Mid-Cretaceous Hawaiian tholeiites preserved in Kamchatka
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[1] J. Pearce. Geochemical fingerprinting of oceanic basalts with applications to ophiolite classification and the search for Archean oceanic crust , 2008 .
[2] A. Lander,et al. The Origin of the Modern Kamchatka Subduction Zone , 2013 .
[3] M. Kurz,et al. The role of lithospheric gabbros on the composition of Galapagos lavas , 2007 .
[4] B. Steinberger,et al. Plate-tectonic reconstructions predict part of the Hawaiian hotspot track to be preserved in the Bering Sea , 2007 .
[5] M. Y. Khotin,et al. Ophiolites of the Kamchatsky Mys Peninsula, eastern Kamchatka: Structure, composition, and geodynamic setting , 2006 .
[6] A. Hofmann,et al. Lead isotopes reveal bilateral asymmetry and vertical continuity in the Hawaiian mantle plume , 2005, Nature.
[7] J. Blichert‐Toft,et al. Origin of depleted components in basalt related to the Hawaiian hot spot: Evidence from isotopic and incompatible element ratios , 2005 .
[8] J. Mahoney,et al. Flow and melting of a heterogeneous mantle: 2. Implications for a chemically nonlayered mantle , 2005 .
[9] T. Thordarson,et al. Petrogenesis of lavas from Detroit Seamount: Geochemical differences between Emperor Chain and Hawaiian volcanoes , 2005 .
[10] M. Portnyagin,et al. Plume-related association of Cretaceous oceanic basalts of eastern Kamchatka: compositions of spinel and parental magmas , 2005 .
[11] R. Duncan,et al. Radiometric ages for basement rocks from the Emperor Seamounts, ODP Leg 197 , 2004 .
[12] F. Hauff,et al. Geodynamic evolution of the Galápagos hot spot system (Central East Pacific) over the past 20 m.y.: Constraints from morphology, geochemistry, and magnetic anomalies , 2003 .
[13] F. Hauff,et al. Sr‐Nd‐Pb composition of Mesozoic Pacific oceanic crust (Site 1149 and 801, ODP Leg 185): Implications for alteration of ocean crust and the input into the Izu‐Bonin‐Mariana subduction system , 2003 .
[14] J. Pearce,et al. Initiation of subduction zones as a consequence of lateral compositional buoyancy contrast within the lithosphere: a petrological perspective , 2003 .
[15] D. Clague,et al. Constraints on the Source Components of Lavas Forming the Hawaiian North Arch and Honolulu Volcanics , 2003 .
[16] A. Hofmann,et al. Geochemistry of Lavas from the Emperor Seamounts, and the Geochemical Evolution of Hawaiian Magmatism from 85 to 42 Ma , 2003 .
[17] B. Legras,et al. Mixing and deformations in mantle plumes , 2002 .
[18] A. Crawford,et al. Factors Controlling Chemistry of Magmatic Spinel: an Empirical Study of Associated Olivine, Cr-spinel and Melt Inclusions from Primitive Rocks , 2001 .
[19] M. Fisk,et al. Isotopic evidence for Late Cretaceous plume–ridge interaction at the Hawaiian hotspot , 2000, Nature.
[20] D. Garbe‐Schönberg,et al. Existence of complex spatial zonation in the Galápagos plume , 2000 .
[21] A. Sobolev,et al. Recycled oceanic crust observed in ‘ghost plagioclase’ within the source of Mauna Loa lavas , 2000, Nature.
[22] R. Batiza,et al. Trace element evidence from seamounts for recycled oceanic crust in the Eastern Pacific mantle , 1997 .
[23] P. Castillo,et al. Geochemistry of Mesozoic Pacific mid-ocean ridge basalt: Constraints on melt generation and the evolution of the Pacific upper mantle , 1997 .
[24] A. Hofmann,et al. Source characteristics derived from very incompatible trace elements in Mauna Loa and Mauna Kea basalts, Hawaii Scientific Drilling Project , 1996 .
[25] Norman H. Sleep,et al. Hotspots and Mantle Plumes' Some Phenomenology , 1990 .
[26] W. McDonough,et al. Chemical and isotopic systematics of oceanic basalts: implications for mantle composition and processes , 1989, Geological Society, London, Special Publications.
[27] G. Avdeiko. On Possible Continuation of the Hawaiian-Emperor Chain in Kamchatka , 1980 .
[28] M. Tatsumoto. Isotopic composition of lead in oceanic basalt and its implication to mantle evolution , 1978 .