avionic design with actual uboot and tooling

submodule of avionic design uboot bootloader and with included tools to
get you started , read readme.md and readme-tk1-loader.md
This commit is contained in:
2026-03-03 21:46:32 +02:00
parent fe3ba02c96
commit 68d74d3181
11967 changed files with 2221897 additions and 0 deletions

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if TARGET_T102XQDS
config SYS_BOARD
default "t102xqds"
config SYS_VENDOR
default "freescale"
config SYS_CONFIG_NAME
default "T102xQDS"
endif

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T102XQDS BOARD
M: Shengzhou Liu <Shengzhou.Liu@freescale.com>
S: Maintained
F: board/freescale/t102xqds/
F: include/configs/T102xQDS.h
F: configs/T1024QDS_defconfig
F: configs/T1024QDS_NAND_defconfig
F: configs/T1024QDS_SDCARD_defconfig
F: configs/T1024QDS_SPIFLASH_defconfig
F: configs/T1024QDS_DDR4_defconfig
F: configs/T1024QDS_SECURE_BOOT_defconfig
F: configs/T1024QDS_DDR4_SECURE_BOOT_defconfig

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#
# Copyright 2014 Freescale Semiconductor, Inc.
#
# SPDX-License-Identifier: GPL-2.0+
#
ifdef CONFIG_SPL_BUILD
obj-y += spl.o
else
obj-y += t102xqds.o
obj-y += eth_t102xqds.o
obj-$(CONFIG_PCI) += pci.o
obj-$(CONFIG_FSL_DIU_FB) += ../t1040qds/diu.o
endif
obj-y += ddr.o
obj-y += law.o
obj-y += tlb.o

