diff --git a/plat/nxp/soc-ls1028a/soc.c b/plat/nxp/soc-ls1028a/soc.c
new file mode 100644
index 0000000..4f67154
--- /dev/null
+++ b/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