科研成果：
第一作者或通讯作者论文
1.Zhang W-Q, Ding W-W, Liu C-Z, Lissenberg CJ, Wang Y-J, Zhang T, Tan P-C, Zou Z-Q, Xu Y, Lu J-G, Fang Y-X, Li J-B (2026) Zinc isotope evidence for extensive carbonate recycling in the Arctic asthenosphere. Nature Communications 17(1):4340 （海底样品：锌同位素揭示古老俯冲碳酸盐形成北极加克洋中脊地幔富碳特征）
2.Zhang W-Q, Liu C-Z, Xu M, Liu B, Lissenberg CJ, Dick HJB (2025) Spreading modes at slow-spreading ridges shifted by mantle heterogeneity of the asthenosphere. National Science Review 12(11) （海底样品：软流圈不均一性引发慢速洋中脊扩张模式频繁变化）
3.Zhang W-Q, Liu C-Z, MacLeod CJ, Lissenberg CJ (2025) The role of detachment faulting in the genesis of oceanic felsic melts. Communications Earth & Environment 6(1):109 （海底样品：IODP钻孔样品揭示拆离断层向岩浆房引入高温海水，诱发复杂的岩浆-热液演化）
4.Zhang W-Q, Liu C-Z, Zou Z-Q, Li X-N (2025) Large Zn isotope variations in lower oceanic crust offer insights into oceanic crustal magma plumbing system. Geochimica et Cosmochimica Acta 400:158–171（海底样品： Zn同位素揭示洋中脊岩浆房动态演化过程）
5.Zhang, W.-Q., Liu, C.-Z., Johan Lissenberg, C., Li, X.-N., 2024. Post-cumulus control on copper isotopic fractionation during oceanic intra-crustal magmatic differentiation. Geochimica et Cosmochimica Acta 369, 35-50. （海底样品：Cu同位素揭示洋中脊岩浆房演化过程中硫化物的开放体系行为）
6.Zhang W-Q, Liu C-Z, Ding W-W, Liu T, Zhang Z-Y, Li Y-X (2026) Deep polybaric mush zones feeding volcanism in magma-poor slow-spreading ridge. Lithos 538-539:108622 （海底样品：玄武岩辉石斑晶限定贫岩浆慢速洋中脊的岩浆房结构）
7.Zhang W-Q, Liu C-Z, Liu T, Zhang C, Li X-N, Zhang Z-Y, Zhang Z, Lin Y-Z (2025) Remnants of a Jurassic marginal sea plate in the Meso-Tethyan Ocean revealed by multi-stage magmatism in the Lagkorco ophiolite, Central Tibet. Lithos 494-495:107895 （蛇绿岩：中特提斯洋盆中边缘海微板块的识别）
8.Zhang W-Q, Liu C-Z, Liu T, Li X-N, Zhang C, Zhang Z-Y, Zhang Z, Lin Y-Z (2025) Intra-oceanic arc subduction within the Meso-Tethys Ocean constrained by arc crust remnants in the Lagkorco ophiolite, Central Tibet. Lithos 518-519:108303 （蛇绿岩：中特提斯洋盆中洋内弧俯冲侵蚀过程）
9.Zhang, W.-Q., Liu, C.-Z., Dick, H.J.B., Mitchell, R.N., Liu, B.-D., 2024. Oceanic mantle beneath ultraslow spreading ridges metasomatized by variably evolved melts. Contributions to Mineralogy and Petrology 179, 15. （海底样品：拆离断层诱发岩浆房熔体大范围迁移-分异）
10.Zhang, W.-Q*., Liu, C.-Z., 2023. Crust-scale reactive porous flow revealed by the brown amphibole in the IODP hole U1473A gabbros, Southwest Indian Ridge. Lithos, 107209. （海底样品：IODP U1473A钻孔辉长岩样品揭示拆离断层诱发洋壳内部存在公里尺度的粒间熔体流动）