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T1024 SoC Overview
------------------
The T1024/T1023 dual core and T1014/T1013 single core QorIQ communication processor
combines two or one 64-bit Power Architecture e5500 core respectively with high
performance datapath acceleration logic, and network peripheral bus interfaces
required for networking and telecommunications. This processor can be used in
applications such as enterprise WLAN access points, routers, switches, firewall
and other packet processing intensive small enterprise and branch office appliances,
and general-purpose embedded computing. Its high level of integration offers
significant performance benefits and greatly helps to simplify board design.
The T1024 SoC includes the following function and features:
- two e5500 cores, each with a private 256 KB L2 cache
- Up to 1.4 GHz with 64-bit ISA support (Power Architecture v2.06-compliant)
- Three levels of instructions: User, supervisor, and hypervisor
- Independent boot and reset
- Secure boot capability
- 256 KB shared L3 CoreNet platform cache (CPC)
- Interconnect CoreNet platform
- CoreNet coherency manager supporting coherent and noncoherent transactions
with prioritization and bandwidth allocation amongst CoreNet endpoints
- 150 Gbps coherent read bandwidth
- 32-/64-bit DDR3L/DDR4 SDRAM memory controller with ECC and interleaving support
- Data Path Acceleration Architecture (DPAA) incorporating acceleration for the following functions:
- Packet parsing, classification, and distribution
- Queue management for scheduling, packet sequencing, and congestion management
- Cryptography Acceleration (SEC 5.x)
- IEEE 1588 support
- Hardware buffer management for buffer allocation and deallocation
- MACSEC on DPAA-based Ethernet ports
- Ethernet interfaces
- Four 1 Gbps Ethernet controllers
- Parallel Ethernet interfaces
- Two RGMII interfaces
- High speed peripheral interfaces
- Three PCI Express 2.0 controllers/ports running at up to 5 GHz
- One SATA controller supporting 1.5 and 3.0 Gb/s operation
- One QSGMII interface
- Four SGMII interface supporting 1000 Mbps
- Three SGMII interfaces supporting up to 2500 Mbps
- 10GbE XFI or 10Base-KR interface
- Additional peripheral interfaces
- Two USB 2.0 controllers with integrated PHY
- SD/eSDHC/eMMC
- eSPI controller
- Four I2C controllers
- Four UARTs
- Four GPIO controllers
- Integrated flash controller (IFC)
- LCD interface (DIU) with 12 bit dual data rate
- Multicore programmable interrupt controller (PIC)
- Two 8-channel DMA engines
- Single source clocking implementation
- Deep Sleep power implementaion (wakeup from GPIO/Timer/Ethernet/USB)
- QUICC Engine block
- 32-bit RISC controller for flexible support of the communications peripherals
- Serial DMA channel for receive and transmit on all serial channels
- Two universal communication controllers, supporting TDM, HDLC, and UART
T1023 Personality
------------------
T1023 is a reduced personality of T1024 without QUICC Engine, DIU, and
unavailable deep sleep. Rest of the blocks are almost same as T1024.
Differences between T1024 and T1023
Feature T1024 T1023
QUICC Engine: yes no
DIU: yes no
Deep Sleep: yes no
I2C controller: 4 3
DDR: 64-bit 32-bit
IFC: 32-bit 28-bit
T1024QDS board Overview
-----------------------
- SERDES Connections
4 lanes supporting the following:
- PCI Express: supports Gen 1 and Gen 2
- SGMII 1G and SGMII 2.5G
- QSGMII
- XFI
- SATA 2.0
- High-speed multiplexers route the SerDes traffic to appropriate slots or connectors.
- Aurora debug with dedicated connectors.
- DDR Controller
- Supports up to 1600 MTPS data-rate.
- Supports one DDR4 or DDR3L module using DDR4 to DDR3L adapter card.
- Supports Single-, dual- or quad-rank DIMMs
- DDR power supplies 1.35V (DDR3L)/1.20V (DDR4) to all devices with automatic tracking of VTT.
- IFC/Local Bus
- NAND Flash: 8-bit, async, up to 2GB
- NOR: 8-bit or 16-bit, non-multiplexed, up to 512MB
- NOR devices support 8 virtual banks
- Socketed to allow alternate devices
- GASIC: Simple (minimal) target within QIXIS FPGA
- PromJET rapid memory download support
- IFC Debug/Development card
- Ethernet
- Two on-board RGMII 10M/100M/1G ethernet ports.
- One QSGMII interface
- Four SGMII interface supporting 1Gbps
- Three SGMII interfaces supporting 2.5Gbps
- one 10Gbps XFI or 10Base-KR interface
- QIXIS System Logic FPGA
- Manages system power and reset sequencing.
- Manages the configurations of DUT, board, and clock for dynamic shmoo.
- Collects V-I-T data in background for code/power profiling.
- Supports legacy TMT test features (POSt, IRS, SYSCLK-synchronous assertion).
- General fault monitoring and logging.
- Powered from ATX 'standby' power supply that allows continuous operation while rest of the system is off.
- Clocks
- System and DDR clock (SYSCLK, DDRCLK).
- Switch selectable to one of 16 common settings in the interval of 64 MHz-166 MHz.
- Software programmable in 1 MHz increments from 1-200 MHz.
- SERDES clocks
- Provides clocks to SerDes blocks and slots.
- 100 MHz, 125 MHz and 156.25 MHz options.
- Spread-spectrum option for 100 MHz.
- Power Supplies
- Dedicated PMBus regulator for VDD and VDDC.
- Adjustable from 0.7V to 1.3V at 35A
- VDD can be disabled independanty from VDDC for “deep sleep”.
- DDR3L/DDR4 power supply for GVDD: 1.35 or 1.20V at up to 22A.
- VTT/MVREF automatically track operating voltage.
- Dedicated 2.5V VPP supply.
- Dedicated regulators/filters for AVDD supplies.
- Dedicated regulators for other supplies, for example OVDD, CVDD, DVDD, LVDD, POVDD, and EVDD.
- Video
- DIU supports video up to 1280x1024x32 bpp.
- Chrontel CH7201 for HDMI connection.
- TI DS90C387R for direct LCD connection.
- Raw (not encoded) video connector for testing or other encoders.
- USB
- Supports two USB 2.0 ports with integrated PHYs.
- Two type A ports with 5V@1.5A per port.
- Second port can be converted to OTG mini-AB.
- SDHC
For T1024QDS, the SDHC port connects directly to an adapter card slot that has the following features:
- upport for optional clock feedback paths.
- Support for optional high-speed voltage translation direction controls.
- Support for SD slots for: SD, SDHC (1x, 4x, 8x) and MMC.
- Support for eMMC memory devices.
- SPI
-On-board support of 3 different devices and sizes.
- Other IO
- Two Serial ports
- ProfiBus port
- Four I2C ports
Memory map on T1024QDS
----------------------
Start Address End Address Description Size
0xF_FFDF_0000 0xF_FFDF_0FFF IFC - FPGA 4KB
0xF_FF80_0000 0xF_FF80_FFFF IFC - NAND Flash 64KB
0xF_FE00_0000 0xF_FEFF_FFFF CCSRBAR 16MB
0xF_F802_0000 0xF_F802_FFFF PCI Express 3 I/O Space 64KB
0xF_F801_0000 0xF_F801_FFFF PCI Express 2 I/O Space 64KB
0xF_F800_0000 0xF_F800_FFFF PCI Express 1 I/O Space 64KB
0xF_F600_0000 0xF_F7FF_FFFF Queue manager software portal 32MB
0xF_F400_0000 0xF_F5FF_FFFF Buffer manager software portal 32MB
0xF_E800_0000 0xF_EFFF_FFFF IFC - NOR Flash 128MB
0xF_E000_0000 0xF_E7FF_FFFF Promjet 128MB
0xF_0000_0000 0xF_003F_FFFF DCSR 4MB
0xC_2000_0000 0xC_2FFF_FFFF PCI Express 3 Mem Space 256MB
0xC_1000_0000 0xC_1FFF_FFFF PCI Express 2 Mem Space 256MB
0xC_0000_0000 0xC_0FFF_FFFF PCI Express 1 Mem Space 256MB
0x0_0000_0000 0x0_ffff_ffff DDR 4GB
128MB NOR Flash memory Map
--------------------------
Start Address End Address Definition Max size
0xEFF40000 0xEFFFFFFF U-Boot (current bank) 768KB
0xEFF20000 0xEFF3FFFF U-Boot env (current bank) 128KB
0xEFF00000 0xEFF1FFFF FMAN Ucode (current bank) 128KB
0xEFE00000 0xEFE3FFFF QE firmware (current bank) 256KB
0xED300000 0xEFEFFFFF rootfs (alt bank) 44MB
0xEC800000 0xEC8FFFFF Hardware device tree (alt bank) 1MB
0xEC020000 0xEC7FFFFF Linux.uImage (alt bank) 7MB + 875KB
0xEC000000 0xEC01FFFF RCW (alt bank) 128KB
0xEBF40000 0xEBFFFFFF U-Boot (alt bank) 768KB
0xEBF20000 0xEBF3FFFF U-Boot env (alt bank) 128KB
0xEBF00000 0xEBF1FFFF FMAN ucode (alt bank) 128KB
0xEBE00000 0xEBE3FFFF QE firmware (alt bank) 256KB
0xE9300000 0xEBEFFFFF rootfs (current bank) 44MB
0xE8800000 0xE88FFFFF Hardware device tree (cur bank) 1MB
0xE8020000 0xE86FFFFF Linux.uImage (current bank) 7MB + 875KB
0xE8000000 0xE801FFFF RCW (current bank) 128KB
SerDes clock vs DIP-switch settings
-----------------------------------
SRDS_PRTCL_S1 SD1_REF_CLK1 SD1_REF_CLK2 SW4[1:4]
0x6F 100MHz 125MHz 1101
0xD6 100MHz 100MHz 1111
0x99 156.25MHz 100MHz 1011
T1024 Clock frequency
----------------------
BIN Core DDR Platform FMan
Bin1: 1400MHz 1600MT/s 400MHz 700MHz
Bin2: 1200MHz 1600MT/s 400MHz 600MHz
Bin3: 1000MHz 1600MT/s 400MHz 500MHz
Software configurations and board settings
------------------------------------------
1. NOR boot:
a. build NOR boot image
$ make T1024QDS_defconfig (For DDR3L, by default)
or make T1024QDS_D4_defconfig (For DDR4)
$ make
b. program u-boot.bin image to NOR flash
=> tftp 1000000 u-boot.bin
=> pro off all;era eff40000 efffffff;cp.b 1000000 eff40000 $filesize
set SW1[1:8] = '00010011', SW2[1] = '1', SW6[1:4] = '0000' for NOR boot
Switching between default bank0 and alternate bank4 on NOR flash
To change boot source to vbank4:
via software: run command 'qixis_reset altbank' in U-Boot.
via DIP-switch: set SW6[1:4] = '0100'
To change boot source to vbank0:
via software: run command 'qixis_reset' in U-Boot.
via DIP-Switch: set SW6[1:4] = '0000'
2. NAND Boot:
a. build PBL image for NAND boot
$ make T1024QDS_NAND_defconfig
$ make
b. program u-boot-with-spl-pbl.bin to NAND flash
=> tftp 1000000 u-boot-with-spl-pbl.bin
=> nand erase 0 $filesize
=> nand write 1000000 0 $filesize
set SW1[1:8] = '10000010', SW2[1] = '0' and SW6[1:4] = '1001' for NAND boot
3. SPI Boot:
a. build PBL image for SPI boot
$ make T1024QDS_SPIFLASH_defconfig
$ make
b. program u-boot-with-spl-pbl.bin to SPI flash
=> tftp 1000000 u-boot-with-spl-pbl.bin
=> sf probe 0
=> sf erase 0 f0000
=> sf write 1000000 0 $filesize
set SW1[1:8] = '00100010', SW2[1] ='1' for SPI boot
4. SD Boot:
a. build PBL image for SD boot
$ make T1024QDS_SDCARD_defconfig
$ make
b. program u-boot-with-spl-pbl.bin to SD/MMC card
=> tftp 1000000 u-boot-with-spl-pbl.bin
=> mmc write 1000000 8 0x800
=> tftp 1000000 fsl_fman_ucode_t1024_xx.bin
=> mmc write 1000000 0x820 80
set SW1[1:8] = '00100000', SW2[1] = '0' for SD boot
DIU/QE-TDM/SDXC settings
-------------------
a) For TDM Riser: set pin_mux=tdm in hwconfig
b) For UCC(ProfiBus): set pin_mux=ucc in hwconfig
c) For HDMI(DVI): set pin_mux=hdmi in hwconfig
d) For LCD(DFP): set pin_mux=lcd in hwconfig
e) For SDXC: set adaptor=sdxc in hwconfig
2-stage NAND/SPI/SD boot loader
-------------------------------
PBL initializes the internal CPC-SRAM and copy SPL(160K) to SRAM.
SPL further initializes DDR using SPD and environment variables
and copy U-Boot(768 KB) from NAND/SPI/SD device to DDR.
Finally SPL transers control to U-Boot for futher booting.
SPL has following features:
- Executes within 256K
- No relocation required
Run time view of SPL framework
-------------------------------------------------
|Area | Address |
-------------------------------------------------
|SecureBoot header | 0xFFFC0000 (32KB) |
-------------------------------------------------
|GD, BD | 0xFFFC8000 (4KB) |
-------------------------------------------------
|ENV | 0xFFFC9000 (8KB) |
-------------------------------------------------
|HEAP | 0xFFFCB000 (30KB) |
-------------------------------------------------
|STACK | 0xFFFD8000 (22KB) |
-------------------------------------------------
|U-Boot SPL | 0xFFFD8000 (160KB) |
-------------------------------------------------
NAND Flash memory Map on T1024QDS
-------------------------------------------------------------
Start End Definition Size
0x000000 0x0FFFFF U-Boot 1MB
0x100000 0x15FFFF U-Boot env 8KB
0x160000 0x17FFFF FMAN Ucode 128KB
0x180000 0x19FFFF QE Firmware 128KB
SD Card memory Map on T1024QDS
----------------------------------------------------
Block #blocks Definition Size
0x008 2048 U-Boot img 1MB
0x800 0016 U-Boot env 8KB
0x820 0256 FMAN Ucode 128KB
0x920 0256 QE Firmware 128KB
SPI Flash memory Map on T1024QDS
----------------------------------------------------
Start End Definition Size
0x000000 0x0FFFFF U-Boot img 1MB
0x100000 0x101FFF U-Boot env 8KB
0x110000 0x12FFFF FMAN Ucode 128KB
0x130000 0x14FFFF QE Firmware 128KB
For more details, please refer to T1024QDS Reference Manual and access
website www.freescale.com and Freescale QorIQ SDK Infocenter document.

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/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <i2c.h>
#include <hwconfig.h>
#include <asm/mmu.h>
#include <fsl_ddr_sdram.h>
#include <fsl_ddr_dimm_params.h>
#include <asm/fsl_law.h>
#include <asm/mpc85xx_gpio.h>
DECLARE_GLOBAL_DATA_PTR;
struct board_specific_parameters {
u32 n_ranks;
u32 datarate_mhz_high;
u32 rank_gb;
u32 clk_adjust;
u32 wrlvl_start;
u32 wrlvl_ctl_2;
u32 wrlvl_ctl_3;
};
/*
* datarate_mhz_high values need to be in ascending order
*/
static const struct board_specific_parameters udimm0[] = {
/*
* memory controller 0
* num| hi| rank| clk| wrlvl | wrlvl | wrlvl |
* ranks| mhz| GB |adjst| start | ctl2 | ctl3 |
*/
#if defined(CONFIG_SYS_FSL_DDR4)
{2, 1666, 0, 8, 7, 0x0808090B, 0x0C0D0E0A,},
{2, 1900, 0, 8, 6, 0x08080A0C, 0x0D0E0F0A,},
{1, 1666, 0, 8, 6, 0x0708090B, 0x0C0D0E09,},
{1, 1900, 0, 8, 6, 0x08080A0C, 0x0D0E0F0A,},
{1, 2200, 0, 8, 7, 0x08090A0D, 0x0F0F100C,},
#elif defined(CONFIG_SYS_FSL_DDR3)
{2, 833, 0, 8, 6, 0x06060607, 0x08080807,},
{2, 1350, 0, 8, 7, 0x0708080A, 0x0A0B0C09,},
{2, 1666, 0, 8, 7, 0x0808090B, 0x0C0D0E0A,},
{1, 833, 0, 8, 6, 0x06060607, 0x08080807,},
{1, 1350, 0, 8, 7, 0x0708080A, 0x0A0B0C09,},
{1, 1666, 0, 8, 7, 0x0808090B, 0x0C0D0E0A,},
#else
#error DDR type not defined
#endif
{}
};
static const struct board_specific_parameters *udimms[] = {
udimm0,
};
void fsl_ddr_board_options(memctl_options_t *popts,
dimm_params_t *pdimm,
unsigned int ctrl_num)
{
const struct board_specific_parameters *pbsp, *pbsp_highest = NULL;
ulong ddr_freq;
struct cpu_type *cpu = gd->arch.cpu;
if (ctrl_num > 2) {
printf("Not supported controller number %d\n", ctrl_num);
return;
}
if (!pdimm->n_ranks)
return;
pbsp = udimms[0];
/* Get clk_adjust according to the board ddr freqency and n_banks
* specified in board_specific_parameters table.
*/
ddr_freq = get_ddr_freq(0) / 1000000;
while (pbsp->datarate_mhz_high) {
if (pbsp->n_ranks == pdimm->n_ranks &&
(pdimm->rank_density >> 30) >= pbsp->rank_gb) {
if (ddr_freq <= pbsp->datarate_mhz_high) {
popts->clk_adjust = pbsp->clk_adjust;
popts->wrlvl_start = pbsp->wrlvl_start;
popts->wrlvl_ctl_2 = pbsp->wrlvl_ctl_2;
popts->wrlvl_ctl_3 = pbsp->wrlvl_ctl_3;
goto found;
}
pbsp_highest = pbsp;
}
pbsp++;
}
if (pbsp_highest) {
printf("Error: board specific timing not found\n");
printf("for data rate %lu MT/s\n", ddr_freq);
printf("Trying to use the highest speed (%u) parameters\n",
pbsp_highest->datarate_mhz_high);
popts->clk_adjust = pbsp_highest->clk_adjust;
popts->wrlvl_start = pbsp_highest->wrlvl_start;
popts->wrlvl_ctl_2 = pbsp->wrlvl_ctl_2;
popts->wrlvl_ctl_3 = pbsp->wrlvl_ctl_3;
} else {
panic("DIMM is not supported by this board");
}
found:
debug("Found timing match: n_ranks %d, data rate %d, rank_gb %d\n",
pbsp->n_ranks, pbsp->datarate_mhz_high, pbsp->rank_gb);
debug("\tclk_adjust %d, wrlvl_start %d, wrlvl_ctrl_2 0x%x, ",
pbsp->clk_adjust, pbsp->wrlvl_start, pbsp->wrlvl_ctl_2);
debug("wrlvl_ctrl_3 0x%x\n", pbsp->wrlvl_ctl_3);
/*
* Factors to consider for half-strength driver enable:
* - number of DIMMs installed
*/
popts->half_strength_driver_enable = 1;
/*
* Write leveling override
*/
popts->wrlvl_override = 1;
popts->wrlvl_sample = 0xf;
/*
* rtt and rtt_wr override
*/
popts->rtt_override = 0;
/* Enable ZQ calibration */
popts->zq_en = 1;
/* DHC_EN =1, ODT = 75 Ohm */
#ifdef CONFIG_SYS_FSL_DDR4
popts->ddr_cdr1 = DDR_CDR1_DHC_EN | DDR_CDR1_ODT(DDR_CDR_ODT_80ohm);
popts->ddr_cdr2 = DDR_CDR2_ODT(DDR_CDR_ODT_80ohm) |
DDR_CDR2_VREF_OVRD(70); /* Vref = 70% */
#else
popts->ddr_cdr1 = DDR_CDR1_DHC_EN | DDR_CDR1_ODT(DDR_CDR_ODT_75ohm);
popts->ddr_cdr2 = DDR_CDR2_ODT(DDR_CDR_ODT_75ohm);
#endif
/* T1023 supports max DDR bus 32bit width, T1024 supports DDR 64bit,
* set DDR bus width to 32bit for T1023
*/
if (cpu->soc_ver == SVR_T1023)
popts->data_bus_width = DDR_DATA_BUS_WIDTH_32;
#ifdef CONFIG_FORCE_DDR_DATA_BUS_WIDTH_32
/* for DDR bus 32bit test on T1024 */
popts->data_bus_width = DDR_DATA_BUS_WIDTH_32;
#endif
}
#if defined(CONFIG_DEEP_SLEEP)
void board_mem_sleep_setup(void)
{
void __iomem *qixis_base = (void *)QIXIS_BASE;
/* does not provide HW signals for power management */
clrbits_8(qixis_base + 0x21, 0x2);
/* Disable MCKE isolation */
gpio_set_value(2, 0);
udelay(1);
}
#endif
phys_size_t initdram(int board_type)
{
phys_size_t dram_size;
#if defined(CONFIG_SPL_BUILD) || !defined(CONFIG_RAMBOOT_PBL)
puts("Initializing....using SPD\n");
dram_size = fsl_ddr_sdram();
#else
/* DDR has been initialised by first stage boot loader */
dram_size = fsl_ddr_sdram_size();
#endif
dram_size = setup_ddr_tlbs(dram_size / 0x100000);
dram_size *= 0x100000;
#if defined(CONFIG_DEEP_SLEEP) && !defined(CONFIG_SPL_BUILD)
fsl_dp_resume();
#endif
return dram_size;
}

