GK SDK 源码库: XMIPCLinuxV100R005C00SPC030 (kernel/tools/open_source excluded)

This commit is contained in:
lai
2026-09-06 03:52:57 +08:00
commit b1928b41c0
21813 changed files with 4413081 additions and 0 deletions
@@ -0,0 +1,164 @@
if OMAP54XX
config DRA7XX
bool
help
DRA7xx is an OMAP based SOC with Dual Core A-15s.
choice
prompt "OMAP5 board select"
optional
config TARGET_CM_T54
bool "CompuLab CM-T54"
config TARGET_OMAP5_UEVM
bool "TI OMAP5 uEVM board"
config TARGET_DRA7XX_EVM
bool "TI DRA7XX"
select BOARD_LATE_INIT
select DRA7XX
select PHYS_64BIT
select TI_I2C_BOARD_DETECT
imply DM_PMIC
imply DM_REGULATOR
imply DM_REGULATOR_LP87565
imply DM_THERMAL
imply PMIC_LP87565
imply SCSI
imply SPL_THERMAL
imply TI_DRA7_THERMAL
config TARGET_AM57XX_EVM
bool "AM57XX"
select BOARD_LATE_INIT
select CMD_DDR3
select DRA7XX
select TI_I2C_BOARD_DETECT
imply DM_THERMAL
imply SCSI
imply SPL_THERMAL
imply TI_DRA7_THERMAL
endchoice
config SYS_SOC
default "omap5"
config OMAP_PLATFORM_RESET_TIME_MAX_USEC
int "Something"
range 0 31219
default 31219
help
Most OMAPs' provide a way to specify the time for which the reset
should be held low while the voltages and Oscillator outputs
stabilize.
This time is mostly board and PMIC dependent. Hence the boards are
expected to specify a pre-computed time using the above option.
This value can be computed using a summation of the below 3
parameters
1: Time taken by the Osciallator to stop and restart
2: PMIC OTP time
3: Voltage ramp time, which can be derived using the PMIC slew rate
and value of voltage ramp needed.
if TARGET_DRA7XX_EVM || TARGET_AM57XX_EVM
menu "Voltage Domain OPP selections"
choice
prompt "MPU Voltage Domain"
default DRA7_MPU_OPP_NOM
help
Select the Operating Performance Point(OPP) for the MPU voltage
domain on DRA7xx & AM57xx SoCs.
config DRA7_MPU_OPP_NOM
bool "OPP NOM"
help
This config option enables Normal OPP for MPU. This is the safest
option for booting.
endchoice
choice
prompt "DSPEVE Voltage Domain"
help
Select the Operating Performance Point(OPP) for the DSPEVE voltage
domain on DRA7xx & AM57xx SoCs.
config DRA7_DSPEVE_OPP_NOM
bool "OPP NOM"
help
This config option enables Normal OPP for DSPEVE. This is the safest
option for booting and choose this when unsure about other OPPs .
config DRA7_DSPEVE_OPP_OD
bool "OPP OD"
help
This config option enables Over drive OPP for DSPEVE.
config DRA7_DSPEVE_OPP_HIGH
bool "OPP HIGH"
help
This config option enables High OPP for DSPEVE.
endchoice
choice
prompt "IVA Voltage Domain"
help
Select the Operating Performance Point(OPP) for the IVA voltage
domain on DRA7xx & AM57xx SoCs.
config DRA7_IVA_OPP_NOM
bool "OPP NOM"
help
This config option enables Normal OPP for IVA. This is the safest
option for booting and choose this when unsure about other OPPs .
config DRA7_IVA_OPP_OD
bool "OPP OD"
help
This config option enables Over drive OPP for IVA.
config DRA7_IVA_OPP_HIGH
bool "OPP HIGH"
help
This config option enables High OPP for IVA.
endchoice
choice
prompt "GPU Voltage Domain"
help
Select the Operating Performance Point(OPP) for the GPU voltage
domain on DRA7xx & AM57xx SoCs.
config DRA7_GPU_OPP_NOM
bool "OPP NOM"
help
This config option enables Normal OPP for GPU. This is the safest
option for booting and choose this when unsure about other OPPs .
config DRA7_GPU_OPP_OD
bool "OPP OD"
help
This config option enables Over drive OPP for GPU.
config DRA7_GPU_OPP_HIGH
bool "OPP HIGH"
help
This config option enables High OPP for GPU.
endchoice
endmenu
endif
source "board/compulab/cm_t54/Kconfig"
source "board/ti/omap5_uevm/Kconfig"
source "board/ti/dra7xx/Kconfig"
source "board/ti/am57xx/Kconfig"
endif
@@ -0,0 +1,15 @@
# SPDX-License-Identifier: GPL-2.0+
#
# (C) Copyright 2000-2010
# Wolfgang Denk, DENX Software Engineering, wd@denx.de.
obj-y += boot.o
obj-y += hwinit.o
obj-y += emif.o
obj-y += sdram.o
obj-y += prcm-regs.o
obj-y += hw_data.o
obj-y += abb.o
obj-y += fdt.o
obj-$(CONFIG_IODELAY_RECALIBRATION) += dra7xx_iodelay.o
obj-$(CONFIG_DRA7XX) += sec_entry_cpu1.o
@@ -0,0 +1,56 @@
// SPDX-License-Identifier: GPL-2.0+
/*
* Adaptive Body Bias programming sequence for OMAP5 family
*
* (C) Copyright 2013
* Texas Instruments, <www.ti.com>
*
* Andrii Tseglytskyi <andrii.tseglytskyi@ti.com>
*/
#include <common.h>
#include <asm/omap_common.h>
#include <asm/io.h>
/*
* Setup LDOVBB for OMAP5.
* On OMAP5+ some ABB settings are fused. They are handled
* in the following way:
*
* 1. corresponding EFUSE register contains ABB enable bit
* and VSET value
* 2. If ABB enable bit is set to 1, than ABB should be
* enabled, otherwise ABB should be disabled
* 3. If ABB is enabled, than VSET value should be copied
* to corresponding MUX control register
*/
s8 abb_setup_ldovbb(u32 fuse, u32 ldovbb)
{
u32 vset;
u32 fuse_enable_mask = OMAP5_PROD_ABB_FUSE_ENABLE_MASK;
u32 fuse_vset_mask = OMAP5_PROD_ABB_FUSE_VSET_MASK;
if (!is_omap54xx()) {
/* DRA7 */
fuse_enable_mask = DRA7_ABB_FUSE_ENABLE_MASK;
fuse_vset_mask = DRA7_ABB_FUSE_VSET_MASK;
}
/*
* ABB parameters must be properly fused
* otherwise ABB should be disabled
*/
vset = readl(fuse);
if (!(vset & fuse_enable_mask))
return -1;
/* prepare VSET value for LDOVBB mux register */
vset &= fuse_vset_mask;
vset >>= ffs(fuse_vset_mask) - 1;
vset <<= ffs(OMAP5_ABB_LDOVBBMPU_VSET_OUT_MASK) - 1;
vset |= OMAP5_ABB_LDOVBBMPU_MUX_CTRL_MASK;
/* setup LDOVBB using fused value */
clrsetbits_le32(ldovbb, OMAP5_ABB_LDOVBBMPU_VSET_OUT_MASK, vset);
return 0;
}
@@ -0,0 +1,45 @@
// SPDX-License-Identifier: GPL-2.0+
/*
* OMAP5 boot
*
* Copyright (C) 2015 Paul Kocialkowski <contact@paulk.fr>
*/
#include <common.h>
#include <asm/io.h>
#include <asm/omap_common.h>
#include <spl.h>
static u32 boot_devices[] = {
#if defined(CONFIG_DRA7XX)
BOOT_DEVICE_MMC2,
BOOT_DEVICE_NAND,
BOOT_DEVICE_MMC1,
BOOT_DEVICE_SATA,
BOOT_DEVICE_XIP,
BOOT_DEVICE_XIP,
BOOT_DEVICE_SPI,
BOOT_DEVICE_SPI,
#else
BOOT_DEVICE_MMC2,
BOOT_DEVICE_NAND,
BOOT_DEVICE_MMC1,
BOOT_DEVICE_SATA,
BOOT_DEVICE_XIP,
BOOT_DEVICE_MMC2,
BOOT_DEVICE_XIPWAIT,
#endif
};
u32 omap_sys_boot_device(void)
{
u32 sys_boot;
/* Grab the first 4 bits of the status register for SYS_BOOT. */
sys_boot = readl((u32 *) (*ctrl)->control_status) & ((1 << 4) - 1);
if (sys_boot >= (sizeof(boot_devices) / sizeof(u32)))
return BOOT_DEVICE_NONE;
return boot_devices[sys_boot];
}
@@ -0,0 +1,310 @@
// SPDX-License-Identifier: GPL-2.0+
/*
* (C) Copyright 2015
* Texas Instruments Incorporated, <www.ti.com>
*
* Lokesh Vutla <lokeshvutla@ti.com>
*/
#include <common.h>
#include <asm/utils.h>
#include <asm/arch/dra7xx_iodelay.h>
#include <asm/arch/omap.h>
#include <asm/arch/sys_proto.h>
#include <asm/arch/clock.h>
#include <asm/arch/mux_dra7xx.h>
#include <asm/omap_common.h>
static int isolate_io(u32 isolate)
{
if (isolate) {
clrsetbits_le32((*ctrl)->control_pbias, SDCARD_PWRDNZ,
SDCARD_PWRDNZ);
clrsetbits_le32((*ctrl)->control_pbias, SDCARD_BIAS_PWRDNZ,
SDCARD_BIAS_PWRDNZ);
}
/* Override control on ISOCLKIN signal to IO pad ring. */
clrsetbits_le32((*prcm)->prm_io_pmctrl, PMCTRL_ISOCLK_OVERRIDE_MASK,
PMCTRL_ISOCLK_OVERRIDE_CTRL);
if (!wait_on_value(PMCTRL_ISOCLK_STATUS_MASK, PMCTRL_ISOCLK_STATUS_MASK,
(u32 *)(*prcm)->prm_io_pmctrl, LDELAY))
return ERR_DEISOLATE_IO << isolate;
/* Isolate/Deisolate IO */
clrsetbits_le32((*ctrl)->ctrl_core_sma_sw_0, CTRL_ISOLATE_MASK,
isolate << CTRL_ISOLATE_SHIFT);
/* Dummy read to add delay t > 10ns */
readl((*ctrl)->ctrl_core_sma_sw_0);
/* Return control on ISOCLKIN to hardware */
clrsetbits_le32((*prcm)->prm_io_pmctrl, PMCTRL_ISOCLK_OVERRIDE_MASK,
PMCTRL_ISOCLK_NOT_OVERRIDE_CTRL);
if (!wait_on_value(PMCTRL_ISOCLK_STATUS_MASK,
0 << PMCTRL_ISOCLK_STATUS_SHIFT,
(u32 *)(*prcm)->prm_io_pmctrl, LDELAY))
return ERR_DEISOLATE_IO << isolate;
return 0;
}
static int calibrate_iodelay(u32 base)
{
u32 reg;
/* Configure REFCLK period */
reg = readl(base + CFG_REG_2_OFFSET);
reg &= ~CFG_REG_REFCLK_PERIOD_MASK;
reg |= CFG_REG_REFCLK_PERIOD;
writel(reg, base + CFG_REG_2_OFFSET);
/* Initiate Calibration */
clrsetbits_le32(base + CFG_REG_0_OFFSET, CFG_REG_CALIB_STRT_MASK,
CFG_REG_CALIB_STRT << CFG_REG_CALIB_STRT_SHIFT);
if (!wait_on_value(CFG_REG_CALIB_STRT_MASK, CFG_REG_CALIB_END,
(u32 *)(base + CFG_REG_0_OFFSET), LDELAY))
return ERR_CALIBRATE_IODELAY;
return 0;
}
static int update_delay_mechanism(u32 base)
{
/* Initiate the reload of calibrated values. */
clrsetbits_le32(base + CFG_REG_0_OFFSET, CFG_REG_ROM_READ_MASK,
CFG_REG_ROM_READ_START);
if (!wait_on_value(CFG_REG_ROM_READ_MASK, CFG_REG_ROM_READ_END,
(u32 *)(base + CFG_REG_0_OFFSET), LDELAY))
return ERR_UPDATE_DELAY;
return 0;
}
static u32 calculate_delay(u32 base, u16 offset, u16 den)
{
u16 refclk_period, dly_cnt, ref_cnt;
u32 reg, q, r;
refclk_period = readl(base + CFG_REG_2_OFFSET) &
CFG_REG_REFCLK_PERIOD_MASK;
reg = readl(base + offset);
dly_cnt = (reg & CFG_REG_DLY_CNT_MASK) >> CFG_REG_DLY_CNT_SHIFT;
ref_cnt = (reg & CFG_REG_REF_CNT_MASK) >> CFG_REG_REF_CNT_SHIFT;
if (!dly_cnt || !den)
return 0;
/*
* To avoid overflow and integer truncation, delay value
* is calculated as quotient + remainder.
