u-boot/arch/powerpc/cpu/mpc8xxx/cpu.c

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/*
powerpc/mpc85xx:Add BSC9131/BSC9130/BSC9231 Processor Support - BSC9131 is integrated device that targets Femto base station market. It combines Power Architecture e500v2 and DSP StarCore SC3850 core technologies with MAPLE-B2F baseband acceleration processing elements. - BSC9130 is exactly same as BSC9131 except that the max e500v2 core and DSP core frequencies are 800M(these are 1G in case of 9131). - BSC9231 is similar to BSC9131 except no MAPLE The BSC9131 SoC includes the following function and features: . Power Architecture subsystem including a e500 processor with 256-Kbyte shared L2 cache . StarCore SC3850 DSP subsystem with a 512-Kbyte private L2 cache . The Multi Accelerator Platform Engine for Femto BaseStation Baseband Processing (MAPLE-B2F) . A multi-standard baseband algorithm accelerator for Channel Decoding/Encoding, Fourier Transforms, UMTS chip rate processing, LTE UP/DL Channel processing, and CRC algorithms . Consists of accelerators for Convolution, Filtering, Turbo Encoding, Turbo Decoding, Viterbi decoding, Chiprate processing, and Matrix Inversion operations . DDR3/3L memory interface with 32-bit data width without ECC and 16-bit with ECC, up to 400-MHz clock/800 MHz data rate . Dedicated security engine featuring trusted boot . DMA controller . OCNDMA with four bidirectional channels . Interfaces . Two triple-speed Gigabit Ethernet controllers featuring network acceleration including IEEE 1588. v2 hardware support and virtualization (eTSEC) . eTSEC 1 supports RGMII/RMII . eTSEC 2 supports RGMII . High-speed USB 2.0 host and device controller with ULPI interface . Enhanced secure digital (SD/MMC) host controller (eSDHC) . Antenna interface controller (AIC), supporting three industry standard JESD207/three custom ADI RF interfaces (two dual port and one single port) and three MAXIM's MaxPHY serial interfaces . ADI lanes support both full duplex FDD support and half duplex TDD support . Universal Subscriber Identity Module (USIM) interface that facilitates communication to SIM cards or Eurochip pre-paid phone cards . TDM with one TDM port . Two DUART, four eSPI, and two I2C controllers . Integrated Flash memory controller (IFC) . TDM with 256 channels . GPIO . Sixteen 32-bit timers The DSP portion of the SoC consists of DSP core (SC3850) and various accelerators pertaining to DSP operations. This patch takes care of code pertaining to power side functionality only. Signed-off-by: Ramneek Mehresh <ramneek.mehresh@freescale.com> Signed-off-by: Priyanka Jain <Priyanka.Jain@freescale.com> Signed-off-by: Akhil Goyal <Akhil.Goyal@freescale.com> Signed-off-by: Poonam Aggrwal <poonam.aggrwal@freescale.com> Signed-off-by: Rajan Srivastava <rajan.srivastava@freescale.com> Signed-off-by: Prabhakar Kushwaha <prabhakar@freescale.com>
2012-04-24 20:16:49 +00:00
* Copyright 2009-2012 Freescale Semiconductor, Inc.
*
* This file is derived from arch/powerpc/cpu/mpc85xx/cpu.c and
* arch/powerpc/cpu/mpc86xx/cpu.c. Basically this file contains
* cpu specific common code for 85xx/86xx processors.
* SPDX-License-Identifier: GPL-2.0+
*/
#include <config.h>
#include <common.h>
#include <command.h>
#include <tsec.h>
powerpc/85xx: Add support for FMan ethernet in Independent mode The Frame Manager (FMan) on QorIQ SoCs with DPAA (datapath acceleration architecture) is the ethernet contoller block. Normally it is utilized via Queue Manager (Qman) and Buffer Manager (Bman). However for boot usage the FMan supports a mode similar to QE or CPM ethernet collers called Independent mode. Additionally the FMan block supports multiple 1g and 10g interfaces as a single entity in the system rather than each controller being managed uniquely. This means we have to initialize all of Fman regardless of the number of interfaces we utilize. Different SoCs support different combinations of the number of FMan as well as the number of 1g & 10g interfaces support per Fman. We add support for the following SoCs: * P1023 - 1 Fman, 2x1g * P4080 - 2 Fman, each Fman has 4x1g and 1x10g * P204x/P3041/P5020 - 1 Fman, 5x1g, 1x10g Signed-off-by: Dave Liu <daveliu@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com> Signed-off-by: Timur Tabi <timur@freescale.com> Signed-off-by: Roy Zang <tie-fei.zang@freescale.com> Signed-off-by: Dai Haruki <dai.haruki@freescale.com> Signed-off-by: Kim Phillips <kim.phillips@freescale.com> Signed-off-by: Ioana Radulescu <ruxandra.radulescu@freescale.com> Signed-off-by: Lei Xu <B33228@freescale.com> Signed-off-by: Mingkai Hu <Mingkai.hu@freescale.com> Signed-off-by: Scott Wood <scottwood@freescale.com> Signed-off-by: Shaohui Xie <b21989@freescale.com> Signed-off-by: Kumar Gala <galak@kernel.crashing.org>
2011-04-13 13:37:44 +00:00
#include <fm_eth.h>
#include <netdev.h>
#include <asm/cache.h>
#include <asm/io.h>
#include <vsc9953.h>
DECLARE_GLOBAL_DATA_PTR;
static struct cpu_type cpu_type_list[] = {
#if defined(CONFIG_MPC85xx)
CPU_TYPE_ENTRY(8533, 8533, 1),
CPU_TYPE_ENTRY(8535, 8535, 1),
CPU_TYPE_ENTRY(8536, 8536, 1),
CPU_TYPE_ENTRY(8540, 8540, 1),
CPU_TYPE_ENTRY(8541, 8541, 1),
CPU_TYPE_ENTRY(8543, 8543, 1),
CPU_TYPE_ENTRY(8544, 8544, 1),
CPU_TYPE_ENTRY(8545, 8545, 1),
CPU_TYPE_ENTRY(8547, 8547, 1),
CPU_TYPE_ENTRY(8548, 8548, 1),
CPU_TYPE_ENTRY(8555, 8555, 1),
CPU_TYPE_ENTRY(8560, 8560, 1),
CPU_TYPE_ENTRY(8567, 8567, 1),
CPU_TYPE_ENTRY(8568, 8568, 1),
CPU_TYPE_ENTRY(8569, 8569, 1),
CPU_TYPE_ENTRY(8572, 8572, 2),
CPU_TYPE_ENTRY(P1010, P1010, 1),
CPU_TYPE_ENTRY(P1011, P1011, 1),
CPU_TYPE_ENTRY(P1012, P1012, 1),
CPU_TYPE_ENTRY(P1013, P1013, 1),
CPU_TYPE_ENTRY(P1014, P1014, 1),
CPU_TYPE_ENTRY(P1017, P1017, 1),
CPU_TYPE_ENTRY(P1020, P1020, 2),
CPU_TYPE_ENTRY(P1021, P1021, 2),
CPU_TYPE_ENTRY(P1022, P1022, 2),
CPU_TYPE_ENTRY(P1023, P1023, 2),
CPU_TYPE_ENTRY(P1024, P1024, 2),
CPU_TYPE_ENTRY(P1025, P1025, 2),
CPU_TYPE_ENTRY(P2010, P2010, 1),
CPU_TYPE_ENTRY(P2020, P2020, 2),
CPU_TYPE_ENTRY(P2040, P2040, 4),
CPU_TYPE_ENTRY(P2041, P2041, 4),
CPU_TYPE_ENTRY(P3041, P3041, 4),
CPU_TYPE_ENTRY(P4040, P4040, 4),
CPU_TYPE_ENTRY(P4080, P4080, 8),
CPU_TYPE_ENTRY(P5010, P5010, 1),
CPU_TYPE_ENTRY(P5020, P5020, 2),
powerpc/85xx: Add P5040 processor support Add support for the Freescale P5040 SOC, which is similar to the P5020. Features of the P5040 are: Four P5040 single-threaded e5500 cores built Up to 2.4 GHz with 64-bit ISA support Three levels of instruction: user, supervisor, hypervisor CoreNet platform cache (CPC) 2.0 MB configures as dual 1 MB blocks hierarchical interconnect fabric Two 64-bit DDR3/3L SDRAM memory controllers with ECC and interleaving support Up to 1600MT/s Memory pre-fetch engine DPAA incorporating acceleration for the following functions Packet parsing, classification, and distribution (FMAN) Queue management for scheduling, packet sequencing and congestion management (QMAN) Hardware buffer management for buffer allocation and de-allocation (BMAN) Cryptography acceleration (SEC 5.2) at up to 40 Gbps SerDes 20 lanes at up to 5 Gbps Supports SGMII, XAUI, PCIe rev1.1/2.0, SATA Ethernet interfaces Two 10 Gbps Ethernet MACs Ten 1 Gbps Ethernet MACs High-speed peripheral interfaces Two PCI Express 2.0/3.0 controllers Additional peripheral interfaces Two serial ATA (SATA 2.0) controllers Two high-speed USB 2.0 controllers with integrated PHY Enhanced secure digital host controller (SD/MMC/eMMC) Enhanced serial peripheral interface (eSPI) Two I2C controllers Four UARTs Integrated flash controller supporting NAND and NOR flash DMA Dual four channel Support for hardware virtualization and partitioning enforcement Extra privileged level for hypervisor support QorIQ Trust Architecture 1.1 Secure boot, secure debug, tamper detection, volatile key storage Signed-off-by: Timur Tabi <timur@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com>
2012-10-05 11:09:19 +00:00
CPU_TYPE_ENTRY(P5021, P5021, 2),
CPU_TYPE_ENTRY(P5040, P5040, 4),
