The Large Observatory for X-ray Timing (LOFT)

被引:0
作者
M. Feroci
L. Stella
M. van der Klis
T. J. -L. Courvoisier
M. Hernanz
R. Hudec
A. Santangelo
D. Walton
A. Zdziarski
D. Barret
T. Belloni
J. Braga
S. Brandt
C. Budtz-Jørgensen
S. Campana
J. -W. den Herder
J. Huovelin
G. L. Israel
M. Pohl
P. Ray
A. Vacchi
S. Zane
A. Argan
P. Attinà
G. Bertuccio
E. Bozzo
R. Campana
D. Chakrabarty
E. Costa
A. De Rosa
E. Del Monte
S. Di Cosimo
I. Donnarumma
Y. Evangelista
D. Haas
P. Jonker
S. Korpela
C. Labanti
P. Malcovati
R. Mignani
F. Muleri
M. Rapisarda
A. Rashevsky
N. Rea
A. Rubini
C. Tenzer
C. Wilson-Hodge
B. Winter
K. Wood
G. Zampa
机构
[1] INAF/IASF-Roma,Astronomical Institute Anton Pannekoek
[2] INFN Roma Tor Vergata,ISDC
[3] INAF/OAR,DPNC
[4] University of Amsterdam,Institute of Astronomy
[5] Geneva University,FINCA
[6] IEEC-CSIC,undefined
[7] Czech Technical University,undefined
[8] Tuebingen University,undefined
[9] MSSL-UCL,undefined
[10] N. Copernicus Astronomical Center,undefined
[11] IRAP,undefined
[12] INAF/OA Brera,undefined
[13] INPE,undefined
[14] DTU Space,undefined
[15] SRON,undefined
[16] Helsinki University,undefined
[17] Geneva University,undefined
[18] NRL,undefined
[19] INFN,undefined
[20] INAF Headquarters,undefined
[21] Thales-Alenia,undefined
[22] Politecnico Milano,undefined
[23] MIT,undefined
[24] INAF/IASF-Bologna,undefined
[25] Pavia University,undefined
[26] University of Zielona Góra,undefined
[27] ENEA Frascati,undefined
[28] NASA/MSFC,undefined
[29] Goteborg University,undefined
[30] Sabanci University,undefined
[31] INFN,undefined
[32] Palermo University,undefined
[33] Padova University,undefined
[34] LAM—Laboratoire d’Astrophysique de Marseille,undefined
[35] Middle East Technical University,undefined
[36] Observatoire Astronomique de Strasbourg,undefined
[37] Cagliari University,undefined
[38] Prague Astron. Institute,undefined
[39] Cambridge University,undefined
[40] Southampton University,undefined
[41] CEA Saclay,undefined
[42] INAF/OA Cagliari,undefined
[43] INAF/IASF-Palermo,undefined
[44] Racah Institute of Physics,undefined
[45] INAF/OA Capodimonte,undefined
[46] Durham University,undefined
[47] Ferrara University,undefined
[48] ISSI Bern,undefined
[49] Leicester University,undefined
[50] SAS/JAXA,undefined
来源
Experimental Astronomy | 2012年 / 34卷
关键词
Missions; X-ray timing; compact objects; black holes; neutron stars;
D O I
暂无
中图分类号
学科分类号
摘要
High-time-resolution X-ray observations of compact objects provide direct access to strong-field gravity, to the equation of state of ultradense matter and to black hole masses and spins. A 10 m2-class instrument in combination with good spectral resolution is required to exploit the relevant diagnostics and answer two of the fundamental questions of the European Space Agency (ESA) Cosmic Vision Theme “Matter under extreme conditions”, namely: does matter orbiting close to the event horizon follow the predictions of general relativity? What is the equation of state of matter in neutron stars? The Large Observatory For X-ray Timing (LOFT), selected by ESA as one of the four Cosmic Vision M3 candidate missions to undergo an assessment phase, will revolutionise the study of collapsed objects in our galaxy and of the brightest supermassive black holes in active galactic nuclei. Thanks to an innovative design and the development of large-area monolithic silicon drift detectors, the Large Area Detector (LAD) on board LOFT will achieve an effective area of ~12 m2 (more than an order of magnitude larger than any spaceborne predecessor) in the 2–30 keV range (up to 50 keV in expanded mode), yet still fits a conventional platform and small/medium-class launcher. With this large area and a spectral resolution of <260 eV, LOFT will yield unprecedented information on strongly curved spacetimes and matter under extreme conditions of pressure and magnetic field strength.
引用
收藏
页码:415 / 444
页数:29
相关论文
共 218 条
[1]  
Abramowicz MA(2001)A precise determination of black hole spin in GRO J1655-40 Astron. Astrophys. 374 19-20
[2]  
Kluźniak W(2011)Imaging performance of a large-area Silicon Drift Detector for X-ray astronomy Nucl. Instrum. Methods A 633 22-30
[3]  
Campana R(2010)A two-solar-mass neutron star measured using Shapiro delay Nature 467 1081-1083
[4]  
Zampa G(2004)Relativistic spectral features from X-ray-illuminated spots and the measure of the black hole mass in active galactic nuclei Mon. Not. R. Astron. Soc. 350 745-755
[5]  
Feroci M(2003)High-energy sources before INTEGRAL. INTEGRAL reference catalog Astrophys. J. 411 L59-L62
[6]  
Vacchi A(1989)X-ray fluorescence from the inner disc in Cygnus X-1 Mon. Not. R. Astron. Soc. 238 729-736
[7]  
Bonvicini V(2007)SuperAGILE: the hard X-ray imager for the AGILE space mission Nucl. Instrum. Methods Phys. Res. A 581 728-754
[8]  
Del Monte E(1984)Semiconductor drift chamber—an application of a novel charge transport scheme Nucl. Instrum. Methods Phys. Res. 225 608-614
[9]  
Evangelista Y(1971)An X-ray scan of the galactic plane from UHURU Astrophys. J. 165 L27-L56
[10]  
Fuschino F(2005)The discovery of rapid X-ray oscillations in the tail of the SGR 1806-20 hyperflare Astrophys. J. 628 L53-423