x86: apl: Use devicetree for FSP-M configuration

A the moment the FSP-M configuration is a mix of hard coded values and
devicetree properties.

This patch makes FSP-M full configurable from devicetree by adding
binding properties for all FSP-M parameters.

Co-developed-by: Wolfgang Wallner <wolfgang.wallner@br-automation.com>
Signed-off-by: Wolfgang Wallner <wolfgang.wallner@br-automation.com>
Signed-off-by: Bernhard Messerklinger <bernhard.messerklinger@br-automation.com>
Reviewed-by: Simon Glass <sjg@chromium.org>
Tested-by: Simon Glass <sjg@chromium.org> (Tested on coral)
[sjg: Fix a build error for coral]
Signed-off-by: Simon Glass <sjg@chromium.org>
[bmeng: Add __maybe_unused to fsp_update_config_from_dtb()]
Signed-off-by: Bin Meng <bmeng.cn@gmail.com>
This commit is contained in:
Bernhard Messerklinger 2020-05-18 12:33:34 +02:00 committed by Bin Meng
parent 832fee864c
commit 1fa6305fd6
7 changed files with 1244 additions and 164 deletions

View File

@ -10,6 +10,7 @@ obj-y += cpu_common.o
ifndef CONFIG_TPL_BUILD
obj-y += cpu.o
obj-y += punit.o
obj-y += fsp_bindings.o
ifdef CONFIG_SPL_BUILD
obj-y += fsp_m.o
endif

