An arm length stabilization system for KAGRA and future gravitational-wave detectors
- Kwak, Kyujin
- Akutsu, T.
- Ando, M.
- Arai, K.
- Arai, Y.
- Araki, S.
- Araya, A.
- Aritomi, N.
- Aso, Y.
- Bae, S.
- Bae, Y.
- Baiotti, L.
- Bajpai, R.
- Barton, M. A.
- Cannon, K.
- Capocasa, E.
- Chan, M.
- Chen, C. S.
- Chen, K.
- Chen, Y.
- Chu, H.
- Chu, Y-K
- Doi, K.
- Eguchi, S.
- Enomoto, Y.
- Flaminio, R.
- Fujii, Y.
- Fukunaga, M.
- Fukushima, M.
- Ge, G-G
- Hagiwara, A.
- Haino, S.
- Hasegawa, K.
- Hayakawa, H.
- Hayama, K.
- Himemoto, Y.
- Hiranuma, Y.
- Hirata, N.
- Hirose, E.
- Hong, Z.
- Hsieh, B. H.
- Huang, G-Z
- Huang, P-W
- Huang, Y.
- Ikenoue, B.
- Imam, S.
- Inayoshi, K.
- Inoue, Y.
- Ioka, K.
- Itoh, Y.
- Izumi, K.
- Jung, K.
- Jung, P.
- Kajita, T.
- Kamiizumi, M.
- Kanbara, S.
- Kanda, N.
- Kang, G.
- Kawaguchi, K.
- Kawai, N.
- Kawasaki, T.
- Kim, C.
- Kim, J. C.
- Kim, W. S.
- Kim, Y-M
- Kimura, N.
- Kita, N.
- Kitazawa, H.
- Kojima, Y.
- Kokeyama, K.
- Komori, K.
- Kong, A. K. H.
- Kotake, K.
- Kozakai, C.
- Kozu, R.
- Kumar, R.
- Kume, J.
- Kuo, C.
- Kuo, H-S
- Kuroyanagi, S.
- Kusayanagi, K.
- Lee, H. K.
- Lee, H. W.
- Lee, R.
- Leonardi, M.
- Lin, L. C-C
- Lin, C-Y
- Lin, F-L
- Liu, G. C.
- Luo, L-W
- Marchio, M.
- Michimura, Y.
- Mio, N.
- Miyakawa, O.
- Miyamoto, A.
- Miyazaki, Y.
- Miyo, K.
- Miyoki, S.
- Morisaki, S.
- Moriwaki, Y.
- Musha, M.
- Nagano, K.
- Nagano, S.
- Nakamura, K.
- Nakano, H.
- Nakano, M.
- Nakashima, R.
- Narikawa, T.
- Negishi, R.
- Ni, W-T
- Nishizawa, A.
- Obuchi, Y.
- Ogaki, W.
- Oh, J. J.
- Oh, S. H.
- Ohashi, M.
- Ohishi, N.
- Ohkawa, M.
- Ohmae, N.
- Okutomi, K.
- Oohara, K.
- Ooi, C. P.
- Oshino, S.
- Pan, K-C
- Pang, H.
- Park, J.
- Arellano, F. E. Pena
- Pinto, I
- Sago, N.
- Saito, S.
- Saito, Y.
- Sakai, K.
- Sakai, Y.
- Sakuno, Y.
- Sato, S.
- Sato, T.
- Sawada, T.
- Sekiguchi, T.
- Sekiguchi, Y.
- Shibagaki, S.
- Shimizu, R.
- Shimoda, T.
- Shimode, K.
- Shinkai, H.
- Shishido, T.
- Shoda, A.
- Somiya, K.
- Son, E. J.
- Sotani, H.
- Sugimoto, R.
- Suzuki, T.
- Tagoshi, H.
- Takahashi, H.
- Takahashi, R.
- Takamori, A.
- Takano, S.
- Takeda, H.
- Takeda, M.
- Tanaka, H.
- Tanaka, K.
- Tanaka, T.
- Tanioka, S.
- San Martin, E. N. Tapia
- Tatsumi, D.
- Telada, S.
- Tomaru, T.
- Tomigami, Y.
- Tomura, T.
- Travasso, F.
- Trozzo, L.
- Tsang, T.
- Tsubono, K.
- Tsuchida, S.
- Tsuzuki, T.
- Tuyenbayev, D.
- Uchikata, N.
- Uchiyama, T.
- Ueda, A.
- Uehara, T.
- Ueno, K.
- Ueshima, G.
- Uraguchi, F.
- Ushiba, T.
- van Putten, M. H. P. M.
- Vocca, H.
- Wang, J.
- Wu, C.
- Wu, H.
- Wu, S.
- Xu, W-R
- Yamada, T.
- Yamamoto, K.
- Yamamoto, T.
- Yokogawa, K.
- Yokoyama, J.
- Yokozawa, T.
- Yoshioka, T.
- Yuzurihara, H.
- Zeidler, S.
- Zhao, Y.
- Zhu, Z-H
DOIAbstract
Modern ground-based gravitational wave (GW) detectors require a complex interferometer configuration with multiple coupled optical cavities. Since achieving the resonances of the arm cavities is the most challenging among the lock acquisition processes, the scheme called arm length stabilization (ALS) had been employed for lock acquisition of the arm cavities. We designed a new type of the ALS, which is compatible with the interferometers having long arms like the next generation GW detectors. The features of the new ALS are that the control configuration is simpler than those of previous ones and that it is not necessary to lay optical fibers for the ALS along the kilometer-long arms of the detector. Along with simulations of its noise per...
Add to ORKG