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2015-10-14ruby: profiler: provide the number of vnets through ruby systemNilay Vaish
The aim is to ultimately do away with the static function Network::getNumberOfVirtualNetworks().
2015-09-01ruby: remove random seedNilay Vaish
We no longer use the C library based random number generator: random(). Instead we use the C++ library provided rng. So setting the random seed for the RubySystem class has no effect. Hence the variable and the corresponding option are being dropped.
2015-08-30ruby: specify number of vnets for each protocolNilay Vaish
The default value for number of virtual networks is being removed. Each protocol should now specify the value it needs.
2015-08-21ruby: Move Rubys cache class from Cache.py to RubyCache.pyAndreas Hansson
This patch serves to avoid name clashes with the classic cache. For some reason having two 'SimObject' files with the same name creates problems. --HG-- rename : src/mem/ruby/structures/Cache.py => src/mem/ruby/structures/RubyCache.py
2015-08-19ruby: reverts to changeset: bf82f1f7b040Nilay Vaish
2015-08-14ruby: profiler: provide the number of vnets through ruby systemNilay Vaish
The aim is to ultimately do away with the static function Network::getNumberOfVirtualNetworks().
2015-08-14ruby: remove random seedNilay Vaish
We no longer use the C library based random number generator: random(). Instead we use the C++ library provided rng. So setting the random seed for the RubySystem class has no effect. Hence the variable and the corresponding option are being dropped.
2015-08-14ruby: Protocol changes for SimObject MessageBuffersJoel Hestness
2015-08-14ruby: Expose MessageBuffers as SimObjectsJoel Hestness
Expose MessageBuffers from SLICC controllers as SimObjects that can be manipulated in Python. This patch has numerous benefits: 1) First and foremost, it exposes MessageBuffers as SimObjects that can be manipulated in Python code. This allows parameters to be set and checked in Python code to avoid obfuscating parameters within protocol files. Further, now as SimObjects, MessageBuffer parameters are printed to config output files as a way to track parameters across simulations (e.g. buffer sizes) 2) Cleans up special-case code for responseFromMemory buffers, and aligns their instantiation and use with mandatoryQueue buffers. These two special buffers are the only MessageBuffers that are exposed to components outside of SLICC controllers, and they're both slave ends of these buffers. They should be exposed outside of SLICC in the same way, and this patch does it. 3) Distinguishes buffer-specific parameters from buffer-to-network parameters. Specifically, buffer size, randomization, ordering, recycle latency, and ports are all specific to a MessageBuffer, while the virtual network ID and type are intrinsics of how the buffer is connected to network ports. The former are specified in the Python object, while the latter are specified in the controller *.sm files. Unlike buffer-specific parameters, which may need to change depending on the simulated system structure, buffer-to-network parameters can be specified statically for most or all different simulated systems.
2015-08-14ruby: Remove the RubyCache/CacheMemory latencyJoel Hestness
The RubyCache (CacheMemory) latency parameter is only used for top-level caches instantiated for Ruby coherence protocols. However, the top-level cache hit latency is assessed by the Sequencer as accesses flow through to the cache hierarchy. Further, protocol state machines should be enforcing these cache hit latencies, but RubyCaches do not expose their latency to any existng state machines through the SLICC/C++ interface. Thus, the RubyCache latency parameter is superfluous for all caches. This is confusing for users. As a step toward pushing L0/L1 cache hit latency into the top-level cache controllers, move their latencies out of the RubyCache declarations and over to their Sequencers. Eventually, these Sequencer parameters should be exposed as parameters to the top-level cache controllers, which should assess the latency. NOTE: Assessing these latencies in the cache controllers will require modifying each to eliminate instantaneous Ruby hit callbacks in transitions that finish accesses, which is likely a large undertaking.
2015-08-03ruby: correctly number the sequencer in MESI_Three_Level.pyNilay Vaish
2015-07-20config: add base class for ruby controllersDavid Hashe
The CntrlBase python class handles configuration parameters such as running counts of controllers and sequencers.
