Ground strains induced by the 2022 Hunga-Tonga volcanic eruption, observed by a 1500-m laser strainmeter at Kamioka, Japan
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A. Araya | M. Ohashi | A. Takamori | T. Yokozawa | K. Miyo | H. Hayakawa | T. Washimi
[1] Y. Imanishi,et al. Detection of Air Temperature and Wind Changes Synchronized With the Lamb Wave From the 2022 Tonga Volcanic Eruption , 2023, Geophysical Research Letters.
[2] S. Dolgikh,et al. Atmospheric and Deformation Disturbances Caused by the Hunga-Tonga-Hunga-Ha’apai Volcano , 2022, Doklady Earth Sciences.
[3] A. Araya,et al. Response of the underground environment of the KAGRA observatory against the air-pressure disturbance from the Tonga volcano eruption on January 15th, 2022 , 2022, 2206.14396.
[4] A. Komjathy,et al. Atmospheric waves and global seismoacoustic observations of the January 2022 Hunga eruption, Tonga , 2022, Science.
[5] Y. Imanishi. Inertial effects due to eruption-induced atmospheric disturbances identified by superconducting gravimeter observations at Matsushiro, Japan , 2022, Earth, Planets and Space.
[6] A. Gubler,et al. Worldwide Signature of the 2022 Tonga Volcanic Tsunami , 2022, Geophysical Research Letters.
[7] A. Coster,et al. 2022 Tonga Volcanic Eruption Induced Global Propagation of Ionospheric Disturbances via Lamb Waves , 2022, Frontiers in Astronomy and Space Sciences.
[8] A. Canitano. Observation and Theory of Strain–Infrasound Coupling during Ground-Coupled Infrasound Generated by Rayleigh Waves in the Longitudinal Valley (Taiwan) , 2020 .
[9] H.Zhang,et al. Overview of KAGRA: Calibration, detector characterization, physical environmental monitors, and the geophysics interferometer , 2020, Progress of Theoretical and Experimental Physics.
[10] Y.Fujii,et al. Overview of KAGRA: Detector design and construction history , 2020, Progress of Theoretical and Experimental Physics.
[11] T.Narita,et al. Construction of KAGRA: an Underground Gravitational Wave Observatory , 2017, 1712.00148.
[12] B. Chao,et al. Typhoon‐Induced Ground Deformation , 2017 .
[13] A. Araya,et al. Design and operation of a 1500-m laser strainmeter installed at an underground site in Kamioka, Japan , 2017, Earth, Planets and Space.
[14] W. Zürn,et al. High-quality lowest-frequency normal mode strain observations at the Black Forest Observatory (SW-Germany) and comparison with horizontal broad-band seismometer data and synthetics , 2015 .
[15] Gordon G. Sorrells,et al. A Preliminary Investigation into the Relationship between Long-Period Seismic Noise and Local Fluctuations in the Atmospheric Pressure Field , 2010 .
[16] A. Gebauer,et al. Finite element modelling of atmosphere loading effects on strain, tilt and displacement at multi-sensor stations , 2010 .
[17] G. Mentes,et al. Relations between microbarograph and strain data , 2009 .
[18] Thomas Jahr,et al. On reduction of long-period horizontal seismic noise using local barometric pressure , 2007 .
[19] T. Jahr,et al. Pressure-induced noise on horizontal seismometer and strainmeter records evaluated by finite element modelling , 2005 .
[20] A. Araya,et al. Iodine-stabilized Nd : YAG laser applied to a long-baseline interferometer for wideband earth strain observations , 2002 .
[21] M. Ooe,et al. GOTIC2: A Program for Computation of Oceanic Tidal Loading Effect , 2001 .
[22] Duncan Carr Agnew,et al. Strainmeters and tiltmeters , 1986 .
[23] W. Farrell. Deformation of the Earth by surface loads , 1972 .
[24] Jack A. Gilbert,et al. finite element modelling , 2017 .
[25] H. Steffen,et al. Numerical modelling of the barometric pressure-induced noise in horizontal components for the observatories Moxa and Schiltach , 2006 .
[26] Hilde van der Togt,et al. Publisher's Note , 2003, J. Netw. Comput. Appl..