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Tso Morari Dome

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Journal Article
Published: 01 October 1997
European Journal of Mineralogy (1997) 9 (5): 1073–1083.
Series: Geological Society, London, Special Publications
Published: 01 January 2000
DOI: 10.1144/GSL.SP.2000.170.01.22
EISBN: 9781862394186
... in the barroisite eclogites have been estimated at T = 610 ± 30 °C and P = 24 ± 2 kbar from Fe/Mg partition in garnet omphacite pairs, and from the garnet-omphacite-phengite barometer. These values are close to the equilibration conditions estimated for the eclogites of the North Himalayan Tso-Morari Dome...
Image
Sand petrography in the upper Indus River catchment. Northern tributaries (draining the Ladakh Batholith) shed quartzo-feldspathic to feldspatho-quartzose detritus. Instead, southern tributaries (draining Indus Group siliciclastics and different tectonic units exposed along the ophiolitic suture and in the Zanskar Range to the south) shed abundant sedimentary, metasedimentary, and locally metavolcanic, metabasite, and ultramafic rock fragments. Provenance reaches denoted by brackets are homogeneous units that were used to calculate relative sediment budgets (B1–5: Ladakh Batholith; TD: Tso Morari dome, IG1–2: Indus Group). Large arrows point to upper (UG) and lower (LG) bedrock gorges and the Leh valley (LV). Main southern tributaries (Gya, Zanskar, and Yapola Rivers) represent distinct provenance reaches. Note stepwise increase in lithics (L) in Indus River sands downstream of the Gya confluence (IND-3) and of the Zanskar confluence (IND-6), due to prevailing IG1 and IG2 contribution. The opposite trend, observed locally at the Zanskar confluence (star), reflects prominent supply from the Zanskar Range (IND-4). Southern tributaries: catchments 23–25 mainly draining Tso Morari dome; Gya (28) and catchments 29–32 and 36 largely draining sedimentary Indus Group; Zanskar catchment largely draining sedimentary Tethys Himalaya Zone and High Himalayan Crystalline Zone; Yapola (37) catchment largely draining Tethys Himalaya Zone and Dras volcanics; and catchment 38 draining Dras volcanics. We show an alternative figure in the Data Repository (Fig. DR1 [see text footnote 1]). BP—bulk petrography.
Published: 01 November 2014
; TD: Tso Morari dome, IG1–2: Indus Group). Large arrows point to upper (UG) and lower (LG) bedrock gorges and the Leh valley (LV). Main southern tributaries (Gya, Zanskar, and Yapola Rivers) represent distinct provenance reaches. Note stepwise increase in lithics (L) in Indus River sands downstream
Image
Decompressional P–T paths from MCCs. (1) Western Gneiss Region, Norwegian Caledonides (Hacker 2007). (2) D’Entrecasteaux Islands, Papua New Guinea (Little et al. (2011). (3) Tso Morari Dome, NW Himalaya (Guillot et al. 1997). (4) Nevado–Filabride MCC (Behr & Platt 2012). (5) Tinos, Aegean Sea (Jolivet et al. 2004). (6) Naxos (Aegean): metamorphic envelope (Avigad 1998). (7) Carratraca massif, southern Spain (Platt et al. 2003). (8) Valhalla Dome, Canadian Cordillera (McGrew et al. 2000; Norlander et al. 2002). (9) Ruby–East Humboldt MCC, US Cordillera (McGrew et al. 2000).
Published: 27 November 2014
Fig. 10. Decompressional P–T paths from MCCs. (1) Western Gneiss Region, Norwegian Caledonides ( Hacker 2007 ). (2) D’Entrecasteaux Islands, Papua New Guinea ( Little et al . (2011) . (3) Tso Morari Dome, NW Himalaya ( Guillot et al . 1997 ). (4) Nevado–Filabride MCC ( Behr & Platt 2012
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Geological cross-section and interpretative sub-surface configuration of subducting Indian Plate from the NW-Himalaya to Karakoram. a) Magnetotelluric section of the Garhwal Himalaya along Roorkee-Gangotri profile showing low resistivity (<10 Ωm) zone beneath MCT and cluster of small associated earthquakes. After Miglaniet alii (2014). b) Deep resistivity structure of the subducting Indian lithosphere along Tso Morari-Ladakh-Karakoram section in the western sector. After Aroraet alii (2007). Note northeast dipping low resistivity zone (~30 Ωm-white colour) beneath Tethyan Himalayan Sequence, Tso Morari Dome (TMD), Ladakh Batholith (LB) and Karakoram. Vertically-dipping ITSZ becomes subhorizontal beneath the LB and Karakoram. c) Geological cross-section from the NW-Himalaya to Karakoram using deep resistivity and teleseismic receiver function data (Gokarnet alii, 2002; Raiet alii, 2006; Aroraet alii, 2007) for constraining sub-surface structure. Note presence of about 20 km thick Partially Molten Crust (PMC). Topography vertically exaggerated above 0 km.
