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c9cf3077e28d358eb95928ee228caea511b012eb
gem5/configs/common/FSConfig.py
Gabe Black c9cf3077e2 sparc,configs: Initialize ROMs directly, not with the workload. 
This simplifies the SPARC FS workload significantly, and removes
assumptions about what ROMs exist, where they go, etc. It removes
other components from the loop which don't have anything to contribute
as far as setting up the ROMs.

One side effect of this is that there isn't specialized support for
adding PC based events which would fire in the ROMs, but that was never
done and the files that were being used were flat binary blobs with no
symbols in the first place.

This also necessitates building a unified image which goes into the single
8MB ROM that is located at address 0xfff0000000. That is simply done
with the following commands:

dd if=/dev/zero of=t1000_rom.bin bs=1024 count=8192
dd if=reset_new.bin of=t1000_rom.bin
dd if=q_new.bin of=t1000_rom.bin bs=1024 seek=64
dd if=openboot_new.bin of=t1000_rom.bin bs=1024 seek=512

This results in an 8MB blob which can be loaded verbatim into the ROM.
Alternatively, and with some extra effort, an ELF file could be
constructed which had each of these components as segments, offset to the
right location in the ELF header. That would be slightly more work to set up,
but wouldn't waste space on regions of the image that are all zeroes.

Change-Id: Id4e08f4e047e7bd36a416c197a36be841eba4a15
Reviewed-on: https://gem5-review.googlesource.com/c/public/gem5/+/27268
Reviewed-by: Gabe Black <gabeblack@google.com>
Maintainer: Gabe Black <gabeblack@google.com>
Tested-by: Gem5 Cloud Project GCB service account <345032938727@cloudbuild.gserviceaccount.com>
2020-04-16 23:43:37 +00:00

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# Copyright (c) 2010-2012, 2015-2019 ARM Limited
