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The categorical quantum model is based on category theory and one of its main applications is the study and verification of network and cryptographic protocols. Quantum communication started with defining the basic unit of information, the qubit. Then the quantum compression theorem was proved. The quantum channel capacity problem was divided into two problems: transmitting classical information over a quantum channel, and transmitting quantum information over a quantum channel. The first problem was partially resolved. However, the second problem is being researched upon. Two applications will be briefly presented: quantum teleportation and superdense coding. Both of them employs quantum entanglement. Quantum Key Distribution (QKD) using cryptographic protocols has received much attention due its importance in network security. A number of protocols have been proposed and some of them have been implemented, and now a number of commercial products have been announced. 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引用次数: 6

摘要

本文对量子信息系统进行了概述。因此,量子力学的公设是基于一种被称为哥本哈根解释的解释给出的。量子力学的主要支柱是:叠加、干涉和纠缠。量子信息系统包括三个学科:量子计算、量子通信和量子控制。它们中的每一个都有许多主题,其中一些实现已经达到了商业级别。量子计算有三种模型:电路模型使用不同的技术,如超导元件和特殊的硅基元件。绝热量子模型已经通过一家使用超导芯片的初创公司进入商业阶段。范畴量子模型基于范畴理论,其主要应用之一是网络和密码协议的研究和验证。量子通信始于定义信息的基本单位——量子比特。然后证明了量子压缩定理。将量子信道容量问题分为两个问题:在量子信道上传输经典信息和在量子信道上传输量子信息。第一个问题得到了部分解决。然而,第二个问题正在研究中。本文将简要介绍两种应用:量子隐形传态和超密编码。它们都使用了量子纠缠。基于加密协议的量子密钥分发(QKD)由于其对网络安全的重要性而受到广泛关注。已经提出了许多协议,其中一些已经实现,现在已经宣布了许多商业产品。此外,还实现了一些实验网络。使用空间链接的QKD已经被提出并进行了实验。几年后将发射量子卫星。量子密码协议被提议用来保护像电网这样的基础设施网络。此外,它还被用来对付像ECHELON这样对国家经济有害的全球间谍网络。量子互联网也正在考虑将量子隐形传态与空腔量子电动力学结合起来,并进行一些实验工作。量子控制对于量子计算和量子通信都是必不可少的。深入的研究正在进行:状态估计(称为量子态断层扫描),系统识别(称为量子过程断层扫描)和量子反馈控制。本报告将简要介绍基本概念。为支持上述发展,大学教育发生了重大变化。在研究生阶段,许多大学提供与上述学科相关的许多课程。最近,一些机构开始开设本科课程,其中一些甚至开始引入量子工程4年制本科课程。将对这些发展作一个简短的叙述。
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An overview of Quantum Information Systems
In this presentation, an overview of Quantum Information Systems is given. Therefore, the postulates of quantum mechanics are given based on one interpretation that is called the Copenhagen interpretation. The main pillars of quantum mechanics are: Superposition, Interference, and Entanglement. Quantum Information Systems comprise three disciplines: Quantum Computation, Quantum Communication, and Quantum Control. Each one of them has a number of topics with some implementations that have reached the commercial level. Quantum Computation has three models: the circuit model that is using different techniques like superconducting elements and special Silicon-based elements. The Adiabatic quantum model has reached the commercial stage through a start-up company using superconducting chips. The categorical quantum model is based on category theory and one of its main applications is the study and verification of network and cryptographic protocols. Quantum communication started with defining the basic unit of information, the qubit. Then the quantum compression theorem was proved. The quantum channel capacity problem was divided into two problems: transmitting classical information over a quantum channel, and transmitting quantum information over a quantum channel. The first problem was partially resolved. However, the second problem is being researched upon. Two applications will be briefly presented: quantum teleportation and superdense coding. Both of them employs quantum entanglement. Quantum Key Distribution (QKD) using cryptographic protocols has received much attention due its importance in network security. A number of protocols have been proposed and some of them have been implemented, and now a number of commercial products have been announced. Also, some experimental networks have been implemented. QKD using space links have been proposed and experimented with. In few years quantum satellites will be launched. Quantum cryptographic protocols are being proposed to protect infrastructure networks like the electric power grid. Also, it is being used as a countermeasure against global spying networks like ECHELON that are detrimental for national economies. The Quantum Internet is also being considered using quantum teleportation together with Cavity Quantum Electrodynamics with some experimental work going on. Quantum Control is essential for both Quantum Computation and Quantum Communication. Intensive research is going on in: State estimation (called Quantum State Tomography), system identification (called Quantum Process Tomography), and Quantum Feedback Control. The basic concepts will be briefly considered in this presentation. University education has witnessed major changes to support the above developments. At the postgraduate level many universities offer many courses related to the above disciplines. Recently, a number of institutions started to offer undergraduate courses and some of them have even started to introduce Quantum Engineering 4 years undergraduate programs. A brief account will be given to such developments.
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