P1010RDB-PB is a variation of previous P1010RDB-PA board. Henceforth we support P1010RDB-PB board instead of P1010RDB-PA.
Signed-off-by: Shengzhou Liu Shengzhou.Liu@freescale.com --- board/freescale/p1010rdb/README | 285 +++++++++++++++++-------------------- doc/README.p1010rdb | 302 +++++++++++++++++++--------------------- 2 files changed, 267 insertions(+), 320 deletions(-)
diff --git a/board/freescale/p1010rdb/README b/board/freescale/p1010rdb/README index 7f18aaa..6d96bd4 100644 --- a/board/freescale/p1010rdb/README +++ b/board/freescale/p1010rdb/README @@ -1,58 +1,40 @@ Overview ========= -The P1010RDB is a Freescale reference design board that hosts the P1010 SoC. +The P1010RDB is a Freescale Reference Design Board that hosts the P1010 SoC. +P1010RDB-PB is a variation of previous P1010RDB-PA board.
The P1010 is a cost-effective, low-power, highly integrated host processor -based on a Power Architecture e500v2 core (maximum core frequency 800/1000 MHz), -that addresses the requirements of several routing, gateways, storage, consumer, +based on a Power Architecture e500v2 core (maximum core frequency 1GHz),that +addresses the requirements of several routing, gateways, storage, consumer, and industrial applications. Applications of interest include the main CPUs and I/O processors in network attached storage (NAS), the voice over IP (VoIP) router/gateway, and wireless LAN (WLAN) and industrial controllers.
-The P1010RDB board features are as follows: +The P1010RDB-PB board features are as following: Memory subsystem: - - 1Gbyte unbuffered DDR3 SDRAM discrete devices (32-bit bus) - - 32 Mbyte NOR flash single-chip memory - - 32 Mbyte NAND flash memory - - 256 Kbit M24256 I2C EEPROM - - 16 Mbyte SPI memory + - 1G bytes unbuffered DDR3 SDRAM discrete devices (32-bit bus) + - 32M bytes NOR flash single-chip memory + - 2G bytes NAND flash memory + - 16M bytes SPI memory + - 256K bit M24256 I2C EEPROM - I2C Board EEPROM 128x8 bit memory - SD/MMC connector to interface with the SD memory card Interfaces: - - PCIe: - - Lane0: x1 mini-PCIe slot - - Lane1: x1 PCIe standard slot - - SATA: - - 1 internal SATA connector to 2.5” 160G SATA2 HDD - - 1 eSATA connector to rear panel - - 10/100/1000 BaseT Ethernet ports: - - eTSEC1, RGMII: one 10/100/1000 port using Vitesse VSC8641XKO - - eTSEC2, SGMII: one 10/100/1000 port using Vitesse VSC8221 - - eTSEC3, SGMII: one 10/100/1000 port using Vitesse VSC8221 - - USB 2.0 port: - - x1 USB2.0 port via an external ULPI PHY to micro-AB connector - - x1 USB2.0 port via an internal UTMI PHY to micro-AB connector - - FlexCAN ports: - - 2 DB-9 female connectors for FlexCAN bus(revision 2.0B) - interface; - - DUART interface: - - DUART interface: supports two UARTs up to 115200 bps for - console display - - RJ45 connectors are used for these 2 UART ports. - - TDM - - 2 FXS ports connected via an external SLIC to the TDM interface. - SLIC is controllled via SPI. - - 1 FXO port connected via a relay to FXS for switchover to POTS + - Three 10/100/1000 BaseT Ethernet ports (One RGMII and two SGMII) + - PCIe 2.0: two x1 