The switch from I- to S-type magmatism in the Trans-Himalayan Batholith is one of the criteria used to determine when India and Eurasia collided. We present new 238U/ 206Pb SHRIMP data from the Karakorum Batholith, NW India. Our results suggest that an I-type hornblende-biotite granodiorite was emplaced at 31.4 ± 0.4 Ma and crosscut by S-type granite dykes at 18.0 ± 0.4 Ma. We interpret these data to indicate that volatile-fluxed melting of a mantle wedge above an active subduction zone and/or decompression melting of sub-arc asthenosphere was possible until at least 31 Ma. This interpretation uses the same rationale as previous workers have adopted to propose that the India-Eurasia collision occurred between 57 Ma and 47 Ma. A review of pu...
The India-Asia collision is an outstanding smoking gun in the study of continental collision dynamic...
Earth and Planetary Science Letters 234 (2005) 83–97Ultrahigh-pressure (UHP) rocks in the NW Himalay...
India–Asia collision resulted in crustal thickening and shortening, metamorphism and partial melting...
The switch from I- to S-type magmatism in the Trans-Himalayan Batholith is one of the criteria used ...
Many ideas about the tectonic history of the Himalayan orogen hinge on the arguments about the timin...
New geochronological and geochemical data on magmatic activity from the India-Asia collision zone en...
The Himalayan orogeny is closely associated with the tectonic developments which occurred along the ...
The trans-Himalayan Ladakh batholith is a result of arc magmatism caused by the northward subduction...
Cenozoic convergence between the Indian and Asian plates produced the archetypical continental colli...
The Karakoram Axial Batholith in N. Pakistan records the magmatic development of the Eurasian contin...
The Himalayan orogen is a type example of continent-continent collision. Knowledge of the timing of ...
International audienceCenozoic convergence between the Indian and Asian plates produced the archetyp...
International audienceIn south Karakorum, the western prolongation of southern Tibet, three distinct...
the Tethyan oceanic subduction. Post-collision metamorphic and magmatic events in Tibet and in the H...
The India-Asia collision is an outstanding smoking gun in the study of continental collision dynamic...
Earth and Planetary Science Letters 234 (2005) 83–97Ultrahigh-pressure (UHP) rocks in the NW Himalay...
India–Asia collision resulted in crustal thickening and shortening, metamorphism and partial melting...
The switch from I- to S-type magmatism in the Trans-Himalayan Batholith is one of the criteria used ...
Many ideas about the tectonic history of the Himalayan orogen hinge on the arguments about the timin...
New geochronological and geochemical data on magmatic activity from the India-Asia collision zone en...
The Himalayan orogeny is closely associated with the tectonic developments which occurred along the ...
The trans-Himalayan Ladakh batholith is a result of arc magmatism caused by the northward subduction...
Cenozoic convergence between the Indian and Asian plates produced the archetypical continental colli...
The Karakoram Axial Batholith in N. Pakistan records the magmatic development of the Eurasian contin...
The Himalayan orogen is a type example of continent-continent collision. Knowledge of the timing of ...
International audienceCenozoic convergence between the Indian and Asian plates produced the archetyp...
International audienceIn south Karakorum, the western prolongation of southern Tibet, three distinct...
the Tethyan oceanic subduction. Post-collision metamorphic and magmatic events in Tibet and in the H...
The India-Asia collision is an outstanding smoking gun in the study of continental collision dynamic...
Earth and Planetary Science Letters 234 (2005) 83–97Ultrahigh-pressure (UHP) rocks in the NW Himalay...
India–Asia collision resulted in crustal thickening and shortening, metamorphism and partial melting...