11.Zhang, W.-Q*., Liu, C.-Z., Mitchell, R.N., Liu, T., Zhang, C., Zhang, Z.-Y., 2022. Extensive melting of ancient depleted oceanic mantle evidenced by decoupled HfNd isotopes in the lowermost oceanic crust. Lithos, 106684. （蛇绿岩：中特提斯洋盆地幔中存在古老超亏损地幔再循环）
12.Zhang, W.-Q., Liu, C.-Z*., Liu, Tong., Zhang, Chang., Zhang, Zhen-Yu., Li, Xiao-Ni., Zhang, Zhen., Lin, Yin-Zheng., 2022. Multi-stage melt impregnation and magma–seawater interaction in a slow-spreading oceanic lithosphere: constraints from cumulates in the Lagkorco ophiolite (central Tibet). Contributions to Mineralogy and Petrology 177, 109（蛇绿岩：中特提斯洋盆中存在慢速扩张洋脊，伴随构造-岩浆-热液耦合的洋壳增生过程）
13.张维骐*, 刘传周, 刘通. 2022. 大洋下地壳堆晶岩组成及其对蛇绿岩研究的启示. 岩石学报, 38(6): 1630-1654. （蛇绿岩：总结全球不同构造环境的下洋壳辉长岩组成，作为蛇绿岩构造环境判别的依据）
14.Zhang, W.-Q*., Dick, H.J.B., Liu, C.-Z., Lin, Y.-Z., Angeloni, L.M., 2021. MORB Melt Transport through Atlantis Bank Oceanic Batholith (SW Indian Ridge). Journal of Petrology 62. （海底样品：ODP 735B钻孔辉长岩样品揭示超慢速洋中脊的原始岩浆侵位机制）
15.Zhang, W.-Q., Liu, C.-Z*., Liu, T., Zhang, C., Zhang, Z.-Y., 2021. Subduction initiation triggered by accretion of a Jurassic oceanic plateau along the Bangong–Nujiang Suture in central Tibet. Terra Nova 33, 150-158. （蛇绿岩：中特提斯洋盆中存在洋底高原-海沟碰撞引发俯冲起始的过程）
16.Zhang, W.-Q*., Liu, C.-Z., Dick, H.J.B., 2020. Evidence for Multi-stage Melt Transport in the Lower Ocean Crust: the Atlantis Bank Gabbroic Massif (IODP Hole U1473A, SW Indian Ridge). Journal of Petrology 61. （海底样品：IODP U1473A钻孔辉长岩样品揭示构造-岩浆耦合的洋壳增生过程）
合作者论文
17.Fan, Y.-H, Liu, C.-Z, Zhang, W.-Q, Li, X.-N, Tian, L.-Y, 2026. Melt evolution during oceanic crustal accretion in the Central Indian Ridge revealed by gabbroic rocks from the Kairei hydrothermal field. Lithos 542-543, 108728.
18.Zhang, Z.-Y., Liu, C.-Z., Liang, Y., Liu, T., Zhang, C., Liu, B.-D., Ji, W.-B., Zhang, W.-Q., Huang, K., 2026. Highly Enriched and Heterogeneous Mantle Signals Recorded in Mantle Pyroxenite Veins. Geochemistry, Geophysics, Geosystems 27, e2026GC013072.
19.Li, X.-N., Liu, C.-Z., Zhang, W.-Q., Liu, T., Zhang, C., Lin, Y.-Z., Zhang, Z., 2026. Repeated recharge of primitive melts in the lower oceanic crust: Constraints from the Dongco ophiolite, Central Tibet. Lithos 542-543, 108709.
20.Lin, Y.-Z., Liu, C.-Z., Zhang, W.-Q., Zhang, Z.-Y., Zhang, C., Liu, T., 2025. Recycling of subduction-modified refractory mantle beneath the Marion Rise, Southwest Indian Ridge. Contributions to Mineralogy and Petrology 180(2), 17..
