000 | 02100 a2200253 4500 | ||
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005 | 20190807112956.0 | ||
008 | 190807b xxu||||| |||| 00| 0 eng d | ||
020 | _a9781498725774 | ||
040 | _cIIT Kanpur | ||
041 | _aeng | ||
082 |
_a522.682 _bSn27f |
||
100 | _aSnell, Ronald L. | ||
245 |
_aFundamentals of radio astronomy _bastrophysics _cRonald L. Snell, Stanley Kurtz and Jonathan Marr |
||
260 |
_bCRC Press _c2019 _aBoca Raton |
||
300 | _axiii, 346p | ||
440 | _aSeries in astronomy and astrophysics | ||
490 | _a/ edited by M. Birkinshaw | ||
520 | _aAs demonstrated by five Nobel Prizes in physics, radio astronomy has contributed greatly to our understanding of the Universe. Courses covering this subject are, therefore, very important in the education of the next generation of scientists who will continue to explore the Cosmos. This textbook, the second of two volumes, presents an extensive introduction to the astrophysical processes that are studied in radio astronomy. Suitable for undergraduate courses on radio astronomy, it discusses the physical phenomena that give rise to radio emissions, presenting examples of astronomical objects, and illustrating how the relevant physical parameters of astronomical sources can be obtained from radio observations. Unlike other radio astronomy textbooks, this book provides students with an understanding of the background and the underlying principles, with derivations available for most of the equations used in the textbook. Features: Presents a clear and concise discussion of the important astronomical concepts and physical processes that give rise to both radio continuum and radio spectral line emission Discusses radio emissions from a variety of astronomical sources and shows how the observed emissions can be used to derive the physical properties of these sources Includes numerous examples using actual data from the literature | ||
650 | _aRadio astronomy | ||
650 | _aAstrophysics. | ||
700 | _aKurtz, Stanley E. | ||
700 | _aMarr, Jonathan M. | ||
942 | _cBK | ||
999 |
_c560535 _d560535 |