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Overview of Multiple–Aperture Interferometry Binary Star Results from the Northern Hemisphere

Published online by Cambridge University Press:  12 July 2007

Harold A. McAlister
Harold A. McAlister*
Affiliation:
Center for High Angular Resolution Astronomy, Georgia State University, Atlanta, GA, USA email: [email protected]
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Abstract

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Long-baseline optical interferometry (LBI) can nearly close the gap in selection space between astrometric and spectroscopic detection of binary star systems, bringing the complementary powers of astrometry and spectroscopy to bear on a complete dynamical understanding of such systems, particularly including the determination of the masses of the individual stellar components. In the case of double-lined spectroscopic systems, their resolution by long-baseline interferometry also yields the orbital parallax and hence the luminosities of the individual stars. In some of these cases, the angular diameters of one or more components are accessible, and so a complete specification of a star in terms of its mass, radius and luminosity is made.

The northern hemisphere is now equipped with several interferometers of unprecedented capability in terms of their baseline sizes, numbers of telescopes and telescope apertures. These instruments, most notably the Palomar Testbed Interferometer at Mt. Palomar Observatory, have produced very significant results of a number of interesting systems fulfilling interferometry's promise to produce fundamental astrophysical data at levels of accuracy that challenge or confirm astrophysical theory.

This paper presents basic principles of long-baseline interferometric study of binary stars and summarizes results from northern interferometers with specific examples of their broad impact on binary star astronomy.

Keywords

instrumentation: high angular resolutioninstrumentation: interferometersstars: binarystars: fundamental parameters
Type
Contributed Papers
Information
Proceedings of the International Astronomical Union , Volume 2 , Symposium S240: Binary Stars as Critical Tools & Tests in Contemporary Astrophysics , August 2006 , pp. 35 - 44
Copyright
Copyright © International Astronomical Union 2007