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/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* Shengzhou Liu <Shengzhou.Liu@freescale.com>
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <command.h>
#include <netdev.h>
#include <asm/mmu.h>
#include <asm/processor.h>
#include <asm/immap_85xx.h>
#include <asm/fsl_law.h>
#include <asm/fsl_serdes.h>
#include <asm/fsl_portals.h>
#include <asm/fsl_liodn.h>
#include <malloc.h>
#include <fm_eth.h>
#include <fsl_mdio.h>
#include <miiphy.h>
#include <phy.h>
#include <fsl_dtsec.h>
#include <asm/fsl_serdes.h>
#include "../common/qixis.h"
#include "../common/fman.h"
#include "t102xqds_qixis.h"
#define EMI_NONE 0xFFFFFFFF
#define EMI1_RGMII1 0
#define EMI1_RGMII2 1
#define EMI1_SLOT1 2
#define EMI1_SLOT2 3
#define EMI1_SLOT3 4
#define EMI1_SLOT4 5
#define EMI1_SLOT5 6
#define EMI2 7
static int mdio_mux[NUM_FM_PORTS];
static const char * const mdio_names[] = {
"T1024QDS_MDIO_RGMII1",
"T1024QDS_MDIO_RGMII2",
"T1024QDS_MDIO_SLOT1",
"T1024QDS_MDIO_SLOT2",
"T1024QDS_MDIO_SLOT3",
"T1024QDS_MDIO_SLOT4",
"T1024QDS_MDIO_SLOT5",
"T1024QDS_MDIO_10GC",
"NULL",
};
/* Map SerDes1 4 lanes to default slot, will be initialized dynamically */
static u8 lane_to_slot[] = {2, 3, 4, 5};
static const char *t1024qds_mdio_name_for_muxval(u8 muxval)
{
return mdio_names[muxval];
}
struct mii_dev *mii_dev_for_muxval(u8 muxval)
{
struct mii_dev *bus;
const char *name;
if (muxval > EMI2)
return NULL;
name = t1024qds_mdio_name_for_muxval(muxval);
if (!name) {
printf("No bus for muxval %x\n", muxval);
return NULL;
}
bus = miiphy_get_dev_by_name(name);
if (!bus) {
printf("No bus by name %s\n", name);
return NULL;
}
return bus;
}
struct t1024qds_mdio {
u8 muxval;
struct mii_dev *realbus;
};
static void t1024qds_mux_mdio(u8 muxval)
{
u8 brdcfg4;
if (muxval < 7) {
brdcfg4 = QIXIS_READ(brdcfg[4]);
brdcfg4 &= ~BRDCFG4_EMISEL_MASK;
brdcfg4 |= (muxval << BRDCFG4_EMISEL_SHIFT);
QIXIS_WRITE(brdcfg[4], brdcfg4);
}
}
static int t1024qds_mdio_read(struct mii_dev *bus, int addr, int devad,
int regnum)
{
struct t1024qds_mdio *priv = bus->priv;
t1024qds_mux_mdio(priv->muxval);
return priv->realbus->read(priv->realbus, addr, devad, regnum);
}
static int t1024qds_mdio_write(struct mii_dev *bus, int addr, int devad,
int regnum, u16 value)
{
struct t1024qds_mdio *priv = bus->priv;
t1024qds_mux_mdio(priv->muxval);
return priv->realbus->write(priv->realbus, addr, devad, regnum, value);
}
static int t1024qds_mdio_reset(struct mii_dev *bus)
{
struct t1024qds_mdio *priv = bus->priv;
return priv->realbus->reset(priv->realbus);
}
static int t1024qds_mdio_init(char *realbusname, u8 muxval)
{
struct t1024qds_mdio *pmdio;
struct mii_dev *bus = mdio_alloc();
if (!bus) {
printf("Failed to allocate t1024qds MDIO bus\n");
return -1;
}
pmdio = malloc(sizeof(*pmdio));
if (!pmdio) {
printf("Failed to allocate t1024qds private data\n");
free(bus);
return -1;
}
bus->read = t1024qds_mdio_read;
bus->write = t1024qds_mdio_write;
bus->reset = t1024qds_mdio_reset;
strcpy(bus->name, t1024qds_mdio_name_for_muxval(muxval));
pmdio->realbus = miiphy_get_dev_by_name(realbusname);
if (!pmdio->realbus) {
printf("No bus with name %s\n", realbusname);
free(bus);
free(pmdio);
return -1;
}
pmdio->muxval = muxval;
bus->priv = pmdio;
return mdio_register(bus);
}
void board_ft_fman_fixup_port(void *fdt, char *compat, phys_addr_t addr,
enum fm_port port, int offset)
{
struct fixed_link f_link;
if (fm_info_get_enet_if(port) == PHY_INTERFACE_MODE_RGMII) {
if (port == FM1_DTSEC3) {
fdt_set_phy_handle(fdt, compat, addr, "rgmii_phy2");
fdt_setprop_string(fdt, offset, "phy-connection-type",
"rgmii");
fdt_status_okay_by_alias(fdt, "emi1_rgmii1");
}
} else if (fm_info_get_enet_if(port) == PHY_INTERFACE_MODE_SGMII) {
if (port == FM1_DTSEC1) {
fdt_set_phy_handle(fdt, compat, addr,
"sgmii_vsc8234_phy_s5");
} else if (port == FM1_DTSEC2) {
fdt_set_phy_handle(fdt, compat, addr,
"sgmii_vsc8234_phy_s4");
}
} else if (fm_info_get_enet_if(port) == PHY_INTERFACE_MODE_SGMII_2500) {
if (port == FM1_DTSEC3) {
fdt_set_phy_handle(fdt, compat, addr,
"sgmii_aqr105_phy_s3");
}
} else if (fm_info_get_enet_if(port) == PHY_INTERFACE_MODE_QSGMII) {
switch (port) {
case FM1_DTSEC1:
fdt_set_phy_handle(fdt, compat, addr, "qsgmii_phy_p1");
break;
case FM1_DTSEC2:
fdt_set_phy_handle(fdt, compat, addr, "qsgmii_phy_p2");
break;
case FM1_DTSEC3:
fdt_set_phy_handle(fdt, compat, addr, "qsgmii_phy_p3");
break;
case FM1_DTSEC4:
fdt_set_phy_handle(fdt, compat, addr, "qsgmii_phy_p4");
break;
default:
break;
}
fdt_delprop(fdt, offset, "phy-connection-type");
fdt_setprop_string(fdt, offset, "phy-connection-type",
"qsgmii");
fdt_status_okay_by_alias(fdt, "emi1_slot2");
} else if (fm_info_get_enet_if(port) == PHY_INTERFACE_MODE_XGMII) {
/* XFI interface */
f_link.phy_id = port;
f_link.duplex = 1;
f_link.link_speed = 10000;
f_link.pause = 0;
f_link.asym_pause = 0;
/* no PHY for XFI */
fdt_delprop(fdt, offset, "phy-handle");
fdt_setprop(fdt, offset, "fixed-link", &f_link, sizeof(f_link));
fdt_setprop_string(fdt, offset, "phy-connection-type", "xgmii");
}
}
void fdt_fixup_board_enet(void *fdt)
{
}
/*
* This function reads RCW to check if Serdes1{A:D} is configured
* to slot 1/2/3/4/5 and update the lane_to_slot[] array accordingly
*/
static void initialize_lane_to_slot(void)
{
ccsr_gur_t *gur = (void *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
u32 srds_s1 = in_be32(&gur->rcwsr[4]) &
FSL_CORENET2_RCWSR4_SRDS1_PRTCL;
srds_s1 >>= FSL_CORENET2_RCWSR4_SRDS1_PRTCL_SHIFT;
switch (srds_s1) {
case 0x46:
case 0x47:
lane_to_slot[1] = 2;
break;
default:
break;
}
}
int board_eth_init(bd_t *bis)
{
#if defined(CONFIG_FMAN_ENET)
int i, idx, lane, slot, interface;
struct memac_mdio_info dtsec_mdio_info;
struct memac_mdio_info tgec_mdio_info;
ccsr_gur_t *gur = (void *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
u32 srds_s1;
srds_s1 = in_be32(&gur->rcwsr[4]) &
FSL_CORENET2_RCWSR4_SRDS1_PRTCL;
srds_s1 >>= FSL_CORENET2_RCWSR4_SRDS1_PRTCL_SHIFT;
initialize_lane_to_slot();
/* Initialize the mdio_mux array so we can recognize empty elements */
for (i = 0; i < NUM_FM_PORTS; i++)
mdio_mux[i] = EMI_NONE;
dtsec_mdio_info.regs =
(struct memac_mdio_controller *)CONFIG_SYS_FM1_DTSEC_MDIO_ADDR;
dtsec_mdio_info.name = DEFAULT_FM_MDIO_NAME;
/* Register the 1G MDIO bus */
fm_memac_mdio_init(bis, &dtsec_mdio_info);
tgec_mdio_info.regs =
(struct memac_mdio_controller *)CONFIG_SYS_FM1_TGEC_MDIO_ADDR;
tgec_mdio_info.name = DEFAULT_FM_TGEC_MDIO_NAME;
/* Register the 10G MDIO bus */
fm_memac_mdio_init(bis, &tgec_mdio_info);
/* Register the muxing front-ends to the MDIO buses */
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_RGMII1);
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_RGMII2);
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_SLOT1);
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_SLOT2);
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_SLOT3);
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_SLOT4);
t1024qds_mdio_init(DEFAULT_FM_MDIO_NAME, EMI1_SLOT5);
t1024qds_mdio_init(DEFAULT_FM_TGEC_MDIO_NAME, EMI2);
/* Set the two on-board RGMII PHY address */
fm_info_set_phy_address(FM1_DTSEC3, RGMII_PHY2_ADDR);
fm_info_set_phy_address(FM1_DTSEC4, RGMII_PHY1_ADDR);
switch (srds_s1) {
case 0xd5:
case 0xd6:
/* QSGMII in Slot2 */
fm_info_set_phy_address(FM1_DTSEC1, 0x8);
fm_info_set_phy_address(FM1_DTSEC2, 0x9);
fm_info_set_phy_address(FM1_DTSEC3, 0xa);
fm_info_set_phy_address(FM1_DTSEC4, 0xb);
break;
case 0x95:
case 0x99:
/*
* XFI does not need a PHY to work, but to avoid U-Boot use
* default PHY address which is zero to a MAC when it found
* a MAC has no PHY address, we give a PHY address to XFI
* MAC, and should not use a real XAUI PHY address, since
* MDIO can access it successfully, and then MDIO thinks the
* XAUI card is used for the XFI MAC, which will cause error.
*/
fm_info_set_phy_address(FM1_10GEC1, 4);
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_PORT1_PHY_ADDR);
break;
case 0x6f:
/* SGMII in Slot3, Slot4, Slot5 */
fm_info_set_phy_address(FM1_DTSEC1, SGMII_CARD_AQ_PHY_ADDR_S5);
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_AQ_PHY_ADDR_S4);
fm_info_set_phy_address(FM1_DTSEC3, SGMII_CARD_PORT1_PHY_ADDR);
break;
case 0x7f:
fm_info_set_phy_address(FM1_DTSEC1, SGMII_CARD_AQ_PHY_ADDR_S5);
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_AQ_PHY_ADDR_S4);
fm_info_set_phy_address(FM1_DTSEC3, SGMII_CARD_AQ_PHY_ADDR_S3);
break;
case 0x47:
fm_info_set_phy_address(FM1_DTSEC1, SGMII_CARD_PORT1_PHY_ADDR);
break;
case 0x77:
fm_info_set_phy_address(FM1_DTSEC1, SGMII_CARD_PORT1_PHY_ADDR);
fm_info_set_phy_address(FM1_DTSEC3, SGMII_CARD_AQ_PHY_ADDR_S3);
break;
case 0x5a:
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_PORT1_PHY_ADDR);
break;
case 0x6a:
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_PORT1_PHY_ADDR);
fm_info_set_phy_address(FM1_DTSEC3, SGMII_CARD_PORT1_PHY_ADDR);
break;
case 0x5b:
fm_info_set_phy_address(FM1_DTSEC1, SGMII_CARD_PORT1_PHY_ADDR);
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_PORT1_PHY_ADDR);
break;
case 0x6b:
fm_info_set_phy_address(FM1_DTSEC1, SGMII_CARD_PORT1_PHY_ADDR);
fm_info_set_phy_address(FM1_DTSEC2, SGMII_CARD_PORT1_PHY_ADDR);
fm_info_set_phy_address(FM1_DTSEC3, SGMII_CARD_PORT1_PHY_ADDR);
break;
default:
break;
}
for (i = FM1_DTSEC1; i < FM1_DTSEC1 + CONFIG_SYS_NUM_FM1_DTSEC; i++) {
idx = i - FM1_DTSEC1;
interface = fm_info_get_enet_if(i);
switch (interface) {
case PHY_INTERFACE_MODE_SGMII:
case PHY_INTERFACE_MODE_SGMII_2500:
case PHY_INTERFACE_MODE_QSGMII:
if (interface == PHY_INTERFACE_MODE_SGMII) {
lane = serdes_get_first_lane(FSL_SRDS_1,
SGMII_FM1_DTSEC1 + idx);
} else if (interface == PHY_INTERFACE_MODE_SGMII_2500) {
lane = serdes_get_first_lane(FSL_SRDS_1,
SGMII_2500_FM1_DTSEC1 + idx);
} else {
lane = serdes_get_first_lane(FSL_SRDS_1,
QSGMII_FM1_A);
}
if (lane < 0)
break;
slot = lane_to_slot[lane];
debug("FM1@DTSEC%u expects SGMII in slot %u\n",
idx + 1, slot);
if (QIXIS_READ(present2) & (1 << (slot - 1)))
fm_disable_port(i);
switch (slot) {
case 2:
mdio_mux[i] = EMI1_SLOT2;
fm_info_set_mdio(i, mii_dev_for_muxval(
mdio_mux[i]));
break;
case 3:
mdio_mux[i] = EMI1_SLOT3;
fm_info_set_mdio(i, mii_dev_for_muxval(
mdio_mux[i]));
break;
case 4:
mdio_mux[i] = EMI1_SLOT4;
fm_info_set_mdio(i, mii_dev_for_muxval(
mdio_mux[i]));
break;
case 5:
mdio_mux[i] = EMI1_SLOT5;
fm_info_set_mdio(i, mii_dev_for_muxval(
mdio_mux[i]));
break;
}
break;
case PHY_INTERFACE_MODE_RGMII:
if (i == FM1_DTSEC3)
mdio_mux[i] = EMI1_RGMII2;
else if (i == FM1_DTSEC4)
mdio_mux[i] = EMI1_RGMII1;
fm_info_set_mdio(i, mii_dev_for_muxval(mdio_mux[i]));
break;
default:
break;
}
}
for (i = FM1_10GEC1; i < FM1_10GEC1 + CONFIG_SYS_NUM_FM1_10GEC; i++) {
idx = i - FM1_10GEC1;
switch (fm_info_get_enet_if(i)) {
case PHY_INTERFACE_MODE_XGMII:
lane = serdes_get_first_lane(FSL_SRDS_1,
XFI_FM1_MAC1 + idx);
if (lane < 0)
break;
mdio_mux[i] = EMI2;
fm_info_set_mdio(i, mii_dev_for_muxval(mdio_mux[i]));
break;
default:
break;
}
}
cpu_eth_init(bis);
#endif /* CONFIG_FMAN_ENET */
return pci_eth_init(bis);
}

