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Quafu-Qcover: Explore combinatorial optimization problems on cloud-based quantum computers

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【作者】 许宏泽庄伟峰王正安黄凯旋时运豪马卫国李天铭陈驰通许凯冯玉龙刘培陈墨李尚书杨智鹏钱辰靳羽欣马运恒肖骁钱鹏顾炎武柴绪丹普亚南张翼鹏魏世杰增进峰李行龙桂鲁金贻荣于海峰范桁刘东胡孟军

【Author】 Hong-Ze Xu;Wei-Feng Zhuang;Zheng-An Wang;Kai-Xuan Huang;Yun-Hao Shi;Wei-Guo Ma;Tian-Ming Li;Chi-Tong Chen;Kai Xu;Yu-Long Feng;Pei Liu;Mo Chen;Shang-Shu Li;Zhi-Peng Yang;Chen Qian;Yu-Xin Jin;Yun-Heng Ma;Xiao Xiao;Peng Qian;Yanwu Gu;Xu-Dan Chai;Ya-Nan Pu;Yi-Peng Zhang;Shi-Jie Wei;Jin-Feng Zeng;Hang Li;Gui-Lu Long;Yirong Jin;Haifeng Yu;Heng Fan;Dong E.Liu;Meng-Jun Hu;Beijing Academy of Quantum Information Sciences;Institute of Physics, Chinese Academy of Sciences;School of Physical Sciences, University of Chinese Academy of Sciences;CAS Center for Excellence in Topological Quantum Computation, UCAS;State Key Laboratory of Low Dimensional Quantum Physics, Department of Physics, Tsinghua University;Frontier Science Center for Quantum Information;

【通讯作者】 胡孟军;

【机构】 Beijing Academy of Quantum Information SciencesInstitute of Physics, Chinese Academy of SciencesSchool of Physical Sciences, University of Chinese Academy of SciencesCAS Center for Excellence in Topological Quantum Computation, UCASState Key Laboratory of Low Dimensional Quantum Physics, Department of Physics, Tsinghua UniversityFrontier Science Center for Quantum Information

【摘要】 We introduce Quafu-Qcover, an open-source cloud-based software package developed for solving combinatorial optimization problems using quantum simulators and hardware backends. Quafu-Qcover provides a standardized and comprehensive workflow that utilizes the quantum approximate optimization algorithm(QAOA). It facilitates the automatic conversion of the original problem into a quadratic unconstrained binary optimization(QUBO) model and its corresponding Ising model, which can be subsequently transformed into a weight graph. The core of Qcover relies on a graph decomposition-based classical algorithm, which efficiently derives the optimal parameters for the shallow QAOA circuit.Quafu-Qcover incorporates a dedicated compiler capable of translating QAOA circuits into physical quantum circuits that can be executed on Quafu cloud quantum computers. Compared to a general-purpose compiler, our compiler demonstrates the ability to generate shorter circuit depths, while also exhibiting superior speed performance. Additionally, the Qcover compiler has the capability to dynamically create a library of qubits coupling substructures in real-time, utilizing the most recent calibration data from the superconducting quantum devices. This ensures that computational tasks can be assigned to connected physical qubits with the highest fidelity. The Quafu-Qcover allows us to retrieve quantum computing sampling results using a task ID at any time, enabling asynchronous processing. Moreover, it incorporates modules for results preprocessing and visualization, facilitating an intuitive display of solutions for combinatorial optimization problems. We hope that Quafu-Qcover can serve as an instructive illustration for how to explore application problems on the Quafu cloud quantum computers.

【Abstract】 We introduce Quafu-Qcover, an open-source cloud-based software package developed for solving combinatorial optimization problems using quantum simulators and hardware backends. Quafu-Qcover provides a standardized and comprehensive workflow that utilizes the quantum approximate optimization algorithm(QAOA). It facilitates the automatic conversion of the original problem into a quadratic unconstrained binary optimization(QUBO) model and its corresponding Ising model, which can be subsequently transformed into a weight graph. The core of Qcover relies on a graph decomposition-based classical algorithm, which efficiently derives the optimal parameters for the shallow QAOA circuit.Quafu-Qcover incorporates a dedicated compiler capable of translating QAOA circuits into physical quantum circuits that can be executed on Quafu cloud quantum computers. Compared to a general-purpose compiler, our compiler demonstrates the ability to generate shorter circuit depths, while also exhibiting superior speed performance. Additionally, the Qcover compiler has the capability to dynamically create a library of qubits coupling substructures in real-time, utilizing the most recent calibration data from the superconducting quantum devices. This ensures that computational tasks can be assigned to connected physical qubits with the highest fidelity. The Quafu-Qcover allows us to retrieve quantum computing sampling results using a task ID at any time, enabling asynchronous processing. Moreover, it incorporates modules for results preprocessing and visualization, facilitating an intuitive display of solutions for combinatorial optimization problems. We hope that Quafu-Qcover can serve as an instructive illustration for how to explore application problems on the Quafu cloud quantum computers.

【基金】 supported by the National Natural Science Foundation of China (Grant No. 92365206);the support of the China Postdoctoral Science Foundation (Certificate Number: 2023M740272);supported by the National Natural Science Foundation of China (Grant No. 12247168);China Postdoctoral Science Foundation(Certificate Number: 2022TQ0036)
  • 【文献出处】 Chinese Physics B ,中国物理B , 编辑部邮箱 ,2024年05期
  • 【分类号】O413;TP38
  • 【下载频次】2
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