powerpc/mpc85xx: Add T4240 SoC Add support for Freescale T4240 SoC. Feature of T4240 are (incomplete list): 12 dual-threaded e6500 cores built on Power Architecture® technology Arranged as clusters of four cores sharing a 2 MB L2 cache. Up to 1.8 GHz at 1.0 V with 64-bit ISA support (Power Architecture v2.06-compliant) Three levels of instruction: user, supervisor, and hypervisor 1.5 MB CoreNet Platform Cache (CPC) Hierarchical interconnect fabric CoreNet fabric supporting coherent and non-coherent transactions with prioritization and bandwidth allocation amongst CoreNet end-points 1.6 Tbps coherent read bandwidth Queue Manager (QMan) fabric supporting packet-level queue management and quality of service scheduling Three 64-bit DDR3/3L SDRAM memory controllers with ECC and interleaving support Memory prefetch engine (PMan) Data Path Acceleration Architecture (DPAA) incorporating acceleration for the following functions: Packet parsing, classification, and distribution (Frame Manager 1.1) Queue management for scheduling, packet sequencing, and congestion management (Queue Manager 1.1) Hardware buffer management for buffer allocation and de-allocation (BMan 1.1) Cryptography acceleration (SEC 5.0) at up to 40 Gbps RegEx Pattern Matching Acceleration (PME 2.1) at up to 10 Gbps Decompression/Compression Acceleration (DCE 1.0) at up to 20 Gbps DPAA chip-to-chip interconnect via RapidIO Message Manager (RMAN 1.0) 32 SerDes lanes at up to 10.3125 GHz Ethernet interfaces Up to four 10 Gbps Ethernet MACs Up to sixteen 1 Gbps Ethernet MACs Maximum configuration of 4 x 10 GE + 8 x 1 GE High-speed peripheral interfaces Four PCI Express 2.0/3.0 controllers Two Serial RapidIO 2.0 controllers/ports running at up to 5 GHz with Type 11 messaging and Type 9 data streaming support Interlaken look-aside interface for serial TCAM connection Additional peripheral interfaces Two serial ATA (SATA 2.0) controllers Two high-speed USB 2.0 controllers with integrated PHY Enhanced secure digital host controller (SD/MMC/eMMC) Enhanced serial peripheral interface (eSPI) Four I2C controllers Four 2-pin or two 4-pin UARTs Integrated Flash controller supporting NAND and NOR flash Two eight-channel DMA engines Support for hardware virtualization and partitioning enforcement QorIQ Platform's Trust Architecture 1.1 Signed-off-by: York Sun <yorksun@freescale.com> Signed-off-by: Kumar Gala <galak@kernel.crashing.org> Signed-off-by: Andy Fleming <afleming@freescale.com> Signed-off-by: Roy Zang <tie-fei.zang@freescale.com> Signed-off-by: Prabhakar Kushwaha <prabhakar@freescale.com> Signed-off-by: Shengzhou Liu <Shengzhou.Liu@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com>
2012-10-08 07:44:19 +00:00
CPU_TYPE_ENTRY(T4240, T4240, 0),
CPU_TYPE_ENTRY(T4120, T4120, 0),
CPU_TYPE_ENTRY(T4160, T4160, 0),
CPU_TYPE_ENTRY(T4080, T4080, 4),
powerpc/mpc85xx: Add B4860 and variant SoCs Add support for Freescale B4860 and variant SoCs. Features of B4860 are (incomplete list): Six fully-programmable StarCore SC3900 FVP subsystems, divided into three clusters-each core runs up to 1.2 GHz, with an architecture highly optimized for wireless base station applications Four dual-thread e6500 Power Architecture processors organized in one cluster-each core runs up to 1.8 GHz Two DDR3/3L controllers for high-speed, industry-standard memory interface each runs at up to 1866.67 MHz MAPLE-B3 hardware acceleration-for forward error correction schemes including Turbo or Viterbi decoding, Turbo encoding and rate matching, MIMO MMSE equalization scheme, matrix operations, CRC insertion and check, DFT/iDFT and FFT/iFFT calculations, PUSCH/PDSCH acceleration, and UMTS chip rate acceleration CoreNet fabric that fully supports coherency using MESI protocol between the e6500 cores, SC3900 FVP cores, memories and external interfaces. CoreNet fabric interconnect runs at 667 MHz and supports coherent and non-coherent out of order transactions with prioritization and bandwidth allocation amongst CoreNet endpoints. Data Path Acceleration Architecture, which includes the following: Frame Manager (FMan), which supports in-line packet parsing and general classification to enable policing and QoS-based packet distribution Queue Manager (QMan) and Buffer Manager (BMan), which allow offloading of queue management, task