View File

@@ -0,0 +1,32 @@
/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <asm/fsl_law.h>
#include <asm/mmu.h>
struct law_entry law_table[] = {
#ifndef CONFIG_SYS_NO_FLASH
SET_LAW(CONFIG_SYS_FLASH_BASE_PHYS, LAW_SIZE_256M, LAW_TRGT_IF_IFC),
#endif
#ifdef CONFIG_SYS_BMAN_MEM_PHYS
SET_LAW(CONFIG_SYS_BMAN_MEM_PHYS, LAW_SIZE_32M, LAW_TRGT_IF_BMAN),
#endif
#ifdef CONFIG_SYS_QMAN_MEM_PHYS
SET_LAW(CONFIG_SYS_QMAN_MEM_PHYS, LAW_SIZE_32M, LAW_TRGT_IF_QMAN),
#endif
#ifdef QIXIS_BASE_PHYS
SET_LAW(QIXIS_BASE_PHYS, LAW_SIZE_4K, LAW_TRGT_IF_IFC),
#endif
#ifdef CONFIG_SYS_DCSRBAR_PHYS
SET_LAW(CONFIG_SYS_DCSRBAR_PHYS, LAW_SIZE_4M, LAW_TRGT_IF_DCSR),
#endif
#ifdef CONFIG_SYS_NAND_BASE_PHYS
SET_LAW(CONFIG_SYS_NAND_BASE_PHYS, LAW_SIZE_64K, LAW_TRGT_IF_IFC),
#endif
};
int num_law_entries = ARRAY_SIZE(law_table);

View File

@@ -0,0 +1,23 @@
/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <command.h>
#include <pci.h>
#include <asm/fsl_pci.h>
#include <libfdt.h>
#include <fdt_support.h>
#include <asm/fsl_serdes.h>
void pci_init_board(void)
{
fsl_pcie_init_board(0);
}
void pci_of_setup(void *blob, bd_t *bd)
{
FT_FSL_PCI_SETUP;
}

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@@ -0,0 +1,153 @@
/* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <console.h>
#include <malloc.h>
#include <ns16550.h>
#include <nand.h>
#include <i2c.h>
#include <mmc.h>
#include <fsl_esdhc.h>
#include <spi_flash.h>
#include "../common/qixis.h"
#include "t102xqds_qixis.h"
DECLARE_GLOBAL_DATA_PTR;
phys_size_t get_effective_memsize(void)
{
return CONFIG_SYS_L3_SIZE;
}
unsigned long get_board_sys_clk(void)
{
u8 sysclk_conf = QIXIS_READ(brdcfg[1]);
switch (sysclk_conf & 0x0F) {
case QIXIS_SYSCLK_83:
return 83333333;
case QIXIS_SYSCLK_100:
return 100000000;
case QIXIS_SYSCLK_125:
return 125000000;
case QIXIS_SYSCLK_133:
return 133333333;
case QIXIS_SYSCLK_150:
return 150000000;
case QIXIS_SYSCLK_160:
return 160000000;
case QIXIS_SYSCLK_166:
return 166666666;
}
return 66666666;
}
unsigned long get_board_ddr_clk(void)
{
u8 ddrclk_conf = QIXIS_READ(brdcfg[1]);
switch ((ddrclk_conf & 0x30) >> 4) {
case QIXIS_DDRCLK_100:
return 100000000;
case QIXIS_DDRCLK_125:
return 125000000;
case QIXIS_DDRCLK_133:
return 133333333;
}
return 66666666;
}
void board_init_f(ulong bootflag)
{
u32 plat_ratio, sys_clk, ccb_clk;
ccsr_gur_t *gur = (void *)CONFIG_SYS_MPC85xx_GUTS_ADDR;
#if defined(CONFIG_PPC_T1040) && defined(CONFIG_SPL_NAND_BOOT)
/*
* There is T1040 SoC issue where NOR, FPGA are inaccessible during
* NAND boot because IFC signals > IFC_AD7 are not enabled.
* This workaround changes RCW source to make all signals enabled.
*/
u32 porsr1, pinctl;
#define FSL_CORENET_CCSR_PORSR1_RCW_MASK 0xFF800000
porsr1 = in_be32(&gur->porsr1);
pinctl = ((porsr1 & ~(FSL_CORENET_CCSR_PORSR1_RCW_MASK)) | 0x24800000);
out_be32((unsigned int *)(CONFIG_SYS_DCSRBAR + 0x20000), pinctl);
#endif
/* Memcpy existing GD at CONFIG_SPL_GD_ADDR */
memcpy((void *)CONFIG_SPL_GD_ADDR, (void *)gd, sizeof(gd_t));
/* Update GD pointer */
gd = (gd_t *)(CONFIG_SPL_GD_ADDR);
console_init_f();
/* initialize selected port with appropriate baud rate */
sys_clk = get_board_sys_clk();
plat_ratio = (in_be32(&gur->rcwsr[0]) >> 25) & 0x1f;
ccb_clk = sys_clk * plat_ratio / 2;
NS16550_init((NS16550_t)CONFIG_SYS_NS16550_COM1,
ccb_clk / 16 / CONFIG_BAUDRATE);
#if defined(CONFIG_SPL_MMC_BOOT)
puts("\nSD boot...\n");
#elif defined(CONFIG_SPL_SPI_BOOT)
puts("\nSPI boot...\n");
#elif defined(CONFIG_SPL_NAND_BOOT)
puts("\nNAND boot...\n");
#endif
relocate_code(CONFIG_SPL_RELOC_STACK, (gd_t *)CONFIG_SPL_GD_ADDR, 0x0);
}
void board_init_r(gd_t *gd, ulong dest_addr)
{
bd_t *bd;
bd = (bd_t *)(gd + sizeof(gd_t));
memset(bd, 0, sizeof(bd_t));
gd->bd = bd;
bd->bi_memstart = CONFIG_SYS_INIT_L3_ADDR;
bd->bi_memsize = CONFIG_SYS_L3_SIZE;
probecpu();
get_clocks();
mem_malloc_init(CONFIG_SPL_RELOC_MALLOC_ADDR,
CONFIG_SPL_RELOC_MALLOC_SIZE);
gd->flags |= GD_FLG_FULL_MALLOC_INIT;
#ifdef CONFIG_SPL_NAND_BOOT
nand_spl_load_image(CONFIG_ENV_OFFSET, CONFIG_ENV_SIZE,
(uchar *)CONFIG_ENV_ADDR);
#endif
#ifdef CONFIG_SPL_MMC_BOOT
mmc_initialize(bd);
mmc_spl_load_image(CONFIG_ENV_OFFSET, CONFIG_ENV_SIZE,
(uchar *)CONFIG_ENV_ADDR);
#endif
#ifdef CONFIG_SPL_SPI_BOOT
spi_spl_load_image(CONFIG_ENV_OFFSET, CONFIG_ENV_SIZE,
(uchar *)CONFIG_ENV_ADDR);
#endif
gd->env_addr = (ulong)(CONFIG_ENV_ADDR);
gd->env_valid = 1;
i2c_init_all();
gd->ram_size = initdram(0);
#ifdef CONFIG_SPL_MMC_BOOT
mmc_boot();
#elif defined(CONFIG_SPL_SPI_BOOT)
spi_boot();
#elif defined(CONFIG_SPL_NAND_BOOT)
nand_boot();
#endif
}

