【成果奖励】
2022年,《机械工程学报》、《计算机集成制造系统》优秀审稿专家,1/1
2021年,黑龙江省自然科学奖二等奖,苛刻工况防护涂层的界面调控理论及演变机制,4/5
2021年,《机械工程学报》、《中国表面工程》优秀审稿专家,1/1
2020年,《机械工程学报》优秀审稿专家,1/1
2019年,国土资源科学技术奖二等奖,钻探机具关键部件表面工程技术及其工程化应用,7/10
2018年,中国机械工程学会绿色制造科学技术进步奖二等奖,节能环保型铝活塞设计、制造及产业示范,1/13
2013年,河北省优秀博士论文奖,1/1
2012年,燕山大学优秀博士学位论文,1/1
2010年,全国青年摩擦学学术会议优秀会议论文奖,1/1
2008年,Proceeding of 4th World Congress on Maintenance优秀会议论文,1/1
【代表性学术论文】(*为通讯作者)
【2024】
[49]Piao Zhong-yu, Wei Chao-tang, Yuan Zhi-peng, Zhang Jian, Xu Min, Zhou Zhen-yu*. Research on online identification of surface burnishing tool machining conditions by spindle current signal analysis. Tribology International. 2024. 195: 109575.
[48]Zhou Zhen-yu, Jiang Zhi-guo, Zheng Qiu-yang, Li Yu, Yuan Zhi-peng, Ding Cong, Piao Zhong-yu*. Research on the construction of gradient nanostructure and anti-tribocorrosion behavior of aluminum alloy surface. Tribology International. 2024. 194: 109448.
[47]Ding Cong, Qiao Zhi-zhao, Feng Shi-qing, Zhou Zhen-yu, Piao Zhong-yu*. Friction and wear performances of 7075 aluminum alloy surface with V-shaped microtexture via numerical simulation and experimental characterizations. Industrial Lubrication and Tribology. 2024. Accepted
【2023年】
[46]Zheng Qiu-yang, Zhou Zhen-yu, Li Yu, Chen Jian-hao, Ye Sen-bin, Piao Zhong-yu*. Molecular dynamic simulation of the influence of vibration effects on scratching processes in Varied crystal orientations. Modelling and Simulation in Materials Science and Engineering. 2023. Accepted
[45]Feng Shi-qing, Ding Cong*, Qiao Zhi-zhao, Yuan Zhi-peng, Zhou Zhen-yu, Hou Wen-tao, Piao Zhong-yu*. Correlation between vibration signal and surface quality based on recurrence analysis during surface burnishing process. Mechanical Systems and Signal Processing. 2023. 200:110654
[44]Ding Cong, Feng Shi-qing, Qiao Zhi-zhao, Zhu Hua, Zhou Zhen-yu, Piao Zhong-yu*. Experimental prediction model for the running-in state of a friction system based on chaotic characteristics and BP neural network. Tribology International. 2023. 188:108846
[43]Zhou Zhen-yu, Zheng Qiu-yang, Li Yu, Jiang Zhi-guo, Yuan Zhi-peng, Piao Zhong-yu*.Effect of ultrasonic vibration on the deformation through indentation test and molecular dynamics simulation. Mechanics of Materials. 2023. 184:104744
[42]Zhou Zhen-yu, Zheng Qiu-yang, Li Yu, Jiang Zhi-guo, Yuan Zhi-peng, Yan Ju-yu, Piao Zhong-yu*. Influence of surface burnishing process with single strain path and reciprocating strain path on copper wear behavior. Wear. 2023. 530:205022
[41]Zhou Zhen-yu, Zheng Qiu-yang, Li Yu, Ding Cong, Peng Guang-jian*, Piao Zhong-yu*. Research on the mechanism of the two-dimensional ultrasonic surface burnishing process to enhance the wear resistance for aluminum alloy. Friction. 2023. DOI: 10.1007/s40544-023-0777-z.