2015-07-20ruby: initialize replacement policies with their own simobjsDavid Hashe
this is in preparation for other replacement policies that take additional parameters.
2015-07-10ruby: remove extra whitespace and correct misspelled wordsBrandon Potter
2015-07-04config: Update location of ruby topologies in helpDavid Hashe
Committed by: Nilay Vaish <nilay@cs.wisc.edu>
2015-03-02mem: Move crossbar default latencies to subclassesAndreas Hansson
This patch introduces a few subclasses to the CoherentXBar and NoncoherentXBar to distinguish the different uses in the system. We use the crossbar in a wide range of places: interfacing cores to the L2, as a system interconnect, connecting I/O and peripherals, etc. Needless to say, these crossbars have very different performance, and the clock frequency alone is not enough to distinguish these scenarios. Instead of trying to capture every possible case, this patch introduces dedicated subclasses for the three primary use-cases: L2XBar, SystemXBar and IOXbar. More can be added if needed, and the defaults can be overridden.
2015-02-26Ruby: Update backing store option to propagate through to all RubyPortsJason Power
Previously, the user would have to manually set access_backing_store=True on all RubyPorts (Sequencers) in the config files. Now, instead there is one global option that each RubyPort checks on initialization. Committed by: Nilay Vaish <nilay@cs.wisc.edu>
2015-01-20config, ruby: connect dma to networkMalek Musleh
DMA Controller was not being connected to the network for the MESI_Three_Level protocol as was being done in the other protocol config files. Without this patch, this protocol segfaults during startup. Committed by: Nilay Vaish <nilay@cs.wisc.edu>
2015-01-03configs: ruby: removes bug introduced by 05b5a6cf3521Nilay Vaish
2014-12-04config: ruby: mi protocol: correct master slave setting for dmaNilay Vaish
In the MI protocol, the master slave connection between the dma controller and network was being set incorrectly. This patch corrects it.
2014-11-23Backed out prior changeset f9fb64a72259Steve Reinhardt
Back out use of importlib to avoid implicitly creating dependency on Python 2.7.
2014-11-23config: ruby: Get rid of an "eval" and an "exec" operating on generated code.Gabe Black
We can get the same result using importlib.
2014-11-06x86 isa: This patch attempts an implementation at mwait.Marc Orr
Mwait works as follows: 1. A cpu monitors an address of interest (monitor instruction) 2. A cpu calls mwait - this loads the cache line into that cpu's cache. 3. The cpu goes to sleep. 4. When another processor requests write permission for the line, it is evicted from the sleeping cpu's cache. This eviction is forwarded to the sleeping cpu, which then wakes up. Committed by: Nilay Vaish <nilay@cs.wisc.edu>
2014-11-06ruby: provide a backing storeNilay Vaish
Ruby's functional accesses are not guaranteed to succeed as of now. While this is not a problem for the protocols that are currently in the mainline repo, it seems that coherence protocols for gpus rely on a backing store to supply the correct data. The aim of this patch is to make this backing store configurable i.e. it comes into play only when a particular option: --access-backing-store is invoked. The backing store has been there since M5 and GEMS were integrated. The only difference is that earlier the system used to maintain the backing store and ruby's copy was write-only. Sometime last year, we moved to data being supplied supplied by ruby in SE mode simulations. And now we have patches on the reviewboard, which remove ruby's copy of memory altogether and rely completely on the system's memory to supply data. This patch adds back a SimpleMemory member to RubySystem. This member is used only if the option: access-backing-store is set to true. By default, the memory would not be accessed.
2014-11-06ruby: interface with classic memory controllerNilay Vaish
This patch is the final in the series. The whole series and this patch in particular were written with the aim of interfacing ruby's directory controller with the memory controller in the classic memory system. This is being done since ruby's memory controller has not being kept up to date with the changes going on in DRAMs. Classic's memory controller is more up to date and supports multiple different types of DRAM. This also brings classic and ruby ever more close. The patch also changes ruby's memory controller to expose the same interface.