View File

@ -0,0 +1,616 @@
// SPDX-License-Identifier: GPL-2.0
/*
* Copyright 2020 B&R Industrial Automation GmbH - http://www.br-automation.com
*/
#include <common.h>
#include <dm.h>
#include <log.h>
#include <asm/arch/fsp_bindings.h>
/**
* read_u8_prop() - Read an u8 property from devicetree (scalar or array)
* @node: Valid node reference to read property from
* @name: Name of the property to read from
* @count: If the property is expected to be an array, this is the
* number of expected elements
* Set to 0 if the property is expected to be a scalar
* @dst: Pointer to destination of where to save the value(s) read
* from devicetree
*/
static void read_u8_prop(ofnode node, char *name, size_t count, u8 *dst)
{
u32 tmp;
const u8 *buf;
int ret;
if (count == 0) {
ret = ofnode_read_u32(node, name, &tmp);
if (ret == 0)
*dst = tmp;
} else {
buf = ofnode_read_u8_array_ptr(node, name, count);
if (buf)
memcpy(dst, buf, count);
}
}
/**
* read_u16_prop() - Read an u16 property from devicetree (scalar or array)
* @node: Valid node reference to read property from
* @name: Name of the property to read from
* @count: If the property is expected to be an array, this is the
* number of expected elements
* Set to 0 if the property is expected to be a scalar
* @dst: Pointer to destination of where to save the value(s) read
* from devicetree
* @return 0 on success, -ve on error
*/
static int read_u16_prop(ofnode node, char *name, size_t count, u16 *dst)
{
u32 tmp;
u32 buf[32];
int ret;
if (ARRAY_SIZE(buf) < count) {
debug("ERROR: %s buffer to small!\n", __func__);
return -ENOSPC;
}
if (count == 0) {
ret = ofnode_read_u32(node, name, &tmp);
if (ret == 0)
*dst = tmp;
} else {
ret = ofnode_read_u32_array(node, name, buf, count);
if (ret == 0)
for (int i = 0; i < count; i++)
dst[i] = buf[i];
}
return 0;
}
/**
* read_u32_prop() - Read an u32 property from devicetree (scalar or array)
* @node: Valid node reference to read property from
* @name: Name of the property to read from
* @count: If the property is expected to be an array, this is the
* number of expected elements
* set to 0 if the property is expected to be a scalar
* @dst: Pointer to destination of where to save the value(s) read
* from devicetree
*/
static void read_u32_prop(ofnode node, char *name, size_t count, u32 *dst)
{
if (count == 0)
ofnode_read_u32(node, name, dst);
else
ofnode_read_u32_array(node, name, dst, count);
}
/**
* read_string_prop() - Read a string property from devicetree
* @node: Valid node reference to read property from
* @name: Name of the property to read from
* @count: Size of the destination buffer
* @dst: Pointer to destination of where to save the values read
* from devicetree
*/
static void read_string_prop(ofnode node, char *name, size_t count, char *dst)
{
const char *string_buf;
if (count > 0) {
string_buf = ofnode_read_string(node, name);
if (string_buf)
strlcpy(dst, string_buf, count);
}
}
/**
* read_swizzle_prop() - Read a swizzle property from devicetree
* @node: Valid node reference to read property from
* @name: Name of the property to read from
* @count: Number of elements in the swizzle configuration
* @dst: pointer to destination of where to save the values read
* from devicetree
*/
static void read_swizzle_prop(ofnode node, char *name, size_t count, u8 *dst)
{
const struct lpddr4_chan_swizzle_cfg *sch;
/* Number of bytes to copy per DQS */
const size_t sz = DQ_BITS_PER_DQS;
const struct lpddr4_swizzle_cfg *swizzle_cfg;
swizzle_cfg = (const struct lpddr4_swizzle_cfg *)
ofnode_read_u8_array_ptr(node, name, count);
if (!swizzle_cfg)
return;
/*
* CH0_DQB byte lanes in the bit swizzle configuration field are
* not 1:1. The mapping within the swizzling field is:
* indices [0:7] - byte lane 1 (DQS1) DQ[8:15]
* indices [8:15] - byte lane 0 (DQS0) DQ[0:7]
* indices [16:23] - byte lane 3 (DQS3) DQ[24:31]
* indices [24:31] - byte lane 2 (DQS2) DQ[16:23]
*/
sch = &swizzle_cfg->phys[LP4_PHYS_CH0B];
memcpy(&dst[0 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS1], sz);
memcpy(&dst[1 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS0], sz);
memcpy(&dst[2 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS3], sz);
memcpy(&dst[3 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS2], sz);
/*
* CH0_DQA byte lanes in the bit swizzle configuration field are 1:1.
*/
sch = &swizzle_cfg->phys[LP4_PHYS_CH0A];
memcpy(&dst[4 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS0], sz);
memcpy(&dst[5 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS1], sz);
memcpy(&dst[6 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS2], sz);
memcpy(&dst[7 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS3], sz);
sch = &swizzle_cfg->phys[LP4_PHYS_CH1B];
memcpy(&dst[8 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS1], sz);
memcpy(&dst[9 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS0], sz);
memcpy(&dst[10 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS3], sz);
memcpy(&dst[11 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS2], sz);
/*
* CH0_DQA byte lanes in the bit swizzle configuration field are 1:1.
*/
sch = &swizzle_cfg->phys[LP4_PHYS_CH1A];
memcpy(&dst[12 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS0], sz);
memcpy(&dst[13 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS1], sz);
memcpy(&dst[14 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS2], sz);
memcpy(&dst[15 * DQ_BITS_PER_DQS], &sch->dqs[LP4_DQS3], sz);
}
/**
* fsp_update_config_from_dtb() - Read FSP config from devicetree node
* @node: Valid node reference to read property from
* @cfg: Pointer to FSP config structure
* @fsp_bindings: Binding describing which devicetree properties should
* be stored where in the FSP configuration structure
* The end of the list is declared by a NULL pointer in propname
* @return 0 on success, -ve on error
*
* This function reads the configuration for FSP from the provided
* devicetree node and saves it in the FSP configuration structure.
* Configuration options that are not present in the devicetree are
* left at their current value.
*/
__maybe_unused
static int fsp_update_config_from_dtb(ofnode node, u8 *cfg,
const struct fsp_binding *fsp_bindings)
{
const struct fsp_binding *fspb;
int ret;
for (int i = 0; fsp_bindings[i].propname; i++) {
fspb = &fsp_bindings[i];
switch (fspb->type) {
case FSP_UINT8:
read_u8_prop(node, fspb->propname, fspb->count,
&cfg[fspb->offset]);
break;
case FSP_UINT16:
ret = read_u16_prop(node, fspb->propname, fspb->count,
(u16 *)&cfg[fspb->offset]);
if (ret)
return ret;
break;
case FSP_UINT32:
read_u32_prop(node, fspb->propname, fspb->count,
(u32 *)&cfg[fspb->offset]);
break;
case FSP_STRING:
read_string_prop(node, fspb->propname, fspb->count,
(char *)&cfg[fspb->offset]);
break;
case FSP_LPDDR4_SWIZZLE:
read_swizzle_prop(node, fspb->propname, fspb->count,
&cfg[fspb->offset]);
break;
}
}
return 0;
}
#if defined(CONFIG_SPL_BUILD)
const struct fsp_binding fsp_m_bindings[] = {
{
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, serial_debug_port_address),
.propname = "fspm,serial-debug-port-address",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, serial_debug_port_type),
.propname = "fspm,serial-debug-port-type",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, serial_debug_port_device),
.propname = "fspm,serial-debug-port-device",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, serial_debug_port_stride_size),
.propname = "fspm,serial-debug-port-stride-size",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, mrc_fast_boot),
.propname = "fspm,mrc-fast-boot",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, igd),
.propname = "fspm,igd",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, igd_dvmt50_pre_alloc),
.propname = "fspm,igd-dvmt50-pre-alloc",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, igd_aperture_size),
.propname = "fspm,igd-aperture-size",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, gtt_size),
.propname = "fspm,gtt-size",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, primary_video_adaptor),
.propname = "fspm,primary-video-adaptor",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, package),
.propname = "fspm,package",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, profile),
.propname = "fspm,profile",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, memory_down),
.propname = "fspm,memory-down",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, ddr3_l_page_size),
.propname = "fspm,ddr3-l-page-size",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, ddr3_lasr),
.propname = "fspm,ddr3-lasr",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, scrambler_support),
.propname = "fspm,scrambler-support",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, interleaved_mode),
