Geology, Geochemistry and Petrology, Earth and Planetary Sciences
63
Scopus Publications
2620
Scholar Citations
30
Scholar h-index
51
Scholar i10-index
Scopus Publications
Rapid and concentrated magmatism and mineralization of rare-metal granites: Evidence from the Limu deposit, South China Shao-Hua Zhang, Hehe Jiang, Wei-Qiang Ji, Fangyang Hu, Yue-Heng Yang, Zuohai Feng, Fu-Yuan Wu Ore Geology Reviews, 2026 Rare metals, including W, Sn, Nb, Ta, and Li, are strategic resources essential for advanced manufacturing, clean energy, and defense technologies. In-situ isotopic dating of ore minerals directly constrains rare-metal mineralization timing, which could provide essential information for ore-forming process. The Limu rare-metal granite is a representative granite-type Nb–Ta deposit in South China and occurs as several small stocks (∼1 km 2 ), including muscovite granite, Li–phengite granite, and zinnwaldite/lepidolite–albite granite. Previous studies proposed a prolonged magmatic evolution from ∼ 240 to ∼ 200 Ma, longer than that of most batholiths, with controversial ages derived from different methods, leaving its precise chronological framework unresolved. Here we conducted in situ U–Pb/U–Th–Pb dating on zircon, monazite, cassiterite, columbite-group minerals (CGM), and wolframite from 19 granite samples collected from seven localities in the Limu ore field: Paoshuiling, Jinzhuyuan, Xiangtanling, Niulanling, Daqiling, Laohutou, and Shuiximiao. The results constrain the formation of the Limu rare-metal granite to 212.6 ± 4.4 Ma–207.8 ± 2.3 Ma, with a peak at approximately 210 Ma. Integration of new whole–rock geochemical data (n = 17), previously published datasets (n = 51), and zircon trace element analyses shows that granites from Jinzhuyuan, Laohutou, and Shuiximiao are the most evolved, whereas those from Daqiling and Niulanling represent more primitive end-members. These results define a precise temporal framework, indicating that the separate stocks formed within a short interval (∼5 Myr) through fractional crystallization and prompting a reevaluation of the magmatic and metallogenic evolution of the Limu rare-metal granite, with broader implications for dating comparable highly fractionated granites and granite-type rare-metal deposits worldwide.
Experimental and geochemical evidence for magmatic origin of Li-Rb-Cs in geothermal waters of the Yangbajing-Gulu Rift, Tibet Wenjie Sun, Jiabin Duan, Mingliang Liu, Fangyang Hu, Xiaodong Jiang, Yanlong Kong Geothermics, 2026 Geothermal waters in certain regions of Tibet, particularly those characterized by intense tectonic activity, are exceptionally enriched in lithium (Li), rubidium (Rb), and cesium (Cs). However, the primary sources of these elements within Tibetan geothermal systems remain debated. Clarifying whether these elements are derived predominantly from water-rock interaction or magmatic fluid input is essential for a comprehensive understanding of the region’s geothermal systems. Previous studies lacked quantitative analysis methods using water-rock interaction simulation experiments. To address this gap, we conducted laboratory simulations using 10-million-years-old biotite granite from the Yangbajing area, performing high-temperature and high-pressure experiments at 200 °C and 20 MPa over 62 days. The results yield a Li:Rb:Cs ratio of approximately 48:64:1, which starkly contrast with the ratio observed in natural geothermal waters (around 5.7:1:2.1). This significant discrepancy suggests that there must be an additional geochemical process that strongly modifies the Li, Rb, and Cs ratios in natural geothermal waters. Moreover, in the Yangbajing-Gulu rift, the concentrations of Li, Rb, and Cs show a strong correlation with Cl, a tracer indicative of magmatic fluid input, while the correlations between δ¹⁸O and the concentrations of Li, Rb, and Cs are weaker. The geothermal waters exhibit a Cs > Rb pattern, similar to other geothermal systems with magmatic fluid input. Combined with geophysical evidence of shallow melt bodies beneath the rift, these findings indicate that magmatic fluid input is a key factor controlling the enrichment of Li, Rb, and Cs in the geothermal waters of the Yangbajing-Gulu rift. This study highlights the magmatic source mechanism for rare metal supply in Tibetan geothermal waters and provides critical insights into the metallogenic models of Tibetan geothermal systems.
