Novel system performance through nanostructuring has been recognized in many branches of science in the latter half of the 20th century. In computer science, the computational efficiency has improved by nearly four orders of magnitude in 30 years, using energy consumed per operation as a metric.
This book is a text on novel nanocrystalline alloys and magnetic nanomaterials arising out of presentations given at the fourth Oxford–Kobe Materials Seminar, held at the Kobe Institute on 11–14 September 2001.
The World is confronted with a plethora of potentially disruptive technologies – some, such as nanotechnology, will inevitably challenge our cherished social, economic and industrial stability over the next two decades. Rational design and manufacture of materials properties through nanostructure control will profoundly affect the food we eat, the sources of water and power we use,
In the last decade, we have witnessed a rapid growth in research and development of nanotechnology, especially nanostructured materials. Nanoporous materials as an important class of nanostructured materials possess high specific surface area, large pore volume, uniform pore size, and rich surface chemistry.
Nanomaterials Handbook is designed specifically to provide an overview of nanomaterials for today’s scientists, graduate students, and engineering professionals. The study of nanomaterials, which are materials with structural units (grains or particles) on a nanometer scale in at least one direction, is the fastest growing area in material science and engineering.
Semiconductor nanostructures are currently one of the largest and most exciting areas in solid state physics. Low-dimensional electron systems (realized in semiconductor quantum structures) are particularly appealing because they allow one to study many-particle effects in reduced dimensions.
Today, the ultrasonic signal is being used for predicting material behavior, characterizing (detecting internal anomalies in) a variety of engineering structures, as well as for inspecting human body parts like tumors, bones, and unborn fetuses. Because of the ever-increasing popularity of the ultrasonic techniques in a wide range of applications, this technology has received a lot of attention from the research community.
It is hard to imagine that less than fifteen years ago building and fire codes specific to the construction of a wafer fabrication facility were just in the process of being developed.
At last the book is finished – and I have now been asked to put my mind to the Preface! It occurs to me that writing a Preface is a unique art form. Admittedly, after limited research into Preface-writing, I propose, like innumerable authors before me, to start with the usual whinge
Many people in the field of microelectromechanical systems (MEMS) share the belief that a revolution is under way. As MEMS begin to permeate more and more industrial procedures, not only engineering but society as a whole will be strongly affected.
