Property Testing for Quantum Engineering

量子工程的性能测试

• 批准号: 2879732
• 金额: --
• 依托单位: University of Warwick
• 依托单位国家: 英国
• 项目类别: Studentship
• 财政年份: 2023
• 资助国家: 英国
• 起止时间: 2023 至 无数据
• 项目状态: 未结题
• 来源: https://gtr.ukri.org/projects?ref=studentship-2879732
• 关键词: Property; Testing; Quantum; Engineering

The theoretical PhD project will develop algorithms that answer the question: "Given an engineered quantum system, does it have the properties necessary to perform fault-tolerant quantum computation (FTQC)? Or is it far from having those properties?" Methods of theoretical computer science will be used. Emphasis will be placed on minimising the space and time complexity of these algorithms.This project will develop ultra-fast property testing algorithms to answer this question. It will thus remove a severe bottleneck in the development of FTQC by avoiding the present prohibitively expensive, time-consuming, and itself error prone testing regimen of measuring and processing exponentially many numbers to make a decision. This should accelerate the development of FTQCs and facilitate greater advances in quantum engineering and technologies more generally. Another aim of this project is to advance recent results from Warwick on quantum accreditation. Quantum accreditation is a practical and scalable method of ascertaining the correctness of the outputs of arbitrary-sized noisy quantum computers the ultimate arbiter of the utility of the computer itself. Like FTQC, quantum accreditation relies on mathematical assumptions on the nature of the noise in the quantum computer and must be validated in real-world systems. A close interaction between physics and theoretical computer science will place the student in a uniquely beneficial position for a future in physics, computer science, and the quantum technologies market.

理论博士项目将开发回答以下问题的算法：“给定一个工程量子系统，它是否具有执行容错量子计算（FTQC）所需的属性？还是说，它离这些属性还很远？“将使用理论计算机科学的方法。重点将放在最小化这些算法的空间和时间复杂性。这个项目将开发超快速的性能测试算法来回答这个问题。因此，它将消除一个严重的瓶颈，在FTQC的发展，避免目前过于昂贵，耗时，本身容易出错的测试方案的测量和处理指数许多数字作出决定。这将加速FTQC的发展，并促进量子工程和技术的更大进步。该项目的另一个目的是推进沃里克关于量子认证的最新成果。量子认证是一种实用且可扩展的方法，用于确定任意大小的噪声量子计算机输出的正确性，计算机本身效用的最终仲裁者。与FTQC一样，量子认证依赖于对量子计算机中噪声性质的数学假设，必须在现实世界的系统中进行验证。物理学和理论计算机科学之间的密切互动将使学生在物理学，计算机科学和量子技术市场的未来处于独特的有利地位。