/* * Copyright (c) 2015 - 2021, Broadcom * * SPDX-License-Identifier: BSD-3-Clause */ #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #include #ifdef USE_USB #include #endif #include #include #include /******************************************************************************* * Perform any BL3-1 platform setup common to ARM standard platforms ******************************************************************************/ static void brcm_stingray_gain_qspi_control(void) { if (boot_source_get() != BOOT_SOURCE_QSPI) { if (bcm_chimp_is_nic_mode() && (!bcm_chimp_handshake_done())) { /* * Last chance to wait for ChiMP firmware to report * "I am done" before grabbing the QSPI */ WARN("ChiMP still not booted\n"); #ifndef CHIMP_ALWAYS_NEEDS_QSPI WARN("ChiMP is given the last chance to boot (%d s)\n", CHIMP_HANDSHAKE_TIMEOUT_MS / 1000); if (!bcm_chimp_wait_handshake()) { ERROR("ChiMP failed to boot\n"); } else { INFO("ChiMP booted successfully\n"); } #endif } #ifndef CHIMP_ALWAYS_NEEDS_QSPI INFO("AP grabs QSPI\n"); /* * For QSPI boot sbl/bl1 has already taken care. * For other boot sources QSPI needs to be muxed to * AP for exclusive use */ brcm_stingray_set_qspi_mux(1); INFO("AP (bl31) gained control over QSPI\n"); #endif } } static void brcm_stingray_dma_pl330_init(void) { unsigned int val; VERBOSE("dma pl330 init start\n"); /* Set DMAC boot_manager_ns = 0x1 */ VERBOSE(" - configure boot security state\n"); mmio_setbits_32(DMAC_M0_IDM_IO_CONTROL_DIRECT, BOOT_MANAGER_NS); /* Set boot_peripheral_ns[n:0] = 0xffffffff */ mmio_write_32(ICFG_DMAC_CONFIG_2, BOOT_PERIPHERAL_NS); /* Set boot_irq_ns[n:0] = 0x0000ffff */ mmio_write_32(ICFG_DMAC_CONFIG_3, BOOT_IRQ_NS); /* Set DMAC stream_id */ VERBOSE(" - configure stream_id = 0x6000\n"); val = (DMAC_STREAM_ID << DMAC_SID_SHIFT); mmio_write_32(ICFG_DMAC_SID_ARADDR_CONTROL, val); mmio_write_32(ICFG_DMAC_SID_AWADDR_CONTROL, val); /* Reset DMAC */ VERBOSE(" - reset dma pl330\n"); mmio_setbits_32(DMAC_M0_IDM_RESET_CONTROL, 0x1); udelay(500); mmio_clrbits_32(DMAC_M0_IDM_RESET_CONTROL, 0x1); udelay(500); INFO("dma pl330 init done\n"); } static void brcm_stingray_spi_pl022_init(uintptr_t idm_reset_control) { VERBOSE("spi pl022 init start\n"); /* Reset APB SPI bridge */ VERBOSE(" - reset apb spi bridge\n"); mmio_setbits_32(idm_reset_control, 0x1); udelay(500); mmio_clrbits_32(idm_reset_control, 0x1); udelay(500); INFO("spi pl022 init done\n"); } #define CDRU_SATA_RESET_N \ BIT(CDRU_MISC_RESET_CONTROL__CDRU_SATA_RESET_N_R) #define CDRU_MISC_CLK_SATA \ BIT(CDRU_MISC_CLK_ENABLE_CONTROL__CDRU_SATA_CLK_EN_R) #define CCN_CONFIG_CLK_ENABLE (1 << 2) #define MMU_CONFIG_CLK_ENABLE (0x3F << 16) #define SATA_SATA_TOP_CTRL_BUS_CTRL (SATA_BASE + 0x2044) #define DMA_BIT_CTRL_MASK 0x003 #define DMA_DESCR_ENDIAN_CTRL (DMA_BIT_CTRL_MASK << 0x002) #define DMA_DATA_ENDIAN_CTRL (DMA_BIT_CTRL_MASK << 0x004) #define SATA_PORT_SATA3_PCB_REG8 (SATA_BASE + 0x2320) #define SATA_PORT_SATA3_PCB_REG11 (SATA_BASE + 0x232c) #define SATA_PORT_SATA3_PCB_BLOCK_ADDR (SATA_BASE + 0x233c) #define SATA3_AFE_TXRX_ACTRL 0x1d0 /* TXDriver swing setting is 800mV */ #define DFS_SWINGNOPE_VALUE (0x0 << 6) #define DFS_SWINGNOPE_MASK (0x3 << 6) #define DFS_SWINGPE_VALUE (0x1 << 4) #define DFS_SWINGPE_MASK (0x3 << 4) #define DFS_INJSTRENGTH_VALUE (0x0 << 4) #define DFS_INJSTRENGTH_MASK (0x3 << 4) #define DFS_INJEN (0x1 << 3) #define SATA_CORE_MEM_CTRL (SATA_BASE + 0x3a08) #define SATA_CORE_MEM_CTRL_ISO BIT(0) #define SATA_CORE_MEM_CTRL_ARRPOWEROKIN BIT(1) #define SATA_CORE_MEM_CTRL_ARRPOWERONIN BIT(2) #define SATA_CORE_MEM_CTRL_POWEROKIN BIT(3) #define SATA_CORE_MEM_CTRL_POWERONIN BIT(4) #define SATA0_IDM_RESET_CONTROL (SATA_BASE + 0x500800) #define SATA_APBT0_IDM_IO_CONTROL_DIRECT (SATA_BASE + 0x51a408) #define IO_CONTROL_DIRECT_CLK_ENABLE