.propname = "fspm,interleaved-mode",
}, {
.type = FSP_UINT16,
.offset = offsetof(struct fsp_m_config, channel_hash_mask),
.propname = "fspm,channel-hash-mask",
}, {
.type = FSP_UINT16,
.offset = offsetof(struct fsp_m_config, slice_hash_mask),
.propname = "fspm,slice-hash-mask",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, channels_slices_enable),
.propname = "fspm,channels-slices-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, min_ref_rate2x_enable),
.propname = "fspm,min-ref-rate2x-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, dual_rank_support_enable),
.propname = "fspm,dual-rank-support-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, rmt_mode),
.propname = "fspm,rmt-mode",
}, {
.type = FSP_UINT16,
.offset = offsetof(struct fsp_m_config, memory_size_limit),
.propname = "fspm,memory-size-limit",
}, {
.type = FSP_UINT16,
.offset = offsetof(struct fsp_m_config, low_memory_max_value),
.propname = "fspm,low-memory-max-value",
}, {
.type = FSP_UINT16,
.offset = offsetof(struct fsp_m_config, high_memory_max_value),
.propname = "fspm,high-memory-max-value",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, disable_fast_boot),
.propname = "fspm,disable-fast-boot",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, dimm0_spd_address),
.propname = "fspm,dimm0-spd-address",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, dimm1_spd_address),
.propname = "fspm,dimm1-spd-address",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].rank_enable),
.propname = "fspm,ch0-rank-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].device_width),
.propname = "fspm,ch0-device-width",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].dram_density),
.propname = "fspm,ch0-dram-density",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].option),
.propname = "fspm,ch0-option",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].odt_config),
.propname = "fspm,ch0-odt-config",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].tristate_clk1),
.propname = "fspm,ch0-tristate-clk1",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].mode2_n),
.propname = "fspm,ch0-mode2-n",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[0].odt_levels),
.propname = "fspm,ch0-odt-levels",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].rank_enable),
.propname = "fspm,ch1-rank-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].device_width),
.propname = "fspm,ch1-device-width",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].dram_density),
.propname = "fspm,ch1-dram-density",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].option),
.propname = "fspm,ch1-option",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].odt_config),
.propname = "fspm,ch1-odt-config",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].tristate_clk1),
.propname = "fspm,ch1-tristate-clk1",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].mode2_n),
.propname = "fspm,ch1-mode2-n",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[1].odt_levels),
.propname = "fspm,ch1-odt-levels",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].rank_enable),
.propname = "fspm,ch2-rank-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].device_width),
.propname = "fspm,ch2-device-width",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].dram_density),
.propname = "fspm,ch2-dram-density",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].option),
.propname = "fspm,ch2-option",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].odt_config),
.propname = "fspm,ch2-odt-config",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].tristate_clk1),
.propname = "fspm,ch2-tristate-clk1",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].mode2_n),
.propname = "fspm,ch2-mode2-n",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[2].odt_levels),
.propname = "fspm,ch2-odt-levels",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].rank_enable),
.propname = "fspm,ch3-rank-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].device_width),
.propname = "fspm,ch3-device-width",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].dram_density),
.propname = "fspm,ch3-dram-density",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].option),
.propname = "fspm,ch3-option",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].odt_config),
.propname = "fspm,ch3-odt-config",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].tristate_clk1),
.propname = "fspm,ch3-tristate-clk1",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].mode2_n),
.propname = "fspm,ch3-mode2-n",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, chan[3].odt_levels),
.propname = "fspm,ch3-odt-levels",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, rmt_check_run),
.propname = "fspm,rmt-check-run",
}, {
.type = FSP_UINT16,
.offset = offsetof(struct fsp_m_config,
rmt_margin_check_scale_high_threshold),
.propname = "fspm,rmt-margin-check-scale-high-threshold",
}, {
.type = FSP_LPDDR4_SWIZZLE,
.offset = offsetof(struct fsp_m_config, ch_bit_swizzling),
.propname = "fspm,ch-bit-swizzling",
.count = SIZE_OF_MEMBER(struct fsp_m_config, ch_bit_swizzling) /
SIZE_OF_MEMBER(struct fsp_m_config, ch_bit_swizzling[0][0])
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, msg_level_mask),
.propname = "fspm,msg-level-mask",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, pre_mem_gpio_table_pin_num),
.propname = "fspm,pre-mem-gpio-table-pin-num",
.count = ARRAY_SIZE_OF_MEMBER(struct fsp_m_config,
pre_mem_gpio_table_pin_num),
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, pre_mem_gpio_table_ptr),
.propname = "fspm,pre-mem-gpio-table-ptr",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, pre_mem_gpio_table_entry_num),
.propname = "fspm,pre-mem-gpio-table-entry-num",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, enhance_port8xh_decoding),
.propname = "fspm,enhance-port8xh-decoding",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, spd_write_enable),
.propname = "fspm,spd-write-enable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, mrc_data_saving),
.propname = "fspm,mrc-data-saving",
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, oem_loading_base),
.propname = "fspm,oem-loading-base",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, oem_file_name),
.propname = "fspm,oem-file-name",
.count = ARRAY_SIZE_OF_MEMBER(struct fsp_m_config, oem_file_name),
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, mrc_boot_data_ptr),
.propname = "fspm,mrc-boot-data-ptr",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, e_mmc_trace_len),
.propname = "fspm,e-mmc-trace-len",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, skip_cse_rbp),
.propname = "fspm,skip-cse-rbp",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, npk_en),
.propname = "fspm,npk-en",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, fw_trace_en),
.propname = "fspm,fw-trace-en",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, fw_trace_destination),
.propname = "fspm,fw-trace-destination",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, recover_dump),
.propname = "fspm,recover-dump",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, msc0_wrap),
.propname = "fspm,msc0-wrap",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, msc1_wrap),
.propname = "fspm,msc1-wrap",
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, msc0_size),
.propname = "fspm,msc0-size",
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, msc1_size),
.propname = "fspm,msc1-size",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, pti_mode),
.propname = "fspm,pti-mode",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, pti_training),
.propname = "fspm,pti-training",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, pti_speed),
.propname = "fspm,pti-speed",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, punit_mlvl),
.propname = "fspm,punit-mlvl",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, pmc_mlvl),
.propname = "fspm,pmc-mlvl",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, sw_trace_en),
.propname = "fspm,sw-trace-en",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, periodic_retraining_disable),
.propname = "fspm,periodic-retraining-disable",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, enable_reset_system),
.propname = "fspm,enable-reset-system",
}, {
.type = FSP_UINT8,
.offset = offsetof(struct fsp_m_config, enable_s3_heci2),
.propname = "fspm,enable-s3-heci2",
}, {
.type = FSP_UINT32,
.offset = offsetof(struct fsp_m_config, variable_nvs_buffer_ptr),
.propname = "fspm,variable-nvs-buffer-ptr",
}, {
.propname = NULL
}
};
int fsp_m_update_config_from_dtb(ofnode node, struct fsp_m_config *cfg)
{
return fsp_update_config_from_dtb(node, (u8 *)cfg, fsp_m_bindings);
}
#endif