mini-PCIe slots + - SATA 2.0: two SATA interfaces + - USB 2.0: one USB interface + - FlexCAN: two FlexCAN interfaces (revision 2.0B) + - UART: one USB-to-Serial interface + - TDM: 2 FXS ports connected via an external SLIC to the TDM interface. + 1 FXO port connected via a relay to FXS for switchover to POTS + Board connectors: - Mini-ITX power supply connector - JTAG/COP for debugging -IEEE Std. 1588 signals for test and measurement -Real-time clock on I2C bus -POR - - support critical POR setting changed via switch on board -PCB - - 6-layer routing (4-layer signals, 2-layer power and ground)
+POR: support critical POR setting changed via switch on board +PCB: 6-layer routing (4-layer signals, 2-layer power and ground)
Physical Memory Map on P1010RDB =============================== @@ -77,132 +59,119 @@ Configure the serial port of the attached computer with the following values: -Flow Control: Hardware/None
-Settings of DIP-switch -====================== - SW4[1:4]= 1111 and SW6[4]=0 for boot from 16bit NOR flash - SW4[1:4]= 1000 and SW6[4]=1 for boot from 8bit NAND flash - SW4[1:4]= 0110 and SW6[4]=0 for boot from SPI flash +P1010RDB-PB default DIP-switch settings +======================================= +SW1[1:8]= 10101010 +SW2[1:8]= 11011000 +SW3[1:8]= 10010000 +SW4[1:4]= 1010 +SW5[1:8]= 11111010 + + +P1010RDB-PB boot mode settings via DIP-switch +============================================= +SW4[1:4]= 1111 and SW3[3:4]= 00 for 16bit NOR boot +SW4[1:4]= 1010 and SW3[3:4]= 01 for 8bit NAND boot +SW4[1:4]= 0110 and SW3[3:4]= 00 for SPI boot +SW4[1:4]= 0111 and SW3[3:4]= 10 for SD boot Note: 1 stands for 'on', 0 stands for 'off'
-Setting of hwconfig +P1010RDB-PB boot mode change in u-boot without DIP-switch +========================================================= +=> run boot_bank0 (boot from NOR bank0) +=> run boot_bank1 (boot from NOR bank1) +=> run boot_nand (boot from NAND flash) +=> run boot_spi (boot from SPI flash) +=> run boot_sd (boot from SD card) + + +Setting of pin mux =================== -If FlexCAN or TDM is needed, please set "fsl_p1010mux:tdm_can=can" or -"fsl_p1010mux:tdm_can=tdm" explicitly in u-booot prompt as below for example: -setenv hwconfig "fsl_p1010mux:tdm_can=tdm;usb1:dr_mode=host,phy_type=utmi" -By default, don't set fsl_p1010mux:tdm_can, in this case, spi chip selection -is set to spi-flash instead of to SLIC/TDM/DAC and tdm_can_sel is set to TDM -instead of to CAN/UART1. - - -Build and burn u-boot to NOR flash -================================== -1. Build u-boot.bin image - export ARCH=powerpc - export CROSS_COMPILE=/your_path/powerpc-linux-gnu- - make P1010RDB_NOR - -2. Burn u-boot.bin into NOR flash - => tftp $loadaddr $uboot - => protect off eff80000 +$filesize - => erase eff80000 +$filesize - => cp.b $loadaddr eff80000 $filesize - -3. Check SW4[1:4]= 1111 and SW6[4]=0, then power on. - - -Alternate NOR bank -================== -1. Burn u-boot.bin into alternate NOR bank - => tftp $loadaddr $uboot - => protect off eef80000 +$filesize - => erase eef80000 +$filesize - => cp.b $loadaddr eef80000 $filesize - -2. Switch to alternate NOR bank - => mw.b ffb00009 1 - => reset - or set SW1[8]= ON - -SW1[8]= OFF: Upper bank used for booting start -SW1[8]= ON: Lower bank used for booting start -CPLD NOR bank selection register address 0xFFB00009 Bit[0]: -0 - boot from upper 4 sectors -1 - boot from lower 4 sectors - - -Build and burn u-boot to NAND flash -=================================== -1. Build u-boot.bin image - export ARCH=powerpc - export CROSS_COMPILE=/your_path/powerpc-linux-gnu- - make P1010RDB_NAND - -2. Burn u-boot-nand.bin into NAND flash - => tftp $loadaddr $uboot-nand - => nand erase 0 $filesize - => nand write $loadaddr 0 $filesize - -3. Check SW4[1:4]= 1000 and SW6[4]=1, then power on. - - -Build and burn u-boot to SPI flash -================================== -1. Build u-boot-spi.bin image - make P1010RDB_SPIFLASH_config; make - Boot up kernel with rootfs.ext2.gz.uboot.p1010rdb - Download u-boot.bin to linux and you can find some config files - under /usr/share such as config_xx.dat. Do below command: - boot_format config_ddr3_1gb_p1010rdb_800M.dat u-boot.bin -spi \ - u-boot-spi.bin - to generate u-boot-spi.bin. - -2. Burn u-boot-spi.bin into SPI flash - => tftp $loadaddr $uboot-spi - => sf erase 0 100000 - => sf write $loadaddr 0 $filesize - -3. Check SW4[1:4]= 0110 and SW6[4]=0, then power on. - - -CPLD POR setting registers -========================== -1. Set POR switch selection register (addr 0xFFB00011) to 0. -2. Write CPLD POR registers (BCSR0~BCSR3, addr 0xFFB00014~0xFFB00017) with - proper values. - If change boot ROM location to NOR or NAND flash, need write the IFC_CS0 - switch command by I2C. -3. Send reset command. - After reset, the new POR setting will be implemented. - -Two examples are given in below: -Switch from NOR to NAND boot with default frequency: - => i2c dev 0 - => i2c mw 18 1 f9 - => i2c mw 18 3 f0 - => mw.b ffb00011 0 - => mw.b ffb00017 1 - => reset -Switch from NAND to NOR boot with Core/CCB/DDR (800/400/667 MHz): - => i2c dev 0 - => i2c mw 18 1 f1 - => i2c mw 18 3 f0 - => mw.b ffb00011 0 - => mw.b ffb00014 2 - => mw.b ffb00015 5 - => mw.b ffb00016 3 - => mw.b ffb00017 f - => reset - - -Boot Linux from network using TFTP on P1010RDB -============================================== -Place uImage, p1010rdb.dtb and rootfs files in the TFTP disk area. +Since pins multiplexing, TDM and CAN are muxed with SPI flash. +SDHC is muxed with IFC. IFC and SPI flash are enabled by default. + +To enable TDM: +=> setenv hwconfig fsl_p1010mux:tdm_can=tdm +=> save;reset + +To enable FlexCAN: +=> setenv hwconfig fsl_p1010mux:tdm_can=can +=> save;reset + +To enable SDHC in case of NOR/NAND/SPI boot + a) For temporary use case in runtime without reboot system + run 'mux sdhc' in u-boot to validate SDHC with invalidating IFC. + + b) For long-term use case + set 'esdhc' in hwconfig and save it. + +To enable IFC in case of SD boot + run 'mux ifc' in u-boot to validate IFC with invalidating SDHC. + + +Build images for different boot mode: +===================================== +First, setup cross compile environment on your build