• Complain

Masahito Hayashi Satoshi Ishizaka Akinori Kawachi Gen - Introduction to Quantum Information Science

Here you can read online Masahito Hayashi Satoshi Ishizaka Akinori Kawachi Gen - Introduction to Quantum Information Science full text of the book (entire story) in english for free. Download pdf and epub, get meaning, cover and reviews about this ebook. City: Berlin;Heidelberg, publisher: Springer, genre: Computer. Description of the work, (preface) as well as reviews are available. Best literature library LitArk.com created for fans of good reading and offers a wide selection of genres:

Romance novel Science fiction Adventure Detective Science History Home and family Prose Art Politics Computer Non-fiction Religion Business Children Humor

Choose a favorite category and find really read worthwhile books. Enjoy immersion in the world of imagination, feel the emotions of the characters or learn something new for yourself, make an fascinating discovery.

Masahito Hayashi Satoshi Ishizaka Akinori Kawachi Gen Introduction to Quantum Information Science

Introduction to Quantum Information Science: summary, description and annotation

We offer to read an annotation, description, summary or preface (depends on what the author of the book "Introduction to Quantum Information Science" wrote himself). If you haven't found the necessary information about the book — write in the comments, we will try to find it.

Quantum statistical inference, a research field with deep roots in the foundations of both quantum physics and mathematical statistics, has made remarkable progress since 1990. In particular, its asymptotic theory has been developed during this period. However, there has hitherto been no book covering this remarkable progress after 1990; the famous textbooks by Holevo and Helstrom deal only with research results in the earlier stage (1960s-1970s). This book presents the important and recent results of quantum statistical inference. It focuses on the asymptotic theory, which is one of the centr.;Part I: Hypothesis Testing: Introduction to Part I -- Strong Converse and Steins lemma in quantum hypothesis testing/Tomohiro Ogawa and Hiroshi Nagaoka -- The proper formula for relative entropy and its asymptotics in quantum probability/Fumio Hiai and Dnes Petz -- Strong Converse theorems in Quantum Information Theory/Hiroshi Nagaoka -- Asymptotics of quantum relative entropy from a representation theoretical viewpoint/Masahito Hayashi -- Quantum birthday problems: geometrical aspects of Quantum Random Coding/Akio Fujiwara -- Part II: Quantum Cramr-Rao Bound in Mixed States Model: Introduction to Part II -- A new approach to Cramr-Rao Bounds for quantum state estimation/Hiroshi Nagaoka -- On Fisher information of Quantum Statistical Models/Hiroshi Nagaoka -- On the parameter estimation problem for Quantum Statistical Models/Hiroshi Nagaoka -- A generalization of the simultaneous diagonalization of Hermitian matrices and its relation to Quantum Estimation Theory/Hiroshi Nagaoka -- A linear programming approach to Attainable Cramr-Rao Type Bounds/Masahito Hayashi -- Statistical model with measurement degree of freedom and quantum physics/Masahito Hayashi and Keiji Matsumoto -- Asymptotic Quantum Theory for the Thermal States Family/Masahito Hayashi -- State estimation for large ensembles/Richard D. Gill and Serge Massar -- Part III: Quantum Cramr-Rao Bound in Pure States Model: Introduction to Part III -- Quantum Fisher Metric and estimation for Pure State Models/Akio Fujiwara and Hiroshi Nagaoka -- Geometry of Quantum Estimation Theory/Akio Fujiwara -- An estimation theoretical characterization of coherent states/Akio Fujiwara and Hiroshi Nagaoka -- A geometrical approach to Quantum Estimation Theory/Keiji Matsumoto -- Part IV: Group symmetric approach to Pure States Model: Introduction to Part IV -- Optimal extraction of information from finite quantum ensembles/Serge Massar and Sandu Popescu -- Asymptotic Estimation Theory for a Finite-Dimensional Pure State Model/Masahito Hayashi -- Optimal universal quantum cloning and state estimation/Dagmar Bruss, Artur Ekert, and Chiara Macchiavello -- Bounds for generalized uncertainty of shift parameter/Alexander S. Holevo -- V: Large Deviation Theory in quantum estimation: Introduction to Part V -- On the relation between Kullback divergence and Fisher information: from classical systems to quantum systems/Hiroshi Nagaoka -- Two quantum analogues of Fisher information from a large deviation viewpoint of quantum estimation/Masahito Hayashi -- Estimating the spectrum of a density operator/Michael Keyl and Reinhard F. Werner -- Part VI: Further topics on quantum statistical inference: Introduction to Part VI -- Optimal quantum clocks/Vladim Buek, R. Derka, and Serge Massar -- Quantum channel identification problem/Akio Fujiwara -- Homodyning as universal detection/Giacomo Mauro DAriano -- On the measurement of qubits/Daniel F.V. James, Paul G. Kwiat, William J. Munro and Andrew G. White.

