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Muzkol Range

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Journal Article
Published: 01 November 2000
Russ. Geol. Geophys. (2000) 41 (11): 1454–1470.
.... The southern slope of the Muzkol Range was selected for investigation as an extremely complicated region of the Central Pamirs, containing the most representative exposures of all the packages of tectonic plates of parautochthone and allochthone. The characteristic features of autochthone are given in our...
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Dynamics of the Alpine nappe formation on the southern slope of the Muzkol Range (principal scheme), 1–5 – geological complexes (1 – Proterozoic, 2 – Paleozoic, 3 – Mesozoic, 4 – Paleocene–Eocene, 5 – Oligocene–Miocene); 6 – main decollements; 7 – direction of mass transport on tangential compression; 8 – direction of transfer of c1astics; 9 – contact-metasomatic processes; 10 – syncollisional granitoids. A – Muzkol–Kalaktash trough, B – Muzkol uplift, C – Sauksai – Kukurt–Dzhilga trough. I–IV – paleotectonic profiles (I – Paleocene–Early Eocene, II – Late Eocene–Early Oligocene, III – Late Oligocene–Early Miocene, IV – Late Pliocene–Early Pleistocene). Kk, Cc – parautochthone, gravitational decollement nappes (Kukurt-Dzhilga, Sauksai). M, K + NP, N, S – allochthone, tectonically layered imbricated nappes (Muzkol, Kalaktash + North Pamirs, North Pshart, and South Pshart, respectively).
Published: 01 November 2000
Fig. 10. Dynamics of the Alpine nappe formation on the southern slope of the Muzkol Range (principal scheme), 1 – 5 – geological complexes ( 1 – Proterozoic, 2 – Paleozoic, 3 – Mesozoic, 4 – Paleocene–Eocene, 5 – Oligocene–Miocene); 6 – main decollements; 7 – direction of mass
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Comparative scheme of the sections of Paleozoic and Meso-Cenozoic nappe deposits on the southern slope of the Muzkol Range. 1 – limestones, lumpy and conglomerate-like limestones, marbleized limestones, and marbles; 2 – dolomitized limestones and dolomites, marls, and dolomite marls; 3 – shales and phyllites; 4 – schists and gneisses; 5 – sandstones and silts tones; 6 – quartzites; 7 – tuff sandstones and tuff conglomerates; 8 – conglomerates and gravelstones; 9 – conglomerate breccias; 10 – slates; 11 – lavas, lava breccias, and tuffs of basalts; 12 – lavas, lava breccias, and tuffs of andesite basalts; 13 – lavas and tuffs of dacites and rhyolites; 14 – trachytes; 15 – amphibolites; 16 – eroded surfaces; 17 – discordant surfaces. Encircled digits left of the columns – series, formations, or suites: 1 – Chottukoi, 2 – Belaga, 3 – Dzhar, 4 – Kara-Istyk, 5 – Bekzhol’, 6 – Kyzyl-Kyr, 7 – Zorabat, 8 – Kozyndyi, 9 – Buran, 10 – Tau, 11 – Sary-Kyr, 12 – Atkamar, 13 – Dzhaambai-Kukurt, 14 – Saly-Mula, 15 – Zor-Buguchi, 16 – Kalaktash, 17 – Kichik-Kainda, 18 – Mukur-Kainda, 19 – Zor-Kainda, 20 – Dzhan-Kainda, 21 – Dzhaambai-Chechikta, 22 – Vamar, 23 – Murkala, 24 – Shisharb, 25 – Molo-Kara-Dzhilga, 26 – Kukurt-Dzhilga, 27 – Tanymas- Kudara, 28 – Sarez. Their thickness in meters is given. Right of the columns, there are age indices of stratigraphic subdivisions. Roman digits above the columns stand for the nappes: I – South Pshart, II – North Pshart, III – Kalaktash, IV – North Pamir, V – Muzkol, VI and VII – Sauksai, VIII and IX – Kukurt-Dzhilga. I – West Pshart zone, II–V – South Muzkol zone, VI–IX – North Muzkol zone.
Published: 01 November 2000
Fig. 2. Comparative scheme of the sections of Paleozoic and Meso-Cenozoic nappe deposits on the southern slope of the Muzkol Range. 1 – limestones, lumpy and conglomerate-like limestones, marbleized limestones, and marbles; 2 – dolomitized limestones and dolomites, marls, and dolomite marls
Journal Article
Published: 01 July 1996
Russ. Geol. Geophys. (1996) 37 (7): 73–84.
...; 6–11 — granite-pegmatites within the cluster: 6 — Kuryatnik, the Kukurt-Zorburulyuk watershed, 7 — Lunnoe, stow of Dragons, 8 — Pereval’noe, Tura-Kuloma Range, 9 — left bank of the Kukurt River, 10 — site of albite body in the same body, 11 — right bank of the Kukurt River; 12, 13 — rocks from...
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Journal Article
Journal: Geology
Published: 01 October 2013
Geology (2013) 41 (10): 1071–1074.
... the Sarez dome ranging from 21 to 17 Ma has variable Yb/Gd with no coherent pattern. Monazite in the Muzkol-Shatput dome has dates of 28–18 Ma; monazite in one sample became more depleted (decreasing Yb/Gd) from 28 to 19 Ma whereas another sample became more enriched (increasing Yb/Gd) from 24 to 17 Ma...