# All rights reserved.
#
# The license below extends only to copyright in the software and shall
# not be construed as granting a license to any other intellectual
# property including but not limited to intellectual property relating
# to a hardware implementation of the functionality of the software
# licensed hereunder. You may use the software subject to the license
# terms below provided that you ensure that this notice is replicated
# unmodified and in its entirety in all distributions of the software,
# modified or unmodified, in source code or in binary form.
#
# Copyright (c) 2010-2011 Advanced Micro Devices, Inc.
# Copyright (c) 2006-2008 The Regents of The University of Michigan
# All rights reserved.
#
# Redistribution and use in source and binary forms, with or without
# modification, are permitted provided that the following conditions are
# met: redistributions of source code must retain the above copyright
# notice, this list of conditions and the following disclaimer;
# redistributions in binary form must reproduce the above copyright
# notice, this list of conditions and the following disclaimer in the
# documentation and/or other materials provided with the distribution;
# neither the name of the copyright holders nor the names of its
# contributors may be used to endorse or promote products derived from
# this software without specific prior written permission.
#
# THIS SOFTWARE IS PROVIDED BY THE COPYRIGHT HOLDERS AND CONTRIBUTORS
# "AS IS" AND ANY EXPRESS OR IMPLIED WARRANTIES, INCLUDING, BUT NOT
# LIMITED TO, THE IMPLIED WARRANTIES OF MERCHANTABILITY AND FITNESS FOR
# A PARTICULAR PURPOSE ARE DISCLAIMED. IN NO EVENT SHALL THE COPYRIGHT
# OWNER OR CONTRIBUTORS BE LIABLE FOR ANY DIRECT, INDIRECT, INCIDENTAL,
# SPECIAL, EXEMPLARY, OR CONSEQUENTIAL DAMAGES (INCLUDING, BUT NOT
# LIMITED TO, PROCUREMENT OF SUBSTITUTE GOODS OR SERVICES; LOSS OF USE,
# DATA, OR PROFITS; OR BUSINESS INTERRUPTION) HOWEVER CAUSED AND ON ANY
# THEORY OF LIABILITY, WHETHER IN CONTRACT, STRICT LIABILITY, OR TORT
# (INCLUDING NEGLIGENCE OR OTHERWISE) ARISING IN ANY WAY OUT OF THE USE
# OF THIS SOFTWARE, EVEN IF ADVISED OF THE POSSIBILITY OF SUCH DAMAGE.
from __future__ import print_function
from __future__ import absolute_import
import m5
from m5.objects import *
from m5.util import *
from common.Benchmarks import *
from common import ObjectList
# Populate to reflect supported os types per target ISA
os_types = { 'mips' : [ 'linux' ],
'sparc' : [ 'linux' ],
'x86' : [ 'linux' ],
'arm' : [ 'linux',
'android-gingerbread',
'android-ics',
'android-jellybean',
'android-kitkat',
'android-nougat', ],
}
class CowIdeDisk(IdeDisk):
image = CowDiskImage(child=RawDiskImage(read_only=True),
read_only=False)
def childImage(self, ci):
self.image.child.image_file = ci
class MemBus(SystemXBar):
badaddr_responder = BadAddr()
default = Self.badaddr_responder.pio
def attach_9p(parent, bus):
viopci = PciVirtIO()
viopci.vio = VirtIO9PDiod()
viodir = os.path.join(m5.options.outdir, '9p')
viopci.vio.root = os.path.join(viodir, 'share')
viopci.vio.socketPath = os.path.join(viodir, 'socket')
if not os.path.exists(viopci.vio.root):
os.makedirs(viopci.vio.root)
if os.path.exists(viopci.vio.socketPath):
os.remove(viopci.vio.socketPath)
parent.viopci = viopci
parent.attachPciDevice(viopci, bus)
def fillInCmdline(mdesc, template, **kwargs):
kwargs.setdefault('rootdev', mdesc.rootdev())
kwargs.setdefault('mem', mdesc.mem())
kwargs.setdefault('script', mdesc.script())
return template % kwargs
def makeCowDisks(disk_paths):
disks = []
for disk_path in disk_paths:
disk = CowIdeDisk(driveID='master')
disk.childImage(disk_path);
disks.append(disk)
return disks
def makeSparcSystem(mem_mode, mdesc=None, cmdline=None):
# Constants from iob.cc and uart8250.cc
iob_man_addr = 0x9800000000
uart_pio_size = 8
class CowMmDisk(MmDisk):
image = CowDiskImage(child=RawDiskImage(read_only=True),
read_only=False)
def childImage(self, ci):
self.image.child.image_file = ci
self = SparcSystem()
if not mdesc:
# generic system
mdesc = SysConfig()
self.readfile = mdesc.script()
self.iobus = IOXBar()
self.membus = MemBus()
self.bridge = Bridge(delay='50ns')
self.t1000 = T1000()
self.t1000.attachOnChipIO(self.membus)
self.t1000.attachIO(self.iobus)
self.mem_ranges = [AddrRange(Addr('1MB'), size = '64MB'),
AddrRange(Addr('2GB'), size ='256MB')]
self.bridge.master = self.iobus.slave
self.bridge.slave = self.membus.master
self.intrctrl = IntrControl()
self.disk0 = CowMmDisk()
self.disk0.childImage(mdesc.disks()[0])