BIT(0) #define SATA_APBT0_IDM_RESET_CONTROL (SATA_BASE + 0x51a800) #define IDM_RESET_CONTROL_RESET BIT(0) #define NIC400_SATA_NOC_SECURITY1 0x6830000c #define SATA_NOC_SECURITY1_FIELD 0xf #define NIC400_SATA_NOC_SECURITY2 0x68300010 #define SATA_NOC_SECURITY2_FIELD 0xf #define NIC400_SATA_NOC_SECURITY3 0x68300014 #define SATA_NOC_SECURITY3_FIELD 0x1 #define NIC400_SATA_NOC_SECURITY4 0x68300018 #define SATA_NOC_SECURITY4_FIELD 0x1 #define NIC400_SATA_NOC_SECURITY5 0x6830001c #define SATA_NOC_SECURITY5_FIELD 0xf #define NIC400_SATA_NOC_SECURITY6 0x68300020 #define SATA_NOC_SECURITY6_FIELD 0x1 #define NIC400_SATA_NOC_SECURITY7 0x68300024 #define SATA_NOC_SECURITY7_FIELD 0xf #define NIC400_SATA_NOC_SECURITY8 0x68300028 #define SATA_NOC_SECURITY8_FIELD 0xf #define NIC400_SATA_NOC_SECURITY9 0x6830002c #define SATA_NOC_SECURITY9_FIELD 0x1 #define SATA_APBT_IDM_PORT_REG(port, reg) \ (((port/4) << 12) + reg) #define SATA_IDM_PORT_REG(port, reg) ((port << 12) + reg) #define SATA_PORT_REG(port, reg) \ (((port%4) << 16) + ((port/4) << 20) + reg) #define MAX_SATA_PORTS 8 #define USE_SATA_PORTS 8 #ifdef USE_SATA static const uint8_t sr_b0_sata_port[MAX_SATA_PORTS] = { 0, 1, 2, 3, 4, 5, 6, 7 }; static uint32_t brcm_stingray_get_sata_port(unsigned int port) { return sr_b0_sata_port[port]; } static void brcm_stingray_sata_init(void) { unsigned int port = 0; uint32_t sata_port; mmio_setbits_32(CDRU_MISC_CLK_ENABLE_CONTROL, CDRU_MISC_CLK_SATA); mmio_clrbits_32(CDRU_MISC_RESET_CONTROL, CDRU_SATA_RESET_N); mmio_setbits_32(CDRU_MISC_RESET_CONTROL, CDRU_SATA_RESET_N); for (port = 0; port < USE_SATA_PORTS; port++) { sata_port = brcm_stingray_get_sata_port(port); mmio_write_32(SATA_APBT_IDM_PORT_REG(sata_port, SATA_APBT0_IDM_RESET_CONTROL), 0x0); mmio_setbits_32(SATA_APBT_IDM_PORT_REG(sata_port, SATA_APBT0_IDM_IO_CONTROL_DIRECT), IO_CONTROL_DIRECT_CLK_ENABLE); mmio_write_32(SATA_IDM_PORT_REG(sata_port, SATA0_IDM_RESET_CONTROL), 0x0); mmio_setbits_32(SATA_PORT_REG(sata_port, SATA_CORE_MEM_CTRL), SATA_CORE_MEM_CTRL_ARRPOWERONIN); mmio_setbits_32(SATA_PORT_REG(sata_port, SATA_CORE_MEM_CTRL), SATA_CORE_MEM_CTRL_ARRPOWEROKIN); mmio_setbits_32(SATA_PORT_REG(sata_port, SATA_CORE_MEM_CTRL), SATA_CORE_MEM_CTRL_POWERONIN); mmio_setbits_32(SATA_PORT_REG(sata_port, SATA_CORE_MEM_CTRL), SATA_CORE_MEM_CTRL_POWEROKIN); mmio_clrbits_32(SATA_PORT_REG(sata_port, SATA_CORE_MEM_CTRL), SATA_CORE_MEM_CTRL_ISO); mmio_clrbits_32(SATA_PORT_REG(sata_port, SATA_SATA_TOP_CTRL_BUS_CTRL), (DMA_DESCR_ENDIAN_CTRL | DMA_DATA_ENDIAN_CTRL)); } mmio_setbits_32(NIC400_SATA_NOC_SECURITY1, SATA_NOC_SECURITY1_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY2, SATA_NOC_SECURITY2_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY3, SATA_NOC_SECURITY3_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY4, SATA_NOC_SECURITY4_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY5, SATA_NOC_SECURITY5_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY6, SATA_NOC_SECURITY6_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY7, SATA_NOC_SECURITY7_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY8, SATA_NOC_SECURITY8_FIELD); mmio_setbits_32(NIC400_SATA_NOC_SECURITY9, SATA_NOC_SECURITY9_FIELD); INFO("sata init done\n"); } #else static void poweroff_sata_pll(void) { /* * SATA subsystem is clocked by LCPLL0 which is enabled by * default by bootrom. Poweroff the PLL if SATA is not used */ /* enable isolation */ mmio_setbits_32(CRMU_AON_CTRL1, BIT(CRMU_AON_CTRL1__LCPLL0_ISO_IN)); /* Power off the SATA PLL/LDO */ mmio_clrbits_32(CRMU_AON_CTRL1, (BIT(CRMU_AON_CTRL1__LCPLL0_PWRON_LDO) | BIT(CRMU_AON_CTRL1__LCPLL0_PWR_ON))); } #endif #ifdef USE_AMAC #ifdef EMULATION_SETUP #define ICFG_AMAC_STRAP_CONFIG (HSLS_ICFG_REGS_BASE + 0xa5c) #define ICFG_AMAC_STRAP_DLL_BYPASS (1 << 