- Print ISBN 9781455731763
- Electronic ISBN 9781455731787
It is widely acknowledged that nanomaterials and nano-scale engineering will play a pivotal role in the energy technologies that are needed to address the global challenge of producing plentiful, sustainable energy for the century ahead. Arepalli explores the role of nanomaterials the development of both inexpensive, large-scale renewable energy and in clean and efficient fossil fuel based technologies.
Nanomaterials for Energy provides readers with a working knowledge of the synthesis, processing and applications of nanomaterials utilized in the generation, transmission and storage of energy. The author explains the ways in which nanomaterials are being used to improve existing energy systems, and explores how new energy systems and technologies are being made possible by the use of nanomaterials. Case studies are provided throughout, to show how the scientific principles and engineering approaches are being put into action.
Covering technologies for electricity generation (e.g. solar cells and fuel cells), energy storage (e.g. hydrogen storage, batteries and supercapacitors), energy transmission (e.g. superconductors and smart grids) and energy conservation, readers are led through the wide range of applications for nanomaterials in the renewable and conventional energy sectors. Oil and gas, nuclear energy, wind energy, solar power and geothermal energy are covered. The environmental impact, toxicity and broader health & safety aspects of nanomaterials are also investigated. The synthesis and characterization of the nanomaterials utilized in energy applications is explained in detail.
This book assumes a basic undergraduate-level background in physics and chemistry, but is accessible to a wide audience of engineers, scientists, technicians, technical managers, energy systems planners and those involved in the selection, deployment and advocacy of renewable energy systems.
Engineers, scientists and
technicians involved in the design,
deployment and planning of energy
systems, including government
research agencies, corporate R&D
groups, energy companies and
academic research groups.
Graduate and upper-level
undergraduate students of e
Chapter 1: Nanomaterials
Chapter 2: Properties of
Chapter 3: Energy and power
Chapter 5: Nanomaterials for
Chapter 6: Nanomaterials for
Chapter 7: Nanomaterials for
Chapter 8: Environmental impacts
Chapter 9: Toxicological effects of
Chapter 10: Safe handling, storage
and transfer of nanomaterials
Chapter 11: Nanomaterials for
Chapter 12: Future of
nanomaterials and energy policies