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###
### README - QCD Accelerator Benchmarksuite Part 2
###
### 2017 - Jacob Finkenrath - CaSToRC - The Cyprus Institute (j.finkenrath@cyi.ac.cy)
###
The QCD Accelerator Benchmark suite Part 2 consists of two kernels,
the QUDA [1] and the QPhix library [2]. The library QUDA is based on CUDA and optimize for running on NVIDIA GPUs (https://lattice.github.io/quda/).The QPhix library consists of routines which are optimize to use INTEL intrinsic functions of multiple vector length, including optimized routines for KNC and KNL (http://jeffersonlab.github.io/qphix/).
The benchmark code is used the provided Conjugated Gradient benchmark functions of the libraries.
[1] R. Babbich, M. Clark and B. Joo, “Parallelizing the QUDA Library for Multi-GPU Calculations
in Lattice Quantum Chromodynamics” SC 10 (Supercomputing 2010)
[2] B. Joo, D. D. Kalamkar, K. Vaidyanathan, M. Smelyanskiy, K. Pamnany, V. W. Lee, P. Dubey,
W. Watson III, “Lattice QCD on Intel Xeon Phi”, International Supercomputing Conference (ISC’13), 2013
###
### Table of Contents
###
GPU - BENCHMARK SUITE (QUDA)
1. Compile and Run the GPU-Benchmark Suite
1.1 Compile
1.2 Run
1.2.1 Main-script: "run_ana.sh"
1.2.2 Main-script: "prepare_submit_job.sh"
1.2.3 Main-script: "submit_job.sh.template"
1.3 Example Benchmark results
XEONPHI - BENCHMARK SUITE (QPHIX)
2. Compile and Run the XeonPhi-Benchmark Suite
2.1 Compile
2.1.1 Example compilation on PRACE machines
2.1.1.1 BSC - Marenostrum III Hybrid partitions
2.1.1.2 CINES - Frioul
2.2 Run
2.2.1 Main-script: "run_ana.sh"
2.2.2 Main-script: "prepare_submit_job.sh"
2.2.3 Main-script: "submit_job.sh.template"
2.3 Example Benchmark Results
###
###
### GPU - BENCHMARK SUITE
###
###
##
## 1. Compile and Run the GPU-Benchmark Suite
##
##
## 1.1 Compile
##
Download Cmake and Quda
General information how to build QUDA with cmake can be found under:
"https://github.com/lattice/quda/wiki/Building-QUDA-with-cmake"
Here we just give a short overview:
Build Cmake: (./QCD_Accelerator_Benchmarksuite_Part2/GPUs/src/cmake-3.7.0.tar.gz)
Cmake can be downloaded from the source with the URL: https://cmake.org/download/
In this guide the version cmake-3.7.0 is used. The build instruction can be found
in the main directory under README.rst . Use the configure file "./configure" .
Then run "gmake".
Build Quda: (./QCD_Accelerator_Benchmarksuite_Part2/GPUs/src/quda.tar.gz)
Download quda for example by using "git clone https://github.com/lattice/quda.git".
Create a build-folder. Execute the executable "cmake" in the build-folder which
is located in the cmake/bin.
Execute:
./$PATH2CMAKE/cmake $PATH2QUDA -DQUDA_GPU_ARCH=sm_XX -DQUDA_DIRAC_WILSON=ON -DQUDA_DIRAC_TWISTED_MASS=OFF
-DQUDA_DIRACR_DOMAIN_WALL=OFF -DQUDA_HISQ_LINK=OFF -DQUDA_GAUGE_FORCE=OFF -DQUDA_HISQ_FORCE=OFF -DQUDA_MPI=ON
with
PATH2CMAKE= path to the cmake-executable
PAT2QUDA= path to the home dir of QUDA
Set -DQUDA_GPU_ARCH=sm_XX to the GPU Architecture (sm_60 for Pascals, sm_35 for Keplers)
If Cmake or the compilation fails library paths and options can be set by the cmake provided function "ccmake".
Use "./PATH2CMAKE/ccmake PATH2BUILD_DIR" to edit and to see the availble options.
Cmake generates the Makefiles. Run them by use "make".
Now in the folder /test one can find the needed Quda executable "invert_".
##
## 1.2 Run
##
The Accelerator QCD-Benchmarksuite Part 2 provides bash-scripts located in the folder ./QCD_Accelerator_Benchmarksuite_Part2/GPUs/scripts" to setup the benchmark runs
on the target machines. This bash-scripts are:
run_ana.sh : Main-script, set up the benchmark mode and submit the jobs (analyse the results)
prepare_submit_job.sh : Generate the job-scripts
submit_job.sh.template : Template for submit script
##
## 1.2.1 Main-script: "run_ana.sh"
##
The path to the executable has to be set by $PATH2EXE .
