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Kubadru Fault

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Journal Article
Published: 01 May 2025
Russ. Geol. Geophys. (2025) 66 (5): 630–643.
...E.V. Deev; V.V. Olenchenko; A.A. Duchkov; A.A. Zaplavnova; O.V. Safronov Active faults under permafrost conditions in the highland part of Gorny Altai (South Chuya and Kubadru fault zones) and the Lena River delta (Primorsky Fault Zone) were studied using the electrical resistivity tomography...
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First thumbnail for: GEOELECTRIC PATTERNS OF ACTIVE <span class="search...
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Geoelectric section through the fault scarp at the southeastern end of the Kubadru Fault based on results of 2D inversion of ERT data. The symbols are as those given in Fig. 5.
Published: 01 May 2025
Fig. 7. Geoelectric section through the fault scarp at the southeastern end of the Kubadru Fault based on results of 2D inversion of ERT data. The symbols are as those given in Fig. 5 .
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Structure of the surface rupture zone of paleoearthquakes at the eastern end of the Kubadru Fault. a – Left-stepping enechelon segments of the fault scarp and the position of the ERT profile; the background used is a digital elevation model obtained from an unmanned aerial vehicle (UAV) survey. 1 – surface rupture; 2 – ERT profile. See Fig. 1 for location; b – section of the southeastern wall of the Buguzun 1 trench, modified after [Deev et al., 2022b]. 1 – Unit 1: light gray alluvial-fan pebble in sandy matrix; 2 – Unit 2: light gray massive pebble in sandy matrix. Colluvial wedge of paleoearthquake 1; 3 – Unit 3: gray massive medium-grained sand. Dike which appeared owing to fluidization of sands during paleoearthquake 2; 4 – Unit 4: brown humus-rich fine sand. Buried soil; 5 – Unit 5: light gray massive pebble in sandy matrix. Colluvial wedge of paleoearthquake 2; 6 – Unit 6: light brown massive medium-grained sand with gravels. Fluidized sands outpoured during paleoearthquake 3; 7 – Unit 7: pale yellow coarse sand with gravels. Colluvial wedge of paleoearthquake 3; 8 – Unit 8: dark brown humus-rich fine sand with very fine to fine pebbles. Colluvial wedge of paleoearthquake 4; 9 – Unit 9: modern soil; 10 – fracture; 11 – fault. F1–F5 – Numbers of faults and fractures.
Published: 01 May 2025
Fig. 6. Structure of the surface rupture zone of paleoearthquakes at the eastern end of the Kubadru Fault. a – Left-stepping enechelon segments of the fault scarp and the position of the ERT profile; the background used is a digital elevation model obtained from an unmanned aerial vehicle (UAV
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Schematic geological map of the Kubadru mass, Gorny Altai (compiled on the basis of the 1 : 50,000 geological map from [11, 36], with supplements). Inset shows the schematic tectonic structure of the Gorny Altai–West Sayan junction zone (after [2], with supplements): 1 — fragments of the Altai-Mongolian microcontinent with a Late Proterozoic sialic basement; 2 — Teletskoe block; 3 — Devonian depressions; 4 — undifferentiated granitoids; 5 — major shear zones; 6 — masses: 1 — Kubadru, 2 — Karakudyur, 3 — Onysh, 4 — Altyntau. Geological map (after [36]): 7 — Quaternary deposits; 8 — Early-Middle Devonian undifferentiated volcanosedimentary deposits; 9–13 — Kubadru gabbro-diorite–quartz-diorite–granodiorite–granite complex (D3–C1): 9 — aplite-like and pegmatoid granites of phase 5, 10 — large-phenocryst biotite (±muscovite) granite-leucogranites of phase 4, 11 — porphyritic biotite granodiorites of phase 3, 12 — medium-grained quartz diorites and diorites of phase 2, 13 — medium-grained gabbro-diorites and gabbros of phase 1; 14, 15 — Vendian-Early Cambrian Kurai accretionary prism: 14 — ophiolite melange, 15 — nappe packet made up of volcanosedimentary deposits of the undifferentiated Balkhash and Tydtuyaryk Formations; 16–18 — Teletskoe block: 16 — amphibolites and amphibole (±biotite) schists, 17 — amphibole microschists, 18 — biotite granite-gneisses, migmatites, gneisses, and microschists with rare carbonate partings; 19 — Kurai metamorphic complex in the Chulyshman terrane; 20 — Vendian-Late Cambrian volcanosedimentary strata (undifferentiated Chulektash, Chibitka, and Bel’kenek Formations) in the Gorny Altai terrane; 21 — dynamometamorphosed formations; 22 — schistosity; 23 — faults: a — revealed, b — predicted.
