Advances in Quantum Chemistry: Theory of Confined Quantum Systems Part One

Author:   John R. Sabin (Professor of Physics and Chemistry Emeritus, University of Florida, and Adjungeret Professor, University of Southern Denmark) ,  Erkki J. Brändas (Department of Quantum Chemistry, Angstrom Laboratory, Uppsala University, Uppsala, Sweden)
Publisher:   Elsevier Science Publishing Co Inc
Edition:   57th edition
Volume:   Pt.1
ISBN:  

9780123747648


Pages:   690
Publication Date:   22 July 2009
Format:   Hardback
Availability:   In Print   Availability explained
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Advances in Quantum Chemistry: Theory of Confined Quantum Systems Part One


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Author:   John R. Sabin (Professor of Physics and Chemistry Emeritus, University of Florida, and Adjungeret Professor, University of Southern Denmark) ,  Erkki J. Brändas (Department of Quantum Chemistry, Angstrom Laboratory, Uppsala University, Uppsala, Sweden)
Publisher:   Elsevier Science Publishing Co Inc
Imprint:   Academic Press Inc
Edition:   57th edition
Volume:   Pt.1
Dimensions:   Width: 15.20cm , Height: 2.10cm , Length: 22.90cm
Weight:   0.610kg
ISBN:  

9780123747648


ISBN 10:   0123747643
Pages:   690
Publication Date:   22 July 2009
Audience:   College/higher education ,  Postgraduate, Research & Scholarly
Format:   Hardback
Publisher's Status:   Active
Availability:   In Print   Availability explained
This item will be ordered in for you from one of our suppliers. Upon receipt, we will promptly dispatch it out to you. For in store availability, please contact us.

Table of Contents

Properties of confined hydrogen and helium atoms (S. Patil and Y.P. Varshni) Exact relations for confined one-electron systems (K.D. Sen, V.I. Pupyshev, and H.E. Montgomery Jr.) The hydrogen atom confined in semi-infinite spaces limited by conoidal boundaries (E. Ley-Koo) The hydrogen and helium atoms confined in spherical boxes (N. Aquino) Exact solutions for confined model systems using Kummer functions (B.L. Burrows and M. Cohen) Perturbation theory for a hydrogen-like atom confined within an impenetrable spherical cavity (C. Laughlin) Comparative study between the Hartree-Fock and Kohn-Sham models for the lowest singlet and triplet states of the confined helium atom (J. Garza and R. Vargas) Thomas-Fermi-Dirac-Weizsäcker density functional formalism applied to the study of many-electron atom confinement by open and closed boundaries (S.A. Cruz) Confined atoms treated as open quantum systems (R.F.W. Bader) Modeling pressure effects on the electronic properties of Ca, Sr and Ba by the confined atom model (D. Guerra, R. Vargas, P. Fuentealba, and J. Garza) Photoionization of atoms encaged in spherical fullerenes (V.K. Dolmatov) DFT study of molecules confined inside fullerene and fullerene-like cages (O.P. Charkin, N.M. Klimenko, and D.O. Charkin) Spectroscopy of confined atomic systems: effect of plasma (A.N. Sil, S. Canuto and P.K. Mukherjee) The energy level structure of low-dimensional multi-electron quantum dots (T. Sako, J. Paldus and G.H.F. Diercksen) Engineering quantum confined silicon nanostructures: ab-initio study of the structural, electronic and optical properties (E. Degoli and S. Ossicini)

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I was born in Springfield, Mass, and Educated at Williams College (BA) and the University of New Hampshire (PhD). Following that, I was a postdoctoral at Uppsala University in Sweden, and at Northwestern University in Evanston. For the past four decades, I have worked in the Quantum Theory Project, Department of Physics, at the University of Florida. My interests have always been in the theory of molecular electronic structure. More recently, I have been working on the interaction of fast particles, mostly protons and alpha particles, with proto-biological molecules, in terms of the transfer of energy from the projectile to the molecular target, and the outcome of that energy transfer. Such energy transfer is primarily electronic, and the initial electronic excitation results in target electronic and vibrational excitation, ionization, fragmentation, charge exchange, and other processes. The study of these processes, known as stopping power, has applications in fields from microelectronics to tumor therapy. The investigations are interesting and continue.

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