*/
q = 5 * ((ref_cnt * refclk_period) / (dly_cnt * den));
r = (10 * ((ref_cnt * refclk_period) % (dly_cnt * den))) /
(2 * dly_cnt * den);
return q + r;
}
static u32 get_cfg_reg(u16 a_delay, u16 g_delay, u32 cpde, u32 fpde)
{
u32 g_delay_coarse, g_delay_fine;
u32 a_delay_coarse, a_delay_fine;
u32 c_elements, f_elements;
u32 total_delay, reg = 0;
g_delay_coarse = g_delay / 920;
g_delay_fine = ((g_delay % 920) * 10) / 60;
a_delay_coarse = a_delay / cpde;
a_delay_fine = ((a_delay % cpde) * 10) / fpde;
c_elements = g_delay_coarse + a_delay_coarse;
f_elements = (g_delay_fine + a_delay_fine) / 10;
if (f_elements > 22) {
total_delay = c_elements * cpde + f_elements * fpde;
c_elements = total_delay / cpde;
f_elements = (total_delay % cpde) / fpde;
}
reg = (c_elements << CFG_X_COARSE_DLY_SHIFT) & CFG_X_COARSE_DLY_MASK;
reg |= (f_elements << CFG_X_FINE_DLY_SHIFT) & CFG_X_FINE_DLY_MASK;
reg |= CFG_X_SIGNATURE << CFG_X_SIGNATURE_SHIFT;
reg |= CFG_X_LOCK << CFG_X_LOCK_SHIFT;
return reg;
}
int do_set_iodelay(u32 base, struct iodelay_cfg_entry const *array,
int niodelays)
{
struct iodelay_cfg_entry *iodelay = (struct iodelay_cfg_entry *)array;
u32 reg, cpde, fpde, i;
if (!niodelays)
return 0;
cpde = calculate_delay((*ctrl)->iodelay_config_base, CFG_REG_3_OFFSET,
88);
if (!cpde)
return ERR_CPDE;
fpde = calculate_delay((*ctrl)->iodelay_config_base, CFG_REG_4_OFFSET,
264);
if (!fpde)
return ERR_FPDE;
for (i = 0; i < niodelays; i++, iodelay++) {
reg = get_cfg_reg(iodelay->a_delay, iodelay->g_delay, cpde,
fpde);
writel(reg, base + iodelay->offset);
}
return 0;
}
int __recalibrate_iodelay_start(void)
{
int ret = 0;
/* IO recalibration should be done only from SRAM */
if (OMAP_INIT_CONTEXT_SPL != omap_hw_init_context()) {
puts("IODELAY recalibration called from invalid context - use only from SPL in SRAM\n");
return -1;
}
/* unlock IODELAY CONFIG registers */
writel(CFG_IODELAY_UNLOCK_KEY, (*ctrl)->iodelay_config_base +
CFG_REG_8_OFFSET);
ret = calibrate_iodelay((*ctrl)->iodelay_config_base);
if (ret)
goto err;
ret = isolate_io(ISOLATE_IO);
if (ret)
goto err;
ret = update_delay_mechanism((*ctrl)->iodelay_config_base);
err:
return ret;
}
void __recalibrate_iodelay_end(int ret)
{
/* IO recalibration should be done only from SRAM */
if (OMAP_INIT_CONTEXT_SPL != omap_hw_init_context()) {
puts("IODELAY recalibration called from invalid context - use only from SPL in SRAM\n");
return;
}
/* Deisolate IO if it is already isolated */
if (readl((*ctrl)->ctrl_core_sma_sw_0) & CTRL_ISOLATE_MASK)
isolate_io(DEISOLATE_IO);
/* lock IODELAY CONFIG registers */
writel(CFG_IODELAY_LOCK_KEY, (*ctrl)->iodelay_config_base +
CFG_REG_8_OFFSET);
/*
* UART cannot be used during IO recalibration sequence as IOs are in
* isolation. So error handling and debug prints are done after
* complete IO delay recalibration sequence
*/
switch (ret) {
case ERR_CALIBRATE_IODELAY:
puts("IODELAY: IO delay calibration sequence failed\n");
break;
case ERR_ISOLATE_IO:
puts("IODELAY: Isolation of Device IOs failed\n");
break;
case ERR_UPDATE_DELAY:
puts("IODELAY: Delay mechanism update with new calibrated values failed\n");
break;
case ERR_DEISOLATE_IO:
puts("IODELAY: De-isolation of Device IOs failed\n");
break;
case ERR_CPDE:
puts("IODELAY: CPDE calculation failed\n");
break;
case ERR_FPDE:
puts("IODELAY: FPDE calculation failed\n");
break;
case -1:
puts("IODELAY: Wrong Context call?\n");
break;
default:
debug("IODELAY: IO delay recalibration successfully completed\n");
}
/* If there is an error during iodelay recalibration, SoC is in a bad
* state. Do not progress any further.
*/
if (ret)
hang();
return;
}
void __recalibrate_iodelay(struct pad_conf_entry const *pad, int npads,
struct iodelay_cfg_entry const *iodelay,
int niodelays)
{
int ret = 0;
/* IO recalibration should be done only from SRAM */
if (OMAP_INIT_CONTEXT_SPL != omap_hw_init_context()) {
puts("IODELAY recalibration called from invalid context - use only from SPL in SRAM\n");
return;
}
ret = __recalibrate_iodelay_start();
if (ret)
goto err;
/* Configure Mux settings */
do_set_mux32((*ctrl)->control_padconf_core_base, pad, npads);
/* Configure Manual IO timing modes */
ret = do_set_iodelay((*ctrl)->iodelay_config_base, iodelay, niodelays);
if (ret)
goto err;
err:
__recalibrate_iodelay_end(ret);
}
void late_recalibrate_iodelay(struct pad_conf_entry const *pad, int npads,
struct iodelay_cfg_entry const *iodelay,
int niodelays)
{
int ret = 0;
/* unlock IODELAY CONFIG registers */
writel(CFG_IODELAY_UNLOCK_KEY, (*ctrl)->iodelay_config_base +
CFG_REG_8_OFFSET);
ret = calibrate_iodelay((*ctrl)->iodelay_config_base);
if (ret)
goto err;
ret = update_delay_mechanism((*ctrl)->iodelay_config_base);
/* Configure Mux settings */
do_set_mux32((*ctrl)->control_padconf_core_base, pad, npads);
/* Configure Manual IO timing modes */
ret = do_set_iodelay((*ctrl)->iodelay_config_base, iodelay, niodelays);
if (ret)
goto err;
err:
/* lock IODELAY CONFIG registers */
writel(CFG_IODELAY_LOCK_KEY, (*ctrl)->iodelay_config_base +
CFG_REG_8_OFFSET);
}
@@ -0,0 +1,87 @@
// SPDX-License-Identifier: GPL-2.0+
/*
* EMIF programming
*
* (C) Copyright 2010
* Texas Instruments, <www.ti.com>
*
* Aneesh V <aneesh@ti.com> for OMAP4
*/
#include <common.h>
#include <asm/emif.h>
#include <asm/arch/sys_proto.h>
#include <asm/utils.h>
#ifndef CONFIG_SYS_EMIF_PRECALCULATED_TIMING_REGS
#define print_timing_reg(reg) debug(#reg" - 0x%08x\n", (reg))
static u32 *const T_num = (u32 *)OMAP_SRAM_SCRATCH_EMIF_T_NUM;
static u32 *const T_den = (u32 *)OMAP_SRAM_SCRATCH_EMIF_T_DEN;
#endif
#ifdef CONFIG_SYS_DEFAULT_LPDDR2_TIMINGS
/* Base AC Timing values specified by JESD209-2 for 532MHz operation */
static const struct lpddr2_ac_timings timings_jedec_532_mhz = {
.max_freq = 532000000,
.RL = 8,
.tRPab = 21,
.tRCD = 18,
.tWR = 15,
.tRASmin = 42,
.tRRD = 10,
.tWTRx2 = 15,
.tXSR = 140,
.tXPx2 = 15,
.tRFCab = 130,
.tRTPx2 = 15,
.tCKE = 3,
.tCKESR = 15,
.tZQCS = 90,
.tZQCL = 360,
.tZQINIT = 1000,
.tDQSCKMAXx2 = 11,
.tRASmax = 70,
.tFAW = 50
};
/*
* Min tCK values specified by JESD209-2
* Min tCK specifies the minimum duration of some AC timing parameters in terms
* of the number of cycles. If the calculated number of cycles based on the
* absolute time value is less than the min tCK value, min tCK value should
* be used instead. This typically happens at low frequencies.
*/
static const struct lpddr2_min_tck min_tck_jedec = {
.tRL = 3,
.tRP_AB = 3,
.tRCD = 3,
.tWR = 3,
.tRAS_MIN = 3,
.tRRD = 2,
.tWTR = 2,
.tXP = 2,
.tRTP = 2,
.tCKE = 3,
.tCKESR = 3,
.tFAW = 8
};
static const struct lpddr2_ac_timings const*
jedec_ac_timings[MAX_NUM_SPEEDBINS] = {
&timings_jedec_532_mhz
};
static const struct lpddr2_device_timings jedec_default_timings = {
.ac_timings = jedec_ac_timings,
.min_tck = &min_tck_jedec
};
void emif_get_device_timings(u32 emif_nr,
const struct lpddr2_device_timings **cs0_device_timings,
const struct lpddr2_device_timings **cs1_device_timings)
{
/* Assume Identical devices on EMIF1 & EMIF2 */
*cs0_device_timings = &jedec_default_timings;
*cs1_device_timings = NULL;
}
#endif /* CONFIG_SYS_DEFAULT_LPDDR2_TIMINGS */
@@ -0,0 +1,312 @@
// SPDX-License-Identifier: GPL-2.0+
/*
* Copyright 2016 Texas Instruments, Inc.
*/
#include <common.h>
#include <linux/libfdt.h>
#include <fdt_support.h>
#include <malloc.h>
#include <asm/omap_common.h>
#include <asm/arch-omap5/sys_proto.h>
#ifdef CONFIG_TI_SECURE_DEVICE
/* Give zero values if not already defined */
#ifndef TI_OMAP5_SECURE_BOOT_RESV_SRAM_SZ
#define TI_OMAP5_SECURE_BOOT_RESV_SRAM_SZ (0)
#endif
#ifndef CONFIG_SECURE_RUNTIME_RESV_SRAM_SZ
#define CONFIG_SECURE_RUNTIME_RESV_SRAM_SZ (0)
#endif
static u32 hs_irq_skip[] = {
8, /* Secure violation reporting interrupt */
15, /* One interrupt for SDMA by secure world */
118 /* One interrupt for Crypto DMA by secure world */
};
static int ft_hs_fixup_crossbar(void *fdt, bd_t *bd)
{
const char *path;
int offs;
int ret;
int len, i, old_cnt, new_cnt;
u32 *temp;
const u32 *p_data;
/*
* Increase the size of the fdt
* so we have some breathing room
*/
ret = fdt_increase_size(fdt, 512);
if (ret < 0) {
printf("Could not increase size of device tree: %s\n",
fdt_strerror(ret));
return ret;
}
/* Reserve IRQs that are used/needed by secure world */
path = "/ocp/crossbar";
offs = fdt_path_offset(fdt, path);
if (offs < 0) {
debug("Node %s not found.\n", path);
return 0;
}
/* Get current entries */
p_data = fdt_getprop(fdt, offs, "ti,irqs-skip", &len);
if (p_data)
old_cnt = len / sizeof(u32);
else
old_cnt = 0;
new_cnt = sizeof(hs_irq_skip) /
sizeof(hs_irq_skip[0]);
/* Create new/updated skip list for HS parts */
temp = malloc(sizeof(u32) * (old_cnt + new_cnt));
for (i = 0; i < new_cnt; i++)
temp[i] = cpu_to_fdt32(hs_irq_skip[i]);
for (i = 0; i < old_cnt; i++)
temp[i + new_cnt] = p_data[i];
/* Blow away old data and set new data */
fdt_delprop(fdt, offs, "ti,irqs-skip");
ret = fdt_setprop(fdt, offs, "ti,irqs-skip",
temp,
(old_cnt + new_cnt) * sizeof(u32));
free(temp);
/* Check if the update worked */
if (ret < 0) {
printf("Could not add ti,irqs-skip property to node %s: %s\n",
path, fdt_strerror(ret));
return ret;
}
return 0;
}
#if ((TI_OMAP5_SECURE_BOOT_RESV_SRAM_SZ != 0) || \
(CONFIG_SECURE_RUNTIME_RESV_SRAM_SZ != 0))
static int ft_hs_fixup_sram(void *fdt, bd_t *bd)
{
const char *path;
int offs;
int ret;
u32 temp[2];
/*
* Update SRAM reservations on secure devices. The OCMC RAM
* is always reserved for secure use from the start of that
* memory region
*/
path = "/ocp/ocmcram@40300000/sram-hs";
offs = fdt_path_offset(fdt, path);
if (offs < 0) {
debug("Node %s not found.\n", path);
return 0;
}
/* relative start offset */
temp[0] = cpu_to_fdt32(0);
/* reservation size */
temp[1] = cpu_to_fdt32(max(TI_OMAP5_SECURE_BOOT_RESV_SRAM_SZ,
CONFIG_SECURE_RUNTIME_RESV_SRAM_SZ));
fdt_delprop(fdt, offs, "reg");
ret = fdt_setprop(fdt, offs, "reg", temp, 2 * sizeof(u32));
if (ret < 0) {
printf("Could not add reg property to node %s: %s\n",
path, fdt_strerror(ret));
return ret;
}
return 0;
}
#else
static int ft_hs_fixup_sram(void *fdt, bd_t *bd) { return 0; }
#endif
static void ft_hs_fixups(void *fdt, bd_t *bd)
{
/* Check we are running on an HS/EMU device type */
if (GP_DEVICE != get_device_type()) {
if ((ft_hs_fixup_crossbar(fdt, bd) == 0) &&
(ft_hs_disable_rng(fdt, bd) == 0) &&
(ft_hs_fixup_sram(fdt, bd) == 0) &&
(ft_hs_fixup_dram(fdt, bd) == 0) &&
(ft_hs_add_tee(fdt, bd) == 0))
return;
} else {
printf("ERROR: Incorrect device type (GP) detected!");
}
/* Fixup failed or wrong device type */
hang();
}
#else
static void ft_hs_fixups(void *fdt, bd_t *bd)
{
}
#endif /* #ifdef CONFIG_TI_SECURE_DEVICE */
#if defined(CONFIG_TARGET_DRA7XX_EVM) || defined(CONFIG_TARGET_AM57XX_EVM)
#define OPP_DSP_CLK_NUM 3
#define OPP_IVA_CLK_NUM 2
#define OPP_GPU_CLK_NUM 2
const char *dra7_opp_dsp_clk_names[OPP_DSP_CLK_NUM] = {
"dpll_dsp_ck",
"dpll_dsp_m2_ck",
"dpll_dsp_m3x2_ck",
};
const char *dra7_opp_iva_clk_names[OPP_IVA_CLK_NUM] = {
"dpll_iva_ck",
"dpll_iva_m2_ck",
};
const char *dra7_opp_gpu_clk_names[OPP_GPU_CLK_NUM] = {
"dpll_gpu_ck",
"dpll_gpu_m2_ck",
};
/* DSPEVE voltage domain */
u32 dra7_opp_dsp_clk_rates[NUM_OPPS][OPP_DSP_CLK_NUM] = {
{}, /*OPP_LOW */
{600000000, 600000000, 400000000}, /* OPP_NOM */
{700000000, 700000000, 466666667}, /* OPP_OD */
{750000000, 750000000, 500000000}, /* OPP_HIGH */
};
/* DSP clock rates on DRA76x ACD-package based SoCs */
u32 dra76_opp_dsp_clk_rates[NUM_OPPS][OPP_DSP_CLK_NUM] = {
{}, /* OPP_LOW */
{600000000, 600000000, 400000000}, /* OPP_NOM */
{700000000, 700000000, 466666667}, /* OPP_OD */
{850000000, 850000000, 566666667}, /* OPP_HIGH */
};
/* IVA voltage domain */
u32 dra7_opp_iva_clk_rates[NUM_OPPS][OPP_IVA_CLK_NUM] = {
{}, /* OPP_LOW */
{1165000000, 388333334}, /* OPP_NOM */
{860000000, 430000000}, /* OPP_OD */
{1064000000, 532000000}, /* OPP_HIGH */
};
/* GPU voltage domain */
u32 dra7_opp_gpu_clk_rates[NUM_OPPS][OPP_GPU_CLK_NUM] = {
{}, /* OPP_LOW */
{1277000000, 425666667}, /* OPP_NOM */
{1000000000, 500000000}, /* OPP_OD */
{1064000000, 532000000}, /* OPP_HIGH */
};
static int ft_fixup_clocks(void *fdt, const char **names, u32 *rates, int num)
{
int offs, node_offs, ret, i;
uint32_t phandle;
offs = fdt_path_offset(fdt, "/ocp/interconnect@4a000000/segment@0/target-module@5000/cm_core_aon@0/clocks");
if (offs < 0)
offs = fdt_path_offset(fdt, "/ocp/l4@4a000000/cm_core_aon@5000/clocks");
if (offs < 0) {
debug("Could not find cm_core_aon clocks node path offset : %s\n",
fdt_strerror(offs));
return offs;
}
for (i = 0; i < num; i++) {
node_offs = fdt_subnode_offset(fdt, offs, names[i]);
if (node_offs < 0) {
debug("Could not find clock sub-node %s: %s\n",
names[i], fdt_strerror(node_offs));
return offs;
}
phandle = fdt_get_phandle(fdt, node_offs);
if (!phandle) {
debug("Could not find phandle for clock %s\n",
names[i]);
return -1;
}
ret = fdt_setprop_u32(fdt, node_offs, "assigned-clocks",
phandle);
if (ret < 0) {
debug("Could not add assigned-clocks property to clock node %s: %s\n",
names[i], fdt_strerror(ret));
return ret;
}
