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Xia, Yong-Qi; Tuo, Ming-Jie; Li, Nuo; Madayipu, Nuerkanati; Zhang, Chao; Cheng, Li-Ning; Wang, Wen-Bo; Qi, Dong-Mei (2025) Petrogenesis and evolution of internally zoned pegmatites: A tourmaline perspective from the Dakalasu deposit, Chinese Altai. Ore Geology Reviews, 181. 106624 doi:10.1016/j.oregeorev.2025.106624

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Reference TypeJournal (article/letter/editorial)
TitlePetrogenesis and evolution of internally zoned pegmatites: A tourmaline perspective from the Dakalasu deposit, Chinese Altai
JournalOre Geology Reviews
AuthorsXia, Yong-QiAuthor
Tuo, Ming-JieAuthor
Li, NuoAuthor
Madayipu, NuerkanatiAuthor
Zhang, ChaoAuthor
Cheng, Li-NingAuthor
Wang, Wen-BoAuthor
Qi, Dong-MeiAuthor
Year2025Volume<   181   >
Page(s)106624
URL
DOIdoi:10.1016/j.oregeorev.2025.106624Search in ResearchGate
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Mindat Ref. ID18354475Long-form Identifiermindat:1:5:18354475:3
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Full ReferenceXia, Yong-Qi; Tuo, Ming-Jie; Li, Nuo; Madayipu, Nuerkanati; Zhang, Chao; Cheng, Li-Ning; Wang, Wen-Bo; Qi, Dong-Mei (2025) Petrogenesis and evolution of internally zoned pegmatites: A tourmaline perspective from the Dakalasu deposit, Chinese Altai. Ore Geology Reviews, 181. 106624 doi:10.1016/j.oregeorev.2025.106624
Plain TextXia, Yong-Qi; Tuo, Ming-Jie; Li, Nuo; Madayipu, Nuerkanati; Zhang, Chao; Cheng, Li-Ning; Wang, Wen-Bo; Qi, Dong-Mei (2025) Petrogenesis and evolution of internally zoned pegmatites: A tourmaline perspective from the Dakalasu deposit, Chinese Altai. Ore Geology Reviews, 181. 106624 doi:10.1016/j.oregeorev.2025.106624
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Abstract/NotesThe role of fractional crystallization and partial melting on pegmatite is controversial. To constrain the evolution and petrogenesis of internally zoned pegmatites, we selected the Dakalasu No. 1 pegmatite dike, Chinese Altai, as a case, and used tourmaline as a probe. Tourmalines were developed along the boundary between pegmatite and the host biotite granite porphyry (Tur BⅠ), at the border zone Ⅱ (Tur BⅡ) and further at the intermediate zone (Tur IM), but absent in the central zone of the pegmatite. All the tourmalines belong to alkaline schorl series. Tur BⅠ exhibits elevated concentrations of Mg (3.42–4.63 %) and V (104.2–263.4 ppm), coupled with low Al content at Y site, indicative of interaction between pegmatite and the host biotite granite. Tur BⅡ and Tur IM have high ratios of Fe/Mg (5.00–6.70), but low Mg/(Mg + Fe) (0.13–0.18), suggestive of a magmatic origin. The contents of rare metals (Li, Be, Nb, Ta, and Sn) of tourmaline increase inward, whereas the contents of Mg, Ca, Sr, Ni, V, Cr and the ratio of Mg/(Mg + Fe) decrease, suggesting a sequential evolution from the border to the intermediate zone. All tourmalines contain low content of Li, indicating a limited fractional crystallization. Boron isotopes (δ11B = −15.84 ‰ – −14.55 ‰) in tourmaline indicate that the pegmatite dike originates from the low-degree partial melting of metasedimentary rocks, rather than fractional differentiation of the host granite. We propose that tourmaline in zoned pegmatites can be employed as a pathfinder to explore the petrogenesis and evolution of pegmatite.

References Listed

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LocalityCitation Details
Dakalasu No.1 pegmatite deposit, Dakalasu Mine (Dahalasu Mine), Aletai Co. (Altay Co.), Altay Prefecture (Aletai Prefecture), Ili Kazakh Autonomous Prefecture, Xinjiang, China

Mineral Occurrences

LocalityMineral(s)
Dakalasu No.1 pegmatite deposit, Dakalasu Mine (Dahalasu Mine), Aletai Co. (Altay Co.), Altay Prefecture (Aletai Prefecture), Ili Kazakh Autonomous Prefecture, Xinjiang, China Albite, Beryl, Biotite granite, Columbite-(Fe)-Columbite-(Mn) Series, Columbite-Tantalite, Feldspar Group, Garnet Group, Gneiss, Granite, K Feldspar, Microcline, Microlite Group, Muscovite, Muscovite-biotite granite, Pegmatite, Plagioclase, Porphyry, Quartz, Rutile, Schist, Schorl, Slate, Tantalite, Tapiolite, Tourmaline


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