发表SCI论文50余篇，代表性论文如下：
[1] Zhaoxiang Zhang, Fei Guo*, Yuchao Ke, Chong Xiang, Xiaohong Jia. Effect of vulcanization on deformation behavior of rubber seals: Thermal–mechanical– chemical coupling model, numerical studies, and experimental validation. Materials & Design, 2022, 224: 111314.
[2] Bingqi Jiang, Fei Guo*, Tao Ma, Xiaohong Jia, Ning Zhao, Yuming Wang. A Mixed Lubrication Model for Lip Seals based on Deterministic Surface Micro Deformation. Tribology Transactions, 2022, 65: 153-163.
[3] Ganlin Cheng, Fei Guo*, Xiaohua Zang, Zhaoxiang Zhang, Xiaohong Jia, Xiaoliang Yan. Failure analysis and improvement measures of airplane actuator seals. Engineering Failure Analysis, 2022, 133: 105949.
[4] Ganlin Cheng, Fei Guo*, Jiming E, Guanyu Zhao, Zhaoxiang Zhang, Xiaohong Jia. Influence of surface morphology parameters of steel on tribological properties between glass-fiber-reinforced polytetrafluoroethylene composites and steel under dry-friction and oil-lubrication conditions. Polymer Composites, 2022, 43: 1383-1394.
[5] Fei Guo*, Fan Wu, Xinyong Li, Yijie Huang, Zhuo Wang. FFT-Based Numerical Method for Non-Linear Elastic Contact. Chinese Journal of Mechanical Engineering, 2021.
[6] Chong Xiang, Fei Guo*, Xiang Liu, Hong Fang, Yuming Wang. Thermo- elastohydrodynamic lubrication simulation of reciprocating rod seals under transient condition. Tribology International, 2021, 153: 106603
[7] Zhaoxiang Zhang, Xiaohong Jia, Fei Guo*, Zhongde Shan, Wang Yuming. Effect of contact forms on the wear of hard silicon surfaces by soft polymers. Friction, 2021, 9: 918-928.
[8] Fei Guo*, Fan Wu, Fangyong Wu, Yuming Wang. Low friction mechanism of silicon carbide and cemented carbide in water. Proceedings of the Institution of Mechanical Engineers, Part J: Journal of Engineering Tribology, 2021, 235: 945-951
[9] Chong Xiang, Lei Tan, Fei Guo*, Xing Huang, Yuming Wang. Elastohydrodynamic lubrication simulation of reciprocating rod seal with textured rod. Tribology International, 2021, 158: 106920.
[10] Chong Xiang, Fei Guo*, Xiang Liu, Yijie Chen, Xiaohong Jia, Yuming Wang. Numerical algorithm for fluid-solid coupling in reciprocating rod seals. Tribology International, 2020, 143: 106078.
[11] Bingqi Jiang, Xing Huang, Fei Guo*, Xiaohong Jia, Yuming Wang. Effect of friction coefficient on the mixed lubrication model of rotary lip seals. Proceedings of the Institution of Mechanical Engineers Part J-Journal of Engineering Tribology, 2020, 234: 1746-1754.
[12] Tianzheng Wen, Fei Guo*, Yijie Huang, Shixing Zhu, Xiaohong Jia. Analysis of static sealing rules of foamed silicone rubber based on a porous media model. Cellular Polymers, 2020, 39: 101-116.
[13] Chong Xiang, Fei Guo*, Xiaohong Jia, Yuming Wang, Xing Huang. Thermo-elastohydrodynamic mixed-lubrication model for reciprocating rod seals. Tribology International, 2019, 140: 105894.