View File

@ -8,184 +8,27 @@
#include <dm.h>
#include <log.h>
#include <asm/arch/iomap.h>
#include <asm/arch/fsp/fsp_configs.h>
#include <asm/arch/fsp/fsp_m_upd.h>
#include <asm/arch/fsp_bindings.h>
#include <asm/fsp2/fsp_internal.h>
#include <dm/uclass-internal.h>
/*
* ODT settings:
* If ODT PIN to LP4 DRAM is pulled HIGH for ODT_A and HIGH for ODT_B,
* choose ODT_A_B_HIGH_HIGH. If ODT PIN to LP4 DRAM is pulled HIGH for ODT_A
* and LOW for ODT_B, choose ODT_A_B_HIGH_LOW.
*
* Note that the enum values correspond to the interpreted UPD fields
* within Ch[3:0]_OdtConfig parameters.
*/
enum {
ODT_A_B_HIGH_LOW = 0 << 1,
ODT_A_B_HIGH_HIGH = 1 << 1,
N_WR_24 = 1 << 5,
};
/*
* LPDDR4 helper routines for configuring the memory UPD for LPDDR4 operation.
* There are four physical LPDDR4 channels, each 32-bits wide. There are two
* logical channels using two physical channels together to form a 64-bit
* interface to memory for each logical channel.
*/
enum {
LP4_PHYS_CH0A,
LP4_PHYS_CH0B,
LP4_PHYS_CH1A,
LP4_PHYS_CH1B,
LP4_NUM_PHYS_CHANNELS,
};
/*
* The DQs within a physical channel can be bit-swizzled within each byte.
* Within a channel the bytes can be swapped, but the DQs need to be routed
* with the corresponding DQS (strobe).
*/
enum {
LP4_DQS0,
LP4_DQS1,
LP4_DQS2,
LP4_DQS3,
LP4_NUM_BYTE_LANES,
DQ_BITS_PER_DQS = 8,
};
/* Provide bit swizzling per DQS and byte swapping within a channel */
struct lpddr4_chan_swizzle_cfg {
u8 dqs[LP4_NUM_BYTE_LANES][DQ_BITS_PER_DQS];
};
struct lpddr4_swizzle_cfg {
struct lpddr4_chan_swizzle_cfg phys[LP4_NUM_PHYS_CHANNELS];
};
static void setup_sdram(struct fsp_m_config *cfg,
const struct lpddr4_swizzle_cfg *swizzle_cfg)
{
const struct lpddr4_chan_swizzle_cfg *sch;
/* Number of bytes to copy per DQS */
const size_t sz = DQ_BITS_PER_DQS;
int chan;
cfg->memory_down = 1;
cfg->scrambler_support = 1;
cfg->channel_hash_mask = 0x36;
cfg->slice_hash_mask = 9;
cfg->interleaved_mode = 2;
cfg->channels_slices_enable = 0;
cfg->min_ref_rate2x_enable = 0;
cfg->dual_rank_support_enable = 1;
/* LPDDR4 is memory down so no SPD addresses */
cfg->dimm0_spd_address = 0;
cfg->dimm1_spd_address = 0;
for (chan = 0; chan < 4; chan++) {
struct fsp_ram_channel *ch = &cfg->chan[chan];
ch->rank_enable = 1;
ch->device_width = 1;
ch->dram_density = 2;
ch->option = 3;
ch->odt_config = ODT_A_B_HIGH_HIGH;
}
/*
* CH0_DQB byte lanes in the bit swizzle configuration field are
* not 1:1. The mapping within the swizzling field is:
* indices [0:7] - byte lane 1 (DQS1) DQ[8:15]
* indices [8:15] - byte lane 0 (DQS0) DQ[0:7]
* indices [16:23] - byte lane 3 (DQS3) DQ[24:31]
* indices [24:31] - byte lane 2 (DQS2) DQ[16:23]
*/
sch = &swizzle_cfg->phys[LP4_PHYS_CH0B];
memcpy(&cfg->ch_bit_swizzling[0][0], &sch->dqs[LP4_DQS1], sz);
memcpy(&cfg->ch_bit_swizzling[0][8], &sch->dqs[LP4_DQS0], sz);
memcpy(&cfg->ch_bit_swizzling[0][16], &sch->dqs[LP4_DQS3], sz);
memcpy(&cfg->ch_bit_swizzling[0][24], &sch->dqs[LP4_DQS2], sz);
/*
* CH0_DQA byte lanes in the bit swizzle configuration field are 1:1.
*/
sch = &swizzle_cfg->phys[LP4_PHYS_CH0A];
memcpy(&cfg->ch_bit_swizzling[1][0], &sch->dqs[LP4_DQS0], sz);
memcpy(&cfg->ch_bit_swizzling[1][8], &sch->dqs[LP4_DQS1], sz);
memcpy(&cfg->ch_bit_swizzling[1][16], &sch->dqs[LP4_DQS2], sz);
memcpy(&cfg->ch_bit_swizzling[1][24], &sch->dqs[LP4_DQS3], sz);
sch = &swizzle_cfg->phys[LP4_PHYS_CH1B];
memcpy(&cfg->ch_bit_swizzling[2][0], &sch->dqs[LP4_DQS1], sz);
memcpy(&cfg->ch_bit_swizzling[2][8], &sch->dqs[LP4_DQS0], sz);
memcpy(&cfg->ch_bit_swizzling[2][16], &sch->dqs[LP4_DQS3], sz);
memcpy(&cfg->ch_bit_swizzling[2][24], &sch->dqs[LP4_DQS2], sz);
/*
* CH0_DQA byte lanes in the bit swizzle configuration field are 1:1.
*/
sch = &swizzle_cfg->phys[LP4_PHYS_CH1A];
memcpy(&cfg->ch_bit_swizzling[3][0], &sch->dqs[LP4_DQS0], sz);
memcpy(&cfg->ch_bit_swizzling[3][8], &sch->dqs[LP4_DQS1], sz);
memcpy(&cfg->ch_bit_swizzling[3][16], &sch->dqs[LP4_DQS2], sz);
memcpy(&cfg->ch_bit_swizzling[3][24], &sch->dqs[LP4_DQS3], sz);
}
int fspm_update_config(struct udevice *dev, struct fspm_upd *upd)
{
struct fsp_m_config *cfg = &upd->config;
struct fspm_arch_upd *arch = &upd->arch;
ofnode node;
arch->nvs_buffer_ptr = NULL;
prepare_mrc_cache(upd);
arch->stack_base = (void *)0xfef96000;
arch->boot_loader_tolum_size = 0;
arch->boot_mode = FSP_BOOT_WITH_FULL_CONFIGURATION;
cfg->serial_debug_port_type = 2;
cfg->serial_debug_port_device = 2;
cfg->serial_debug_port_stride_size = 2;
cfg->serial_debug_port_address = 0;
cfg->package = 1;
/* Don't enforce a memory size limit */
cfg->memory_size_limit = 0;
cfg->low_memory_max_value = 2048; /* 2 GB */
/* No restrictions on memory above 4GiB */
cfg->high_memory_max_value = 0;
node = dev_ofnode(dev);
if (!ofnode_valid(node))
return log_msg_ret("fsp-m settings", -ENOENT);
/* Always default to attempt to use saved training data */
cfg->disable_fast_boot = 0;
const u8 *swizzle_data;
swizzle_data = dev_read_u8_array_ptr(dev, "lpddr4-swizzle",
LP4_NUM_BYTE_LANES *
DQ_BITS_PER_DQS *
LP4_NUM_PHYS_CHANNELS);
if (!swizzle_data)
return log_msg_ret("Cannot read swizzel data", -EINVAL);
setup_sdram(cfg, (struct lpddr4_swizzle_cfg *)swizzle_data);
cfg->pre_mem_gpio_table_ptr = 0;
cfg->profile = 0xb;
cfg->msg_level_mask = 0;
/* other */
cfg->skip_cse_rbp = 1;
cfg->periodic_retraining_disable = 0;
cfg->enable_s3_heci2 = 0;
return 0;
return fsp_m_update_config_from_dtb(node, cfg);
}
/*

View File

@ -21,6 +21,7 @@
#include <asm/arch-apollolake/iomap.h>
#include <asm/arch-apollolake/pm.h>
#include <dt-bindings/clock/intel-clock.h>
#include <asm/arch-apollolake/fsp/fsp_m_upd.h>
/ {
model = "Google Coral";
@ -436,7 +437,42 @@
PAD_CFG_NF(LPC_FRAMEB, NATIVE, DEEP, NF1) /* LPC_FRAME_N */
>;
lpddr4-swizzle = /bits/ 8 <
fspm,package = <PACKAGE_BGA>;
fspm,profile = <PROFILE_LPDDR4_2400_24_22_22>;
fspm,memory-down = <MEMORY_DOWN_YES>;
fspm,scrambler-support = <1>;
fspm,interleaved-mode = <INTERLEAVED_MODE_ENABLE>;
fspm,channel-hash-mask = <0x36>;
fspm,slice-hash-mask = <0x9>;
fspm,dual-rank-support-enable = <1>;
fspm,low-memory-max-value = <2048>;
fspm,ch0-rank-enable = <1>;
fspm,ch0-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch0-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch0-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch0-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,ch1-rank-enable = <1>;
fspm,ch1-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch1-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch1-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch1-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,ch2-rank-enable = <1>;
fspm,ch2-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch2-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch2-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch2-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,ch3-rank-enable = <1>;
fspm,ch3-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch3-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch3-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch3-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,fspm,skip-cse-rbp = <1>;
fspm,ch-bit-swizzling = /bits/ 8 <
/* LP4_PHYS_CH0A */
/* DQA[0:7] pins of LPDDR4 module */

