Timothy J Stavenger, E. Crane, Kevin C. Smith, Christopher Kang, S. Girvin, N. Wiebe
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引用次数: 6

摘要

混合量子信息处理硬件除了包含传统(离散变量)量子位元之外,还包含连续变量对象(玻色子模式,如机械或电磁振荡器),其实际好处最近已经通过玻色子编码的实验得到了证明,该实验达到了量子纠错的平衡点[1-5],并通过有效的高斯玻色子采样模拟三原子分子的Franck-Condon光谱[6],这远远超出了传统量子比特的范围当前仅量子位硬件的功能。这个量子优势协同设计中心(C2QA)项目的目标是为混合量子比特/玻色子模式系统开发一个指令集架构(ISA),该系统包含在这种硬件中可能实现的基本操作和测量的清单。相应的抽象机器模型(AMM)还将包含与硬件的门、测量和时间演化相关的适当误差模型的描述。此信息已作为Qiskit的扩展实现。Qiskit是一个开源软件开发工具包(SDK),用于在Python 3.7+系统上模拟量子电路的量子状态,并用于在IBM量子实验室的原型硬件上运行相同的电路。我们引入了玻色子Qiskit软件,使用现有的Qiskit软件开发工具包来模拟混合量子比特/玻色子系统[7]。此实现可用于模拟新的混合系统,验证所建议的物理系统,以及对比当前可以构建的更大的系统进行建模。我们还涵盖了教程和示例用例,包括在软件中研究詹尼斯-卡明斯模型,玻色子哈伯德模型,绘制维格纳函数和动画,并使用维格纳函数计算最大似然估计。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
C2QA - Bosonic Qiskit
The practical benefits of hybrid quantum information processing hardware that contains continuous-variable objects (bosonic modes such as mechanical or electromagnetic oscillators) in addition to traditional (discrete-variable) qubits have recently been demonstrated by experiments with bosonic codes that reach the break-even point for quantum error correction [1-5] and by efficient Gaussian boson sampling simulation of the Franck-Condon spectra of triatomic molecules [6] that is well beyond the capabilities of current qubit-only hardware. The goal of this Co-design Center for Quantum Advantage (C2QA) project is to develop an instruction set architecture (ISA) for hybrid qubit/bosonic mode systems that contains an inventory of the fundamental operations and measurements that are possible in such hardware. The corresponding abstract machine model (AMM) would also contain a description of the appropriate error models associated with the gates, measurements and time evolution of the hardware. This information has been implemented as an extension of Qiskit. Qiskit is an open-source software development toolkit (SDK) for simulating the quantum state of a quantum circuit on a system with Python 3.7+ and for running the same circuits on prototype hardware within the IBM Quantum Lab. We introduce the Bosonic Qiskit software to enable the simulation of hybrid qubit/bosonic systems using the existing Qiskit software development kit [7]. This implementation can be used for simulating new hybrid systems, verifying proposed physical systems, and modeling systems larger than can currently be constructed. We also cover tutorials and example use cases included within the software to study Jaynes-Cummings models, bosonic Hubbard models, plotting Wigner functions and animations, and calculating maximum likelihood estimations using Wigner functions.
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