[14] Bingqi Jiang, Xiaohong Jia, Zixi Wang, Tao Wang, Fei Guo*, Yuming Wang. Influence of thermal aging in oil on the friction and wear properties of nitrile butadiene rubber. Tribology Letters, 2019, 67: 86
[15] Kun Li, Xiaohong Jia, Fei Guo*. A model for breakaway distance and maximum static friction to study the static frictional behavior of the secondary seal in non-contacting mechanical seals. Tribology International, 2019, 135: 219-229
[16] Chuanxiang Yan, Xiaohong Jia, Bingqi Jiang, Lingfei Gao, Fei Guo*. Influence of Oil Temperature on the Lip Seal’s Performance. Tribology Transactions, 2019 (Accepted).
[17] Yijie Huang, Zixi Wang, Lingfei Gao, Yuchao Ke, Xiaohong Jia, Fei Guo*. The deterioration of foamed silicone rubber in humid and hot environments, Journal of Cellular Plastics, 2019 (Accepted).
[18] Xueli Li, Shuangfu Suo, Fei Guo*, Changgui Wu, Xiaohong, Jia. A study of reciprocating seals with a new mixed-lubrication model based on inverse lubrication theory. Lubrication Science, 2018, 30: 126-136.
[19] Bingqi Jiang, Xiaohong Jia, Fei Guo*, Yuming Wang. Influence of surface polishing on the friction behaviors of NBR. Surface review and letters, 2018, 25: 1950016.
[20] Fei Guo*, Yu Tian, Ying Liu, Yuming Wang. Unexpected friction behaviours due to capillary and adhesion effects, Scientific Reports, 2017, 7: 148.
[21] Fei Guo*, Zixi Wang, Ying Liu, Yuming Wang, Yu Tian. Investigation of ultra-low friction between self-mated Si3N4 in water after running-in, Tribology International, 2017, 115: 365-369.
[22] Fei Guo*, Yu Tian, Ying Liu, Yuming Wang. Ultralow friction between cemented carbide and graphite in water using three-step ring-on-ring friction test, Wear, 2016, 352-353: 54-64.
[23] Fei Guo*, Xiaohong Jia, Longke Wang, Yuming wang. The effect of axial position of contact zone on the performance of radial lip seals with a texturing shaft, Tribology International, 2016, 97: 499-508.
[24] Fei Guo, Yu Tian, Ying Liu, Yuming Wang. Tribological behaviors of graphite sliding against cemented carbide in CaCl2 solution, Surface Topography: Metrology and Properties, 2015, 3: 044003. (2015年highlights论文)
[25] Fei Guo, Xiaohong Jia, Mindong Lv, Longke Wang, Richard F. Salant, Yuming Wang. The effect of aging in oil on the performance of a radial lip seal, Tribology International, 2014, 78: 187-194.
[26] Fei Guo, Xiaohong Jia, Zhi Gao, Yuming Wang. The effect of texture on the shaft surface on the sealing performance of radial lip seals, Science China - Physics,Mechanics & Astonomy, 2014, 57(7): 1343-1351.
[27] Fei Guo, Xiaohong Jia, Longke Wang, Richard F. Salant, Yuming Wang. The effect of wear on the performance of a rotary lip seal, Journal of Tribology-Transactions of the ASME, 2014, 136(4): 041703.
[28] Fei Guo, Xiaohong Jia, Le Huang, Richard F. Salant, Yuming Wang. The effect of aging during storage on the performance of a radial lip seal, Polymer Degradation and Stability, 2013, 98(11): 2193-2200.
[29] Fei Guo, Xiaohong Jia, Shuangfu Suo, Richard F. Salant, Yuming Wang. A mixed lubrication model of a rotary lip seal using flow factors, Tribology International, 2013, 57: 195-201.
