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Kalatongke Deposit

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Journal Article
Journal: Economic Geology
Published: 01 May 2012
Economic Geology (2012) 107 (3): 481–506.
...Jian-Feng Gao; Mei-Fu Zhou; Peter C. Lightfoot; Christina Yan Wang; Liang Qi Abstract The Kalatongke Cu-Ni sulfide deposit in the Paleozoic Altay orogenic belt, NW China, is hosted in a Permian mafic intrusion consisting of norite, troctolite, gabbro, and diorite. Disseminated Ni-Cu, massive Ni-Cu...
FIGURES | View All (14)
Journal Article
Journal: Economic Geology
Published: 01 December 2022
Economic Geology (2022) 117 (8): 1761–1778.
...Ya-Jing Mao; Stephen J. Barnes; Belinda Godel; Louise Schoneveld; Ke-Zhang Qin; Dongmei Tang; Morgan Williams; Zhen Kang Abstract The Kalatongke magmatic Ni-Cu deposit features high Ni-Cu grades compared with other Ni-Cu deposits in the Central Asian orogenic belt. The sulfides, mainly hosted...
FIGURES | View All (11)
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Location of <span class="search-highlight">Kalatongke</span> <span class="search-highlight">deposit</span> in the Xinjiang Uygur Autonomous Region, Chi...
Published: 03 December 2024
Figure 14. Location of Kalatongke deposit in the Xinjiang Uygur Autonomous Region, China (modified after Mao et al., 2018 ). The Kalatongke deposit is highlighted in red in the figure.
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Underground images of the typical ores from the <span class="search-highlight">Kalatongke</span> <span class="search-highlight">deposit</span>. (a, b) ...
Published: 01 December 2022
Fig. 2. Underground images of the typical ores from the Kalatongke deposit. (a, b) Globular ore with variable grain size observed in olivine norite and gabbronorite at line 51 of the Y2 intrusion; part of the globule was connected with others forming a sulfide network, and the rim of the sulfide
Journal Article
Journal: Economic Geology
Published: 01 December 2022
Economic Geology (2022) 117 (8): 1779–1789.
... to explore the Ni-Cu ores in the Central Asian orogenic belt. The Kalatongke deposit is the largest Ni-Cu deposit in the Central Asian orogenic belt and has become the second largest Ni-Cu sulfide deposit, after the Jinchuan Ni-Cu sulfide deposit, in China ( Duan et al., 2017 ). We selected...
FIGURES | View All (12)
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Location of the <span class="search-highlight">Kalatongke</span> Ni-Cu <span class="search-highlight">deposit</span> in the Xinjiang Uygur Autonomous R...
Published: 02 February 2023
Figure 1. Location of the Kalatongke Ni-Cu deposit in the Xinjiang Uygur Autonomous Region, China (modified after Mao et al., 2018 ). The Kalatongke deposit is marked in red.
Journal Article
Published: 01 May 2023
American Mineralogist (2023) 108 (5): 832–846.
...Ya-Jing Mao; Stephen J. Barnes; Louise Schoneveld; Belinda Godel; Morgan Williams; Dongmei Tang; Zhen Kang; Ke-Zhang Qin Abstract Spinel minerals occur as inclusions in both silicates and sulfides in the Kalatongke magmatic Ni-Cu deposit in NW. China, showing textural and compositional variations...
FIGURES | View All (10)
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Al-Fe-Cr ternary diagram for the Cr-spinel, Cr-magnetite, and magnetite of ...
Published: 01 May 2023
Figure 6. Al-Fe-Cr ternary diagram for the Cr-spinel, Cr-magnetite, and magnetite of the Kalatongke deposit, in comparison with that from other regional deposits and the Noril’sk camp. The Kalatongke data are from this study. The Norilsk spinel data are from Schoneveld et al. (2020
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Location of the Ni-Cu <span class="search-highlight">deposits</span> in the Central Asian orogenic belt. The Kala...
Published: 01 December 2022
Fig. 1. Location of the Ni-Cu deposits in the Central Asian orogenic belt. The Kalatongke deposit is marked in red (modified from Wei et al., 2019 ).
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Correlation between Ni, Co, Zn content and ferrous Fe in the X site of the ...