host + $ export ARCH=powerpc + $ export CROSS_COMPILE=<your-compiler-path>/powerpc-linux-gnu- + +1. For NOR boot + $ make distclean + $ make P1010RDB-PB_NOR + +2. For NAND boot + $ make distclean + $ make P1010RDB-PB_NAND + +3. For SPI boot + $ make distclean + $ make P1010RDB-PB_SPIFLASH + +4. For SD boot + $ make distclean + $ make P1010RDB-PB_SDCARD + + +Steps to burn images for different boot mode: +============================================= +1. NOR boot + => tftp 1000000 u-boot.bin + For bank0 + => pro off all;era eff80000 efffffff;cp.b 1000000 eff80000 $filesize + set SW1[8]=0, SW4[1:4]= 1111 and SW3[3:4]= 00, then power on the board + + For bank1 + => pro off all;era eef80000 eeffffff;cp.b 1000000 eef80000 $filesize + set SW1[8]=1, SW4[1:4]= 1111 and SW3[3:4]= 00, then power on the board + +2. NAND boot + => tftp 1000000 u-boot-nand.bin + => nand erase 0 $filesize; nand write $loadaddr 0 $filesize + Set SW4[1:4]= 1010 and SW3[3:4]= 01, then power on the board + +3. SPI boot + 1) cat p1010rdb-config-header.bin u-boot.bin > u-boot-spi-combined.bin + 2) => tftp 1000000 u-boot-spi-combined.bin + 3) => sf probe 0; sf erase 0 100000; sf write 1000000 0 100000 + set SW4[1:4]= 0110 and SW3[3:4]= 00, then power on the board + +4. SD boot + 1) cat p1010rdb-config-header.bin u-boot.bin > u-boot-sd-combined.bin + 2) => tftp 1000000 u-boot-sd-combined.bin + 3) => mux sdhc + 4) => mmc write 1000000 0 1050 + set SW4[1:4]= 0111 and SW3[3:4]= 10, then power on the board + + +Boot Linux from network using TFTP on P1010RDB-PB +================================================= +Place uImage, p1010rdb.dtb and rootfs files in the TFTP download path. => tftp 1000000 uImage => tftp 2000000 p1010rdb.dtb => tftp 3000000 rootfs.ext2.gz.uboot.p1010rdb => bootm 1000000 3000000 2000000
-Please contact your local field applications engineer or sales representative -to obtain related documents, such as P1010-RDB User Guide for details. +For more details, please refer to P1010RDB-PB User Guide and access website +www.freescale.com and Freescale QorIQ SDK Infocenter document. diff --git a/doc/README.p1010rdb b/doc/README.p1010rdb index dee63d7..6d96bd4 100644 --- a/doc/README.p1010rdb +++ b/doc/README.p1010rdb @@ -1,58 +1,52 @@ Overview ========= -The P1010RDB is a Freescale reference design board that hosts the P1010 SoC. +The P1010RDB is a Freescale Reference Design Board that hosts the P1010 SoC. +P1010RDB-PB is a variation of previous P1010RDB-PA board.
The P1010 is a cost-effective, low-power, highly integrated host processor -based on a Power Architecture e500v2 core (maximum core frequency 800/1000 MHz), -that addresses the requirements of several routing, gateways, storage, consumer, +based on a Power Architecture e500v2 core (maximum core frequency 1GHz),that +addresses the requirements of several routing, gateways, storage, consumer, and industrial applications. Applications of interest include the main CPUs and I/O processors in network attached storage (NAS), the voice over IP (VoIP) router/gateway, and wireless LAN (WLAN) and industrial controllers.