self.disk0.pio = self.iobus.master
# The puart0 and hvuart are placed on the IO bus, so create ranges
# for them. The remaining IO range is rather fragmented, so poke
# holes for the iob and partition descriptors etc.
self.bridge.ranges = \
[
AddrRange(self.t1000.puart0.pio_addr,
self.t1000.puart0.pio_addr + uart_pio_size - 1),
AddrRange(self.disk0.pio_addr,
self.t1000.fake_jbi.pio_addr +
self.t1000.fake_jbi.pio_size - 1),
AddrRange(self.t1000.fake_clk.pio_addr,
iob_man_addr - 1),
AddrRange(self.t1000.fake_l2_1.pio_addr,
self.t1000.fake_ssi.pio_addr +
self.t1000.fake_ssi.pio_size - 1),
AddrRange(self.t1000.hvuart.pio_addr,
self.t1000.hvuart.pio_addr + uart_pio_size - 1)
]
workload = SparcFsWorkload()
# ROM for OBP/Reset/Hypervisor
self.rom = SimpleMemory(image_file=binary('t1000_rom.bin'),
range=AddrRange(0xfff0000000, size='8MB'))
# nvram
self.nvram = SimpleMemory(image_file=binary('nvram1'),
range=AddrRange(0x1f11000000, size='8kB'))
# hypervisor description
self.hypervisor_desc = SimpleMemory(image_file=binary('1up-hv.bin'),
range=AddrRange(0x1f12080000, size='8kB'))
# partition description
self.partition_desc = SimpleMemory(image_file=binary('1up-md.bin'),
range=AddrRange(0x1f12000000, size='8kB'))
self.rom.port = self.membus.master
self.nvram.port = self.membus.master
self.hypervisor_desc.port = self.membus.master
self.partition_desc.port = self.membus.master
self.system_port = self.membus.slave
self.workload = workload
return self
def makeArmSystem(mem_mode, machine_type, num_cpus=1, mdesc=None,
dtb_filename=None, bare_metal=False, cmdline=None,
external_memory="", ruby=False, security=False,
vio_9p=None, bootloader=None):
assert machine_type
pci_devices = []
self = ArmSystem()
if not mdesc:
# generic system
mdesc = SysConfig()
self.readfile = mdesc.script()
self.iobus = IOXBar()
if not ruby:
self.bridge = Bridge(delay='50ns')
self.bridge.master = self.iobus.slave
self.membus = MemBus()
self.membus.badaddr_responder.warn_access = "warn"
self.bridge.slave = self.membus.master
self.mem_mode = mem_mode
platform_class = ObjectList.platform_list.get(machine_type)
# Resolve the real platform name, the original machine_type
# variable might have been an alias.
machine_type = platform_class.__name__
self.realview = platform_class()
self._bootmem = self.realview.bootmem
if isinstance(self.realview, VExpress_EMM64):
if os.path.split(mdesc.disks()[0])[-1] == 'linux-aarch32-ael.img':
print("Selected 64-bit ARM architecture, updating default "
"disk image...")
mdesc.diskname = 'linaro-minimal-aarch64.img'
# Attach any PCI devices this platform supports
self.realview.attachPciDevices()
disks = makeCowDisks(mdesc.disks())
# Old platforms have a built-in IDE or CF controller. Default to
# the IDE controller if both exist. New platforms expect the
# storage controller to be added from the config script.
if hasattr(self.realview, "ide"):
self.realview.ide.disks = disks
elif hasattr(self.realview, "cf_ctrl"):
self.realview.cf_ctrl.disks = disks
else:
self.pci_ide = IdeController(disks=disks)
pci_devices.append(self.pci_ide)
self.mem_ranges = []
size_remain = long(Addr(mdesc.mem()))
for region in self.realview._mem_regions:
if size_remain > long(region.size()):
self.mem_ranges.append(region)
size_remain = size_remain - long(region.size())
else:
self.mem_ranges.append(AddrRange(region.start, size=size_remain))
size_remain = 0
break
warn("Memory size specified spans more than one region. Creating" \
" another memory controller for that range.")
