Kazanskiy Nikolay L, Butt Muhammad A, Khonina Svetlana N
IPSI RAS-Branch of the FSRC "Crystallography and Photonics" RAS, 443001 Samara, Russia.
Samara National Research University, 443086 Samara, Russia.
Nanomaterials (Basel). 2022 Jun 24;12(13):2171. doi: 10.3390/nano12132171.
For many years, optics has been employed in computing, although the major focus has been and remains to be on connecting parts of computers, for communications, or more fundamentally in systems that have some optical function or element (optical pattern recognition, etc.). Optical digital computers are still evolving; however, a variety of components that can eventually lead to true optical computers, such as optical logic gates, optical switches, neural networks, and spatial light modulators have previously been developed and are discussed in this paper. High-performance off-the-shelf computers can accurately simulate and construct more complicated photonic devices and systems. These advancements have developed under unusual circumstances: photonics is an emerging tool for the next generation of computing hardware, while recent advances in digital computers have empowered the design, modeling, and creation of a new class of photonic devices and systems with unparalleled challenges. Thus, the review of the status and perspectives shows that optical technology offers incredible developments in computational efficiency; however, only separately implemented optical operations are known so far, and the launch of the world's first commercial optical processing system was only recently announced. Most likely, the optical computer has not been put into mass production because there are still no good solutions for optical transistors, optical memory, and much more that acceptance to break the huge inertia of many proven technologies in electronics.
多年来,光学技术一直应用于计算领域,尽管主要重点一直且仍然是连接计算机部件以用于通信,或者更根本地用于具有某些光学功能或元件的系统(光学模式识别等)。光学数字计算机仍在不断发展;然而,本文此前已对一些最终可能促成真正光学计算机的组件进行了开发和讨论,例如光学逻辑门、光学开关、神经网络和空间光调制器。高性能的现成计算机能够精确模拟和构建更为复杂的光子器件及系统。这些进展是在不同寻常的情况下取得的:光子学是下一代计算硬件的新兴工具,而数字计算机的最新进展使得能够设计、建模并创建一类新的光子器件及系统,但也带来了前所未有的挑战。因此,对现状和前景的审视表明,光学技术在计算效率方面有着令人难以置信的发展;然而,迄今为止所知的仅是单独实施的光学运算,并且世界上首个商业光学处理系统也只是最近才宣布推出。光学计算机很可能尚未投入大规模生产,因为对于光学晶体管、光学存储器以及更多方面,仍然没有好的解决方案,这些难题足以打破电子学中许多成熟技术所具有的巨大惯性。