-The P1010RDB board features are as follows: +The P1010RDB-PB board features are as following: Memory subsystem: - - 1Gbyte unbuffered DDR3 SDRAM discrete devices (32-bit bus) - - 32 Mbyte NOR flash single-chip memory - - 32 Mbyte NAND flash memory - - 256 Kbit M24256 I2C EEPROM - - 16 Mbyte SPI memory + - 1G bytes unbuffered DDR3 SDRAM discrete devices (32-bit bus) + - 32M bytes NOR flash single-chip memory + - 2G bytes NAND flash memory + - 16M bytes SPI memory + - 256K bit M24256 I2C EEPROM - I2C Board EEPROM 128x8 bit memory - SD/MMC connector to interface with the SD memory card Interfaces: - - PCIe: - - Lane0: x1 mini-PCIe slot - - Lane1: x1 PCIe standard slot - - SATA: - - 1 internal SATA connector to 2.5" 160G SATA2 HDD - - 1 eSATA connector to rear panel - - 10/100/1000 BaseT Ethernet ports: - - eTSEC1, RGMII: one 10/100/1000 port using Vitesse VSC8641XKO - - eTSEC2, SGMII: one 10/100/1000 port using Vitesse VSC8221 - - eTSEC3, SGMII: one 10/100/1000 port using Vitesse VSC8221 - - USB 2.0 port: - - x1 USB2.0 port: via an ULPI PHY to micro-AB connector - - x1 USB2.0 poort via an internal PHY to micro-AB connector - - FlexCAN ports: - - x2 DB-9 female connectors for FlexCAN bus(revision 2.0B) - interface; - - DUART interface: - - DUART interface: supports two UARTs up to 115200 bps for - console display - - J45 connectors are used for these 2 UART ports. - - TDM - - 2 FXS ports connected via an external SLIC to the TDM - interface. SLIC is controllled via SPI. - - 1 FXO port connected via a relay to FXS for switchover to - POTS + - Three 10/100/1000 BaseT Ethernet ports (One RGMII and two SGMII) + - PCIe 2.0: two x1 mini-PCIe slots + - SATA 2.0: two SATA interfaces + - USB 2.0: one USB interface + - FlexCAN: two FlexCAN interfaces (revision 2.0B) + - UART: one USB-to-Serial interface + - TDM: 2 FXS ports connected via an external SLIC to the TDM interface. + 1 FXO port connected via a relay to FXS for switchover to POTS + Board connectors: - Mini-ITX power supply connector - JTAG/COP for debugging -IEEE Std. 1588 signals for test and measurement -Real-time clock on I2C bus -POR - - support critical POR setting changed via switch on board -PCB - - 6-layer routing (4-layer signals, 2-layer power and ground) + +POR: support critical POR setting changed via switch on board +PCB: 6-layer routing (4-layer signals, 2-layer power and ground) + +Physical Memory Map on P1010RDB +=============================== +Address Start Address End Memory type Attributes +0x0000_0000 0x3fff_ffff DDR 1G Cacheable +0xa000_0000 0xdfff_ffff PCI Express Mem 1G non-cacheable +0xee00_0000 0xefff_ffff NOR Flash 32M non-cacheable +0xffc2_0000 0xffc5_ffff PCI IO range 256K non-cacheable +0xffa0_0000 0xffaf_ffff NAND Flash 1M cacheable +0xffb0_0000 0xffbf_ffff Board CPLD 1M non-cacheable +0xffd0_0000 0xffd0_3fff L1 for Stack 16K Cacheable TLB0 +0xffe0_0000 0xffef_ffff CCSR 1M non-cacheable
Serial Port Configuration on P1010RDB @@ -65,135 +59,119 @@ Configure the serial port of the attached computer with the following values: -Flow Control: Hardware/None
-Settings of DIP-switch -====================== - SW4[1:4]= 1111 and SW6[4]=0 for boot from 16bit NOR flash - SW4[1:4]= 1000 and SW6[4]=1 for boot from 8bit NAND flash - SW4[1:4]= 0110 and SW6[4]=0 for boot from SPI flash +P1010RDB-PB default DIP-switch settings +======================================= +SW1[1:8]= 10101010 +SW2[1:8]= 11011000 +SW3[1:8]= 10010000 +SW4[1:4]= 1010 +SW5[1:8]= 11111010 + + +P1010RDB-PB boot mode settings via DIP-switch +============================================= +SW4[1:4]= 1111 and SW3[3:4]= 00 for 16bit NOR boot +SW4[1:4]= 1010 and SW3[3:4]= 01 for 8bit NAND boot +SW4[1:4]= 0110 and SW3[3:4]= 00 for SPI boot +SW4[1:4]= 0111 and SW3[3:4]= 10 for SD boot Note: 1 stands for 'on', 0 stands for 'off'