if size_remain > 0:
fatal("The currently selected ARM platforms doesn't support" \
" the amount of DRAM you've selected. Please try" \
" another platform")
self.have_security = security
if bare_metal:
# EOT character on UART will end the simulation
self.realview.uart[0].end_on_eot = True
self.workload = ArmFsWorkload(atags_addr=0)
else:
workload = ArmFsLinux()
if dtb_filename:
workload.dtb_filename = binary(dtb_filename)
workload.machine_type = \
machine_type if machine_type in ArmMachineType.map else "DTOnly"
# Ensure that writes to the UART actually go out early in the boot
if not cmdline:
cmdline = 'earlyprintk=pl011,0x1c090000 console=ttyAMA0 ' + \
'lpj=19988480 norandmaps rw loglevel=8 ' + \
'mem=%(mem)s root=%(rootdev)s'
if hasattr(self.realview.gic, 'cpu_addr'):
self.gic_cpu_addr = self.realview.gic.cpu_addr
self.flags_addr = self.realview.realview_io.pio_addr + 0x30
# This check is for users who have previously put 'android' in
# the disk image filename to tell the config scripts to
# prepare the kernel with android-specific boot options. That
# behavior has been replaced with a more explicit option per
# the error message below. The disk can have any name now and
# doesn't need to include 'android' substring.
if (mdesc.disks() and
os.path.split(mdesc.disks()[0])[-1]).lower().count('android'):
if 'android' not in mdesc.os_type():
fatal("It looks like you are trying to boot an Android " \
"platform. To boot Android, you must specify " \
"--os-type with an appropriate Android release on " \
"the command line.")
# android-specific tweaks
if 'android' in mdesc.os_type():
# generic tweaks
cmdline += " init=/init"
# release-specific tweaks
if 'kitkat' in mdesc.os_type():
cmdline += " androidboot.hardware=gem5 qemu=1 qemu.gles=0 " + \
"android.bootanim=0 "
elif 'nougat' in mdesc.os_type():
cmdline += " androidboot.hardware=gem5 qemu=1 qemu.gles=0 " + \
"android.bootanim=0 " + \
"vmalloc=640MB " + \
"android.early.fstab=/fstab.gem5 " + \
"androidboot.selinux=permissive " + \
"video=Virtual-1:1920x1080-16"
workload.command_line = fillInCmdline(mdesc, cmdline)
self.workload = workload
self.realview.setupBootLoader(self, binary, bootloader)
if external_memory:
# I/O traffic enters iobus
self.external_io = ExternalMaster(port_data="external_io",
port_type=external_memory)
self.external_io.port = self.iobus.slave
# Ensure iocache only receives traffic destined for (actual) memory.
self.iocache = ExternalSlave(port_data="iocache",
port_type=external_memory,
addr_ranges=self.mem_ranges)
self.iocache.port = self.iobus.master
# Let system_port get to nvmem and nothing else.
self.bridge.ranges = [self.realview.nvmem.range]
self.realview.attachOnChipIO(self.iobus)
# Attach off-chip devices
self.realview.attachIO(self.iobus)
elif ruby:
self._dma_ports = [ ]
self._mem_ports = [ ]
self.realview.attachOnChipIO(self.iobus,
dma_ports=self._dma_ports, mem_ports=self._mem_ports)
self.realview.attachIO(self.iobus, dma_ports=self._dma_ports)
else:
self.realview.attachOnChipIO(self.membus, self.bridge)
# Attach off-chip devices
self.realview.attachIO(self.iobus)
for dev in pci_devices:
self.realview.attachPciDevice(
dev, self.iobus,
dma_ports=self._dma_ports if ruby else None)
self.intrctrl = IntrControl()
self.terminal = Terminal()
self.vncserver = VncServer()
if vio_9p:
attach_9p(self.realview, self.iobus)
if not ruby:
self.system_port = self.membus.slave
if ruby:
if buildEnv['PROTOCOL'] == 'MI_example' and num_cpus > 1:
fatal("The MI_example protocol cannot implement Load/Store "
"Exclusive operations. Multicore ARM systems configured "
"with the MI_example protocol will not work properly.")
warn("You are trying to use Ruby on ARM, which is not working "
"properly yet.")
