Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Log inSign up
Challenges
Datasets
Workspaces
Papers
Discussions
Leaderboard
Blog
Job Board
Q3AS

© 2026 Aqora Quantum S.A.S.

TermsPrivacyLegal Notice

Elsevier eBooks

Quantum Process Algebra

Published Jan 1, 2025• 0 citations
Publisher
DOI
10.1016/c2024-0-02024-3

Related papers

Quantum Process Algebra with Priorities

Xingtian Ren, Yong Wang, Guiping Dai

International Journal of Theoretical Physics•May 17, 2017•0 citations

Entanglement in Quantum Process Algebra

Yong Wang

International Journal of Theoretical Physics•Aug 13, 2019•8 citations

Reversible Quantum Process Algebra with Guards

Yong Wang

Truly concurrent process algebras are generalizations to the traditional process algebras for true concurrency, CTC to CCS, APTC to ACP, $π_{tc}$ to $π$ calculus, APPTC to probabilistic process algebra. And we also did some work on reversible process algebra and probabilistic truly concurrent process algebra. In this book, we utilize reversible truly concurrent process algebras APRTC and probabilistic process algebra APPTC to model quantum computing and unify quantum and classical computing.

arXiv:1507.03344•Jul 13, 2015•0 citations

Reversible Quantum Process Algebra

Yong Wang

Truly concurrent process algebras are generalizations to the traditional process algebras for true concurrency, CTC to CCS, APTC to ACP, $π_{tc}$ to $π$ calculus , APPTC to probabilistic process algebra. And we also did some work on reversible process algebra and probabilistic truly concurrent process algebra. In this book, we utilize reversible truly concurrent process algebras APRTC and APPTC to model quantum computing and unify quantum and classical computing.

arXiv:1501.05260•Jan 17, 2015•1 citation

Quantum Processes

Henry Pierce Stapp

Process Studies•Jan 1, 2005•0 citations

Verification of Distributed Quantum Protocols

Yong Wang

Truly concurrent process algebras are generalizations to the traditional process algebras for true concurrency, CTC to CCS, APTC to ACP, $π_{tc}$ to $π$ calculus, APPTC to probabilistic process algebra, APTC with localities to process algebra with localities. In quantum process algebras, there are several well-known work, and we ever did some work to unify quantum and classical computing under the framework of ACP \cite{ACP} and probabilistic process algebra. Now, it is the time to utilize truly concurrent process algebras with localities to model quantum computing and unify quantum and classical computing in this book. Since this work is with localities, it is suitable to verify the distribution of quantum communication protocols.

arXiv:2110.11416•Oct 4, 2021•1 citation
Truly concurrent process algebras are generalizations to the traditional process algebras for true concurrency, CTC to CCS, APTC to ACP, πtcπ_{tc}πtc​ to πππ calculus, APPTC to probabilistic process algebra. And we also did some work on reversible process algebra and probabilistic truly concurrent process algebra. In this book, we utilize reversible truly concurrent process algebras APRTC and probabilistic process algebra APPTC to model quantum computing and unify quantum and classical computing.
Truly concurrent process algebras are generalizations to the traditional process algebras for true concurrency, CTC to CCS, APTC to ACP, πtcπ_{tc}πtc​ to πππ calculus , APPTC to probabilistic process algebra. And we also did some work on reversible process algebra and probabilistic truly concurrent process algebra. In this book, we utilize reversible truly concurrent process algebras APRTC and APPTC to model quantum computing and unify quantum and classical computing.
Truly concurrent process algebras are generalizations to the traditional process algebras for true concurrency, CTC to CCS, APTC to ACP, πtcπ_{tc}πtc​ to πππ calculus, APPTC to probabilistic process algebra, APTC with localities to process algebra with localities. In quantum process algebras, there are several well-known work, and we ever did some work to unify quantum and classical computing under the framework of ACP \cite{ACP} and probabilistic process algebra. Now, it is the time to utilize truly concurrent process algebras with localities to model quantum computing and unify quantum and classical computing in this book. Since this work is with localities, it is suitable to verify the distribution of quantum communication protocols.