Wenchang Li

Wenchang Li


Research Focus & Metrics

Academic Career Length

13Years (2014-Present)

(Calculated once Scilit publication data is synced: current year − year of first publication + 1)

Representative Publications

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10 August 2017 in Mineralium Deposita
Verified
Journal Article
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QZQing Zhou
Qing Zhou
WLWenchang Li
Wenchang Li
CQChengshi Qing
Chengshi Qing
YLYang Lai
Yang Lai
YLYingxu Li
Yingxu Li
ETEnyuan Tian
Enyuan Tian

27 December 2014 in Acta Geologica Sinica - English Edition
Verified
Journal Article
Closed access
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WLWenchang Li
Wenchang Li
GYGuanghou Yin
Guanghou Yin
HYHaijun Yu
Haijun Yu
XLXuelong Liu
Xuelong Liu

1 January 2021 in Journal of Asian Earth Sciences
Verified
Journal Article
Closed access
RXRong Xu
Rong Xu
MDMing-Guo Deng
Ming-Guo Deng
WLWenchang Li
Wenchang Li
KLKit Lai
Kit Lai
KZKhin Zaw
Khin Zaw
GLGang Liang
Gang Liang

1 April 2020 in Journal of Asian Earth Sciences
Verified
Journal Article
Closed access
JLJun Liu
Jun Liu
WLWenchang Li
Wenchang Li
XZXiangping Zhu
Xiangping Zhu
Jiaxi ZhouJiaxi Zhou
Jiaxi Zhou
HYHaijun Yu
Haijun Yu

1 July 2020 in Journal of Asian Earth Sciences
Verified
Journal Article
Closed access
AXAnping Xiang
Anping Xiang
WLWenchang Li
Wenchang Li
GLGuangming Li
Guangming Li
ZDZuowen Dai
Zuowen Dai
HYHaijun Yu
Haijun Yu
WLWenchang Li
Wenchang Li

10 October 2016 in International Geology Review
Verified
Journal Article
Closed access
XLXue-Long Liu
Xue-Long Liu
WLWenchang Li
Wenchang Li
NZNa Zhang
Na Zhang
FYFu-Cheng Yang
Fu-Cheng Yang
The Geza Andean-type arc is located in the southwestern Sanjiang tectonic belt (i.e. Jinsha, Lancang, and Nujiang River) of SW China, which is a product of the subduction of the Garzê–Litang oceanic crust beneath Zhongdian landmasses in the Late Triassic (235–204 Ma). The Geza Andean-type arc is an important belt of Cu-rich polymetallic mineralization that was recently discovered in China. Prolonged regional tectono-magmatic activity and several episodes of rich mineralization throughout the tectonic evolution of the Andean-type arc produced the super-large Pulang porphyry Cu deposits, the large Xuejiping porphyry Cu deposits, and the large Hongshan skarn-porphyry Cu polymetallic deposits. Here we report new LA-ICP-MS zircon U–Pb age of Songnuo and Qiansui intrusive rocks, and whole-rock major and trace element compositions of the Late Triassic mineralized porphyries from Geza in this region. Zircon U–Pb dating of the Qiansui quartz diorite porphyrite revealed a crystallization age of 220.3 ± 0.66 Ma, for the Songnuo quartz monzonite porphyry, a crystallization age of 204.7 ± 0.72 Ma. The Geza Andean-type arc granitic belt can be divided into three porphyry subzones based on the stage of Andean-type arc orogenic development and the distribution, composition, and geochemical characteristics of the intrusive rocks. Lithogeochemical characteristics show that the porphyry and Andean-type arc granite are of the same rock series (high-K calc-alkaline) and genetic type (I-type granite). The trace element geochemistry of these rocks is similar to that of Andean-type arc granite, which is enriched in Ba, Rb, La, Hf, chalcophile elements (Cu, Pb), and siderophile elements (Mo, Ni), and depleted in Nb, Ta, P, and Ti. In the Geza Andean-type arc, similarities in the major element, REE, and trace element compositions between porphyry and local acidic volcanic rocks suggest that they have the same or similar magmatic source rocks. The petrological characteristics of granite in the Geza Andean-type arc are similar to those of adakitic rocks, and the formation of porphyry and porphyry-related deposits resulted from magmatic hydrothermal fluids that originated in the upper mantle and lower crust. The porphyry Cu mineralization was probably produced from the accumulation and migration of ore-forming hydrothermal fluids and the resultant alteration of host rocks.