›国家自然科学基金委员会:L-DED增材制造高密度钨合金的高熵粘结相强韧化效应及其作用机制,开始日期:2024-01-01,结项时间:2027-12-31.

›国家**科工局:高强韧耐高温钨材料,开始日期:2018-01-01,结项时间:2022-12-31.

›国家**科工局:高均质钨合金材料研制,开始日期:2017-01-01,结项时间:2022-12-31.

›国家自然科学基金委员会:钨与低活性铁素体钢纳米梯度复合连接与界面行为,开始日期:2015-01-01,结项时间:2017-12-31.

›柴油机大承载轴瓦用双金属带设计与制备,开始日期:2024-01-01,结项时间:2025-12-31.

›高温自润滑轴承用复合材料关键技术研研究及应用,开始日期:2024-01-01,结项时间:2027-12-31.

›高强韧钨合金丝材研制,开始日期:2025-01-01,结项时间:2026-12-31.

›高性能钨钼铜复合材料研制,开始日期:2023-01-01,结项时间:2025-12-31.

›高性能阳极靶盘研制,开始日期:2024-01-01,结项时间:2025-12-31.

›Microstructure, strength and thermal conductivity of fine-grained Mo-30Cu composites via sol-spray drying and hot rolling.Journal of Alloys and Compounds

›Enhanced strength of tungsten heavy alloys fabricated by laser directed energy deposition via a multicomponent alloy binder.Materials Science & Engineering A

›Enhanced mechanical properties of WMoTaV refractory high-entropy alloy through Ti alloying.Transactions of Nonferrous Metals Society of China

›Thermal stability and interfacial damage behavior of W5Re/Ti-Zr-Mo layered composites under extreme thermal environments.Journal of Alloys and Compounds, 2025, 1051: 185999.

›Microstructure, mechanical properties and texture evolution behavior of cross-rolling W5Re/TiZrMo layered composites.Journal of Alloys and Compounds, 2025, 1043: 184260.

›Effect of heat treatment on microstructure and mechanical properties of tungsten heavy alloy with a non-equiatomic Ni5.5Fe2.5CoCr high-entropy binder.International Journal of Refractory Metals and Hard Materials, 2025, 128: 107096.

›Synergistic strengthening-toughening strategy for additively manufactured tungsten heavy alloys via alloying element-induced hierarchical microstructures.Chemical Engineering Journal, 2025, 525: 170087.

›Effect of rolling reduction on the texture evolution and mechanical properties hot-rolled WMoTaV refractory high entropy alloy with interfacial segregation.Materials Science & Engineering A, 2025, 927: 148010.

›Revealing the solidification microstructure evolution andstrengthening mechanisms of additive-manufactured W-FeCrCoNialloy: Experiment and simulation.Journal of Materials Science & Technology, 2025, 204: 302-313.

›Ultrastrong, high plasticity, and softening-resistant refractory high-entropy alloy via stable isostructural coherent interfaces.Scripta Materialia, 2025, 254: 116337.

›Microstructure and strengthening mechanisms in fine-grained and high-strength tungsten heavy alloy with a non-equiatomic Ni5.5Fe2.5CoCr high-entropy binder.Materials Science & Engineering A, 2024, 908: 146769.

›A CuZnMnNiSi alloy interlayer reinforced W alloy/304 stainless steel composite with excellent interfacial strength.International Journal of Refractory Metals and Hard Materials, 2023, 116: 106316.

›Microstructures and mechanical properties of novel MoTaVW refractory high-entropy alloys.Journal of Alloys and Compounds, 2023, 968: 172165.

›A novel Nb-W-C alloy with special microstructure and excellent mechanical property.Journal of Alloys and Compounds, 2023, 968: 172178.

›Microstructure and strength of diffusion bonding W alloy/304 stainless steel joint using a Cu interlayer.International Journal of Refractory Metals and Hard Materials, 2023, 113: 106188.

›Additive manufactured high-strength tungsten composite with high deformability by using a novel CoCrNi medium-entropy binder.Composites Part B, 2022, 246: 110256.

›A novel dissolution-precipitation mechanism during liquid phase sintering and its strengthening effects in W-Ni-Fe alloys with low W contents.Materials & Design, 2022, 220: 110841.

›Powder Extrusion Printing and Sintering Densification Behaviors of Ultrafine 98W-1Ni-1Fe Alloy Powder.Crystals, 2022, 12: 875.

›The effects of SiC addition on the sintering densification, phases, microstructure and mechanical properties of W.International Journal of Refractory Metals and Hard Materials, 2021, 98: 105528.

›Size-Dependent Alloying Ability of ImmiscibleW-Cu Bimetallic Nanoparticles: A Theoretical and Experimental Study.Nanomaterials, 2021, 11: 1047.

›Nano-in-situ-composite ultrafine-grained WeY2O3 materials: Microstructure, mechanical properties and high heat load performances.Journal of Alloys and Compounds, 2021, 855: 157366.