2014-11-06ruby: single physical memory in fs modeNilay Vaish
Both ruby and the system used to maintain memory copies. With the changes carried for programmed io accesses, only one single memory is required for fs simulations. This patch sets the copy of memory that used to reside with the system to null, so that no space is allocated, but address checks can still be carried out. All the memory accesses now source and sink values to the memory maintained by ruby.
2014-10-11ruby: moesi hammer: correct typo in master-slave assignmentNilay Vaish
2014-09-01ruby: message buffers: significant changesNilay Vaish
This patch is the final patch in a series of patches. The aim of the series is to make ruby more configurable than it was. More specifically, the connections between controllers are not at all possible (unless one is ready to make significant changes to the coherence protocol). Moreover the buffers themselves are magically connected to the network inside the slicc code. These connections are not part of the configuration file. This patch makes changes so that these connections will now be made in the python configuration files associated with the protocols. This requires each state machine to expose the message buffers it uses for input and output. So, the patch makes these buffers configurable members of the machines. The patch drops the slicc code that usd to connect these buffers to the network. Now these buffers are exposed to the python configuration system as Master and Slave ports. In the configuration files, any master port can be connected any slave port. The file pyobject.cc has been modified to take care of allocating the actual message buffer. This is inline with how other port connections work.
2014-09-01ruby: Fixes clock domains in configuration filesEmilio Castillo ext:(%2C%20Nilay%20Vaish%20%3Cnilay%40cs.wisc.edu%3E)
This patch fixes scripts related to ruby by adding the ruby clock domain. Now the L1 controllers and the Sequencer shares the cpu clock domain, while the rest of the components use the ruby clock domain. Before this patch, running simulations with the cpu clock set at 2GHz or 1GHz will output the same time results and could distort power measurements. Committed by: Nilay Vaish <nilay@cs.wisc.edu>
2014-04-19config: ruby: remove memory controller from network testNilay Vaish
It is not in use and not required as such.
2014-03-20ruby: garnet: convert network interfaces into clocked objectsNilay Vaish
This helps in configuring the network interfaces from the python script and these objects no longer rely on the network object for the timing information.
2014-03-20config: ruby: rename _cpu_ruby_ports to _cpu_portsNilay Vaish
2014-03-20config: remove ruby_fs.pyNilay Vaish
The patch removes the ruby_fs.py file. The functionality is being moved to fs.py. This would being ruby fs simulations in line with how ruby se simulations are started (using --ruby option). The alpha fs config functions are being combined for classing and ruby memory systems. This required renaming the piobus in ruby to iobus. So, we will have stats being renamed in the stats file for ruby fs regression.
2014-03-17config: ruby: remove piobus from protocolsNilay Vaish
This patch removes the piobus from the protocol config files. The ports are now connected to the piobus in the Ruby.py file.
2014-02-24ruby: correct errors in changeset 4eec7bdde5b0Nilay Vaish
Couple of errors were discovered in 4eec7bdde5b0 which necessitated this patch. Firstly, we create interrupt controllers in the se mode, but no piobus was being created. RubyPort, which earlier used to ignore range changes now forwards those to the piobus. The lack of piobus resulted in segmentation fault. This patch creates a piobus even in se mode. It is not created only when some tester is running. Secondly, I had missed out on modifying port connections for other coherence protocols.
2014-02-23ruby: route all packets through ruby portNilay Vaish
Currently, the interrupt controller in x86 is connected to the io bus directly. Therefore the packets between the io devices and the interrupt controller do not go through ruby. This patch changes ruby port so that these packets arrive at the ruby port first, which then routes them to their destination. Note that the patch does not make these packets go through the ruby network. That would happen in a subsequent patch.