return self
def makeLinuxMipsSystem(mem_mode, mdesc=None, cmdline=None):
class BaseMalta(Malta):
ethernet = NSGigE(pci_bus=0, pci_dev=1, pci_func=0)
ide = IdeController(disks=Parent.disks,
pci_func=0, pci_dev=0, pci_bus=0)
self = LinuxMipsSystem()
if not mdesc:
# generic system
mdesc = SysConfig()
self.readfile = mdesc.script()
self.iobus = IOXBar()
self.membus = MemBus()
self.bridge = Bridge(delay='50ns')
self.mem_ranges = [AddrRange('1GB')]
self.bridge.master = self.iobus.slave
self.bridge.slave = self.membus.master
self.disks = makeCowDisks(mdesc.disks())
self.malta = BaseMalta()
self.malta.attachIO(self.iobus)
self.malta.ide.pio = self.iobus.master
self.malta.ide.dma = self.iobus.slave
self.malta.ethernet.pio = self.iobus.master
self.malta.ethernet.dma = self.iobus.slave
self.simple_disk = SimpleDisk(disk=RawDiskImage(
image_file = mdesc.disks()[0], read_only = True))
self.intrctrl = IntrControl()
self.mem_mode = mem_mode
self.terminal = Terminal()
self.console = binary('mips/console')
if not cmdline:
cmdline = 'root=/dev/hda1 console=ttyS0'
self.workload = OsKernel(command_line=fillInCmdline(mdesc, cmdline))
self.system_port = self.membus.slave
return self
def x86IOAddress(port):
IO_address_space_base = 0x8000000000000000
return IO_address_space_base + port
def connectX86ClassicSystem(x86_sys, numCPUs):
# Constants similar to x86_traits.hh
IO_address_space_base = 0x8000000000000000
pci_config_address_space_base = 0xc000000000000000
interrupts_address_space_base = 0xa000000000000000
APIC_range_size = 1 << 12;
x86_sys.membus = MemBus()
# North Bridge
x86_sys.iobus = IOXBar()
x86_sys.bridge = Bridge(delay='50ns')
x86_sys.bridge.master = x86_sys.iobus.slave
x86_sys.bridge.slave = x86_sys.membus.master
# Allow the bridge to pass through:
# 1) kernel configured PCI device memory map address: address range
# [0xC0000000, 0xFFFF0000). (The upper 64kB are reserved for m5ops.)
# 2) the bridge to pass through the IO APIC (two pages, already contained in 1),
# 3) everything in the IO address range up to the local APIC, and
# 4) then the entire PCI address space and beyond.
x86_sys.bridge.ranges = \
[
AddrRange(0xC0000000, 0xFFFF0000),
AddrRange(IO_address_space_base,
interrupts_address_space_base - 1),
AddrRange(pci_config_address_space_base,
Addr.max)
]
# Create a bridge from the IO bus to the memory bus to allow access to
# the local APIC (two pages)
x86_sys.apicbridge = Bridge(delay='50ns')
x86_sys.apicbridge.slave = x86_sys.iobus.master
x86_sys.apicbridge.master = x86_sys.membus.slave
x86_sys.apicbridge.ranges = [AddrRange(interrupts_address_space_base,
interrupts_address_space_base +
numCPUs * APIC_range_size
- 1)]
# connect the io bus
x86_sys.pc.attachIO(x86_sys.iobus)
x86_sys.system_port = x86_sys.membus.slave
def connectX86RubySystem(x86_sys):
# North Bridge
x86_sys.iobus = IOXBar()
# add the ide to the list of dma devices that later need to attach to
# dma controllers
x86_sys._dma_ports = [x86_sys.pc.south_bridge.ide.dma]
x86_sys.pc.attachIO(x86_sys.iobus, x86_sys._dma_ports)
def makeX86System(mem_mode, numCPUs=1, mdesc=None, workload=None, Ruby=False):
self = X86System()
if workload is None:
workload = X86FsWorkload()
self.workload = workload
if not mdesc:
# generic system
mdesc = SysConfig()
self.readfile = mdesc.script()
