A. Dominjon
Centre national de la recherche scientifique
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Publication
Featured researches published by A. Dominjon.
Classical and Quantum Gravity | 1997
B. Caron; A. Dominjon; C. Drezen; R. Flaminio; X. Grave; F. Marion; L. Massonnet; C. Mehmel; R. Morand; B. Mours; V. Sannibale; M. Yvert; D. Babusci; S. Bellucci; S. Candusso; G. Giordano; G. Matone; J.-M. Mackowski; L. Pinard; F. Barone; E. Calloni; L. Di Fiore; M. Flagiello; F. Garufi; A. Grado; Maurizio Longo; M. Lops; S. Marano; L. Milano; S. Solimeno
The Virgo gravitational wave detector is an interferometer with 3 km long arms in construction near Pisa to be commissioned in the year 2000. Virgo has been designed to achieve a strain sensitivity of a few times at 200 Hz. A large effort has gone into the conception of the mirror suspension system, which is expected to reduce noise to the level of at 10 Hz. The expected signals and main sources of noise are briefly discussed; the choices made are illustrated together with the present status of the experiment.
International Europhysics Conference on High Energy Physics HEP 93 | 1997
J.-Y. Vinet; F. Bondu; A. Brillet; F. Cleva; H. Heitmann; L. Latrach; N. Man; M. Pham Tu; M. Barsuglia; V. Brisson; F. Cavalier; M. Davier; P. Hello; P. Heusse; F. Lediberder; P. Marin; B. Caron; A. Dominjon; C. Drezen; R. Flaminio; X. Grave; F. Marion; L. Massonet; C. Mehmel; R. Morand; B. Mours; V. Sannibale; M. Yvert; L. Dognin; P. Ganau
The Virgo project is a Italian-French collaboration aiming at the construction of a long baseline interferometric antenna for the detection of gravitational radiation signals of cosmic origin. We describe the principles of the system, and high-light the technical challenges we need to overcome for reaching a sensitiity as low as 10−23Hz−1/2.The gravitational clustering of collisionless particles in an expanding universe is modelled using some simple physical ideas. I show that it is possible to understand the nonlinear clustering in terms of three well defined regimes: (1) linear regime; (2) quasilinear regime which is dominated by scale-invariant radial infall and (3) nonlinear regime dominated by nonradial motions and mergers. Modelling each of these regimes separately I show how the nonlinear two point correlation function can be related to the linear correlation function in hierarchical models. This analysis leads to results which are in good agreement with numerical simulations thereby providing an explanation for numerical results. Using this model and some simple extensions, it is possible to understand the transfer of power from large to small scales and the behaviour of higher order correlation functions. The ideas presented here will also serve as a powerful analytical tool to investigate nonlinear clustering in different models.
6th Topical Seminar on Experimental Apparatus for Particle Physics and Astrophysics | 1997
B. Caron; A. Dominjon; C. Drezen; R. Flaminio; X. Grave; F. Marion; L. Massonnet; C. Mehmel; R. Morand; B. Mours; V. Sannibale; M. Yvert; D. Babusci; S. Bellucci; S. Candusso; G. Giordano; G. Matone; J.-M. Mackowski; L. Pinard; F. Barone; E. Calloni; L. Di Fiore; M. Flagiello; F. Garuti; A. Grado; Maurizio Longo; M. Lops; S. Marano; L. Milano; S. Solimeno
The Virgo gravitational wave detector is an interferometer with 3 km long arms in construction near Pisa in Italy. The accessible sources at the design sensitivity and main noises are reviewed. Virgo has devoted a significant effort to extend sensitivity to low frequency reaching the strain level h = 10−21 Hz−1/2 at 10 Hz while at 200 Hz h = 3 · 10−23 Hz−1/2. Design choices and status of construction are presented.
ieee nuclear science symposium | 2011
Cyrille Guerin; Rémi Barbier; J. Marhoug; W. Tromeur; J. Houles; Quang Tuyen Doan; A. Dominjon; T. Cajgfinger
This paper presents a high data throughput acquisition system for pixel detector readout such as CMOS imagers. This CMOS acquisition board offers a genuine 10 Gbit/s bandwidth to the workstation and can provide an on-line and continuous high frame rate imaging capability. On-line processing can be implemented either on the Data Acquisition Board or on the multi-cores workstation depending on the complexity of the algorithms. The different parts composing the acquisition board have been designed to be used first with a single-photon detector called LUSIPHER (800×800 pixels), developed in our laboratory for scientific applications ranging from nano-photonics to adaptive optics. The architecture of the acquisition board is presented and the performances achieved by the produced boards are described. The future developments (hardware and software) concerning the on-line implementation of algorithms dedicated to single-photon imaging are tackled.
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2011
Rémi Barbier; T. Cajgfinger; P. Calabria; E. Chabanat; D. Chaize; P. Depasse; Q.T. Doan; A. Dominjon; Cyrille Guerin; J. Houles; L. Vagneron; J. Baudot; A. Dorokhov; W. Dulinski; M. Winter; C.T. Kaiser
Nuclear Physics | 1997
B. Caron; A. Dominjon; C. Drezen; R. Flaminio; X. Grave; F. Marion; L. Massonnet; C. Mehmel; R. Morand; B. Mours; V. Sannibale; M. Yvert; D. Babusci; S. Bellucci; S. Candusso; G. Giordano; G. Matone; J.-M. Mackowski; L. Pinard; F. Barone; E. Calloni; L. Difiore; M. Flagiello; F. Garuti; A. Grado; Maurizio Longo; M. Lops; S. Marano; L. Milano; S. Solimeno
Archive | 1995
B. Caron; A. Dominjon; F. Marion; L. Massonet; R. Morand; B. Mours; M. Yvert; Danilo Babusci; Hao Fang; Gianfranco Giordano; G. Matone; J.-M. Mackowski; M. Napolitano; L. Pinard; C. Boccara; P. Gleizes; V. Loriette; Jean Paul Roger; F. Barone; E. Calloni; L. Di Fiore; A. Grado; Michael J. Longo; G. Marra; L. Milano; Guido Russo; S. Solimeno; F. Bondu; A. Brillet; V. Brisson
Archive | 1997
A. Brillet; Danilo Babusci; S. Bellucci; S. Candusso; Gianfranco Giordano; G. Matone; C. Boccara; Ph. Gleyzes; V. Loriette; Jean Paul Roger; E. Bougleux; M. Mazzoni; P. G. Pelfer; R. Stanga; J.-M. Mackowski; L. Pinard; V. Brisson; F. Cavalier; M. Davier; P. Hello; P. Heusse; P. Marin; Luca Matone; Y. Acker; M. Barsuglia; B. Bhawal; F. Bondu; F. Cleva; H. Heitmann; J.-M. Innocent
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2012
A. Dominjon; M. Ageron; Rémi Barbier; M. Billault; J. Brunner; Thomas Cajgfinger; P. Calabria; E. Chabanat; D. Chaize; Quang T. Doan; Cyrille Guerin; J. Houles; L. Vagneron
Nuclear Instruments & Methods in Physics Research Section A-accelerators Spectrometers Detectors and Associated Equipment | 2015
Thomas Cajgfinger; A. Dominjon; Rémi Barbier