2014-01-10ruby: move all statistics to stats.txt, eliminate ruby.statsNilay Vaish
2014-01-04ruby: add a three level MESI protocol.Nilay Vaish
The first two levels (L0, L1) are private to the core, the third level (L2)is possibly shared. The protocol supports clustered designs. For example, one can have two sets of two cores. Each core has an L0 and L1 cache. There are two L2 controllers where each set accesses only one of the L2 controllers.
2014-01-04ruby: rename MESI_CMP_directory to MESI_Two_LevelNilay Vaish
This is because the next patch introduces a three level hierarchy. --HG-- rename : build_opts/ALPHA_MESI_CMP_directory => build_opts/ALPHA_MESI_Two_Level rename : build_opts/X86_MESI_CMP_directory => build_opts/X86_MESI_Two_Level rename : configs/ruby/MESI_CMP_directory.py => configs/ruby/MESI_Two_Level.py rename : src/mem/protocol/MESI_CMP_directory-L1cache.sm => src/mem/protocol/MESI_Two_Level-L1cache.sm rename : src/mem/protocol/MESI_CMP_directory-L2cache.sm => src/mem/protocol/MESI_Two_Level-L2cache.sm rename : src/mem/protocol/MESI_CMP_directory-dir.sm => src/mem/protocol/MESI_Two_Level-dir.sm rename : src/mem/protocol/MESI_CMP_directory-dma.sm => src/mem/protocol/MESI_Two_Level-dma.sm rename : src/mem/protocol/MESI_CMP_directory-msg.sm => src/mem/protocol/MESI_Two_Level-msg.sm rename : src/mem/protocol/MESI_CMP_directory.slicc => src/mem/protocol/MESI_Two_Level.slicc rename : tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_CMP_directory/config.ini => tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_Two_Level/config.ini rename : tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_CMP_directory/ruby.stats => tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_Two_Level/ruby.stats rename : tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_CMP_directory/simerr => tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_Two_Level/simerr rename : tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_CMP_directory/simout => tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_Two_Level/simout rename : tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_CMP_directory/stats.txt => tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_Two_Level/stats.txt rename : tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_CMP_directory/system.pc.com_1.terminal => tests/long/fs/10.linux-boot/ref/x86/linux/pc-simple-timing-ruby-MESI_Two_Level/system.pc.com_1.terminal rename : tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_CMP_directory/config.ini => tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_Two_Level/config.ini rename : tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_CMP_directory/ruby.stats => tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_Two_Level/ruby.stats rename : tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_CMP_directory/simerr => tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_Two_Level/simerr rename : tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_CMP_directory/simout => tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_Two_Level/simout rename : tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_CMP_directory/stats.txt => tests/quick/se/00.hello/ref/alpha/linux/simple-timing-ruby-MESI_Two_Level/stats.txt rename : tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_CMP_directory/config.ini => tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_Two_Level/config.ini rename : tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_CMP_directory/ruby.stats => tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_Two_Level/ruby.stats rename : tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_CMP_directory/simerr => tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_Two_Level/simerr rename : tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_CMP_directory/simout => tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_Two_Level/simout rename : tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_CMP_directory/stats.txt => tests/quick/se/00.hello/ref/alpha/tru64/simple-timing-ruby-MESI_Two_Level/stats.txt rename : tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_CMP_directory/config.ini => tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_Two_Level/config.ini rename : tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_CMP_directory/ruby.stats => tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_Two_Level/ruby.stats rename : tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_CMP_directory/simerr => tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_Two_Level/simerr rename : tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_CMP_directory/simout => tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_Two_Level/simout rename : tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_CMP_directory/stats.txt => tests/quick/se/50.memtest/ref/alpha/linux/memtest-ruby-MESI_Two_Level/stats.txt rename : tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_CMP_directory/config.ini => tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_Two_Level/config.ini rename : tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_CMP_directory/ruby.stats => tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_Two_Level/ruby.stats rename : tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_CMP_directory/simerr => tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_Two_Level/simerr rename : tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_CMP_directory/simout => tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_Two_Level/simout rename : tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_CMP_directory/stats.txt => tests/quick/se/60.rubytest/ref/alpha/linux/rubytest-ruby-MESI_Two_Level/stats.txt
2014-01-04ruby: remove cntrl_id from python config scripts.Nilay Vaish
2014-01-04ruby: some small changesNilay Vaish
2013-12-20ruby: mesi: remove owner and sharer fields from directory tagsNilay Vaish
The directory controller should not have the sharer field since there is only one level 2 cache. Anyway the field was not in use. The owner field was being used to track the l2 cache version (in case of distributed l2) that has the cache block under consideration. The information is not required since the version of the level 2 cache can be obtained from a subset of the address bits.