Published: 01 May 2023
Figure 8. Correlation between Ni, Co, Zn content and ferrous Fe in the X site of the Cr-spinel, Cr-magnetite, and magnetite from the Kalatongke deposit. The ratio is calculated by ferrous Fe to other elements. (Color online.)
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A simplified geologic map of the Xinjiang Uygur autonomous region in northw...
Published: 13 June 2020
Figure 11. A simplified geologic map of the Xinjiang Uygur autonomous region in northwest China, showing the location of the observed area, Kalatongke deposit, displayed by the yellow solid circle in the upper part of the map (modified from Mao et al., 2018 ).
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Simplified geological map ( a ) and sections ( b–d ) of the <span class="search-highlight">Kalatongke</span> depo...
Published: 01 May 2023
Figure 2. Simplified geological map ( a ) and sections ( b–d ) of the Kalatongke deposit, showing the distribution of the mafic intrusions and the variable types of sulfide mineralization within them. The geological map is from Wang and Zhao (1991) , whereas the sections are from Xinxin Mining
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(a) Simplified geologic map of the Central Asian orogenic belt, showing the...
Published: 01 December 2022
Fig. 1. (a) Simplified geologic map of the Central Asian orogenic belt, showing the distribution of Irtysh fault ( Briggs et al., 2007 ). (b-e) Geologic map and sections of the Kalatongke deposit, showing the distribution of the mafic intrusions and different kinds of mineralization, modified
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Sulfide particle size distribution (PSD) of individual samples from the Kal...
Published: 01 December 2022
Fig. 8. Sulfide particle size distribution (PSD) of individual samples from the Kalatongke deposit, showing kinked PSD with two log-linear segments. The dashed gray lines represent linear regression curves for different segments. The solid gray line shows the cumulative frequency of sulfide
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Major contents ( a–e ) and Cr# variation ( f ) in Cr-spinel, Cr-magnetite, ...
Published: 01 May 2023
Figure 5. Major contents ( a–e ) and Cr# variation ( f ) in Cr-spinel, Cr-magnetite, and magnetite of the Kalatongke deposit. Mg# equals 100 × Mg/(Mg+Fe), Cr# equals 100 × Cr/(Cr+Al). The Al 2 O 3 and Cr 2 O 3 contents in magnetite are close to the detection limit and not plotted in the Cr
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A cartoon shows the emplacement and enrichment processes of the <span class="search-highlight">Kalatongke</span> ...
Published: 01 December 2022
Fig. 10. A cartoon shows the emplacement and enrichment processes of the Kalatongke deposit. (a) A bladed dike intruded along the intersections of faults. (b) Sulfide accumulated at the funnel-shaped pathway. (c) Sulfide segregation in the tubeshaped pathway and accumulation at the base
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The discrimination diagrams of the origin of the massive sulfide in terms o...
Published: 01 May 2023
Figure 10. The discrimination diagrams of the origin of the massive sulfide in terms of the association of Cr vs. Ti ( a ), V ( b ), and Ni ( c ) contents in magnetite. The magnetite included in the massive sulfide of the Kalatongke deposit plot on the region of the magnetite crystallized from
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Pearce trace element ratio-ratio plots for intrusion-dominated orogens and ...
Published: 02 February 2023
North host intrusions compared with background in the Halls Creek Orogen. ( c ) Jinchuan deposit, Gansu, China. ( d ) Xiarihamu deposit in the Kunlun Orogenic Belt, Tibet. ( e ) Kalatongke deposit, Central Asian Orogenic Belt (CAOB), Xinjiang, China and other deposits in the CAOB. PM-UCC mix
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Trace element variations of Cr-spinel, Cr-magnetite, and magnetite from the...
Published: 01 May 2023
Figure 7. Trace element variations of Cr-spinel, Cr-magnetite, and magnetite from the Kalatongke deposit. The Cr-magnetite grains enclosed in disseminated sulfides have similar V, Sc, Ga, Mo, Zr, and Nb concentrations ( a–f ) but depleted Ni, Co, and Zn ( g–i ) contents relative to those enclosed
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Photos and combined false-color X-ray fluorescence (XRF) images of the type...
Published: 01 December 2022
Fig. 3. Photos and combined false-color X-ray fluorescence (XRF) images of the type-1 globular sulfides in fine-grained gabbro (a) and moderate- to coarse-grained gabbronorite (b), emulsion textured ore (c, d), and massive ore (e) of the Kalatongke deposits at a hand sample scale, showing