Jiangang Fu

Dr. Jiangang Fu

orcid

Research Focus & Metrics

Academic Career Length

9Years (2018-Present)

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

Representative Publications

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31 January 2018 in International Journal of Earth Sciences
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Journal Article
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JFJiangang Fu
Jiangang Fu
GLGuangming Li
Guangming Li
GWGenhou Wang
Genhou Wang
LZLinkui Zhang
Linkui Zhang
WLWei Liang
Wei Liang
YHYong Huang
Yong Huang

25 March 2020 in Terra Nova
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Journal Article
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JFJiangang Fu
Jiangang Fu
GLGuangming Li
Guangming Li
GWGenhou Wang
Genhou Wang
LZLinkui Zhang
Linkui Zhang
WLWei Liang
Wei Liang
YHYong Huang
Yong Huang

1 January 2021 in Journal of Asian Earth Sciences
Verified
Journal Article
Closed access
JFJiangang Fu
Jiangang Fu
GLGuangming Li
Guangming Li
GWGenhou Wang
Genhou Wang
LZLinkui Zhang
Linkui Zhang
WLWei Liang
Wei Liang
YHYong Huang
Yong Huang

19 November 2023 in Minerals
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JFJiangang Fu
Jiangang Fu
GLGuangming Li
Guangming Li
GWGenghou Wang
Genghou Wang
WGWeikang Guo
Weikang Guo
SDSuiliang Dong
Suiliang Dong
YJYanjie Jiao
Yanjie Jiao
Leucogranites in the Lalong Dome are composed of two-mica granite, muscovite granite, albite granite, and pegmatite from core to rim. Albite granite-type Be–Nb–Ta rare metal ore bodies are hosted by albite granite and pegmatite. Based on field and petrographic observations and whole-rock geochemical data, highly differentiated leucogranites have been identified in the Lalong Dome. Two-mica granites, albite granites, and pegmatites yielded monazite ages of 23.6 Ma, 21.9 Ma, and 20.6 Ma, respectively. The timing of rare metal mineralization is 20.9 Ma using U–Pb columbite dating. Leucogranites have the following characteristics: high SiO2 content (>73 wt.%); peraluminosity with high Al2O3 content (13.6–15.2 wt.%) and A/CNK (mostly > 1.1); low TiO2, CaO, and MgO content; enrichment of Rb, Th, and U; depletion of Ba, Nb, Zr, Sr, and Ti; strong negative Eu anomalies; low εNd(t) values ranging from −12.7 to −9.77. These features show that the leucogranites are crust-derived high-potassium calc-alkaline and peraluminous S-type granites derived from muscovite dehydration melting under the water-absent condition, which possibly resulted from structural decompression responding to the activity of the South Tibetan detachment system (STDS). Geochemical data imply a continuous magma fractional crystallization process from two-mica granites through muscovite granites to albite granites and pegmatites. The differentiation index (Di) gradually strengthens from two-mica granite, muscovite granite, and albite granite to pegmatite, in which albite granite and pegmatite are highest (Di = 94). The Nb/Ta and Zr/Hf ratios of albite granite and pegmatite were less than 5 and 18, respectively, which suggests that albite granite and pegmatite belong to rare metal granites and have excellent potential for rare metal mineralization.

21 June 2021 in Acta Geologica Sinica - English Edition
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HLHong Liu
Hong Liu
YLYouguo Li
Youguo Li
WLWenchang Li
Wenchang Li
GLGuangming Li
Guangming Li
HHhuang hanxiao
huang hanxiao
JFJiangang Fu
Jiangang Fu

1 January 2025 in Acta Petrologica Sinica
Verified
Journal Article
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JFJiangang Fu
Jiangang Fu
GLGuangming Li
Guangming Li
GWGUO WeiKang
GUO WeiKang
DSDONG SuiLiang
DONG SuiLiang
ZHZhang Hai
Zhang Hai
JYJIAO YanJie
JIAO YanJie

喜马拉雅成矿带东段的洛扎地区出露大量的晚侏罗世-早白垩世基性岩脉,而中新世的基性岩鲜有报道。本文选取出露于洛扎地区拉隆和恰隆穹窿滑脱系中的变基性岩,对其进行岩石学、角闪石Ar-Ar定年和全岩地球化学等综合研究。结果表明,拉隆穹窿的2个变基性岩样品的角闪石Ar-Ar坪年龄分别为18.02±0.53Ma和18.89±0.72Ma,表明其形成于中新世。变基性岩的主量元素中,SiO2含量为48.23%~50.32%,Al2O3含量为12.14%~15.48%,MgO含量为4.94%~6.72%,K2O含量为0.20%~0.79%,表明其属于低钾拉斑系列岩石。微量元素呈现出Nb、Ta、Ti负异常,具有E-MORB特征,表明变基性岩起源于岩石圈地幔,并在形成和就位过程中受到了地壳物质混染。变基性岩和淡色花岗岩具有很好的时空关系,不仅在形成时代方面基本一致,而且均产出于穹窿滑脱系中(对应于藏南拆离系)。此外,二者均经历了强烈的构造变形,在藏南拆离系(STDS)强烈活动过程中,这些镁铁质和花岗质岩浆沿着STDS构造通道经过了长距离迁移并在穹窿位置就位。中新世变基性岩一方面为喜马拉雅带淡色花岗岩的形成提供深部地幔物质参与和热能量,另一方面提供了稀有金属大规模成矿和高度富集所需的热能量。