Published: 01 February 2017
Himalayan Sequence, Tso Morari Dome (TMD), Ladakh Batholith (LB) and Karakoram. Vertically-dipping ITSZ becomes subhorizontal beneath the LB and Karakoram. c ) Geological cross-section from the NW-Himalaya to Karakoram using deep resistivity and teleseismic receiver function data ( G okarn et alii , 2002
Image
Shaded relief derived from 90 m Shuttle Radar Topography Mission digital elevation model (SRTM DEM) of the Zanskar and Ladakh Ranges flanking the upper Indus River, NW India, and tributary catchments sampled (red—dominantly Ladakh Batholith; blue—dominantly Indus Group and structurally complex rocks of the Tso Morari Dome). UG, LG—Upper, Lower Indus bedrock gorge, respectively; LV—Leh valley area with low-gradient valley fill (orange). Dashed black line is boundary between Ladakh Batholith and Indus Group. Small triangles are Gya, Zanskar, Yapola, and Indus River sample locations. Fault in center is Choksti fault (after Sinclair and Jaffey, 2001). KKF—Karakoram fault after Searle et al. (1998). Basinwide denudation rates for catchments 7, 13, and 16 are after Dortch et al. (2011) (see also Table DR3 [see text footnote 1]). Catchment 19 was obviously affected by a large landslide, and the 10Be concentration therefore was not used for this analysis. Upper inset map shows location of study area, NP—western Himalayan syntaxis with Nanga Parbat. Lower inset shows major lithotectonic domains (after Steck, 2003).
Published: 01 November 2014
complex rocks of the Tso Morari Dome). UG, LG—Upper, Lower Indus bedrock gorge, respectively; LV—Leh valley area with low-gradient valley fill (orange). Dashed black line is boundary between Ladakh Batholith and Indus Group. Small triangles are Gya, Zanskar, Yapola, and Indus River sample locations. Fault
Journal Article
Journal: Geology
Published: 01 June 2000
Geology (2000) 28 (6): 487–490.
... Morari massif. We discuss the implications of these new results on the early evolution of the Himalayan orogeny and the Tso Morari exhumation. The Tso Morari dome is located in the internal part of the northwestern Himalaya (east Ladakh), between the Indus suture zone to the north and the Zanskar...
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First thumbnail for: Dating the Indian continental subduction and colli...
Second thumbnail for: Dating the Indian continental subduction and colli...
Third thumbnail for: Dating the Indian continental subduction and colli...
Journal Article
Published: 01 March 2004
European Journal of Mineralogy (2004) 16 (2): 235–240.
... in Table 1. Table 1. Representative mineral analysis in coesite eclogite. The Tso-Morari Crystalline Complex occurs as a dome located between the Indus suture zone to the north and the Zanskar sedimentary unit in the south ( Thakur, 1983 ). The Tso-Morari dome appears as an internal...
FIGURES
First thumbnail for: Discovery of coesite from Indus Suture Zone (ISZ),...
Second thumbnail for: Discovery of coesite from Indus Suture Zone (ISZ),...
Third thumbnail for: Discovery of coesite from Indus Suture Zone (ISZ),...
Journal Article
Journal: Geology
Published: 01 February 2001
Geology (2001) 29 (2): 192–193.
.... , 1997 , Glaucophane-bearing eclogites in the Tso Morari dome (eastern Ladakh, NW Himalaya) : European Journal of Mineralogy , v. 9 p. 1073 – 1083 . de Sigoyer , J. , Chavagnac , V. , Blichert-Toft , J. , Villa , I. , Luais , B. , Guillot , S. , Cosca , M...