ret = fdt_setprop_u32(fdt, node_offs, "assigned-clock-rates",
rates[i]);
if (ret < 0) {
debug("Could not add assigned-clock-rates property to clock node %s: %s\n",
names[i], fdt_strerror(ret));
return ret;
}
}
return 0;
}
static void ft_opp_clock_fixups(void *fdt, bd_t *bd)
{
const char **clk_names;
u32 *clk_rates;
int ret;
if (!is_dra72x() && !is_dra7xx())
return;
/* fixup DSP clocks */
clk_names = dra7_opp_dsp_clk_names;
clk_rates = dra7_opp_dsp_clk_rates[get_voltrail_opp(VOLT_EVE)];
/* adjust for higher OPP_HIGH clock rate on DRA76xP/DRA77xP SoCs */
if (is_dra76x_acd())
clk_rates = dra76_opp_dsp_clk_rates[get_voltrail_opp(VOLT_EVE)];
ret = ft_fixup_clocks(fdt, clk_names, clk_rates, OPP_DSP_CLK_NUM);
if (ret) {
printf("ft_fixup_clocks failed for DSP voltage domain: %s\n",
fdt_strerror(ret));
return;
}
/* fixup IVA clocks */
clk_names = dra7_opp_iva_clk_names;
clk_rates = dra7_opp_iva_clk_rates[get_voltrail_opp(VOLT_IVA)];
ret = ft_fixup_clocks(fdt, clk_names, clk_rates, OPP_IVA_CLK_NUM);
if (ret) {
printf("ft_fixup_clocks failed for IVA voltage domain: %s\n",
fdt_strerror(ret));
return;
}
/* fixup GPU clocks */
clk_names = dra7_opp_gpu_clk_names;
clk_rates = dra7_opp_gpu_clk_rates[get_voltrail_opp(VOLT_GPU)];
ret = ft_fixup_clocks(fdt, clk_names, clk_rates, OPP_GPU_CLK_NUM);
if (ret) {
printf("ft_fixup_clocks failed for GPU voltage domain: %s\n",
fdt_strerror(ret));
return;
}
}
#else
static void ft_opp_clock_fixups(void *fdt, bd_t *bd) { }
#endif /* CONFIG_TARGET_DRA7XX_EVM || CONFIG_TARGET_AM57XX_EVM */
/*
* Place for general cpu/SoC FDT fixups. Board specific
* fixups should remain in the board files which is where
* this function should be called from.
*/
void ft_cpu_setup(void *fdt, bd_t *bd)
{
ft_hs_fixups(fdt, bd);
ft_opp_clock_fixups(fdt, bd);
}
@@ -0,0 +1,811 @@
// SPDX-License-Identifier: GPL-2.0+
/*
*
* HW data initialization for OMAP5
*
* (C) Copyright 2013
* Texas Instruments, <www.ti.com>
*
* Sricharan R <r.sricharan@ti.com>
*/
#include <common.h>
#include <palmas.h>
#include <asm/arch/omap.h>
#include <asm/arch/sys_proto.h>
#include <asm/omap_common.h>
#include <asm/arch/clock.h>
#include <asm/omap_gpio.h>
#include <asm/io.h>
#include <asm/emif.h>
struct prcm_regs const **prcm =
(struct prcm_regs const **) OMAP_SRAM_SCRATCH_PRCM_PTR;
struct dplls const **dplls_data =
(struct dplls const **) OMAP_SRAM_SCRATCH_DPLLS_PTR;
struct vcores_data const **omap_vcores =
(struct vcores_data const **) OMAP_SRAM_SCRATCH_VCORES_PTR;
struct omap_sys_ctrl_regs const **ctrl =
(struct omap_sys_ctrl_regs const **)OMAP_SRAM_SCRATCH_SYS_CTRL;
/* OPP NOM FREQUENCY for ES1.0 */
static const struct dpll_params mpu_dpll_params_800mhz[NUM_SYS_CLKS] = {
{200, 2, 1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{1000, 20, 1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{375, 8, 1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{400, 12, 1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{375, 17, 1, -1, -1, -1, -1, -1, -1, -1, -1, -1} /* 38.4 MHz */
};
/* OPP NOM FREQUENCY for OMAP5 ES2.0, and DRA7 ES1.0 */
static const struct dpll_params mpu_dpll_params_1ghz[NUM_SYS_CLKS] = {
{250, 2, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{500, 9, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 20 MHz */
{119, 1, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{625, 11, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{500, 12, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{625, 23, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params
core_dpll_params_2128mhz_ddr532[NUM_SYS_CLKS] = {
{266, 2, 2, 5, 8, 4, 62, 5, -1, 5, 7, -1}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{443, 6, 2, 5, 8, 4, 62, 5, -1, 5, 7, -1}, /* 16.8 MHz */
{277, 4, 2, 5, 8, 4, 62, 5, -1, 5, 7, -1}, /* 19.2 MHz */
{368, 8, 2, 5, 8, 4, 62, 5, -1, 5, 7, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{277, 9, 2, 5, 8, 4, 62, 5, -1, 5, 7, -1} /* 38.4 MHz */
};
static const struct dpll_params
core_dpll_params_2128mhz_ddr532_es2[NUM_SYS_CLKS] = {
{266, 2, 2, 5, 8, 4, 62, 63, 6, 5, 7, 6}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{443, 6, 2, 5, 8, 4, 62, 63, 6, 5, 7, 6}, /* 16.8 MHz */
{277, 4, 2, 5, 8, 4, 62, 63, 6, 5, 7, 6}, /* 19.2 MHz */
{368, 8, 2, 5, 8, 4, 62, 63, 6, 5, 7, 6}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{277, 9, 2, 5, 8, 4, 62, 63, 6, 5, 7, 6} /* 38.4 MHz */
};
static const struct dpll_params
core_dpll_params_2128mhz_dra7xx[NUM_SYS_CLKS] = {
{266, 2, 2, 1, -1, 4, 62, 5, -1, 5, 4, 6}, /* 12 MHz */
{266, 4, 2, 1, -1, 4, 62, 5, -1, 5, 4, 6}, /* 20 MHz */
{443, 6, 2, 1, -1, 4, 62, 5, -1, 5, 4, 6}, /* 16.8 MHz */
{277, 4, 2, 1, -1, 4, 62, 5, -1, 5, 4, 6}, /* 19.2 MHz */
{368, 8, 2, 1, -1, 4, 62, 5, -1, 5, 4, 6}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{277, 9, 2, 1, -1, 4, 62, 5, -1, 5, 4, 6}, /* 38.4 MHz */
};
static const struct dpll_params per_dpll_params_768mhz[NUM_SYS_CLKS] = {
{32, 0, 4, 3, 6, 4, -1, 2, -1, -1, -1, -1}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{160, 6, 4, 3, 6, 4, -1, 2, -1, -1, -1, -1}, /* 16.8 MHz */
{20, 0, 4, 3, 6, 4, -1, 2, -1, -1, -1, -1}, /* 19.2 MHz */
{192, 12, 4, 3, 6, 4, -1, 2, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{10, 0, 4, 3, 6, 4, -1, 2, -1, -1, -1, -1} /* 38.4 MHz */
};
static const struct dpll_params per_dpll_params_768mhz_es2[NUM_SYS_CLKS] = {
{32, 0, 4, 3, 3, 4, -1, 2, -1, -1, -1, -1}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{160, 6, 4, 3, 3, 4, -1, 2, -1, -1, -1, -1}, /* 16.8 MHz */
{20, 0, 4, 3, 3, 4, -1, 2, -1, -1, -1, -1}, /* 19.2 MHz */
{192, 12, 4, 3, 3, 4, -1, 2, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{10, 0, 4, 3, 3, 4, -1, 2, -1, -1, -1, -1} /* 38.4 MHz */
};
static const struct dpll_params per_dpll_params_768mhz_dra7xx[NUM_SYS_CLKS] = {
{32, 0, 4, 1, 3, 4, 4, 2, -1, -1, -1, -1}, /* 12 MHz */
{96, 4, 4, 1, 3, 4, 10, 2, -1, -1, -1, -1}, /* 20 MHz */
{160, 6, 4, 1, 3, 4, 4, 2, -1, -1, -1, -1}, /* 16.8 MHz */
{20, 0, 4, 1, 3, 4, 4, 2, -1, -1, -1, -1}, /* 19.2 MHz */
{192, 12, 4, 1, 3, 4, 4, 2, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{10, 0, 4, 1, 3, 4, 4, 2, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params per_dpll_params_768mhz_dra76x[NUM_SYS_CLKS] = {
{32, 0, 4, 1, 3, 4, 8, 2, -1, -1, -1, -1}, /* 12 MHz */
{96, 4, 4, 1, 3, 4, 8, 2, -1, -1, -1, -1}, /* 20 MHz */
{160, 6, 4, 1, 3, 4, 8, 2, -1, -1, -1, -1}, /* 16.8 MHz */
{20, 0, 4, 1, 3, 4, 8, 2, -1, -1, -1, -1}, /* 19.2 MHz */
{192, 12, 4, 1, 3, 4, 8, 2, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{10, 0, 4, 1, 3, 4, 8, 2, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params iva_dpll_params_2330mhz[NUM_SYS_CLKS] = {
{1165, 11, -1, -1, 5, 6, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{208, 2, -1, -1, 5, 6, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{182, 2, -1, -1, 5, 6, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{224, 4, -1, -1, 5, 6, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{91, 2, -1, -1, 5, 6, -1, -1, -1, -1, -1, -1} /* 38.4 MHz */
};
static const struct dpll_params iva_dpll_params_2330mhz_dra7xx[NUM_SYS_CLKS] = {
{1165, 11, 3, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{233, 3, 3, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 20 MHz */
{208, 2, 3, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{182, 2, 3, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{224, 4, 3, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{91, 2, 3, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
/* ABE M & N values with sys_clk as source */
#ifdef CONFIG_SYS_OMAP_ABE_SYSCK
static const struct dpll_params
abe_dpll_params_sysclk_196608khz[NUM_SYS_CLKS] = {
{49, 5, 1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 13 MHz */
{35, 5, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{46, 8, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{34, 8, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{64, 24, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1} /* 38.4 MHz */
};
#endif
/* ABE M & N values with 32K clock as source */
#ifndef CONFIG_SYS_OMAP_ABE_SYSCK
static const struct dpll_params abe_dpll_params_32k_196608khz = {
750, 0, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1
};
#endif
/* ABE M & N values with sysclk2(22.5792 MHz) as input */
static const struct dpll_params
abe_dpll_params_sysclk2_361267khz[NUM_SYS_CLKS] = {
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{16, 1, 1, 1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 20 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params usb_dpll_params_1920mhz[NUM_SYS_CLKS] = {
{400, 4, 2, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{480, 9, 2, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 20 MHz */
{400, 6, 2, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{400, 7, 2, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{480, 12, 2, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{400, 15, 2, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params ddr_dpll_params_2664mhz[NUM_SYS_CLKS] = {
{111, 0, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{333, 4, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 20 MHz */
{555, 6, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{555, 7, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{666, 12, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{555, 15, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params ddr_dpll_params_2128mhz[NUM_SYS_CLKS] = {
{266, 2, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 12 MHz */
{266, 4, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 20 MHz */
{190, 2, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{665, 11, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{532, 12, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{665, 23, 2, 1, 8, -1, -1, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
static const struct dpll_params gmac_dpll_params_2000mhz[NUM_SYS_CLKS] = {
{250, 2, 4, 10, 40, 8, 10, -1, -1, -1, -1, -1}, /* 12 MHz */
{250, 4, 4, 10, 40, 8, 10, -1, -1, -1, -1, -1}, /* 20 MHz */
{119, 1, 4, 10, 40, 8, 10, -1, -1, -1, -1, -1}, /* 16.8 MHz */
{625, 11, 4, 10, 40, 8, 10, -1, -1, -1, -1, -1}, /* 19.2 MHz */
{500, 12, 4, 10, 40, 8, 10, -1, -1, -1, -1, -1}, /* 26 MHz */
{-1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1, -1}, /* 27 MHz */
{625, 23, 4, 10, 40, 8, 10, -1, -1, -1, -1, -1}, /* 38.4 MHz */
};
struct dplls omap5_dplls_es1 = {
.mpu = mpu_dpll_params_800mhz,
.core = core_dpll_params_2128mhz_ddr532,
.per = per_dpll_params_768mhz,
.iva = iva_dpll_params_2330mhz,
#ifdef CONFIG_SYS_OMAP_ABE_SYSCK
.abe = abe_dpll_params_sysclk_196608khz,
#else
.abe = &abe_dpll_params_32k_196608khz,
#endif
.usb = usb_dpll_params_1920mhz,
.ddr = NULL
};
struct dplls omap5_dplls_es2 = {
.mpu = mpu_dpll_params_1ghz,
.core = core_dpll_params_2128mhz_ddr532_es2,
.per = per_dpll_params_768mhz_es2,
.iva = iva_dpll_params_2330mhz,
#ifdef CONFIG_SYS_OMAP_ABE_SYSCK
.abe = abe_dpll_params_sysclk_196608khz,
#else
.abe = &abe_dpll_params_32k_196608khz,
#endif
.usb = usb_dpll_params_1920mhz,
.ddr = NULL
};
struct dplls dra76x_dplls = {
.mpu = mpu_dpll_params_1ghz,
.core = core_dpll_params_2128mhz_dra7xx,
.per = per_dpll_params_768mhz_dra76x,
.abe = abe_dpll_params_sysclk2_361267khz,
.iva = iva_dpll_params_2330mhz_dra7xx,
.usb = usb_dpll_params_1920mhz,
.ddr = ddr_dpll_params_2664mhz,
.gmac = gmac_dpll_params_2000mhz,
};
struct dplls dra7xx_dplls = {
.mpu = mpu_dpll_params_1ghz,
.core = core_dpll_params_2128mhz_dra7xx,
.per = per_dpll_params_768mhz_dra7xx,
.abe = abe_dpll_params_sysclk2_361267khz,
.iva = iva_dpll_params_2330mhz_dra7xx,
.usb = usb_dpll_params_1920mhz,
.ddr = ddr_dpll_params_2128mhz,
.gmac = gmac_dpll_params_2000mhz,
};
struct dplls dra72x_dplls = {
.mpu = mpu_dpll_params_1ghz,
.core = core_dpll_params_2128mhz_dra7xx,
.per = per_dpll_params_768mhz_dra7xx,
.abe = abe_dpll_params_sysclk2_361267khz,
.iva = iva_dpll_params_2330mhz_dra7xx,
.usb = usb_dpll_params_1920mhz,
.ddr = ddr_dpll_params_2664mhz,
.gmac = gmac_dpll_params_2000mhz,
};
struct pmic_data palmas = {
.base_offset = PALMAS_SMPS_BASE_VOLT_UV,
.step = 10000, /* 10 mV represented in uV */
/*
* Offset codes 1-6 all give the base voltage in Palmas
* Offset code 0 switches OFF the SMPS
*/
.start_code = 6,
.i2c_slave_addr = SMPS_I2C_SLAVE_ADDR,
.pmic_bus_init = sri2c_init,
.pmic_write = omap_vc_bypass_send_value,
.gpio_en = 0,
};
/* The TPS659038 and TPS65917 are software-compatible, use common struct */
struct pmic_data tps659038 = {
.base_offset = PALMAS_SMPS_BASE_VOLT_UV,
.step = 10000, /* 10 mV represented in uV */
/*
* Offset codes 1-6 all give the base voltage in Palmas
* Offset code 0 switches OFF the SMPS
*/
.start_code = 6,
.i2c_slave_addr = TPS659038_I2C_SLAVE_ADDR,
.pmic_bus_init = gpi2c_init,
.pmic_write = palmas_i2c_write_u8,
.gpio_en = 0,
};
/* The LP87565*/
struct pmic_data lp87565 = {
.base_offset = LP873X_BUCK_BASE_VOLT_UV,
.step = 5000, /* 5 mV represented in uV */
/*
* Offset codes 0 - 0x13 Invalid.