View File

@@ -0,0 +1,26 @@
#PBI commands
#Initialize CPC1
09010000 00200400
09138000 00000000
091380c0 00000100
#Configure CPC1 as 256KB SRAM
09010100 00000000
09010104 fffc0007
09010f00 081e000d
09010000 80000000
#Configure LAW for CPC1
09000cd0 00000000
09000cd4 fffc0000
09000cd8 81000011
#Configure alternate space
09000010 00000000
09000014 ff000000
09000018 81000000
#Configure SPI controller
09110000 80000403
09110020 2d170008
09110024 00100008
09110028 00100008
0911002c 00100008
#Flush PBL data
091380c0 000FFFFF

View File

@@ -0,0 +1,10 @@
# single-source clock:Sys_Clock = DDR_Refclock = Diff_Sysclk = 100 MHz
# Core/DDR/Platform/FMan = 1400MHz/1600MT/s/400MHz/700MHz
# PBL preamble and RCW header for T1024QDS
aa55aa55 010e0100
# Serdes protocol 0x6F
0810000e 00000000 00000000 00000000
37800001 00000012 e8104000 21000000
00000000 00000000 00000000 00030810
00000000 036c5a00 00000000 00000006

View File

@@ -0,0 +1,402 @@
/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <command.h>
#include <i2c.h>
#include <netdev.h>
#include <linux/compiler.h>
#include <asm/mmu.h>
#include <asm/processor.h>
#include <asm/cache.h>
#include <asm/immap_85xx.h>
#include <asm/fsl_law.h>
#include <asm/fsl_serdes.h>
#include <asm/fsl_liodn.h>
#include <fm_eth.h>
#include <hwconfig.h>
#include "../common/qixis.h"
#include "t102xqds.h"
#include "t102xqds_qixis.h"
#include "../common/sleep.h"
DECLARE_GLOBAL_DATA_PTR;
int checkboard(void)
{
char buf[64];
struct cpu_type *cpu = gd->arch.cpu;
static const char *const freq[] = {"100", "125", "156.25", "100.0"};
int clock;
u8 sw = QIXIS_READ(arch);
printf("Board: %sQDS, ", cpu->name);
printf("Sys ID: 0x%02x, Board Arch: V%d, ", QIXIS_READ(id), sw >> 4);
printf("Board Version: %c, boot from ", (sw & 0xf) + 'A' - 1);
#ifdef CONFIG_SDCARD
puts("SD/MMC\n");
#elif CONFIG_SPIFLASH
puts("SPI\n");
#else
sw = QIXIS_READ(brdcfg[0]);
sw = (sw & QIXIS_LBMAP_MASK) >> QIXIS_LBMAP_SHIFT;
if (sw < 0x8)
printf("vBank: %d\n", sw);
else if (sw == 0x8)
puts("PromJet\n");
else if (sw == 0x9)
puts("NAND\n");
else if (sw == 0x15)
printf("IFC Card\n");
else
printf("invalid setting of SW%u\n", QIXIS_LBMAP_SWITCH);
#endif
printf("FPGA: v%d (%s), build %d",
(int)QIXIS_READ(scver), qixis_read_tag(buf),
(int)qixis_read_minor());
/* the timestamp string contains "\n" at the end */
printf(" on %s", qixis_read_time(buf));
puts("SERDES Reference: ");
sw = QIXIS_READ(brdcfg[2]);
clock = (sw >> 6) & 3;
printf("Clock1=%sMHz ", freq[clock]);
clock = (sw >> 4) & 3;
printf("Clock2=%sMHz\n", freq[clock]);
return 0;
}
int select_i2c_ch_pca9547(u8 ch)
{
int ret;
ret = i2c_write(I2C_MUX_PCA_ADDR_PRI, 0, 1, &ch, 1);
if (ret) {
puts("PCA: failed to select proper channel\n");
return ret;
}
return 0;
}
static int board_mux_lane_to_slot(void)
{
ccsr_gur_t __iomem *gur = (void *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
u32 srds_prtcl_s1;
u8 brdcfg9;
srds_prtcl_s1 = in_be32(&gur->rcwsr[4]) &
FSL_CORENET2_RCWSR4_SRDS1_PRTCL;
srds_prtcl_s1 >>= FSL_CORENET2_RCWSR4_SRDS1_PRTCL_SHIFT;
brdcfg9 = QIXIS_READ(brdcfg[9]);
QIXIS_WRITE(brdcfg[9], brdcfg9 | BRDCFG9_XFI_TX_DISABLE);
switch (srds_prtcl_s1) {
case 0:
/* SerDes1 is not enabled */
break;
case 0xd5:
case 0x5b:
case 0x6b:
case 0x77:
case 0x6f:
case 0x7f:
QIXIS_WRITE(brdcfg[12], 0x8c);
break;
case 0x40:
QIXIS_WRITE(brdcfg[12], 0xfc);
break;
case 0xd6:
case 0x5a:
case 0x6a:
case 0x56:
QIXIS_WRITE(brdcfg[12], 0x88);
break;
case 0x47:
QIXIS_WRITE(brdcfg[12], 0xcc);
break;
case 0x46:
QIXIS_WRITE(brdcfg[12], 0xc8);
break;
case 0x95:
case 0x99:
brdcfg9 &= ~BRDCFG9_XFI_TX_DISABLE;
QIXIS_WRITE(brdcfg[9], brdcfg9);
QIXIS_WRITE(brdcfg[12], 0x8c);
break;
case 0x116:
QIXIS_WRITE(brdcfg[12], 0x00);
break;
case 0x115:
case 0x119:
case 0x129:
case 0x12b:
/* Aurora, PCIe, SGMII, SATA */
QIXIS_WRITE(brdcfg[12], 0x04);
break;
default:
printf("WARNING: unsupported for SerDes Protocol %d\n",
srds_prtcl_s1);
return -1;
}
return 0;
}
#ifdef CONFIG_PPC_T1024
static void board_mux_setup(void)
{
u8 brdcfg15;
brdcfg15 = QIXIS_READ(brdcfg[15]);
brdcfg15 &= ~BRDCFG15_DIUSEL_MASK;
if (hwconfig_arg_cmp("pin_mux", "tdm")) {
/* Route QE_TDM multiplexed signals to TDM Riser slot */
QIXIS_WRITE(brdcfg[15], brdcfg15 | BRDCFG15_DIUSEL_TDM);
QIXIS_WRITE(brdcfg[13], BRDCFG13_TDM_INTERFACE << 2);
QIXIS_WRITE(brdcfg[5], (QIXIS_READ(brdcfg[5]) &
~BRDCFG5_SPIRTE_MASK) | BRDCFG5_SPIRTE_TDM);
} else if (hwconfig_arg_cmp("pin_mux", "ucc")) {
/* to UCC (ProfiBus) interface */
QIXIS_WRITE(brdcfg[15], brdcfg15 | BRDCFG15_DIUSEL_UCC);
} else if (hwconfig_arg_cmp("pin_mux", "hdmi")) {
/* to DVI (HDMI) encoder */
QIXIS_WRITE(brdcfg[15], brdcfg15 | BRDCFG15_DIUSEL_HDMI);
} else if (hwconfig_arg_cmp("pin_mux", "lcd")) {
/* to DFP (LCD) encoder */
QIXIS_WRITE(brdcfg[15], brdcfg15 | BRDCFG15_LCDFM |
BRDCFG15_LCDPD | BRDCFG15_DIUSEL_LCD);
}
if (hwconfig_arg_cmp("adaptor", "sdxc"))
/* Route SPI_CS multiplexed signals to SD slot */
QIXIS_WRITE(brdcfg[5], (QIXIS_READ(brdcfg[5]) &
~BRDCFG5_SPIRTE_MASK) | BRDCFG5_SPIRTE_SDHC);
}
#endif
void board_retimer_ds125df111_init(void)
{
u8 reg;
/* Retimer DS125DF111 is connected to I2C1_CH7_CH5 */
reg = I2C_MUX_CH7;
i2c_write(I2C_MUX_PCA_ADDR_PRI, 0, 1, &reg, 1);
reg = I2C_MUX_CH5;
i2c_write(I2C_MUX_PCA_ADDR_SEC, 0, 1, &reg, 1);
/* Access to Control/Shared register */
reg = 0x0;
i2c_write(I2C_RETIMER_ADDR, 0xff, 1, &reg, 1);
/* Read device revision and ID */
i2c_read(I2C_RETIMER_ADDR, 1, 1, &reg, 1);
debug("Retimer version id = 0x%x\n", reg);
/* Enable Broadcast */
reg = 0x0c;
i2c_write(I2C_RETIMER_ADDR, 0xff, 1, &reg, 1);
/* Reset Channel Registers */
i2c_read(I2C_RETIMER_ADDR, 0, 1, &reg, 1);
reg |= 0x4;
i2c_write(I2C_RETIMER_ADDR, 0, 1, &reg, 1);
/* Enable override divider select and Enable Override Output Mux */
i2c_read(I2C_RETIMER_ADDR, 9, 1, &reg, 1);
reg |= 0x24;
i2c_write(I2C_RETIMER_ADDR, 9, 1, &reg, 1);
/* Select VCO Divider to full rate (000) */
i2c_read(I2C_RETIMER_ADDR, 0x18, 1, &reg, 1);
reg &= 0x8f;
i2c_write(I2C_RETIMER_ADDR, 0x18, 1, &reg, 1);
/* Select active PFD MUX input as re-timed data (001) */
i2c_read(I2C_RETIMER_ADDR, 0x1e, 1, &reg, 1);
reg &= 0x3f;
reg |= 0x20;
i2c_write(I2C_RETIMER_ADDR, 0x1e, 1, &reg, 1);
/* Set data rate as 10.3125 Gbps */
reg = 0x0;
i2c_write(I2C_RETIMER_ADDR, 0x60, 1, &reg, 1);
reg = 0xb2;
i2c_write(I2C_RETIMER_ADDR, 0x61, 1, &reg, 1);
reg = 0x90;
i2c_write(I2C_RETIMER_ADDR, 0x62, 1, &reg, 1);
reg = 0xb3;
i2c_write(I2C_RETIMER_ADDR, 0x63, 1, &reg, 1);
reg = 0xcd;
i2c_write(I2C_RETIMER_ADDR, 0x64, 1, &reg, 1);
}
int board_early_init_f(void)
{
#if defined(CONFIG_DEEP_SLEEP)
if (is_warm_boot())
fsl_dp_disable_console();
#endif
return 0;
}
int board_early_init_r(void)
{
#ifdef CONFIG_SYS_FLASH_BASE
const unsigned int flashbase = CONFIG_SYS_FLASH_BASE;
int flash_esel = find_tlb_idx((void *)flashbase, 1);
/*
* Remap Boot flash + PROMJET region to caching-inhibited
* so that flash can be erased properly.
*/
/* Flush d-cache and invalidate i-cache of any FLASH data */
flush_dcache();
invalidate_icache();
if (flash_esel == -1) {
/* very unlikely unless something is messed up */
puts("Error: Could not find TLB for FLASH BASE\n");
flash_esel = 2; /* give our best effort to continue */
} else {
/* invalidate existing TLB entry for flash + promjet */
disable_tlb(flash_esel);
}
set_tlb(1, flashbase, CONFIG_SYS_FLASH_BASE_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, flash_esel, BOOKE_PAGESZ_256M, 1);
#endif
select_i2c_ch_pca9547(I2C_MUX_CH_DEFAULT);
board_mux_lane_to_slot();
board_retimer_ds125df111_init();
/* Increase IO drive strength to address FCS error on RGMII */
out_be32((unsigned *)CONFIG_SYS_FSL_SCFG_IODSECR1_ADDR, 0xbfdb7800);
return 0;
}
unsigned long get_board_sys_clk(void)
{
u8 sysclk_conf = QIXIS_READ(brdcfg[1]);
switch (sysclk_conf & 0x0F) {
case QIXIS_SYSCLK_64:
return 64000000;
case QIXIS_SYSCLK_83:
return 83333333;
case QIXIS_SYSCLK_100:
return 100000000;
case QIXIS_SYSCLK_125:
return 125000000;
case QIXIS_SYSCLK_133:
return 133333333;
case QIXIS_SYSCLK_150:
return 150000000;
case QIXIS_SYSCLK_160:
return 160000000;
case QIXIS_SYSCLK_166:
return 166666666;
}
return 66666666;
}
unsigned long get_board_ddr_clk(void)
{
u8 ddrclk_conf = QIXIS_READ(brdcfg[1]);
switch ((ddrclk_conf & 0x30) >> 4) {
case QIXIS_DDRCLK_100:
return 100000000;
case QIXIS_DDRCLK_125:
return 125000000;
case QIXIS_DDRCLK_133:
return 133333333;
}
return 66666666;
}
#define NUM_SRDS_PLL 2
int misc_init_r(void)
{
#ifdef CONFIG_PPC_T1024
board_mux_setup();
#endif
return 0;
}
void fdt_fixup_spi_mux(void *blob)
{
int nodeoff = 0;
if (hwconfig_arg_cmp("pin_mux", "tdm")) {
while ((nodeoff = fdt_node_offset_by_compatible(blob, 0,
"eon,en25s64")) >= 0) {
fdt_del_node(blob, nodeoff);
}
} else {
/* remove tdm node */
while ((nodeoff = fdt_node_offset_by_compatible(blob, 0,
"maxim,ds26522")) >= 0) {
fdt_del_node(blob, nodeoff);
}
}
}
int ft_board_setup(void *blob, bd_t *bd)
{
phys_addr_t base;
phys_size_t size;
ft_cpu_setup(blob, bd);
base = getenv_bootm_low();
size = getenv_bootm_size();
fdt_fixup_memory(blob, (u64)base, (u64)size);
#ifdef CONFIG_PCI
pci_of_setup(blob, bd);
#endif
fdt_fixup_liodn(blob);
#ifdef CONFIG_HAS_FSL_DR_USB
fdt_fixup_dr_usb(blob, bd);
#endif
#ifdef CONFIG_SYS_DPAA_FMAN
fdt_fixup_fman_ethernet(blob);
fdt_fixup_board_enet(blob);
#endif
fdt_fixup_spi_mux(blob);
return 0;
}
void qixis_dump_switch(void)
{
int i, nr_of_cfgsw;
QIXIS_WRITE(cms[0], 0x00);
nr_of_cfgsw = QIXIS_READ(cms[1]);
puts("DIP switch settings dump:\n");
for (i = 1; i <= nr_of_cfgsw; i++) {
QIXIS_WRITE(cms[0], i);
printf("SW%d = (0x%02x)\n", i, QIXIS_READ(cms[1]));
}
}

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@@ -0,0 +1,14 @@
/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#ifndef __T102x_QDS_H__
#define __T102x_QDS_H__
void fdt_fixup_board_enet(void *blob);
void pci_of_setup(void *blob, bd_t *bd);
int select_i2c_ch_pca9547(u8 ch);
#endif