Published: 01 June 2004
Fig. 1. Schematic geological map of the Kubadru mass, Gorny Altai (compiled on the basis of the 1 : 50,000 geological map from [ 11 , 36 ], with supplements). Inset shows the schematic tectonic structure of the Gorny Altai–West Sayan junction zone (after [ 2 ], with supplements): 1 — fragments
Journal Article
Published: 01 June 2004
Russ. Geol. Geophys. (2004) 45 (6): 688–702.
...Fig. 1. Schematic geological map of the Kubadru mass, Gorny Altai (compiled on the basis of the 1 : 50,000 geological map from [ 11 , 36 ], with supplements). Inset shows the schematic tectonic structure of the Gorny Altai–West Sayan junction zone (after [ 2 ], with supplements): 1 — fragments...
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First thumbnail for: INTERNAL STRUCTURE, GEODYNAMIC SETTING, AND U-Pb I...
Second thumbnail for: INTERNAL STRUCTURE, GEODYNAMIC SETTING, AND U-Pb I...
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Journal Article
Published: 01 January 2014
Russ. Geol. Geophys. (2014) 55 (1): 98–107.
... transcrustal fault zone and is expressed geomorphically as a scarp along the foot of the Kurai and Kubadru mountains ( Bondarenko et al., 1968 ). The graben presumably extends westward along the Kubadru foothills, then follows the tectonic gorge of the Chibitka River, and finally opens into the Sorulukel basin...
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First thumbnail for: Deep structure and margins of the Kurai Basin (Gor...
Second thumbnail for: Deep structure and margins of the Kurai Basin (Gor...
Third thumbnail for: Deep structure and margins of the Kurai Basin (Gor...
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Geologic scheme of the Kurai metamorphic complex, Gorny Altai, based on the data by Rodygin (1968) and data of 1:50,000 scale geological survey performed in 1991, with modifications. 1, Quaternary deposits; 2, Late Carboniferous sedimentary deposits; 3, united Devonian volcanosedimentary deposits; 4, Cambrian–Early Ordovician deposits of the West Sayan turbidite paleobasin; 5, 6, Vendian–Early Cambrian deposits of the Kurai island-arc system (5, ophiolite melange; 6, united volcanosedimentary deposits); 7, Late Riphean oceanic basalts; 8, Late Riphean–Vendian marbleized limestones; 9, Teletskoe metamorphic complex; 10–14, Kurai metamorphic complex (10–12, Tongulak series (10, granite-gneisses; 11, amphibolites; 12, gneisses, schists); 13, Il’dugem series; 14, Korumby-Airy series); 15, Terandzhik gabbro-granitoid intrusion, T1; 16, Devonian granitoids (united Kubadru and Korumby-Airy complexes); 17, 18, faults (17, established; 18, predicted). Fields: I, Kurkurek, II, Kurai, III, Nizhnii Il’dugem. The locality of sampling of kyanite-bearing gneisses of the Tongulak series (near field I) is asterisked (1: 50,000 scale geological survey performed in 1991). Inset shows a tectonic scheme of the junction zone of geologic structures of Gorny Altai and West Sayan, based on data by Buslov (1998) with modifications: 1, Teletskoe block; 2, united granitoids; 3, faults.
Published: 01 April 2014
granitoids (united Kubadru and Korumby-Airy complexes); 17 , 18 , faults ( 17 , established; 18 , predicted). Fields: I, Kurkurek, II, Kurai, III, Nizhnii Il’dugem. The locality of sampling of kyanite-bearing gneisses of the Tongulak series (near field I) is asterisked (1: 50,000 scale geological survey
Journal Article
Published: 01 April 2014
Russ. Geol. Geophys. (2014) 55 (4): 411–427.
... granitoids (united Kubadru and Korumby-Airy complexes); 17 , 18 , faults ( 17 , established; 18 , predicted). Fields: I, Kurkurek, II, Kurai, III, Nizhnii Il’dugem. The locality of sampling of kyanite-bearing gneisses of the Tongulak series (near field I) is asterisked (1: 50,000 scale geological survey...
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First thumbnail for: Geochemistry of metamorphic rocks of the Kurai blo...
Second thumbnail for: Geochemistry of metamorphic rocks of the Kurai blo...
Third thumbnail for: Geochemistry of metamorphic rocks of the Kurai blo...
Journal Article
Published: 01 April 2003
Russ. Geol. Geophys. (2003) 44 (4): 297–304.
...V.A. Anan’ev; O.P. Polyansky; G.G. Lepezin; V.V. Reverdatto The Tongulak metamorphic complex lies in southeastern Gorny Altai, in the Bashkaus-Kubadru interfluve. Four zones have been recognized in its composition: chloritic (on the periphery), cordieritic, sillimanitic, and staurolite-free...
