The Advanced Compton Telescope
Author(s) -
Steven E. Boggs,
J. D. Kurfess,
J. M. Ryan,
E. Aprile,
N. Gehrels,
M. Kippen,
Marc Leising,
U. Oberlack,
C. Wunderer,
Allen D. Zych,
Peter F. Bloser,
Michael J. Harris,
Andrew S. Hoover,
Alexei Klimenk,
D. Kocevski,
M. McConnell,
Peter Milne,
Elena I. Novikova,
Bernard F. Phlips,
M. Polsen,
Steven J. Sturner,
D. Tournear,
G. Weidenspointner,
E. Wulf,
Andreas Zoglauer,
Matthew G. Baring,
J. F. Beacom,
Lars Bildsten,
C. D. Dermer,
D. H. Hartmann,
M. Hernanz,
David M. Smith,
S. Starrfield
Publication year - 2006
Publication title -
proceedings of spie, the international society for optical engineering/proceedings of spie
Language(s) - English
Resource type - Conference proceedings
SCImago Journal Rank - 0.192
H-Index - 176
eISSN - 1996-756X
pISSN - 0277-786X
DOI - 10.1117/12.670605
Subject(s) - telescope , systems engineering , computer science , scientific instrument , key (lock) , remote sensing , astronomy , physics , aerospace engineering , engineering , computer security , geology
The Advanced Compton Telescope (ACT), the next major step in gamma-ray astronomy, will probe the fires where chemical elements are formed by enabling high-resolution spectroscopy of nuclear emission from supernova explosions. During the past two years, our collaboration has been undertaking a NASA mission concept study for ACT. This study was designed to (1) transform the key scientific objectives into specific instrument requirements, (2) to identify the most promising technologies to meet those requirements, and (3) to design a viable mission concept for this instrument. We present the results of this study, including scientific goals and expected performance, mission design, and technology recommendations.
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