QUDA automaticaly tune the GPU-kernels. The optimal setup will be saved in
the folder which one declares by the variable "QUDA_RESOURCE_PATH". Set it to
folder where the tuning data should be saved.
Different scaling modes can be choose from Strong-scaling to Weak scaling
by using the variables sca_mode (="Strong" or ="Weak").
The lattice sizes can be set by "gx" and "gt".
Choose mode="Run" for run mode while mode="Analysis" for extracting the GFLOPS.
Note that the submition is done here by "sbatch", match this to the queing system on
your target machine.
##
## 1.2.2 Main-script: "prepare_submit_job.sh"
##
Add additional option if necessary.
##
## 1.2.3 Main-script: "submit_job.sh.template"
##
The submit-template will be edit by "prepare_submit_job.sh" to generate
the final submit-script. The header should be matched to the queing system
of the target machine.
The Accelerator QCD-Benchmarksuite Part 2 provides bash-scripts to setup the benchmark runs
on the target machines. This bash-scripts are:
##
## 1.3 Example Benchmark results
##
Here are shown the benchmark results on PizDaint located in Switzerland at CSCS
and the GPGPU-partition of Cartesius at Surfsara based in Netherland, Amsterdam. The runs are performed by using the
provided bash-scripts. PizDaint has one Pascal-GPU per node and two different testcases are shown,
the "Strong-Scaling mode with a random lattice configuration of size 32^3x96 and
a "Weak-Scaling" mode with a configuration of local lattice size 48^3x24.
The GPGPU nodes of Cartesius has two Kepler-GPU per node and the "Strong-Scaling" test is shown for the case
that one card per node and two cards per node are used.
The benchmark are done by using the Conjugated Gradient solver which
solve a linear equation, D * x = b, for the unknown solution "x" based on the clover improved Wilson Dirac operator
"D" and a known right hand side "b".
---------------------
PizDaint - Pascal
---------------------
Strong - Scaling:
global lattice size (32x32x32x96)
sloppy-precision: single
precision: single
GPUs GFLOPS sec
1 786.520000 4.569600
2 1522.410000 3.086040
4 2476.900000 2.447180
8 3426.020000 2.117580
16 5091.330000 1.895790
32 8234.310000 1.860760
64 8276.480000 1.869230
sloppy-precision: double
precision: double
GPUs GFLOPS sec
1 385.965000 6.126730
2 751.227000 3.846940
4 1431.570000 2.774470
8 1368.000000 2.367040
16 2304.900000 2.071160
32 4965.480000 2.095180
64 2308.850000 2.005110
Weak - Scaling:
local lattice size (48x48x48x24)
sloppy-precision: single
precision: single
GPUs GFLOPS sec
1 765.967000 3.940280
2 1472.980000 4.004630
4 2865.600000 4.044360
8 5421.270000 4.056410
16 9373.760000 7.396590
32 17995.100000 4.243390
64 27219.800000 4.535410
sloppy-precision: double
precision: double
GPUs GFLOPS sec
1 376.611000 5.108900
2 728.973000 5.190880
4 1453.500000 5.144160
8 2884.390000 5.207090
16 5004.520000 5.362020
32 8744.090000 5.623290
64 14053.00000 5.910520
---------------------
SurfSara - Kepler
---------------------
##
## 1 GPU per Node
##
Strong - Scaling:
global lattice size (32x32x32x96)
sloppy-precision: single
precision: single
GPUs GFLOPS sec
1 243.084000 4.030000
2 478.179000 2.630000
4 939.953000 2.250000
8 1798.240000 1.570000
16 3072.440000 1.730000
32 4365.320000 1.310000
sloppy-precision: double
precision: double
GPUs GFLOPS sec
1 119.786000 6.060000
2 234.179000 3.290000
4 463.594000 2.250000
8 898.090000 1.960000
16 1604.210000 1.480000
32 2420.130000 1.630000
##
## 2 GPU per Node
##
Strong - Scaling:
global lattice size (32x32x32x96)
sloppy-precision: single
precision: single
GPUs GFLOPS sec
2 463.041000 2.720000
4 896.707000 1.940000
8 1672.080000 1.680000
16 2518.240000 1.420000
32 3800.970000 1.460000
64 4505.440000 1.430000
sloppy-precision: double
precision: double
GPUs GFLOPS sec
2 229.579000 3.380000
4 450.425000 2.280000
8 863.117000 1.830000
16 1348.760000 1.510000
32 1842.560000 1.550000
64 2645.590000 1.480000
###
###
### XEONPHI - BENCHMARK SUITE
###
###
##
## 2. Compile and Run the XeonPhi-Benchmark Suite
##
Unpack the provided source tar-file located in "./QCD_Accelerator_Benchmarksuite_Part2/XeonPhi/src" or
clone the actual git-hub branches of the code
packages QMP:
"git clone https://github.com/usqcd-software/qmp"
and for QPhix
"git clone https://github.com/JeffersonLab/qphix"
Note that the AVX512 instructions, which are needed for an optimal run on
KNLs, are not yet part of the main branch. The AVX512 instructions are available
in the avx512-branch ("git checkout avx512). The provided
source file is using the avx512-branch (Status 01/2017).
