Writing A Comprehensive Book On Materials Science For The Benefit Of Undergraduate Courses In Science And Engineering Was A Day Dream Of The First Author Dr. S.O. Pillai For A Long Period. However The Dream Became True After A Lapse Of Couple Of Years. Lucid And Logical Exposition Of The Subject Matter Is The Special Feature Of This Book. The Principal Topics Covered Are: * Theories Of Metals * Superconductivity * Magnetism And Magnetic Properties Of Materials * Theory Of Semiconductors * Dielectrics * Optoelectronics And Lasers * Miscellaneous TopicsAn Elementary Treatment Of Basic Topics Namely Solid Formation, Crystalline State, Wave Mechanics Of Free Electrons Is Found In The Beginning Of The Book. A Quick Going Through These Topics May Help The Readers The Power Of Understanding The Main Topics Of The Subject Science Of Condensed Materials With Trifle Effects. Trial Based Treatment Of Some Newer Topics In The Form Of Direct Discussion And Conversation Such As Insulting Materials And Their Properties And Uses, Light Emitting Diodes And Photon Devices. Fibre Optics And Holography, Ceramic Materials And Polymers, Corrosion And Some Remedies And Composite Materials Is Made Available In About Thirty Pages As The Last Part Of This Book.No Author Can Escape Without Providing Objective Questions, Problems With Solutions And Tables Giving Physical Properties Of Important Materials That Too In A Book Like This. This Book Is Not An Exception In These Features Too.The Author Was Very Particular Of The Size And Price Of The Book Hoping That Interested Readers And Students Can Procure One Copy On Their Own And Purse It. However The Author Admits That The Feedback From The Readers Alone Will Judge The Spirit, Merit And The Degree Of Usefulness Of This Piece Of Work.

Writing a comprehensive book on Materials Science for the benefit of undergraduate courses in Science and Engineering was a day dream of the first author, Dr. S.O. Pillai for a long period. However, the dream became true after a lapse of couple of years. Lucid and logical exposition of the subject matter is the special feature of this book.

We all know the history of science that we learned from grade school textbooks: How Galileo used his telescope to show that the earth was not the center of the universe; how Newton divined gravity from the falling apple; how Einstein unlocked the mysteries of time and space with a simple equation. This history is made up of long periods of ignorance and confusion, punctuated once an age by a brilliant thinker who puts it all together. These few tower over the ordinary mass of people, and in the traditional account, it is to them that we owe science in its entirety. This belief is wrong. A People's History of Science shows how ordinary people participate in creating science and have done so throughout history. It documents how the development of science has affected ordinary people, and how ordinary people perceived that development. It would be wrong to claim that the formulation of quantum theory or the structure of DNA can be credited directly to artisans or peasants, but if modern science is likened to a skyscraper, then those twentieth-century triumphs are the sophisticated filigrees at its pinnacle that are supported by the massive foundation created by the rest of us.

This book presents what in our opinion constitutes the basis of the theory of the mu-calculus, considered as an algebraic system rather than a logic. We have wished to present the subject in a unified way, and in a form as general as possible. Therefore, our emphasis is on the generality of the fixed-point notation, and on the connections between mu-calculus, games, and automata, which we also explain in an algebraic way. This book should be accessible for graduate or advanced undergraduate students both in mathematics and computer science. We have designed this book especially for researchers and students interested in logic in computer science, comuter aided verification, and general aspects of automata theory. We have aimed at gathering in a single place the fundamental results of the theory, that are currently very scattered in the literature, and often hardly accessible for interested readers. The presentation is self-contained, except for the proof of the Mc-Naughton's Determinization Theorem (see, e.g., [97]. However, we suppose that the reader is already familiar with some basic automata theory and universal algebra. The references, credits, and suggestions for further reading are given at the end of each chapter.

International interest in nanoscience research has flourished in recent years, as it becomes an integral part in the development of future technologies. The diverse, interdisciplinary nature of nanoscience means effective communication between disciplines is pivotal in the successful utilization of the science. Nanochemistry: A Chemical Approach to Nanomaterials is the first textbook for teaching nanochemistry and adopts an interdisciplinary and comprehensive approach to the subject. It presents a basic chemical strategy for making nanomaterials and describes some of the principles of materials self-assembly over 'all' scales. It demonstrates how nanometre and micrometre scale building blocks (with a wide range of shapes, compositions and surface functionalities) can be coerced through chemistry to organize spontaneously into unprecedented structures, which can serve as tailored functional materials. Suggestions of new ways to tackle research problems and speculations on how to think about assembling the future of nanotechnology are given. Primarily designed for teaching, this book will appeal to graduate and advanced undergraduate students. It is well illustrated with graphical representations of the structure and form of nanomaterials and contains problem sets as well as other pedagogical features such as further reading, case studies and a comprehensive bibliography.

Springer Handbook of Condensed Matter and Materials Data provides a concise compilation of data and functional relationships from the fields of solid-state physics and materials in this 1200 page volume. The data, encapsulated in 914 tables and 1025 illustrations, have been selected and extracted primarily from the extensive high-quality data collection Landolt-Börnstein and also from other systematic data sources and recent publications of physical and technical property data. Many chapters are authored by Landolt-Börnstein editors, including the prominent Springer Handbook editors, W. Martienssen and H. Warlimont themselves. The Handbook is designed to be useful as a desktop reference for fast and easy retrieval of essential and reliable data in the lab or office. References to more extensive data sources are also provided in the book and by interlinking to the relevant sources on the enclosed CD-ROM. Physicists, chemists and engineers engaged in fields of solid-state sciences and materials technologies in research, development and application will appreciate the ready access to the key information coherently organized within this wide-ranging Handbook. From the reviews: "...this is the most complete compilation I have ever seen... When I received the book, I immediately searched for data I never found elsewhere..., and I found them rapidly... No doubt that this book will soon be in every library and on the desk of most solid state scientists and engineers. It will never be at rest." -Physicalia Magazine

This self-contained textbook aims to introduce the physics of structurally disordered condensed systems at the level of advanced undergraduate and graduate students. The topics discussed include the geometry and symmetries of the building blocks commonly used to obtain atomic structures, the various kinds of disorder, the phenomenology and the main theories of the glass transition, investigation of the structure of amorphous systems, the dependence of system structure on its dimensions (clusters), and the case of positional order in the absence of translational order (quasicrystals).

Few areas of science are as interdisciplinary as materials science. Chemistry, physics, mechanical engineering, and mathematics each play a part within it. The role of physics is to describe the objects, effects and phenomena at different scales (micro-, meso-, and macroscopic) as precisely as possible. Physics of Materials addresses this description at the elementary level. Based on an undergraduate level course taught at the Ecole Polytechnique, France, the main emphasis is on the conduction related phenomena (electronic properties) and the plastic behavior (ionic properties) of materials, such as metals and alloys, semiconductors, and ceramics. It assumes a basic grounding in statistical physics, quantum mechanics and elasticity but does not require prior knowledge of solid-state physics, to which it will serve as a useful introduction. The presentation of the course is followed by several examination problems, with solutions, which cover various specific applications of the general concepts and which will enable readers to test their understanding of these concepts.