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姓名: 任成祖
性別:
英文名: Ren Chengzu
人才稱號: “北洋教師職業發展體系”長聘教授
職稱: 教授、博導
職務: 專業: 機械制造及其自動化
所在機構: 機械工程系、數字化制造與精密加工技術研究所 個人主頁:
郵箱: renchz@tju.edu.cn 辦公地點: 天津大學機械工程學院,300072
傳真: +86(0)22 27406951 辦公電話: +86(0)22 27406951
主要學歷: 1991.09-1995.11 天津大學機械制造工程專業,在職博士研究生,獲工學博士
1984.09-1987.03 南京航空學院機械制造工程專業,碩士研究生,獲工學碩士
1980.09-1984.07 西北工業大學航空機械制造工程專業,本科生,獲工學學士

主要學術經歷: 2018.01至今,天津大學機械工程學院,“北洋教師職業發展體系”長聘教授
2004.09至今,天津大學機械工程學院,博士生導師
2003.06至今,天津大學機械工程學院,教授
1995.12-2003.05,天津大學機械工程學院,副教授
1990.12-1995.11,天津大學機械工程系,講師
1987.05-1990.11,天津大學機械工程系,助教

主要研究方向: 1. 高精度滾動軸承超精密加工技術與裝備
2. 硬脆材料精密、超精密加工理論與關鍵技術

主要講授課程: 1. 機械制造技術基礎(本科生 48學時)
2. 先進制造技術實驗(本科生 64學時)
3. 機械制造技術基礎課程設計(本科生 72學時)
4. 精密與特種加工(研究生 32學時)

主要學術兼職: 中國機械工程學會磨粒技術專業委員會常務委員
天津市機械工程學會常務理事

主要學術成就: 中國機械工程學會生產工程分會磨粒技術專業委員會常務委員,天津市機械工程學會常務理事,國家科技成果獎/教育部科技成果獎/天津市科技成果獎評審專家,國家重大專項/兩機專項/重大研發計劃評審專家,國家重點研發計劃項目首席專家。主要從事高精度滾動軸承超精密加工和硬脆難加工材料精密高效加工研究工作。作為負責人主持國家重點研發計劃項目、國家自然科學基金重點項目、國家自然科學基金面上項目和天津市自然科學基金重點項目等20余項;在Int J Mach Tool Manu、Appl Surf Sci、Ceram Int等高水平學術期刊發表被 SCI收錄論文30余篇;授權國家發明專利5項、美國發明專利2項、日本發明專利2項、韓國發明專利2項。指導碩士研究生50余人、博士研究生20余人。
發明了“雙盤大循環”軸承滾子顛覆性加工新方法和工藝裝備,目前正在國家重點研發計劃“制造基礎技術與關鍵部件”重點專項項目“滾動軸承超精密制造與檢測技術”和國家自然科學基金重點項目“軸承滾子高精度創成理論與實現方法”的資助下,開展高精度軸承滾子超精密加工理論與技術研究,可極大提高圓柱滾子和圓錐滾子的精度等級,將對我國基礎件軸承產業的發展產生重大的促進作用。
提出了基于氧化膜狀態主動控制ELID磨削原理,以回路電流表征ELID磨削過程中砂輪工作面氧化膜狀態,利用大小脈沖協調控制電解強度,將砂輪工作面氧化膜狀態控制在與工件表面粗糙度目標相適應的水平。目前正在國家自然科學基金面上項目“基于圓弧軌跡進給的球軸承套圈溝道ELID成形磨削機理”的資助下將該技術應用于球軸承套圈溝道ELID超精密成形磨削,以提高球軸承套圈溝道的精度和質量。研究成果對軸承套圈溝道加工質量具有重要的促進作用。

主要科研項目: 1.?軸承滾子高精度創成理論與實現方法,國家自然科學基金重點項目,300萬元,2020-2024
2.?滾動軸承超精密制造與檢測技術,國家重點研發計劃“制造基礎技術與關鍵部件”專項項目,3329萬元(國撥1329萬元),2019-2022
3.?基于圓弧軌跡進給的球軸承套圈溝道ELID成形磨削機理,國家自然科學基金,62萬元,2017-2020
4.?基于工件陰極的軸承外圈溝道ELID成型磨削機理,天津市自然科學基金重點項,20萬元,2015-2018
5.?基于界面細觀力學行為的陶瓷基纖維復合材料磨削機理,國家自然科學基金,80萬元,2013-2016
6.?晶須增強陶瓷基復合材料磨削加工微觀多向材料去除機理,高校博士點基金,12萬元,2012-2014
7.?CFRP/鈦合金螺旋銑孔過程切削機理與工藝優化,天津市自然科學基金重點項,20萬元,2011-2014
8.?固結磨粒面接觸磨削超精密加工機理,國家自然科學基金,34萬元,2010~2012
9.?基于微細結構加工數控超精密機床,國家863計劃子課題,40萬元,2008-2010
10.?在線電解修整超精密磨削砂輪表面鈍化膜狀態的表征與主動控制,國家自然科學基金,25萬元,2006-2008
11.?納米復合陶瓷軸承球中試生產線研制,橫向合作,1500萬,2001-2003

代表性論著: [1]Li, YC , Ge, X., Wang, H. Hu, YB, Ning, FD, Cong, WL, Ren, CZ*, Study of material removal mechanisms in grinding of C/SiC composites via single-abrasive scratch tests, CERAMICS INTERNATIONAL, 2019,45(4): 4729-4738. (SCI, IF: 3.057/Q1/二區)
[2]Chen, G., Ren, CZ, Zou, YH, Qin, XD, Lu, LP, Li, SP, Mechanism for material removal in ultrasonic vibration helical milling of Ti-6Al-4V alloy, INTERNATIONAL JOURNAL OF MACHINE TOOLS & MANUFACTURE, 2019, 138: 1-13. (SCI, IF: 5.106/Q1/二區)
[3]Li, YC, Ren, CZ, Wang, H., Hu, YB, Ning, FD, Wang, XL, Cong, WL, Edge surface grinding of CFRP composites using rotary ultrasonic machining: comparison of two machining methods, INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2019, 100(9-12): 3237-3248. (SCI, IF: 2.601/Q2/三區)