-Setting of hwconfig +P1010RDB-PB boot mode change in u-boot without DIP-switch +========================================================= +=> run boot_bank0 (boot from NOR bank0) +=> run boot_bank1 (boot from NOR bank1) +=> run boot_nand (boot from NAND flash) +=> run boot_spi (boot from SPI flash) +=> run boot_sd (boot from SD card) + + +Setting of pin mux =================== -If FlexCAN or TDM is needed, please set "fsl_p1010mux:tdm_can=can" or -"fsl_p1010mux:tdm_can=tdm" explicitly in u-booot prompt as below for example: -setenv hwconfig "fsl_p1010mux:tdm_can=tdm;usb1:dr_mode=host,phy_type=utmi" -By default, don't set fsl_p1010mux:tdm_can, in this case, spi chip selection -is set to spi-flash instead of to SLIC/TDM/DAC and tdm_can_sel is set to TDM -instead of to CAN/UART1. - - -Build and burn u-boot to NOR flash -================================== -1. Build u-boot.bin image - export ARCH=powerpc - export CROSS_COMPILE=/your_path/powerpc-linux-gnu- - make P1010RDB_NOR - -2. Burn u-boot.bin into NOR flash - => tftp $loadaddr $uboot - => protect off eff80000 +$filesize - => erase eff80000 +$filesize - => cp.b $loadaddr eff80000 $filesize - -3. Check SW4[1:4]= 1111 and SW6[4]=0, then power on. - - -Alternate NOR bank -============================ -1. Burn u-boot.bin into alternate NOR bank - => tftp $loadaddr $uboot - => protect off eef80000 +$filesize - => erase eef80000 +$filesize - => cp.b $loadaddr eef80000 $filesize - -2. Switch to alternate NOR bank - => mw.b ffb00009 1 - => reset - or set SW1[8]= ON - -SW1[8]= OFF: Upper bank used for booting start -SW1[8]= ON: Lower bank used for booting start -CPLD NOR bank selection register address 0xFFB00009 Bit[0]: -0 - boot from upper 4 sectors -1 - boot from lower 4 sectors - - -Build and burn u-boot to NAND flash -=================================== -1. Build u-boot.bin image - export ARCH=powerpc - export CROSS_COMPILE=/your_path/powerpc-linux-gnu- - make P1010RDB_NAND - -2. Burn u-boot-nand.bin into NAND flash - => tftp $loadaddr $uboot-nand - => nand erase 0 $filesize - => nand write $loadaddr 0 $filesize - -3. Check SW4[1:4]= 1000 and SW6[4]=1, then power on. - - - -Build and burn u-boot to SPI flash -================================== -1. Build u-boot-spi.bin image - make P1010RDB_SPIFLASH_config; make - Boot up kernel with rootfs.ext2.gz.uboot.p1010rdb - Download u-boot.bin to linux and you can find some config files - under /usr/share such as config_xx.dat. Do below command: - boot_format config_ddr3_1gb_p1010rdb_800M.dat u-boot.bin -spi \ - u-boot-spi.bin - to generate u-boot-spi.bin. - -2. Burn u-boot-spi.bin into SPI flash - => tftp $loadaddr $uboot-spi - => sf erase 0 100000 - => sf write $loadaddr 0 $filesize - -3. Check SW4[1:4]= 0110 and SW6[4]=0, then power on. - - - -CPLD POR setting registers -========================== -1. Set POR switch selection register (addr 0xFFB00011) to 0. -2. Write CPLD POR registers (BCSR0~BCSR3, addr 0xFFB00014~0xFFB00017) with - proper values. - If change boot ROM location to NOR or NAND flash, need write the IFC_CS0 - switch command by I2C. -3. Send reset command. - After reset, the new POR setting