21.Lu J, Wang Y, Zhang T, Griffin WL, Ding W, Fang Y, Dong Y, Zhang W, Wang H, O’Reilly SY, Li J (2025) Source fertility modulates crustal thickness variation along the Gakkel Ridge. Earth Planet Sci Lett 671:119617
22.Zhang Z, Liu C-Z, Jung H, Liu T, Zhang C, Cao Y, Jung S, Zhang W-Q, Lin Y-Z, Li X-N (2025) Multi-Stage Evolution of Deformed Peridotites in the Yarlung-Tsangpo Suture Zone: A Link to Mantle Shear Initiation at H2O-Deficient Ultraslow-Spreading Ridges. J Petrol 66(9)
23.Zhu J-N, Liu C-Z, Zhang W-Q, Liu T, Zhang C, Li X-N, Zhang Z-Y (2025) Recycling ancient refractory peridotites causing the crust-mantle decoupling of the Xigaze ophiolite (South Tibet): New constraints from the Buma mantle massif. Lithos 508-509:108090
24.Zhang, Z.-Y., Liu, C.-Z., Liang, Y., Zhang, L.-L., Zhang, C., Liu, T., Liu, B.-D., Zhang, W.-Q., Lin, Y.-Z., Ji, W.-B., 2024. Petrogenesis of the pyroxenitic Moho transition zone in the Zedong ophiolite, Southeastern Tibet. Lithos 482-483, 107703.
25.Liu, T., Liu, C.-Z., Zhang, Z.-Y., Zhang, W.-Q., Ji, W.-B., Zhang, C., Mitchell, R.N., 2024. Dynamics of the oceanic dike–gabbro transition revealed by petrology and geochemistry of the Yunzhug ophiolite, central Tibet. Contributions to Mineralogy and Petrology 179, 53.
26.Zou, Z., Wang, Z., Xu, Y.-G., Ciazela, J., Wang, X., Foley, S., Zhang, W.-Q., Li, W., Li, M., Liu, Y., 2024. Contrasting Cu isotopes in mid-ocean ridge basalts and lower oceanic crust: Insights into the oceanic crustal magma plumbing systems. Earth and Planetary Science Letters 627, 118563.
27.Lin, Y.-Z., Liu, C.-Z., Dick, H.J.B., Mitchell, R.N., Wu, S.-T., Liu, T., Zhang, W.-Q., Zhang, Z.-Y., 2024. Detrital peridotite minerals reveal recycled arc mantle beneath Marion Rise, Southwest Indian Ridge. Terra Nova.
28.Liu, T., Liu, C., Wu, F., Ji, W., Zhang, C., Zhang, W., Zhang, Z, 2023. Timing and mechanism of opening the Neo-Tethys Ocean: Constraints from mélanges in the Yarlung Zangbo suture zone. Science China Earth Sciences.
29.Zhang, Z.-Y., Liu, C.-Z., Liang, Y., Liu, T., Zhang, C., Liu, B.-D., Lin, Y.-Z., Zhang, W.-Q., Ji, W.-B., 2023. Pyroxenite–harzburgite sequences in the Dazhuqu ophiolite (Southern Tibet) formed through hydrous melt infiltration and melt–peridotite reaction. Contributions to Mineralogy and Petrology 178, 92.
30.Zhang, C., Liu, C.-Z., Bénard, A., Müntener, O., Ji, W.-B., Liu, T., Zhang, Z.-Y., Zhang, W.-Q., Wu, F.-Y., 2023. Heterogeneous mantle beneath the Neo-Tethys Ocean revealed by ultramafic rocks from the Xiugugabu Ophiolite in the Yarlung-Tsangpo Suture Zone, southwestern Tibet. Contributions to Mineralogy and Petrology 178, 54.
31.Li, X.-N., Zhang, W.-Q., Liu, T., Zhang, C., Zhang, Z., Lin, Y.-Z., Liu, C.-Z., 2023. Crustal accretion in a slow-spreading center of Meso-Tethyan Ocean: Constraints from cumulates in the Dongco ophiolite (Central Tibet). Lithos 446-447, 107144.