[4]Chen Guang*, Lu Lianpeng, Ren Chengzu, et al., Temperature dependent negative to positive strain rate sensitivity and compression behavior for 2024-T351 aluminum alloy, JOURNAL OF ALLOYS AND COMPOUNDS, 2018, 765: 569-585. (SCI, IF: 3.779/Q1/二區)
[5]Chen Guang*, Ren Chengzu, Lu Lianpeng, et al., Determination of ductile damage behaviors of high strain rate compression deformation for Ti-6Al-4V alloy using experimental-numerical combined approach, ENGINEERING FRACTURE MECHANICS, 2018, 200: 499-520. (SCI, IF: 2.58/Q1/三區)
[6]Wu M. L., Ren C. Z.*, Xu H. Z., et al., Fabrication of a bionic microstructure on a C/SiC brake lining surface: Positive applications of surface defects for surface wetting control, APPLIED SURFACE SCIENCE, 2018, 440: 669-679. (SCI, IF: 4.439/Q1/二區)
[7]Wu M. L., Ren C. Z.*, Zhang K. F., Wear life characterization of the grinding wheel for electrolytic in-process dressing (ELID) grinding of ball bearing raceways: a new perspective based on a moving normal distribution curve of the grit state variation, INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2018, 96(5-8): 1919-1928. (SCI, IF: 2.601/Q2/三區)
[8]Wang Zhiqiang, Ren Chengzu*, Chen Guang, et al., A comparative study o n state of oxide layer in ELID grinding with tool-cathode and workpiece-cathode, INTERNATIONAL JOURNAL OF ADVANCED MANUFACTURING TECHNOLOGY, 2018, 94(1-4): 1299-1307. (SCI, IF: 2.601/Q2/三區)
[9]Wu M. L., Ren, C. Z.*, Xu, H. Z., Zhou C.L., Fiber induced time-lag during water droplet adsorption on carbon fiber reinforced silicon carbide (C/SiC) surfaces, Materials Chemistry and Physics, 2017, 201: 251-261. (SCI, IF: 2.084/Q2/三區)
[10]Wu M. L., Ren, C. Z.*, Xu, H. Z., Zhou C.L., Surface wetting of the C/SiC brake lining with micro-scale heat dissipation fins to cool off the brake system: Influence of the fibre ending orientation and fin interval, Ceramics International, 2017, 43(14): 10805-10816. (SCI, IF: 2.986/Q1/二區)
[11]Guang Chen, Zhihong Ke, Chengzu Ren*, Jun Li, Constitutive modeling for Ti-6Al-4V alloy machining based on the SHPB tests and simulation, Chinese Journal of Mechanical Engineering, 2016, 29(5): 962-970.( SCI, IF: 0.531/Q4)
[12]M.L. Wu, C.Z.* Ren, Xu, H.Z. Xu, On the wettability diversity of C/SiC surface: Comparison of the ground C/SiC surface and ablated C/SiC surface from three aspects, Applied Surface Science, 2016, 385: 391-399. (SCI, IF: 3.15/Q1/二區/Top)
[13]Wu M. L., Ren, C. Z.*, Xu, H. Z., Comparative study of micro topography on laser ablated C/SiC surfaces with typical uni-directional fibre ending orientations, Ceramics International, 2016, 42(7): 7929-7942. (SCI, IF: 2.758/Q1/二區)
[14]Chen Guang, Ren Chengzu*, Ke Zhihong, Li Jun, Yang Xinpeng, Modeling of flow behavior for 7050-T7451 aluminum alloy considering microstructural evolution over a wide range of strain rates, Mechanics of Materials, 2016, 95: 146-157. (SCI, IF: 2.636/Q1/二區/Top)