* Offset codes 0x14 0x17 give 10mV steps
* Offset codes 0x17 through 0x9D give 5mV steps
* So let us start with our operating range from .73V
*/
.start_code = 0x17,
.i2c_slave_addr = 0x60,
.pmic_bus_init = gpi2c_init,
.pmic_write = palmas_i2c_write_u8,
};
/* The LP8732 and LP8733 are software-compatible, use common struct */
struct pmic_data lp8733 = {
.base_offset = LP873X_BUCK_BASE_VOLT_UV,
.step = 5000, /* 5 mV represented in uV */
/*
* Offset codes 0 - 0x13 Invalid.
* Offset codes 0x14 0x17 give 10mV steps
* Offset codes 0x17 through 0x9D give 5mV steps
* So let us start with our operating range from .73V
*/
.start_code = 0x17,
.i2c_slave_addr = 0x60,
.pmic_bus_init = gpi2c_init,
.pmic_write = palmas_i2c_write_u8,
};
struct vcores_data omap5430_volts = {
.mpu.value[OPP_NOM] = VDD_MPU,
.mpu.addr = SMPS_REG_ADDR_12_MPU,
.mpu.pmic = &palmas,
.core.value[OPP_NOM] = VDD_CORE,
.core.addr = SMPS_REG_ADDR_8_CORE,
.core.pmic = &palmas,
.mm.value[OPP_NOM] = VDD_MM,
.mm.addr = SMPS_REG_ADDR_45_IVA,
.mm.pmic = &palmas,
};
struct vcores_data omap5430_volts_es2 = {
.mpu.value[OPP_NOM] = VDD_MPU_ES2,
.mpu.addr = SMPS_REG_ADDR_12_MPU,
.mpu.pmic = &palmas,
.mpu.abb_tx_done_mask = OMAP_ABB_MPU_TXDONE_MASK,
.core.value[OPP_NOM] = VDD_CORE_ES2,
.core.addr = SMPS_REG_ADDR_8_CORE,
.core.pmic = &palmas,
.mm.value[OPP_NOM] = VDD_MM_ES2,
.mm.addr = SMPS_REG_ADDR_45_IVA,
.mm.pmic = &palmas,
.mm.abb_tx_done_mask = OMAP_ABB_MM_TXDONE_MASK,
.mpu.efuse.reg[OPP_NOM] = OMAP5_ES2_PROD_MPU_OPNO_VMIN,
.mpu.efuse.reg_bits = OMAP5_ES2_PROD_REGBITS,
.core.efuse.reg[OPP_NOM] = OMAP5_ES2_PROD_CORE_OPNO_VMIN,
.core.efuse.reg_bits = OMAP5_ES2_PROD_REGBITS,
.mm.efuse.reg[OPP_NOM] = OMAP5_ES2_PROD_MM_OPNO_VMIN,
.mm.efuse.reg_bits = OMAP5_ES2_PROD_REGBITS,
};
/*
* Enable essential clock domains, modules and
* do some additional special settings needed
*/
void enable_basic_clocks(void)
{
u32 const clk_domains_essential[] = {
(*prcm)->cm_l4per_clkstctrl,
(*prcm)->cm_l3init_clkstctrl,
(*prcm)->cm_memif_clkstctrl,
(*prcm)->cm_l4cfg_clkstctrl,
#ifdef CONFIG_DRIVER_TI_CPSW
(*prcm)->cm_gmac_clkstctrl,
#endif
0
};
u32 const clk_modules_hw_auto_essential[] = {
(*prcm)->cm_l3_gpmc_clkctrl,
(*prcm)->cm_memif_emif_1_clkctrl,
(*prcm)->cm_memif_emif_2_clkctrl,
(*prcm)->cm_l4cfg_l4_cfg_clkctrl,
(*prcm)->cm_wkup_gpio1_clkctrl,
(*prcm)->cm_l4per_gpio2_clkctrl,
(*prcm)->cm_l4per_gpio3_clkctrl,
(*prcm)->cm_l4per_gpio4_clkctrl,
(*prcm)->cm_l4per_gpio5_clkctrl,
(*prcm)->cm_l4per_gpio6_clkctrl,
(*prcm)->cm_l4per_gpio7_clkctrl,
(*prcm)->cm_l4per_gpio8_clkctrl,
#ifdef CONFIG_SCSI_AHCI_PLAT
(*prcm)->cm_l3init_ocp2scp3_clkctrl,
#endif
0
};
u32 const clk_modules_explicit_en_essential[] = {
(*prcm)->cm_wkup_gptimer1_clkctrl,
(*prcm)->cm_l3init_hsmmc1_clkctrl,
(*prcm)->cm_l3init_hsmmc2_clkctrl,
(*prcm)->cm_l4per_gptimer2_clkctrl,
(*prcm)->cm_wkup_wdtimer2_clkctrl,
(*prcm)->cm_l4per_uart3_clkctrl,
(*prcm)->cm_l4per_i2c1_clkctrl,
#ifdef CONFIG_DRIVER_TI_CPSW
(*prcm)->cm_gmac_gmac_clkctrl,
#endif
#ifdef CONFIG_TI_QSPI
(*prcm)->cm_l4per_qspi_clkctrl,
#endif
#ifdef CONFIG_SCSI_AHCI_PLAT
(*prcm)->cm_l3init_sata_clkctrl,
#endif
0
};
/* Enable optional additional functional clock for GPIO4 */
setbits_le32((*prcm)->cm_l4per_gpio4_clkctrl,
GPIO4_CLKCTRL_OPTFCLKEN_MASK);
/* Enable 192 MHz clock for MMC1 & MMC2 */
setbits_le32((*prcm)->cm_l3init_hsmmc1_clkctrl,
HSMMC_CLKCTRL_CLKSEL_MASK);
setbits_le32((*prcm)->cm_l3init_hsmmc2_clkctrl,
HSMMC_CLKCTRL_CLKSEL_MASK);
/* Set the correct clock dividers for mmc */
clrbits_le32((*prcm)->cm_l3init_hsmmc1_clkctrl,
HSMMC_CLKCTRL_CLKSEL_DIV_MASK);
clrbits_le32((*prcm)->cm_l3init_hsmmc2_clkctrl,
HSMMC_CLKCTRL_CLKSEL_DIV_MASK);
/* Select 32KHz clock as the source of GPTIMER1 */
setbits_le32((*prcm)->cm_wkup_gptimer1_clkctrl,
GPTIMER1_CLKCTRL_CLKSEL_MASK);
do_enable_clocks(clk_domains_essential,
clk_modules_hw_auto_essential,
clk_modules_explicit_en_essential,
1);
#ifdef CONFIG_TI_QSPI
setbits_le32((*prcm)->cm_l4per_qspi_clkctrl, (1<<24));
#endif
#ifdef CONFIG_SCSI_AHCI_PLAT
/* Enable optional functional clock for SATA */
setbits_le32((*prcm)->cm_l3init_sata_clkctrl,
SATA_CLKCTRL_OPTFCLKEN_MASK);
#endif
/* Enable SCRM OPT clocks for PER and CORE dpll */
setbits_le32((*prcm)->cm_wkupaon_scrm_clkctrl,
OPTFCLKEN_SCRM_PER_MASK);
setbits_le32((*prcm)->cm_wkupaon_scrm_clkctrl,
OPTFCLKEN_SCRM_CORE_MASK);
}
void enable_basic_uboot_clocks(void)
{
u32 const clk_domains_essential[] = {
#if defined(CONFIG_DRA7XX)
(*prcm)->cm_ipu_clkstctrl,
#endif
0
};
u32 const clk_modules_hw_auto_essential[] = {
(*prcm)->cm_l3init_hsusbtll_clkctrl,
0
};
u32 const clk_modules_explicit_en_essential[] = {
(*prcm)->cm_l4per_mcspi1_clkctrl,
(*prcm)->cm_l4per_i2c2_clkctrl,
(*prcm)->cm_l4per_i2c3_clkctrl,
(*prcm)->cm_l4per_i2c4_clkctrl,
#if defined(CONFIG_DRA7XX)
(*prcm)->cm_ipu_i2c5_clkctrl,
#else
(*prcm)->cm_l4per_i2c5_clkctrl,
#endif
(*prcm)->cm_l3init_hsusbhost_clkctrl,
(*prcm)->cm_l3init_fsusb_clkctrl,
0
};
do_enable_clocks(clk_domains_essential,
clk_modules_hw_auto_essential,
clk_modules_explicit_en_essential,
1);
}
#ifdef CONFIG_TI_EDMA3
void enable_edma3_clocks(void)
{
u32 const clk_domains_edma3[] = {
0
};
u32 const clk_modules_hw_auto_edma3[] = {
(*prcm)->cm_l3main1_tptc1_clkctrl,
(*prcm)->cm_l3main1_tptc2_clkctrl,
0
};
u32 const clk_modules_explicit_en_edma3[] = {
0
};
do_enable_clocks(clk_domains_edma3,
clk_modules_hw_auto_edma3,
clk_modules_explicit_en_edma3,
1);
}
void disable_edma3_clocks(void)
{
u32 const clk_domains_edma3[] = {
0
};
u32 const clk_modules_disable_edma3[] = {
(*prcm)->cm_l3main1_tptc1_clkctrl,
(*prcm)->cm_l3main1_tptc2_clkctrl,
0
};
do_disable_clocks(clk_domains_edma3,
clk_modules_disable_edma3,
1);
}
#endif
#if defined(CONFIG_USB_DWC3) || defined(CONFIG_USB_XHCI_OMAP)
void enable_usb_clocks(int index)
{
u32 cm_l3init_usb_otg_ss_clkctrl = 0;
if (index == 0) {
cm_l3init_usb_otg_ss_clkctrl =
(*prcm)->cm_l3init_usb_otg_ss1_clkctrl;
/* Enable 960 MHz clock for dwc3 */
setbits_le32((*prcm)->cm_l3init_usb_otg_ss1_clkctrl,
OPTFCLKEN_REFCLK960M);
/* Enable 32 KHz clock for USB_PHY1 */
setbits_le32((*prcm)->cm_coreaon_usb_phy1_core_clkctrl,
USBPHY_CORE_CLKCTRL_OPTFCLKEN_CLK32K);
/* Enable 32 KHz clock for USB_PHY3 */
if (is_dra7xx())
setbits_le32((*prcm)->cm_coreaon_usb_phy3_core_clkctrl,
USBPHY_CORE_CLKCTRL_OPTFCLKEN_CLK32K);
} else if (index == 1) {
cm_l3init_usb_otg_ss_clkctrl =
(*prcm)->cm_l3init_usb_otg_ss2_clkctrl;
/* Enable 960 MHz clock for dwc3 */
setbits_le32((*prcm)->cm_l3init_usb_otg_ss2_clkctrl,
OPTFCLKEN_REFCLK960M);
/* Enable 32 KHz clock for dwc3 */
setbits_le32((*prcm)->cm_coreaon_usb_phy2_core_clkctrl,
USBPHY_CORE_CLKCTRL_OPTFCLKEN_CLK32K);
/* Enable 60 MHz clock for USB2PHY2 */
setbits_le32((*prcm)->cm_coreaon_l3init_60m_gfclk_clkctrl,
L3INIT_CLKCTRL_OPTFCLKEN_60M_GFCLK);
}
u32 const clk_domains_usb[] = {
0
};
u32 const clk_modules_hw_auto_usb[] = {
(*prcm)->cm_l3init_ocp2scp1_clkctrl,
cm_l3init_usb_otg_ss_clkctrl,
0
};
u32 const clk_modules_explicit_en_usb[] = {
0
};
do_enable_clocks(clk_domains_usb,
clk_modules_hw_auto_usb,
clk_modules_explicit_en_usb,
1);
}
void disable_usb_clocks(int index)
{
u32 cm_l3init_usb_otg_ss_clkctrl = 0;
if (index == 0) {
cm_l3init_usb_otg_ss_clkctrl =
(*prcm)->cm_l3init_usb_otg_ss1_clkctrl;
/* Disable 960 MHz clock for dwc3 */
clrbits_le32((*prcm)->cm_l3init_usb_otg_ss1_clkctrl,
OPTFCLKEN_REFCLK960M);
/* Disable 32 KHz clock for USB_PHY1 */
clrbits_le32((*prcm)->cm_coreaon_usb_phy1_core_clkctrl,
USBPHY_CORE_CLKCTRL_OPTFCLKEN_CLK32K);
/* Disable 32 KHz clock for USB_PHY3 */
if (is_dra7xx())
clrbits_le32((*prcm)->cm_coreaon_usb_phy3_core_clkctrl,
USBPHY_CORE_CLKCTRL_OPTFCLKEN_CLK32K);
} else if (index == 1) {
cm_l3init_usb_otg_ss_clkctrl =
(*prcm)->cm_l3init_usb_otg_ss2_clkctrl;
/* Disable 960 MHz clock for dwc3 */
clrbits_le32((*prcm)->cm_l3init_usb_otg_ss2_clkctrl,
OPTFCLKEN_REFCLK960M);
/* Disable 32 KHz clock for dwc3 */
clrbits_le32((*prcm)->cm_coreaon_usb_phy2_core_clkctrl,
USBPHY_CORE_CLKCTRL_OPTFCLKEN_CLK32K);
/* Disable 60 MHz clock for USB2PHY2 */
clrbits_le32((*prcm)->cm_coreaon_l3init_60m_gfclk_clkctrl,
L3INIT_CLKCTRL_OPTFCLKEN_60M_GFCLK);
}
u32 const clk_domains_usb[] = {
0
};
u32 const clk_modules_disable[] = {
(*prcm)->cm_l3init_ocp2scp1_clkctrl,
cm_l3init_usb_otg_ss_clkctrl,
0
};
do_disable_clocks(clk_domains_usb,
clk_modules_disable,
1);
}
#endif
const struct ctrl_ioregs ioregs_omap5430 = {
.ctrl_ddrch = DDR_IO_I_34OHM_SR_FASTEST_WD_DQ_NO_PULL_DQS_PULL_DOWN,