授权中国及美国发明专利60余项👩🏿⚖️，部分发明专利如下：
[1] 使用介质处理橡胶密封件的装置📁，中国🐹，202011156002.1，2022年，排名1
[2] 橡胶件的制备方法👃🏼、装置、设备和系统，中国，202011296212.0，2022年🚃，排名1
[3] 一种基于氮气微正压的高压气体密封检测用测试系统，中国，202011187834.X，2022年，排名1
[4] 一种可控温高压气体密封性能测试装置，中国🎁，202011183557.5，2022年，排名1
[5] 一种阀门，中国，202111437050.2，2022年，排名1
[6] 模拟单向阀密封性能的测试装置⚪️，中国，202111095190.6，2022年，排名1
[7] Testing Platform with Floating Cylinder for High-pressure and High-speed Reciprocating Sealing Experiment，美国，11402319B2，2022年，排名1
[8] 一种可分析O型圈截面直径对高压密封性能影响的内倾斜角测试装置🧎🏻➡️，202011183506.2，中国，2021年🤸🏿，排名1
[9] 一种基于氮气置换的高压气体密封检测用测试系统⏰，202011183491.X👨🎤🧍♂️，中国，2021年🦸🏼♀️🩷，排名1
[10] 一种高压气体密封检测用压力可调节的辅控系统🚰，202011183527.4，中国，2021年，排名1
[11] 一种可分析O型圈线径对高压密封性能影响的测试装置👨🏿🦳，202011183546.7，中国，2021年，排名1
[12] 一种可设定保压时间的高压气体密封检测用测试系统🧖🏽，202011183550.3🧑✈️，中国，2021年，排名1
[13] 一种静密封泄漏检测装置，201910320484.0，中国🤷♂️，2021年🌖👨🏿🦲，排名1
[14] 一种可在线分析高压密封用O型圈线径变化的测试装置，202011187808.7🧘🏼，中国🤡，2021年，排名1
[15] 一种橡胶件的生产方法及生产系统，202011179337.5🤏🏻，中国，2021年🪨🤸🏽♂️，排名1
[16] 弹性蓄能密封组件，202011179342.6，中国，2021年，排名1
[17] 橡胶件的制备方法、装置、设备和系统👩👦👦，202011296212.0，中国💭，2021年📧，排名1
[18] 一种高压气体密封用接触特性分析系统，202011183489.2🧜🏽♂️，中国🤷🏻，2021年🚴♀️，排名1
[19] 可紧固弹性体密封件结构，202010552004.6，中国，2021年🤴🏼，排名1
[20] 一种可测量单个密封圈摩擦力的往复密封实验缸体结构🦦，201910320493.X，中国，2020年，排名1
[21] 一种多级压缩率可调静密封测试实验装置，201910592470.4♤，中国，2020年，排名1
[22] 一种可控温控压气体密封测试平台用辅助系统🤜🏿，201910592437.1👩🏿💻，中国，2020年，排名1
[23] 一种可控温高压气体下密封性能测试实验装置，201910592436.7，中国，2020年，排名1
[24] 一种封隔器胶筒密封性能测试装置，201910407775.3，中国🧑🦰，2020年😽，排名1
[25] 一种封隔器胶筒接触力测试装置👩🏻🎓，201910403359.6，中国，2020年，排名1
[26] 一种密封材料压缩高度可调的电池包壳体，201910376372.7，中国，2020年⛹🏿♀️，排名1
[27] 一种压缩高度可调的橡胶压缩永久变形器具🐟，201910375804.2🩹，中国，2020年🤙🏻，排名1
[28] 一种可测量内外行程摩擦力的往复密封实验缸体🛸，201910407695.8👨🏼🏫，中国👷🏼♂️，2020年，排名1
[29] 一种用于SRV-4高温摩擦磨损试验机的通用夹具🤰🏼，201910320492.5，中国👩🏼🎨，2020年🤳🏿，排名1
[30] 一种磁性流体-唇形密封复合式密封🏥，201810433395.2，中国，2020年，排名1
[31] 一种温度可控的高压高速往复密封实验腔体☎，201910838096.1，中国♋️，2020年，排名1
[32] 一种缸体浮动的高压高速往复密封实验测试平台，201910838973.5，中国🚴🏽♂️，2020年，排名1
一种测量不同硫化反应程度下橡胶体积变化的装置及方法🌉，202010143922.3，中国🈺，2020年，排名
