| Literature DB >> 30538164 |
C A Neal1, S R Brantley2, L Antolik2, J L Babb2, M Burgess2, K Calles2, M Cappos2, J C Chang2, S Conway2, L Desmither2, P Dotray2, T Elias2, P Fukunaga2, S Fuke2, I A Johanson2, K Kamibayashi2, J Kauahikaua2, R L Lee2, S Pekalib2, A Miklius2, W Million2, C J Moniz2, P A Nadeau2, P Okubo2, C Parcheta2, M R Patrick2, B Shiro2, D A Swanson2, W Tollett2, F Trusdell2, E F Younger2, M H Zoeller3, E K Montgomery-Brown4, K R Anderson5, M P Poland6, J L Ball5, J Bard7, M Coombs8, H R Dietterich8, C Kern7, W A Thelen7, P F Cervelli8, T Orr8, B F Houghton9, C Gansecki10, R Hazlett10, P Lundgren11, A K Diefenbach7, A H Lerner12, G Waite13, P Kelly7, L Clor7, C Werner14, K Mulliken15, G Fisher16, D Damby5.
Abstract
In 2018, Kīlauea Volcano experienced its largest lower East Rift Zone (LERZ) eruption and caldera collapse in at least 200 years. After collapse of the Pu'u 'Ō'ō vent on 30 April, magma propagated downrift. Eruptive fissures opened in the LERZ on 3 May, eventually extending ~6.8 kilometers. A 4 May earthquake [moment magnitude (M w) 6.9] produced ~5 meters of fault slip. Lava erupted at rates exceeding 100 cubic meters per second, eventually covering 35.5 square kilometers. The summit magma system partially drained, producing minor explosions and near-daily collapses releasing energy equivalent to M w 4.7 to 5.4 earthquakes. Activity declined rapidly on 4 August. Summit collapse and lava flow volume estimates are roughly equivalent-about 0.8 cubic kilometers. Careful historical observation and monitoring of Kīlauea enabled successful forecasting of hazardous events.Year: 2018 PMID： 30538164 DOI： 10.1126/science.aav7046
Source DB: PubMed Journal: Science ISSN： 0036-8075 Impact factor: 47.728