.ctrl_lpddr2ch = DDR_IO_I_34OHM_SR_FASTEST_WD_CK_CKE_NCS_CA_PULL_DOWN,
.ctrl_ddrio_0 = DDR_IO_0_DDR2_DQ_INT_EN_ALL_DDR3_CA_DIS_ALL,
.ctrl_ddrio_1 = DDR_IO_1_DQ_OUT_EN_ALL_DQ_INT_EN_ALL,
.ctrl_ddrio_2 = DDR_IO_2_CA_OUT_EN_ALL_CA_INT_EN_ALL,
};
const struct ctrl_ioregs ioregs_omap5432_es1 = {
.ctrl_ddrch = DDR_IO_I_40OHM_SR_FAST_WD_DQ_NO_PULL_DQS_NO_PULL,
.ctrl_lpddr2ch = 0x0,
.ctrl_ddr3ch = DDR_IO_I_40OHM_SR_SLOWEST_WD_DQ_NO_PULL_DQS_NO_PULL,
.ctrl_ddrio_0 = DDR_IO_0_VREF_CELLS_DDR3_VALUE,
.ctrl_ddrio_1 = DDR_IO_1_VREF_CELLS_DDR3_VALUE,
.ctrl_ddrio_2 = DDR_IO_2_VREF_CELLS_DDR3_VALUE,
.ctrl_emif_sdram_config_ext = SDRAM_CONFIG_EXT_RD_LVL_11_SAMPLES,
.ctrl_emif_sdram_config_ext_final = SDRAM_CONFIG_EXT_RD_LVL_4_SAMPLES,
};
const struct ctrl_ioregs ioregs_omap5432_es2 = {
.ctrl_ddrch = DDR_IO_I_40OHM_SR_FAST_WD_DQ_NO_PULL_DQS_NO_PULL_ES2,
.ctrl_lpddr2ch = 0x0,
.ctrl_ddr3ch = DDR_IO_I_40OHM_SR_SLOWEST_WD_DQ_NO_PULL_DQS_NO_PULL_ES2,
.ctrl_ddrio_0 = DDR_IO_0_VREF_CELLS_DDR3_VALUE_ES2,
.ctrl_ddrio_1 = DDR_IO_1_VREF_CELLS_DDR3_VALUE_ES2,
.ctrl_ddrio_2 = DDR_IO_2_VREF_CELLS_DDR3_VALUE_ES2,
.ctrl_emif_sdram_config_ext = SDRAM_CONFIG_EXT_RD_LVL_11_SAMPLES,
.ctrl_emif_sdram_config_ext_final = SDRAM_CONFIG_EXT_RD_LVL_4_SAMPLES,
};
const struct ctrl_ioregs ioregs_dra7xx_es1 = {
.ctrl_ddrch = 0x40404040,
.ctrl_lpddr2ch = 0x40404040,
.ctrl_ddr3ch = 0x80808080,
.ctrl_ddrio_0 = 0x00094A40,
.ctrl_ddrio_1 = 0x04A52000,
.ctrl_ddrio_2 = 0x84210000,
.ctrl_emif_sdram_config_ext = 0x0001C1A7,
.ctrl_emif_sdram_config_ext_final = 0x0001C1A7,
.ctrl_ddr_ctrl_ext_0 = 0xA2000000,
};
const struct ctrl_ioregs ioregs_dra72x_es1 = {
.ctrl_ddrch = 0x40404040,
.ctrl_lpddr2ch = 0x40404040,
.ctrl_ddr3ch = 0x60606080,
.ctrl_ddrio_0 = 0x00094A40,
.ctrl_ddrio_1 = 0x04A52000,
.ctrl_ddrio_2 = 0x84210000,
.ctrl_emif_sdram_config_ext = 0x0001C1A7,
.ctrl_emif_sdram_config_ext_final = 0x0001C1A7,
.ctrl_ddr_ctrl_ext_0 = 0xA2000000,
};
const struct ctrl_ioregs ioregs_dra72x_es2 = {
.ctrl_ddrch = 0x40404040,
.ctrl_lpddr2ch = 0x40404040,
.ctrl_ddr3ch = 0x60606060,
.ctrl_ddrio_0 = 0x00094A40,
.ctrl_ddrio_1 = 0x00000000,
.ctrl_ddrio_2 = 0x00000000,
.ctrl_emif_sdram_config_ext = 0x0001C1A7,
.ctrl_emif_sdram_config_ext_final = 0x0001C1A7,
.ctrl_ddr_ctrl_ext_0 = 0xA2000000,
};
void __weak hw_data_init(void)
{
u32 omap_rev = omap_revision();
switch (omap_rev) {
case OMAP5430_ES1_0:
case OMAP5432_ES1_0:
*prcm = &omap5_es1_prcm;
*dplls_data = &omap5_dplls_es1;
*omap_vcores = &omap5430_volts;
*ctrl = &omap5_ctrl;
break;
case OMAP5430_ES2_0:
case OMAP5432_ES2_0:
*prcm = &omap5_es2_prcm;
*dplls_data = &omap5_dplls_es2;
*omap_vcores = &omap5430_volts_es2;
*ctrl = &omap5_ctrl;
break;
case DRA762_ABZ_ES1_0:
case DRA762_ACD_ES1_0:
case DRA762_ES1_0:
*prcm = &dra7xx_prcm;
*dplls_data = &dra76x_dplls;
*ctrl = &dra7xx_ctrl;
break;
case DRA752_ES1_0:
case DRA752_ES1_1:
case DRA752_ES2_0:
*prcm = &dra7xx_prcm;
*dplls_data = &dra7xx_dplls;
*ctrl = &dra7xx_ctrl;
break;
case DRA722_ES1_0:
case DRA722_ES2_0:
case DRA722_ES2_1:
*prcm = &dra7xx_prcm;
*dplls_data = &dra72x_dplls;
*ctrl = &dra7xx_ctrl;
break;
default:
printf("\n INVALID OMAP REVISION ");
}
}
void get_ioregs(const struct ctrl_ioregs **regs)
{
u32 omap_rev = omap_revision();
switch (omap_rev) {
case OMAP5430_ES1_0:
case OMAP5430_ES2_0:
*regs = &ioregs_omap5430;
break;
case OMAP5432_ES1_0:
*regs = &ioregs_omap5432_es1;
break;
case OMAP5432_ES2_0:
*regs = &ioregs_omap5432_es2;
break;
case DRA752_ES1_0:
case DRA752_ES1_1:
case DRA752_ES2_0:
case DRA762_ES1_0:
case DRA762_ACD_ES1_0:
case DRA762_ABZ_ES1_0:
*regs = &ioregs_dra7xx_es1;
break;
case DRA722_ES1_0:
*regs = &ioregs_dra72x_es1;
break;
case DRA722_ES2_0:
case DRA722_ES2_1:
*regs = &ioregs_dra72x_es2;
break;
default:
printf("\n INVALID OMAP REVISION ");
}
}
@@ -0,0 +1,508 @@
// SPDX-License-Identifier: GPL-2.0+
/*
*
* Functions for omap5 based boards.
*
* (C) Copyright 2011
* Texas Instruments, <www.ti.com>
*
* Author :
* Aneesh V <aneesh@ti.com>
* Steve Sakoman <steve@sakoman.com>
* Sricharan <r.sricharan@ti.com>
*/
#include <common.h>
#include <palmas.h>
#include <asm/armv7.h>
#include <asm/arch/cpu.h>
#include <asm/arch/sys_proto.h>
#include <asm/arch/clock.h>
#include <linux/sizes.h>
#include <asm/utils.h>
#include <asm/arch/gpio.h>
#include <asm/emif.h>
#include <asm/omap_common.h>
u32 *const omap_si_rev = (u32 *)OMAP_SRAM_SCRATCH_OMAP_REV;
#ifndef CONFIG_DM_GPIO
static struct gpio_bank gpio_bank_54xx[8] = {
{ (void *)OMAP54XX_GPIO1_BASE },
{ (void *)OMAP54XX_GPIO2_BASE },
{ (void *)OMAP54XX_GPIO3_BASE },
{ (void *)OMAP54XX_GPIO4_BASE },
{ (void *)OMAP54XX_GPIO5_BASE },
{ (void *)OMAP54XX_GPIO6_BASE },
{ (void *)OMAP54XX_GPIO7_BASE },
{ (void *)OMAP54XX_GPIO8_BASE },
};
const struct gpio_bank *const omap_gpio_bank = gpio_bank_54xx;
#endif
void do_set_mux32(u32 base, struct pad_conf_entry const *array, int size)
{
int i;
struct pad_conf_entry *pad = (struct pad_conf_entry *)array;
for (i = 0; i < size; i++, pad++)
writel(pad->val, base + pad->offset);
}
#ifdef CONFIG_SPL_BUILD
/* LPDDR2 specific IO settings */
static void io_settings_lpddr2(void)
{
const struct ctrl_ioregs *ioregs;
get_ioregs(&ioregs);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch1_0);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch1_1);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch2_0);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch2_1);
writel(ioregs->ctrl_lpddr2ch, (*ctrl)->control_lpddr2ch1_0);
writel(ioregs->ctrl_lpddr2ch, (*ctrl)->control_lpddr2ch1_1);
writel(ioregs->ctrl_ddrio_0, (*ctrl)->control_ddrio_0);
writel(ioregs->ctrl_ddrio_1, (*ctrl)->control_ddrio_1);
writel(ioregs->ctrl_ddrio_2, (*ctrl)->control_ddrio_2);
}
/* DDR3 specific IO settings */
static void io_settings_ddr3(void)
{
u32 io_settings = 0;
const struct ctrl_ioregs *ioregs;
get_ioregs(&ioregs);
writel(ioregs->ctrl_ddr3ch, (*ctrl)->control_ddr3ch1_0);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch1_0);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch1_1);
writel(ioregs->ctrl_ddr3ch, (*ctrl)->control_ddr3ch2_0);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch2_0);
writel(ioregs->ctrl_ddrch, (*ctrl)->control_ddrch2_1);
writel(ioregs->ctrl_ddrio_0, (*ctrl)->control_ddrio_0);
writel(ioregs->ctrl_ddrio_1, (*ctrl)->control_ddrio_1);
if (!is_dra7xx()) {
writel(ioregs->ctrl_ddrio_2, (*ctrl)->control_ddrio_2);
writel(ioregs->ctrl_lpddr2ch, (*ctrl)->control_lpddr2ch1_1);
}
/* omap5432 does not use lpddr2 */
writel(ioregs->ctrl_lpddr2ch, (*ctrl)->control_lpddr2ch1_0);
writel(ioregs->ctrl_emif_sdram_config_ext,
(*ctrl)->control_emif1_sdram_config_ext);
if (!is_dra72x())
writel(ioregs->ctrl_emif_sdram_config_ext,
(*ctrl)->control_emif2_sdram_config_ext);
if (is_omap54xx()) {
/* Disable DLL select */
io_settings = (readl((*ctrl)->control_port_emif1_sdram_config)
& 0xFFEFFFFF);
writel(io_settings,
(*ctrl)->control_port_emif1_sdram_config);
io_settings = (readl((*ctrl)->control_port_emif2_sdram_config)
& 0xFFEFFFFF);
writel(io_settings,
(*ctrl)->control_port_emif2_sdram_config);
} else {
writel(ioregs->ctrl_ddr_ctrl_ext_0,
(*ctrl)->control_ddr_control_ext_0);
}
}
/*
* Some tuning of IOs for optimal power and performance
*/
void do_io_settings(void)
{
u32 io_settings = 0, mask = 0;
struct emif_reg_struct *emif = (struct emif_reg_struct *)EMIF1_BASE;
/* Impedance settings EMMC, C2C 1,2, hsi2 */
mask = (ds_mask << 2) | (ds_mask << 8) |
(ds_mask << 16) | (ds_mask << 18);
io_settings = readl((*ctrl)->control_smart1io_padconf_0) &
(~mask);
io_settings |= (ds_60_ohm << 8) | (ds_45_ohm << 16) |
(ds_45_ohm << 18) | (ds_60_ohm << 2);
writel(io_settings, (*ctrl)->control_smart1io_padconf_0);
/* Impedance settings Mcspi2 */
mask = (ds_mask << 30);
io_settings = readl((*ctrl)->control_smart1io_padconf_1) &
(~mask);
io_settings |= (ds_60_ohm << 30);
writel(io_settings, (*ctrl)->control_smart1io_padconf_1);
/* Impedance settings C2C 3,4 */
mask = (ds_mask << 14) | (ds_mask << 16);
io_settings = readl((*ctrl)->control_smart1io_padconf_2) &
(~mask);
io_settings |= (ds_45_ohm << 14) | (ds_45_ohm << 16);
writel(io_settings, (*ctrl)->control_smart1io_padconf_2);
/* Slew rate settings EMMC, C2C 1,2 */
mask = (sc_mask << 8) | (sc_mask << 16) | (sc_mask << 18);
io_settings = readl((*ctrl)->control_smart2io_padconf_0) &
(~mask);
io_settings |= (sc_fast << 8) | (sc_na << 16) | (sc_na << 18);
writel(io_settings, (*ctrl)->control_smart2io_padconf_0);
/* Slew rate settings hsi2, Mcspi2 */
mask = (sc_mask << 24) | (sc_mask << 28);