2013-09-06ruby: network: correct naming of routersNilay Vaish
The routers are created before the network class. This results in the routers becoming children of the first link they are connected to and they get generic names like int_node and node_b. This patch creates the network object first and passes it to the topology creation function. Now the routers are children of the network object and names are much more sensible.
2013-08-20ruby: add option for number of transitions per cycleNilay Vaish
The number of transitions per cycle that a controller can carry out is a proxy for the number of ports that a controller has. This value is currently 32 which is way too high. The patch introduces an option for the number of ports and uses this option in the protocol files to set the number of transitions. The default value is being set to 4. None of the se regressions change. Ruby stats for the fs regression change and are being updated.
2013-08-19config: Move the memory instantiation outside FSConfigAndreas Hansson
This patch moves the instantiation of the memory controller outside FSConfig and instead relies on the mem_ranges to pass the information to the caller (e.g. fs.py or one of the regression scripts). The main motivation for this change is to expose the structural composition of the memory system and allow more tuning and configuration without adding a large number of options to the makeSystem functions. The patch updates the relevant example scripts to maintain the current functionality. As the order that ports are connected to the memory bus changes (in certain regresisons), some bus stats are shuffled around. For example, what used to be layer 0 is now layer 1. Going forward, options will be added to support the addition of multi-channel memory controllers.
2013-06-28ruby: check for compatibility between mem size and num dirsNilay Vaish
The configuration scripts provided for ruby assume that the available physical memory is equally distributed amongst the directory controllers. But there is no check to ensure this assumption has been adhered to. This patch adds the required check.
2013-06-27sim: Add the notion of clock domains to all ClockedObjectsAkash Bagdia
This patch adds the notion of source- and derived-clock domains to the ClockedObjects. As such, all clock information is moved to the clock domain, and the ClockedObjects are grouped into domains. The clock domains are either source domains, with a specific clock period, or derived domains that have a parent domain and a divider (potentially chained). For piece of logic that runs at a derived clock (a ratio of the clock its parent is running at) the necessary derived clock domain is created from its corresponding parent clock domain. For now, the derived clock domain only supports a divider, thus ensuring a lower speed compared to its parent. Multiplier functionality implies a PLL logic that has not been modelled yet (create a separate clock instead). The clock domains should be used as a mechanism to provide a controllable clock source that affects clock for every clocked object lying beneath it. The clock of the domain can (in a future patch) be controlled by a handler responsible for dynamic frequency scaling of the respective clock domains. All the config scripts have been retro-fitted with clock domains. For the System a default SrcClockDomain is created. For CPUs that run at a different speed than the system, there is a seperate clock domain created. This domain incorporates the CPU and the associated caches. As before, Ruby runs under its own clock domain. The clock period of all domains are pre-computed, such that no virtual functions or multiplications are needed when calling clockPeriod. Instead, the clock period is pre-computed when any changes occur. For this to be possible, each clock domain tracks its children.
2013-06-27config: Rename clock option to Ruby clockAkash Bagdia
This patch changes the 'clock' option to 'ruby-clock' as it is only used by Ruby.
2013-05-21ruby: moesi hammer: cosmetic changesNilay Vaish
Updates copyright years, removes space at the end of lines, shortens variable names.
2013-05-21ruby: mesi cmp directory: cosmetic changesNilay Vaish
Updates copyright years, removes space at the end of lines, shortens variable names.