Masahito Hayashi Satoshi Ishizaka Akinori Kawachi Gen: author's other books


Who wrote Introduction to Quantum Information Science? Find out the surname, the name of the author of the book and a list of all author's works by series.

Introduction to Quantum Information Science — read online for free the complete book (whole text) full work

Below is the text of the book, divided by pages. System saving the place of the last page read, allows you to conveniently read the book "Introduction to Quantum Information Science" online for free, without having to search again every time where you left off. Put a bookmark, and you can go to the page where you finished reading at any time.

Light

Font size:

Reset

Interval:

Bookmark:

Make
Springer-Verlag Berlin Heidelberg 2015
Masahito Hayashi , Satoshi Ishizaka , Akinori Kawachi , Gen Kimura and Tomohiro Ogawa Introduction to Quantum Information Science Graduate Texts in Physics 10.1007/978-3-662-43502-1_1
1. Invitation to Quantum Information Science
Masahito Hayashi 1
(1)
Graduate School of Mathematics, Nagoya University, Nagoya, Japan
(2)
Graduate School of Integrated Arts and Sciences, Hiroshima University, Higashi-Hiroshima, Japan
(3)
Department of Mathematical and Computing Sciences, Tokyo Institute of Technology, Tokyo, Japan
(4)
College of Systems Engineering and Science, Shibaura Institute of Technology, Saitama, Japan
(5)
Graduate School of Information Systems, University of Electro-Communications, Tokyo, Japan
Masahito Hayashi (Corresponding author)
Email:
Satoshi Ishizaka
Email:
Akinori Kawachi
Email:
Gen Kimura
Email:
Tomohiro Ogawa
Email:
1.1 From Classical Information Science to Quantum Information Science
All of information processing has been realized by the combination of physical devices, e.g., semiconductor devices and optical fibers. The current information-communication and information processing on the computer are designed with the combination of these devices. Electrons in semiconductors and photons of optical fiber ultimately obey not the classical mechanics, but the quantum mechanics. Further, many information processing devices realizing brilliant performance use the quantum effects inside of the devices, e.g., superconducting Josephson device and Esaki diode. However, it is implicitly required as a basic requirement of current information device that the device has no quantum effect in the input and output systems. Hence, the device engineers have been required to design the information device so that no quantum effect directly appears in the input and the output.
What is the quantum effect in the input and the output? In the traditional information sciences, each of the input and the output is required to have a certain fixed value at a moment although it is allowed to change in time and/or behave stochastically. However, when the device is too miniaturized, the device comes to behave as a quantum system. Then, the input and the output do not take fixed values and take quantum superposition states. In the framework of the traditional information sciences, the engineers adopt the strategy to avoid such quantum input and output by limiting the quantum effects inside the device. However, when the miniaturization of the device has been advanced, the above-mentioned strategy does not necessarily realize the optimal performance of the total system. In order to improve the total performance, it is better to admit devices with quantum input and output. Hence, it is required to study information science based on the framework of quantum theory, and such a research area is called Quantum Information Science. On the other hand, the research area that does not take into account the quantum input and output in each device at all is called Classical Information Science.
In fact, thanks to research achievement up to now, it has been clarified that the potential of information science and technology could be expanded very much if we are allowed to use the devices with quantum input and output. It could even say that the traditional strategy that avoids the quantum input and output works against further improvement for the total performance of information system. Indeed, although device engineers are familiar with the quantum effects and even utilize it, information scientists have required so that no quantum effect appears in the input and output due to the convenience. In future, quantum information science will become more popular, and it will be allowed to use devices with quantum input and output, which we expect leads to much progress of information science.