References

Anderson, J.A. 1920, ApJ 51, 263 CrossRefGoogle Scholar
Armstrong, J.T., Mozurkewich, D., Vivekanand, M., Simon, R.S., Denison, C.S., Johnston, K.J., Pan, X.P., Shao, M., & Colavita, M.M. 1992, AJ 104, 241 CrossRefGoogle Scholar
Armstrong, J.T., Hummel, C.A., Quirrenbach, A., Buscher, D.F., Mozurkewich, D., Vivekanand, M., Simon, R.S., Denison, C.S. & Johnston, K.J. 1992, AJ 104, 2217 CrossRefGoogle Scholar
Armstrong, J.T., Mozurkewich, D., Hajian, A.R., Johnston, K.J., Thessin, R.N., Peterson, D.M., Hummel, C.A. & Gilbreath, G.C. 2006, AJ 131, 2463 CrossRefGoogle Scholar
Bagnuolo, W.G., Taylor, S.F., McAlister, H.A., ten Brummelaar, T.A., Gies, D.R., Ridgway, S.T., Sturmann, J. Sturmann, J., Turner, N.H. & Berger, D.H. 2006, AJ 131, 2695 CrossRefGoogle Scholar
Baldwin, J.E., Beckett, M.G., Boysen, R.C., Burns, D., Buscher, D.F., Cox, G.C., Haniff, C.A., Mackay, C.D., Nightingale, N.S., Rogers, J., Scheuer, P.A.G., Scott, T.R., Tuthill, P.G., Warner, P.J., Wilson, D.M.A., & Wilson, R.W. 1996, A&A 306, L13 Google Scholar
Bennett, P.D., Harper, G.M., Brown, A., & Hummel, C.A. 1996, ApJ 471, 454 CrossRefGoogle Scholar
Benson, J.A., Hutter, D.J., Elias, N.M., Bowers, P.F., Johnston, K.J., Hajian, A.R., Armstrong, J.T., Mozurkewich, D., Pauls, T.A., Rickard, L.J., Hummel, C.A., White, N.M., Black, D. & Denison, C.S. 1997, AJ 114, 1221 CrossRefGoogle Scholar
Boden, A.F., van Belle, G.T., Colavita, M.M., Dumont, P.J., Gubler, J., Koresko, C.D., Kulkarni, S.R., Lane, B.F., Mobley, D.W., Shao, M., & Wallace 1998, ApJ 504, L39 CrossRefGoogle Scholar
Boden, A.F., Koresko, C.D., van Belle, G.T., Colavita, M.M., Dumont, P.J., Gubler, J., Kulkarni, S.R., Lane, B.F., Mobley, D., Shao, M., & Wallace, J.K. 1999, ApJ 527, 360 CrossRefGoogle Scholar
Boden, A.F., Lane, B.F., Creech-Eakman, M.J., Colavita, M.M., Dumont, P.J., Gubler, J., Koresko, C.D., Kuchner, M.J., Kulkarni, S.R., Mobley, D.W., Pan, X.P., Shao, M., van Belle, G.T., Wallace, J.K. & Oppenheimer, B.R. 1999, ApJ 527, 360 CrossRefGoogle Scholar
Boden, A.F., Creech-Eakman, M.J. & Queloz, D. 2000, ApJ 536, 880 CrossRefGoogle Scholar
Boden, A.F., Torres, G., & Hummel, C.A. 2005, ApJ 627, 464 CrossRefGoogle Scholar
Boden, A.F., Sargent, A.I.; Akeson, R.L., Carpenter, J.M., Torres, G., Latham, D.W., Soderblom, D.R., Nelan, E., Franz, O.G., & Wasserman, L.H. 2005, ApJ 635, 442 CrossRefGoogle Scholar
Boden, A.F., Torres, G., & Latham, D.W. 2006, ApJ 644, 1193 CrossRefGoogle Scholar
Finsen, W.S. 1964, AJ 69, 319 CrossRefGoogle Scholar
Hanbury, B rown, R., Davis, J., & Allen, L.R. 1974, MNRAS 167, 121 CrossRefGoogle Scholar
Harmanec, P., Morand, F., Bonneau, D., Jiang, Y., Yang, S., Guinan, E.F., Hall, D.S., Mourard, D., Hadrava, P., Božić, H., Sterken, C., Tallon-Bose, I., Walker, G.A.H., McCook, G.P., Vakili, F., Stee, Ph., & Le Contel, J.M. 1996, A&A 312, 879 Google Scholar
Hummel, C.A., Armstrong, J.T., Quirrenbach, A., Buscher, D.F., Mozurkewich, D., Simon, R.S., & Johnston, K.J. 1993, AJ 106, 2486 CrossRefGoogle Scholar
Hummel, C.A., Armstrong, J.T., Quirrenbach, A., Buscher, D.F., Mozurkewich, D., & Elias, N.M. 1994, AJ 107, 1859 CrossRefGoogle Scholar
