- Untested as of 08/07/2024 *
Old FireSim software workloads used in the FireSim paper (see below). This software needs the following to build:
- Setup FireMarshal, FireSim's workload builder: https://github.com/firesim/FireMarshal. This was last tested with commit
74ac78a
. - Ensure you have all FireMarshal requirements on your path (i.e. if you are using Chipyard, ensure the
env.sh
is setup) - Symlink the FireMarshal repository to this repository like so:
ln -sf <PATH_TO_FIREMARSHAL> firemarshal-symlink
- Build using
make allpaper
ormake linux-poweroff
.. Note::
These instructions are deprecated. Users interested in reproducing the ISCA 2018 experiments should build workloads using FireMarshal present in Chipyard.
This page contains descriptions of the experiments in our ISCA 2018 paper <https://sagark.org/assets/pubs/firesim-isca2018.pdf>
__ and instructions for
reproducing them on your own simulations.
One important difference between the configuration used in the ISCA 2018 paper and the open-source release of FireSim is that the ISCA paper used a proprietary L2 cache design that is not open-source. Instead, the open-source FireSim uses an LLC model that models the behavior of having an L2 cache as part of the memory model. Even with the LLC model, you should be able to see the same trends in these experiments, but exact numbers may vary.
Each section below describes the resources necessary to run the experiment. Some of these experiments require a large number of instances -- you should make sure you understand the resource requirements before you run one of the scripts.
Compatiblity: These were last tested with commit
4769e5d86acf6a9508d2b5a63141dc80a6ef20a6
(Oct. 2019) of FireSim. After this commit,
the Linux version in FireSim has been bumped past Linux 4.15. To reproduce workloads
that rely on OS behavior that has changed, like
memcached-thread-imbalance
, you must use the last tested Oct. 2019 commit.
These guides assume that you have previously followed the single-node/cluster-scale experiment guides in the FireSim documentation. Note that these are advanced experiments, not introductory tutorials.
We include scripts to automatically build all of the benchmark rootfs images
that will be used below. To build them, make sure you have already run
./marshal build workloads/br-base.json
in firesim/target-design/chipyard/software/firemarshal
, then run:
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads
make allpaper
Resource requirements:
.. code-block:: bash
cat firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs/ping-latency-config.yaml
To Run:
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs
./run-ping-latency.sh withlaunch
Resource requirements:
.. code-block:: bash
cat firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs/bw-test-config.yaml
To Run:
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs
./run-bw-test.sh withlaunch
Resource requirements:
.. include:: /../deploy/workloads/memcached-thread-imbalance-config.yaml :start-line: 3 :end-line: 6 :code: yaml
To Run:
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs
./run-memcached-thread-imbalance.sh withlaunch
Resource requirements:
.. include:: /../deploy/workloads/simperf-test-scale-config.yaml :start-line: 3 :end-line: 6 :code: yaml
To Run:
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs
./run-simperf-test-scale.sh withlaunch
A similar benchmark is also provided for supernode mode, see run-simperf-test-scale-supernode.sh
.
Resource requirements:
.. include:: /../deploy/workloads/simperf-test-latency-config.yaml :start-line: 3 :end-line: 6 :code: yaml
To Run:
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs
./run-simperf-test-latency.sh withlaunch
A similar benchmark for supernode mode will be provided soon. See firesim/firesim#244
This script simply executes all of the above scripts in parallel. One caveat is that the bw-test script currently cannot run in parallel with the others, since it requires patching the switches. This will be resolved in a future release.
.. code-block:: bash
cd firesim/target-design/chipyard/software/firesim-paper-workloads/firesim-yaml-configs
./run-all.sh
.. _gap-benchmark-suite:
You can run the reference implementation of the GAP (Graph Algorithm Performance) Benchmark Suite. We provide scripts that cross-compile the graph kernels for RISCV.
For more information about the benchmark itself, please refer to the site: http://gap.cs.berkeley.edu/benchmark.html
Some notes:
- Only the Kron input graph is currently supported.
- Benchmark uses
graph500
input graph size of 2^20 vertices by default.test
input size has 2^10 vertices and can be used by specifying an argument into make:make gapbs input=test
- The reference input size with 2^27 verticies is not currently supported.
By default, the gapbs workload definition runs the benchmark multithreaded with number of threads equal to the number of cores. To change the number of threads, you need to edit firesim/deploy/workloads/runscripts/gapbs-scripts/gapbs.sh
. Additionally, the workload does not verify the output of the benchmark by default. To change this, add a --verify
parameter to the json.
To Build Binaries and RootFSes:
.. code-block:: bash
cd firesim/deploy/workloads/
make gapbs
Run Resource Requirements:
.. include:: /../deploy/workloads/gapbs.yaml :start-line: 3 :end-line: 6 :code: yaml
To Run:
.. code-block:: bash
./run-workload.sh workloads/gapbs.yaml --withlaunch
Simulation times are host and target dependent. For reference, on a
four-core rocket-based SoC with a DDR3 + 1 MiB LLC model, with a 90
MHz host clock, test
and graph500
input sizes finish in a few minutes.