In the following, we call an information processing device a classical device when it does not deal with quantum input and output. Otherwise, it is called a quantum device. Then, the research area with respect to the computation with classical/quantum devices is called quantum computation/classical computation. Similarly, the research area with respect to the communication with classical/quantum devices is called quantum communication/classical communication. In quantum communication/classical communication, a communication channel is treated as quantum channel/classical channel.
Fig 11 Classical treatment of the optical communication In the following - photo 1
Fig. 1.1
Classical treatment of the optical communication
In the following, we explain the relation between the quantum channel and the classical channel by taking for example a communication via an optical fiber (the optical communication). In the case of long-distance communication via an optical fiber, the signal is so weak that it behaves as a quantum particle. However, the traditional information science treats the optical communication in the classical way based on the framework given in Fig. as follows: The hardware engineers take care of the design and implementation of all optical fiber, modulator, and photon detector, in which modulator converts the input information (the input alphabet) to the input photon, and the photon detector converts the output photon to the output information (the output alphabet). It is usual that the output alphabet behaves stochastically and, when the characteristics of the hardware (fiber, modulator and detector) are fixed, the probability distribution is decided depending on the input alphabet only. In this way, in the classical communication, the optical fiber, modulator and photon detector are encapsulated like in a single device, a classical channel, which is characterized by a probability distribution of the output alphabet as a function of the input alphabet. Then, information scientists do not deal with the internal physical structure of the channel, such as a state of a photon, at all. They employ classical mechanical description of the channel, and as a result, they design an encoder and decoder as a classical device that converts between messages and alphabets.
Fig 12 Optical communication as quantum channel Fig 13 Optical - photo 2
Fig. 1.2
Optical communication as quantum channel
Fig 13 Optical communication as classical-quantum channel Fig 14 - photo 3
Fig. 1.3
Optical communication as classical-quantum channel
Fig 14 Current hierarchical structure of information processing Computer and - photo 4
Fig. 1.4
Current hierarchical structure of information processing (Computer and communication)
Fig 15 Future hierarchical structure of information processing Computer and - photo 5
Fig. 1.5
Future hierarchical structure of information processing (Computer and communication)
Under the framework of quantum information science, we do not encapsulate modulator, optical fiber and detector; instead we regard the encoder and modulator as a single device as shown in Fig.. In this formulation, the photon detector and the classical decoder are encapsulated to the quantum decoder. Similarly, the modulator and the quantum channel are encapsulated to the classical-quantum channel. Even in this framework, we need to take into account the non-commutativity caused by quantum property of the output signal so that quantum treatment is essentially required.
Next page
Light

Font size:

Reset

Interval:

Bookmark:

Make

Similar books «Introduction to Quantum Information Science»

Look at similar books to Introduction to Quantum Information Science. We have selected literature similar in name and meaning in the hope of providing readers with more options to find new, interesting, not yet read works.


Reviews about «Introduction to Quantum Information Science»

Discussion, reviews of the book Introduction to Quantum Information Science and just readers' own opinions. Leave your comments, write what you think about the work, its meaning or the main characters. Specify what exactly you liked and what you didn't like, and why you think so.