management, load distribution, flow ordering, buffer management, and allocation tasks from the cores Security engine (SEC 5.3)-crypto-acceleration for protocols such as IPsec, SSL, and 802.16 RapidIO manager (RMAN) - Support SRIO types 8, 9, 10, and 11 (inbound and outbound). Supports types 5, 6 (outbound only) Large internal cache memory with snooping and stashing capabilities for bandwidth saving and high utilization of processor elements. The 9856-Kbyte internal memory space includes the following: 32 Kbyte L1 ICache per e6500/SC3900 core 32 Kbyte L1 DCache per e6500/SC3900 core 2048 Kbyte unified L2 cache for each SC3900 FVP cluster 2048 Kbyte unified L2 cache for the e6500 cluster Two 512 Kbyte shared L3 CoreNet platform caches (CPC) Sixteen 10-GHz SerDes lanes serving: Two Serial RapidIO interfaces. Each supports up to 4 lanes and a total of up to 8 lanes Up to 8-lanes Common Public Radio Interface (CPRI) controller for glue- less antenna connection Two 10-Gbit Ethernet controllers (10GEC) Six 1G/2.5-Gbit Ethernet controllers for network communications PCI Express controller Debug (Aurora) Two OCeaN DMAs Various system peripherals 182 32-bit timers Signed-off-by: York Sun <yorksun@freescale.com> Signed-off-by: Prabhakar Kushwaha <prabhakar@freescale.com> Signed-off-by: Roy Zang <tie-fei.zang@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com>
2012-10-08 07:44:20 +00:00
CPU_TYPE_ENTRY(B4860, B4860, 0),
CPU_TYPE_ENTRY(G4860, G4860, 0),
CPU_TYPE_ENTRY(B4440, B4440, 0),
CPU_TYPE_ENTRY(B4460, B4460, 0),
powerpc/mpc85xx: Add B4860 and variant SoCs Add support for Freescale B4860 and variant SoCs. Features of B4860 are (incomplete list): Six fully-programmable StarCore SC3900 FVP subsystems, divided into three clusters-each core runs up to 1.2 GHz, with an architecture highly optimized for wireless base station applications Four dual-thread e6500 Power Architecture processors organized in one cluster-each core runs up to 1.8 GHz Two DDR3/3L controllers for high-speed, industry-standard memory interface each runs at up to 1866.67 MHz MAPLE-B3 hardware acceleration-for forward error correction schemes including Turbo or Viterbi decoding, Turbo encoding and rate matching, MIMO MMSE equalization scheme, matrix operations, CRC insertion and check, DFT/iDFT and FFT/iFFT calculations, PUSCH/PDSCH acceleration, and UMTS chip rate acceleration CoreNet fabric that fully supports coherency using MESI protocol between the e6500 cores, SC3900 FVP cores, memories and external interfaces. CoreNet fabric interconnect runs at 667 MHz and supports coherent and non-coherent out of order transactions with prioritization and bandwidth allocation amongst CoreNet endpoints. Data Path Acceleration Architecture, which includes the following: Frame Manager (FMan), which supports in-line packet parsing and general classification to enable policing and QoS-based packet distribution Queue Manager (QMan) and Buffer Manager (BMan), which allow offloading of queue management, task management, load distribution, flow ordering, buffer management, and allocation tasks from the cores Security engine (SEC 5.3)-crypto-acceleration for protocols such as IPsec, SSL, and 802.16 RapidIO manager (RMAN) - Support SRIO types 8, 9, 10, and 11 (inbound and outbound). Supports types 5, 6 (outbound only) Large internal cache memory with snooping and stashing capabilities for bandwidth saving and high utilization of processor elements. The 9856-Kbyte internal memory space includes the following: 32 Kbyte L1 ICache per e6500/SC3900 core 32 Kbyte L1 DCache per e6500/SC3900 core 2048 Kbyte unified L2 cache for each SC3900 FVP cluster 2048 Kbyte unified L2 cache for the e6500 cluster Two 512 Kbyte shared L3 CoreNet platform caches (CPC) Sixteen 10-GHz SerDes lanes serving: Two Serial RapidIO interfaces. Each supports up to 4 lanes and a total of up to 8 lanes Up to 8-lanes Common Public Radio Interface (CPRI) controller for glue- less antenna connection Two 10-Gbit Ethernet controllers (10GEC) Six 1G/2.5-Gbit Ethernet controllers for network communications PCI Express controller Debug (Aurora) Two OCeaN DMAs Various system peripherals 182 32-bit timers Signed-off-by: York Sun <yorksun@freescale.com> Signed-off-by: Prabhakar Kushwaha <prabhakar@freescale.com> Signed-off-by: Roy Zang <tie-fei.zang@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com>