View File

@ -7,6 +7,7 @@
#ifndef __ASM_ARCH_FSP_M_UDP_H
#define __ASM_ARCH_FSP_M_UDP_H
#ifndef __ASSEMBLY__
#include <asm/fsp2/fsp_api.h>
#define FSP_DRAM_CHANNELS 4
@ -119,5 +120,172 @@ struct __packed fspm_upd {
u8 unused_upd_space2[158];
u16 upd_terminator;
};
#endif
#define SERIAL_DEBUG_PORT_TYPE_NONE 0
#define SERIAL_DEBUG_PORT_TYPE_IO 1
#define SERIAL_DEBUG_PORT_TYPE_MMIO 2
#define SERIAL_DEBUG_PORT_DEVICE_UART0 0
#define SERIAL_DEBUG_PORT_DEVICE_UART1 1
#define SERIAL_DEBUG_PORT_DEVICE_UART2 2
#define SERIAL_DEBUG_PORT_DEVICE_EXTERNAL 3
#define SERIAL_DEBUG_PORT_STRIDE_SIZE_1 0
#define SERIAL_DEBUG_PORT_STRIDE_SIZE_4 2
#define IGD_DVMT_50_PRE_ALLOC_64M 0x02
#define IGD_DVMT_50_PRE_ALLOC_96M 0x03
#define IGD_DVMT_50_PRE_ALLOC_128M 0x04
#define IGD_DVMT_50_PRE_ALLOC_160M 0x05
#define IGD_DVMT_50_PRE_ALLOC_192M 0x06
#define IGD_DVMT_50_PRE_ALLOC_224M 0x07
#define IGD_DVMT_50_PRE_ALLOC_256M 0x08
#define IGD_DVMT_50_PRE_ALLOC_288M 0x09
#define IGD_DVMT_50_PRE_ALLOC_320M 0x0a
#define IGD_DVMT_50_PRE_ALLOC_352M 0x0b
#define IGD_DVMT_50_PRE_ALLOC_384M 0x0c
#define IGD_DVMT_50_PRE_ALLOC_416M 0x0d
#define IGD_DVMT_50_PRE_ALLOC_448M 0x0e
#define IGD_DVMT_50_PRE_ALLOC_480M 0x0f
#define IGD_DVMT_50_PRE_ALLOC_512M 0x10
#define IGD_APERTURE_SIZE_128M 0x1
#define IGD_APERTURE_SIZE_256M 0x2
#define IGD_APERTURE_SIZE_512M 0x3
#define GTT_SIZE_2M 1
#define GTT_SIZE_4M 2
#define GTT_SIZE_8M 3
#define PRIMARY_VIDEO_ADAPTER_AUTO 0
#define PRIMARY_VIDEO_ADAPTER_IGD 2
#define PRIMARY_VIDEO_ADAPTER_PCI 3
#define PACKAGE_SODIMM 0
#define PACKAGE_BGA 1
#define PACKAGE_BGA_MIRRORED 2
#define PACKAGE_SODIMM_UDIMM_RANK_MIRRORED 3
#define PROFILE_WIO2_800_7_8_8 0x1
#define PROFILE_WIO2_1066_9_10_10 0x2
#define PROFILE_LPDDR3_1066_8_10_10 0x3
#define PROFILE_LPDDR3_1333_10_12_12 0x4
#define PROFILE_LPDDR3_1600_12_15_15 0x5
#define PROFILE_LPDDR3_1866_14_17_17 0x6
#define PROFILE_LPDDR3_2133_16_20_20 0x7
#define PROFILE_LPDDR4_1066_10_10_10 0x8
#define PROFILE_LPDDR4_1600_14_15_15 0x9
#define PROFILE_LPDDR4_2133_20_20_20 0xa
#define PROFILE_LPDDR4_2400_24_22_22 0xb
#define PROFILE_LPDDR4_2666_24_24_24 0xc
#define PROFILE_LPDDR4_2933_28_27_27 0xd
#define PROFILE_LPDDR4_3200_28_29_29 0xe
#define PROFILE_DDR3_1066_6_6_6 0xf
#define PROFILE_DDR3_1066_7_7_7 0x10
#define PROFILE_DDR3_1066_8_8_8 0x11
#define PROFILE_DDR3_1333_7_7_7 0x12
#define PROFILE_DDR3_1333_8_8_8 0x13
#define PROFILE_DDR3_1333_9_9_9 0x14
#define PROFILE_DDR3_1333_10_10_10 0x15
#define PROFILE_DDR3_1600_8_8_8 0x16
#define PROFILE_DDR3_1600_9_9_9 0x17
#define PROFILE_DDR3_1600_10_10_10 0x18
#define PROFILE_DDR3_1600_11_11_11 0x19
#define PROFILE_DDR3_1866_10_10_10 0x1a
#define PROFILE_DDR3_1866_11_11_11 0x1b
#define PROFILE_DDR3_1866_12_12_12 0x1c
#define PROFILE_DDR3_1866_13_13_13 0x1d
#define PROFILE_DDR3_2133_11_11_11 0x1e
#define PROFILE_DDR3_2133_12_12_12 0x1f
#define PROFILE_DDR3_2133_13_13_13 0x20
#define PROFILE_DDR3_2133_14_14_14 0x21
#define PROFILE_DDR4_1333_10_10_10 0x22
#define PROFILE_DDR4_1600_10_10_10 0x23
#define PROFILE_DDR4_1600_11_11_11 0x24
#define PROFILE_DDR4_1600_12_12_12 0x25
#define PROFILE_DDR4_1866_12_12_12 0x26
#define PROFILE_DDR4_1866_13_13_13 0x27
#define PROFILE_DDR4_1866_14_14_14 0x28
#define PROFILE_DDR4_2133_14_14_14 0x29
#define PROFILE_DDR4_2133_15_15_15 0x2a
#define PROFILE_DDR4_2133_16_16_16 0x2b
#define PROFILE_DDR4_2400_15_15_15 0x2c
#define PROFILE_DDR4_2400_16_16_16 0x2d
#define PROFILE_DDR4_2400_17_17_17 0x2e
#define PROFILE_DDR4_2400_18_18_18 0x2f
#define MEMORY_DOWN_NO 0
#define MEMORY_DOWN_YES 1
#define MEMORY_DOWN_MD_SODIMM 2
#define MEMORY_DOWN_LPDDR4 3
#define DDR3L_PAGE_SIZE_1KB 1
#define DDR3L_PAGE_SIZE_2KB 2
#define INTERLEAVED_MODE_DISABLE 0
#define INTERLEAVED_MODE_ENABLE 2
#define RMT_MODE_DISABLE 0
#define RMT_MODE_ENABLE 3
#define CHX_DEVICE_WIDTH_X8 0
#define CHX_DEVICE_WIDTH_X16 1
#define CHX_DEVICE_WIDTH_X32 2
#define CHX_DEVICE_WIDTH_X64 3
#define CHX_DEVICE_DENSITY_4GB 0
#define CHX_DEVICE_DENSITY_6GB 1
#define CHX_DEVICE_DENSITY_8GB 2
#define CHX_DEVICE_DENSITY_12GB 3
#define CHX_DEVICE_DENSITY_16GB 4
#define CHX_DEVICE_DENSITY_2GB 5
#define CHX_OPTION_RANK_INTERLEAVING 0x1
#define CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE 0x2
#define CHX_OPTION_CH1_CLK_DISABLE 0x4
#define CHX_OPTION_ADDRESS_MAP_2KB 0x10
#define CHX_ODT_CONFIG_DDR3_RX_ODT 0x1
#define CHX_ODT_CONFIG_DDR4_CA_ODT 0x2
#define CHX_ODT_CONFIG_DDR3L_TX_ODT 0x10
#define CHX_MODE2N_AUTO 0
#define CHX_MODE2N_FORCE 1
#define CHX_ODT_LEVELS_CONNECTED_TO_SOC 0x0
#define CHX_ODT_LEVELS_HELD_HIGH 0x1
#define NPK_EN_DISABLE 0
#define NPK_EN_ENABLE 1
#define NPK_EN_DEBUGGER 2
#define NPK_EN_AUTO 3
#define FW_TRACE_DESTINATION_NPK_TRACE_TO_MEMORY 1
#define FW_TRACE_DESTINATION_NPK_TRACE_TO_DCI 2
#define FW_TRACE_DESTINATION_NPK_NPK_TRACE_TO_BSSB 3
#define FW_TRACE_DESTINATION_NPK_TRACE_TO_PTI 4
#define MSC_X_WRAP_0 0
#define MSC_X_WRAP_1 1
#define MSC_X_SIZE_0M 0
#define MSC_X_SIZE_1M 1
#define MSC_X_SIZE_8M 2
#define MSC_X_SIZE_64M 3
#define MSC_X_SIZE_128M 4
#define MSC_X_SIZE_256M 5
#define MSC_X_SIZE_512M 6
#define MSC_X_SIZE_1GB 7
#define PTI_MODE_0 0
#define PTI_MODE_x4 1
#define PTI_MODE_x8 2
#define PTI_MODE_x12 3
#define PTI_MODE_x16 4
#define PTI_SPEED_FULL 0
#define PTI_SPEED_HALF 1
#define PTI_SPEED_QUARTER 2
#endif

