Simulation of Fabry-Perot cavities in a Michelson interferometer

L. Aguilar-Lobo, C. Moreno, G. Garcia-Torales
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Abstract

The Laser Interferometer Gravitational-Wave Observatory (LIGO) has designed to detect Gravitational Waves (GW); its system of detection is based on the Michelson interferometer configuration. When a GW hit on it, the optical elements are disturbed inducing a change in the optical path difference (OPD). The arms length in the detector should be of hundreds of kilometers, due to the small value of the expected GW intensity (h ≈10-21). This length values are not so easy to achieve because many factors, such as source noise and the profile of the earth. In order to increase the optical path of the beam, LIGO team has implemented a Fabry-Perot cavity in each arm, improving the interferometer response, such as laser amplification and noise reduction. We has build of a prototype of Michelson interferometer for show of a simple way the operation mechanism of the GW detectors and open new researches in this area. Now, we will implement a Fabry-Perot cavity in each arm of our prototype. In this work, we are showed the theoretical features and the simulation of the Fabry-Perot cavity response.
michael - son干涉仪中Fabry-Perot空腔的模拟
激光干涉仪引力波天文台(LIGO)设计用于探测引力波(GW);它的检测系统是基于迈克尔逊干涉仪的配置。当GW击中它时,光学元件受到干扰,引起光程差(OPD)的变化。由于期望的GW强度(h≈10-21)值很小,探测器内的臂长应在数百公里左右。由于许多因素,例如源噪声和地球的轮廓,这个长度值并不容易实现。为了增加光束的光程,LIGO团队在每条臂上都安装了一个Fabry-Perot腔,提高了干涉仪的响应,如激光放大和降噪。我们建立了一个迈克尔逊干涉仪的原型,以一种简单的方式展示了GW探测器的工作机理,并开辟了这一领域的新研究。现在,我们将在我们的每只手臂上植入一个法布里-珀罗腔。在本工作中,我们展示了法布里-珀罗腔响应的理论特征和模拟。
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