[40]Ding Cong, Feng Shi-qing, Qiao Zhi-zhao, Zhou Zhen-yu, Piao Zhong-yu*. Running-in performance of 7075 aluminum alloy strengthened by burnishing technology. Journal of Mechanical Science and Technology. 2023. 37(5):2545-2553
[39]Hou Wen-tao, Xu Wei-wei, Zhou Zhen-yu, Ding Cong, Piao Zhong-yu*. Study of the effect of ultrasonic vibration on nickel-based coating by electrical discharge machining. Journal of Materials Engineering and Performance. 2023. 32(20):9418-9427
[38]Yuan Zhi-peng, Zhou Zhen-yu, Jiang Zhi-guo,Zhao Ze-yu, Ding Cong*, Piao Zhong-yu*. Evaluation on Surface Roughness of Aluminum Alloy in Burnishing Process Based on Chaos theory. Chinese Journal of Mechanical Engineering. 2023. 36(1):2
【2022年】
[37]Li Yu, Zheng Qiu-yang, Zhou Zhen-yu, Ding Cong, Ye Sen-bin, Piao Zhong-yu*. Molecular dynamics study on the effect of electric current on electrically-assisted scratching for crystal copper. Physica Scripta. 2022. 97(11):115401
[36]Hou Wen-tao, Ding Yu-quan, Huang Guo-qiang, Nazmul Huda, Luqman Hakim Ahmad Shah, Piao Zhong-yu*, Shen Yi-fu*, Shen Zhi-kai, Adrian Gerlich. The role of pin eccentricity in friction stir welding of Al‑Mg‑Si alloy sheets: microstructural evolution and mechanical properties. International Journal of Advanced Manufacturing Technology. 2022. 121:7661-7675 ESI高被引论文
[35]Peng Guang-jian, Hu Yahao, Dou Guijing, Sun Yiheng, Huan Yong, Kang Sung Hoon*, Piao Zhong-yu*. Enhanced mechanical properties of epoxy composites embedded with MF/TiO2 hybrid shell microcapsules containing n-octadecane. Journal of Industrial and Engineering Chemistry. 2022. 110:414-423
[34]Zheng Qiu-yang, Zhou Zhen-yu, Ding cong, Li Yu, Lin En, Ye Sen-bin*, Piao Zhong-yu*. Mechanical response of single-crystal copper under vibration excitation based on molecular dynamics simulation. Journal of Manufacturing Processes. 2022. 75:605-616
[33]Ding Cong, Zhou Zhen-yu, Piao Zhong-yu*, Mao Peng-zhan*. Influence of the ultrasonic vibration on system dynamic responses in the multi-ball surface burnishing process. Journal of Manufacturing Science and Engineering-Transactions of the ASME. 2022. 144: 051002
【2021年】
[32]Zhou Zhen-yu, Zheng Qiu-yang, Ding Cong, Yan Ju-yu, Piao Zhong-yu*. Effect of surface burnishing process with different strain paths on the copper microstructure. Journal of Manufacturing Processes. 2021, 71: 653-668
[31]Zhou Zhen-yu, Zheng Qiu-yang, Ding Cong, Yan Ju-yu, Peng Guang-jian, Piao Zhong-yu*. Research on the promotion mechanism of surface burnishing process by two-dimensional ultrasonic vibration. Journal of Materials Research and Technology. 2021, 13:1068-1082
[30]Zhou Zhen-yu, Zheng Qiu-yang, Ding Cong, Yan Ju-yu, Piao Zhong-yu*. A review of the development of surface burnishing process technique based on bibliometric analysis and visualization. International Journal of Advanced Manufacturing Technology. 2021, 116(5-6):1955-1999
[29]Chen Jian-hao, Zheng Qiu-yang, Zhou Zhen-yu, Ding Cong, Piao Zhong-yu*. Molecular dynamics simulation of monocrystalline copper nano-scratch process under the excitation of ultrasonic vibration. Materials Research Express. 2021, 8(4): 046507
[28]Ding Cong, Zhou Zhen-yu, Piao Zhong-yu*. Investigation of the running-in quality at different rotating-speeds by chaos theory. International Journal of Bifurcation and chaos. 2021, 31(7):2150108
[27]Zhou Zhen-yu, Zheng Qiu-yang, Ding Cong, Yu Guang-lei, Peng Guang-jian, Piao Zhong-yu*. Investigation of Two-Dimensional Ultrasonic Surface Burnishing Process on 7075-T6 Aluminum. Chinese Journal of Mechanical Engineering. 2021, 34:19
[26]Ding Cong, Sun Guo-dong, Zhou Zhen-yu, Piao Zhong-yu*. Investigation of the optimum surface roughness of AISI 5120 steel by using a running-in attractor. Journal of Tribology-Transactions of the ASME.2021, 143(9): 094501.