will be implemented. - -Two examples are given in below: -Switch from NOR to NAND boot with default frequency: - => i2c dev 0 - => i2c mw 18 1 f9 - => i2c mw 18 3 f0 - => mw.b ffb00011 0 - => mw.b ffb00017 1 - => reset -Switch from NAND to NOR boot with Core/CCB/DDR (800/400/667 MHz): - => i2c dev 0 - => i2c mw 18 1 f1 - => i2c mw 18 3 f0 - => mw.b ffb00011 0 - => mw.b ffb00014 2 - => mw.b ffb00015 5 - => mw.b ffb00016 3 - => mw.b ffb00017 f - => reset - - - -Boot Linux from network using TFTP on P1010RDB -============================================== -Place uImage, p1010rdb.dtb and rootfs files in the TFTP disk area. +Since pins multiplexing, TDM and CAN are muxed with SPI flash. +SDHC is muxed with IFC. IFC and SPI flash are enabled by default. + +To enable TDM: +=> setenv hwconfig fsl_p1010mux:tdm_can=tdm +=> save;reset + +To enable FlexCAN: +=> setenv hwconfig fsl_p1010mux:tdm_can=can +=> save;reset + +To enable SDHC in case of NOR/NAND/SPI boot + a) For temporary use case in runtime without reboot system + run 'mux sdhc' in u-boot to validate SDHC with invalidating IFC. + + b) For long-term use case + set 'esdhc' in hwconfig and save it. + +To enable IFC in case of SD boot + run 'mux ifc' in u-boot to validate IFC with invalidating SDHC. + + +Build images for different boot mode: +===================================== +First, setup cross compile environment on your build host + $ export ARCH=powerpc + $ export CROSS_COMPILE=<your-compiler-path>/powerpc-linux-gnu- + +1. For NOR boot + $ make distclean + $ make P1010RDB-PB_NOR + +2. For NAND boot + $ make distclean + $ make P1010RDB-PB_NAND + +3. For SPI boot + $ make distclean + $ make P1010RDB-PB_SPIFLASH + +4. For SD boot + $ make distclean + $ make P1010RDB-PB_SDCARD + + +Steps to burn images for different boot mode: +============================================= +1. NOR boot + => tftp 1000000 u-boot.bin + For bank0 + => pro off all;era eff80000 efffffff;cp.b 1000000 eff80000 $filesize + set SW1[8]=0, SW4[1:4]= 1111 and SW3[3:4]= 00, then power on the board + + For bank1 + => pro off all;era eef80000 eeffffff;cp.b 1000000 eef80000 $filesize + set SW1[8]=1, SW4[1:4]= 1111 and SW3[3:4]= 00, then power on the board + +2. NAND boot + => tftp 1000000 u-boot-nand.bin + => nand erase 0 $filesize; nand write $loadaddr 0 $filesize + Set SW4[1:4]= 1010 and SW3[3:4]= 01, then power on the board + +3. SPI boot + 1) cat p1010rdb-config-header.bin u-boot.bin > u-boot-spi-combined.bin + 2) => tftp 1000000 u-boot-spi-combined.bin + 3) => sf probe 0; sf erase 0 100000; sf write 1000000 0 100000 + set SW4[1:4]= 0110 and SW3[3:4]= 00, then power on the board + +4. SD boot + 1) cat p1010rdb-config-header.bin u-boot.bin > u-boot-sd-combined.bin + 2) => tftp 1000000 u-boot-sd-combined.bin + 3) => mux sdhc + 4) => mmc write 1000000 0 1050 + set SW4[1:4]= 0111 and SW3[3:4]= 10, then power on the board + + +Boot Linux from network using TFTP on P1010RDB-PB +================================================= +Place uImage, p1010rdb.dtb and rootfs files in the TFTP download path. => tftp 1000000 uImage => tftp 2000000 p1010rdb.dtb => tftp 3000000 rootfs.ext2.gz.uboot.p1010rdb => bootm 1000000 3000000 2000000
-Please contact your local field applications engineer or sales representative -to obtain related documents, such as P1010-RDB User Guide for details. +For more details, please refer to P1010RDB-PB User Guide and access website +www.freescale.com and Freescale QorIQ SDK Infocenter document.