姓名：李文俊

系别：机械制造工程系

职称/职务:副教授，博士生导师

E-mail: wenjunli@hnu.edu.cn

2018年7月—2023年1月，伟德官网，机械与运载工程公司，助理教授

2023年1月—至今，伟德官网，机械与运载工程公司，副教授

[1]国家重点研发计划课题任务，各向异性多孔质微结构的导流节流效应与高承载高刚度悬浮机理，2024年12月-2027年11月，主持；

[2]国家自然科学基金面上项目，合成射流与挤压效应耦合的气体悬浮机理研究及实现，2025年01月-2028年12月，主持；

[3]科技创新类湖湘青年英才，2024年07月-2027年07月，主持；

[4]XXXX：2023年XXXX项目（XXXX），伟德官网课题负责人，2023年10月-2026年12月，主持；

[5]国家重点研发计划课题任务，高速精密气体滑动轴承状态参数测量方法标准研究，2021年12月-2024年11月，主持；

[6]国家重点研发计划课题任务，高速精密滑动轴承支承性能测试技术和标准研究，2021年12月-2024年11月，主持；

[7]国家自然科学基金青年项目，基于能量调度的超稳大承载静压气体轴承润滑机理研究及实现，2021年01月-2023年12月，主持；

[8]湖南省自然科学基金面上项目，基于冗余气体能量跨域再利用的高刚度静压气体轴承润滑机理研究，2023年01月-2025年12月，主持；

[9]湖南省自然科学基金青年项目，基于表面微孔重构抑制气锤振动的多孔质静压气体轴承重载实现机理研究，2020年01月-2022年12月，主持；

[10]国家重点研发计划课题任务，抗冲击耐起停长寿命空气箔片轴承及其转子动力学匹配技术，2019年12月-2022年11月，主持；

[11]航天五院CAST基金，气磁混合倒悬式微重力模拟系统用多微孔气浮轴承跨缝特性研究，2020年12月-2021年6月，主持；

[12]天津市微低重力环境模拟技术重点实验室开放课题，超重载多自由度气浮技术，2019年12月-2021年5月，主持；

[13]企业委托项目，孔式节流静压气体轴承计算软件开发，2023年12月-2024年5月，主持；

[14]长沙半导体技术与应用创新研究院2023年首批概念验证项目,半导体加工与检测用纳米级超精密气浮平台研究，2024年1月-2025年12月，主持；

[15]2023年度河南省高性能轴承技术重点实验室开放基金项目，基于能量最优化原则的静压气体轴承设计研究，2024年1月-2025年12月，主持。

发表论文：

[1]P. Zhang, H. Ye, W. Li(*), Sh. Cai, Sh. Han, K. Feng."A novel method for solving time-varying Reynolds equations of near-field acoustic levitation," Tribology International, 214,11344, 2026

[2]Sh. Cai, W. Li(*), P. Zhang, P. Wang, K. Feng, F. Gao, J. Sun. "Development and analysis of the high-performance aerostatic bearing with a breakwater orifice structure," Mechanical Systems and Signal Processing, 237,113104, 2025

[3]J. Li, Sh. Han, Y. Wang, W. Li(*), F. Gao, J. Sun, K. Feng(*). "Development of porous aerostatic bearings with multifunctional pores," International Journal of Mechanical Sciences, 308, 110945, 2025

[4]K. Zhang, Y. Huang, W. Li(*), H. Cui, Y. Rong, K. Feng."Effects from the stiffness and damping of O-rings on the stability and nonlinear dynamic characteristics of a rotor supported by flexible porous gas bearings," Precision Engineering, 93,153-166, 2025

[5]J. Li, J. Huang, S. Han, P. Wang, W. Li(*), K. Feng(*). "A novel active recess compensation aerostatic thrust bearing with hermetic squeeze film damper: Theoretical and experimental investigation," Mechanical Systems and Signal Processing, 224, 112207, 2025.

[6]P. Zhang, W. Li, S. Cai, Q. Chen, S. Huang, K. Feng(*). "Multi-level alterable transportation of a two-dimensional near-field acoustic levitation platform," International Journal of Mechanical Sciences, 109851,2024.

