Random matrices and chaos in nuclear physics: Nuclear reactions

By G. Mitchell, A. Richter, H. A. Weidenmüller. 2010

159 citations recorded by the source corpus.

The application of random-matrix theory (RMT) to compound-nucleus (CN) reactions is reviewed. An introduction into the basic concepts of nuclear scattering theory is followed by a survey of phenomenological approaches to CN scattering. The implementation of a random-matrix approach into scattering theory leads to a statistical theory of CN reactions. Since RMT applies generically to chaotic quantum systems, that theory is, at the same time, a generic theory of quantum chaotic scattering. It uses a minimum of input parameters (average S matrix and mean level spacing of the CN). Predictions of the theory are derived with the help of field-theoretical methods adapted from condensed-matter physics and compared with those of phenomenological approaches. Thorough tests of the theory are reviewed, as are applications in nuclear physics, with special attention given to violation of symmetries (isospin and parity) and time-reversal invariance.

Subfields: Nuclear and High Energy Physics, Statistical and Nonlinear Physics

View Paper: https://www.semanticscholar.org/paper/9a8c661e707588f637c54c8232a4eb38ecc4be5d

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In Nuclear and High Energy Physics

  1. L. Grigorenko
  2. M. Pfützner
  3. Sylvain Gigan
  4. Karsten Riisager
  5. S. Rotter
  6. M. Karny

In Statistical and Nonlinear Physics

  1. Aneta Stefanovska
  2. Sylvain Gigan
  3. S. Rotter

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