量子计算中反向符号传播的实际解释

Mirzanur Hidayat, Muhammad Faruq Nuruddinsyah
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引用次数: 0

摘要

在本文中,我们对量子计算中的反向符号传播进行了实际的解释。在我们的工作中,在CNOT门上应用了一个2量子比特的量子态。第一个量子比特作为目标量子比特,第二个量子比特作为控制量子比特。在这个2量子位系统中,目标量子位上会出现相位误差。我们的工作是以数学计算的形式进行的,即计算量子系统的状态、密度算子、迹线和布洛赫向量。我们还设计了它的量子电路。电路在IBM Qiskit和IBM Q Experience上执行。结果表明,在控制量子比特的任何状态下,目标量子比特的哈达玛基状态下,反向符号传播发生在可分离的纯量子态。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Practical Explanation of Backward Sign Propagation in Quantum Computing
In this paper, we perform a practical explanation of backward sign propagation in quantum computing. In our work, a 2-qubit quantum state is applied on the CNOT gate. The first qubit acts as a target qubit and the second qubit behaves as a control qubit. In this 2-qubit system, a phase error occurs on the target qubit. Our work is in the form of mathematical calculations, i.e. the calculation of the state, the density operator, the trace, and the Bloch vector of our quantum system. We also design its quantum circuit. The circuit is executed on IBM Qiskit and IBM Q Experience. As a result, we show the backward sign propagation occurs in separable and pure quantum state with the Hadamard basis state of the target qubit for any state of the control qubit.
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