View File

@ -0,0 +1,96 @@
/* SPDX-License-Identifier: GPL-2.0 */
/*
* Copyright 2019 Google LLC
* Copyright 2020 B&R Industrial Automation GmbH - http://www.br-automation.com
*/
#ifndef __ASM_ARCH_FSP_BINDINGS_H
#define __ASM_ARCH_FSP_BINDINGS_H
#include <asm/arch/fsp/fsp_m_upd.h>
#define ARRAY_SIZE_OF_MEMBER(s, m) (ARRAY_SIZE((((s *)0)->m)))
#define SIZE_OF_MEMBER(s, m) (sizeof((((s *)0)->m)))
enum conf_type {
FSP_UINT8,
FSP_UINT16,
FSP_UINT32,
FSP_STRING,
FSP_LPDDR4_SWIZZLE,
};
/**
* struct fsp_binding - Binding describing devicetree/FSP relationships
* @offset: Offset within the FSP config structure
* @propname: Name of property to read
* @type: Type of the property to read
* @count: If the property is expected to be an array, this is the
* number of expected elements
* Set to 0 if the property is expected to be a scalar
*
* The struct fsp_binding is used to describe the relationship between
* values stored in devicetree and where they are placed in the FSP
* configuration structure.
*/
struct fsp_binding {
size_t offset;
char *propname;
enum conf_type type;
size_t count;
};
/*
* LPDDR4 helper routines for configuring the memory UPD for LPDDR4 operation.
* There are four physical LPDDR4 channels, each 32-bits wide. There are two
* logical channels using two physical channels together to form a 64-bit
* interface to memory for each logical channel.
*/
enum {
LP4_PHYS_CH0A,
LP4_PHYS_CH0B,
LP4_PHYS_CH1A,
LP4_PHYS_CH1B,
LP4_NUM_PHYS_CHANNELS,
};
/*
* The DQs within a physical channel can be bit-swizzled within each byte.
* Within a channel the bytes can be swapped, but the DQs need to be routed
* with the corresponding DQS (strobe).
*/
enum {
LP4_DQS0,
LP4_DQS1,
LP4_DQS2,
LP4_DQS3,
LP4_NUM_BYTE_LANES,
DQ_BITS_PER_DQS = 8,
};
/* Provide bit swizzling per DQS and byte swapping within a channel */
struct lpddr4_chan_swizzle_cfg {
u8 dqs[LP4_NUM_BYTE_LANES][DQ_BITS_PER_DQS];
};
struct lpddr4_swizzle_cfg {
struct lpddr4_chan_swizzle_cfg phys[LP4_NUM_PHYS_CHANNELS];
};
/**
* fsp_m_update_config_from_dtb() - Read FSP-M config from devicetree node
* @node: Valid node reference to read property from
* @cfg: Pointer to FSP-M config structure
* @return 0 on success, -ve on error
*
* This function reads the configuration for FSP-M from the provided
* devicetree node and saves it in the FSP-M configuration structure.
* Configuration options that are not present in the devicetree are
* left at their current value.
*/
int fsp_m_update_config_from_dtb(ofnode node, struct fsp_m_config *cfg);
#endif