Early Precambrian rare-metal mineralization in the North China Craton FuYuan WU, , JiaHui XU, MenPin ZHANG, YueHeng YANG, FangYang HU, Hao YANG, Peng PENG, , and Acta Petrologica Sinica, 2026 世界上主要克拉通大多都曾发育早前寒武纪伟晶岩型稀有金属成矿作用,但我国华北克拉通似乎是个例外。到目前为止,还没有在该区发现具有可观工业价值的早前寒武纪稀有金属伟晶岩。总结华北地区目前已有的研究线索发现,早前寒武纪稀有金属伟晶岩在华北克拉通普遍发育,并可划分为两个阶段。其一是太古宙晚期25亿年的伟晶岩,它主要分布在辽北-冀东-鲁西一带的太古宙地体上,与25亿年左右的早期克拉通化关系密切。此阶段伟晶岩赋存在太古宙绿岩地体的基性-超基性变火山岩中,其成矿类型以锂和钽为主,分别以山东新泰石棚锂辉石伟晶岩和辽宁新宾李家堡子铌钽矿伟晶岩为代表,代表了一种Li-Cs-Ta型伟晶岩的稀有金属成矿作用。其二是古元古代18亿年左右的伟晶岩,它遍布整个华北地区,但主要分布在古元古宙的辽吉活动带、内蒙古孔兹岩带和华北中部碰撞带等,与华北克拉通内部块体拼贴、碰撞及后期广泛的克拉通化有关。该期伟晶岩主要赋存在变质的表壳岩系之中,其成矿类型以铍、铌、钽、铀和稀土为主,以辽宁海城含铌铀伟晶岩和内蒙古乌拉山含铍伟晶岩为典型代表。目前在区内还没发现此期伟晶岩存在锂矿化的痕迹,反映了Nb-Y-F型为主的稀有金属成矿作用。通过与世界上典型克拉通(如澳大利亚、非洲、波罗的、北美等克拉通)稀有金属伟晶岩的对比发现,华北克拉通具有与它们基本一致的稀有金属成矿特征。华北克拉通早前寒武纪稀有金属伟晶岩型矿床稀少的原因,一方面与它较高的变质程度(或较强的剥蚀程度)有关,但研究和勘查程度不高可能也是不可忽视的重要因素。未来,在加强与世界典型克拉通对比研究的同时,应着重研究华北克拉通内部不同时代岩浆作用的背景、源区和演化特征,以期理解太古宙LCT型和古元古宙NYF型伟晶岩差异形成的原因,为华北早前寒武纪伟晶岩型稀有金属资源的突破提供理论依据。
The indicative significance of apatite in the Ganfang region for lithium mineralization Ke Huang, Miao Yu, Chunli Guo, Xinghua Ma, JianZhong Niu, Junxing Zhao, Fangyang Hu, Xiaochi Liu Ore Geology Reviews, 2026 • Apatite U–Pb dating from stockscheider and pegmatite veins constrains the formation age of the Ganfang Li deposit. • Trace-element compositions of apatite reveal the relationship between hydrothermal alteration and Li mineralization. • A genetic model for Li mineralization in the Ganfang area is proposed based on apatite trace-element signatures. Granite-related Li-Nb-Ta deposits, characterized by extensive albitization within plutons, represent a novel lithium resource. The Ganfang area, one of the important granite-type lithium deposits in South China, features a vertical lithological sequence from top to bottom of stockscheider, albitized granite, and K-feldspar granite. The ore-bearing stratum is dominated by albitized granite. Our study focuses on elucidating the connection between magmatic differentiation, hydrothermal alteration, and lithium mineralization in albitized granites. By analyzing geochemical trends in apatite from stockscheiders, pegmatite veins, and altered granites, we aim to unravel the petrogenetic and metallogenic mechanisms of rare metal lithium. Apatite serves as a geochemical tracer, recording the intensity of fluid alteration processes and their impact on lithium enrichment. The U-Pb dating results (142.2–143.2 Ma and 128.8 Ma) of apatite from the stockscheiders and pegmatite vein show that mineralization in the Ganfang area occurred during the Late Yanshanian period and associated with the melting of the lower crust. Strontium (Sr), (La/Yb) N, and (La/Sm) N can indicate that mineralization in this area is closely associated with fluid activity. Our findings highlight distinct differences in trace element contents of apatite between upper ore-bearing albitized granite and lower barren K-feldspar granite, with specific trace element ratios (e.g., Ge-Ga, Ce/Pb-Th/U, ΣREE + Y-Mn/Fe, and Sr/Y-ΣLREE) serving as indicators of metallogenic potential. The ore-bearing albitized granite exhibits high concentrations of Ga and Ge, with a strong positive correlation between the two elements, this phenomenon may be related to the hydrothermal metasomatism of topaz. In addition, the ore-bearing granite exhibits relatively high Ce/Pb, light rare earth element (LREE), and total rare earth elements plus yttrium (ΣREE + Y) contents. This study indicates that lithium mineralization in the Ganfang area is closely linked to multistage fluid activity in a sealed-system, with a formation process involving the upward dissolution of Na and Li-rich fluids to form stockscheider, and followed by downward migration to replace fresh monzonite granites, forming ore-bearing albitized granite and barren K-feldspar granite.