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Journal Article
Published: 01 October 1996
Russ. Geol. Geophys. (1996) 37 (10): 34–46.
... increases in rare-metal – muscovite formation. In this series, the initial temperature of the formation of druse parageneses decreases and its temperature range is reduced along with increasing importance of carbon dioxide and boron at the cost of water and fluorine [ 14 ]. Cavity-free rare-metal...
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Journal Article
Published: 01 April 1997
Russ. Geol. Geophys. (1997) 38 (4): 825–831.
.... Anisotropy of line width of Mn 2+ -ions is accounted for mainly by the Fe 2+ and Be 2+ influence in accordance with the electrostatic mechanism. Concentration of Mn 2+ -ions in the perfect part of the crystals examined is practically constant (0.0 n wt. % MnO) and ranges from 5 to 65 % of total MnO content...
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Journal Article
Journal: Lithosphere
Publisher: GSW
Published: 12 November 2024
Lithosphere (2023) 2023 (Special 14): lithosphere_2023_293.
... ). The two AHe ages are 4.73 ± 0.73 Ma and 0.66 ± 0.07 Ma, respectively. Of the eighteen ZHe ages, fifteen are <3 Ma among which the nine ZHe ages from the vertical transect vary between a small range of ~1.0 and 1.5 Ma. The remaining three ZHe ages are >17 Ma with the oldest age of 71 Ma. Both AHe...
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Journal Article
Published: 01 January 1998
Russ. Geol. Geophys. (1998) 39 (1): 62–70.
...V. N. Stolpovskaya; E. V. Sokol; G. G. Lepezin Seventeen powder samples of natural cordierites, varying over a wide range of chemical compositions and origin, were studied by IR spectroscopy. All the samples are characterized by the presence of two principal types of channel water – type I and type...
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Journal Article
Published: 02 June 2020
The Canadian Mineralogist (2020) 58 (3): 381–394.
... tusionite, and schorl. It often grows together with Sc-bearing tusionite and occurs as single columnar crystals ranging from 50 to 400 μm in length, as inclusions in spessartine and tourmaline, and rarely as crystals in blebs along boundaries between garnet, tourmaline, and quartz. Badakhshanite-(Y...
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Journal Article
Journal: GSA Bulletin
Published: 01 July 2007
GSA Bulletin (2007) 119 (7-8): 882–896.
... schist. Typical schist assemblages include quartz + white mica + calcite &plusmn; chlorite, indicating greenschist facies metamorphic conditions. Triassic to Early Jurassic granites and granodiorites (Mz gr ) consist of medium-grained bodies ranging in size from sills several meters...
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Journal Article
Published: 01 November 2005
European Journal of Mineralogy (2005) 17 (6): 829–838.
...Taras A. BUL'BAK; Gennady Yu. SHVEDENKOV Abstract Experiments on cordierite saturation with “dry” methane, ammonia and the components of H 2 O-CH 4 and H 2 O-NH 3 binary mixtures were performed at 50, 150, 200 MPa in the temperature range from 400 to 800°C to examine the possibility of using Mg...
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Journal Article
Published: 01 February 2000
Russ. Geol. Geophys. (2000) 41 (2): 193–205.
... phases. The Kukurt gem cluster lies in the east of the Central Pamirs – within the Shatput dome of the Muzkol-Rangkul’ anticlinorium. The western exocontact of the leucogranite massif of the Shatput complex has more than 10 pegmatite bodies with relic miarolitic cavities. Besides tourmaline...
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Journal Article
Published: 01 January 1999
Russ. Geol. Geophys. (1999) 40 (1): 99–116.
... in cordierite channels. The experiments have also proved that hydrocarbons are present in the channels. It is shown that cordierite is a good material for sampling mineral-forming fluids. Cordierite fluid experiment IR spectroscopy kinetics Cordierite is stable over a wide range of temperatures...
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Journal Article
Journal: GSA Bulletin
Published: 01 March 2011
GSA Bulletin (2011) 123 (3-4): 585–600.
... and northern Qiangtang terrane crust is composed of supracrustal rocks. The Duguer Range, <25 km south of the southernmost mélange, exposes high-temperature, low-pressure metasedimentary rocks and orthogneisses with 476–471 Ma U-Pb crystallization ages that represent continental basement of the Qiangtang...
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Journal Article
Published: 20 December 2019
Canadian Journal of Earth Sciences (2020) 57 (5): 601–616.
.... Convergent displacements of large continental plates are responsible for the shortening of large areas that causes the thickening of the crust and forms mountain ranges. The total volume of the crust (at least its upper felsic part) remains nearly unchanged in the shortened areas, causing considerable...
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Series: Geological Society, London, Special Publications
Published: 01 January 2011
DOI: 10.1144/SP350.2
EISBN: 9781862395985
... and monazite age data were accepted in these cases. Even the above ‘wide span’ approach to pegmatite geochronology did not enable the author to collect data precise enough to allow all the pegmatite fields but even some well-known pegmatite belts to be placed within any age range with an accuracy of 25...
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