Oded Regev (physicist)
|Known for||Astrophysical fluid dynamics|
|Fields||Physics, fluid dynamics|
|Doctoral advisor||Giora Shaviv|
|Notable students||Noam Soker, Nir Shaviv|
Oded Regev (born 1946) is a physicist and astrophysicist, professor emeritus of the Technion, Israel Institute of Technology. He is best known for his theoretical application of fluid dynamics and dynamical systems theory to astrophysics.
Regev was born in Poland and emigrated to Israel in 1958. His academic career was mainly in Israel. He studied physics and mathematics at the Hebrew University of Jerusalem, with graduate studies and a Ph.D. at Tel Aviv University, and became a faculty member at the Technion – Israel Institute of Technology. During his studies he served four years in the Israel Defense Forces and continued to serve in the reserve units, reaching the rank of major. In 2002 he moved to the US.
His early numerical calculations (with G. Shaviv) of a rotating gas sphere gravitational collapse (1980) were the first to show that a central object (a star) is formed surrounded by a protoplanetary disk-like nebula, provided turbulent viscosity is included. Together with J.R. Buchler he found a simplistic model of a stellar oscillator that exhibited chaotic pulsation. This oscillator was later found to be related to the Moore-Spiegel oscillator.
In his later years he concentrated on theory of accretion disks applying mathematical approximation methods that were novel to astrophysics. He investigated instabilities of accretion disks that may give rise to angular momentum transport, excluding the possibility that the magneto-rotational instability may develop beyond linear stage in thin, disks with very low magnetic Prandtl number as such structures usually are.
Regev is the author of :
- Physics with Answers: 500 Problems and Solutions (with Andrew R. King, Cambridge University Press, 1997)
- Chaos and Complexity in Astrophysics (Cambridge University Press, 2010)
- Asymptotic Approximation Methods in Astrophysical Fluid Dynamics: Techniques and Example Applications (with Orkan M. Umuthan, VDM Verlag, 2010)
- Modern Fluid Dynamics for Physics and Astrophysics (with Orkan M. Umurhan and Philip A. Yecko, Graduate Texts in Physics, Springer, 2016)
- Shu, Frank H. (1982). The Physical Universe. University Science Books. pp. 475–477. ISBN 9780935702057.
- Shatzman, Evry L. & Praderie, Francoise (1990). The Stars. pp. 287–291. ISBN 3540541969.
- Abramowicz, Marek A.; Chen, Xingming; Kato, Shoji; Lasota, Jean-Pierre; Regev, Oded (1995). "Thermal equilibria of accretion disks". The Astrophysical Journal. 438: L37. arXiv:astro-ph/9409018. Bibcode:1995ApJ...438L..37A. doi:10.1086/187709. S2CID 2544869.
- Regev, Oded (2008). "Hydrodynamical Activity in Thin Accretion Disks". New Astronomy Rev. 51 (10–12): 819–827. arXiv:0801.0699. Bibcode:2008NewAR..51..819R. doi:10.1016/j.newar.2008.03.011. S2CID 16101827.
- Review of Physics with Answers:
- Bustad, Johnny (1999), "Review", Elementa : Tidskrift för Matematik, Fysik och Kemi, 82: 97
- Reviews of Chaos and Complexity in Astrophysics:
- Heggie, D. C. (December 2006), The Observatory: A Review of Astronomy, 126 (1195): 429, Bibcode:2006Obs...126..429HCS1 maint: untitled periodical (link)
- Livio, Mario (September 2007). Physics Today. 60 (9): 71–72. arXiv:0705.2251. Bibcode:2007PhT....60i..71R. doi:10.1063/1.2784688. S2CID 42513602.CS1 maint: untitled periodical (link)
- Weiss, Nigel (September 2008). Theoretical and Computational Fluid Dynamics. 22 (6): 485–487. Bibcode:2008ThCFD..22..485W. doi:10.1007/s00162-008-0088-z. S2CID 123559831.CS1 maint: untitled periodical (link)
- Peters, Thomas (February 2013), Contemporary Physics, 54 (1): 60–61, Bibcode:2013ConPh..54R..60P, doi:10.1080/00107514.2012.756937, S2CID 123977054CS1 maint: untitled periodical (link)
- Review of Modern Fluid Dynamics for Physics and Astrophysics: