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Quantum computing. --- Quantum electronics. --- Electronics --- Quantum electrodynamics --- Computation, Quantum --- Computing, Quantum --- Information processing, Quantum --- Quantum computation --- Quantum information processing --- Electronic data processing
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This book is a self-contained, tutorial-based introduction to quantum information theory and quantum biology. It serves as a single-source reference to the topic for researchers in bioengineering, communications engineering, electrical engineering, applied mathematics, biology, computer science, and physics. The book provides all the essential principles of the quantum biological information theory required to describe the quantum information transfer from DNA to proteins, the sources of genetic noise and genetic errors as well as their effects. Integrates quantum information and quantum biology concepts; Assumes only knowledge of basic concepts of vector algebra at undergraduate level; Provides a thorough introduction to basic concepts of quantum information processing, quantum information theory, and quantum biology; Includes in-depth discussion of the quantum biological channel modelling, quantum biological channel capacity calculation, quantum models of aging, quantum models of evolution, quantum models on tumor and cancer development, quantum modeling of bird navigation compass, quantum aspects of photosynthesis, quantum biological error correction.
Mathematics --- Spectrometric and optical chemical analysis --- Human biochemistry --- Electronics --- Applied physical engineering --- Engineering sciences. Technology --- Computer. Automation --- tumoren --- fotosynthese --- medische biochemie --- analyse (wiskunde) --- electron spin resonance spectre --- toegepaste wiskunde --- quantumcomputers --- biochemie --- economie --- informatietechnologie --- wiskunde --- elektronica --- ingenieurswetenschappen
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This textbook introduces the advanced topics of: (i) wireless communications, (ii) free-space optical (FSO) communications, (iii) indoor optical wireless (IR) communications, and (iv) fiber-optics communications and presents these different types of communication systems in a unified fashion for better practical use. Fundamental concepts, such as propagation principles, modulation formats, channel coding, diversity principles, MIMO signal processing, multicarrier modulation, equalization, adaptive modulation and coding, detection principles, and software defined transmission are first described and then followed up with a detailed look at each particular system. The book is self-contained and structured to provide straightforward guidance to readers looking to capture fundamentals and gain theoretical and practical knowledge about wireless communications, optical communications, and fiber-optics communications, all which can be readily applied in studies, research, and practical applications. The textbook is intended for an upper undergraduate or graduate level course in optical communication. It features problems, an appendix with all background material needed, and homework.
Fluid mechanics --- Spectrometric and optical chemical analysis --- Telecommunication technology --- Mass communications --- Computer architecture. Operating systems --- optische vezels --- tekstverwerking --- telecommunicatie --- computernetwerken --- communicatietechnologie --- spectrometrie
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The first book on optical OFDM by the leading pioneers in the field The only book to cover error correction codes for optical OFDM Gives applications of OFDM to free-space communications, optical access networks, and metro and log haul transports show optical OFDM can be implemented Contains introductions to signal processing for optical engineers and optical communication fundamentals for wireless engineers This book gives a coherent and comprehensive introduction to the fundamentals of OFDM signal processing, with a distinctive focus on its broad range of applications. It evaluates the architecture, design and performance of a number of OFDM variations, discusses coded OFDM, and gives a detailed study of error correction codes for access networks, 100 Gb/s Ethernet and future optical networks. The emerging applications of optical OFDM, including single-mode fiber transmission, multimode fiber transmission, free space optical systems, and optical access networks are examined, with particular attention paid to passive optical networks, radio-over-fiber, WiMAX and UWB communications. Written by two of the leading contributors to the field, this book will be a unique reference for optical communications engineers and scientists. Students, technical managers and telecom executives seeking to understand this new technology for future-generation optical networks will find the book invaluable.
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The growth of data-driven technologies, 5G, and the Internet place enormous pressure on underlying information infrastructure. There exist numerous proposals on how to deal with the possible capacity crunch. However, the security of both optical and wireless networks lags behind reliable and spectrally efficient transmission. Significant achievements have been made recently in the quantum computing arena. Because most conventional cryptography systems rely on computational security, which guarantees the security against an efficient eavesdropper for a limited time, with the advancement in quantum computing this security can be compromised. To solve these problems, various schemes providing perfect/unconditional security have been proposed including physical-layer security (PLS), quantum key distribution (QKD), and post-quantum cryptography. Unfortunately, it is still not clear how to integrate those different proposals with higher level cryptography schemes. So the purpose of the Special Issue entitled “Physical-Layer Security, Quantum Key Distribution and Post-quantum Cryptography” was to integrate these various approaches and enable the next generation of cryptography systems whose security cannot be broken by quantum computers. This book represents the reprint of the papers accepted for publication in the Special Issue.