io_settings = readl((*ctrl)->control_smart2io_padconf_1) &
(~mask);
io_settings |= (sc_fast << 28) | (sc_fast << 24);
writel(io_settings, (*ctrl)->control_smart2io_padconf_1);
/* Slew rate settings C2C 3,4 */
mask = (sc_mask << 16) | (sc_mask << 18);
io_settings = readl((*ctrl)->control_smart2io_padconf_2) &
(~mask);
io_settings |= (sc_na << 16) | (sc_na << 18);
writel(io_settings, (*ctrl)->control_smart2io_padconf_2);
/* impedance and slew rate settings for usb */
mask = (usb_i_mask << 29) | (usb_i_mask << 26) | (usb_i_mask << 23) |
(usb_i_mask << 20) | (usb_i_mask << 17) | (usb_i_mask << 14);
io_settings = readl((*ctrl)->control_smart3io_padconf_1) &
(~mask);
io_settings |= (ds_60_ohm << 29) | (ds_60_ohm << 26) |
(ds_60_ohm << 23) | (sc_fast << 20) |
(sc_fast << 17) | (sc_fast << 14);
writel(io_settings, (*ctrl)->control_smart3io_padconf_1);
if (emif_sdram_type(emif->emif_sdram_config) == EMIF_SDRAM_TYPE_LPDDR2)
io_settings_lpddr2();
else
io_settings_ddr3();
}
static const struct srcomp_params srcomp_parameters[NUM_SYS_CLKS] = {
{0x45, 0x1}, /* 12 MHz */
{-1, -1}, /* 13 MHz */
{0x63, 0x2}, /* 16.8 MHz */
{0x57, 0x2}, /* 19.2 MHz */
{0x20, 0x1}, /* 26 MHz */
{-1, -1}, /* 27 MHz */
{0x41, 0x3} /* 38.4 MHz */
};
void srcomp_enable(void)
{
u32 srcomp_value, mul_factor, div_factor, clk_val, i;
u32 sysclk_ind = get_sys_clk_index();
u32 omap_rev = omap_revision();
if (!is_omap54xx())
return;
mul_factor = srcomp_parameters[sysclk_ind].multiply_factor;
div_factor = srcomp_parameters[sysclk_ind].divide_factor;
for (i = 0; i < 4; i++) {
srcomp_value = readl((*ctrl)->control_srcomp_north_side + i*4);
srcomp_value &=
~(MULTIPLY_FACTOR_XS_MASK | DIVIDE_FACTOR_XS_MASK);
srcomp_value |= (mul_factor << MULTIPLY_FACTOR_XS_SHIFT) |
(div_factor << DIVIDE_FACTOR_XS_SHIFT);
writel(srcomp_value, (*ctrl)->control_srcomp_north_side + i*4);
}
if ((omap_rev == OMAP5430_ES1_0) || (omap_rev == OMAP5432_ES1_0)) {
clk_val = readl((*prcm)->cm_coreaon_io_srcomp_clkctrl);
clk_val |= OPTFCLKEN_SRCOMP_FCLK_MASK;
writel(clk_val, (*prcm)->cm_coreaon_io_srcomp_clkctrl);
for (i = 0; i < 4; i++) {
srcomp_value =
readl((*ctrl)->control_srcomp_north_side + i*4);
srcomp_value &= ~PWRDWN_XS_MASK;
writel(srcomp_value,
(*ctrl)->control_srcomp_north_side + i*4);
while (((readl((*ctrl)->control_srcomp_north_side + i*4)
& SRCODE_READ_XS_MASK) >>
SRCODE_READ_XS_SHIFT) == 0)
;
srcomp_value =
readl((*ctrl)->control_srcomp_north_side + i*4);
srcomp_value &= ~OVERRIDE_XS_MASK;
writel(srcomp_value,
(*ctrl)->control_srcomp_north_side + i*4);
}
} else {
srcomp_value = readl((*ctrl)->control_srcomp_east_side_wkup);
srcomp_value &= ~(MULTIPLY_FACTOR_XS_MASK |
DIVIDE_FACTOR_XS_MASK);
srcomp_value |= (mul_factor << MULTIPLY_FACTOR_XS_SHIFT) |
(div_factor << DIVIDE_FACTOR_XS_SHIFT);
writel(srcomp_value, (*ctrl)->control_srcomp_east_side_wkup);
for (i = 0; i < 4; i++) {
srcomp_value =
readl((*ctrl)->control_srcomp_north_side + i*4);
srcomp_value |= SRCODE_OVERRIDE_SEL_XS_MASK;
writel(srcomp_value,
(*ctrl)->control_srcomp_north_side + i*4);
srcomp_value =
readl((*ctrl)->control_srcomp_north_side + i*4);
srcomp_value &= ~OVERRIDE_XS_MASK;
writel(srcomp_value,
(*ctrl)->control_srcomp_north_side + i*4);
}
srcomp_value =
readl((*ctrl)->control_srcomp_east_side_wkup);
srcomp_value |= SRCODE_OVERRIDE_SEL_XS_MASK;
writel(srcomp_value, (*ctrl)->control_srcomp_east_side_wkup);
srcomp_value =
readl((*ctrl)->control_srcomp_east_side_wkup);
srcomp_value &= ~OVERRIDE_XS_MASK;
writel(srcomp_value, (*ctrl)->control_srcomp_east_side_wkup);
clk_val = readl((*prcm)->cm_coreaon_io_srcomp_clkctrl);
clk_val |= OPTFCLKEN_SRCOMP_FCLK_MASK;
writel(clk_val, (*prcm)->cm_coreaon_io_srcomp_clkctrl);
clk_val = readl((*prcm)->cm_wkupaon_io_srcomp_clkctrl);
clk_val |= OPTFCLKEN_SRCOMP_FCLK_MASK;
writel(clk_val, (*prcm)->cm_wkupaon_io_srcomp_clkctrl);
for (i = 0; i < 4; i++) {
while (((readl((*ctrl)->control_srcomp_north_side + i*4)
& SRCODE_READ_XS_MASK) >>
SRCODE_READ_XS_SHIFT) == 0)
;
srcomp_value =
readl((*ctrl)->control_srcomp_north_side + i*4);
srcomp_value &= ~SRCODE_OVERRIDE_SEL_XS_MASK;
writel(srcomp_value,
(*ctrl)->control_srcomp_north_side + i*4);
}
while (((readl((*ctrl)->control_srcomp_east_side_wkup) &
SRCODE_READ_XS_MASK) >> SRCODE_READ_XS_SHIFT) == 0)
;
srcomp_value =
readl((*ctrl)->control_srcomp_east_side_wkup);
srcomp_value &= ~SRCODE_OVERRIDE_SEL_XS_MASK;
writel(srcomp_value, (*ctrl)->control_srcomp_east_side_wkup);
}
}
#endif
void config_data_eye_leveling_samples(u32 emif_base)
{
const struct ctrl_ioregs *ioregs;
get_ioregs(&ioregs);
/*EMIF_SDRAM_CONFIG_EXT-Read data eye leveling no of samples =4*/
if (emif_base == EMIF1_BASE)
writel(ioregs->ctrl_emif_sdram_config_ext_final,
(*ctrl)->control_emif1_sdram_config_ext);
else if (emif_base == EMIF2_BASE)
writel(ioregs->ctrl_emif_sdram_config_ext_final,
(*ctrl)->control_emif2_sdram_config_ext);
}
void init_cpu_configuration(void)
{
u32 l2actlr;
asm volatile("mrc p15, 1, %0, c15, c0, 0" : "=r"(l2actlr));
/*
* L2ACTLR: Ensure to enable the following:
* 3: Disable clean/evict push to external
* 4: Disable WriteUnique and WriteLineUnique transactions from master
* 8: Disable DVM/CMO message broadcast
*/
l2actlr |= 0x118;
omap_smc1(OMAP5_SERVICE_L2ACTLR_SET, l2actlr);
}
void init_omap_revision(void)
{
/*
* For some of the ES2/ES1 boards ID_CODE is not reliable:
* Also, ES1 and ES2 have different ARM revisions
* So use ARM revision for identification
*/
unsigned int rev = cortex_rev();
switch (readl(CONTROL_ID_CODE)) {
case OMAP5430_CONTROL_ID_CODE_ES1_0:
*omap_si_rev = OMAP5430_ES1_0;
if (rev == MIDR_CORTEX_A15_R2P2)
*omap_si_rev = OMAP5430_ES2_0;
break;
case OMAP5432_CONTROL_ID_CODE_ES1_0:
*omap_si_rev = OMAP5432_ES1_0;
if (rev == MIDR_CORTEX_A15_R2P2)
*omap_si_rev = OMAP5432_ES2_0;
break;
case OMAP5430_CONTROL_ID_CODE_ES2_0:
*omap_si_rev = OMAP5430_ES2_0;
break;
case OMAP5432_CONTROL_ID_CODE_ES2_0:
*omap_si_rev = OMAP5432_ES2_0;
break;
case DRA762_CONTROL_ID_CODE_ES1_0:
*omap_si_rev = DRA762_ES1_0;
break;
case DRA752_CONTROL_ID_CODE_ES1_0:
*omap_si_rev = DRA752_ES1_0;
break;
case DRA752_CONTROL_ID_CODE_ES1_1:
*omap_si_rev = DRA752_ES1_1;
break;
case DRA752_CONTROL_ID_CODE_ES2_0:
*omap_si_rev = DRA752_ES2_0;
break;
case DRA722_CONTROL_ID_CODE_ES1_0:
*omap_si_rev = DRA722_ES1_0;
break;
case DRA722_CONTROL_ID_CODE_ES2_0:
*omap_si_rev = DRA722_ES2_0;
break;
case DRA722_CONTROL_ID_CODE_ES2_1:
*omap_si_rev = DRA722_ES2_1;
break;
default:
*omap_si_rev = OMAP5430_SILICON_ID_INVALID;
}
init_cpu_configuration();
}
void init_package_revision(void)
{
unsigned int die_id[4] = { 0 };
u8 package;
omap_die_id(die_id);
package = (die_id[2] >> 16) & 0x3;
if (is_dra76x()) {
switch (package) {
case DRA762_ABZ_PACKAGE:
*omap_si_rev = DRA762_ABZ_ES1_0;
break;
case DRA762_ACD_PACKAGE:
default:
*omap_si_rev = DRA762_ACD_ES1_0;
break;
}
}
}
void omap_die_id(unsigned int *die_id)
{
die_id[0] = readl((*ctrl)->control_std_fuse_die_id_0);
die_id[1] = readl((*ctrl)->control_std_fuse_die_id_1);
die_id[2] = readl((*ctrl)->control_std_fuse_die_id_2);
die_id[3] = readl((*ctrl)->control_std_fuse_die_id_3);
}
void reset_cpu(ulong ignored)
{
u32 omap_rev = omap_revision();
/*
* WARM reset is not functional in case of OMAP5430 ES1.0 soc.
* So use cold reset in case instead.
*/
if (omap_rev == OMAP5430_ES1_0)
writel(PRM_RSTCTRL_RESET << 0x1, (*prcm)->prm_rstctrl);
else
writel(PRM_RSTCTRL_RESET, (*prcm)->prm_rstctrl);
}
u32 warm_reset(void)
{
return readl((*prcm)->prm_rstst) & PRM_RSTST_WARM_RESET_MASK;
}
void setup_warmreset_time(void)
{
u32 rst_time, rst_val;
/*
* MAX value for PRM_RSTTIME[9:0]RSTTIME1 stored is 0x3ff.
* 0x3ff is in the no of FUNC_32K_CLK cycles. Converting cycles
* into microsec and passing the value.
*/
rst_time = usec_to_32k(CONFIG_OMAP_PLATFORM_RESET_TIME_MAX_USEC)
<< RSTTIME1_SHIFT;
if (rst_time > RSTTIME1_MASK)
rst_time = RSTTIME1_MASK;
rst_val = readl((*prcm)->prm_rsttime) & ~RSTTIME1_MASK;
rst_val |= rst_time;
writel(rst_val, (*prcm)->prm_rsttime);
}
void v7_arch_cp15_set_l2aux_ctrl(u32 l2auxctrl, u32 cpu_midr,
u32 cpu_rev_comb, u32 cpu_variant,
u32 cpu_rev)
{
omap_smc1(OMAP5_SERVICE_L2ACTLR_SET, l2auxctrl);
}
void v7_arch_cp15_set_acr(u32 acr, u32 cpu_midr, u32 cpu_rev_comb,
u32 cpu_variant, u32 cpu_rev)
{
#ifdef CONFIG_ARM_ERRATA_801819
/*
* DRA72x processors are uniprocessors and DONOT have
* ACP (Accelerator Coherency Port) hooked to ACE (AXI Coherency
* Extensions) Hence the erratum workaround is not applicable for
* DRA72x processors.
