Sapphire beamsplitters and test masses for advanced laser interferometer gravitational wave detectors
Identifieur interne : 00D144 ( Main/Exploration ); précédent : 00D143; suivant : 00D145Sapphire beamsplitters and test masses for advanced laser interferometer gravitational wave detectors
Auteurs : L. Ju [Australie] ; M. Notcutt [Australie] ; D. Blair [Australie] ; F. Bondu [France] ; C. N. Zhao [Australie]Source :
- Physics Letters A [ 0375-9601 ] ; 1996.
English descriptors
- KwdEn :
- Acoustic losses, Beamsplitter, Birefringence, Birefringence phase shift, Cantilever, Cantilever stage, Control mass, Crystal systems, Cylindrical sapphire test mass, Equivalent masses, Flexure, Gravitational radiation, Inhomogeneous birefringence, Interferometer, Internal mode, Internal modes, Large sapphire samples, Laser, Laser interferometer, Light polarisation direction, Mechanical properties, Membrane, Membrane flexure, Niobium, Optical absorption, Optical losses, Orientation requirements, Pendulum, Pendulum mode, Phase shift, Phys, Physics letters, Poisson ratio, Polarisation, Private communications, Rayleigh, Recycling, Resonant frequency, Room temperature, Same dimensions, Sapphire, Sapphire beamsplitter, Sapphire beamsplitters, Sapphire sample, Sapphire test mass, Silica, Silica test mass, Silica test masses, Small cantilever, Stress birefringence, Suspension system, Suspension systems, Test mass, Test masses, Thermal lensing, Thermal noise, Wave detectors, Worst case.
- Teeft :
- Acoustic losses, Beamsplitter, Birefringence, Birefringence phase shift, Cantilever, Cantilever stage, Control mass, Crystal systems, Cylindrical sapphire test mass, Equivalent masses, Flexure, Gravitational radiation, Inhomogeneous birefringence, Interferometer, Internal mode, Internal modes, Large sapphire samples, Laser, Laser interferometer, Light polarisation direction, Mechanical properties, Membrane, Membrane flexure, Niobium, Optical absorption, Optical losses, Orientation requirements, Pendulum, Pendulum mode, Phase shift, Phys, Physics letters, Poisson ratio, Polarisation, Private communications, Rayleigh, Recycling, Resonant frequency, Room temperature, Same dimensions, Sapphire, Sapphire beamsplitter, Sapphire beamsplitters, Sapphire sample, Sapphire test mass, Silica, Silica test mass, Silica test masses, Small cantilever, Stress birefringence, Suspension system, Suspension systems, Test mass, Test masses, Thermal lensing, Thermal noise, Wave detectors, Worst case.
Abstract
Abstract: We present a feasibility study of using sapphire beamsplitters and test masses in laser interferometer gravitational wave detectors. The internal thermal noise, optical losses and birefringence effects are analysed. Suspension losses are investigated. Experimental data on birefringence is presented. The conclusions are generally positive.
Url:
DOI: 10.1016/0375-9601(96)00434-3
Affiliations:
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Le document en format XML
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<profileDesc><textClass><keywords scheme="KwdEn" xml:lang="en"><term>Acoustic losses</term>
<term>Beamsplitter</term>
<term>Birefringence</term>
<term>Birefringence phase shift</term>
<term>Cantilever</term>
<term>Cantilever stage</term>
<term>Control mass</term>
<term>Crystal systems</term>
<term>Cylindrical sapphire test mass</term>
<term>Equivalent masses</term>
<term>Flexure</term>
<term>Gravitational radiation</term>
<term>Inhomogeneous birefringence</term>
<term>Interferometer</term>
<term>Internal mode</term>
<term>Internal modes</term>
<term>Large sapphire samples</term>
<term>Laser</term>
<term>Laser interferometer</term>
<term>Light polarisation direction</term>
<term>Mechanical properties</term>
<term>Membrane</term>
<term>Membrane flexure</term>
<term>Niobium</term>
<term>Optical absorption</term>
<term>Optical losses</term>
<term>Orientation requirements</term>
<term>Pendulum</term>
<term>Pendulum mode</term>
<term>Phase shift</term>
<term>Phys</term>
<term>Physics letters</term>
<term>Poisson ratio</term>
<term>Polarisation</term>
<term>Private communications</term>
<term>Rayleigh</term>
<term>Recycling</term>
<term>Resonant frequency</term>
<term>Room temperature</term>
<term>Same dimensions</term>
<term>Sapphire</term>
<term>Sapphire beamsplitter</term>
<term>Sapphire beamsplitters</term>
<term>Sapphire sample</term>
<term>Sapphire test mass</term>
<term>Silica</term>
<term>Silica test mass</term>
<term>Silica test masses</term>
<term>Small cantilever</term>
<term>Stress birefringence</term>
<term>Suspension system</term>
<term>Suspension systems</term>
<term>Test mass</term>
<term>Test masses</term>
<term>Thermal lensing</term>
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<term>Wave detectors</term>
<term>Worst case</term>
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<term>Birefringence</term>
<term>Birefringence phase shift</term>
<term>Cantilever</term>
<term>Cantilever stage</term>
<term>Control mass</term>
<term>Crystal systems</term>
<term>Cylindrical sapphire test mass</term>
<term>Equivalent masses</term>
<term>Flexure</term>
<term>Gravitational radiation</term>
<term>Inhomogeneous birefringence</term>
<term>Interferometer</term>
<term>Internal mode</term>
<term>Internal modes</term>
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<term>Laser interferometer</term>
<term>Light polarisation direction</term>
<term>Mechanical properties</term>
<term>Membrane</term>
<term>Membrane flexure</term>
<term>Niobium</term>
<term>Optical absorption</term>
<term>Optical losses</term>
<term>Orientation requirements</term>
<term>Pendulum</term>
<term>Pendulum mode</term>
<term>Phase shift</term>
<term>Phys</term>
<term>Physics letters</term>
<term>Poisson ratio</term>
<term>Polarisation</term>
<term>Private communications</term>
<term>Rayleigh</term>
<term>Recycling</term>
<term>Resonant frequency</term>
<term>Room temperature</term>
<term>Same dimensions</term>
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<term>Sapphire beamsplitter</term>
<term>Sapphire beamsplitters</term>
<term>Sapphire sample</term>
<term>Sapphire test mass</term>
<term>Silica</term>
<term>Silica test mass</term>
<term>Silica test masses</term>
<term>Small cantilever</term>
<term>Stress birefringence</term>
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<term>Suspension systems</term>
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<term>Test masses</term>
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<front><div type="abstract" xml:lang="en">Abstract: We present a feasibility study of using sapphire beamsplitters and test masses in laser interferometer gravitational wave detectors. The internal thermal noise, optical losses and birefringence effects are analysed. Suspension losses are investigated. Experimental data on birefringence is presented. The conclusions are generally positive.</div>
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<name sortKey="Zhao, C N" sort="Zhao, C N" uniqKey="Zhao C" first="C. N." last="Zhao">C. N. Zhao</name>
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