##
## 2.1 Compile
##
The QPhix library is based on QMP communication functions.
For that QMP has to be setup first.
./configure --prefix=$QMP_INSTALL_DIR CC=mpiicc CFLAGS=" -mmic/-xAVX512 -std=c99" --with-qmp-comms-type=MPI --host=x86_64-linux-gnu --build=none-none-none
Create the Install folder and link with $QMP_INSTALL_DIR to it.
Use the compilerflag "-mmic" for the compilation for KNC's
while use "-xAVX512" for the compilation for KNL's.
Then use
"make"
and
"make install"
to compile and setup the necessary source files in $QMP_INSTALL_DIR.
The QPhix executable can be compiled by using:
for KNC's
./configure --enable-parallel-arch=parscalar --enable-proc=MIC --enable-soalen=8 --enable-clover --enable-openmp --enable-cean --enable-mm-malloc CXXFLAGS="-openmp -mmic -vec-report -restrict -mGLOB_default_function_attrs=\"use_gather_scatter_hint=off\" -g -O2 -finline-functions -fno-alias -std=c++0x" CFLAGS="-mmic -vec-report -restrict -mGLOB_default_function_attrs=\"use_gather_scatter_hint=off\" -openmp -g -O2 -fno-alias -std=c9l9" CXX=mpiicpc CC=mpiicc --host=x86_64-linux-gnu --build=none-none-none --with-qmp=$QMP_INSTALL_DIR
or for KNL's
./configure --enable-parallel-arch=parscalar --enable-proc=AVX512 --enable-soalen=8 --enable-clover --enable-openmp --enable-cean --enable-mm-malloc CXXFLAGS="-qopenmp -xMIC-AVX512 -g -O3 -std=c++14" CFLAGS="-xMIC-AVX512 -qopenmp -O3 -std=c99" CXX=mpiicpc CC=mpiicc --host=x86_64-linux-gnu --build=none-none-none --with-qmp=$QMP_INSTALL_DIR
by using the previous variable QMP_INSTALL_DIR which links to the install-folder
of QMP. The executable "time_clov_noqdp" can be found now in the subfolder "./qphix/test".
Note that the avx512-branch will compile additional executable which has dependencies
on the package QDP (which will generate an error at the end of the compilation process).
##
## 2.1.1 Example compilation on PRACE machines
##
In the subsection we provide some example compilation on PRACE machines
which where used to develop the QCD Benchmarksuite 2.
##
## 2.1.1.1 BSC - Marenostrum III Hybrid partitions
##
The Hybrid partition on Marenostrum are equiped with KNC's.
First following modules were loaded
module unload openmpi
module load impi
and the necessary links are set with
source /opt/intel/impi/4.1.1.036/bin64/mpivars.sh
source /opt/intel/2013.5.192/composer_xe_2013.5.192/bin/compilervars.sh intel64
export I_MPI_MIC=enable
export I_MPI_HYDRA_BOOTSTRAP=ssh
The QMP-library was configured and compiled with
./configure --prefix=$QMP_INSTALL_DIR CC=mpiicc CFLAGS="-mmic -std=c99" --with-qmp-comms-type=MPI --host=x86_64-linux-gnu --build=none-none-none
make
make install
Now the package QPhix is compilled with
./configure --enable-parallel-arch=parscalar --enable-proc=MIC --enable-soalen=8 --enable-clover --enable-openmp --enable-cean --enable-mm-malloc CXXFLAGS="-openmp -mmic -vec-report -restrict -mGLOB_default_function_attrs=\"use_gather_scatter_hint=off\" -g -O2 -finline-functions -fno-alias -std=c++0x" CFLAGS="-mmic -vec-report -restrict -mGLOB_default_function_attrs=\"use_gather_scatter_hint=off\" -openmp -g -O2 -fno-alias -std=c9l9" CXX=mpiicpc CC=mpiicc --host=x86_64-linux-gnu --build=none-none-none --with-qmp=$QMP_INSTALL_DIR
make
##
## 2.1.1.2 CINES - Frioul
##
On a test cluster at the CINES-side the Benchmarksuite was tested on KNL's.
