The robust statistic proposed by Creighton and Allen et al. for detection in stationary non-Gaussian noise is briefly reviewed. After restoring a contribution to this statistic that was absent in those analyses, we reinterpret the role of the resulting robust statistic. We then obtain the analogous robust statistic for detecting inspiral waveforms in a single detector. We also derive the coherent statistic for detecting such signals with an arbitrary network of earth-based interferometers. Finally, we show that excess computational costs incurred owing to non-Gaussianity is negligible compared to the cost of detection in Gaussian no
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
The robust statistic proposed by Creighton and Allen et al. for detection in stationary non-Gaussia...
The robust statistic proposed by Creighton and Allen et al. for detection in stationary non-Gaussian...
Gravitational wave detectors will need optimal signal-processing algorithms to extract weak signals ...
Gravitational wave detectors will need optimal signal-processing algorithms to extract weak signals ...
Gravitational wave detectors will need optimal signal-processing algorithms to extract weak signals ...
In a previous paper (paper I), we derived a set of near-optimal signal detection techniques for grav...
In a previous paper (paper I), we derived a set of near-optimal signal detection techniques for grav...
In order to analyze data produced by the kilometer-scale gravitational wave detectors that will begi...
The sensitivity of current searches for gravitational-wave bursts is limited by non-Gaussian, nonsta...
In order to analyze data produced by the kilometer-scale gravitational wave detectors that will begi...
The detection of unmodeled gravitational wave transients (bursts) using a network of interferometric...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
The robust statistic proposed by Creighton and Allen et al. for detection in stationary non-Gaussia...
The robust statistic proposed by Creighton and Allen et al. for detection in stationary non-Gaussian...
Gravitational wave detectors will need optimal signal-processing algorithms to extract weak signals ...
Gravitational wave detectors will need optimal signal-processing algorithms to extract weak signals ...
Gravitational wave detectors will need optimal signal-processing algorithms to extract weak signals ...
In a previous paper (paper I), we derived a set of near-optimal signal detection techniques for grav...
In a previous paper (paper I), we derived a set of near-optimal signal detection techniques for grav...
In order to analyze data produced by the kilometer-scale gravitational wave detectors that will begi...
The sensitivity of current searches for gravitational-wave bursts is limited by non-Gaussian, nonsta...
In order to analyze data produced by the kilometer-scale gravitational wave detectors that will begi...
The detection of unmodeled gravitational wave transients (bursts) using a network of interferometric...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...
A network of gravitational wave detectors is called redundant if, given the direction to a source, t...