【2020年】
[25]Zhou Zhen-yu, Yu Guang-lei, Zheng Qiu-yang, Ma Guo-zheng, Ye Sen-bin, Ding Cong, Piao Zhong-yu*. Wear behavior of 7075-aluminum after ultrasonic-assisted surface burnishing. Journal of Manufacturing Processes. 2020. 51:1-9 ESI高被引论文
[24]Tang Wei-chen, Piao Zhong-yu*, Zhang Jiang*, Liu Shi-ying, Deng Li-jun. Effect of trace elements on the pinhole fatigue-resistance of gasoline Al-Si piston alloy. Engineering Failure Analysis. 2020. 108:104430
[23]Piao Zhong-yu, Wang Hai-dou, Xu Bin-shi, Yu Xiao-xiao. Rolling Contact Fatigue Behavior of Thermal-Sprayed Coating: A Review. Critical Reviews in Solid State and Materials Sciences. 2020. 45(6):429-456
[22]Ding Cong, Zhou Zhen-yu, Yuan Zhi-peng, Zhu Hua, Piao Zhong-yu*. Study on the correlation between the running-in attractor and the wear particle group. Industrial Lubrication and Tribology. 2020.72(5):681-686
【2019年及之前】
[21]Piao Zhong-yu*, Zhou Zhen-yu, Xu Jia, Wang Hai-dou. Use of X-ray computed tomography to investigate rolling contact cracks in plasma sprayed Fe–Cr–B–Si coating. Tribology Letters. 2019. 67 (1) 11 ESI热点论文、ESI高被引论文
[20]Piao Zhong-yu, Wen Dong-hui*, Yin Lin-zhi, Zhao Meng-meng. Ultra-smooth Cu surface fabricated by hydrodynamic suspension polishing technique. Precision Engineering. 2019. 57:189-194
[19]Zhang Jian, Piao Zhong-yu*, Liu Shi-ying, Su Sheng-wei, Deng Li-jun. Investigation of wear behavior of graphite coating on aluminum piston skirt of automobile engine. Engineering Failure Analysis. 2019. 97:408-415
[18]Wen Dong-hui, Yin Lin-zhi, Piao Zhong-yu*, Lu Cong-da, Li Gang, Leng Qiao-hui. Performance investigation of proton exchange membrane fuel cell with intersectant flow field. International Journal of Heat and Mass Transfer. 2018.121:775-787
[17]Zhang Jian, Piao Zhong-yu*, Deng Li-jun, Zhang Sen, Liu Jing. Influence of pin assembly on the wear behavior of piston skirt. Engineering Failure Analysis. 2018. 89:28-36
[16]Zhang Jian, Piao Zhong-yu*, Liu Shi-ying. Influence of skirt profile structure of gasoline engine piston on the friction and wear characteristics under standard conditions.Journal of Tribology-Transactions of the ASME. 2018. 140: 021703-11.