Evolution of Cretaceous Sediment Provenance in the Danxia Basin, Southeast China: Implications for Tectonic and Landscape Reorganization in Cathaysia Guohui Chen, Kaijie Zha, Hongwei Li, Liangkai Cheng, Yifan Jia, Rongli Huang, Carlos Zavala, Yecai Xie, Fangyang Hu Tectonics, 2026 Understanding how tectonic uplift and drainage reorganization controlled sediment dispersal during the Cretaceous is critical for reconstructing the topographic evolution of southeast China. This study examines how sediment sources and routing systems evolved during the Cretaceous, using the Danxia Basin as a key archive and adjacent basins for regional comparison. We integrate sedimentological observations, detrital zircon U‐Pb‐Hf isotopic data, whole‐rock Pb isotope geochemistry and source unmixing results from the Danxia Basin deposits, together with published Jurassic to Paleogene zircon age data sets from nine adjacent basins. The results reveal a regional provenance shift from dominant northern cratonic sources (North China and Yangtze blocks) during the Jurassic to increasing Cathaysian sources during the Cretaceous, including the Wuyishan and Yunkai terranes and the Nanling Tectonic Belt. Within the Danxia Basin, Cretaceous lithologies record a two‐stage provenance evolution: Early Cretaceous sediments mainly derived from the Wuyishan Terrane, whereas Late Cretaceous deposits show mixed input from the Yunkai Terrane, Nanling Tectonic Belt and Wuyishan Terrane, reflecting drainage expansion and/or sediment‐routing reorganization. Published thermochronological data indicate enhanced uplift and exhumation in the Yunkai Terrane and Nanling regions during the Late Cretaceous, driving increased sediment flux to both inland and coastal basins. During the Paleocene‐Eocene, sediment supply became increasingly dominated by the Nanling region as exhumation in Yunkai region waned. These observations support a dynamic “seesaw” topographic model, in which alternating uplift of northern cratonic and eastern Cathaysian source regions governed sediment dispersal, basin architecture and paleoenvironmental evolution across southeast China.
Trace element compositions of quartz in granites and pegmatites from the Sanmudaimiao region, northern margin of the North China Craton and their implications for the formation of high-purity quartz XiaoYa DUAN, , FangYang HU, ShaoHua ZHANG, ZhanJiang FENG, Yong LIANG, YanHu LIU, ZhiQiang WANG, HaiBao LI, YiNan YAN, , , , and Acta Petrologica Sinica, 2025 高纯石英是我国最新公布确认的矿种, 理解其形成机制和主控因素对于未来寻找相关资源至关重要。然而, 目前关于其成因机制的研究仍较为匮乏, 对于何种地质条件有利于高纯石英的形成尚存争议。本文以华北克拉通北缘三木代庙地区花岗岩和伟晶岩中的石英作为研究对象, 探讨花岗岩-伟晶岩演化过程和变形作用对石英中微量元素含量的影响, 并对该地区的高纯石英成矿潜力进行初步厘定。本研究的主要研究对象包括未变形二云母花岗岩、变形二云母花岗岩、未成矿伟晶岩及锂辉石-锂云母成矿伟晶岩中的石英。分析结果显示, 不同类型岩石的石英微量元素组成差异显著, 主要受控于岩浆性质、分异程度及结晶物理条件。二云母花岗岩石英整体Ti和Al含量较高, 超出高纯石英相关标准(Al < 30×10<sup>-6</sup>, Ti < 10×10<sup>-6</sup>), 而Li含量则基本达到高纯石英的标准(Li < 5×10<sup>-6</sup>), 这与岩浆相对较高的温度和较低的演化程度有关, 而Al的富集则可能与围岩混染关系密切。相比于未变形二云母花岗岩, 变形二云母花岗岩的石英Li含量显著偏低, 但Al和Ti含量则变化有限, 表明变形作用对该地区石英的纯化有一定促进作用。由于伟晶岩的岩浆演化程度高并伴随流体活动, 导致其中石英的Li、Al和Ge含量普遍较高, 远超高纯石英标准。相比于锂成矿伟晶岩, 未成矿伟晶岩的杂质含量整体低于成矿伟晶岩, 而成矿伟晶岩的边部带(块体长石带和层状细晶岩带)杂质相对核部偏低。由此, 对于伟晶岩而言, 低演化的伟晶岩边部可能为形成高纯石英的有利部位, 而核部因高岩浆演化程度和强流体活动导致其杂质元素含量偏高。综上, 低温、低演化、低混染并伴随后期变形作用是形成高纯石英的有利条件。三木代庙地区目前花岗岩-伟晶岩的石英整体不满足高纯石英要求, 但考虑到该地区与东秦岭、阿勒泰等已知存在高纯石英的地区地质条件具有一定相似性, 该地区局部可能具有高纯石英的找矿潜力, 其成矿条件有待进一步系统分析。
