This unique book shows how chemistry and physics come together in the solid state and on surfaces. Using a lively, graphic, descriptive approach, it teaches chemists the language that is necessary to understand the electronic structure of extended systems. And, at the same time, it demonstrates how a chemical, frontier-orbital, approach to solid state and surface bonding and reactivity may be constructed.
The book begins with the language of crystal orbitals, band structures and densities of states. The tools for moving back from the highly delocalized orbitals of the solid are then built up in a transparent manner; they include decompositions of the densities of states and crystal orbital overlap populations. Using these tools, the book shapes a meeting ground between detailed quantum mechanical calculations and a chemical frontier orbital perspec- tive. Applications include a general picture of chemisorption, bond-breaking and making in the solid state, bonding in metals, the electronic structure of selected conducting and supercon- ducting structures, dissociation, migration and coupling on surfaces and the forces controlling deformation of extended systems.
Roald Hoffmann (born Roald Safran; July 18, 1937) is an American theoretical chemist who won the 1981 Nobel Prize in Chemistry. He is the Frank H. T. Rhodes Professor of Humane Letters, Emeritus, at Cornell University, in Ithaca, New York.
Hoffmann graduated in 1955 from New York City's Stuyvesant High School, where he won a Westinghouse science scholarship. He received his Bachelor of Arts degree at Columbia University (Columbia College) in 1958. He earned his Master of Arts degree in 1960 from Harvard University. He earned his Doctor of Philosophy degree from Harvard University while working under direction of subsequent 1976 Nobel Prize in Chemistry winner William Lipscomb. Under Lipscomb's direction the Extended Hückel method was developed by Lawrence Lohr and by Roald Hoffmann. This method was later extended by Hoffmann. He went to Cornell in 1965 and has remained there, becoming professor emeritus.
Hoffmann has investigated both organic and inorganic substances, developing computational tools and methods such as the extended Hückel method, which he proposed in 1963.
He also developed, with Robert Burns Woodward, rules for elucidating reaction mechanisms (the Woodward–Hoffmann rules). He also introduced the isolobal principle.
In 1981, Hoffmann received the Nobel Prize in Chemistry, which he shared with Kenichi Fukui "for their theories, developed independently, concerning the course of chemical reactions".
Other awards:
Priestley Medal (1990) Arthur C. Cope Award in Organic Chemistry Organic Chemistry Award (American Chemical Society), 1969 Inorganic Chemistry Award (American Chemical Society), 1982 Pimentel Award in Chemical Education (1996) Award in Pure Chemistry Monsanto Award Literaturpreis of the Verband der Chemischen Industrie for his textbook The Same and Not The Same (1997) National Medal of Science National Academy of Sciences American Academy of Arts and Sciences Fellow American Philosophical Society Fellow Kolos Medal Foreign Member, Royal Society Member of the Royal Swedish Academy of Sciences Harvard Centennial Medalist James T. Grady-James H. Stack Award for Interpreting Chemistry
Hoffmann is member of the International Academy of Quantum Molecular Science and is a member of the Board of Sponsors of The Bulletin of the Atomic Scientists.
In August 2007, the American Chemical Society held a symposium at its biannual national meeting to honor Hoffmann's 70th birthday. He also has served as a consultant with Eli Lilly and Company, a global pharmaceutical corporation.
This book bridges the language gap between chemistry and condensed matter physics. Starting from the language that all chemists are comfortable with - that of molecular orbitals - Hoffman builds up the idea of bonding in extended structures (solids) as if a solid was just a giant molecule. This is done with a minimum of mathematics, mostly using simple and graphical representation. As a primer to the area of solid state chemistry, this book is invaluable. I'm not sure if physicists, starting from the other end of the language will find it as useful as a chemist, but it should be straightforward for them as well, giving them the chemist's point of view (language).
This is a short book that wisely does not try to exceed its boundaries, that of an introduction/overview. For a more mathematical treatment, I would suggest Burdett's "Chemical Bonding in Solids." If you only want an introduction written in plain language with lots of graphics, this is the book for you.