View File

@ -0,0 +1,320 @@
* Intel FSP-M configuration
Several Intel platforms require the execution of the Intel FSP (Firmware
Support Package) for initialization. The FSP consists of multiple parts, one
of which is the FSP-M (Memory initialization phase).
This binding applies to the FSP-M for the Intel Apollo Lake SoC.
The FSP-M is available on Github [1].
For detailed information on the FSP-M parameters see the documentation in
FSP/ApolloLakeFspBinPkg/Docs [2].
The properties of this binding are all optional. If no properties are set the
values of the FSP-M are used.
[1] https://github.com/IntelFsp/FSP
[2] https://github.com/IntelFsp/FSP/tree/master/ApolloLakeFspBinPkg/Docs
Optional properties:
- fspm,serial-debug-port-address: Debug Serial Port Base address
- fspm,serial-debug-port-type: Debug Serial Port Type
0: NONE
1: I/O
2: MMIO (default)
- fspm,serial-debug-port-device: Serial Port Debug Device
0: SOC UART0
1: SOC UART1
2: SOC UART2 (default)
3: External Device
- fspm,serial-debug-port-stride-size: Debug Serial Port Stride Size
0: 1
2: 4 (default)
- fspm,mrc-fast-boot: Memory Fast Boot
- fspm,igd: Integrated Graphics Device
- fspm,igd-dvmt50-pre-alloc: DVMT Pre-Allocated
0x02: 64 MB (default)
0x03: 96 MB
0x04: 128 MB
0x05: 160 MB
0x06: 192 MB
0x07: 224 MB
0x08: 256 MB
0x09: 288 MB
0x0A: 320 MB
0x0B: 352 MB
0x0C: 384 MB
0x0D: 416 MB
0x0E: 448 MB
0x0F: 480 MB
0x10: 512 MB
- fspm,aperture-size: Aperture Size
0x1: 128 MB (default)
0x2: 256 MB
0x3: 512 MB
- fspm,gtt-size: GTT Size
0x1: 2 MB
0x2: 4 MB
0x3: 8 MB (default)
- fspm,primary-video-adaptor: Primary Display
0x0: AUTO (default)
0x2: IGD
0x3: PCI
- fspm,package: Package
0x0: SODIMM (default)
0x1: BGA
0x2: BGA mirrored (LPDDR3 only)
0x3: SODIMM/UDIMM with Rank 1 Mirrored (DDR3L)
- fspm,profile: Profile
0x01: WIO2_800_7_8_8
0x02: WIO2_1066_9_10_10
0x03: LPDDR3_1066_8_10_10
0x04: LPDDR3_1333_10_12_12
0x05: LPDDR3_1600_12_15_15
0x06: LPDDR3_1866_14_17_17
0x07: LPDDR3_2133_16_20_20
0x08: LPDDR4_1066_10_10_10
0x09: LPDDR4_1600_14_15_15
0x0A: LPDDR4_2133_20_20_20
0x0B: LPDDR4_2400_24_22_22
0x0C: LPDDR4_2666_24_24_24
0x0D: LPDDR4_2933_28_27_27
0x0E: LPDDR4_3200_28_29_29
0x0F: DDR3_1066_6_6_6
0x10: DDR3_1066_7_7_7
0x11: DDR3_1066_8_8_8
0x12: DDR3_1333_7_7_7
0x13: DDR3_1333_8_8_8
0x14: DDR3_1333_9_9_9
0x15: DDR3_1333_10_10_10
0x16: DDR3_1600_8_8_8
0x17: DDR3_1600_9_9_9
0x18: DDR3_1600_10_10_10
0x19: DDR3_1600_11_11_11 (default)
0x1A: DDR3_1866_10_10_10
0x1B: DDR3_1866_11_11_11
0x1C: DDR3_1866_12_12_12
0x1D: DDR3_1866_13_13_13
0x1E: DDR3_2133_11_11_11
0x1F: DDR3_2133_12_12_12
0x20: DDR3_2133_13_13_13
0x21: DDR3_2133_14_14_14
0x22: DDR4_1333_10_10_10
0x23: DDR4_1600_10_10_10
0x24: DDR4_1600_11_11_11
0x25: DDR4_1600_12_12_12
0x26: DDR4_1866_12_12_12
0x27: DDR4_1866_13_13_13
0x28: DDR4_1866_14_14_14
0x29: DDR4_2133_14_14_14
0x2A: DDR4_2133_15_15_15
0x2B: DDR4_2133_16_16_16
0x2C: DDR4_2400_15_15_15
0x2D: DDR4_2400_16_16_16
0x2E: DDR4_2400_17_17_17
0x2F: DDR4_2400_18_18_18
- fspm,memory-down: Memory Down
0x0: No (default)
0x1: Yes
0x2: 1MD+SODIMM (for DDR3L only) ACRD
0x3: 1x32 LPDDR4
- fspm,ddr3l-page-size: DDR3LPageSize
0x1: 1KB (default)
0x2: 2KB
- fspm,ddr3-lasr: DDR3LASR
- fspm,scrambler-support: ScramblerSupport
- fspm,interleaved-mode: InterleavedMode
- fspm,channel-hash-mask: ChannelHashMask
- fspm,fspm,slice-hash-mask: SliceHashMask
- fspm,channels-slices-enable: ChannelsSlices
- fspm,min-ref-rate2x-enable: MinRefRate2x
- fspm,dual-rank-support-enable: DualRankSupport
- fspm,rmt-mode: RmtMode
- fspm,memory-size-limit: MemorySizeLimit
- fspm,low-memory-max-value: LowMemoryMaxValue
- fspm,high-memory-max-value: HighMemoryMaxValue
- fspm,disable-fast-boot: FastBoot
- fspm,dimm0-spd-address: DIMM0 SPD Address
- fspm,dimm1-spd-address: DIMM1 SPD Address
- fspm,chX-rank-enable: Must be set to enable rank (X = 0-3)
- fspm,chX-device-width: DRAM device width per DRAM channel (X = 0-3)
0: x8
1: x16
2: x32
3: x64
- fspm,chX-dram-density: Must specify the DRAM device density (X = 0-3)
0: 4Gb
1: 6Gb
2: 8Gb
3: 12Gb
4: 16Gb
5: 2Gb
- fspm,chX-option: Channel options (X = 0-3)
- fspm,chX-odt-config: Channel Odt Config (X = 0-3)
- fspm,chX-mode2-n: Force 2N Mode (X = 0-3)
0x0: Auto
0x1: Force 2N CMD Timing Mode
- fspm,chX-odt-levels: Channel Odt Levels (X = 0-3)
0: ODT Connected to SoC
1: ODT held high
- fspm,rmt-check-run: RmtCheckRun
- fspm,rmt-margin-check-scale-high-threshold: RmtMarginCheckScaleHighThreshold
- fspm,ch-bit-swizzling: Bit_swizzling
