A Uniform Quantum Computing Model based on Virtual Quantum Processors

Georg Gesek
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Abstract

What else than Hybrid Quantum Computing will dominate data centers, just within a decade? But until now, it is unclear how precisely such high-performance computers will be constructed, even the fundamental functionality is in question. Thus, it is very hard to prepare today, from a programmer perspective, in-depth for the anticipated near-term programming paradigm shift due to quantum computers. Furthermore, the industry is reluctant to invest heavily into quantum software development right now, since under this uncertainty regarding the future development of hardware and Cloud services, no one would like to see all these efforts to be ruined by a novel technology, an unforeseen new machine, which would eradicate the software in place, which the industry had developed so costly. This calls for a more generic view on Hybrid Quantum Computing, on one hand hardware agnostic, but still anticipating the fundamental laws of nature which rule any future quantum computing system, regardless of its engineered excellence. This generalization can be done with the introduction of a Virtual Quantum Processor, a piece of imaginary hardware, which is described detailed enough, to emulate a generic hybrid quantum machine based on a set of instructions within a Turing machine. If this could be accomplished, we would retrieve a Uniform Computing Model for Hybrid Quantum Software, which can be applied later to any physical representation of quantum computing hardware, but would run already today on our current machines.
基于虚拟量子处理器的统一量子计算模型
除了混合量子计算,还有什么能在十年内主导数据中心?但到目前为止,人们还不清楚这种高性能计算机将如何精确地构建,甚至连基本功能都是一个问题。因此,从程序员的角度来看,今天很难为量子计算机带来的预期的近期编程范式转变做好准备。此外,该行业目前不愿在量子软件开发上投入大量资金,因为在硬件和云服务未来发展的不确定性下,没有人愿意看到所有这些努力都被一项新技术、一种不可预见的新机器所破坏,这种新机器会消灭现有的软件,而该行业已经开发了如此昂贵的软件。这需要对混合量子计算有一个更通用的看法,一方面是硬件不可知论,但仍然预测自然的基本规律,这些规律支配着任何未来的量子计算系统,而不管它的设计是否卓越。这种概括可以通过引入虚拟量子处理器来完成,虚拟量子处理器是一种假想的硬件,它被描述得足够详细,以模拟基于图灵机内一组指令的通用混合量子机。如果这可以完成,我们将检索混合量子软件的统一计算模型,它可以应用于量子计算硬件的任何物理表示,但今天已经在我们现有的机器上运行。
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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