Beijing Normal University 12-meter Interferometric kHz GW Detector Prototype: Design and Scientific Prospects

• URL: http://arxiv.org/abs/2503.24178v3
• Date: Thu, 26 Jun 2025 03:08:03 GMT
• Title: Beijing Normal University 12-meter Interferometric kHz GW Detector Prototype: Design and Scientific Prospects
• Authors: Mengyao Wang, Fan Zhang, Xinyao Guo, Haixing Miao, Huan Yang, Yiqiu Ma, Haoyu Wang, Teng Zhang, Mengdi Cao, Yuchao Chen, Xiaoman Huang, Junlang Li, Fangfei Liu, Jianyu Liu, Yuan Pan, Yulin Xia, Jianbo Xing, Yujie Yu, Chenjie Zhou, Zong-hong Zhu,
• Abstract summary: A new configuration employing an L-shaped optical resonator was proposed to overcome this limitation.<n>The 12-meter prototype at Beijing Normal University is designed to demonstrate the sensing and control schemes of this new kHz detector configuration.<n>This paper presents an overview of the prototype, including its optical design and current development status of key components.
• Score: 11.77016441340642
• License: http://arxiv.org/licenses/nonexclusive-distrib/1.0/
• Abstract: Current gravitational-wave detectors have achieved remarkable sensitivity around 100 Hz, enabling ground-breaking discoveries. Enhancing sensitivity at higher frequencies in the kilohertz (kHz) range promises access to rich physics, particularly the extreme conditions during the merger stage of binary neutron stars. However, the high-frequency sensitivity of Michelson-based interferometers is fundamentally limited by their linear optical cavities, which are optimized for low-frequency signal enhancement. In [Phys. Rev. X 13, 021019 (2023)], a new configuration employing an L-shaped optical resonator was proposed to overcome this limitation, offering exceptional sensitivity in the kHz band. As a pathfinder, the 12-meter prototype at Beijing Normal University is designed to demonstrate the sensing and control schemes of this new kHz detector configuration and to explore its performance in the high-power regime with suspended optics. Beyond its primary scientific goal, the prototype also offers potential sensitivity in the megahertz (MHz) range, potentially enabling constraints on exotic sources. This paper presents an overview of the prototype, including its optical design and current development status of key components.

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