster;
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
/* Low-level init of the soc */
soc_init_lowlevel();
_init_global_data();
soc_init_percpu();
_initialize_psci();
/*
* Initialize Interconnect for this cluster during cold boot.
* No need for locks as no other CPU is active.
*/
cci_init(NXP_CCI_ADDR, cci_map, ARRAY_SIZE(cci_map));
/* Enable Interconnect coherency for the primary CPU's cluster. */
plat_ls_interconnect_enter_coherency(num_clusters);
/* Set platform security policies */
_set_platform_security();
/* Init SEC Engine which will be used by SiP */
if (is_sec_enabled()) {
sec_init(NXP_CAAM_ADDR);
} else {
INFO("SEC is disabled.\n");
}
}
#ifdef NXP_WDOG_RESTART
static uint64_t wdog_interrupt_handler(uint32_t id, uint32_t flags,
void *handle, void *cookie)
{
uint8_t data = WDOG_RESET_FLAG;
wr_nv_app_data(WDT_RESET_FLAG_OFFSET,
(uint8_t *)&data, sizeof(data));
mmio_write_32(NXP_RST_ADDR + RSTCNTL_OFFSET, SW_RST_REQ_INIT);
return 0;
}
#endif
void soc_runtime_setup(void)
{
#ifdef NXP_WDOG_RESTART
request_intr_type_el3(BL31_NS_WDOG_WS1, wdog_interrupt_handler);
#endif
}
/* This function returns the total number of cores in the SoC. */
unsigned int get_tot_num_cores(void)
{
uint8_t num_clusters, cores_per_cluster;
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
return (num_clusters * cores_per_cluster);
}
/* This function returns the PMU IDLE Cluster mask. */
unsigned int get_pmu_idle_cluster_mask(void)
{
uint8_t num_clusters, cores_per_cluster;
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
return ((1 << num_clusters) - 2);
}
/* This function returns the PMU Flush Cluster mask. */
unsigned int get_pmu_flush_cluster_mask(void)
{
uint8_t num_clusters, cores_per_cluster;
get_cluster_info(soc_list, ARRAY_SIZE(soc_list), &num_clusters, &cores_per_cluster);
return ((1 << num_clusters) - 2);
}
/* This function returns the PMU idle core mask. */
unsigned int get_pmu_idle_core_mask(void)
{
return ((1 << get_tot_num_cores()) - 2);
}
/* Function to return the SoC SYS CLK */
unsigned int get_sys_clk(void)
{
return NXP_SYSCLK_FREQ;
}
#endif

95
plat/nxp/soc-ls1028a/soc.def

@ -0,0 +1,95 @@
#
# Copyright 2018-2021 NXP
#
# SPDX-License-Identifier: BSD-3-Clause
#
#
#------------------------------------------------------------------------------
#
# This file contains the basic architecture definitions that drive the build
#
# -----------------------------------------------------------------------------
CORE_TYPE := a72
CACHE_LINE := 6
# Set to GIC400 or GIC500
GIC := GIC500