2012-10-08 07:44:20 +00:00
CPU_TYPE_ENTRY(G4440, G4440, 0),
CPU_TYPE_ENTRY(B4420, B4420, 0),
CPU_TYPE_ENTRY(B4220, B4220, 0),
CPU_TYPE_ENTRY(T1040, T1040, 0),
CPU_TYPE_ENTRY(T1041, T1041, 0),
CPU_TYPE_ENTRY(T1042, T1042, 0),
CPU_TYPE_ENTRY(T1020, T1020, 0),
CPU_TYPE_ENTRY(T1021, T1021, 0),
CPU_TYPE_ENTRY(T1022, T1022, 0),
powerpc/mpc85xx: Add T1024/T1023 SoC support Add support for Freescale T1024/T1023 SoC. The T1024 SoC includes the following function and features: - Two 64-bit Power architecture e5500 cores, up to 1.4GHz - private 256KB L2 cache each core and shared 256KB CoreNet platform cache (CPC) - 32-/64-bit DDR3L/DDR4 SDRAM memory controller with ECC and interleaving support - Data Path Acceleration Architecture (DPAA) incorporating acceleration - Four MAC for 1G/2.5G/10G network interfaces (RGMII, SGMII, QSGMII, XFI) - High-speed peripheral interfaces - Three PCI Express 2.0 controllers - Additional peripheral interfaces - One SATA 2.0 controller - Two USB 2.0 controllers with integrated PHY - Enhanced secure digital host controller (SD/eSDHC/eMMC) - Enhanced serial peripheral interface (eSPI) - Four I2C controllers - Four 2-pin UARTs or two 4-pin UARTs - Integrated Flash Controller supporting NAND and NOR flash - Two 8-channel DMA engines - Multicore programmable interrupt controller (PIC) - LCD interface (DIU) with 12 bit dual data rate - QUICC Engine block supporting TDM, HDLC, and UART - Deep Sleep power implementaion (wakeup from GPIO/Timer/Ethernet/USB) - Support for hardware virtualization and partitioning enforcement - QorIQ Platform's Trust Architecture 2.0 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 Signed-off-by: Shengzhou Liu <Shengzhou.Liu@freescale.com> Reviewed-by: York Sun <yorksun@freescale.com>
2014-11-24 09:11:54 +00:00
CPU_TYPE_ENTRY(T1024, T1024, 0),
CPU_TYPE_ENTRY(T1023, T1023, 0),
CPU_TYPE_ENTRY(T1014, T1014, 0),
CPU_TYPE_ENTRY(T1013, T1013, 0),
powerpc/mpc85xx: Add T2080/T2081 SoC support Add support for Freescale T2080/T2081 SoC. T2080 includes the following functions and features: - Four dual-threads 64-bit Power architecture e6500 cores, up to 1.8GHz - 2MB L2 cache and 512KB CoreNet platform cache (CPC) - Hierarchical interconnect fabric - One 32-/64-bit DDR3/3L SDRAM memory controllers with ECC and interleaving - Data Path Acceleration Architecture (DPAA) incorporating acceleration - 16 SerDes lanes up to 10.3125 GHz - 8 mEMACs for network interfaces (four 1Gbps MACs and four 10Gbps/1Gbps MACs) - High-speed peripheral interfaces - Four PCI Express controllers (two PCIe 2.0 and two PCIe 3.0 with SR-IOV) - Two Serial RapidIO 2.0 controllers/ports running at up to 5 GHz - Additional peripheral interfaces - Two serial ATA (SATA 2.0) controllers - Two high-speed USB 2.0 controllers with integrated PHY - Enhanced secure digital host controller (SD/SDHC/SDXC/eMMC) - Enhanced serial peripheral interface (eSPI) - Four I2C controllers - Four 2-pin UARTs or two 4-pin UARTs - Integrated Flash Controller supporting NAND and NOR flash - Three eight-channel DMA engines - Support for hardware virtualization and partitioning enforcement - QorIQ Platform's Trust Architecture 2.0 Differences between T2080 and T2081: Feature T2080 T2081 1G Ethernet numbers: 8 6 10G Ethernet numbers: 4 2 SerDes lanes: 16 8 Serial RapidIO,RMan: 2 no SATA Controller: 2 no Aurora: yes no SoC Package: 896-pins 780-pins Signed-off-by: Shengzhou Liu <Shengzhou.Liu@freescale.com> Acked-by: York Sun <yorksun@freescale.com>
2013-11-22 09:39:10 +00:00
CPU_TYPE_ENTRY(T2080, T2080, 0),
CPU_TYPE_ENTRY(T2081, T2081, 0),