2) #endif #define ICFG_AMAC_MAC_CTRL_REG (HSLS_ICFG_REGS_BASE + 0xa6c) #define ICFG_AMAC_MAC_FULL_DUPLEX (1 << 1) #define ICFG_AMAC_RGMII_PHY_CONFIG (HSLS_ICFG_REGS_BASE + 0xa60) #define ICFG_AMAC_SID_CONTROL (HSLS_ICFG_REGS_BASE + 0xb10) #define ICFG_AMAC_SID_SHIFT 5 #define ICFG_AMAC_SID_AWADDR_OFFSET 0x0 #define ICFG_AMAC_SID_ARADDR_OFFSET 0x4 #define AMAC_RPHY_1000_DATARATE (1 << 20) #define AMAC_RPHY_FULL_DUPLEX (1 << 5) #define AMAC_RPHY_SPEED_OFFSET 2 #define AMAC_RPHY_SPEED_MASK (7 << AMAC_RPHY_SPEED_OFFSET) #define AMAC_RPHY_1G_SPEED (2 << AMAC_RPHY_SPEED_OFFSET) #define ICFG_AMAC_MEM_PWR_CTRL (HSLS_ICFG_REGS_BASE + 0xa68) #define AMAC_ISO BIT(9) #define AMAC_STDBY BIT(8) #define AMAC_ARRPOWEROKIN BIT(7) #define AMAC_ARRPOWERONIN BIT(6) #define AMAC_POWEROKIN BIT(5) #define AMAC_POWERONIN BIT(4) #define AMAC_IDM0_IO_CONTROL_DIRECT (HSLS_IDM_REGS_BASE + 0x4408) #define AMAC_IDM0_ARCACHE_OFFSET 16 #define AMAC_IDM0_AWCACHE_OFFSET 7 #define AMAC_IDM0_ARCACHE_MASK (0xF << AMAC_IDM0_ARCACHE_OFFSET) #define AMAC_IDM0_AWCACHE_MASK (0xF << AMAC_IDM0_AWCACHE_OFFSET) /* ARCACHE - AWCACHE is 0xB7 for write-back no allocate */ #define AMAC_IDM0_ARCACHE_VAL (0xb << AMAC_IDM0_ARCACHE_OFFSET) #define AMAC_IDM0_AWCACHE_VAL (0x7 << AMAC_IDM0_AWCACHE_OFFSET) static void brcm_stingray_amac_init(void) { unsigned int val; uintptr_t icfg_amac_sid = ICFG_AMAC_SID_CONTROL; VERBOSE("amac init start\n"); val = SR_SID_VAL(0x3, 0x0, 0x4) << ICFG_AMAC_SID_SHIFT; mmio_write_32(icfg_amac_sid + ICFG_AMAC_SID_AWADDR_OFFSET, val); mmio_write_32(icfg_amac_sid + ICFG_AMAC_SID_ARADDR_OFFSET, val); mmio_setbits_32(ICFG_AMAC_MEM_PWR_CTRL, AMAC_ARRPOWEROKIN); mmio_setbits_32(ICFG_AMAC_MEM_PWR_CTRL, AMAC_ARRPOWERONIN); mmio_setbits_32(ICFG_AMAC_MEM_PWR_CTRL, AMAC_POWEROKIN); mmio_setbits_32(ICFG_AMAC_MEM_PWR_CTRL, AMAC_POWERONIN); mmio_clrbits_32(ICFG_AMAC_MEM_PWR_CTRL, AMAC_ISO); mmio_write_32(APBR_IDM_RESET_CONTROL, 0x0); mmio_clrsetbits_32(ICFG_AMAC_RGMII_PHY_CONFIG, AMAC_RPHY_SPEED_MASK, AMAC_RPHY_1G_SPEED); /*1 Gbps line rate*/ /* 1000 datarate set */ mmio_setbits_32(ICFG_AMAC_RGMII_PHY_CONFIG, AMAC_RPHY_1000_DATARATE); /* full duplex */ mmio_setbits_32(ICFG_AMAC_RGMII_PHY_CONFIG, AMAC_RPHY_FULL_DUPLEX); #ifdef EMULATION_SETUP /* DLL bypass */ mmio_setbits_32(ICFG_AMAC_STRAP_CONFIG, ICFG_AMAC_STRAP_DLL_BYPASS); #endif /* serdes full duplex */ mmio_setbits_32(ICFG_AMAC_MAC_CTRL_REG, ICFG_AMAC_MAC_FULL_DUPLEX); mmio_clrsetbits_32(AMAC_IDM0_IO_CONTROL_DIRECT, AMAC_IDM0_ARCACHE_MASK, AMAC_IDM0_ARCACHE_VAL); mmio_clrsetbits_32(AMAC_IDM0_IO_CONTROL_DIRECT, AMAC_IDM0_AWCACHE_MASK, AMAC_IDM0_AWCACHE_VAL); INFO("amac init done\n"); } #endif /* USE_AMAC */ static void brcm_stingray_pka_meminit(void) { uintptr_t icfg_mem_ctrl = ICFG_PKA_MEM_PWR_CTRL; VERBOSE("pka meminit start\n"); VERBOSE(" - arrpoweron\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_PKA_MEM_PWR_CTRL__ARRPOWERONIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_PKA_MEM_PWR_CTRL__ARRPOWERONOUT)) ; VERBOSE(" - arrpowerok\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_PKA_MEM_PWR_CTRL__ARRPOWEROKIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_PKA_MEM_PWR_CTRL__ARRPOWEROKOUT)) ; VERBOSE(" - poweron\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_PKA_MEM_PWR_CTRL__POWERONIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_PKA_MEM_PWR_CTRL__POWERONOUT)) ; VERBOSE(" - powerok\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_PKA_MEM_PWR_CTRL__POWEROKIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_PKA_MEM_PWR_CTRL__POWEROKOUT)) ; /* Wait sometime */ mdelay(1); VERBOSE(" - remove isolation\n"); mmio_clrbits_32(icfg_mem_ctrl, ICFG_PKA_MEM_PWR_CTRL__ISO); INFO("pka meminit done\n"); } static void brcm_stingray_smmu_init(void) { unsigned int val; uintptr_t smmu_base = SMMU_BASE; VERBOSE("smmu init start\n"); /* Configure SCR0 */ VERBOSE(" - configure scr0\n"); val = mmio_read_32(smmu_base + 0x0); val |= (0x1 << 12); mmio_write_32(smmu_base + 0x0, val); /* Reserve context banks for secure masters */ arm_smmu_reserve_secure_cntxt(); /* Print configuration */ VERBOSE(" - scr0=0x%x scr1=0x%x scr2=0x%x\n", mmio_read_32(smmu_base + 0x0), mmio_read_32(smmu_base + 0x4), mmio_read_32(smmu_base + 0x8)); VERBOSE(" - idr0=0x%x idr1=0x%x idr2=0x%x\n", mmio_read_32(smmu_base + 0x20), mmio_read_32(smmu_base + 0x24), mmio_read_32(smmu_base + 0x28)); VERBOSE(" - idr3=0x%x idr4=0x%x idr5=0x%x\n", mmio_read_32(smmu_base + 0x2c), mmio_read_32(smmu_base + 0x30), mmio_read_32(smmu_base + 0x34)); VERBOSE(" - idr6=0x%x idr7=0x%x\n", mmio_read_32(smmu_base + 0x38), mmio_read_32(smmu_base + 0x3c)); INFO("smmu init done\n"); } static void brcm_stingray_dma_pl330_meminit(void) { uintptr_t icfg_mem_ctrl = ICFG_DMAC_MEM_PWR_CTRL; VERBOSE("dmac meminit start\n"); VERBOSE(" - arrpoweron\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_DMAC_MEM_PWR_CTRL__ARRPOWERONIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_DMAC_MEM_PWR_CTRL__ARRPOWERONOUT)) ; VERBOSE(" - arrpowerok\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_DMAC_MEM_PWR_CTRL__ARRPOWEROKIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_DMAC_MEM_PWR_CTRL__ARRPOWEROKOUT)) ; VERBOSE(" - poweron\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_DMAC_MEM_PWR_CTRL__POWERONIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_DMAC_MEM_PWR_CTRL__POWERONOUT)) ; VERBOSE(" - powerok\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_DMAC_MEM_PWR_CTRL__POWEROKIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_DMAC_MEM_PWR_CTRL__POWEROKOUT)) ; /* Wait sometime */ mdelay(1); VERBOSE(" - remove isolation\n"); mmio_clrbits_32(icfg_mem_ctrl, ICFG_DMAC_MEM_PWR_CTRL__ISO); INFO("dmac meminit done\n"); } /* program the crmu access ranges for allowing non sec access*/ static void brcm_stingray_crmu_access_init(void) { /* Enable 0x6641c001 - 0x6641c701 for non secure access */ mmio_write_32(CRMU_CORE_ADDR_RANGE0_LOW, 0x6641c001); mmio_write_32(CRMU_CORE_ADDR_RANGE0_LOW + 0x4, 0x6641c701); /* Enable 0x6641d001 - 0x66424b01 for non secure access */ mmio_write_32(CRMU_CORE_ADDR_RANGE1_LOW, 0x6641d001); mmio_write_32(CRMU_CORE_ADDR_RANGE1_LOW + 0x4, 0x66424b01); /* Enable 0x66425001 - 0x66425f01 for non secure access */ mmio_write_32(CRMU_CORE_ADDR_RANGE2_LOW, 0x66425001); mmio_write_32(CRMU_CORE_ADDR_RANGE2_LOW + 0x4, 0x66425f01); INFO("crmu access init done\n"); } static void brcm_stingray_scr_init(void) { unsigned int val; uintptr_t scr_base = SCR_BASE; unsigned int clr_mask = SCR_AXCACHE_CONFIG_MASK; unsigned int set_mask = SCR_TBUX_AXCACHE_CONFIG; VERBOSE("scr init start\n"); /* awdomain=0x1 and ardomain=0x1 */ mmio_clrsetbits_32(scr_base + 0x0, clr_mask, set_mask); val = mmio_read_32(scr_base + 0x0); VERBOSE(" - set tbu0_config=0x%x\n", val); /* awdomain=0x1 and ardomain=0x1 */ mmio_clrsetbits_32(scr_base + 0x4, clr_mask, set_mask); val = mmio_read_32(scr_base + 0x4); VERBOSE(" - set tbu1_config=0x%x\n", val); /* awdomain=0x1 and ardomain=0x1 */ mmio_clrsetbits_32(scr_base + 0x8, clr_mask, set_mask); val = mmio_read_32(scr_base + 0x8); VERBOSE(" - set tbu2_config=0x%x\n", val); /* awdomain=0x1 and ardomain=0x1 */ mmio_clrsetbits_32(scr_base + 0xc, clr_mask, set_mask); val = mmio_read_32(scr_base + 0xc); VERBOSE(" - set tbu3_config=0x%x\n", val); /* awdomain=0x1 and ardomain=0x1 */ mmio_clrsetbits_32(scr_base + 0x10, clr_mask, set_mask); val = mmio_read_32(scr_base + 0x10); VERBOSE(" - set tbu4_config=0x%x\n", val); /* awdomain=0x0 and ardomain=0x0 */ mmio_clrbits_32(scr_base + 0x14, clr_mask); val = mmio_read_32(scr_base + 0x14); VERBOSE(" - set