Report Open Access
< QC | HPC >: Quantum for HPC
Bartsch, Valeria;
Colin de Verdière, Guillaume;
Nominé, Jean-Philippe;
Ottaviani, Daniele;
Dragoni, Daniele;
Bouazza, Chayma;
Magugliani, Fabrizio;
Bowden, David;
Allouche, Cyril;
Johansson, Mikael;
Terzo, Olivier;
Scarabosio, Andrea;
Vitali, Giacomo;
Shagieva, Farida;
Michielsen, Kristel
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<subfield code="a"><p>Quantum Computing (QC) describes a new way of computing based on the principles of quantum mechanics. From a High Performance Computing (HPC) perspective, QC needs to be integrated:</p>
<ul>
<li>at a system level, where quantum computer technologies need to be integrated in HPC clusters;</li>
<li>at a programming level, where the new disruptive ways of programming devices call for a full hardware-software stack to be built;</li>
<li>at an application level, where QC is bound to lead to disruptive changes in the complexity of some applications so that compute-intensive or intractable problems in the HPC domain might become tractable in the future.</li>
</ul>
<p>The White Paper QC for HPC focuses on the technology integration of QC in HPC clusters, gives an overview of the full hardware-software stack and QC emulators, and highlights promising customised QC algorithms for near-term quantum computers and its impact on HPC applications. In addition to universal quantum computers, we will describe non-universal QC where appropriate. Recent research references will be used to cover the basic concepts. Thetarget audience of this paper is the European HPC community: members of HPC centres, HPC algorithm developers, scientists interested in the co-design for quantum hardware, benchmarking, etc.</p></subfield>
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- Publication date:
- October 8, 2021
- DOI:
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- Communities:
- License (for files):
- Creative Commons Attribution 4.0 International