powerpc/mpc85xx:Add BSC9131/BSC9130/BSC9231 Processor Support - BSC9131 is integrated device that targets Femto base station market. It combines Power Architecture e500v2 and DSP StarCore SC3850 core technologies with MAPLE-B2F baseband acceleration processing elements. - BSC9130 is exactly same as BSC9131 except that the max e500v2 core and DSP core frequencies are 800M(these are 1G in case of 9131). - BSC9231 is similar to BSC9131 except no MAPLE The BSC9131 SoC includes the following function and features: . Power Architecture subsystem including a e500 processor with 256-Kbyte shared L2 cache . StarCore SC3850 DSP subsystem with a 512-Kbyte private L2 cache . The Multi Accelerator Platform Engine for Femto BaseStation Baseband Processing (MAPLE-B2F) . A multi-standard baseband algorithm accelerator for Channel Decoding/Encoding, Fourier Transforms, UMTS chip rate processing, LTE UP/DL Channel processing, and CRC algorithms . Consists of accelerators for Convolution, Filtering, Turbo Encoding, Turbo Decoding, Viterbi decoding, Chiprate processing, and Matrix Inversion operations . DDR3/3L memory interface with 32-bit data width without ECC and 16-bit with ECC, up to 400-MHz clock/800 MHz data rate . Dedicated security engine featuring trusted boot . DMA controller . OCNDMA with four bidirectional channels . Interfaces . Two triple-speed Gigabit Ethernet controllers featuring network acceleration including IEEE 1588. v2 hardware support and virtualization (eTSEC) . eTSEC 1 supports RGMII/RMII . eTSEC 2 supports RGMII . High-speed USB 2.0 host and device controller with ULPI interface . Enhanced secure digital (SD/MMC) host controller (eSDHC) . Antenna interface controller (AIC), supporting three industry standard JESD207/three custom ADI RF interfaces (two dual port and one single port) and three MAXIM's MaxPHY serial interfaces . ADI lanes support both full duplex FDD support and half duplex TDD support . Universal Subscriber Identity Module (USIM) interface that facilitates communication to SIM cards or Eurochip pre-paid phone cards . TDM with one TDM port . Two DUART, four eSPI, and two I2C controllers . Integrated Flash memory controller (IFC) . TDM with 256 channels . GPIO . Sixteen 32-bit timers The DSP portion of the SoC consists of DSP core (SC3850) and various accelerators pertaining to DSP operations. This patch takes care of code pertaining to power side functionality only. Signed-off-by: Ramneek Mehresh <ramneek.mehresh@freescale.com> Signed-off-by: Priyanka Jain <Priyanka.Jain@freescale.com> Signed-off-by: Akhil Goyal <Akhil.Goyal@freescale.com> Signed-off-by: Poonam Aggrwal <poonam.aggrwal@freescale.com> Signed-off-by: Rajan Srivastava <rajan.srivastava@freescale.com> Signed-off-by: Prabhakar Kushwaha <prabhakar@freescale.com>
2012-04-24 20:16:49 +00:00
CPU_TYPE_ENTRY(BSC9130, 9130, 1),
CPU_TYPE_ENTRY(BSC9131, 9131, 1),
powerpc/mpc85xx: Add BSC9132/BSC9232 processor support The BSC9132 is a highly integrated device that targets the evolving Microcell, Picocell, and Enterprise-Femto base station market subsegments. The BSC9132 device combines Power Architecture e500 and DSP StarCore SC3850 core technologies with MAPLE-B2P baseband acceleration processing elements to address the need for a high performance, low cost, integrated solution that handles all required processing layers without the need for an external device except for an RF transceiver or, in a Micro base station configuration, a host device that handles the L3/L4 and handover between sectors. The BSC9132 SoC includes the following function and features: - Power Architecture subsystem including two e500 processors with 512-Kbyte shared L2 cache - Two StarCore SC3850 DSP subsystems, each with a 512-Kbyte private L2 cache - 32 Kbyte of shared M3 memory - The Multi Accelerator Platform Engine for Pico BaseStation Baseband Processing (MAPLE-B2P) - Two DDR3/3L memory interfaces with 32-bit data width (40 bits including ECC), up to 1333 MHz data rate - Dedicated security engine featuring trusted boot - Two DMA controllers - OCNDMA with four bidirectional channels - SysDMA with sixteen bidirectional channels - Interfaces - Four-lane SerDes PHY - PCI Express controller complies with the PEX Specification-Rev 2.0 - Two Common Public Radio Interface (CPRI) controller lanes - High-speed USB 2.0 host and device controller with ULPI interface - Enhanced secure digital (SD/MMC) host controller (eSDHC) - Antenna interface controller (AIC), supporting four industry standard JESD207/four custom ADI RF interfaces - ADI lanes support both full duplex FDD support & half duplex TDD - Universal Subscriber Identity Module (USIM) interface that facilitates communication to SIM cards or Eurochip pre-paid phone cards - Two DUART, two eSPI, and two I2C controllers - Integrated Flash memory controller (IFC) - GPIO - Sixteen 32-bit timers Signed-off-by: Naveen Burmi <NaveenBurmi@freescale.com> Signed-off-by: Poonam Aggrwal <poonam.aggrwal@freescale.com> Signed-off-by: Prabhakar Kushwaha <prabhakar@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com>
2013-01-23 17:59:57 +00:00
CPU_TYPE_ENTRY(BSC9132, 9132, 2),
CPU_TYPE_ENTRY(BSC9232, 9232, 2),
CPU_TYPE_ENTRY(C291, C291, 1),
CPU_TYPE_ENTRY(C292, C292, 1),
CPU_TYPE_ENTRY(C293, C293, 1),
#elif defined(CONFIG_MPC86xx)
CPU_TYPE_ENTRY(8610, 8610, 1),
CPU_TYPE_ENTRY(8641, 8641, 2),
CPU_TYPE_ENTRY(8641D, 8641D, 2),
#endif
};
#ifdef CONFIG_SYS_FSL_QORIQ_CHASSIS2
static inline u32 init_type(u32 cluster, int init_id)
{
ccsr_gur_t *gur = (void __iomem *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
u32 idx = (cluster >> (init_id * 8)) & TP_CLUSTER_INIT_MASK;
u32 type = in_be32(&gur->tp_ityp[idx]);
if (type & TP_ITYP_AV)
return type;
return 0;
}
u32 compute_ppc_cpumask(void)
{
ccsr_gur_t *gur = (void __iomem *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
int i = 0, count = 0;
u32 cluster, type, mask = 0;
do {
int j;
cluster = in_be32(&gur->tp_cluster[i].lower);
for (j = 0; j < TP_INIT_PER_CLUSTER; j++) {
type = init_type(cluster, j);
if (type) {
if (TP_ITYP_TYPE(type) == TP_ITYP_TYPE_PPC)
mask |= 1 << count;
count++;
}
}
i++;
} while ((cluster & TP_CLUSTER_EOC) != TP_CLUSTER_EOC);
return mask;
}
2015-01-19 07:16:54 +00:00
#ifdef CONFIG_HETROGENOUS_CLUSTERS
u32 compute_dsp_cpumask(void)
{
ccsr_gur_t *gur = (void __iomem *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
int i = CONFIG_DSP_CLUSTER_START, count = 0;
u32 cluster, type, dsp_mask = 0;
do {
int j;
cluster = in_be32(&gur->tp_cluster[i].lower);
for (j = 0; j < TP_INIT_PER_CLUSTER; j++) {
type = init_type(cluster, j);
if (type) {
if (TP_ITYP_TYPE(type) == TP_ITYP_TYPE_SC)
dsp_mask |= 1 << count;
count++;
}
}
i++;
} while ((cluster & TP_CLUSTER_EOC) != TP_CLUSTER_EOC);
return dsp_mask;
}
int fsl_qoriq_dsp_core_to_cluster(unsigned int core)
{
ccsr_gur_t *gur = (void __iomem *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
int count = 0, i = CONFIG_DSP_CLUSTER_START;
u32 cluster;
do {
int j;
cluster = in_be32(&gur->tp_cluster[i].lower);
for (j = 0; j < TP_INIT_PER_CLUSTER; j++) {
if (init_type(cluster, j)) {
if (count == core)
return i;
count++;
}
}
i++;
} while ((cluster & TP_CLUSTER_EOC) != TP_CLUSTER_EOC);
return -1; /* cannot identify the cluster */
}
#endif
int fsl_qoriq_core_to_cluster(unsigned int core)
{
ccsr_gur_t *gur = (void __iomem *)(CONFIG_SYS_MPC85xx_GUTS_ADDR);
int i = 0, count = 0;
u32 cluster;
do {
int j;
cluster = in_be32(&gur->tp_cluster[i].lower);
for (j = 0; j < TP_INIT_PER_CLUSTER; j++) {
if (init_type(cluster, j)) {
if (count == core)
return i;
count++;
}
}
i++;
} while ((cluster & TP_CLUSTER_EOC) != TP_CLUSTER_EOC);
return -1; /* cannot identify the cluster */
}
#else /* CONFIG_SYS_FSL_QORIQ_CHASSIS2 */
/*
* Before chassis genenration 2, the cpumask should be hard-coded.
* In case of cpu type unknown or cpumask unset, use 1 as fail save.
*/
#define compute_ppc_cpumask() 1
#define fsl_qoriq_core_to_cluster(x) x
#endif /* CONFIG_SYS_FSL_QORIQ_CHASSIS2 */
static struct cpu_type cpu_type_unknown = CPU_TYPE_ENTRY(Unknown, Unknown, 0);
struct cpu_type *identify_cpu(u32 ver)
{
int i;
for (i = 0; i < ARRAY_SIZE(cpu_type_list); i++) {
if (cpu_type_list[i].soc_ver == ver)
return &cpu_type_list[i];
}
return &cpu_type_unknown;
}
#define MPC8xxx_PICFRR_NCPU_MASK 0x00001f00
#define MPC8xxx_PICFRR_NCPU_SHIFT 8
/*
* Return a 32-bit mask indicating which cores are present on this SOC.
