C
Charles H. Townes
Researcher at University of California, Berkeley
Publications - 345
Citations - 19936
Charles H. Townes is an academic researcher from University of California, Berkeley. The author has contributed to research in topics: Infrared Spatial Interferometer & Interferometry. The author has an hindex of 62, co-authored 345 publications receiving 19318 citations. Previous affiliations of Charles H. Townes include University of California & University of California, Santa Cruz.
Papers
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Journal ArticleDOI
The optical depth of the 158 micron forbidden C-12 II line - Detection of the F = 1 - 0 forbidden C-13 II hyperfine-structure component
Gordon J. Stacey,Charles H. Townes,N. Geis,S. C. Madden,F. Herrmann,R. Genzel,Albrecht Poglitsch,James M. Jackson +7 more
TL;DR: The detection of the F = 1 - 0 hyperfine component of the 158-micron forbidden C-13 II fine-structure line in the interstellar medium is reported in this paper.
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Distribution of dust about Omicron Ceti and Alpha Orionis based on 11 micron spatial interferometry
TL;DR: Visibilities of ο Ceti and α Orionis have been measured at a wavelength of 11 μm by a two-element heterodyne interferometer with maximum baseline spacings of 4 and 13 m as mentioned in this paper.
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Sulfur Bonds and the Quadrupole Moments of O, S, and Se Isotopes
George R. Bird,Charles H. Townes +1 more
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Optical masers and their possible applications to biology.
TL;DR: The characteristics of optical masers, which can either amplify light waves or produce coherent oscillations at optical frequencies by use of stimulated emission from excited atoms or molecules, are pointed out.
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The Asymmetric dust environment of IK tauri
J. Weiner,K. Tatebe,David Hale,Charles H. Townes,John D. Monnier,Michael J. Ireland,Peter G. Tuthill,R. Cohen,Richard K. Barry,J. Rajagopal,William C. Danchi +10 more
TL;DR: In this article, the authors used the three-telescope Infrared Spatial Interferometer on Mount Wilson and also using individual segments of the Keck telescope for multiple-aperture interferometry at 10.7 μm.