gic_config=0x%x\n", val); INFO("scr init done\n"); } static void brcm_stingray_hsls_tzpcprot_init(void) { unsigned int val; uintptr_t tzpcdecprot_base = HSLS_TZPC_BASE; VERBOSE("hsls tzpcprot init start\n"); /* Treat third-party masters as non-secured */ val = 0; val |= BIT(6); /* SDIO1 */ val |= BIT(5); /* SDIO0 */ val |= BIT(0); /* AMAC */ mmio_write_32(tzpcdecprot_base + 0x810, val); /* Print TZPC decode status registers */ VERBOSE(" - tzpcdecprot0=0x%x\n", mmio_read_32(tzpcdecprot_base + 0x800)); VERBOSE(" - tzpcdecprot1=0x%x\n", mmio_read_32(tzpcdecprot_base + 0x80c)); INFO("hsls tzpcprot init done\n"); } #ifdef USE_I2S #define ICFG_AUDIO_POWER_CTRL (HSLS_ICFG_REGS_BASE + 0xaa8) #define ICFG_AUDIO_POWER_CTRL__POWERONIN BIT(0) #define ICFG_AUDIO_POWER_CTRL__POWEROKIN BIT(1) #define ICFG_AUDIO_POWER_CTRL__ARRPOWERONIN BIT(2) #define ICFG_AUDIO_POWER_CTRL__ARRPOWEROKIN BIT(3) #define ICFG_AUDIO_POWER_CTRL__POWERONOUT BIT(4) #define ICFG_AUDIO_POWER_CTRL__POWEROKOUT BIT(5) #define ICFG_AUDIO_POWER_CTRL__ARRPOWERONOUT BIT(6) #define ICFG_AUDIO_POWER_CTRL__ARRPOWEROKOUT BIT(7) #define ICFG_AUDIO_POWER_CTRL__ISO BIT(8) #define ICFG_AUDIO_SID_CONTROL (HSLS_ICFG_REGS_BASE + 0xaf8) #define ICFG_AUDIO_SID_SHIFT 5 #define ICFG_AUDIO_SID_AWADDR_OFFSET 0x0 #define ICFG_AUDIO_SID_ARADDR_OFFSET 0x4 #define I2S_RESET_CONTROL (HSLS_IDM_REGS_BASE + 0x1800) #define I2S_IDM_IO_CONTROL (HSLS_IDM_REGS_BASE + 0x1408) #define IO_CONTROL_CLK_ENABLE BIT(0) #define I2S_IDM0_ARCACHE_OFFSET 16 #define I2S_IDM0_AWCACHE_OFFSET 20 #define I2S_IDM0_ARCACHE_MASK (0xF << I2S_IDM0_ARCACHE_OFFSET) #define I2S_IDM0_AWCACHE_MASK (0xF << I2S_IDM0_AWCACHE_OFFSET) /* ARCACHE - AWCACHE is 0x22 Normal Non-cacheable Non-bufferable. */ #define I2S_IDM0_ARCACHE_VAL (0x2 << I2S_IDM0_ARCACHE_OFFSET) #define I2S_IDM0_AWCACHE_VAL (0x2 << I2S_IDM0_AWCACHE_OFFSET) static void brcm_stingray_audio_init(void) { unsigned int val; uintptr_t icfg_mem_ctrl = ICFG_AUDIO_POWER_CTRL; uintptr_t icfg_audio_sid = ICFG_AUDIO_SID_CONTROL; mmio_write_32(I2S_RESET_CONTROL, 0x0); mmio_clrsetbits_32(I2S_IDM_IO_CONTROL, I2S_IDM0_ARCACHE_MASK, I2S_IDM0_ARCACHE_VAL); mmio_clrsetbits_32(I2S_IDM_IO_CONTROL, I2S_IDM0_AWCACHE_MASK, I2S_IDM0_AWCACHE_VAL); mmio_setbits_32(I2S_IDM_IO_CONTROL, IO_CONTROL_CLK_ENABLE); VERBOSE("audio meminit start\n"); VERBOSE(" - configure stream_id = 0x6001\n"); val = SR_SID_VAL(0x3, 0x0, 0x1) << ICFG_AUDIO_SID_SHIFT; mmio_write_32(icfg_audio_sid + ICFG_AUDIO_SID_AWADDR_OFFSET, val); mmio_write_32(icfg_audio_sid + ICFG_AUDIO_SID_ARADDR_OFFSET, val); VERBOSE(" - arrpoweron\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_AUDIO_POWER_CTRL__ARRPOWERONIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_AUDIO_POWER_CTRL__ARRPOWERONOUT)) ; VERBOSE(" - arrpowerok\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_AUDIO_POWER_CTRL__ARRPOWEROKIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_AUDIO_POWER_CTRL__ARRPOWEROKOUT)) ; VERBOSE(" - poweron\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_AUDIO_POWER_CTRL__POWERONIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_AUDIO_POWER_CTRL__POWERONOUT)) ; VERBOSE(" - powerok\n"); mmio_setbits_32(icfg_mem_ctrl, ICFG_AUDIO_POWER_CTRL__POWEROKIN); while (!