Hummel, C.A., Armstrong, J.T., Buscher, D.F., Mozurkewich, D., Quirrenbach, A., & Vivekanand, M. 1995, AJ 110, 376 CrossRefGoogle Scholar
Hummel, C.A., Mozurkewich, D., Armstrong, J.T., Hajian, A.R., Elisa, N.M., & Hutter, D.J. 1998, AJ 116, 2536 CrossRefGoogle Scholar
Hummel, C.A., White, N.M., Elias, N.M., Hajian, A.R. & Nordgren, T.E. 2000, ApJ 549 L93 Google Scholar
Hummel, C.A., Carquillat, J.-M., Ginestet, N., Griffin, R.F., Boden, A.F., Hajian, A.R., Mozurkewich, D., & Nordgren, T.E. 2001, AJ 121, 1623 CrossRefGoogle Scholar
Hummel, C.A., Benson, J.A., Hutter, D.J., Johnston, K.J., Mozurkewich, D., Armstrong, J.T., Hindsley, R.B., Gilbreath, G.C., Rickard, L.J., & White, N.M. 2003, AJ 125, 2630 CrossRefGoogle Scholar
Konacki, M., & Lane, B.F. 2004, ApJ 610, 443 CrossRefGoogle Scholar
Koresko, C.D., van Belle, G.T., Boden, A.F., Colavita, M.M., Creech-Eakman, M.J., Dumont, P.J., Gubler, J., Kulkarni, S.R., Lane, B.F., Mobley, D.W., Pan, X.P., Shao, M., & Wallace, J.K. 1998 ApJ 509, L45 CrossRefGoogle Scholar
Kraus, S., Schloerb, F.P., Traub, W.A., Carleton, N.P., Lacasse, M., Pearlman, M., Monnier, J.D., Millan-Gabet, R., Berger, J.-P., Hanuenauer, P., Perraut, K., Kern, P., Malbet, F., & Labeye, P. 2005, AJ 130, 246 CrossRefGoogle Scholar
Lane, B.F., & Muterspaugh, M.W. 2004, ApJ 601, 1129 CrossRefGoogle Scholar
McAlister, H.A. 1976, PASP 88, 317 CrossRefGoogle Scholar
McAlister, H.A. 1982, AJ 87, 563 CrossRefGoogle Scholar
Merrill, P.W. 1922, ApJ 56, 40 CrossRefGoogle Scholar
Monnier, J.D., Traub, W.A., Schloerb, F.P., Millan-Gabet, R., Berger, J.-P., Pedretti, E., Carleton, N.P., Kraus, S., Lacasse, M.G., Brewer, M., Ragland, S., Ahearn, A., Coldwell, C., Haguenauer, P., Kern, P., Labeye, P., Lagny, L., Malbet, F., Malin, D., Maymounkov, P., Morel, S., Papaliolios, C., Perraut, K., Perlman, M., Porro, I.L., Schanen, I., Souccar, K., Torres, G., & Wallace, G. 2004, ApJ 602, L57 CrossRefGoogle Scholar
Muterspaugh, M.W., Lane, B.F., Konacki, M., Wiktorowicz, S., Burke, B.F., Colavita, M.M., Kulkarni, S.R., & Shao, M. 2005, AJ 130, 2866 CrossRefGoogle Scholar
Muterspaugh, M.W., Lane, B.F., Konacki, M., Wiktorowicz, S., Burke, B.F., Colavita, M.M., Kulkarni, S.R., & Shao, M. 2006a, ApJ 636, 1020 CrossRefGoogle Scholar
Muterspaugh, M.W., Lane, B.F., Konacki, M., Wiktorowicz, S., Burke, B.F., Colavita, M.M., Kulkarni, S.R., & Shao, M. 2006b, A&A 446, 723 Google Scholar
Pan, X.P., Shao, M., Colavita, M.M., Mozurkewich, D., Simon, R.S., & Johnston, K.J. 1990, ApJ 356, 641 CrossRefGoogle Scholar
Pan, X., Shao, M., Colavita, M.M., Armstrong, J.T., Mozurkewich, D., Vivekanand, M., Denison, C.S., Simon, R.S., & Johnston, K.J. 1992 ApJ 384, 624 CrossRefGoogle Scholar
Pan, X., Shao, M., & Colavita, M.M. 1993, ApJ 413, L129 CrossRefGoogle Scholar
Pan, X.P., Shao, M., & Kulkarni, S.R. 2004, Nature 427, 326 CrossRefGoogle Scholar
Pease, F.G. 1925, PASP 37, 155 CrossRefGoogle Scholar
Pease, F.G. 1927, PASP 39, 313 CrossRefGoogle Scholar
Taylor, S.F., Harvin, J.A., & McAlister, H.A. 2003, PASP 115, 609 CrossRefGoogle Scholar
Torres, G., Boden, A.F., Latham, D.W., Pan, M., & Stefanik, R.P. 2002, AJ 124, 1717 CrossRefGoogle Scholar
Vinter-Hansen, J.M. 1942, PASP 54, 137 CrossRefGoogle Scholar