self.mem_mode = mem_mode
# Physical memory
# On the PC platform, the memory region 0xC0000000-0xFFFFFFFF is reserved
# for various devices. Hence, if the physical memory size is greater than
# 3GB, we need to split it into two parts.
excess_mem_size = \
convert.toMemorySize(mdesc.mem()) - convert.toMemorySize('3GB')
if excess_mem_size <= 0:
self.mem_ranges = [AddrRange(mdesc.mem())]
else:
warn("Physical memory size specified is %s which is greater than " \
"3GB. Twice the number of memory controllers would be " \
"created." % (mdesc.mem()))
self.mem_ranges = [AddrRange('3GB'),
AddrRange(Addr('4GB'), size = excess_mem_size)]
# Platform
self.pc = Pc()
# Create and connect the busses required by each memory system
if Ruby:
connectX86RubySystem(self)
else:
connectX86ClassicSystem(self, numCPUs)
self.intrctrl = IntrControl()
# Disks
disks = makeCowDisks(mdesc.disks())
self.pc.south_bridge.ide.disks = disks
# Add in a Bios information structure.
structures = [X86SMBiosBiosInformation()]
workload.smbios_table.structures = structures
# Set up the Intel MP table
base_entries = []
ext_entries = []
for i in range(numCPUs):
bp = X86IntelMPProcessor(
local_apic_id = i,
local_apic_version = 0x14,
enable = True,
bootstrap = (i == 0))
base_entries.append(bp)
io_apic = X86IntelMPIOAPIC(
id = numCPUs,
version = 0x11,
enable = True,
address = 0xfec00000)
self.pc.south_bridge.io_apic.apic_id = io_apic.id
base_entries.append(io_apic)
# In gem5 Pc::calcPciConfigAddr(), it required "assert(bus==0)",
# but linux kernel cannot config PCI device if it was not connected to
# PCI bus, so we fix PCI bus id to 0, and ISA bus id to 1.
pci_bus = X86IntelMPBus(bus_id = 0, bus_type='PCI ')
base_entries.append(pci_bus)
isa_bus = X86IntelMPBus(bus_id = 1, bus_type='ISA ')
base_entries.append(isa_bus)
connect_busses = X86IntelMPBusHierarchy(bus_id=1,
subtractive_decode=True, parent_bus=0)
ext_entries.append(connect_busses)
pci_dev4_inta = X86IntelMPIOIntAssignment(
interrupt_type = 'INT',
polarity = 'ConformPolarity',
trigger = 'ConformTrigger',
source_bus_id = 0,
source_bus_irq = 0 + (4 << 2),
dest_io_apic_id = io_apic.id,
dest_io_apic_intin = 16)
base_entries.append(pci_dev4_inta)
def assignISAInt(irq, apicPin):
assign_8259_to_apic = X86IntelMPIOIntAssignment(
interrupt_type = 'ExtInt',
polarity = 'ConformPolarity',
trigger = 'ConformTrigger',
source_bus_id = 1,
source_bus_irq = irq,
dest_io_apic_id = io_apic.id,
dest_io_apic_intin = 0)
base_entries.append(assign_8259_to_apic)
assign_to_apic = X86IntelMPIOIntAssignment(
interrupt_type = 'INT',
polarity = 'ConformPolarity',
trigger = 'ConformTrigger',
source_bus_id = 1,
source_bus_irq = irq,
dest_io_apic_id = io_apic.id,
dest_io_apic_intin = apicPin)
base_entries.append(assign_to_apic)
assignISAInt(0, 2)
assignISAInt(1, 1)
for i in range(3, 15):
assignISAInt(i, i)
workload.intel_mp_table.base_entries = base_entries
workload.intel_mp_table.ext_entries = ext_entries
return self
def makeLinuxX86System(mem_mode, numCPUs=1, mdesc=None, Ruby=False,
cmdline=None):
# Build up the x86 system and then specialize it for Linux
self = makeX86System(mem_mode, numCPUs, mdesc, X86FsLinux(), Ruby)