(mmio_read_32(icfg_mem_ctrl) & ICFG_AUDIO_POWER_CTRL__POWEROKOUT)) ; /* Wait sometime */ mdelay(1); VERBOSE(" - remove isolation\n"); mmio_clrbits_32(icfg_mem_ctrl, ICFG_AUDIO_POWER_CTRL__ISO); INFO("audio meminit done\n"); } #endif /* USE_I2S */ /* * These defines do not match the regfile but they are renamed in a way such * that they are much more readible */ #define SCR_GPV_SMMU_NS (SCR_GPV_BASE + 0x28) #define SCR_GPV_GIC500_NS (SCR_GPV_BASE + 0x34) #define HSLS_GPV_NOR_S0_NS (HSLS_GPV_BASE + 0x14) #define HSLS_GPV_IDM1_NS (HSLS_GPV_BASE + 0x18) #define HSLS_GPV_IDM2_NS (HSLS_GPV_BASE + 0x1c) #define HSLS_SDIO0_SLAVE_NS (HSLS_GPV_BASE + 0x20) #define HSLS_SDIO1_SLAVE_NS (HSLS_GPV_BASE + 0x24) #define HSLS_GPV_APBY_NS (HSLS_GPV_BASE + 0x2c) #define HSLS_GPV_APBZ_NS (HSLS_GPV_BASE + 0x30) #define HSLS_GPV_APBX_NS (HSLS_GPV_BASE + 0x34) #define HSLS_GPV_APBS_NS (HSLS_GPV_BASE + 0x38) #define HSLS_GPV_QSPI_S0_NS (HSLS_GPV_BASE + 0x68) #define HSLS_GPV_APBR_NS (HSLS_GPV_BASE + 0x6c) #define FS4_CRYPTO_GPV_RM_SLAVE_NS (FS4_CRYPTO_GPV_BASE + 0x8) #define FS4_CRYPTO_GPV_APB_SWITCH_NS (FS4_CRYPTO_GPV_BASE + 0xc) #define FS4_RAID_GPV_RM_SLAVE_NS (FS4_RAID_GPV_BASE + 0x8) #define FS4_RAID_GPV_APB_SWITCH_NS (FS4_RAID_GPV_BASE + 0xc) #define FS4_CRYPTO_IDM_NS (NIC400_FS_NOC_ROOT + 0x1c) #define FS4_RAID_IDM_NS (NIC400_FS_NOC_ROOT + 0x28) #define FS4_CRYPTO_RING_COUNT 32 #define FS4_CRYPTO_DME_COUNT 10 #define FS4_CRYPTO_AE_COUNT 10 #define FS4_CRYPTO_START_STREAM_ID 0x4000 #define FS4_CRYPTO_MSI_DEVICE_ID 0x4100 #define FS4_RAID_RING_COUNT 32 #define FS4_RAID_DME_COUNT 8 #define FS4_RAID_AE_COUNT 8 #define FS4_RAID_START_STREAM_ID 0x4200 #define FS4_RAID_MSI_DEVICE_ID 0x4300 #define FS6_PKI_AXI_SLAVE_NS \ (NIC400_FS_NOC_ROOT + NIC400_FS_NOC_SECURITY2_OFFSET) #define FS6_PKI_AE_DME_APB_NS \ (NIC400_FS_NOC_ROOT + NIC400_FS_NOC_SECURITY7_OFFSET) #define FS6_PKI_IDM_IO_CONTROL_DIRECT 0x0 #define FS6_PKI_IDM_RESET_CONTROL 0x0 #define FS6_PKI_RING_COUNT 32 #define FS6_PKI_DME_COUNT 1 #define FS6_PKI_AE_COUNT 4 #define FS6_PKI_START_STREAM_ID 0x4000 #define FS6_PKI_MSI_DEVICE_ID 0x4100 static void brcm_stingray_security_init(void) { unsigned int val; val = mmio_read_32(SCR_GPV_SMMU_NS); val |= BIT(0); /* SMMU NS = 1 */ mmio_write_32(SCR_GPV_SMMU_NS, val); val = mmio_read_32(SCR_GPV_GIC500_NS); val |= BIT(0); /* GIC-500 NS = 1 */ mmio_write_32(SCR_GPV_GIC500_NS, val); val = mmio_read_32(HSLS_GPV_NOR_S0_NS); val |= BIT(0); /* NOR SLAVE NS = 1 */ mmio_write_32(HSLS_GPV_NOR_S0_NS, val); val = mmio_read_32(HSLS_GPV_IDM1_NS); val |= BIT(0); /* DMA IDM NS = 1 */ val |= BIT(1); /* I2S IDM NS = 1 */ val |= BIT(2); /* AMAC IDM NS = 1 */ val |= BIT(3); /* SDIO0 IDM NS = 1 */ val |= BIT(4); /* SDIO1 IDM NS = 1 */ val |= BIT(5); /* DS_3 IDM NS = 1 */ mmio_write_32(HSLS_GPV_IDM1_NS, val); val = mmio_read_32(HSLS_GPV_IDM2_NS); val |= BIT(2); /* QSPI IDM NS = 1 */ val |= BIT(1); /* NOR IDM NS = 1 */ val |= BIT(0); /* NAND IDM NS = 1 */ mmio_write_32(HSLS_GPV_IDM2_NS, val); val = mmio_read_32(HSLS_GPV_APBY_NS); val |= BIT(10); /* I2S NS = 1 */ val |= BIT(4); /* IOPAD NS = 1 */ val |= 0xf; /* UARTx NS = 1 */ mmio_write_32(HSLS_GPV_APBY_NS, val); val = mmio_read_32(HSLS_GPV_APBZ_NS); val |= BIT(2); /* RNG NS = 1 */ mmio_write_32(HSLS_GPV_APBZ_NS, val); val = mmio_read_32(HSLS_GPV_APBS_NS); val |= 0x3; /* SPIx NS = 1 */ mmio_write_32(HSLS_GPV_APBS_NS, val); val = mmio_read_32(HSLS_GPV_APBR_NS); val |= BIT(7); /* QSPI APB NS = 1 */ val |= BIT(6); /* NAND APB NS = 1 */ val |= BIT(5); /* NOR APB NS = 1 */ val |= BIT(4); /* AMAC APB NS = 1 */ val |= BIT(1); /* DMA S1 APB NS = 1 */ mmio_write_32(HSLS_GPV_APBR_NS, val); val = mmio_read_32(HSLS_SDIO0_SLAVE_NS); val |= BIT(0); /* SDIO0 NS = 1 */ mmio_write_32(HSLS_SDIO0_SLAVE_NS, val); val = mmio_read_32(HSLS_SDIO1_SLAVE_NS); val |= BIT(0); /* SDIO1 NS = 1 */ mmio_write_32(HSLS_SDIO1_SLAVE_NS, val); val = mmio_read_32(HSLS_GPV_APBX_NS); val |= BIT(14); /* SMBUS1 NS = 1 */ val |= BIT(13); /* GPIO NS = 1 */ val |= BIT(12); /* WDT NS = 1 */ val |= BIT(11); /* SMBUS0 NS = 1 */ val |= BIT(10); /* Timer7 NS = 1 */ val |= BIT(9); /* Timer6 NS = 1 */ val |= BIT(8); /* Timer5 NS = 1 */ val |= BIT(7); /* Timer4 NS = 1 */ val |= BIT(6); /* Timer3 NS = 1 */ val |= BIT(5); /* Timer2 NS = 1 */ val |= BIT(4); /* Timer1 NS = 1 */ val |= BIT(3); /* Timer0 NS = 1 */ val |= BIT(2); /* MDIO NS = 1 */ val |= BIT(1); /* PWM NS = 1 */ mmio_write_32(HSLS_GPV_APBX_NS, val); val = mmio_read_32(HSLS_GPV_QSPI_S0_NS); val |= BIT(0); /* QSPI NS = 1 */ mmio_write_32(HSLS_GPV_QSPI_S0_NS, val); #ifdef USE_FS4 val = 0x1; /* FS4 Crypto rm_slave */ mmio_write_32(FS4_CRYPTO_GPV_RM_SLAVE_NS, val); val = 0x1; /* FS4 Crypto apb_switch */ mmio_write_32(FS4_CRYPTO_GPV_APB_SWITCH_NS, val); val = 0x1; /* FS4 Raid rm_slave */ mmio_write_32(FS4_RAID_GPV_RM_SLAVE_NS, val); val = 0x1; /* FS4 Raid apb_switch */ mmio_write_32(FS4_RAID_GPV_APB_SWITCH_NS, val); val = 0x1; /* FS4 Crypto IDM */ mmio_write_32(FS4_CRYPTO_IDM_NS, val); val = 0x1; /* FS4 RAID IDM */ mmio_write_32(FS4_RAID_IDM_NS, val); #endif #ifdef BL31_CCN_NONSECURE /* Enable non-secure access to CCN registers */ mmio_write_32(OLY_MN_REGISTERS_NODE0_SECURE_ACCESS, 0x1); #endif #ifdef DDR_CTRL_PHY_NONSECURE mmio_write_32(SCR_NOC_DDR_REGISTER_ACCESS, 0x1); #endif paxc_mhb_ns_init(); /* unlock scr idm for non secure access */ mmio_write_32(SCR_NOC_SECURITY0, 0xffffffff); INFO("security init done\r\n"); } void brcm_gpio_pad_ns_init(void) { /* configure all GPIO pads for non secure world access*/ mmio_write_32(GPIO_S_CNTRL_REG, 0xffffffff); /* 128-140 gpio pads */ mmio_write_32(GPIO_S_CNTRL_REG + 0x4, 0xffffffff); /* 96-127 gpio pad */ mmio_write_32(GPIO_S_CNTRL_REG + 0x8, 0xffffffff); /* 64-95 gpio pad */ mmio_write_32(GPIO_S_CNTRL_REG + 0xc, 0xffffffff); /* 32-63 gpio pad */ mmio_write_32(GPIO_S_CNTRL_REG + 0x10, 0xffffffff); /* 0-31 gpio pad */ } #ifndef USE_DDR static void brcm_stingray_sram_ns_init(void) { uintptr_t sram_root = TZC400_FS_SRAM_ROOT; uintptr_t noc_root = NIC400_FS_NOC_ROOT; mmio_write_32(sram_root + GATE_KEEPER_OFFSET, 1); mmio_write_32(sram_root + REGION_ATTRIBUTES_0_OFFSET, 0xc0000000); mmio_write_32(sram_root + REGION_ID_ACCESS_0_OFFSET, 0x00010001); mmio_write_32(noc_root + NIC400_FS_NOC_SECURITY4_OFFSET, 0x1); INFO(" stingray sram ns init done.\n"); } #endif static void ccn_pre_init(void) { /* * Set WFC bit of RN-I nodes where FS4 is connected. * This is required inorder to wait for read/write requests * completion acknowledgment. Otherwise FS4 Ring Manager is * getting stale data because of re-ordering of read/write * requests at CCN level */ mmio_setbits_32(OLY_RNI3PDVM_REGISTERS_NODE8_AUX_CTL, OLY_RNI3PDVM_REGISTERS_NODE8_AUX_CTL_WFC); } static void ccn_post_init(void) { mmio_setbits_32(OLY_HNI_REGISTERS_NODE0_PCIERC_RNI_NODEID_LIST, SRP_RNI_PCIE_CONNECTED); mmio_setbits_32(OLY_HNI_REGISTERS_NODE0_SA_AUX_CTL, SA_AUX_CTL_SER_DEVNE_WR); mmio_clrbits_32(OLY_HNI_REGISTERS_NODE0_POS_CONTROL, POS_CONTROL_HNI_POS_EN); mmio_clrbits_32(OLY_HNI_REGISTERS_NODE0_SA_AUX_CTL, SA_AUX_CTL_POS_EARLY_WR_COMP_EN); } #ifndef BL31_BOOT_PRELOADED_SCP static void crmu_init(void) { /* * Configure CRMU for using SMMU */ /*Program CRMU Stream ID */ mmio_write_32(CRMU_MASTER_AXI_ARUSER_CONFIG, (CRMU_STREAM_ID << CRMU_SID_SHIFT)); mmio_write_32(CRMU_MASTER_AXI_AWUSER_CONFIG, (CRMU_STREAM_ID << CRMU_SID_SHIFT)); /* Create Identity mapping */ arm_smmu_create_identity_map(DOMAIN_CRMU); /* Enable Client Port for Secure Masters*/ arm_smmu_enable_secure_client_port(); } #endif static void brcm_fsx_init(void) { #if defined(USE_FS4) && defined(USE_FS6) #error "USE_FS4 and USE_FS6 should not be used together" #endif #ifdef USE_FS4 fsx_init(eFS4_CRYPTO, FS4_CRYPTO_RING_COUNT, FS4_CRYPTO_DME_COUNT, FS4_CRYPTO_AE_COUNT, FS4_CRYPTO_START_STREAM_ID, FS4_CRYPTO_MSI_DEVICE_ID, FS4_CRYPTO_IDM_IO_CONTROL_DIRECT, FS4_CRYPTO_IDM_RESET_CONTROL, FS4_CRYPTO_BASE, FS4_CRYPTO_DME_BASE); fsx_init(eFS4_RAID, FS4_RAID_RING_COUNT, FS4_RAID_DME_COUNT, FS4_RAID_AE_COUNT, FS4_RAID_START_STREAM_ID, FS4_RAID_MSI_DEVICE_ID, FS4_RAID_IDM_IO_CONTROL_DIRECT, FS4_RAID_IDM_RESET_CONTROL, FS4_RAID_BASE, FS4_RAID_DME_BASE); fsx_meminit("raid", FS4_RAID_IDM_IO_CONTROL_DIRECT, FS4_RAID_IDM_IO_STATUS); #endif } static void bcm_bl33_pass_info(void) { struct bl33_info *info = (struct bl33_info *)BL33_SHARED_DDR_BASE; if (sizeof(*info) > BL33_SHARED_DDR_SIZE) WARN("bl33 shared area not reserved\n"); info->version = BL33_INFO_VERSION; info->chip.chip_id = PLAT_CHIP_ID_GET; info->chip.rev_id = PLAT_CHIP_REV_GET; } DEFINE_RENAME_SYSREG_RW_FUNCS(l2ctlr_el1, CORTEX_A72_L2CTLR_EL1) void plat_bcm_bl31_early_platform_setup(void *from_bl2, bl_params_t *plat_params_from_bl2) { #ifdef BL31_BOOT_PRELOADED_SCP image_info_t scp_image_info; scp_image_info.image_base = PRELOADED_SCP_BASE; scp_image_info.image_size = PRELOADED_SCP_SIZE; plat_bcm_bl2_plat_handle_scp_bl2(&scp_image_info); #endif /* * In BL31, logs are saved to DDR and we have much larger space to * store logs. We can now afford to save all logs >= the 'INFO' level */ bcm_elog_init((void *)BCM_ELOG_BL31_BASE, BCM_ELOG_BL31_SIZE, LOG_LEVEL_INFO); INFO("L2CTLR = 0x%lx\n", read_l2ctlr_el1()); brcm_timer_sync_init(); brcm_stingray_dma_pl330_init(); brcm_stingray_dma_pl330_meminit(); brcm_stingray_spi_pl022_init(APBS_IDM_IDM_RESET_CONTROL); #ifdef USE_AMAC brcm_stingray_amac_init(); #endif brcm_stingray_sdio_init(); #ifdef NCSI_IO_DRIVE_STRENGTH_MA brcm_stingray_ncsi_init(); #endif #ifdef USE_USB xhci_phy_init(); #endif #ifdef USE_SATA brcm_stingray_sata_init(); #else poweroff_sata_pll(); #endif ccn_pre_init(); brcm_fsx_init(); brcm_stingray_smmu_init(); brcm_stingray_pka_meminit(); brcm_stingray_crmu_access_init(); brcm_stingray_scr_init(); brcm_stingray_hsls_tzpcprot_init(); #ifdef USE_I2S brcm_stingray_audio_init(); #endif ccn_post_init(); paxb_init(); paxc_init(); #ifndef BL31_BOOT_PRELOADED_SCP crmu_init(); #endif /* Note: this should be last thing because * FS4 GPV registers only work after FS4 block * (i.e. crypto,raid,cop) is out of reset. */ brcm_stingray_security_init(); brcm_gpio_pad_ns_init(); #ifndef USE_DDR brcm_stingray_sram_ns_init(); #endif #ifdef BL31_FORCE_CPU_FULL_FREQ bcm_set_ihost_pll_freq(0x0, PLL_FREQ_FULL); #endif brcm_stingray_gain_qspi_control(); #ifdef USE_PAXC /* * Check that the handshake has occurred and report ChiMP status. * This is required. Otherwise (especially on Palladium) * Linux might have booted to the pcie stage whereas * ChiMP has not yet booted. Note that nic_mode case has already * been considered above. */ if ((boot_source_get() != BOOT_SOURCE_QSPI) && (!bcm_chimp_is_nic_mode()) && (!bcm_chimp_wait_handshake()) ) { /* Does ChiMP report an error ? */ uint32_t err; err = bcm_chimp_read_ctrl(CHIMP_REG_CTRL_BPE_STAT_REG); if ((err & CHIMP_ERROR_MASK) == 0) /* ChiMP has not booted yet, but no error reported */ WARN("ChiMP not booted yet, but no error reported.\n"); } #if DEBUG if (boot_source_get() != BOOT_SOURCE_QSPI) INFO("Current ChiMP Status: 0x%x; bpe_mod reg: 0x%x\n" "fastboot register: 0x%x; handshake register 0x%x\n", bcm_chimp_read_ctrl(CHIMP_REG_CTRL_BPE_STAT_REG), bcm_chimp_read_ctrl(CHIMP_REG_CTRL_BPE_MODE_REG), bcm_chimp_read_ctrl(CHIMP_REG_CTRL_FSTBOOT_PTR_REG), bcm_chimp_read(CHIMP_REG_ECO_RESERVED)); #endif /* DEBUG */ #endif #ifdef FS4_DISABLE_CLOCK flush_dcache_range( PLAT_BRCM_TRUSTED_SRAM_BASE, PLAT_BRCM_TRUSTED_SRAM_SIZE); fs4_disable_clocks(true, true, true); #endif /* pass information to BL33 through shared DDR region */ bcm_bl33_pass_info(); /* * We are not yet at the end of BL31, but we can stop log here so we do * not need to add 'bcm_elog_exit' to the standard BL31 code. The * benefit of capturing BL31 logs after this is very minimal in a * production system */ bcm_elog_exit(); #if !BRCM_DISABLE_TRUSTED_WDOG /* * Secure watchdog was started earlier in BL2, now it's time to stop * it */ sp805_stop(ARM_SP805_TWDG_BASE); #endif }