# Set to CCI400 or CCN504 or CCN508
INTERCONNECT := CCI400
# Layerscape chassis level - set to 3=LSCH3 or 2=LSCH2
CHASSIS := 3_2
# TZC used is TZC380 or TZC400
TZC_ID := TZC400
# CONSOLE is NS16550 or PL011
CONSOLE := NS16550
# DDR PHY generation to be used
PLAT_DDR_PHY := PHY_GEN1
PHYS_SYS := 64
# Max Size of CSF header. Required to define BL2 TEXT LIMIT in soc.def
# Input to CST create_hdr_esbc tool
CSF_HDR_SZ := 0x3000
# In IMAGE_BL2, compile time flag for handling Cache coherency
# with CAAM for BL2 running from OCRAM
SEC_MEM_NON_COHERENT := yes
# OCRAM MAP for BL2
# Before BL2
# 0x18000000 - 0x18009fff -> Used by ROM code
# 0x1800a000 - 0x1800dfff -> CSF header for BL2
# For FlexSFlexSPI boot
# 0x1800e000 - 0x18040000 -> Reserved for BL2 binary
# For SD boot
# 0x1800e000 - 0x18030000 -> Reserved for BL2 binary
# 0x18030000 - 0x18040000 -> Reserved for SD buffer
OCRAM_START_ADDR := 0x18000000
OCRAM_SIZE := 0x40000
# Area of OCRAM reserved by ROM code
NXP_ROM_RSVD := 0xa000
# Location of BL2 on OCRAM
BL2_BASE_ADDR := $(shell echo $$(( $(OCRAM_START_ADDR) + $(NXP_ROM_RSVD) + $(CSF_HDR_SZ) )))
# Covert to HEX to be used by create_pbl.mk
BL2_BASE := $(shell echo "0x"$$(echo "obase=16; ${BL2_BASE_ADDR}" | bc))
# BL2_HDR_LOC is at (BL2_BASE + NXP_ROM_RSVD)
# This value BL2_HDR_LOC + CSF_HDR_SZ should not
# overalp with BL2_BASE
# Input to CST create_hdr_isbc tool
BL2_HDR_LOC := 0x1800A000
# SoC ERRATAS to be enabled
ERRATA_SOC_A008850 := 1
ERRATA_DDR_A009803 := 1
ERRATA_DDR_A009942 := 1
ERRATA_DDR_A010165 := 1
# Enable dynamic memory mapping
PLAT_XLAT_TABLES_DYNAMIC := 1
# Define Endianness of each module
NXP_GUR_ENDIANNESS := LE
NXP_DDR_ENDIANNESS := LE
NXP_SEC_ENDIANNESS := LE
NXP_SFP_ENDIANNESS := LE
NXP_SNVS_ENDIANNESS := LE
NXP_ESDHC_ENDIANNESS := LE
NXP_QSPI_ENDIANNESS := LE
NXP_FSPI_ENDIANNESS := LE
NXP_SFP_VER := 3_4
# OCRAM ECC Enabled
OCRAM_ECC_EN := yes

113
plat/nxp/soc-ls1028a/soc.mk

@ -0,0 +1,113 @@
#
# Copyright 2020-2021 NXP
#
# SPDX-License-Identifier: BSD-3-Clause
#
# SoC-specific build parameters
SOC := ls1028a
PLAT_PATH := plat/nxp
PLAT_COMMON_PATH := plat/nxp/common
PLAT_DRIVERS_PATH := drivers/nxp
PLAT_SOC_PATH := ${PLAT_PATH}/soc-${SOC}
BOARD_PATH := ${PLAT_SOC_PATH}/${BOARD}
# Get SoC-specific definitions
include ${PLAT_SOC_PATH}/soc.def
include ${PLAT_COMMON_PATH}/plat_make_helper/soc_common_def.mk
include ${PLAT_COMMON_PATH}/plat_make_helper/plat_build_macros.mk
ifeq (${TRUSTED_BOARD_BOOT},1)
$(eval $(call SET_NXP_MAKE_FLAG,SMMU_NEEDED,BL2))
$(eval $(call SET_NXP_MAKE_FLAG,SFP_NEEDED,BL2))