Technology: general issues --- History of engineering & technology --- continuous-variable quantum key distribution --- measurement device independent --- zero-photon catalysis --- underwater channel --- quantum key distribution (QKD) --- discrete variable (DV)-QKD --- continuous variable (CV)-QKD --- postquantum cryptography (PQC) --- quantum communications networks (QCNs) --- quantum communications --- entanglement --- surface codes --- quantum cryptography --- quantum key distribution --- quantum network --- measurement-device-independent --- mean-king’s problem --- mean multi-kings’ problem --- information disturbance theorem --- QKD --- distillation --- amplification --- reconciliation --- quantum identity authentication --- private equality tests --- conclusive exclusion --- single-photon mode --- synchronization --- algorithm --- detection probability --- vulnerability --- twin-field quantum key distribution --- phase-matching --- discrete phase randomization --- intrinsic bit error rate --- the Bernstein-Vazirani algorithm --- EPR pairs --- quantum entanglement --- quantum information theory --- geometrical optics restricted eavesdropping --- secret key distillation --- satellite-to-satellite --- physical layer security --- secret key generation --- injection attacks --- jamming attacks --- pilot randomization --- clock synchronization --- Bayesian statistics --- oblivious transfer --- post-quantum cryptography --- universal composability --- n/a --- mean-king's problem --- mean multi-kings' problem
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The growth of data-driven technologies, 5G, and the Internet place enormous pressure on underlying information infrastructure. There exist numerous proposals on how to deal with the possible capacity crunch. However, the security of both optical and wireless networks lags behind reliable and spectrally efficient transmission. Significant achievements have been made recently in the quantum computing arena. Because most conventional cryptography systems rely on computational security, which guarantees the security against an efficient eavesdropper for a limited time, with the advancement in quantum computing this security can be compromised. To solve these problems, various schemes providing perfect/unconditional security have been proposed including physical-layer security (PLS), quantum key distribution (QKD), and post-quantum cryptography. Unfortunately, it is still not clear how to integrate those different proposals with higher level cryptography schemes. So the purpose of the Special Issue entitled “Physical-Layer Security, Quantum Key Distribution and Post-quantum Cryptography” was to integrate these various approaches and enable the next generation of cryptography systems whose security cannot be broken by quantum computers. This book represents the reprint of the papers accepted for publication in the Special Issue.
continuous-variable quantum key distribution --- measurement device independent --- zero-photon catalysis --- underwater channel --- quantum key distribution (QKD) --- discrete variable (DV)-QKD --- continuous variable (CV)-QKD --- postquantum cryptography (PQC) --- quantum communications networks (QCNs) --- quantum communications --- entanglement --- surface codes --- quantum cryptography --- quantum key distribution --- quantum network --- measurement-device-independent --- mean-king’s problem --- mean multi-kings’ problem --- information disturbance theorem --- QKD --- distillation --- amplification --- reconciliation --- quantum identity authentication --- private equality tests --- conclusive exclusion --- single-photon mode --- synchronization --- algorithm --- detection probability --- vulnerability --- twin-field quantum key distribution --- phase-matching --- discrete phase randomization --- intrinsic bit error rate --- the Bernstein-Vazirani algorithm --- EPR pairs --- quantum entanglement --- quantum information theory --- geometrical optics restricted eavesdropping --- secret key distillation --- satellite-to-satellite --- physical layer security --- secret key generation --- injection attacks --- jamming attacks --- pilot randomization --- clock synchronization --- Bayesian statistics --- oblivious transfer --- post-quantum cryptography --- universal composability --- n/a --- mean-king's problem --- mean multi-kings' problem
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The growth of data-driven technologies, 5G, and the Internet place enormous pressure on underlying information infrastructure. There exist numerous proposals on how to deal with the possible capacity crunch. However, the security of both optical and wireless networks lags behind reliable and spectrally efficient transmission. Significant achievements have been made recently in the quantum computing arena. Because most conventional cryptography systems rely on computational security, which guarantees the security against an efficient eavesdropper for a limited time, with the advancement in quantum computing this security can be compromised. To solve these problems, various schemes providing perfect/unconditional security have been proposed including physical-layer security (PLS), quantum key distribution (QKD), and post-quantum cryptography. Unfortunately, it is still not clear how to integrate those different proposals with higher level cryptography schemes. So the purpose of the Special Issue entitled “Physical-Layer Security, Quantum Key Distribution and Post-quantum Cryptography” was to integrate these various approaches and enable the next generation of cryptography systems whose security cannot be broken by quantum computers. This book represents the reprint of the papers accepted for publication in the Special Issue.