32.Zhou, X., Zheng, J.-P., Huang, Z.-B., Li, Z.-Y., Zhang, W.-Q., Zheng, H.-D., Xiong, Q., Dai, H.-K., 2023. Ultra-depleted melt product preserved in the Ladong ophiolitic peridotites of the North Qilian Orogenic Belt, Northern Tibet. Lithos 436-437, 106985.
33.Zhang, Z.-Y., Liu, C.-Z., Liang, Y., Zhang, C., Liu, T., Zhang, W.-Q., Ji, W.-B., 2022. Decoupled Trace Element and Isotope Compositions Recorded in Orthopyroxene and Clinopyroxene in Composite Pyroxenite Veins from the Xiugugabu Ophiolite (SW Tibet). Journal of Petrology 63.
34.Liu, C.-Z*., Wu, F.-Y., Liu, T., Zhang, C., Zhang, W.-Q., Zhang, Z.-Y., Zhang, Z., Wei, W., Lin, Y.-Z., 2022. An origin of ultraslow spreading ridges for the Yarlung-Tsangpo ophiolites. Fundamental Research 2, 74-83.
35.Liu, T*., Dick, H.J.B., Liu, C.-Z., Wu, F.-Y., Ji, W.-B., Zhang, C., Zhang, W.-Q., Zhang, Z.-Y., Lin, Y.-Z., Zhang, Z., 2021. Tectonic Controls on Block Rotation and Sheeted Sill Emplacement in the Xigaze Ophiolite (Tibet): The Construction Mode of Slow-Spreading and Ultraslow-Spreading Oceanic Crusts. Geochemistry, Geophysics, Geosystems 22, e2020GC009297.
36.Liu, T*., Liu, C.-Z., Wu, F.-Y., Dick, H.J.B., Ji, W.-B., Zhang, C., Zhang, W.-Q., Zhang, Z.-Y., Xu, Y., 2021. The Xigaze ophiolite: fossil ultraslow-spreading ocean lithosphere in the Tibetan Plateau. Journal of the Geological Society, jgs2020-2208.
37.Zhang, C*., Liu, C.-Z., Xu, Y., Ji, W.-B., Wang, J.-M., Wu, F.-Y., Liu, T., Zhang, Z.-Y., Zhang, W.-Q., 2019. Subduction re-initiation at dying ridge of Neo-Tethys: Insights from mafic and metamafic rocks in Lhaze ophiolitic mélange, Yarlung-Tsangbo Suture Zone. Earth and Planetary Science Letters 523, 115707.
38.Liu, T*., Wu, F.-Y., Liu, C.-Z., Tribuzio, R., Ji, W.-B., Zhang, C., Xu, Y., Zhang, W.-Q., 2018. Variably evolved gabbroic intrusions within the Xigaze ophiolite (Tibet): new insights into the origin of ophiolite diversity. Contributions to Mineralogy and Petrology 173.
39.Chen, C*., Ding, X., Li, R., Zhang, W.Q, Ouyang, D.J, Yang, L., Sun, W.D, 2018. Crystal fractionation of granitic magma during its non-transport processes: A physics-based perspective. Science China Earth Sciences 61, 190-204.
40.Chen, W*., Zhang, W.Q, Simonetti, A., Jian, S., 2016. Mineral chemistry of melanite from calcitic ijolite, the Oka carbonatite complex, Canada: Implications for multi-pulse magma mixing. Journal of Earth Science 27, 599-610.
邀请/特邀学术报告
1.亚洲大洋洲地球科学学会（AOGS 2026），日本.福冈 -专题SE25-，“Spreading Modes at Slow-spreading Ridges Shifted by Mantle Heterogeneity of the Asthenosphere: A Case of Mid-Atlantic Ridge, 23°N”-邀请报告
2.深海与深地科学前沿国际研讨会（IPACES 2026），浙江舟山市，“古老俯冲碳酸盐形成北极加克洋中脊地幔富碳特征”-特邀报告
召集专题
1.第11届青年地学论坛-专题6.1 海洋岩石圈结构与形成演化（张旭博、张维骐、陈双双）
