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<p>1 Boolean algebra</p> <p>2 Group theory</p> <p>3 Reversible computing</p> <p>4 Low-power computing</p> <p>5 Analog computing</p> <p>6 Computing modulo 2b</p> <p>7 Quantum computing</p> <p>8 Reversible programming languages</p> <p>APPENDICES</p> <p>A The number of linear reversible gates</p> <p>B Bounds for the q -factorial</p> <p>C A theorem about universal reversible gates</p> <p>D Optimal syntheses</p> <p>E A remarkable theorem from combinatorics</p> <p>F Micro and macro entropy</p>

<p>"It describes reversible computing from various points of view: Boolean algebra, group theory, logic circuits, low-power electronics, communication, software, quantum computing. It is this multidisciplinary approach that makes it unique." (<i>Storage</i>, 15 February 2011)</p>

<p><b>Alexis De Vos</b> received his Ph.D. degree in applied sciences from the University of Ghent, Belgium, in 1979. He currently holds posts as part-time system engineer at the Flemish Interuniversity Microelectronics Research Centre (Imec), and as part-time professor at the epartment of Electronics and Information Systems (Elis) of the University of Ghent (UGent). His research focuses<br />on material science (polymers, semiconductors, metals, liquid crystals), microelectronics (thin films and chips), and energy sciences (thermodynamics, solar energy, endoreversible engines, reversible and quantum computing). He has authored numerous papers and articles. He is author, co-author and coeditor of several books, e.g. the book Thermodynamics of solar energy conversion (Wiley-VCH, 2008).</p>

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