*/
__weak u32 cpu_mask(void)
{
ccsr_pic_t __iomem *pic = (void *)CONFIG_SYS_MPC8xxx_PIC_ADDR;
struct cpu_type *cpu = gd->arch.cpu;
/* better to query feature reporting register than just assume 1 */
if (cpu == &cpu_type_unknown)
return ((in_be32(&pic->frr) & MPC8xxx_PICFRR_NCPU_MASK) >>
MPC8xxx_PICFRR_NCPU_SHIFT) + 1;
if (cpu->num_cores == 0)
return compute_ppc_cpumask();
return cpu->mask;
}
2015-01-19 07:16:54 +00:00
#ifdef CONFIG_HETROGENOUS_CLUSTERS
__weak u32 cpu_dsp_mask(void)
{
ccsr_pic_t __iomem *pic = (void *)CONFIG_SYS_MPC8xxx_PIC_ADDR;
struct cpu_type *cpu = gd->arch.cpu;
/* better to query feature reporting register than just assume 1 */
if (cpu == &cpu_type_unknown)
return ((in_be32(&pic->frr) & MPC8xxx_PICFRR_NCPU_MASK) >>
MPC8xxx_PICFRR_NCPU_SHIFT) + 1;
if (cpu->dsp_num_cores == 0)
return compute_dsp_cpumask();
return cpu->dsp_mask;
}
/*
2015-01-19 07:16:54 +00:00
* Return the number of SC/DSP cores on this SOC.
*/
__weak int cpu_num_dspcores(void)
{
struct cpu_type *cpu = gd->arch.cpu;
/*
* Report # of cores in terms of the cpu_mask if we haven't
* figured out how many there are yet
*/
if (cpu->dsp_num_cores == 0)
return hweight32(cpu_dsp_mask());
return cpu->dsp_num_cores;
}
#endif
/*
* Return the number of PPC cores on this SOC.
*/
__weak int cpu_numcores(void)
{
struct cpu_type *cpu = gd->arch.cpu;
/*
* Report # of cores in terms of the cpu_mask if we haven't
* figured out how many there are yet
*/
if (cpu->num_cores == 0)
return hweight32(cpu_mask());
return cpu->num_cores;
}
2015-01-19 07:16:54 +00:00
/*
* Check if the given core ID is valid
*
* Returns zero if it isn't, 1 if it is.
*/
int is_core_valid(unsigned int core)
{
return !!((1 << core) & cpu_mask());
}
int probecpu (void)
{
uint svr;
uint ver;
svr = get_svr();
ver = SVR_SOC_VER(svr);
gd->arch.cpu = identify_cpu(ver);
return 0;
}
/* Once in memory, compute mask & # cores once and save them off */
int fixup_cpu(void)
{
struct cpu_type *cpu = gd->arch.cpu;
if (cpu->num_cores == 0) {
cpu->mask = cpu_mask();
cpu->num_cores = cpu_numcores();
}
2015-01-19 07:16:54 +00:00
#ifdef CONFIG_HETROGENOUS_CLUSTERS
if (cpu->dsp_num_cores == 0) {
cpu->dsp_mask = cpu_dsp_mask();
cpu->dsp_num_cores = cpu_num_dspcores();
}
#endif
return 0;
}
/*
* Initializes on-chip ethernet controllers.
* to override, implement board_eth_init()
*/
int cpu_eth_init(bd_t *bis)
{
#if defined(CONFIG_ETHER_ON_FCC)
fec_initialize(bis);
#endif
#if defined(CONFIG_UEC_ETH)
uec_standard_init(bis);
#endif
#if defined(CONFIG_TSEC_ENET) || defined(CONFIG_MPC85XX_FEC)
tsec_standard_init(bis);
#endif
powerpc/85xx: Add support for FMan ethernet in Independent mode The Frame Manager (FMan) on QorIQ SoCs with DPAA (datapath acceleration architecture) is the ethernet contoller block. Normally it is utilized via Queue Manager (Qman) and Buffer Manager (Bman). However for boot usage the FMan supports a mode similar to QE or CPM ethernet collers called Independent mode. Additionally the FMan block supports multiple 1g and 10g interfaces as a single entity in the system rather than each controller being managed uniquely. This means we have to initialize all of Fman regardless of the number of interfaces we utilize. Different SoCs support different combinations of the number of FMan as well as the number of 1g & 10g interfaces support per Fman. We add support for the following SoCs: * P1023 - 1 Fman, 2x1g * P4080 - 2 Fman, each Fman has 4x1g and 1x10g * P204x/P3041/P5020 - 1 Fman, 5x1g, 1x10g Signed-off-by: Dave Liu <daveliu@freescale.com> Signed-off-by: Andy Fleming <afleming@freescale.com> Signed-off-by: Timur Tabi <timur@freescale.com> Signed-off-by: Roy Zang <tie-fei.zang@freescale.com> Signed-off-by: Dai Haruki <dai.haruki@freescale.com> Signed-off-by: Kim Phillips <kim.phillips@freescale.com> Signed-off-by: Ioana Radulescu <ruxandra.radulescu@freescale.com> Signed-off-by: Lei Xu <B33228@freescale.com> Signed-off-by: Mingkai Hu <Mingkai.hu@freescale.com> Signed-off-by: Scott Wood <scottwood@freescale.com> Signed-off-by: Shaohui Xie <b21989@freescale.com> Signed-off-by: Kumar Gala <galak@kernel.crashing.org>
2011-04-13 13:37:44 +00:00
#ifdef CONFIG_FMAN_ENET
fm_standard_init(bis);
#endif
#ifdef CONFIG_VSC9953
vsc9953_init(bis);
#endif
return 0;
}