- fspm,msg-level-mask: MsgLevelMask
- fspm,pre-mem-gpio-table-pin-num: PreMem GPIO Pin Number for each table
- fspm,pre-mem-gpio-table-ptr: PreMem GPIO Table Pointer
- fspm,pre-mem-gpio-table-entry-num: PreMem GPIO Table Entry Number
- fspm,enhance-port8xh-decoding: Enhance the port 8xh decoding
- fspm,spd-write-enable: SPD Data Write
- fspm,mrc-data-saving: MRC Training Data Saving
- fspm,oem-loading-base: OEM File Loading Address
- fspm,oem-file-name: OEM File Name to Load
- fspm,mrc-boot-data-ptr:
- fspm,e-mmc-trace-len: eMMC Trace Length
0x0: Long
0x1: Short
- fspm,skip-cse-rbp: Skip CSE RBP to support zero sized IBB
- fspm,npk-en: Npk Enable
0: Disable
1: Enable
2: Debugger
3: Auto (default)
- fspm,fw-trace-en: FW Trace Enable
- fspm,fw-trace-destination: FW Trace Destination
1: NPK_TRACE_TO_MEMORY
2: NPK_TRACE_TO_DCI
3: NPK_TRACE_TO_BSSB
4: NPK_TRACE_TO_PTI (default)
- fspm,recover-dump: NPK Recovery Dump
- fspm,msc0-wrap: Memory Region 0 Buffer WrapAround
0: n0-warp
1: n1-warp (default)
- fspm,msc1-wrap: Memory Region 1 Buffer WrapAround
0: n0-warp
1: n1-warp (default)
- fspm,msc0-size: Memory Region 0 Buffer Size
0: 0MB (default)
1: 1MB
2: 8MB
3: 64MB
4: 128MB
5: 256MB
6: 512MB
7: 1GB
- fspm,msc1-size: Memory Region 1 Buffer Size
0: 0MB (default)
1: 1MB
2: 8MB
3: 64MB
4: 128MB
5: 256MB
6: 512MB
7: 1GB
- fspm,pti-mode: PTI Mode
0: 0ff
1: x4 (default)
2: x8
3: x12
4: x16
- fspm,pti-training: PTI Training
0: off (default)
1-6: 1-6
- fspm,pti-speed:
0: full
1: half
2: quarter (default)
- fspm,punit-mlvl: Punit Message Level
0:
1: (default)
2-4: 2-4
- fspm,pmc-mlvl: PMC Message Level
0:
1: (default)
2-4: 2-4
- fspm,sw-trace-en: SW Trace Enable
- fspm,periodic-retraining-disable: Periodic Retraining Disable
- fspm,enable-reset-system: Enable Reset System
- fspm,enable-s3-heci2: Enable HECI2 in S3 resume path
- fspm,variable-nvs-buffer-ptr:
Example:
&host_bridge {
fspm,package = <PACKAGE_BGA>;
fspm,profile = <PROFILE_LPDDR4_2400_24_22_22>;
fspm,memory-down = <MEMORY_DOWN_YES>;
fspm,scrambler-support = <1>;
fspm,interleaved-mode = <INTERLEAVED_MODE_ENABLE>;
fspm,channel-hash-mask = <0x36>;
fspm,slice-hash-mask = <0x9>;
fspm,low-memory-max-value = <2048>;
fspm,ch0-rank-enable = <1>;
fspm,ch0-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch0-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch0-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch0-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,ch1-rank-enable = <1>;
fspm,ch1-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch1-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch1-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch1-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,ch2-rank-enable = <1>;
fspm,ch2-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch2-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch2-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch2-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,ch3-rank-enable = <1>;
fspm,ch3-device-width = <CHX_DEVICE_WIDTH_X16>;
fspm,ch3-dram-density = <CHX_DEVICE_DENSITY_8GB>;
fspm,ch3-option = <(CHX_OPTION_RANK_INTERLEAVING |
CHX_OPTION_BANK_ADDRESS_HASHING_ENABLE)>;
fspm,ch3-odt-config = <CHX_ODT_CONFIG_DDR4_CA_ODT>;
fspm,fspm,skip-cse-rbp = <1>;
fspm,ch-bit-swizzling = /bits/ 8 <
/* LP4_PHYS_CH0A */
/* DQA[0:7] pins of LPDDR4 module */
6 7 5 4 3 1 0 2
/* DQA[8:15] pins of LPDDR4 module */
12 10 11 13 14 8 9 15
/* DQB[0:7] pins of LPDDR4 module with offset of 16 */
16 22 23 20 18 17 19 21
/* DQB[7:15] pins of LPDDR4 module with offset of 16 */
30 28 29 25 24 26 27 31
/* LP4_PHYS_CH0B */
/* DQA[0:7] pins of LPDDR4 module */
7 3 5 2 6 0 1 4
/* DQA[8:15] pins of LPDDR4 module */
9 14 12 13 10 11 8 15
/* DQB[0:7] pins of LPDDR4 module with offset of 16 */
20 22 23 16 19 17 18 21
/* DQB[7:15] pins of LPDDR4 module with offset of 16 */
28 24 26 27 29 30 31 25
/* LP4_PHYS_CH1A */
/* DQA[0:7] pins of LPDDR4 module */
2 1 6 7 5 4 3 0
/* DQA[8:15] pins of LPDDR4 module */
11 10 8 9 12 15 13 14
/* DQB[0:7] pins of LPDDR4 module with offset of 16 */
17 23 19 16 21 22 20 18
/* DQB[7:15] pins of LPDDR4 module with offset of 16 */
31 29 26 25 28 27 24 30
/* LP4_PHYS_CH1B */
/* DQA[0:7] pins of LPDDR4 module */
4 3 7 5 6 1 0 2
/* DQA[8:15] pins of LPDDR4 module */
15 9 8 11 14 13 12 10
/* DQB[0:7] pins of LPDDR4 module with offset of 16 */
20 23 22 21 18 19 16 17
/* DQB[7:15] pins of LPDDR4 module with offset of 16 */
25 28 30 31 26 27 24 29>;
};