*/
if (is_dra72x())
acr &= ~((0x3 << 23) | (0x3 << 25));
#endif
omap_smc1(OMAP5_SERVICE_ACR_SET, acr);
}
#if defined(CONFIG_PALMAS_POWER)
__weak void board_mmc_poweron_ldo(uint voltage)
{
palmas_mmc1_poweron_ldo(LDO1_VOLTAGE, LDO1_CTRL, voltage);
}
void vmmc_pbias_config(uint voltage)
{
u32 value = 0;
value = readl((*ctrl)->control_pbias);
value &= ~SDCARD_PWRDNZ;
writel(value, (*ctrl)->control_pbias);
udelay(10); /* wait 10 us */
value &= ~SDCARD_BIAS_PWRDNZ;
writel(value, (*ctrl)->control_pbias);
board_mmc_poweron_ldo(voltage);
value = readl((*ctrl)->control_pbias);
value |= SDCARD_BIAS_PWRDNZ;
writel(value, (*ctrl)->control_pbias);
udelay(150); /* wait 150 us */
value |= SDCARD_PWRDNZ;
writel(value, (*ctrl)->control_pbias);
udelay(150); /* wait 150 us */
}
#endif
File diff suppressed because it is too large Load Diff
@@ -0,0 +1,749 @@
// SPDX-License-Identifier: GPL-2.0+
/*
* Timing and Organization details of the ddr device parts used in OMAP5
* EVM
*
* (C) Copyright 2010
* Texas Instruments, <www.ti.com>
*
* Aneesh V <aneesh@ti.com>
* Sricharan R <r.sricharan@ti.com>
*/
#include <asm/emif.h>
#include <asm/arch/sys_proto.h>
/*
* This file provides details of the LPDDR2 SDRAM parts used on OMAP5
* EVM. Since the parts used and geometry are identical for
* evm for a given OMAP5 revision, this information is kept
* here instead of being in board directory. However the key functions
* exported are weakly linked so that they can be over-ridden in the board
* directory if there is a OMAP5 board in the future that uses a different
* memory device or geometry.
*
* For any new board with different memory devices over-ride one or more
* of the following functions as per the CONFIG flags you intend to enable:
* - emif_get_reg_dump()
* - emif_get_dmm_regs()
* - emif_get_device_details()
* - emif_get_device_timings()
*/
#ifdef CONFIG_SYS_EMIF_PRECALCULATED_TIMING_REGS
const struct emif_regs emif_regs_532_mhz_2cs = {
.sdram_config_init = 0x80800EBA,
.sdram_config = 0x808022BA,
.ref_ctrl = 0x0000081A,
.sdram_tim1 = 0x772F6873,
.sdram_tim2 = 0x304a129a,
.sdram_tim3 = 0x02f7e45f,
.read_idle_ctrl = 0x00050000,
.zq_config = 0x000b3215,
.temp_alert_config = 0x08000a05,
.emif_ddr_phy_ctlr_1_init = 0x0E28420d,
.emif_ddr_phy_ctlr_1 = 0x0E28420d,
.emif_ddr_ext_phy_ctrl_1 = 0x04020080,
.emif_ddr_ext_phy_ctrl_2 = 0x28C518A3,
.emif_ddr_ext_phy_ctrl_3 = 0x518A3146,
.emif_ddr_ext_phy_ctrl_4 = 0x0014628C,
.emif_ddr_ext_phy_ctrl_5 = 0x04010040
};
const struct emif_regs emif_regs_532_mhz_2cs_es2 = {
.sdram_config_init = 0x80800EBA,
.sdram_config = 0x808022BA,
.ref_ctrl = 0x0000081A,
.sdram_tim1 = 0x772F6873,
.sdram_tim2 = 0x304a129a,
.sdram_tim3 = 0x02f7e45f,
.read_idle_ctrl = 0x00050000,
.zq_config = 0x100b3215,
.temp_alert_config = 0x08000a05,
.emif_ddr_phy_ctlr_1_init = 0x0E30400d,
.emif_ddr_phy_ctlr_1 = 0x0E30400d,
.emif_ddr_ext_phy_ctrl_1 = 0x04020080,
.emif_ddr_ext_phy_ctrl_2 = 0x28C518A3,
.emif_ddr_ext_phy_ctrl_3 = 0x518A3146,
.emif_ddr_ext_phy_ctrl_4 = 0x0014628C,
.emif_ddr_ext_phy_ctrl_5 = 0xC330CC33,
};
const struct emif_regs emif_regs_266_mhz_2cs = {
.sdram_config_init = 0x80800EBA,
.sdram_config = 0x808022BA,
.ref_ctrl = 0x0000040D,
.sdram_tim1 = 0x2A86B419,
.sdram_tim2 = 0x1025094A,
.sdram_tim3 = 0x026BA22F,
.read_idle_ctrl = 0x00050000,
.zq_config = 0x000b3215,
.temp_alert_config = 0x08000a05,
.emif_ddr_phy_ctlr_1_init = 0x0E28420d,
.emif_ddr_phy_ctlr_1 = 0x0E28420d,
.emif_ddr_ext_phy_ctrl_1 = 0x04020080,
.emif_ddr_ext_phy_ctrl_2 = 0x0A414829,
.emif_ddr_ext_phy_ctrl_3 = 0x14829052,
.emif_ddr_ext_phy_ctrl_4 = 0x000520A4,
.emif_ddr_ext_phy_ctrl_5 = 0x04010040
};
const struct emif_regs emif_regs_ddr3_532_mhz_1cs = {
.sdram_config_init = 0x61851B32,
.sdram_config = 0x61851B32,
.sdram_config2 = 0x0,
.ref_ctrl = 0x00001035,
.sdram_tim1 = 0xCCCF36B3,
.sdram_tim2 = 0x308F7FDA,
.sdram_tim3 = 0x027F88A8,
.read_idle_ctrl = 0x00050000,
.zq_config = 0x0007190B,
.temp_alert_config = 0x00000000,
.emif_ddr_phy_ctlr_1_init = 0x0020420A,
.emif_ddr_phy_ctlr_1 = 0x0024420A,
.emif_ddr_ext_phy_ctrl_1 = 0x04040100,
.emif_ddr_ext_phy_ctrl_2 = 0x00000000,
.emif_ddr_ext_phy_ctrl_3 = 0x00000000,
.emif_ddr_ext_phy_ctrl_4 = 0x00000000,
.emif_ddr_ext_phy_ctrl_5 = 0x04010040,
.emif_rd_wr_lvl_rmp_win = 0x00000000,
.emif_rd_wr_lvl_rmp_ctl = 0x80000000,
.emif_rd_wr_lvl_ctl = 0x00000000,
.emif_rd_wr_exec_thresh = 0x00000305
};
const struct emif_regs emif_regs_ddr3_532_mhz_1cs_es2 = {
.sdram_config_init = 0x61851B32,
.sdram_config = 0x61851B32,
.sdram_config2 = 0x0,
.ref_ctrl = 0x00001035,
.sdram_tim1 = 0xCCCF36B3,
.sdram_tim2 = 0x308F7FDA,
.sdram_tim3 = 0x027F88A8,
.read_idle_ctrl = 0x00050000,
.zq_config = 0x1007190B,
.temp_alert_config = 0x00000000,
.emif_ddr_phy_ctlr_1_init = 0x0030400A,
.emif_ddr_phy_ctlr_1 = 0x0034400A,
.emif_ddr_ext_phy_ctrl_1 = 0x04040100,
.emif_ddr_ext_phy_ctrl_2 = 0x00000000,
.emif_ddr_ext_phy_ctrl_3 = 0x00000000,
.emif_ddr_ext_phy_ctrl_4 = 0x00000000,
.emif_ddr_ext_phy_ctrl_5 = 0x4350D435,
.emif_rd_wr_lvl_rmp_win = 0x00000000,
.emif_rd_wr_lvl_rmp_ctl = 0x80000000,
.emif_rd_wr_lvl_ctl = 0x00000000,
.emif_rd_wr_exec_thresh = 0x40000305
};
const struct dmm_lisa_map_regs lisa_map_4G_x_2_x_2 = {
.dmm_lisa_map_0 = 0x0,
.dmm_lisa_map_1 = 0x0,
.dmm_lisa_map_2 = 0x80740300,
.dmm_lisa_map_3 = 0xFF020100,
.is_ma_present = 0x1
};
static void emif_get_reg_dump_sdp(u32 emif_nr, const struct emif_regs **regs)
{
switch (omap_revision()) {
case OMAP5430_ES1_0:
*regs = &emif_regs_532_mhz_2cs;
break;
case OMAP5432_ES1_0:
*regs = &emif_regs_ddr3_532_mhz_1cs;
break;
case OMAP5430_ES2_0:
*regs = &emif_regs_532_mhz_2cs_es2;
break;
case OMAP5432_ES2_0:
default:
*regs = &emif_regs_ddr3_532_mhz_1cs_es2;
break;
}
}
void emif_get_reg_dump(u32 emif_nr, const struct emif_regs **regs)
__attribute__((weak, alias("emif_get_reg_dump_sdp")));
static void emif_get_dmm_regs_sdp(const struct dmm_lisa_map_regs
**dmm_lisa_regs)
{
switch (omap_revision()) {
case OMAP5430_ES1_0:
case OMAP5430_ES2_0:
case OMAP5432_ES1_0:
case OMAP5432_ES2_0:
default:
*dmm_lisa_regs = &lisa_map_4G_x_2_x_2;
break;
}
}
void emif_get_dmm_regs(const struct dmm_lisa_map_regs **dmm_lisa_regs)
__attribute__((weak, alias("emif_get_dmm_regs_sdp")));
#else
static const struct lpddr2_device_details dev_4G_S4_details = {
.type = LPDDR2_TYPE_S4,
.density = LPDDR2_DENSITY_4Gb,
.io_width = LPDDR2_IO_WIDTH_32,
.manufacturer = LPDDR2_MANUFACTURER_SAMSUNG
};
static void emif_get_device_details_sdp(u32 emif_nr,
struct lpddr2_device_details *cs0_device_details,
struct lpddr2_device_details *cs1_device_details)
{
/* EMIF1 & EMIF2 have identical configuration */
*cs0_device_details = dev_4G_S4_details;
*cs1_device_details = dev_4G_S4_details;
}
void emif_get_device_details(u32 emif_nr,
struct lpddr2_device_details *cs0_device_details,
struct lpddr2_device_details *cs1_device_details)
__attribute__((weak, alias("emif_get_device_details_sdp")));
#endif /* CONFIG_SYS_EMIF_PRECALCULATED_TIMING_REGS */
const u32 ext_phy_ctrl_const_base[] = {
0x01004010,
0x00001004,
0x04010040,
0x01004010,
0x00001004,
0x00000000,
0x00000000,
0x00000000,
0x80080080,
0x00800800,
0x08102040,
0x00000001,
0x540A8150,
0xA81502a0,
0x002A0540,
0x00000000,
0x00000000,
0x00000000,
0x00000077,
0x0
};
const u32 ddr3_ext_phy_ctrl_const_base_es1[] = {
0x01004010,
0x00001004,
0x04010040,
0x01004010,
0x00001004,
0x00000000,
0x00000000,
0x00000000,
0x80080080,
0x00800800,
0x08102040,
0x00000002,
0x0,
0x0,
0x0,
0x00000000,
0x00000000,
0x00000000,
0x00000057,
0x0
};
const u32 ddr3_ext_phy_ctrl_const_base_es2[] = {
0x50D4350D,
0x00000D43,
0x04010040,
0x01004010,
0x00001004,
0x00000000,
0x00000000,
0x00000000,
0x80080080,
0x00800800,
0x08102040,
0x00000002,
0x00000000,
0x00000000,
0x00000000,
0x00000000,
0x00000000,
0x00000000,
0x00000057,
0x0
};
/* Ext phy ctrl 1-35 regs */
const u32
dra_ddr3_ext_phy_ctrl_const_base_es1_emif1[] = {
0x10040100,
0x00910091,
0x00950095,
0x009B009B,
0x009E009E,
0x00980098,
0x00340034,
0x00350035,
0x00340034,
0x00310031,
0x00340034,
0x007F007F,
0x007F007F,
0x007F007F,
0x007F007F,
0x007F007F,
0x00480048,
0x004A004A,
0x00520052,
0x00550055,
0x00500050,
0x00000000,
0x00600020,
0x40011080,
0x08102040,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0
};
/* Ext phy ctrl 1-35 regs */
const u32
dra_ddr3_ext_phy_ctrl_const_base_es1_emif2[] = {
0x10040100,
0x00910091,
0x00950095,
0x009B009B,
0x009E009E,
0x00980098,
0x00330033,
0x00330033,
0x002F002F,
0x00320032,
0x00310031,
0x007F007F,
0x007F007F,
0x007F007F,
0x007F007F,
0x007F007F,
0x00520052,
0x00520052,
0x00470047,
0x00490049,
0x00500050,
0x00000000,
0x00600020,
0x40011080,
0x08102040,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0
};
/* Ext phy ctrl 1-35 regs */
const u32
dra_ddr3_ext_phy_ctrl_const_base_666MHz[] = {
0x10040100,
0x00A400A4,
0x00A900A9,
0x00B000B0,
0x00B000B0,
0x00A400A4,
0x00390039,
0x00320032,
0x00320032,
0x00320032,
0x00440044,
0x00550055,
0x00550055,
0x00550055,
0x00550055,
0x007F007F,
0x004D004D,
0x00430043,
0x00560056,
0x00540054,
0x00600060,
0x0,
0x00600020,
0x40010080,
0x08102040,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0,
0x0
};
const u32 dra_ddr3_ext_phy_ctrl_const_base_666MHz_es2[] = {
0x04040100,
0x006B009F,
0x006B00A2,
0x006B00A8,
0x006B00A8,
0x006B00B2,
0x002F002F,
0x002F002F,
0x002F002F,
0x002F002F,
0x002F002F,
0x00600073,
0x00600071,
0x0060007C,
0x0060007E,
0x00600084,
0x00400053,
0x00400051,
0x0040005C,
0x0040005E,
0x00400064,
0x00800080,
0x00800080,
0x40010080,
0x08102040,
0x005B008F,
0x005B0092,
0x005B0098,
0x005B0098,
0x005B00A2,
0x00300043,
0x00300041,
0x0030004C,
0x0030004E,
0x00300054,
0x00000077
};
const struct lpddr2_mr_regs mr_regs = {
.mr1 = MR1_BL_8_BT_SEQ_WRAP_EN_NWR_8,
.mr2 = 0x6,
.mr3 = 0x1,