›Additive manufacturing of W–Fe composites using laser metal deposition: Microstructure, phase transformation, and mechanical properties.Materials Science & Engineering A, 2021, 811: 141036.

›SiC as sintering aids: A tactic to remove impurity oxygen and reaction interface structure characterization.International Journal of Refractory Metals and Hard Materials, 2021, 100: 105640.

›Fabrication of ultrafine-grain and great-performance W-Ni-Fe alloywith medium W content.Journal of Alloys and Compounds, 2020, 846: 156237.

›Sintering densification behavior and kinetic mechanismof nano-tungsten powder prepared by sol-spray drying.Tungsten, 2020, 2: 371-380.

›Microstructure and mechanical properties of additive manufactured W-Ni- Fe-Co composite produced by selective laser melting.International Journal of Refractory Metals & Hard Materials, 2020, 86: 105111.

›Vacuum diffusion bonding W to W-Cu composite: Interfacial microstructure and mechanical properties.Vacuum, 2019, 165: 19-25.

›The influence of modification route on the properties of W-0.3 wt% Y2O3 powder and alloy prepared by nano-in-situ composite method.Journal of Alloys and Compounds, 2019, 774: 1140-1150.

›Micro/nano composited tungsten material and its high thermal loading behavior.Journal of Nuclear Materials, 2014, 455: 717-723.

›Influence of surfactant addition on rheological behaviors of injection-molded ultrafine 98W-1Ni-1Fe suspension.Trans. Nonferrous Met. Soc. China, 2013, 23: 1709-1717.

›Influence of ball milling on powder characteristics and feedstock rheological behaviours of injection moulded ultrafine 98W–1Ni–1Fe.Powder Metallurgy, 2013, 56 (2) : 135.

›The effect of trace nickel additive and ball milling treatment on the near-full densification behavior of ultrafine tungsten powder.Int. Journal of Refractory Metals and Hard Materials, 2012, 34: 18-26.

›The effects of ball-milling treatment on the densification behavior of ultra-fine tungsten powder.Int. Journal of Refractory Metals and Hard Materials, 2011, 29: 743-750.

›一种高密度钨合金3D打印制备方法, 授权号:ZL202211241121.6.

›一种WNiFeCrCo基自润滑耐磨材料及其制备方法, 申请号:202410730482.X

›Mo-Cu 复合粉末及其制备方法, 申请号:2025119680274

›Cu和CuCrZr合金的纳米扩散连接方法, 授权号:ZL201610252059.

›一种高均匀性稀土氧化物掺杂钨材料及其制备方法和应用, 申请号:2026100738102

›一种钨合金和不锈钢的低温扩散连接方法, 授权号:ZL202111301146.6.

›一种碳化物和稀土氧化物复合强化细晶钨材料的制备方法, 授权号:ZL201510068832.1.

›Preparation Method of Refractory High Entropy Alloy Powder with Low Oxygen Content, 授权号:LU502235.

›一种粉末冶金用混料设备, 申请号:202210035391.5

›一种微纳复合细晶钨材料的制备方法, 授权号:ZL201410716933.0.

›一种WNiFeCrCo基自润滑耐磨涂层及其制备方法, 申请号:202410907214.0

›一种用溶胶-非均相沉淀-喷雾干燥制备纳米MeC-W粉末的方法, 授权号:ZL201610558973.6.

›一种碳化钛强化细晶钨材料的制备方法, 授权号:ZL201610558972.1.

›一种粉末冶金用高效球磨机, 授权号:ZL202210035395.3.

›一种机器间余热传输利用管道, 授权号:ZL202222440782.3.

›一种3D打印钨合金的制备方法, 授权号:ZL202410771634.0.

›一种超细活化钨粉的制备方法, 授权号:ZL201010049432.3.

›一种锻造制备旋转阳极靶材的方法及其得到的旋转阳极靶材, 申请号:202410772850.7

›一种非等原子比高熵合金粘结相的高密度细晶钨合金的制备方法, 授权号:ZL202310026926.7.

›一种低氧含量难熔高熵合金粉末的制备方法, 授权号:ZL202210249002.9.

›一种高抗He等离子体辐照超细晶W-Y2O3复合材料及制备方 法, 授权号:ZL202210092544.X.

›一种纳米碳化物增强细晶高温W-Cu材料及其制备方法, 授权号:ZL202111299902.6.

›一种稀土氧化物弥散强化细晶钨材料的制备方法, 授权号:ZL201480034843.1.

›新型高性能钨合金及其构件制备技术[Monograph],冶金工业出版社,2025

›粉末增塑近净成形技术及致密化基础理论(参与编写),冶金工业出版社,2011

›一种碳化钛强化细晶钨材料的制备方法丨中国专利银奖|2021

›陶瓷增强难熔金属超高温轻质复合材料丨湖南省技术发明一等奖|2022

›基于交叉思维模型的跨学科复合型人才培养探索与实践,中国有色金属学会教学成果二等奖,2025-12-31

›粉末冶金原理,本科生专业核心课

›交叉思维训练,全校素质选修课