Technology: general issues --- History of engineering & technology --- continuous-variable quantum key distribution --- measurement device independent --- zero-photon catalysis --- underwater channel --- quantum key distribution (QKD) --- discrete variable (DV)-QKD --- continuous variable (CV)-QKD --- postquantum cryptography (PQC) --- quantum communications networks (QCNs) --- quantum communications --- entanglement --- surface codes --- quantum cryptography --- quantum key distribution --- quantum network --- measurement-device-independent --- mean-king's problem --- mean multi-kings' problem --- information disturbance theorem --- QKD --- distillation --- amplification --- reconciliation --- quantum identity authentication --- private equality tests --- conclusive exclusion --- single-photon mode --- synchronization --- algorithm --- detection probability --- vulnerability --- twin-field quantum key distribution --- phase-matching --- discrete phase randomization --- intrinsic bit error rate --- the Bernstein-Vazirani algorithm --- EPR pairs --- quantum entanglement --- quantum information theory --- geometrical optics restricted eavesdropping --- secret key distillation --- satellite-to-satellite --- physical layer security --- secret key generation --- injection attacks --- jamming attacks --- pilot randomization --- clock synchronization --- Bayesian statistics --- oblivious transfer --- post-quantum cryptography --- universal composability
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Coding for Optical Channels Ivan Djordjevic William Ryan Bane Vasic In order to adapt to the ever-increasing demands for high-speed transmission and distance-independent connectivity, today’s network operators are implementing 100 Gb/s per dense wavelength division multiplexing (DWDM) channel. At those data rates, the performance of fiber-optic communication systems is degraded significantly due to intra- and inter-channel fiber nonlinearities, polarization-mode dispersion (PMD), and chromatic dispersion. In order to deal with these channel impairments, novel advanced techniques in modulation, detection, coding and signal processing are needed. This groundbreaking book represents a coherent and comprehensive introduction to the fundamentals of optical communications, digital signal processing (DSP), and coding for optical channels. This book: Is the first to integrate the fundamentals of coding theory and DSP with the fundamentals of optical communication; Provides detailed coverage of joint coding and modulation for optical communications; Presents turbo equalization for joint iterative channel equalization and soft decoding on optical channels; Provides in-depth coverage of codes on graphs, including LDPC and turbo codes, and describes their application to optical channels; Includes coverage of both fiber-optics and free-space optical (FSO) channels; Is the first to cover the channel capacity of fiber-optic communication systems; Is the first to describe constrained coding for optical channels.
Engineering. --- Microwaves. --- Telecommunication. --- Optical fiber communication --- Signal processing --- Electrical & Computer Engineering --- Electrical Engineering --- Telecommunications --- Engineering & Applied Sciences --- Digital techniques --- Optical fiber communication. --- Digital techniques. --- Digital signal processing --- Fiber-optic communication --- Fiber optic telecommunication --- Optical engineering. --- Electrical engineering. --- Communications Engineering, Networks. --- Signal, Image and Speech Processing. --- Microwaves, RF and Optical Engineering. --- Digital communications --- Digital electronics --- Optical communications --- Fiber optics --- Hertzian waves --- Electric waves --- Electromagnetic waves --- Geomagnetic micropulsations --- Radio waves --- Shortwave radio --- Electric communication --- Mass communication --- Telecom --- Telecommunication industry --- Communication --- Information theory --- Telecommuting --- Signal processing. --- Image processing. --- Speech processing systems. --- Mechanical engineering --- Computational linguistics --- Electronic systems --- Modulation theory --- Oral communication --- Speech --- Telecommunication --- Singing voice synthesizers --- Pictorial data processing --- Picture processing --- Processing, Image --- Imaging systems --- Optical data processing --- Processing, Signal --- Information measurement --- Signal theory (Telecommunication) --- Electric engineering --- Engineering
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