[15]Zhang Lifeng, Ren Chengzu*, Ji Chunhui, Wang Zhiqiang, Chen Guang, Effect of fiber orientations on surface grinding process of unidirectional C/SiC composites, Applied Surface Science, 2016, 366: 424-431. (SCI, IF: 3.15/Q1/二區/Top)
[16]Zhang Lifeng, Ren Chengzu*, Zhou Changling, Xu Hongzhao, Jin, Xinmin, Single fiber push-out characterization of interfacial mechanical properties in unidirectional CVI-C/SiC composites by the nano indentation technique, Applied Surface Science, 2015, 357: 1427-1433. (SCI, IF: 3.15/Q1/二區/Top)
[17]Chen Guang*, Ren Chengzu*, Qin Xuda, Li Jun, Temperature dependent work hardening in Ti-6Al-4V alloy over large temperature and strain rate ranges: Experiments and constitutive modeling, Materials & Design, 2015, 83: 598-610. (SCI, IF: 3.997/Q1/二區)
[18]Wu M. L., Ren Chengzu*, Zhang Kaifei, ELID groove grinding of ball-bearing raceway and the accuracy durability of the grinding wheel, International Journal of Advanced Manufacturing Technology, 2015, 79(9-12):1721-1731. (SCI, IF: 1.568/Q2/三區)
[19]Wu M. L., Ren C. Z*., Active control of the anisotropic wettability of the carbon fiber reinforced carbon and silicon carbide dual matrix composites (C/C-SiC), Applied Surface Science, 2015, 327: 424-431. (SCI, IF: 3.15/Q1/二區/Top)
[20]Li Jun, Yang Xiaoyong, Ren Chengzu*, Chen Guang, Wang Yan, Multiobjective optimization of cutting parameters in Ti-6Al-4V milling process using nondominated sorting genetic algorithm-II, International Journal of Advanced Manufacturing Technology, 2015, 76(5-8):941-953. (SCI, IF: 1.568/Q2/三區)
[21]Feng Qiang, Ren Chengzu*, Pei Zhijian, A physics-based predictive model for number of contact grains and grain depth of cut in honing, Machining Science and Technology, 2015, 19(1): 50-70. (SCI, IF: 1.172/Q2)
[22]Wu M. L., Zhang Kaifei, Ren Chengzu*, Study on the non-uniform contact during ELID groove grinding, Precision Engineering-Journal of the International Societies for Precision Engineering and Nanotechnology, 2015, 39: 116-124. (SCI, IF: 1.914/Q1/三區)
[23]Chen Guang, Li Jun, He Yinglun, Ren Chengzu*, A new approach to the determination of plastic flow stress and failure initiation strain for aluminum alloys cutting process, Computational Materials Science, 2014, 95: 568-578. (SCI, IF: 2.131/Q2/三區)
[24]Liu Jie, Chen Guang, Ji Chunhui, Qin Xuda, Li Hao, Ren Chengzu, International Journal of Machine Tools & Manufacture, 2014, 86: 89-103. (SCI, IF: 3.037/Q1/二區)
[25]Liu Chang, Wang Guofeng, Ren Chengzu, Yang Yinwei, Mechanistic modeling of oblique cutting considering fracture toughness and thermo-mechanical properties, International Journal of Advanced Manufacturing Technology, 2014, 74(9-12): 1459-1468. (SCI, IF: 1.458/Q2/三區)
[26]Liu Jie, Ren Chengzu, Qin Xuda, Li Hao, Prediction of heat transfer process in helical milling, International Journal of Advanced Manufacturing Technology, 2014, 72(5-8): 693-705. (SCI, IF: 1.458/Q2/三區)
