POPL 2020 (series) / PLanQC 2020 (series) / Programming Languages for Quantum Computing /
Formalization of a Programming Language for Quantum Circuits with Measurement and Classical Control
In the QRAM model, quantum computation is performed under the control of a classical host. An interesting implication of this model is that the quantum circuit construction in the classical host can be dependent on the result of a measurement: there is a transfer of information from the quantum co-processor to the classical host. We call this transfer dynamic lifting. The goal of this paper is to find a model and formalize a semantics for interleaved quantum circuits and dynamic lifting.
(PLanQC2020 Abstract.pdf) | 228KiB |
PLanQC2020 slides (Programming_languages_for_Quantum_Channels_PlanQC2020-2.pdf) | 156KiB |
Sun 19 JanDisplayed time zone: Saskatchewan, Central America change
Sun 19 Jan
Displayed time zone: Saskatchewan, Central America change
16:50 - 17:50 | |||
16:50 20mTalk | Extending Modern C++ for Heterogeneous Quantum-Classical Computing PLanQC Alexander McCaskey Oak Ridge National Laboratory, Tiffany Mintz Oak Ridge National Laboratory, Eugene Dumitrescu Oak Ridge National Laboratory, Sarah Powers Oak Ridge National Laboratory, Shirley Moore Oak Ridge National Laboratory, Pavel Lougovski Oak Ridge National Laboratory | ||
17:10 20mTalk | Formalization of a Programming Language for Quantum Circuits with Measurement and Classical Control PLanQC Dongho LEE LRI / CEA LIST, Univ Paris Saclay, Sébastien Bardin CEA LIST, Valentin Perrelle CEA, LIST, France, Benoit Valiron LRI, CentraleSupelec, Univ. Paris Saclay File Attached | ||
17:30 20mTalk | Automated distribution of quantum circuits via hypergraph partitioning PLanQC Link to publication DOI Pre-print Media Attached File Attached |