@Article{CostaAgui:2006:SiReMA,
author = "Costa, C{\'e}sar Augusto and Aguiar, Odylio Denys",
affiliation = "Instituto Nacional de Pesquisas Espaciais, Divis{\~a}o de
Astrof{\'{\i}}sica (INPE.DAS) and Instituto Nacional de
Pesquisas Espaciais, Divis{\~a}o de Astrof{\'{\i}}sica
(INPE.DAS)",
title = "Simulated Response of the MARIO SCHENBERG Detector to
Gravitational Wave Signals with Noise",
journal = "Journal of Physics: Conference Series",
year = "2006",
volume = "32",
pages = "18--22",
note = "Artigo apresentado no: VI Edoardo Amaldi Conference on
Gravitational Waves. Okinawa, Japan",
abstract = "The Mario Schenberg gravitational wave detector has been
constructed at its site in the Physics Institute of the University
of Sao Paulo as programmed by the Brazilian Graviton Project under
full financial support from FAPESP (the Sao Paulo State Foundation
for Research Support). We are ready to do a first test run of the
spherical antenna at 4.2 K with three parametric transducers and
an initial target sensitivity of h ~ 10-21 Hz-½ in a 60 Hz
bandwidth around 3.2 kHz. We have built a computer code for
determining the source direction and the wave polarization
(solution of the inverse problem) in real time acquisition for
strong signal-to-noise ratio cases. The digital filter used is a
simple bandpass filter. The ''data'' used for testing our code was
simulated, it had both the source signal and detector noise. The
detector noise includes the antenna thermal, back action, phase
noise, series noise and thermal from transducer coupled masses.
The simulated noise takes into account all these noise and the
antenna-transducers coupling. The detector transfer function was
calculated for a spherical antenna with six two-mode parametric
transducers. Finally, we were able to check at what distance
Schenberg would detected some known sources. Here we present the
results of these simulations.",
copyholder = "SID/SCD",
issn = "1742-6588",
language = "en",
targetfile = "Simulated responses of the Mario.pdf",
urlaccessdate = "20 maio 2024"
}