论文著作：
[1] Deciphering the interfacial electrochemistry of non-nucleophilic Mg(TFSI)2 as 4 V-class electrolyte for Mg batteries[J]. Chemical Engineering Journal, 2025, 516: 162410
[2] Hierarchical/mesoporous V3S4@C/Graphene composite with conversion pseudocapacitance effect for a high-rate Mg-Li hybrid battery[J]. Journal of Power Sources, 2025, 650: 237468
[3] Fe/Ce Codoped Ni2P Catalyst to Enhance Alkaline Oxygen Evolution Reaction[J]. ACS Applied Energy Materials, 2025, 8(8): 5474-5481
[4] Unraveling the conversion mechanism toward spinel sulfides as cathode materials for Mg-ion batteries[J]. Physical Chemistry Chemical Physics, 2025, 25(5): 2644-2653
[5] CeO₂ facilitates electron transfer at the Fe-Ni₂P heterointerface, enhancing the overall process of water splitting [J]. Journal of Materials Chemistry A, 2025
[6] A novel high-performance Mg// Ni0.6Co0.4Se2 batteries enabled by interfacial chemistry modulation[J]. ACS Sustainable Chemistry & Engineering, 2024, 12(9): 3886-3896
[7] NiAs-type vanadium sulfides: Topological surface and abundant electroactivity as a bi-functional material in Mg/Li batteries[J]. Applied surface science, 2024, 645:158888
[8] Reduced graphene oxide composite Ni3S2 microspheres grown directly on nickel foam as an efficient electrocatalyst for OER[J]. International journal of hydrogen energy, 2023,48:27441-27449
[9] Energy Storage Mechanism of C12‑3‑3 with High-Capacity and High-Rate Performance for Li/Mg Batteries[J]. ACS applied materials & interfaces, 2023,15:9273-9284
[10] The Conversion-Type Selenides as Potential High-Energy Cathode Materials for Mg-Based Batteries: A Review[J]. ACS sustainable chemistry & engineering, 2022,10 (46) :14980-15006
[11] Strong/Stiff Exterior and Elastic Interior: An Effective Biomimetic Topological Structure for the Consolidation of Waterlogged Wooden Archaeological Relics during Dehydration[J]. ACS applied polymer materials, 2022, 4 (11):8543-8555
[12] A new zinc-ion battery cathode with high-performance: Loofah-like lanthanum manganese perovskite[J]. Journal of colloid and interface science, 2022,610:796-804
[13] Revealing the electrochemical mechanism of the conversion-type Co3S4 in a novel high-capacity Mg-Li hybrid battery[J]. Electrochimica Acta, 2022, 401: 139403
[14] Fast kinetics of monoclinic VO2(B) bulk magnesiation via DFT plus U calculations[J]. Physical Chemistry Chemical Physics, 2022, 24(4):2150-2157
[15] Lithiation and Magnesiation Mechanism of VOCl: First-Principles Molecular dynamics Simulation[J]. Journal of the electrochemical society, 2022, 169(4):040566
[16] Bi nanorods anchored in N-doped carbon shell as anode for high-performance magnesium ion batteries[J]. Electrochimica Acta, 2021, 397: 139260
[17] Multielectron Electrode Reaction kinetics with RDE and RRDE: An advanced electrochemical laboratory experiment[J]. Journal of Chemical education, 2021, 98(9): 3026-3031
[18] Spinel Li4Mn5O12 as 2.0 V Insertion Materials for Mg-Based Hybrid Ion Batteries[J]. Chemelectrochem, 2020, 7(5): 1115-1124.
[19] A novel organic-inorganic zwitterionic acrylate polymer for high-performance anti-fog coating[J]. Progress in organic coatings, 2020, 149: 105578
[20] Ultrathin VO2(B) nanosheets as cathode material for high-cathode material for high-performance hydrid magnesium-lithium ion batteries[J].Journal of the electrochemical society, 2019, 166(8): A1660-A1667(2019)
[21] Vanadium dioxide-reduced graphene oxide binary host as an efficient polysulfide plague for high-performance lithium-sulfur batteries[J]. Journal of Materials Chemistry A, 2019, 7:1658-1668
[22] Nanostructured-VO2(B): A high-capacity magnesium-ion cathode and its electrochemical reaction mechanism[J]. Electrochemica Acta, 2018, 260:805-813
[23] Phase transformation and diffusion kinetics of V2O5 electrode in rechargeable Li and Mg batteries: a first-principle study[J].Journal of physical chemistry C, 2018, 122(3): 1513-1521
[24] Adsorption orientation of sodium of polyaspartic acid effect on anodic films formed on magnesium alloy[J]. Applied surface science, 2011, 257(17): 7579-7585
[25] 镁可充电池正极材料V6O13/VO2的制备与电化学性能研究[J]. 功能材料，2015, 21: 21089-21092
[26] 镁-过渡金属化合物正极材料的研究进展[J].化学进展，2014，26（9）：1596-1608
发明专利：
[1]刘渝萍，郑紫阳，王力，陈昌国，周燕，岑远，余丹梅，李莎，李伟，胡佳宏，有机硅改性丙烯酸树脂超亲水防雾涂料及其制作方法，2018,7，中国，2018107935323
[2]陈昌国，谭铃，徐彦芹，刘渝萍，桥式电容耦合非接触电导差分检测器，2016,8，中国201610702613.9
[3]张丁非,刘渝萍,申颖聘,张建刚,镁合金阳极氧化处理的电解液及对镁合金表面处理的方法,2011，中国，ZL200910103124.1（已授权）
[4]张丁非,沟引宁,刘渝萍,郭星星,镁合金阳极氧化电解液及对镁合金表面处理的方法，2012，中国，CN201210253502.6（已授权）
[5]张丁非，戴庆伟，兰伟，刘渝萍，方霖，徐杏杏，镁合金金属板材的轧制方法，2013，中国,CN102000695A(已授权)
刘渝萍
重庆市
研究领域：
新能源,储能
研究方向：
（1）新能源材料和新能源电池：镁离子电池、锂离子电池等新能源储能技术，电极材料的理论计算与模拟；
（2）金属材料表面处理与腐蚀：极具工业应用潜力的轻金属镁合金、铝合金等金属材料表面处理及腐蚀研究，镁合金在电化学储能体系中应用；
（3）仪器分析技术：有机波谱分析，核磁共振技术在有机化合物结构解析、电化学储能技术中应用；
所在单位：
重庆大学
