Nanostructured Nonlinear Optical Materials
This book focuses on novel applications of nanostructured nonlinear optical materials, including optical limiting, Q-switching, mode-locking, and laser-nanoplasma physics. It is useful for physicists, material scientists, and engineers interested in laser technology.
General Relativity Conflict and Rivalries
Galina Weinstein investigates Albert Einstein and his interactions with various scientists, focusing on their implicit and explicit responses to his work. This analysis reveals the central figures who influenced Einstein during his work on the general theory of relativity.
This book presents research on the diffraction, radiation, and propagation of elastic waves, focusing on interactions between bodies and media interfaces. It details solutions to three-dimensional wave problems for isotropic and anisotropic bodies using Debye potentials.
Entropy generation minimization is widely used in thermal problems, sometimes as a unified theory. Is this really the case? This book answers this question, showing the theory has limitations and a definite application scope, beyond which it may provide incorrect results.
Growing Large Crystals of Diamonds
This guide shows how to grow large CVD diamond crystals for gems and industrial applications. For experts and newcomers, it covers the technology, details difficulties encountered during growth and their resolutions, and explains how to identify CVD diamonds from simulants.
This book discusses the basic tools of mathematical physics for physicists, mathematicians, and engineers. It reveals the indissoluble connection between physical ideas and mathematical concepts, emphasizing the physical origin and flexibility of the equations.
Fundamental Optics
This book updates our knowledge of light with new data from reproducible experiments. It presents a new theory which interprets verifiable information according to the various speeds of the lights involved, examining light’s general motions in space.
Semiconductor silicon is the basic material of modern electronics. Its properties are determined by defects in its crystal structure, but a complete description of these defects has been a mystery—until now. This book solves it using classical and probabilistic approaches.
The muon is vital to particle, nuclear, and atomic physics, and a key component of the Standard Model. Muonic processes provide crucial information on the weak interaction. This book explores the various aspects of muon physics, highlighting the most recent experiments conducted.
This book proposes a model of light knot electronic structure, challenging the interpretation of quantum entanglement and proving a paradox in the uncertainty relationship. It establishes the foundation for a deterministic, local-realism quantum mechanics.
This book is devoted to a quasi-classical treatment of quantum transitions, with an emphasis on magnetic and electric dipolar resonance. In addition to known results, it presents parametric resonance for electric dipoles, which may lead to spontaneous electric polarization.
This book describes a new interpretation of the Standard Model based on relations between particle masses and stable intervals in nuclear data. A combined analysis of these two data sets is performed for the first time, revealing many new relations based on the electron.
A self-study guide to Solid State Physics for students of Physics, Engineering, and Materials Science. It contains carefully selected problems and detailed solutions, with core concepts presented concisely and with minimal math to help you master problem-solving.
This book takes a historical and geometrical approach to Einstein’s General Theory of Relativity. It details the latest developments in the field, including cutting-edge research on gravitational waves, black holes, and cosmology.
Explore Boltzmann’s probabilistic theory of heat, covering entropy, the Gibbs distribution, fluctuations, and dissipation. With applications from phase transitions to earthquakes, this book is for students and researchers seeking new ways of investigation in Thermodynamics.
Pyrometers are calibrated for blackbodies (BB), but real objects radiate differently, causing measurement errors. This book proposes original correction methods that account for an object’s radiation spectrum and its temperature dependence to increase the accuracy of pyrometry.
Fractal Fluctuations and Climate Cycles in Atmospheric Flows
This book unveils a systems theory where fractal fluctuations are signatures of quantum-like chaos. Based on statistical physics, the model predicts a distribution that is near-normal for moderate events but exhibits a fat long tail associated with hazardous extreme events.
This textbook presents the first systematic exposition of the new X-ray optics. Once limited to electronic density, the X-ray reflectivity method now detects magnetic and electronic depth-profiles. It develops the theory for students, postgraduates, and researchers.
Plasma instabilities are a major obstacle in achieving stable confinement in fusion devices. This book combines rigorous analysis with advanced simulations to uncover their dynamics and present practical strategies for mitigation, paving a path toward viable fusion energy.
The Role of Point Defects in the Luminescence Processes in Inorganic Solids and Phosphor Development
Developing sensitive phosphors for applications like 3D x-ray imaging requires knowledge of point defects in solids, information often lacking. This book bridges the gap, focusing on the crucial role of electron-hole traps for stimulated luminescence phenomena.