Lithium Isotope Fractionation during Granitic Magma Differentiation: Insights from Whole Rock and Mineral Analyses Zi-Yi Ding, Shan-Ke Liu, Ben-Xun Su, Wen-Jun Li, Fang-Yang Hu, Patrick Asamoah Sakyi Journal of Petrology, 2025 Despite extensive studies on whole-rock lithium (Li) isotope geochemistry, the fractionation of Li isotopes among minerals in granitic magmatic systems is still poorly understood. To investigate the magnitude and mechanism of inter-mineral and inter-sample Li isotope fractionation during granitic magma differentiation, we present high-precision Li isotope data from a suite of well-characterized granitoids (quartz diorite, granodiorite, and monzogranite) and their minerals from the Tagong pluton in NE Tibetan Plateau. The whole rocks exhibit δ7Li variation from −1.73 ± 0.15 to 1.30 ± 0.08‰, indicating insignificant Li isotope fractionation at the whole-rock scale. The constituent mafic minerals show δ7Li values varying from −1.68 ± 0.05 to 1.76 ± 0.15‰ in biotite, −2.08 ± 0.15 to 2.53 ± 0.13‰ in amphibole, and −1.72 ± 0.21 to 0.74 ± 0.08‰ in clinopyroxene, demonstrating equilibrium isotope fractionation between these coexisting phases during magma differentiation. The comparable δ7Li values between whole rocks and biotite suggest that crystallization of the Li-richest phase (biotite Li = 139–361 μg/g) is the key factor controlling whole-rock Li isotope compositions. In contrast, quartz, K-feldspar, and plagioclase display significant inter-mineral and inter-sample Li isotope variations with δ7Li ranges of 15.09 ± 0.14 to 26.00 ± 0.33‰, 1.69 ± 0.10 to 8.53 ± 0.01‰, and −2.23 ± 0.08 to 6.50 ± 0.19‰, respectively. Rayleigh fractionation alone cannot fully account for the Li isotope variations in these felsic minerals. Plagioclase in the K-feldspar-rich granodiorites and monzogranites is isotopically lighter and more variable than in the K-feldspar-free quartz diorites, indicating competition for Li isotopes between K-feldspar and plagioclase during simultaneous crystallization. The Li isotope variation in quartz that has low Li content (0.67 to 2.82 μg/g) may be related to the diffusion process. Furthermore, mafic microgranular enclaves, typically observed in granitoid rocks, show whole-rock and mineral Li isotope compositions similar to the counterparts of their host rocks, suggesting that they are of schlieren origin. This provides further evidence for minimal Li isotope fractionation at the whole-rock level. In comparison to the low-silica (SiO2 &lt; 65 wt %) and uniform whole-rock Li isotope characteristics of the granitoid samples studied here, global high-silica (SiO2 &gt; 65 wt %) granitic rocks exhibit highly variable δ7Li values from −3.0 to 8.0‰. This variability can be attributed to the fractional crystallization of felsic minerals, which are more abundant in the high-silica rocks.