$(eval $(call SET_NXP_MAKE_FLAG,SNVS_NEEDED,BL2))
SECURE_BOOT := yes
endif
$(eval $(call SET_NXP_MAKE_FLAG,CRYPTO_NEEDED,BL_COMM))
$(eval $(call SET_NXP_MAKE_FLAG,DCFG_NEEDED,BL_COMM))
$(eval $(call SET_NXP_MAKE_FLAG,TIMER_NEEDED,BL_COMM))
$(eval $(call SET_NXP_MAKE_FLAG,INTERCONNECT_NEEDED,BL_COMM))
$(eval $(call SET_NXP_MAKE_FLAG,GIC_NEEDED,BL31))
$(eval $(call SET_NXP_MAKE_FLAG,CONSOLE_NEEDED,BL_COMM))
$(eval $(call SET_NXP_MAKE_FLAG,PMU_NEEDED,BL_COMM))
$(eval $(call SET_NXP_MAKE_FLAG,DDR_DRIVER_NEEDED,BL2))
$(eval $(call SET_NXP_MAKE_FLAG,TZASC_NEEDED,BL2))
$(eval $(call SET_NXP_MAKE_FLAG,I2C_NEEDED,BL2))
$(eval $(call SET_NXP_MAKE_FLAG,IMG_LOADR_NEEDED,BL2))
# Selecting PSCI & SIP_SVC support
$(eval $(call SET_NXP_MAKE_FLAG,PSCI_NEEDED,BL31))
$(eval $(call SET_NXP_MAKE_FLAG,SIPSVC_NEEDED,BL31))
PLAT_INCLUDES += -I${PLAT_COMMON_PATH}/include/default\
-I${BOARD_PATH}\
-I${PLAT_COMMON_PATH}/include/default/ch_${CHASSIS}\
-I${PLAT_SOC_PATH}/include\
-I${PLAT_COMMON_PATH}/soc_errata
ifeq (${SECURE_BOOT},yes)
include ${PLAT_COMMON_PATH}/tbbr/tbbr.mk
endif
ifeq ($(WARM_BOOT),yes)
include ${PLAT_COMMON_PATH}/warm_reset/warm_reset.mk
endif
ifeq (${NXP_NV_SW_MAINT_LAST_EXEC_DATA}, yes)
include ${PLAT_COMMON_PATH}/nv_storage/nv_storage.mk
endif
ifeq (${PSCI_NEEDED}, yes)
include ${PLAT_COMMON_PATH}/psci/psci.mk
endif
ifeq (${SIPSVC_NEEDED}, yes)
include ${PLAT_COMMON_PATH}/sip_svc/sipsvc.mk
endif
ifeq (${DDR_FIP_IO_NEEDED}, yes)
include ${PLAT_COMMON_PATH}/fip_handler/ddr_fip/ddr_fip_io.mk
endif
# For fuse-fip & fuse-programming
ifeq (${FUSE_PROG}, 1)
include ${PLAT_COMMON_PATH}/fip_handler/fuse_fip/fuse.mk
endif
ifeq (${IMG_LOADR_NEEDED},yes)
include $(PLAT_COMMON_PATH)/img_loadr/img_loadr.mk
endif
# Adding source files for the above selected drivers.
include ${PLAT_DRIVERS_PATH}/drivers.mk
# Adding SoC specific files
include ${PLAT_COMMON_PATH}/soc_errata/errata.mk
PLAT_INCLUDES += ${NV_STORAGE_INCLUDES}\
${WARM_RST_INCLUDES}
BL31_SOURCES += ${PLAT_SOC_PATH}/$(ARCH)/${SOC}.S\
${WARM_RST_BL31_SOURCES}\
${PSCI_SOURCES}\
${SIPSVC_SOURCES}\
${PLAT_COMMON_PATH}/$(ARCH)/bl31_data.S
PLAT_BL_COMMON_SOURCES += ${PLAT_COMMON_PATH}/$(ARCH)/ls_helpers.S\
${PLAT_SOC_PATH}/aarch64/${SOC}_helpers.S\
${NV_STORAGE_SOURCES}\
${WARM_RST_BL_COMM_SOURCES}\
${PLAT_SOC_PATH}/soc.c
ifeq (${TEST_BL31}, 1)
BL31_SOURCES += ${PLAT_SOC_PATH}/$(ARCH)/bootmain64.S \
${PLAT_SOC_PATH}/$(ARCH)/nonboot64.S
endif
BL2_SOURCES += ${DDR_CNTLR_SOURCES}\
${TBBR_SOURCES}\
${FUSE_SOURCES}
# Adding TFA setup files
include ${PLAT_PATH}/common/setup/common.mk
Loading…
Cancel
Save