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Pressure–temperature (P–T) paths of exhumed (ultra)high-pressure ([U]HP) rocks. (A) Cooling during decompression and reheating at low-pressure condition. (B) Almost near-isothermal decompression and reheating at high-pressure or low-pressure conditions. P–T paths in part A: A1—Altyn Tagh, NW China (Gai et al., 2022b); SM—the southern Sivrihisar Massif, Turkey (Whitney et al., 2011); TW—Tauern Window, Eastern Alps (Kurz et al., 1998). P–T paths in part B: A2—Altyn Tagh, NW China (Dong and Wei, 2021); CQC—central part of the Qinling Complex, Central China (Liao et al., 2016); DS—Dabie Sulu, Central China (Liu et al., 2013); ME—Moldanubian eclogite, Bohemian Massif (Faryad and Fišera, 2015); MG—Moldanubian granulite, Bohemian Massif (Jedlicka et al., 2015); MZ—Moldanubian Zone of the Bohemian Massif, Lower Austria (Carswell and O’Brien, 1993); NQC—northern part of the Qinling Complex, Central China (Zhang et al., 2009); PC—Podolsko Complex, Bohemian Massif (Faryad and Žak, 2016); SQC—southern part of the Qinling Complex, Central China (Dong et al., 2022); TM—Tso Morari dome, northwestern Himalayas (Chatterjee and Jagoutz, 2015). AM—amphibolite facies; BS—blueschist facies; GR—granulite facies; GS—greenschist facies; EC—eclogite facies; Dia—diamond; Gph—graphite; Coe—coesite; Qz—quartz.
Published: 21 September 2023
of the Qinling Complex, Central China ( Zhang et al., 2009 ); PC—Podolsko Complex, Bohemian Massif ( Faryad and Žak, 2016 ); SQC—southern part of the Qinling Complex, Central China ( Dong et al., 2022 ); TM—Tso Morari dome, northwestern Himalayas ( Chatterjee and Jagoutz, 2015 ). AM—amphibolite facies; BS
Journal Article
Published: 16 November 2022
Mineralogical Magazine (2023) 87 (1): 40–59.
..., timing and conditions of the metamorphic evolution of a suite of low-strain metagranites from the Tso Morari Complex, an ultrahigh-pressure metamorphic dome in Ladakh, NW Himalaya ( Fig. 1 ). Whereas eclogite-facies metamorphism has been recorded in mafic bodies, very little evidence has survived...
FIGURES
First thumbnail for: The emplacement, alteration, subduction and metamo...
Second thumbnail for: The emplacement, alteration, subduction and metamo...
Third thumbnail for: The emplacement, alteration, subduction and metamo...
Journal Article
Journal: Geology
Published: 01 August 2013
Geology (2013) 41 (8): 835–838.
... . de Sigoyer J. Guillot S. Lardeaux J.-M. Mascle G. , 1997 , Glaucophane-bearing eclogites in the Tso Morari dome (eastern Ladakh, NW Himalaya) : European Journal of Mineralogy , v. 9 , p. 1073 – 1083 . de Sigoyer J. Chavagnac V. Blichert-Toft J. Villa I.M...
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First thumbnail for: Petrochronology of Himalayan ultrahigh-pressure ec...
Second thumbnail for: Petrochronology of Himalayan ultrahigh-pressure ec...
Third thumbnail for: Petrochronology of Himalayan ultrahigh-pressure ec...
Journal Article
Published: 01 May 2003
Journal of the Geological Society (2003) 160 (3): 385–399.
... constrained the time of greenschist-facies retrogression in the Tso Morari dome to c . 30 Ma, which previously represented the only geochronological data available for the low-temperature thermal history of the North Himalayan nappe stack, which comprises the Mata, Nyimaling Tsarap, Tetraogal and Tso Morari...
FIGURES
First thumbnail for: Exhumation history of eastern Ladakh revealed by 4...
Second thumbnail for: Exhumation history of eastern Ladakh revealed by 4...
Third thumbnail for: Exhumation history of eastern Ladakh revealed by 4...
Journal Article
Journal: Geology
Published: 01 May 2010
Geology (2010) 38 (5): 399–402.
