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Many-Particle Spectroscopy of Atoms, Molecules, Clusters, and Surfaces

  • J. Berakdar
  • J. Kirschner

Table of contents

  1. Front Matter
    Pages i-x
  2. Coincidence Studies on Atoms and Ions I: Single Ionization/Excitation Processes

    1. Front Matter
      Pages 1-1
    2. S. Mazevet, J. Berakdar, J. Lower, E. Weigold
      Pages 15-25
    3. Yu. V. Popov, L. U. Ancarani
      Pages 57-69
    4. Vladimir L. Shablov, Victor A. Bilyk, Yuri V. Popov
      Pages 71-80
    5. Peter J. P. Roche, Satoyuki Kawano, Colm T. Whelan, J. Rasch, H. R. J. Walters, R. J. Allan et al.
      Pages 81-90
    6. Marco Kampp, Colm T Whelan, N C Pyper, H R J Walters, R M Dreizler, H-J Ast et al.
      Pages 91-98
    7. U Lechner, S Keller, H J Lüdde, E Engel, R M Dreizler
      Pages 99-111
    8. S. Mazevet, G. Nguyen Vien, J. Langlois, R. J. Tweed, O. Robaux, C. Tannous et al.
      Pages 113-125
    9. Matthew A. Haynes, Birgit Lohmann
      Pages 127-134
    10. P. Bolognesi, S. J. Cavanagh, L. Avaldi, R. Camilloni, G. Dawber, M. C. A. Lopes et al.
      Pages 163-172
    11. W. R. Cravero, M. D. Sanchez, G. Gasaneo, F. D. Colavecchia, C. R. Garibotti
      Pages 189-201
  3. Coincidence Studies on Atoms and Ions II: Multiple Ionization/Excitation Processes

    1. Front Matter
      Pages 213-213
    2. A. S. Kheifets, A. Ipatov, Igor Bray
      Pages 215-229
    3. J. Rasch, Pascale Marchalant, Colm T. Whelan, H. R. J. Walters
      Pages 231-243
    4. A. Lahmam-Bennani, A. Duguet, I. Taouil, M. N. Gaboriaud
      Pages 245-257
    5. A. Dorn, B. Najjari, R. Moshammer, C. Höhr, C. D. Schröter, J. Ullrich et al.
      Pages 259-270
    6. John H. Moore, Michael A. Coplan, John P. Doering
      Pages 271-282
    7. V. V. Balashov, I. V. Bodrenko, A. Lahmam-Bennani
      Pages 283-289
    8. Yu V. Popov, C. Dal Cappello, L. U. Ancarani
      Pages 291-306
    9. Pascale J. Marchalant, Colm T. Whelan, J. Rasch, H. R. J. Walters, Don H. Madison
      Pages 307-317
    10. John Ludlow, H. R. J. Walters
      Pages 319-329
  4. Many-Particle Spectroscopy of Molecules and Clusters

    1. Front Matter
      Pages 341-341
    2. P. Bolognesi, G. Alberti, R. Flammini, E. Fainelli, S. Stranges, B. D. Thompson et al.
      Pages 343-352
    3. S. Martin, R. Bredy, J. Bernard, L. Chen, J. Désesquelles
      Pages 381-393
    4. O. Kidun, J. Berakdar
      Pages 395-403
  5. Correlation and Electronic Structure of Solids and Surfaces Studied by Coincidence Techniques

    1. Front Matter
      Pages 405-405
    2. Reiner M Dreizler
      Pages 407-415
    3. Erich Weigold, Maarten Vos
      Pages 417-433
    4. Roland Feder, Herbert Gollisch, Thomas Scheunemann, Jamal Berakdar, Jürgen Henk
      Pages 435-449
    5. Konstantin A. Kouzakov, Yuri V. Popov
      Pages 451-459
    6. N. Fominykh, J. Henk, J. Berakdar, P. Bruno, H. Gollisch, R. Feder
      Pages 461-470
    7. N. Fominykh, J. Berakdar
      Pages 481-491
    8. J. P. Salas, N. S. Simonović
      Pages 493-502
  6. Back Matter
    Pages 503-518

About this book

Introduction

Since the early days of modem physics spectroscopic techniques have been employed as a powerful tool to assess existing theoretical models and to uncover novel phenomena that promote the development of new concepts. Conventionally, the system to be probed is prepared in a well-defined state. Upon a controlled perturbation one measures then the spectrum of a single particle (electron, photon, etc.) emitted from the probe. The analysis of this single particle spectrum yields a wealth of important information on the properties of the system, such as optical and magnetic behaviour. Therefore, such analysis is nowadays a standard tool to investigate and characterize a variety of materials. However, it was clear at a very early stage that real physical compounds consist of many coupled particles that may be excited simultaneously in response to an external perturbation. Yet, the simultaneous (coincident) detection of two or more excited species proved to be a serious technical obstacle, in particular for extended electronic systems such as surfaces. In recent years, however, coincidence techniques have progressed so far as to image the multi-particle excitation spectrum in an impressive detail. Correspondingly, many-body theoretical concepts have been put forward to interpret the experimental findings and to direct future experimental research. This book gives a snapshot of the present status of multi-particle coincidence studies both from a theoretical and an experimental point of view. It also includes selected topical review articles that highlight the achievements and the power of coincident techniques.

Keywords

ARF Cross section cluster collision molecule particles scattering spectra

Editors and affiliations

  • J. Berakdar
    • 1
  • J. Kirschner
    • 1
  1. 1.Max-Planck Institute for Microstructure PhysicsHalleGermany

Bibliographic information

  • DOI https://doi.org/10.1007/978-1-4615-1311-7
  • Copyright Information Springer Science+Business Media New York 2001
  • Publisher Name Springer, Boston, MA
  • eBook Packages Springer Book Archive
  • Print ISBN 978-1-4613-5491-8
  • Online ISBN 978-1-4615-1311-7
  • Buy this book on publisher's site