.mr10 = MR10_ZQ_ZQINIT,
.mr16 = MR16_REF_FULL_ARRAY
};
void __weak emif_get_ext_phy_ctrl_const_regs(u32 emif_nr,
const u32 **regs,
u32 *size)
{
switch (omap_revision()) {
case OMAP5430_ES1_0:
case OMAP5430_ES2_0:
*regs = ext_phy_ctrl_const_base;
*size = ARRAY_SIZE(ext_phy_ctrl_const_base);
break;
case OMAP5432_ES1_0:
*regs = ddr3_ext_phy_ctrl_const_base_es1;
*size = ARRAY_SIZE(ddr3_ext_phy_ctrl_const_base_es1);
break;
case OMAP5432_ES2_0:
*regs = ddr3_ext_phy_ctrl_const_base_es2;
*size = ARRAY_SIZE(ddr3_ext_phy_ctrl_const_base_es2);
break;
case DRA752_ES1_0:
case DRA752_ES1_1:
case DRA752_ES2_0:
if (emif_nr == 1) {
*regs = dra_ddr3_ext_phy_ctrl_const_base_es1_emif1;
*size =
ARRAY_SIZE(dra_ddr3_ext_phy_ctrl_const_base_es1_emif1);
} else {
*regs = dra_ddr3_ext_phy_ctrl_const_base_es1_emif2;
*size =
ARRAY_SIZE(dra_ddr3_ext_phy_ctrl_const_base_es1_emif2);
}
break;
case DRA722_ES1_0:
*regs = dra_ddr3_ext_phy_ctrl_const_base_666MHz;
*size = ARRAY_SIZE(dra_ddr3_ext_phy_ctrl_const_base_666MHz);
break;
case DRA762_ES1_0:
case DRA762_ABZ_ES1_0:
case DRA762_ACD_ES1_0:
case DRA722_ES2_0:
case DRA722_ES2_1:
*regs = dra_ddr3_ext_phy_ctrl_const_base_666MHz_es2;
*size = ARRAY_SIZE(dra_ddr3_ext_phy_ctrl_const_base_666MHz_es2);
break;
default:
*regs = ddr3_ext_phy_ctrl_const_base_es2;
*size = ARRAY_SIZE(ddr3_ext_phy_ctrl_const_base_es2);
}
}
void get_lpddr2_mr_regs(const struct lpddr2_mr_regs **regs)
{
*regs = &mr_regs;
}
static void do_ext_phy_settings_omap5(u32 base, const struct emif_regs *regs)
{
u32 *ext_phy_ctrl_base = 0;
u32 *emif_ext_phy_ctrl_base = 0;
u32 emif_nr;
const u32 *ext_phy_ctrl_const_regs;
u32 i = 0;
u32 size;
emif_nr = (base == EMIF1_BASE) ? 1 : 2;
struct emif_reg_struct *emif = (struct emif_reg_struct *)base;
ext_phy_ctrl_base = (u32 *) &(regs->emif_ddr_ext_phy_ctrl_1);
emif_ext_phy_ctrl_base = (u32 *) &(emif->emif_ddr_ext_phy_ctrl_1);
/* Configure external phy control timing registers */
for (i = 0; i < EMIF_EXT_PHY_CTRL_TIMING_REG; i++) {
writel(*ext_phy_ctrl_base, emif_ext_phy_ctrl_base++);
/* Update shadow registers */
writel(*ext_phy_ctrl_base++, emif_ext_phy_ctrl_base++);
}
/*
* external phy 6-24 registers do not change with
* ddr frequency
*/
emif_get_ext_phy_ctrl_const_regs(emif_nr,
&ext_phy_ctrl_const_regs, &size);
for (i = 0; i < size; i++) {
writel(ext_phy_ctrl_const_regs[i],
emif_ext_phy_ctrl_base++);
/* Update shadow registers */
writel(ext_phy_ctrl_const_regs[i],
emif_ext_phy_ctrl_base++);
}
}
static void do_ext_phy_settings_dra7(u32 base, const struct emif_regs *regs)
{
struct emif_reg_struct *emif = (struct emif_reg_struct *)base;
u32 *emif_ext_phy_ctrl_base = 0;
u32 emif_nr;
const u32 *ext_phy_ctrl_const_regs;
u32 i, hw_leveling, size, phy;
emif_nr = (base == EMIF1_BASE) ? 1 : 2;
hw_leveling = regs->emif_rd_wr_lvl_rmp_ctl >> EMIF_REG_RDWRLVL_EN_SHIFT;
phy = regs->emif_ddr_phy_ctlr_1_init;
emif_ext_phy_ctrl_base = (u32 *)&(emif->emif_ddr_ext_phy_ctrl_1);
emif_get_ext_phy_ctrl_const_regs(emif_nr,
&ext_phy_ctrl_const_regs, &size);
writel(ext_phy_ctrl_const_regs[0], &emif_ext_phy_ctrl_base[0]);
writel(ext_phy_ctrl_const_regs[0], &emif_ext_phy_ctrl_base[1]);
/*
* Copy the predefined PHY register values
* if leveling is disabled.
*/
if (phy & EMIF_DDR_PHY_CTRL_1_RDLVLGATE_MASK_MASK)
for (i = 1; i < 6; i++) {
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2]);
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2 + 1]);
}
if (phy & EMIF_DDR_PHY_CTRL_1_RDLVL_MASK_MASK)
for (i = 6; i < 11; i++) {
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2]);
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2 + 1]);
}
if (phy & EMIF_DDR_PHY_CTRL_1_WRLVL_MASK_MASK)
for (i = 11; i < 25; i++) {
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2]);
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2 + 1]);
}
if (hw_leveling) {
/*
* Write the init value for HW levling to occur
*/
for (i = 21; i < 35; i++) {
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2]);
writel(ext_phy_ctrl_const_regs[i],
&emif_ext_phy_ctrl_base[i * 2 + 1]);
}
}
}
void do_ext_phy_settings(u32 base, const struct emif_regs *regs)
{
if (is_omap54xx())
do_ext_phy_settings_omap5(base, regs);
else
do_ext_phy_settings_dra7(base, regs);
}
#ifndef CONFIG_SYS_DEFAULT_LPDDR2_TIMINGS
static const struct lpddr2_ac_timings timings_jedec_532_mhz = {
.max_freq = 532000000,
.RL = 8,
.tRPab = 21,
.tRCD = 18,
.tWR = 15,
.tRASmin = 42,
.tRRD = 10,
.tWTRx2 = 15,
.tXSR = 140,
.tXPx2 = 15,
.tRFCab = 130,
.tRTPx2 = 15,
.tCKE = 3,
.tCKESR = 15,
.tZQCS = 90,
.tZQCL = 360,
.tZQINIT = 1000,
.tDQSCKMAXx2 = 11,
.tRASmax = 70,
.tFAW = 50
};
static const struct lpddr2_min_tck min_tck = {
.tRL = 3,
.tRP_AB = 3,
.tRCD = 3,
.tWR = 3,
.tRAS_MIN = 3,
.tRRD = 2,
.tWTR = 2,
.tXP = 2,
.tRTP = 2,
.tCKE = 3,
.tCKESR = 3,
.tFAW = 8
};
static const struct lpddr2_ac_timings *ac_timings[MAX_NUM_SPEEDBINS] = {
&timings_jedec_532_mhz
};
static const struct lpddr2_device_timings dev_4G_S4_timings = {
.ac_timings = ac_timings,
.min_tck = &min_tck,
};
/*
* List of status registers to be controlled back to control registers
* after initial leveling
* readreg, writereg
*/
const struct read_write_regs omap5_bug_00339_regs[] = {
{ 8, 5 },
{ 9, 6 },
{ 10, 7 },
{ 14, 8 },
{ 15, 9 },
{ 16, 10 },
{ 11, 2 },
{ 12, 3 },
{ 13, 4 },
{ 17, 11 },
{ 18, 12 },
{ 19, 13 },
};
const struct read_write_regs dra_bug_00339_regs[] = {
{ 7, 7 },
{ 8, 8 },
{ 9, 9 },
{ 10, 10 },
{ 11, 11 },
{ 12, 2 },
{ 13, 3 },
{ 14, 4 },
{ 15, 5 },
{ 16, 6 },
{ 17, 12 },
{ 18, 13 },
{ 19, 14 },
{ 20, 15 },
{ 21, 16 },
{ 22, 17 },
{ 23, 18 },
{ 24, 19 },
{ 25, 20 },
{ 26, 21}
};
const struct read_write_regs *get_bug_regs(u32 *iterations)
{
const struct read_write_regs *bug_00339_regs_ptr = NULL;
switch (omap_revision()) {
case OMAP5430_ES1_0:
case OMAP5430_ES2_0:
case OMAP5432_ES1_0:
case OMAP5432_ES2_0:
bug_00339_regs_ptr = omap5_bug_00339_regs;
*iterations = sizeof(omap5_bug_00339_regs)/
sizeof(omap5_bug_00339_regs[0]);
break;
case DRA762_ABZ_ES1_0:
case DRA762_ACD_ES1_0:
case DRA762_ES1_0:
case DRA752_ES1_0:
case DRA752_ES1_1:
case DRA752_ES2_0:
case DRA722_ES1_0:
case DRA722_ES2_0:
case DRA722_ES2_1:
bug_00339_regs_ptr = dra_bug_00339_regs;
*iterations = sizeof(dra_bug_00339_regs)/
sizeof(dra_bug_00339_regs[0]);
break;
default:
printf("\n Error: UnKnown SOC");
}
return bug_00339_regs_ptr;
}
void emif_get_device_timings_sdp(u32 emif_nr,
const struct lpddr2_device_timings **cs0_device_timings,
const struct lpddr2_device_timings **cs1_device_timings)
{
/* Identical devices on EMIF1 & EMIF2 */
*cs0_device_timings = &dev_4G_S4_timings;
*cs1_device_timings = &dev_4G_S4_timings;
}
void emif_get_device_timings(u32 emif_nr,
const struct lpddr2_device_timings **cs0_device_timings,
const struct lpddr2_device_timings **cs1_device_timings)
__attribute__((weak, alias("emif_get_device_timings_sdp")));
#endif /* CONFIG_SYS_DEFAULT_LPDDR2_TIMINGS */
@@ -0,0 +1,122 @@
/* SPDX-License-Identifier: GPL-2.0+ */
/*
* Secure entry function for CPU Core #1
*
* (C) Copyright 2016
* Texas Instruments, <www.ti.com>
*
* Author :
* Harinarayan Bhatta <harinarayan@ti.com>
*/
#include <config.h>
#include <asm/arch/omap.h>
#include <asm/omap_common.h>
#include <linux/linkage.h>
.arch_extension sec
#if !CONFIG_IS_ENABLED(SYS_DCACHE_OFF)
.global flush_dcache_range
#endif
#define AUX_CORE_BOOT_0 0x48281800
#define AUX_CORE_BOOT_1 0x48281804
#ifdef CONFIG_DRA7XX
/* DRA7xx ROM code function "startup_BootSlave". This function is where CPU1
* waits on WFE, polling on AUX_CORE_BOOT_x registers.
* This address is same for J6 and J6 Eco.
*/
#define ROM_FXN_STARTUP_BOOTSLAVE 0x00038a64
#endif
/* Assembly core where CPU1 is woken up into
* No need to save-restore registers, does not use stack.
*/
LENTRY(cpu1_entry)
ldr r4, =omap_smc_sec_cpu1_args
ldm r4, {r0,r1,r2,r3} @ Retrieve args
mov r6, #0xFF @ Indicate new Task call
mov r12, #0x00 @ Secure Service ID in R12
dsb
dmb
smc 0 @ SMC #0 to enter monitor mode
b .Lend @ exit at end of the service execution
nop
@ In case of IRQ happening in Secure, then ARM will branch here.
@ At that moment, IRQ will be pending and ARM will jump to Non Secure
@ IRQ handler
mov r12, #0xFE
dsb
dmb
smc 0 @ SMC #0 to enter monitor mode
.Lend:
ldr r4, =omap_smc_sec_cpu1_args
str r0, [r4, #0x10] @ save return value
ldr r4, =AUX_CORE_BOOT_0
mov r5, #0x0
str r5, [r4]
ldr r4, =ROM_FXN_STARTUP_BOOTSLAVE
sev @ Tell CPU0 we are done
bx r4 @ Jump back to ROM
END(cpu1_entry)
/*
* u32 omap_smc_sec_cpu1(u32 service, u32 proc_id, u32 flag, u32 *params);
*
* Makes a secure ROM/PPA call on CPU Core #1 on supported platforms.
* Assumes that CPU #1 is waiting in ROM code and not yet woken up or used by
* u-boot.
*/
ENTRY(omap_smc_sec_cpu1)
push {r4, r5, lr}
ldr r4, =omap_smc_sec_cpu1_args
stm r4, {r0,r1,r2,r3} @ Save args to memory
#if !CONFIG_IS_ENABLED(SYS_DCACHE_OFF)
mov r0, r4
mov r1, #CONFIG_SYS_CACHELINE_SIZE
add r1, r0, r1 @ dcache is not enabled on CPU1, so
blx flush_dcache_range @ flush the cache on args buffer
#endif
ldr r4, =AUX_CORE_BOOT_1
ldr r5, =cpu1_entry
str r5, [r4] @ Setup CPU1 entry function
ldr r4, =AUX_CORE_BOOT_0
mov r5, #0x10
str r5, [r4] @ Tell ROM to exit while loop
sev @ Wake up CPU1
.Lwait:
wfe @ Wait for CPU1 to finish
nop
ldr r5, [r4] @ Check if CPU1 is done
cmp r5, #0
bne .Lwait
ldr r4, =omap_smc_sec_cpu1_args
ldr r0, [r4, #0x10] @ Retrieve return value
pop {r4, r5, pc}
ENDPROC(omap_smc_sec_cpu1)
/*
* Buffer to save function arguments and return value for omap_smc_sec_cpu1
*/
.section .data
omap_smc_sec_cpu1_args:
#if !CONFIG_IS_ENABLED(SYS_DCACHE_OFF)
.balign CONFIG_SYS_CACHELINE_SIZE
.rept CONFIG_SYS_CACHELINE_SIZE/4
.word 0
.endr
#else
.rept 5
.word 0
.endr
#endif
END(omap_smc_sec_cpu1_args)