[7]K. Feng(*), J. Cao, T. Liu, Sh. Ran, W. Li, "Measuring gas film pressure distribution in gas foil journal bearings utilizing PVDF sensor array," Mechanical Systems and Signal Processing, 208, 110994, 2024.

[8]张鹏飞,安晨辉(*),李文俊,冯凯. "面向飞行器和车辆的地面效应模拟技术综述与展望,"机械工程学报,1-21, 2024.

[9]冯凯(*),王国庆,李文俊,安晨辉,侯玮杰,郝永波,李鹏. "静压气体轴承研究进展及应用,"振动工程学报,1-18, 2024.

[10]李文俊,杨靖贵,曲智旭,朱鹏程,刘水华,冯凯(*), "S-CO2介质止推箔片气体动压轴承特性研究,"伟德官网学报,51(10):77-88, 2024.

[11]曲智旭,郝开元,杨靖贵,朱鹏程,刘水华,李文俊,冯凯(*), "S-CO2箔片气体动压轴承静动态特性分析,"振动与冲击,43(14):131-141, 2024.

[12]W. Li , Sh. Cai , P. Zhang , Y. Ping , K. Feng, "Numerical and experimental study on the novel active aerostatic bearings with the controllable throttling effect for obtaining high static stiffness," Mechanical Systems and Signal Processing, 216: P111469, 2024

[13]P Zhang，W. Li(*)，Sh. Cai，Sh. Cao，K. Feng, "Levitation force enhancing and vibration reducing of NFAL via air-film compensation," International Journal of Mechanical Sciences, 281: P.109637, 2024

[14]W. Li, P. Zhang, S. Yang, Sh. Cai, K. Feng, "A novel two-dimensional non-contact platform based on near-field acoustic levitation," International Journal of Mechanical Sciences, 265: p.108865, 2024.

[15]G. Wang, W. Li(*), G. Liu, and K. Feng,“A novel optimization design method for obtaining high-performance micro-hole aerostatic bearings with experimental validation,”Tribology International, vol. 185, p. 108542, 2023.

[16]P. Wang, Y. Zhang, L. Feng, W. Hou, J. Wang, W. Li, and K. Feng,“Study on the pneumatic hammer phenomenon of aerostatic bearings based on the empirical mode method: numerical and experimental analysis,”Tribology International, p.108305, 2023.

[17]P. Zhang, S. Yang, W. Li(*), M. Shi, and K. Feng,“Squeeze film air bearing for controlling the shaft positions based on a radial basis function neural network,”Tribology International, p. 107992, 2023.

[18]W. Li, Y. Zhang, S. Cai, X. Lei, and K. Feng,“Numerical and experimental investigation on the performance of backflow channel aerostatic bearings with shunt injection,”Tribology Transactions, Published Online, 2022.

[19]W. Li, S. Wang, and K. Feng, "Numerical and experimental study on the effect of surface damages on the performances of porous aerostatic bearings," Tribology International, p. 107791, 2022.

[20]W. Li, Y. Zhang, P. Wang, K. Feng, H. Cui, and Y. Zheng, "Novel full‐region model of inherent orifice aerostatic bearings considering air flow in orifice and clearance," Lubrication Science, vol. 34, no. 4, pp. 258-274, 2022.

[21]K. Zhang, K. Feng, W. Li(*), and L. Song, "Nonlinear dynamic analysis of a rotor-porous air journal bearing system with O-rings mounted," Nonlinear Dynamics, vol. 107, no. 1, pp. 559-586, 2022.

[22]W. Li, G. Wang, K. Feng, Y. Zhang, and P. Wang, "CFD-based investigation and experimental study on the performances of novel back-flow channel aerostatic bearings," Tribology International, vol. 165, p. 107319, 2022.

[23]W. Li, S. Wang, Z. Zhao, K. Zhang, K. Feng, and W. Hou, "Numerical and experimental investigation on the performance of hybrid porous gas journal bearings," Lubrication Science, vol. 33, no. 2, pp. 60-78, 2021.

[24]K. Feng(*), P. Wang, Y. Zhang, W. Hou, W. Li, J. Wang, and H. Cui, "Novel 3-D printed aerostatic bearings for the improvement of stability: Theoretical predictions and experimental measurements," Tribology International, vol. 163, p. 107149, 2021.