# We assume below that there's at least 1MB of memory. We'll require 2
# just to avoid corner cases.
phys_mem_size = sum(map(lambda r: r.size(), self.mem_ranges))
assert(phys_mem_size >= 0x200000)
assert(len(self.mem_ranges) <= 2)
entries = \
[
# Mark the first megabyte of memory as reserved
X86E820Entry(addr = 0, size = '639kB', range_type = 1),
X86E820Entry(addr = 0x9fc00, size = '385kB', range_type = 2),
# Mark the rest of physical memory as available
X86E820Entry(addr = 0x100000,
size = '%dB' % (self.mem_ranges[0].size() - 0x100000),
range_type = 1),
]
# Mark [mem_size, 3GB) as reserved if memory less than 3GB, which force
# IO devices to be mapped to [0xC0000000, 0xFFFF0000). Requests to this
# specific range can pass though bridge to iobus.
if len(self.mem_ranges) == 1:
entries.append(X86E820Entry(addr = self.mem_ranges[0].size(),
size='%dB' % (0xC0000000 - self.mem_ranges[0].size()),
range_type=2))
# Reserve the last 16kB of the 32-bit address space for the m5op interface
entries.append(X86E820Entry(addr=0xFFFF0000, size='64kB', range_type=2))
# In case the physical memory is greater than 3GB, we split it into two
# parts and add a separate e820 entry for the second part. This entry
# starts at 0x100000000, which is the first address after the space
# reserved for devices.
if len(self.mem_ranges) == 2:
entries.append(X86E820Entry(addr = 0x100000000,
size = '%dB' % (self.mem_ranges[1].size()), range_type = 1))
self.workload.e820_table.entries = entries
# Command line
if not cmdline:
cmdline = 'earlyprintk=ttyS0 console=ttyS0 lpj=7999923 root=/dev/hda1'
self.workload.command_line = fillInCmdline(mdesc, cmdline)
return self
def makeDualRoot(full_system, testSystem, driveSystem, dumpfile):
self = Root(full_system = full_system)
self.testsys = testSystem
self.drivesys = driveSystem
self.etherlink = EtherLink()
if hasattr(testSystem, 'realview'):
self.etherlink.int0 = Parent.testsys.realview.ethernet.interface
self.etherlink.int1 = Parent.drivesys.realview.ethernet.interface
elif hasattr(testSystem, 'tsunami'):
self.etherlink.int0 = Parent.testsys.tsunami.ethernet.interface
self.etherlink.int1 = Parent.drivesys.tsunami.ethernet.interface
else:
fatal("Don't know how to connect these system together")
if dumpfile:
self.etherdump = EtherDump(file=dumpfile)
self.etherlink.dump = Parent.etherdump
return self
def makeDistRoot(testSystem,
rank,
size,
server_name,
server_port,
sync_repeat,
sync_start,
linkspeed,
linkdelay,
dumpfile):
self = Root(full_system = True)
self.testsys = testSystem
self.etherlink = DistEtherLink(speed = linkspeed,
delay = linkdelay,
dist_rank = rank,
dist_size = size,
server_name = server_name,
server_port = server_port,
sync_start = sync_start,
sync_repeat = sync_repeat)
if hasattr(testSystem, 'realview'):
self.etherlink.int0 = Parent.testsys.realview.ethernet.interface
elif hasattr(testSystem, 'tsunami'):
self.etherlink.int0 = Parent.testsys.tsunami.ethernet.interface
else:
fatal("Don't know how to connect DistEtherLink to this system")
if dumpfile:
self.etherdump = EtherDump(file=dumpfile)
self.etherlink.dump = Parent.etherdump
return self
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