[27]Chen Guang, Ren Chengzu*, Zhang Pan, Cui Kuihu, Li Yuanchen, Measurement and finite element simulation of micro-cutting temperatures of tool tip and workpiece, International Journal of Machine Tools & Manufacture, 2013, 75: 16-26. (SCI, IF: 2.743/Q1/二區)
[28]Zhang Kaifei, Ren Chengzu*, Yang Lijian, Jin Xinmin, Li Qinfeng, Precision grinding of bearing steel based on active control of oxide layer state with electrolytic interval dressing, International Journal of Advanced Manufacturing Technology, 2013, 65(1-4): 411-419. (SCI, IF: 1.779 /Q2/三區)
[29]Wang Haiyan, Qin Xuda, Li Hao, Ren Chengzu, Analysis of cutting forces in helical milling of carbon fiber-reinforced plastics, Proceedings of the Institution of Mechanical Engineers Part B-Journal of Engineering Manufacture, 2013, 227(B1): 62-74. (SCI, IF: 0.661 /Q3)
[30]Chen Guang, Ren Chengzu*, Yu Wei, Yang Xiaoyong, Zhang Lifeng,Application of genetic algorithms for optimizing the Johnson-Cook constitutive model parameters when simulating the titanium alloy Ti-6Al-4V machining process, Proceedings of the Institution of Mechanical Engineers Part B-Journal of Engineering Manufactrue, 2012, 226(B8): 1287-1297. (SCI, IF: 0.770 /Q3)
[31]Zhang Kaifei, Ren Chengzu*, Yang Lijian, Li Qinfeng, Jin Xinmin, Precision internal grinding of bearing steel based on the state control of oxide layer with electrolytic in-process dressing, Journal of Materials Processing Technology, 2012, 212(7): 1611-1621. (SCI, IF: 1.953 /Q1/三區)
[32]Wang Haiyan, Qin Xuda, Ren Chengzu, Wang Qi, Prediction of cutting forces in helical milling process, International Journal of Advanced Manufacturing Technology, 2012, 58(9-12): 849-859. (SCI, IF: 1.205 /Q3/三區)
[33]Chen Guang, Ren Chengzu*, Yang Xiaoyong, Jin Xinmin, Guo Tao, Finite Element Finite element simulation of high-speed machining of titanium alloy (Ti-6Al-4V) based on ductile failure model, International Journal of Advanced Manufacturing Technology, 2011, 56(9-12): 1027-1028. (SCI, IF: 1.103 /Q3)
[34]Chen G., Ren C.*, Yang X., Guo T., Evidence of thermoplastic instability about segmented chip formation process for a Ti-6Al-4V alloy based on the finite-element method, Proceedings of the Institution of Mechanical Engineers, Part C-Journal of Mechanical Engineering Science, 2011, 225(C6): 1407-1417. (SCI, IF: 0.473 /Q3)
[35]Yang Lijian, Ren Chengzu*, Jin Xinmin, Experimental study of ELID grinding based on the active control of oxide layer, Journal of Materials Processing Technology, 2010, 210(13): 1748-1753. (SCI, IF: 1.570 /Q2/三區)
[36]鄭自澤, 任成祖, 王志強, 劉澤棟, 一種圓弧軌跡進給的套圈溝道ELID磨削及進給機構實現,械科學與技術, 2018, (9): 1396-1400
[37]左明澤, 任成祖, 王志強, ELID溝道成形磨削氧化膜特性及影響作用實驗, 宇航材料工藝, 2017, (4): 42-47
[38]曹德勝, 任成祖, 張立峰, 李遠辰, 李巾錠, 單向C/SiC復合材料熱殘余應力數值模擬研究, 宇航材料工藝, 2017, (2): 18-24
[39]任成祖, 柯志宏, 陳光, 吳靖, Modeling of Tool-Chip Contact Length for Orthogonal Cutting of Ti-6Al-4V Alloy Considering Segmented Chip Formation, Transactions of Tianjin University, 2016, (6): 525-535