[15]Wen Dong-hui, Yin Lin-zhi, Piao Zhong-yu*, Lu Cong-da, Li Gang, Leng Qiao-hui. A novel intersectant flow field of metal bipolar plate for proton exchange membrane fuel cell. International Journal of Energy Research. 2017. 41:2184-2193
[14]Piao Zhong-yu*, Xu Jia, Yin Lin-zhi, Wen Dong-hui, Xu Bin-shi, Wang Hai-dou. Surface integrity design of plasma sprayed coating for resisting contact fatigue. Materials Chemistry and Physics. 2016. 179:174-181
[13]Wen Dong-hui, Piao Zhong-yu*, Zhang Tai-hua. A hydrodynamic suspension polishing method for ultrasmooth and low-damage surface. Precision Engineering. 2016. 46:278-287
[12]Xu Jia, Zhou Zhen-yu, Piao Zhong-yu*. Accumulated damage process of thermal sprayed coating under rolling contact by acoustic emission technique. Frontiers of Mechanical Engineering. 2016, 11(3): 227–232
[11]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Wen Dong-hui. Investigation of RCF failure prewarning of Fe-based coating by online monitoring. Tribology International. 2014.72:156-160
[10]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Wen Dong-hui. Influence of surface nitriding treatment on rolling contact behavior of Fe-based plasma sprayed coating. Applied Surface Science. 2013. 266:420-425
[9]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Wen Dong-hui. Investigation of acoustic emission source of Fe-based sprayed coating under rolling contact.International Journal of Fatigue. 2013.47:184-188
[8]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Wen Dong-hui. Influence of surface roughness on rolling contact fatigue behavior of Fe-Cr alloy coatings. Journal of Materials Engineering and Performance. 2013. 22:767-773
[7]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Wen Dong-hui. Characterization of Fe-based alloy coating deposited by supersonic plasma spraying. Fusion Engineering and Design. 2013. 88(11):2933-2938
[6]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou. Investigation of spalling mechanism of the thermal sprayed coating under rolling contact by FIB-SEM. Engineering Failure Analysis. 2012. 25: 106-111
[5]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Pu Chun-huan. Investigation of fatigue failure prediction of Fe-Cr alloy coatings under rolling contact based on acoustic emission technique. Applied Surface Science. 2011. 257(7): 2581-2586
[4]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Pu Chun-huan. A separation of experimental study on coatings failure signal responses under rolling contact. Tribology International. 2011. 44:1304-1308
[3]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Pu Chun-huan. Investigation of rolling contact fatigue lives of Fe-Cr alloy coatings under different loading conditions. Surface & Coatings Technology. 2010. 204(9-10):1405-1411