In situ Rb-Sr dating of mica by LA-ICP-MS/MS Chao Huang, Hao Wang, Wenbei Shi, Jinfeng Sun, Fangyang Hu, Lei Xu, Yueheng Yang, Shitou Wu, Liewen Xie, Jinhui Yang Science China Earth Sciences, 2023
Experimental and geochemical evidence for magmatic origin of Li-Rb-Cs in geothermal waters of the Yangbajing-Gulu Rift, Tibet W Sun, J Duan, M Liu, F Hu, X Jiang, Y Kong Geothermics 136, 103614 , 2026 2026
Convergence of two ancient continental nuclei induced by late Neoarchean multiple subduction systems L Gao, W Wang, S Liu, K Qiu, F Hu, G Sun, X Jiang, W Yang, J Hu, ... Geological Society of America Bulletin , 2026 2026
Discovery of a late Eocene–Early Oligocene ultra-high temperature (UHT) migmatite in the Gangdese batholith at Nyingchi, southern Tibet and its tectonic implications H Jiang, X Chu, JM Wang, WQ Ji, W Cao, F Hu, XC Liu, FY Wu Lithos, 108399 , 2026 2026
Early Precambrian rare-metal mineralization in the North China Craton FY Wu, JH Xu, MP Zhang, YH Yang, FY Hu, H Yang, P Peng ACTA PETROLOGICA SINICA 42 (1), 1-37 , 2026 2026
The indicative significance of apatite in the Ganfang region for lithium mineralization K Huang, M Yu, C Guo, X Ma, JZ Niu, J Zhao, F Hu, X Liu Ore Geology Reviews 188, 107105 , 2026 2026
Evolution of Cretaceous sediment provenance in the Danxia Basin, southeast China: Implications for tectonic and landscape reorganization in Cathaysia G Chen, K Zha, H Li, L Cheng, Y Jia, R Huang, C Zavala, Y Xie, F Hu Tectonics 45 (1), e2025TC009218 , 2026 2026
High geothermal gradients facilitating lithium mineralization: Insights from the Ke’eryin–Taiyanghe plutons, central China F Hu, MN Ducea, JB Chapman, L Yang, G Chen, C Guo, FY Wu Earth and Planetary Science Letters 672, 119693 , 2025 2025 Citations: 3
Significant magmatic differentiation induced by crustal shearing: implications for rare metal enrichment in Himalayan leucogranites F Hu, J Li, H Chen, M Ducea, JB Chapman, XC Liu, JM Wang, SX He, ... Goldschmidt 2025 Conference , 2025 2025
Lithium isotope fractionation during granitic magma differentiation: insights from whole rock and mineral analyses ZY Ding, SK Liu, BX Su, WJ Li, FY Hu, PA Sakyi Journal of Petrology 66 (6), egaf048 , 2025 2025 Citations: 5
Neoarchean orogenic belt evolution in the northeast North China Craton: Implications for the reconstruction of early Earth’s microplates G Sun, S Liu, S Li, TM Kusky, F Hu, H Bao, L Gao, Y Hu, S Yu, L Dai, ... Precambrian Research 417, 107659 , 2025 2025 Citations: 13
Trace element compositions of quartz in granites and pegmatites from the Sanmudaimiao region, northern margin of the North China Craton and their implications for the formation … X Duan, F Hu, S Zhang, Z Feng, Y Liang, Y Liu, Z Wang, H Li, Y Yan Acta Petrologica Sinica 41 (10), 3432-3452 , 2025 2025 Citations: 1
Highly fractionated granite and high-purity quartz FY WU, XC LIU, JM WANG, HB CHEN, FY HU, ZC LIU Acta Petrologica Sinica 41 (10), 3243-3277 , 2025 2025 Citations: 9
MOST CITED SCHOLAR PUBLICATIONS
Quantifying Crustal Thickness in Continental Collisional Belts: Global Perspective and a Geologic Application. F Hu, MN Ducea, S Liu, JB Chapman Scientific reports 7 (1), 7058 , 2017 2017 Citations: 266
Petrogenesis of the highly fractionated granites and their mineralizations in Nanling Range, South China FY Wu, CL Guo, FY Hu, XC Liu, JX Zhao, XF Li, KZ Qin Acta Petrologica Sinica 39 (1), 1-36 , 2023 2023 Citations: 152
Quantitatively Tracking the Elevation of the Tibetan Plateau since the Cretaceous: Insights from Whole‐rock Sr/Y and La/Yb Ratios F Hu, F Wu, JB Chapman, MN Ducea, W Ji, S Liu Geophysical Research Letters 47, e2020GL089202 , 2020 2020 Citations: 124