The steps are similar to BSC. First the libraries paths are set with
source /opt/software/intel/composer_xe_2015/bin/compilervars.sh intel64
source /opt/software/intel/impi_5.0.3/bin64/mpivars.sh
The QMP was compiled by using:
./configure --prefix=$QMP_INSTALL_DIR CC=mpiicc CFLAGS="-xMIC-AVX512 -mGLOB_default_function_attrs="use_gather_scatter_hint=off" -openmp -g -O2 -fno-alias -std=c99" --with-qmp-comms-type=MPI --host=x86_64-linux-gnu --build=none-none-none
make
make install
The QPhix was configured and compiled by using
./configure --enable-parallel-arch=parscalar --enable-proc=AVX512 --enable-soalen=8 --enable-clover --enable-openmp --enable-cean --enable-mm-malloc CXXFLAGS="-qopenmp -xMIC-AVX512 -g -O3 -std=c++14" CFLAGS="-xMIC-AVX512 -qopenmp -O3 -std=c99" CXX=mpiicpc CC=mpiicc --host=x86_64-linux-gnu --build=none-none-none --with-qmp=/home/finkenrath/benchmark/qmp/install
and
make
##
## 2.2 Run
##
The Accelerator QCD-Benchmarksuite Part 2 provides bash-scripts to setup the benchmark runs
on the target machines. This bash-scripts are:
run_ana.sh : Main-script, set up the bechmark mode and submit the jobs (analyse the results)
prepare_submit_job.sh : Generate the job-scripts
submit_job.sh.template : Template for submit script
##
## 2.2.1 Main-script: "run_ana.sh"
##
The path to the executable has to be set by $PATH2EXE .
Different scaling modes can be choose from Strong-scaling to Weak scaling
by using the variables sca_mode (="Strong" or ="Weak").
The lattice sizes can be set by "gx" and "gt".
Choose mode="Run" for run mode while mode="Analysis" for extracting the GFLOPS.
Note that the submition is done by "sbatch" match this to the queing system on
your target machine.
##
## 2.2.2 Main-script: "prepare_submit_job.sh"
##
Add additional option if necessary.
##
## 2.2.3 Main-script: "submit_job.sh.template"
##
The submit-template will be edit by "prepare_submit_job.sh" to generate
the final submit-script. The header should be matched to the quening system
of the target machine.
##
## 2.3 Example Benchmark Results
##
The benchmark results for the XeonPhi benchmark suite are performed on
Frioul, a test cluster at CINES, and the hybrid partion on MareNostrum III at BSC.
Frioul has one KNL-card per node while the hybrid partion of MareNostrum III is
equiped with two KNCs per node. The data on Frioul are generated by using
the bash-scripts provided by the QCD-Accelerator Benchmarksute Part 2
and are done for the two test cases "Strong-Scaling" with a lattice size
of 32^3x96 and "Weak-scaling" with a local lattice size of 48^3x24 per
card. In case of the data generated at MareNostrum, data for the "Strong-Scaling"
mode on a 32^3x96 lattice are shown. The Benchmark is using a random gauge configuration and uses the
Conjugated Gradient solver to solve a linear equation involving the clover Wilson Dirac operator.
---------------------
Frioul - KNLs
---------------------
Strong - Scaling:
global lattice size (32x32x32x96)
precision: single
KNLs GFLOPS
1 340.75
2 627.612
4 1111.13
8 1779.34
16 2410.8
precision: double
KNLs GFLOPS
1 328.149
2 616.467
4 1047.79
8 1616.37
Weak - Scaling:
local lattice size (48x48x48x24)
precision: single
KNLs GFLOPS
1 348.304
2 616.697
4 1214.82
8 2425.45
16 4404.63
precision: double
KNLs GFLOPS
1 172.303
2 320.761
4 629.79
8 1228.77
16 2310.63
---------------------
MareNostrum III - KNC's
---------------------
Strong - Scaling:
global lattice size (32x32x32x96)
precision: single - 1 Cards per Node
KNCs GFLOPS
2 103.561
4 200.159
8 338.276
16 534.369
32 815.896
precision: single - 2 Cards per Node
KNCs GFLOPS
4 118.995
8 212.558
16 368.196
32 605.882
64 847.566