[2]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Pu Chun-huan. Influence of undercoating on rolling contact fatigue performance of Fe-based coating. Tribology International. 2010. 43(1-2):252-258
[1]Piao Zhong-yu*, Xu Bin-shi, Wang Hai-dou, Pu Chun-huan. Effects of thickness and elastic modulus on stress condition fatigue-resistant coating under rolling contact. Journal of Central South University of Technology. 2010. 17(5): 899-905
【授权发明专利】
[29]朴钟宇, 余光磊, 郑秋阳, 周仁泽, 周振宇. 柔性电极电火花沉积复合滚压加工刀具. 2023.9.12, 中国, 国家发明专利, 专利号:ZL2017 1 1416261.1
[28]朴钟宇, 周振宇, 余光磊, 郑秋阳,周仁泽. 爪式柔性超声弧面滚压刀具. 2023.7.21, 中国, 国家发明专利, 专利号: ZL 2019 1 0101730.3
[27]朴钟宇, 周振宇, 郑秋阳, 余光磊, 周仁泽. 双重弹性元件弧面滚压刀具. 2023.7.21, 中国, 国家发明专利, 专利号: ZL 2019 1 0101724.8
[26]朴钟宇, 郑秋阳, 周振宇, 严飓煜, 陈健豪, 余光磊, 丁丛, 张丽慧, 叶森斌. 制备高通量薄膜的磁控溅射装置及其制备高通量薄膜的制备方法. 2023.6.27, 中国, 国家发明专利, 专利号: ZL 2019 1 1313706.2
[25]朴钟宇, 周振宇, 郑秋阳, 余光磊, 周仁泽. 电致塑性效应辅助滚压刀具. 2023.6.27, 中国, 国家发明专利, 专利号: ZL 2019 1 0101752.X
[24]朴钟宇, 严飓煜, 陈健豪, 周振宇, 郑秋阳, 余光磊, 丁丛, 张丽慧, 叶森斌. 回转件内壁电火花沉积设备. 2023.6.27, 中国, 国家发明专利, 专利号: ZL 2019 1 1313802.7
[23]朴钟宇, 周振宇, 郑秋阳, 余光磊, 周仁泽. 柔性传动超声齿面滚压刀具. 2023.6.27, 中国, 国家发明专利, 专利号: ZL 2019 1 0101757.2
[22]朴钟宇, 周振宇, 余光磊, 郑秋阳, 周仁泽. 液压驱动稳压齿轮齿面滚压刀具. 2023.6.27, 中国, 国家发明专利, 专利号: ZL 2019 1 0101756.8
[21]朴钟宇, 赵泽宇, 彭光健, 丁丛, 侯文涛, 叶森斌, 周振宇. 一种电脉冲辅助滚压加工平台. 2023.5.30, 中国, 国家发明专利, 专利号: ZL 2022 1 0261884.0
[20]朴钟宇,赵泽宇, 姜治国, 彭光健, 丁丛, 侯文涛, 叶森斌. 一种旋转换刀柔性滚压刀具. 2023.4.25, 中国, 国家发明专利, 专利号:ZL 2022 1 0205990.7
[19]朴钟宇, 周振宇, 郑秋阳, 周仁泽, 余光磊. 一种表面梯度薄膜的制备方法. 2020.8.18, 中国, 国家发明专利, 专利号: ZL201711416464.0
[18]朴钟宇,周振宇,徐佳. 一种电极位置可调的电火花沉积滚压刀具. 2018.11. 中国, 国家发明专利. 专利号: ZL201611166961.5
[17]朴钟宇,周振宇,徐佳. 一种滚压力可测的柔性电火花沉积滚压刀具. 2018.09, 中国,国家发明专利. 专利号: ZL201611166978.0
[16]朴钟宇,周振宇,徐佳,文东辉. 滚压加工力热测试平台. 2018.09, 中国, 国家发明专利. 专利号: ZL201610665555.7
[15]朴钟宇,徐佳,周振宇.一种压力可测的柔性平面滚压刀具. 2018.09, 中国, 国家发明专利. 专利号:ZL201611167002.5
[14]朴钟宇,徐佳,周振宇,郑波,赵朦朦.一种滚压力及刀具转速可变的平面滚压刀具. 2018.07, 中国, 国家发明专利. 专利号:ZL201510682658.X
[13]朴钟宇,周振宇,郑波,赵朦朦,徐佳.一种给予恒定滚压力的平面滚压刀具. 2018.07, 中国, 国家发明专利. 专利号:ZL201510693107.3
[12]朴钟宇,周振宇,徐佳.一种滚压力可调节的刚性平面滚压刀具. 2018.7, 中国, 国家发明专利. 专利号:ZL201611167001.0
[11]朴钟宇, 赵朦朦, 周振宇, 徐佳, 郑波. 一种铣滚一体刀具. 2018.06, 中国, 国家发明专利, 专利号:ZL201510693100.1
[10]朴钟宇,周振宇,郑波,赵朦朦,徐佳.一种给予电磁加热的平面滚压刀具. 2018.06 中国, 国家发明专利. 专利号:ZL201510692925.1
[9]朴钟宇,徐佳,周振宇,郑波,赵朦朦.一种利用真空抽气进行润滑的平面滚压刀具. 2018.06, 中国, 国家发明专利. 专利号:ZL201510693111.X
[8]朴钟宇,徐佳,周振宇.一种具有电火花沉积功能的柔性平面滚压刀具. 2018.6, 中国, 国家发明专利. 专利号:ZL201611168448.X
[7]朴钟宇,赵朦朦,周振宇,徐佳,郑波.一种通过气缸进行恒力加压的平面滚压刀具. 2018.02, 中国, 国家发明专利. 专利号:ZL201510693131.7
[6]朴钟宇, 徐佳, 周振宇, 文东辉. 超声滚压表面纳米化加工装置. 2018.2, 中国, 国家发明专利, 专利号:ZL201610666709.4
[5]朴钟宇,周振宇,郑波,赵朦朦,徐佳.一种给予恒距离滚压的平面滚压刀具. 2018.01, 中国, 国家发明专利. 专利号:ZL201510692924.7
[4]朴钟宇, 徐佳, 周振宇, 郑波, 赵朦朦. 一种带有锥形无刷电机的平面滚压刀具. 2017.11, 中国, 国家发明专利, 专利号:ZL201510692963.7
[3]朴钟宇, 赵朦朦, 尹林志, 徐佳, 文东辉. 一种改进的平面滚压方法及装置. 2017.10, 中国, 国家发明专利, 专利号:ZL201510507073.4
[2]朴钟宇, 徐钉, 文东辉. 一种动压浮离抛光方法. 2015.09, 中国, 国家发明专利. 专利号: ZL201310244152.1
[1]朴钟宇, 徐钉, 文东辉. 一种动压浮离抛光装置. 2015.08, 中国, 国家发明专利. 专利号: ZL201310244168.2