The Lagrange approach to the theory of thermal hydrodynamic fluctuations is developed. The rotational motion of a Lagrange particle is studied in detail. The apparent expression for the angular velocity autocorrelation function (AVACF) at arbitrary times is derived. The obtained results are used to
Collective rotational motion in the N=Z nucleus 36Ar
✍ Scribed by C.E. Svensson; A.O. Macchiavelli; A. Juodagalvis; A. Poves; I. Ragnarsson; S. Åberg; D.E. Appelbe; R.A.E. Austin; C. Baktash; G.C. Ball; M.P. Carpenter; E. Caurier; R.M. Clark; M. Cromaz; M.A. Deleplanque; R.M. Diamond; P. Fallon; M. Furlotti; A. Galindo-Uribarri; R.V.F. Janssens; G.J. Lane; I.Y. Lee; M. Lipoglavšek; F. Nowacki; S.D. Paul; D.C. Radford; D.G. Sarantites; D. Seweryniak; F.S. Stephens; V. Tomov; K. Vetter; D. Ward; C.H. Yu
- Publisher
- Elsevier Science
- Year
- 2001
- Tongue
- English
- Weight
- 471 KB
- Volume
- 682
- Category
- Article
- ISSN
- 0375-9474
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