Kenichiro Tani

Dr. Kenichiro Tani

orcid

Research Focus & Metrics

Academic Career Length

33Years (1994-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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1 June 2011 in Earth and Planetary Science Letters
Verified
Journal Article
Closed access
OIOsamu Ishizuka
Osamu Ishizuka
KTKenichiro Tani
Kenichiro Tani
MRMark K. Reagan
Mark K. Reagan
KKKyoko Kanayama
Kyoko Kanayama
SUSusumu Umino
Susumu Umino
DDDaniel J. Dunkley
Daniel J. Dunkley

2 August 2006 in Geochemistry, Geophysics, Geosystems
Verified
Journal Article
Closed access
PDF file
THTakeshi Hanyu
Takeshi Hanyu
YTYoshiyuki Tatsumi
Yoshiyuki Tatsumi
SNShun'Ichi Nakai
Shun'Ichi Nakai
QCQing Chang
Qing Chang
TMTakashi Miyazaki
Takashi Miyazaki
TYTakeyoshi Yoshida
Takeyoshi Yoshida

28 August 2013 in Island Arc
Verified
Journal Article
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HIHideki Iwano
Hideki Iwano
YOYuji Orihashi
Yuji Orihashi
THTakafumi Hirata
Takafumi Hirata
MOMasatsugu Ogasawara
Masatsugu Ogasawara
TDTohru Danhara
Tohru Danhara
KYKoshi Yamamoto
Koshi Yamamoto

1 April 2014 in Elements
Verified
Journal Article
Closed access
PDF file
OIOsamu Ishizuka
Osamu Ishizuka
KTKenichiro Tani
Kenichiro Tani
MRMark K. Reagan
Mark K. Reagan
Recent geological and geophysical surveys in the Izu-Bonin-Mariana forearc have revealed the occurrence on the seafloor of oceanic crust generated in the initial stages of subduction and the earliest stage of island arc formation. The earliest magmatism after subduction initiation generated forearc basalts, and subsequently, boninitic and tholeiitic to calc-alkaline lavas were produced. Collectively, these rocks make up the extrusive sequence of the Izu-Bonin-Mariana forearc oceanic crust. This volcanic stratigraphy and its time-progressive development are analogous to those documented from many suprasubduction zone ophiolites. Most suprasubduction zone ophiolites may be on-land fragments of forearc oceanic crust, produced during the initiation of subduction and the early stages of island arc development.

29 February 2008 in Journal of Geophysical Research
Verified
Journal Article
Closed access
PDF file
YTY. Tatsumi
Y. Tatsumi
HSH. Shukuno
H. Shukuno
KTKenichiro Tani
Kenichiro Tani
NTN. Takahashi
N. Takahashi
SKS. Kodaira
S. Kodaira
TKT. Kogiso
T. Kogiso

5 January 2018 in Science Advances
Verified
Journal Article
Open access
PDF file
RCRebecca Carey
Rebecca Carey
SSS. Adam Soule
S. Adam Soule
MMMichael Manga
Michael Manga
JWJames D. L. White
James D. L. White
JMJocelyn McPhie
Jocelyn McPhie
WMWarren McKenzie
Warren McKenzie
The 2012 submarine eruption of Havre volcano in the Kermadec arc, New Zealand, is the largest deep-ocean eruption in history and one of very few recorded submarine eruptions involving rhyolite magma. It was recognized from a gigantic 400-km2 pumice raft seen in satellite imagery, but the complexity of this event was concealed beneath the sea surface. Mapping, observations, and sampling by submersibles have provided an exceptionally high fidelity record of the seafloor products, which included lava sourced from 14 vents at water depths of 900 to 1220 m, and fragmental deposits including giant pumice clasts up to 9 m in diameter. Most (>75%) of the total erupted volume was partitioned into the pumice raft and transported far from the volcano. The geological record on submarine volcanic edifices in volcanic arcs does not faithfully archive eruption size or magma production.