Neale R. Neelameggham

Cong Wang

Animesh A. Jha

Soobhankar Pati

Jan de Bakker

Cynthia K. Belt

Leon H. Prentice

Gabriella Tranell

Kyle S. Brinkman

This book addresses the issues, intricacies, and challenges relating to energy and environmental sciences. Papers cover various technological aspects of sustainable energy eco-systems and processes that improve energy efficiency, and reduce and sequestrate carbon dioxide (CO2) and other greenhouse emissions. The collection also emphasizes the need for sustainable technologies in extractive metallurgy, materials processing and manufacturing industries with reduced energy consumption and CO2 emission. Industrial energy efficient technologies include innovative ore beneficiation, smelting technologies, recycling and waste heat recovery. The book also carries contributions from all areas of non-nuclear and non-traditional energy sources, including renewable energy sources such as solar, wind, and biomass. Papers from the following symposia are presented in the book: Energy Technologies and Carbon Dioxide Management High-temperature Material Systems for Energy Conversion and Storage Solar Cell Silicon

Carbon Dioxide Management and Other Technologies

Energy Technology 2014

Jaroslaw Drelich

Leon Prentice

This book features a collection of papers on the issues, intricacies, and challenges relating to energy and environmental science. It offers expert coverage of the various technological aspects of sustainable energy ecosystems, including processes that improve energy efficiency and reduce CO2 and other greenhouse emissions. It also addresses the need for sustainable technologies in extractive metallurgy, materials processing, and manufacturing industries with energy efficient technologies. Some additional contributions examine renewable energy sources such as solar, wind, and biomass.

Energy Technology 2013

"This book is structured in seven chapters. Chapter 1 discusses glass science and structures of inorganic glasses, which are commonly used for photonic devices, including oxide, fluoride, chalcogenide and mixed anion glasses. Chapter 2 covers the important thermal, viscosity and physical properties of glasses which, by nucleation and crystal growth processes can be engineered for photonic device applications. In Chapter 3, bulk glass fabrication using melting and casting and sol-gel techniques are discussed along with the fabrication principles of glass-ceramic materials, sol-gel formation and sol-gel based glass fabrication. Chapter 4 introduces the standard geometrical optics for fibre optics, Maxwell's equation for modal analysis and its importance in fibre and waveguide optics. It concludes with a detailed discussion on refractive index and its dependence on compositions, density, temperature and stress. The relationship of these properties in controlling bulk optical properties is especially emphasized. The main emphasis of Chapter 5 is on the methods of thin film fabrication using physical and chemical vapour deposition and on pulsed laser deposition including ion implantation techniques. Chapter 6 starts with the classical radiative transition theory based on dipole models, and then explains the concept of dipoles and electron-phonon coupling. Emphasizing various quantum mechanical rules, it then discusses the radiative, non-radiative, energy transfer and upconversion processes. Finally, chapter 7 covers the photonic device applications of inorganic glasses, fibres and waveguides and concludes with a short discussion on the emerging opportunities in future for inorganic glasses"--

Fundamentals, Engineering, and Applications

Inorganic Glasses for Photonics

Animesh A. Jha

Books

Your next favorite book is out there