Due to the limited availability of quantum computing power in the near future, cryptographic security techniques must be developed for secure remote use of current and future quantum computing hardware. Prominent among these is Universal Blind Quantum Computation (UBQC) and its variations such as Quantum Fully Homomorphic Encryption (QFHE), which herald interactive and remote secure quantum computing power becoming available to parties that require little more than the ability to prepare and measure single qubits. Here I present a simulation of such a protocol, tested classically on the simulation platform LIQ$Ui|\rangle$ and then later adapted to and run on the recently released IBM 16-qubit quantum chip using their beta cloud service. It demonstrates the functionality of the protocol and explores the effects of noise on potential physical systems that would be used to implement it. BSc Thesis from the University of Edinburgh, December 2017
翻译:由于近期内量子计算功率有限,必须开发加密安全技术,以便安全地远程使用当前和未来量子计算硬件,其中突出的是通用盲人量子计算(UBQC)及其变异,如Qantum 完全单态加密(QFHE),它预示着,需要仅能准备和测量单子方位的各方可以获得互动和远程安全量子计算功率,在此,我展示了这样一个协议的模拟,在模拟平台上典型地测试了LIQ$U ⁇ rangle$,后来又利用最近发行的IBM 16-QQQQQQQ 芯片,并使用其乙型云服务加以调整和运行。它展示了协议的功能,并探讨了噪音对可能用于实施该协议的物理系统的影响。来自爱丁堡大学的BSc论文,2017年12月。