Thermal state and evolving geodynamic regimes of the Meso-to Neoarchean North China Craton G Sun, S Liu, PA Cawood, M Tang, J van Hunen, L Gao, Y Hu, F Hu Nature Communications 12 (1), 3888 , 2021 2021 Citations: 114
Chronology and tectonic implications of Neoproterozoic blocks in the south Qinling Orogenic Belt, Central China F Hu, S Liu, M Santosh, Z Deng, W Wang, W Zhang, M Yan Gondwana Research 30, 24-47 , 2016 2016 Citations: 113
Early Mesozoic magmatism and tectonic evolution of the Qinling Orogen: Implications for oblique continental collision F Hu, S Liu, MN Ducea, JB Chapman, F Wu, T Kusky Gondwana Research 88, 296-332 , 2020 2020 Citations: 91
Petrogenesis of the Guangtoushan granitoid suite, central China: Implications for Early Mesozoic geodynamic evolution of the Qinling Orogenic Belt Z Deng, S Liu, W Zhang, F Hu, Q Li Gondwana Research 30, 112-131 , 2016 2016 Citations: 83
A westward propagating slab tear model for Late Triassic Qinling Orogenic Belt geodynamic evolution: Insights from the petrogenesis of the Caoping and Shahewan intrusions … F Hu, S Liu, W Zhang, Z Deng, X Chen Lithos 262, 486-506 , 2016 2016 Citations: 75
A reworked∼ 3.45 Ga continental microblock of the North China Craton: Constraints from zircon U-Pb-Lu-Hf isotopic systematics of the Archean Beitai-Waitoushan migmatite … S Liu, M Wang, Y Wan, R Guo, W Wang, K Wang, B Guo, J Fu, F Hu Precambrian Research 303, 332-354 , 2017 2017 Citations: 74
Late Neoarchean monzogranitic–syenogranitic gneisses in the Eastern Hebei–Western Liaoning Province, North China Craton: petrogenesis and implications for tectonic setting J Fu, S Liu, M Wang, X Chen, B Guo, F Hu Precambrian Research 303, 392-413 , 2017 2017 Citations: 68
Oxidation of Archean upper mantle caused by crustal recycling L Gao, S Liu, PA Cawood, F Hu, J Wang, G Sun, Y Hu Nature Communications 13 (1), 3283 , 2022 2022 Citations: 66
Precambrian Hongqiyingzi Complex at the northern margin of the North China Craton: Its zircon U-Pb-Hf systematics, geochemistry and constraints on crustal evolution S Liu, J Fu, YJ Lu, X Chen, M Wang, F Hu, L Gao, G Sun, Y Hu Precambrian Research 326, 58-83 , 2019 2019 Citations: 60
Origin of the Triassic Lincang granites in the southeastern Tibetan Plateau: Crystallization from crystal mush F Cong, FY Wu, WC Li, CL Mou, XM Huang, BD Wang, FY Hu, ZM Peng Lithos 360, 105452 , 2020 2020 Citations: 59
The geochemical evolution of the granitoid rocks in the South Qinling Belt: Insights from the Dongjiangkou and Zhashui intrusions, central China F Hu, S Liu, MN Ducea, W Zhang, Z Deng Lithos 278, 195-214 , 2017 2017 Citations: 59
Petrogenesis of late Neoarchean high-K granitoids in the Western Shandong terrane, North China Craton, and their implications for crust-mantle interactions L Gao, S Liu, G Sun, R Guo, Y Hu, J Fu, M Wang, C Ma, F Hu Precambrian Research 315, 138-161 , 2018 2018 Citations: 58
Neoarchean sanukitoids and associated rocks from the Tengzhou-Pingyi intrusive complex, North China Craton: Insights into petrogenesis and crust-mantle interactions G Sun, S Liu, L Gao, Y Hu, R Guo, J Fu, M Wang, C Ma, F Hu Gondwana Research 68, 50-68 , 2019 2019 Citations: 51
Neoarchean crust-mantle interactions in the Yishui Terrane, south-eastern margin of the North China Craton: constraints from geochemistry and zircon U-Pb-Hf isotopes of … L Gao, S Liu, G Sun, Y Hu, R Guo, J Fu, M Wang, F Hu Gondwana Research 65, 97-124 , 2019 2019 Citations: 50
Cesium-rubidium mineralization in Himalayan leucogranites F Hu, X Liu, S He, J Wang, F Wu Science China Earth Sciences 66 (12), 2827-2852 , 2023 2023 Citations: 48