Springer Energy Limits in Computation: A Review of Landauer’s Principle, Theory and Experiments

This book is a single-source reference to the issues involved in the Landauer principle, which has gained new prominence recently, due to the large amount of heat generated by today’s computers. If Landauer’s principle is correct, there may be ways to build computers that dissipate far less power (corresponding to heat generated) than today’s computers. This book brings together all sides of the discussions regarding Landauer’s principle, both theoretical and experimental, empowering readers to gain better understanding of dissipation in computation, and the limits if any to progress in computation related to energy dissipation. It represents the best and most thorough examination of the important issue of Landauer’s principle that is available in one volume. Provides an in-depth investigation of the Landauer principle and how it relates to the possible existence of lower bounds on dissipation in computation; Gathers together both sides of the discussion: those who agree with Landauer and his conclusions, and those who think that Landauer was not correct, offering fresh perspective on the issues in the new light of experiments; Offers insight into the future of silicon CMOS and the limits if any to progress in computation related to energy dissipation. From the Back Cover This book is a single-source reference to the issues involved in the Landauer principle, which has gained new prominence recently, due to the large amount of heat generated by today’s computers. If Landauer’s principle is correct, there may be ways to build computers that dissipate far less power (corresponding to heat generated) than today’s computers. This book brings together all sides of the discussions regarding Landauer’s principle, both theoretical and experimental, empowering readers to gain better understanding of dissipation in computation, and the limits if any to progress in computation related to energy dissipation. It represents the best and most thorough examination of the important issue of Landauer’s principle that is available in one volume. Provides an in-depth investigation of the Landauer principle and how it relates to the possible existence of lower bounds on dissipation in computation; Gathers together both sides of the discussion: those who agree with Landauer and his conclusions, and those who think that Landauer was not correct, offering fresh perspective on the issues in the new light of experiments; Offers insight into the future of silicon CMOS and the limits if any to progress in computation related to energy dissipation. About the Author Craig S. Lent is the Frank M. Freimann Chair Professor of Engineering and Concurrent Professor of Physics at the University of Notre Dame.  He received his PhD in Solid State Physics in 1984 from the University of Minnesota. His field of research is quantum devices and molecular-scale devices. The current research of his group focusses on the fundamental theoretical limits imposed by physics on computing devices. For the past several years his group has been investigating these questions in the context of a new transistor-less paradigm known as Quantum-dot Cellular Automata (QCA), developed at Notre Dame and now the subject of research worldwide. Alexei O. Orlov received the M.S. degree in physics from the Moscow State University, Moscow, Russia, in 1983. He is currently a Research Professor at the University of Notre Dame, Notre Dame, IN, USA. From 1983 to 1993, he worked at the Institute of Radio Engineering and Electronics, Russian Academy of Sciences, Moscow, Russia. He received the Ph.D. degree in physics of  semiconductors and dielectrics from the same Institute in 1990. During that time, he conducted research on mesoscopic and quantum ballistic effects in electron transport of GaAs field-effect transistors. He was a Visiting Fellow at the University of Exeter, U.K. in 1993, and joined the Department of Electrical Engineering, Univ