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First thumbnail for: METAMORPHIC ZONING OF THE TONGULAK MOUNTAIN RANGE,...
Second thumbnail for: METAMORPHIC ZONING OF THE TONGULAK MOUNTAIN RANGE,...
Third thumbnail for: METAMORPHIC ZONING OF THE TONGULAK MOUNTAIN RANGE,...
Journal Article
Published: 01 July 1998
Russ. Geol. Geophys. (1998) 39 (7): 970–977.
... structure is not uniform. The central part is occupied by a lens-like northwesterly trending block (the Kurai block) bordered in the west and east by intricately built wrench fault zones. Along these zones, the block borders the Kubadru and Bashkaus massifs which are isometric neotectonically uplifted...
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First thumbnail for: NEOTECTONICS OF THE KURAI RIDGE ( Gorny Altai )
Second thumbnail for: NEOTECTONICS OF THE KURAI RIDGE ( Gorny Altai )
Third thumbnail for: NEOTECTONICS OF THE KURAI RIDGE ( Gorny Altai )
Journal Article
Published: 01 August 2017
Russ. Geol. Geophys. (2017) 58 (8): 973–983.
..., presence of intensely weathered pebbles and cobbles, and mainly yellowish color of the rocks, we correlate this interval with the Bashkaus Formation logged in the Kubadru stratotype section, as well as in natural outcrops and wells in the Kurai and Chuya Basins of Gorny Altai ( Devyatkin, 1965 ; Liskun...
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First thumbnail for: Reference section of Neogene–Quarternary deposits ...
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Journal Article
Published: 01 December 2004
Russ. Geol. Geophys. (2004) 45 (12): 1432–1440.
... AND GAS GEOLOGY Number of oil and gas fields in underexplored petroleum provinces: statistical modeling. V.R. Livshits . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . . GEOPHYSICS Geological implications of gravity data from the hanging wall of the main Uralian fault (southern...
Journal Article
Published: 01 June 2025
Russ. Geol. Geophys. (2025) 66 (6): 676–691.
... basins with the Kurai Range framing them from the north in the southeastern Gorny Altai. The morphostructures of different signs are joined along the Kurai Fault Zone. It is a one-sided positive flower structure. The north-northeast-dipping Kubadru Fault (Fig. 14) acts as a master fault...
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First thumbnail for: MECHANISMS OF TECTONIC STRUCTURE FORMATION IN THE ...
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Journal Article
Published: 01 January 2017
Russ. Geol. Geophys. (2017) 58 (1): 123–132.
...N.N. Nevedrova; E.V. Deev; P.V. Ponomarev Abstract This paper presents an integrated measurement technique based on DC methods (vertical electrical sounding, electrical resistivity tomography) which was used to identify faults and determine their geoelectric parameters in the western part...
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First thumbnail for: <span class="search-highlight">Fault</span> struct...
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Journal Article
Published: 01 June 2022
Russ. Geol. Geophys. (2022) 63 (6): 743–754.
... developed as a transpression flower structure, with the Kubadru master fault in the middle of the Kurai Range and a system of north-dipping reverse faults and thrusts along which the Kurai Range is stepping over the two basins ( Delvaux et al., 2013 ). At some sites, the motion on such faults includes...
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First thumbnail for: OSL Dating of the Sukor Earthquake-induced Rocksli...
Second thumbnail for: OSL Dating of the Sukor Earthquake-induced Rocksli...
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Journal Article
Published: 01 February 2014
Russ. Geol. Geophys. (2014) 55 (2): 237–251.
...-lived deep faults bordering on trough (rift) structures experiencing the tectonic-magmatic activity or as (2) postcollisional zones of shearing and pull-apart dislocations. Thus, large fields of spodumene pegmatites might serve as indicators of continental-lithosphere extension. Important factors...
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First thumbnail for: Large fields of spodumene pegmatites in the settin...
Second thumbnail for: Large fields of spodumene pegmatites in the settin...
Third thumbnail for: Large fields of spodumene pegmatites in the settin...
Journal Article
Published: 01 June 2015
Russ. Geol. Geophys. (2015) 56 (6): 825–843.
...: K, Kurai; SCh, South Chuya; Zh, Zhumala; S, Sarzhematy; T, Tashanta; Yu, Yustyd; B, Buguzun; TV, Tuva; 4 , intrusive massifs of the Tarkhata and Terandzhik complexes: Tr, Tarkhata; Zhn, Zhanedyngui; Tzh, Terandzhik; 5 , fault zones: a , major (terrane boundaries); b , accessory (intrablock); 6...
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First thumbnail for: Early Mesozoic lamproites and monzonitoids of sout...
Second thumbnail for: Early Mesozoic lamproites and monzonitoids of sout...
Third thumbnail for: Early Mesozoic lamproites and monzonitoids of sout...