Applied Physics – serie

Provides information on all chemical, physical and material aspects of this class of cuprates, and covers their applications. This work provides data on the chemistry, solid-state chemistry, handling and safety requirements of thallium.

Provides information on all chemical, physical and material aspects of this class of cuprates, and covers their applications. This work provides data on the chemistry, solid-state chemistry, handling and safety requirements of thallium.

This reference examines the tremendous benefits produced by the use of superconductivity, including the realization of a commercial fusion reactor for the generation of electricity. Providing a comprehensive coverage of superconductivity and magnet design - incorporating background information for beginners as well as research advances for specialists - this work: discusses the historical development of superconductivity and its engineering applications; explains the mechanical properties of the metal matrix composite; describes the important electromagnetic factors for the design of composite superconductors; analyzes the fabrication and optimization of various composite superconductors; and assesses the future development of high Tc oxide superconductors for engineering applicaitons.;This title is intended for: physicists; metallurgists; materials scientists; materials, electrical, mechanical, cryogenic and medical engineers; and graduate students in these disciplines.

Aiming to bridge the gap in understanding between professional electrochemists and hard-core semiconductor physicists and material scientists, this book examines the science and technology of semiconductor electrode-positioning. Summarizing state-of-the-art information concerning a wide variety of semiconductors, it reviews fundamental electrodeposition concepts and terminology.

The Physics and Technology of Semiconductor Devices offers a comprehensive treatment of the physical principles underpinning today's semiconductor devices. Tracing the field from its origins and the evolution of Moore's Law, the book offers an integrated perspective on how device physics, materials science and design innovations have shaped and continue to shape the information age.Beginning with the evolution of the MOSFET and the foundations of band theory, the book leads readers into the physics of state-of-the-art transistors including finFETs, nanowire FETs and nanosheet devices, alongside high-frequency components and solar-energy technologies. Emphasis is placed on charge transport, band structure methods, scaling behaviour and the physical limits of device performance. Specialised device classes such as tunnel FETs, spin-based concepts, high-electron-mobility transistors and hot-carrier solar cells are introduced with discussion of their opportunities and constraints.Readers are guided through key themes including: Modern MOSFET architectures and their departure from classical planar devicesEnergy band theory in one, two and three dimensions, with real-space and momentum-space methodsp-n junction physics, current flow and structural variantsScaling theory, velocity limits and ballistic considerations in advanced logic devicesMicrowave and high-frequency devices, including III-V material systems and realistic cutoff frequenciesPhotovoltaic device physics, efficiency limits, heterojunctions and emerging hot-carrier conceptsCombining a theoretical understanding with practical device engineering, this book is ideal for graduate students, researchers and practising engineers, serving both as a high-level textbook and an authoritative reference.

Transport in Condensed Matter offers a clear and comprehensive introduction to the principles that govern how charge and spin move through condensed-matter systems. The book opens with linear response theory, Green's functions, and the Boltzmann transport equation, essential tools for understanding electronic behaviour in solids. It then develops perturbation theory and diagrammatic methods, followed by a detailed treatment of impurity scattering, a crucial but often neglected ingredient in realistic transport calculations.A major strength of the book is its coverage of contemporary themes, including topological transport and the integer and anomalous quantum Hall effects, transport in non-Hermitian systems and magnon transport, spanning ferromagnets, antiferromagnets, noncollinear orders, and skyrmion-based phenomena. Additional chapters introduce the memory-function formalism and the emerging field of electron hydrodynamics using the Navier-Stokes equation.Key features include: A self-contained introduction to many-body transport methods.Clear derivations of all major equations and results.Coverage of modern research topics such as non-Hermitian transport, topological magnons, nonlinear Hall effects, and strange metals.Connects traditional frameworks with emerging directions in modern condensed-matter physics.Appendices, which review essential background concepts, making the text suitable for readers transitioning into the field.Suitable for both researchers and graduate students, the book offers a unified overview of transport phenomena in electronic and magnetic systems, connecting many-body techniques with some of the most active areas in modern condensed matter physics and quantum materials.

This book provides an introduction to the world of metamaterials and metasurfaces; artificially engineered materials that can control electromagnetic waves in ways not found in nature. These materials exhibit unusual effects with applications ranging from miniaturised antennas to advanced sensors, energy harvesting, and even future communication systems.Spanning microwave, terahertz, and optical frequency regimes, the book traces the evolution of the field from fundamental concepts to recent breakthroughs. It presents fundamental theory, modelling and characterisation techniques, while highlighting both emerging applications, such as superlensing, cloaking, and sub-wavelength imaging and established uses in absorbers, sensors, antennas, and active devices.This second edition features major updates and new content including advances in reversed Čerenkov radiation-based vacuum tube research, hyperbolic metamaterials, graphene-enabled devices, biomedical applications, acoustic metamaterials and fabrication technologies for metasurfaces. Emerging directions such as reconfigurable intelligent surfaces and ultra-massive MIMO for 6G communications are also explored.Metamaterials and Metasurfaces, 2nd Edition: Foundations, trends and applications serves as both a postgraduate teaching resource and a reference for researchers seeking a solid foundation in the principles, applications and emerging trends shaping this dynamic field.

Devoted to the preparation, characterization and evaluation of HTS electronic devices, the Handbook of High-Temperature Superconductor Electronics provides information on using high-Tc thin films and junctions to increase speed, lessen noise, lower power consumption and enhance upper frequency limits in superconductor electronics. Compiled by a group of internationally renowned authors, it discusses the implementation of HTS digital circuits, microwave filters and subsystems and transition-edge bolometers. Other topics include cryocooler usage in high-Tc devices, HTS thin films for electronic devices, and the fabrication and applications of various HTS junctions.