论文标题
基于玻色子采样的无偏量子随机数发生器
An Unbiased Quantum Random Number Generator Based on Boson Sampling
论文作者
论文摘要
已经证明,玻色子采样是光学量子计算的一种有希望的模型,它已应用于成功设计量子计算机,例如“ Jiuzhang”。但是,尚未利用或利用玻色子采样结果的有意义的随机性,其正确性和意义是从特定的量子机械分布中证明的。在这项研究中,通过充分利用玻色子采样结果的随机性来应用玻色子抽样来设计新型的量子随机数发生器(QRNG),其原型系统是用可构造的硅光子处理器来构建的,该系统可以产生均匀的均匀序列,并克服QRNG的不足之所以固定,例如QRNG的不足,例如,QRNG的不足之所检测器和缓慢的自发现发电机速度。玻色子采样是作为随机熵源实现的,并且在处理后处理结果后,可以获得具有令人满意的随机性和均匀性的随机位字符串。这是应用玻色子抽样结果随机性的第一种方法来开发用于实际任务的实用原型系统,并且实验结果证明了设计的基于玻色子采样的QRNG原型系统通过15个NIST SP 800-22统计统计测试的测试,这证明Boson Sampling具有与DESIRMIR的实用性相比,这表明具有很大的潜力。
It has been proven that Boson sampling is a much promising model of optical quantum computation, which has been applied to designing quantum computer successfully, such as "Jiuzhang". However, the meaningful randomness of Boson sampling results, whose correctness and significance were proved from a specific quantum mechanical distribution, has not been utilized or exploited. In this research, Boson sampling is applied to design a novel Quantum Random Number Generator (QRNG) by fully exploiting the randomness of Boson sampling results, and its prototype system is constructed with the programmable silicon photonic processor, which can generate uniform and unbiased random sequences and overcome the shortcomings of the existing discrete QRNGs such as source-related, high demand for the photon number resolution capability of the detector and slow self-detection generator speed. Boson sampling is implemented as a random entropy source, and random bit strings with satisfactory randomness and uniformity can be obtained after post-processing the sampling results. It is the first approach for applying the randomness of Boson sampling results to develop a practical prototype system for actual tasks, and the experiment results demonstrate the designed Boson sampling-based QRNG prototype system pass 15 tests of the NIST SP 800-22 statistical test component, which prove that Boson sampling has great potential for practical applications with desirable performance besides quantum advantage.