[25]K. Feng(*), M. Zhang, W.-J. Li, P. Jin, and X.-G. Wang, "Theoretical design, manufacturing, and numerical prediction of a novel multileaf foil journal gas bearing for PowerMEMs," Proceedings of the Institution of Mechanical Engineers, Part J: Journal of Engineering Tribology, vol. 232, no. 7, pp. 823-836, 2018.

[26]Y. Wu, K. Feng(*), Y. Zhang, W. Liu, and W. Li, "Nonlinear dynamic analysis of a rotor-bearing system with porous tilting pad bearing support," Nonlinear Dynamics, vol. 94, no. 2, pp. 1391-1408, 2018.

[27]W. Li, Y. Zhu, K. Feng(*), and K. Zhang, "Effect of surface grooves on the characteristics of noncontact transportation using near-field acoustic levitation," Tribology Transactions, vol. 61, no. 5, pp. 960-971, 2018.

[28]K. Feng(*), Y. Wu, W. Liu, X. Zhao, and W. Li, "Theoretical investigation on porous tilting pad bearings considering tilting pad motion and porous material restriction," Precision Engineering, vol. 53, pp. 26-37, 2018.

[29]W. Li, M. Zhang, Z. Huang, and K. Feng(*), "Nonlinear analysis of stability and unbalanced response on spherical spiral-grooved gas bearings," Tribology Transactions, vol. 61, no. 6, pp. 1027-1039, 2018.

[30]冯凯(*),李文俊,霍彦伟,霍彩娇,带有限制层的多孔质静压气体轴承温度特性分析,机械工程学报, 2018, 54(12): 216~224

[31]K. Feng(*), W.-J. Li, S.-B. Wu, and W.-H. Liu, "Thermohydrodynamic analysis of micro spherical spiral groove gas bearings under slip flow and surface roughness coupling effect," Microsystem Technologies, vol. 23, no. 6, pp. 1779-1792, 2017.

[32]W. Li, Y. Liu, and K. Feng(*), "Modelling and experimental study on the influence of surface grooves on near-field acoustic levitation," Tribology International, vol. 116, pp. 138-146, 2017.

[33]W. Li, W. Liu, and K. Feng(*), "Effect of microfabrication defects on the performance of rarefaction gas-lubricated micro flexure pivot tilting pad gas bearing in power MEMS," Microsystem Technologies, vol. 23, no. 8, pp. 3401-3419, 2017.

[34]K. Feng(*), W. Liu, X. Zhao, and W. Li, "Nonlinear Numerical Prediction of a Rotor–Bearing System Using Damped Flexure Pivot Tilting Pad Gas Bearings," Tribology Transactions, vol. 60, no. 3, pp. 448-459, 2017.

[35]冯凯(*),胡小强,赵雪源, and李文俊, "三瓣式气体箔片径向轴承的静动态特性,"中国机械工程, vol. 28, no. 15, p. 1826, 2017.

[36]K. Feng(*), W. Li, Z. Deng, and M. Zhang, "Thermohydrodynamic analysis and thermal management of spherical spiral groove gas bearings," Tribology Transactions, vol. 60, no. 4, pp. 629-644, 2017.

[37]K. Feng(*), W.-J. Li, Y.-Q. Xie, and M.-X. Liu, "Theoretical analysis of the slip flow effect on gas-lubricated micro spherical spiral groove bearings for machinery gyroscope," Microsystem Technologies, vol. 22, no. 2, pp. 387-399, 2016.

[38]K. Feng(*), J. Hu, W. Liu, X. Zhao, and W. Li, "Structural characterization of a novel gas foil bearing with nested compression springs: analytical modeling and experimental measurement," Journal of Engineering for Gas Turbines and Power, vol. 138, no. 1, 2016.

[39]K. Feng(*) and W. Li, "Coupled effects of Random Surface Roughness and Slip Flow on The Gas-lubricated Micro Spherical Spiral Groove Bearings," in Proceedings of the 14th IFToMM World Congress, 2015.

