_version_ 1866908144153657344
author Herten, Andreas
Achilles, Sebastian
Alvarez, Damian
Badwaik, Jayesh
Behle, Eric
Bode, Mathis
Breuer, Thomas
Caviedes-Voullième, Daniel
Cherti, Mehdi
Dabah, Adel
Sayed, Salem El
Frings, Wolfgang
Gonzalez-Nicolas, Ana
Gregory, Eric B.
Mood, Kaveh Haghighi
Hater, Thorsten
Jitsev, Jenia
John, Chelsea Maria
Meinke, Jan H.
Meyer, Catrin I.
Mezentsev, Pavel
Mirus, Jan-Oliver
Nassyr, Stepan
Penke, Carolin
Römmer, Manoel
Sinha, Ujjwal
Vieth, Benedikt von St.
Stein, Olaf
Suarez, Estela
Willsch, Dennis
Zhukov, Ilya
author_facet Herten, Andreas
Achilles, Sebastian
Alvarez, Damian
Badwaik, Jayesh
Behle, Eric
Bode, Mathis
Breuer, Thomas
Caviedes-Voullième, Daniel
Cherti, Mehdi
Dabah, Adel
Sayed, Salem El
Frings, Wolfgang
Gonzalez-Nicolas, Ana
Gregory, Eric B.
Mood, Kaveh Haghighi
Hater, Thorsten
Jitsev, Jenia
John, Chelsea Maria
Meinke, Jan H.
Meyer, Catrin I.
Mezentsev, Pavel
Mirus, Jan-Oliver
Nassyr, Stepan
Penke, Carolin
Römmer, Manoel
Sinha, Ujjwal
Vieth, Benedikt von St.
Stein, Olaf
Suarez, Estela
Willsch, Dennis
Zhukov, Ilya
contents Benchmarks are essential in the design of modern HPC installations, as they define key aspects of system components. Beyond synthetic workloads, it is crucial to include real applications that represent user requirements into benchmark suites, to guarantee high usability and widespread adoption of a new system. Given the significant investments in leadership-class supercomputers of the exascale era, this is even more important and necessitates alignment with a vision of Open Science and reproducibility. In this work, we present the JUPITER Benchmark Suite, which incorporates 16 applications from various domains. It was designed for and used in the procurement of JUPITER, the first European exascale supercomputer. We identify requirements and challenges and outline the project and software infrastructure setup. We provide descriptions and scalability studies of selected applications and a set of key takeaways. The JUPITER Benchmark Suite is released as open source software with this work at https://github.com/FZJ-JSC/jubench.
format Preprint
id arxiv_https___arxiv_org_abs_2408_17211
institution arXiv
publishDate 2024
record_format arxiv
spellingShingle Application-Driven Exascale: The JUPITER Benchmark Suite
Herten, Andreas
Achilles, Sebastian
Alvarez, Damian
Badwaik, Jayesh
Behle, Eric
Bode, Mathis
Breuer, Thomas
Caviedes-Voullième, Daniel
Cherti, Mehdi
Dabah, Adel
Sayed, Salem El
Frings, Wolfgang
Gonzalez-Nicolas, Ana
Gregory, Eric B.
Mood, Kaveh Haghighi
Hater, Thorsten
Jitsev, Jenia
John, Chelsea Maria
Meinke, Jan H.
Meyer, Catrin I.
Mezentsev, Pavel
Mirus, Jan-Oliver
Nassyr, Stepan
Penke, Carolin
Römmer, Manoel
Sinha, Ujjwal
Vieth, Benedikt von St.
Stein, Olaf
Suarez, Estela
Willsch, Dennis
Zhukov, Ilya
Distributed, Parallel, and Cluster Computing
Hardware Architecture
Performance
B.8.2; C.0; C.5.1; D.1.0; C.4
Benchmarks are essential in the design of modern HPC installations, as they define key aspects of system components. Beyond synthetic workloads, it is crucial to include real applications that represent user requirements into benchmark suites, to guarantee high usability and widespread adoption of a new system. Given the significant investments in leadership-class supercomputers of the exascale era, this is even more important and necessitates alignment with a vision of Open Science and reproducibility. In this work, we present the JUPITER Benchmark Suite, which incorporates 16 applications from various domains. It was designed for and used in the procurement of JUPITER, the first European exascale supercomputer. We identify requirements and challenges and outline the project and software infrastructure setup. We provide descriptions and scalability studies of selected applications and a set of key takeaways. The JUPITER Benchmark Suite is released as open source software with this work at https://github.com/FZJ-JSC/jubench.
title Application-Driven Exascale: The JUPITER Benchmark Suite
topic Distributed, Parallel, and Cluster Computing
Hardware Architecture
Performance
B.8.2; C.0; C.5.1; D.1.0; C.4
url https://arxiv.org/abs/2408.17211