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@@ -0,0 +1,64 @@
/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#ifndef __T1024QDS_QIXIS_H__
#define __T1024QDS_QIXIS_H__
/* Definitions of QIXIS Registers for T1024/T1023 QDS */
/* BRDCFG4[4:7]] select EC1 and EC2 as a pair */
#define BRDCFG4_EMISEL_MASK 0xE0
#define BRDCFG4_EMISEL_SHIFT 5
/* BRDCFG5[0:1] controls routing and use of I2C3 & I2C4 ports*/
#define BRDCFG5_IMX_MASK 0xC0
#define BRDCFG5_IMX_DIU 0x80
#define BRDCFG5_SPIRTE_MASK 0x07
#define BRDCFG5_SPIRTE_TDM 0x01
#define BRDCFG5_SPIRTE_SDHC 0x02
#define BRDCFG9_XFI_TX_DISABLE 0x10
/* BRDCFG13[0:5] TDM configuration and setup */
#define BRDCFG13_TDM_MASK 0xfc
#define BRDCFG13_TDM_INTERFACE 0x37
#define BRDCFG13_HDLC_LOOPBACK 0x29
#define BRDCFG13_TDM_LOOPBACK 0x31
/* BRDCFG15[3] controls LCD Panel Powerdown */
#define BRDCFG15_LCDFM 0x20
#define BRDCFG15_LCDPD 0x10
#define BRDCFG15_LCDPD_MASK 0x10
#define BRDCFG15_LCDPD_ENABLED 0x00
/* BRDCFG15[6:7] controls DIU MUX selction*/
#define BRDCFG15_DIUSEL_MASK 0x03
#define BRDCFG15_DIUSEL_HDMI 0x00
#define BRDCFG15_DIUSEL_LCD 0x01
#define BRDCFG15_DIUSEL_UCC 0x02
#define BRDCFG15_DIUSEL_TDM 0x03
/* SYSCLK */
#define QIXIS_SYSCLK_66 0x0
#define QIXIS_SYSCLK_83 0x1
#define QIXIS_SYSCLK_100 0x2
#define QIXIS_SYSCLK_125 0x3
#define QIXIS_SYSCLK_133 0x4
#define QIXIS_SYSCLK_150 0x5
#define QIXIS_SYSCLK_160 0x6
#define QIXIS_SYSCLK_166 0x7
#define QIXIS_SYSCLK_64 0x8
/* DDRCLK */
#define QIXIS_DDRCLK_66 0x0
#define QIXIS_DDRCLK_100 0x1
#define QIXIS_DDRCLK_125 0x2
#define QIXIS_DDRCLK_133 0x3
#define QIXIS_SRDS1CLK_122 0x5a
#define QIXIS_SRDS1CLK_125 0x5e
#endif

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/*
* Copyright 2014 Freescale Semiconductor, Inc.
*
* SPDX-License-Identifier: GPL-2.0+
*/
#include <common.h>
#include <asm/mmu.h>
struct fsl_e_tlb_entry tlb_table[] = {
/* TLB 0 - for temp stack in cache */
SET_TLB_ENTRY(0, CONFIG_SYS_INIT_RAM_ADDR,
CONFIG_SYS_INIT_RAM_ADDR_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 0, BOOKE_PAGESZ_4K, 0),
SET_TLB_ENTRY(0, CONFIG_SYS_INIT_RAM_ADDR + 4 * 1024,
CONFIG_SYS_INIT_RAM_ADDR_PHYS + 4 * 1024,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 0, BOOKE_PAGESZ_4K, 0),
SET_TLB_ENTRY(0, CONFIG_SYS_INIT_RAM_ADDR + 8 * 1024,
CONFIG_SYS_INIT_RAM_ADDR_PHYS + 8 * 1024,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 0, BOOKE_PAGESZ_4K, 0),
SET_TLB_ENTRY(0, CONFIG_SYS_INIT_RAM_ADDR + 12 * 1024,
CONFIG_SYS_INIT_RAM_ADDR_PHYS + 12 * 1024,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 0, BOOKE_PAGESZ_4K, 0),
/* TLB 1 */
/* *I*** - Covers boot page */
#if defined(CONFIG_SYS_RAMBOOT) && defined(CONFIG_SYS_INIT_L3_ADDR)
/*
* *I*G - L3SRAM. When L3 is used as 256K SRAM, the address of the
* SRAM is at 0xfffc0000, it covered the 0xfffff000.
*/
SET_TLB_ENTRY(1, CONFIG_SYS_INIT_L3_ADDR, CONFIG_SYS_INIT_L3_ADDR,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 0, BOOKE_PAGESZ_256K, 1),
#else
SET_TLB_ENTRY(1, 0xfffff000, 0xfffff000,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 0, BOOKE_PAGESZ_4K, 1),
#endif
/* *I*G* - CCSRBAR */
SET_TLB_ENTRY(1, CONFIG_SYS_CCSRBAR, CONFIG_SYS_CCSRBAR_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 1, BOOKE_PAGESZ_16M, 1),
/* *I*G* - Flash, localbus */
/* This will be changed to *I*G* after relocation to RAM. */
SET_TLB_ENTRY(1, CONFIG_SYS_FLASH_BASE, CONFIG_SYS_FLASH_BASE_PHYS,
MAS3_SX|MAS3_SR, MAS2_W|MAS2_G,
0, 2, BOOKE_PAGESZ_256M, 1),
#ifndef CONFIG_SPL_BUILD
/* *I*G* - PCI */
SET_TLB_ENTRY(1, CONFIG_SYS_PCIE1_MEM_VIRT, CONFIG_SYS_PCIE1_MEM_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 3, BOOKE_PAGESZ_1G, 1),
/* *I*G* - PCI I/O */
SET_TLB_ENTRY(1, CONFIG_SYS_PCIE1_IO_VIRT, CONFIG_SYS_PCIE1_IO_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 4, BOOKE_PAGESZ_256K, 1),
/* Bman/Qman */
#ifdef CONFIG_SYS_BMAN_MEM_PHYS
SET_TLB_ENTRY(1, CONFIG_SYS_BMAN_MEM_BASE, CONFIG_SYS_BMAN_MEM_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 5, BOOKE_PAGESZ_16M, 1),
SET_TLB_ENTRY(1, CONFIG_SYS_BMAN_MEM_BASE + 0x01000000,
CONFIG_SYS_BMAN_MEM_PHYS + 0x01000000,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 6, BOOKE_PAGESZ_16M, 1),
#endif
#ifdef CONFIG_SYS_QMAN_MEM_PHYS
SET_TLB_ENTRY(1, CONFIG_SYS_QMAN_MEM_BASE, CONFIG_SYS_QMAN_MEM_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 7, BOOKE_PAGESZ_16M, 1),
SET_TLB_ENTRY(1, CONFIG_SYS_QMAN_MEM_BASE + 0x01000000,
CONFIG_SYS_QMAN_MEM_PHYS + 0x01000000,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 8, BOOKE_PAGESZ_16M, 1),
#endif
#endif
#ifdef CONFIG_SYS_DCSRBAR_PHYS
SET_TLB_ENTRY(1, CONFIG_SYS_DCSRBAR, CONFIG_SYS_DCSRBAR_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 9, BOOKE_PAGESZ_4M, 1),
#endif
#ifdef CONFIG_SYS_NAND_BASE
SET_TLB_ENTRY(1, CONFIG_SYS_NAND_BASE, CONFIG_SYS_NAND_BASE_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 10, BOOKE_PAGESZ_64K, 1),
#endif
#ifdef QIXIS_BASE
SET_TLB_ENTRY(1, QIXIS_BASE, QIXIS_BASE_PHYS,
MAS3_SX|MAS3_SW|MAS3_SR, MAS2_I|MAS2_G,
0, 11, BOOKE_PAGESZ_4K, 1),
#endif
#if defined(CONFIG_RAMBOOT_PBL) && !defined(CONFIG_SPL_BUILD)
SET_TLB_ENTRY(1, CONFIG_SYS_DDR_SDRAM_BASE, CONFIG_SYS_DDR_SDRAM_BASE,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 12, BOOKE_PAGESZ_1G, 1),
SET_TLB_ENTRY(1, CONFIG_SYS_DDR_SDRAM_BASE + 0x40000000,
CONFIG_SYS_DDR_SDRAM_BASE + 0x40000000,
MAS3_SX|MAS3_SW|MAS3_SR, 0,
0, 13, BOOKE_PAGESZ_1G, 1)
#endif
/* entry 14 and 15 has been used hard coded, they will be disabled
* in cpu_init_f, so if needed more, will use entry 16 later.
*/
};
int num_tlb_entries = ARRAY_SIZE(tlb_table);