发明专利：

[1]李文俊、蔡深岭、冯凯，一种具有自检测能力的气体静压轴承，CN202510605689.9

[2]李文俊、陈浩宇、冯凯、赵凡博，一种超精密主动化智能化多孔质静压气体轴承及其实现方法，CN202510738190.5

[3]冯凯、郭瑞春、安晨辉、李文俊，一种基于电磁阻尼吸振的晶圆减薄机，CN202411838748.9

[4]冯凯、李健、陈浩宇、李文俊，一种高效的一体式内嵌阻尼静压气体多孔质轴承，CN202510209828.6

[5]安晨辉、蒋纪强、冯凯、李文俊、王国庆，一种基于荷叶仿生的表面节流真空预载气体静压轴承，CN202410441058.3

[6]冯凯、张鹏飞、李文俊、杨恩辉煌、杨思永，一种新型的二维挤压悬浮技术平台，CN202410298663.X

[7]李文俊、平原、冯凯、安晨辉，类腹足柔性可调控节流多孔质静压气体轴承，CN202311391486.1

[8]安晨辉、余庆华、李文俊、冯凯、叶航飞，一种狭缝可调的静压推力轴承，CN202310512602.4

[9]鲜小东、冯凯、李文俊、蔡深岭，一种合成射流-挤压悬浮混合轴承，CN202211713465.2

[10]李文俊、宁骁杰、冯凯、张英杰、侯玮杰，一种仿生主动静压气体轴承，CN202110237637.2；

[11]李文俊、张印楚、冯凯、张英杰、侯玮杰，一种主动运输气浮平台，CN202110237664.X；

[12]冯凯、吴元辉、王建伟、李文俊，一种基于3D打印的双箭头结构的高阻尼性能空气轴承，CN202110249024.0；

[13]李文俊、张印楚、冯凯、张英杰、侯玮杰，一种流向可调的气体被动轴承，CN202110237662.0；

[14]李文俊、冯凯、张英杰，一种静压气体推力轴承，CN202010056125.1；

[15]陈斌、冯凯、张印楚、李文俊、侯玮杰，一种气体流量与体积协调控制的恒压气缸系统，CN202110777521.8；

[16]冯凯、张印楚、陈斌、李文俊、侯玮杰，一种基于多孔质材料的气浮活塞独立供气的零摩擦气缸，CN202110777518.6；

[17]冯凯、胡小强、宋立军、姚银、李文俊，基于3D打印技术的双层叉形径向气体动压轴承，CN201610299289.0；

[18]冯凯、张敏、李文俊、程苗苗，一种组合式微型箔片气体动压轴承，CN201610030966.9；

[19]冯凯、张敏、李文俊、程苗苗，一种动静压混合可倾瓦径向气体轴承，CN201510772822.6；

[1]中国机械工业科学技术奖，技术发明类一等奖，2021年，排名第8

[2]日内瓦发明奖，国际奖，2021年，排名2

[3]服务于“神舟十三号”任务并获得感谢信，2021年

[4]国际标准化组织注册专家

[5]国家标准起草专家

[6]行业标准起草专家

[7]全国气体润滑与干气密封专委会委员；

[8]《轴承》杂志青年编委

[9]《轴承》杂志2024年度优秀审稿专家

[10]《Lubricants》Special Issue: Gas Lubrication and Dry Gas Seal, 2nd edition，Guest Editor；

[11]《Lubricants》Special Issue: Gas Lubricated Bearings，Guest Editor；

[12]WILEY，Top Cited Article，2022年,

[13]WILEY Top Downloaded Article，2020年

[14]2022年 伟德官网机械与运载工程公司年度考核优秀

[15]2022年 伟德官网第十七届“长丰奖励基金”公司建设突出贡献奖

[16]2021年 伟德官网机械与运载工程公司教师教学基本功大赛二等奖

[17]2021年 伟德官网机械与运载工程公司优秀党员

[18]2021年 伟德官网创新创业优秀指导老师

[19]2021年 指导挑战杯获湖南省特等奖1项

[20]2021年 指导“互联网+”获校一等奖1项和省二等奖1项

[21]2021年 指导全院唯一创业实践类SIT项目

[22]2021年 主持伟德官网教改项目1项

[23]2018年 伟德官网新进教师入职培训微格演练二等奖