Representation of Quantum Signal Simulating

B. Yavorskyy
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引用次数: 1

Abstract

The Newton’s laws had been developed on basis experiments with nature signals, and by hand computation for processing of these signals. The signal carries the code of data. The carrier is a wave - the process of transfer in space and time (physical space) of the code. Then the parameters of this transfer determines the state of the signals in time and space. The design of quantum communication systems, information technology, etc. modeling of quantum signals is a complex problem of representation of the carrier, the signal code, and their quantum states. Quantum computing, and explaining on resolving of application tasks (RSA, FFT algorithm, quantum circuits, etc.) in physical the scales theories and practices (in mechanics and quantum mechanics) are different in technics, algorithmic, and the simulation. All of these significantly does complexity of the design of quantum communication systems. This paper discusses the representation of a quantum signal as its general relationship with the difference of digitized sinusoidal functions with different digitization parameters obtained by a classical computer. This difference is considered similar to squeezed states with different sets of digitization parameters. The peculiarities of the obtained difference signatures with respect to similar quantum phenomena are classified. The representation of modeling of a quantum signal by possibilities of the classical computer as it was developed for quantum states, schemes, protocols is offered.
量子信号模拟的表征
牛顿定律是在对自然信号进行实验的基础上,通过手工计算处理这些信号而发展起来的。信号携带数据的代码。载体是一种波——在空间和时间(物理空间)上传递代码的过程。然后,这种传输的参数决定了信号在时间和空间上的状态。在量子通信系统的设计、信息技术等方面,量子信号的建模是一个复杂的问题,涉及到载体、信号编码及其量子态的表示。量子计算,以及物理中应用任务(RSA, FFT算法,量子电路等)的解析解释,尺度理论和实践(力学和量子力学)在技术,算法和模拟上都是不同的。这些都大大增加了量子通信系统设计的复杂性。本文讨论了量子信号的表示与经典计算机得到的不同数字化参数下的数字化正弦函数之差的一般关系。这种差异被认为类似于具有不同数字化参数集的压缩状态。对得到的差分特征在相似量子现象下的特殊性进行了分类。通过经典计算机的可能性来表示量子信号的建模,因为它是为量子态、方案、协议而开发的。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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