[40]李軍, 任成祖, 楊曉勇, 陳光, 賀英倫, 鈦合金(Ti-6Al-4V)銑削參數對表面完整性影響研究, 機械設計, 2016, 33(4): 1-6
[41]李巾錠, 任成祖, 呂哲, 張立峰, 單顆粒金剛石平面磨削C/SiC復合材料的有限元仿真, 材料科學與工程學報, 2014, 32(5): 686-689
[42]Yang Xiaoyong, Ren Chengzu*, Wang Yan, Chen Guang, Experimental study on surface integrity of ti-6al-4v in high speed side milling, Transactions of Tianjin University, 2012, 18(3): 206-212. (EI: 20124115557794)
[43]喻煒, 任成祖, 王程, 混合陶瓷球軸承多目標優化, 機械設計, 2012, 29(3): 56-61
[44]Chen Guang, Ren Chengzu*, Jin Xinmin, Guo Tao, Experimental and finite element study of steady state micro-cutting characteristics of aluminum alloy (2A12), Transactions of Tianjin University, 2011, 17(5): 344-350. (EI: 20120714762916)
[45]楊黎健, 任成祖, 靳新民, ELID磨削砂輪表面氧化膜狀態的表征, 工具技術, 2011, 45(6): 40-43
[46]喻煒, 任成祖, 劉勝超, 王東峰, 預測高速混合球軸承的滑動與自旋摩擦功率, 中國機械工程, 2011, 22(6): 715-719
[47]武震華, 任成祖, 在線電解(ELID)磨削試驗臺的設計及應用, 航空精密制造技術, 2007, 43(3): 9-11, 17
[48]秦展田, 任成祖, 陶瓷球研磨加工在線振動監測系統的研究, 機床與液壓, 2007, 35(2): 184-185
[49]袁立偉, 任成祖, 舒展, ELID超精密磨削鈍化膜狀態變化的研究, 航空精密制造技術, 2006, 42(1): 5-8
[50]Jin Weidong, Ren Chengzu, Hua Jinhai, Wang Taiyong, Electro-Discharge Fine Truing of Metal-Bonded Fine-Grain Diamond Wheel Based on Real-Time Monitoring, Transactions of Tianjin University,2005, (3):176-182. (EI: 05329290372)
[51]華瑾海, 任成祖, 金衛東, 靳新民, 基于LabVIEW 的數據采集系統在金屬結合劑金剛石砂輪電火花整形上的應用, 金剛石與磨料磨具工程, 2004, (5): 44-47. (EI: 04498706881)
[52]張業, 任成祖, 劉遠新, 非線性有限元軟件MSC.Marc及其在軸承分析中的應用, 機械設計, 2004, (10): 51-53
[53]徐強, 任成祖, 陳錦江, 混合陶瓷球軸承接觸曲面及接觸應力的三維有限元分析, 機床與液壓, 2003, (2): 203-206
[54]任成祖, 王春杰, 新型陶瓷球生坯修形加工模型設計, 機械設計, 2002, (4): 19-21
[55]肖學福, 任成祖, 徐燕申, 陶瓷球軸承內部結構參數優化設計及其性能試驗研究, 2001, 機械設計, (6): 17-20
[56]任成祖, 許浩, 氮化硅軸承球表面層殘余應力的形成機理及試驗研究, 硅酸鹽通報, 2000, 19(3): 31-35
[57]孫獻凱, 任成祖, 工程陶瓷的水介質研磨, 現代技術陶瓷, 1998, 19(4): 7-11
[58]C.Z. Ren, Y.S. Xu, B. Lin, H.Q. Guo, Z.M. Peng, The Eccentric Circular Groove Lapping Technique for Ceramic Balls, Chinese Journal of Mechanical Engineering, 1996, (1): 45-48
[59]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. 雙盤直槽圓柱形零件表面研磨盤. ZL201410783965.2
[60]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. 一種圓柱形零件研磨設備及其工件推進裝置和研磨方法. ZL201410784413.3
[61]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. Cylindrical-component grinding device, and workpiece advancing apparatus and grinding method thereof. US201715619498
[62]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. Double-disc straight groove cylindrical-component surface grinding disc. US201715619443
[63]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. ダブルディスク直線溝円筒狀部品表面研磨ディスク. JP2017526063
[64]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. 円筒狀部品研磨設備及びそのワークピース推進裝置、並び研磨方法. JP2017526065
[65]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. ??? ?? ?? ??? ??? ??? ?? ?? ?? ???. KR20177014857
[66]任成祖, 鄧曉帆, 賀英倫, 陳光, 靳新民. ??? ?? ??? ?? ?? ?? ? ? ??? ?? ??? ?? ??. KR20177014859
[67]任成祖, 馮強, 外圓珩磨磨削力在線測量裝置和方法, ZL201110020992.0
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