... field, petrographic, and geochronologic studies have established that the studied metabasic eclogites of the Tso Morari Complex represent metamorphosed continental mafic plutonic and volcanic rocks within the paragneiss and metapelite sequence interbedded with the granitic gneissic dome of the Himalayas...
FIGURES
First thumbnail for: Evidence of former majoritic garnet in Himalayan e...
Second thumbnail for: Evidence of former majoritic garnet in Himalayan e...
Third thumbnail for: Evidence of former majoritic garnet in Himalayan e...
Journal Article
Journal: GSA Bulletin
Published: 01 November 2014
GSA Bulletin (2014) 126 (11-12): 1580–1594.
...; TD: Tso Morari dome, IG1–2: Indus Group). Large arrows point to upper (UG) and lower (LG) bedrock gorges and the Leh valley (LV). Main southern tributaries (Gya, Zanskar, and Yapola Rivers) represent distinct provenance reaches. Note stepwise increase in lithics (L) in Indus River sands downstream...
FIGURES
First thumbnail for: Postglacial denudation of western Tibetan Plateau ...
Second thumbnail for: Postglacial denudation of western Tibetan Plateau ...
Third thumbnail for: Postglacial denudation of western Tibetan Plateau ...
Journal Article
Published: 13 May 2024
Journal of the Geological Society (2024) 181 (4): jgs2023-116.
... , https://doi.org/10.1016/j.epsl.2004.08.019 de Sigoyer , J. , Guillot , S. , Lardeaux , J.-M. and Mascle , G. 1997 . Glaucophane-bearing eclogites in the Tso Morari dome (eastern Ladakh, NW Himalaya) . European Journal of Mineralogy , 227 , 331 – 343 , https://doi.org/10.1127...
FIGURES
First thumbnail for: Tracing a remnant of subducted Indian felsic crust...
Second thumbnail for: Tracing a remnant of subducted Indian felsic crust...
Third thumbnail for: Tracing a remnant of subducted Indian felsic crust...
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Simplified geologic map of the Zanskar River basin after Fuchs (1987) with additions for Zanskar Shear Zone from Dèzes et al. (1999), southern Zanskar (Lahul) from Steck et al. (1993), and Tso Kar area from Epard and Steck (2008). Sample locations are noted with white dots. N-T—Nyimaling–Tso Morari gneiss dome.
Published: 01 July 2017
—Nyimaling–Tso Morari gneiss dome.
Journal Article
Journal: GSA Bulletin
Published: 12 July 2018
GSA Bulletin (2018) 130 (11-12): 2047–2061.
... with those of widespread S-type granites that exist along the length of the Lesser Himalaya (e.g., Mansehra, Mandi, and Kathmandu granites), Greater Himalaya (e.g., Nanga Parbat, Kinnaur Kailas, and Ama Drime), and in the North Himalayan domes (e.g., the Tso Morari, Kangmar, and Kampa domes). Thus, based...
FIGURES
First thumbnail for: U-Pb monazite ages from the Pakistan Himalaya reco...
Second thumbnail for: U-Pb monazite ages from the Pakistan Himalaya reco...
Third thumbnail for: U-Pb monazite ages from the Pakistan Himalaya reco...
Journal Article
Journal: Clay Minerals
Published: 01 June 2001
Clay Minerals (2001) 36 (2): 237–247.
... Himalaya. These metasediments belong to a large basin that extends further NW to the Zanskar valley and SE to the Spiti valley. It is bordered to the NE by the Northern Himalayan Crystalline Sequence, represented here by the Tso Morari dome ( Berthelsen, 1953 ). The core of the dome comprises a Cambro...
FIGURES
First thumbnail for: Synorogenic extension in the Tethyan Himalaya docu...
Second thumbnail for: Synorogenic extension in the Tethyan Himalaya docu...
Third thumbnail for: Synorogenic extension in the Tethyan Himalaya docu...
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Simplified geological map of the Western Himalaya in north India showing the main Greater Himalayan Sequence with deep-level gneiss domes and the Tso Morari complex in the north, part of the North Himalayan metamorphic core complexes.
Published: 02 April 2019
Fig. 6. Simplified geological map of the Western Himalaya in north India showing the main Greater Himalayan Sequence with deep-level gneiss domes and the Tso Morari complex in the north, part of the North Himalayan metamorphic core complexes.