300M钢超声滚压表面形貌演变机理和试验表征

doi:10.3901/JME.2024.15.358

机械工程学报 ›› 2024, Vol. 60 ›› Issue (15): 358-367.doi: 10.3901/JME.2024.15.358

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300M钢超声滚压表面形貌演变机理和试验表征

党嘉强¹, 安庆龙¹, 李宇罡², 明伟伟¹, 王浩伟², 陈明¹

1. 上海交通大学机械系统与振动国家重点实验室上海 200240;
2. 上海交通大学金属基复合材料国家重点实验室上海 200240

收稿日期:2023-08-23 修回日期:2024-01-18 出版日期:2024-08-05 发布日期:2024-09-24
作者简介:党嘉强，男，1996年出生，博士，助理研究员。主要研究方向为表面完整性创成机理和齿轮抗疲劳制造。E-mail：jqdang@sjtu.edu.cn
陈明(通信作者)，男，1966年出生，博士，教授，博士研究生导师。主要研究方向为先进制造工艺与装备、超精密加工与测量与高性能制造。E-mail：mchen@sjtu.edu.cn
基金资助:
国家自然科学基金(U1937208)资助项目。

Mechanism and Experimental Characterization of Surface Morphology Evolution of 300M Steel during Ultrasonic Rolling Process

DANG Jiaqiang¹, AN Qinglong¹, LI Yugang², MING Weiwei¹, WANG Haowei², CHEN Ming¹

1. State Key Laboratory of Mechanical System and Vibration, Shanghai Jiao Tong University, Shanghai 200240;
2. State Key Laboratory of Metal Matrix Composites, Shanghai Jiao Tong University, Shanghai 200240

Received:2023-08-23 Revised:2024-01-18 Online:2024-08-05 Published:2024-09-24

摘要/Abstract

摘要： 基于超声滚压过程中的接触力学理论，提出了单位面积冲击接触率评价指标，求解了不同工艺参数下接触中心位移和接触区域面积。研究了超声滚压过程中表面形貌光整加工机理，提出了表面层材料主动塑性变形区、被动塑性变形区和被动弹性变形区的特征结构。通过正交试验探讨超声滚压参数对表面粗糙度的作用规律，为通过优化超声滚压参数从而实现表面形貌主动控制提供理论依据。结果表明，在选取的超声滚压工艺参数下，滚压球与工件接触中心的位移值总是大于超声振幅值，这表明超声滚压过程中滚压头始终与工件表面保持接触。超声滚压具有“削峰填谷”效应，表面主动塑性变形区材料流动是引起表面光洁度提升的根本原因。滚压球进给速度对表面粗糙度的影响最大，静载荷次之，转速最小。在超声滚压过程中如果想要实现较好的表面光洁度同时提高加工效率，可选取较高的转速、较大的静载荷和较小的滚压球进给。

关键词: 300M钢, 超声滚压, 表面形貌, 粗糙度, 塑性流动

Abstract: Based on the contact mechanics theory in ultrasonic rolling process, the evaluation index of impact contact rate per unit area is proposed, and the displacement and area of ball-workpiece contact under different process parameters are solved. The mechanism of surface finishing in ultrasonic rolling process is studied, and the featured structures of active plastic deformation zone, passive plastic deformation zone and passive elastic deformation zone of surface layer materials are proposed. The effect of ultrasonic rolling parameters on surface roughness is discussed through orthogonal test, which provides a theoretical basis for the active control of surface topography by optimizing ultrasonic rolling parameters. The results show that the displacement value of the contact point between the rolling ball and the workpiece is always higher than the ultrasonic amplitude value under the ultrasonic rolling process parameters selected, which indicates that the rolling head always keeps in contact with the workpiece surface during the ultrasonic rolling process. Ultrasonic rolling has the effect of “peak shaving and filling valley”, and the material flow in the active plastic deformation area of the surface is the fundamental reason for the improvement of surface finish. The feed speed of the rolling ball has the greatest influence on the surface roughness, followed by the static load and the minimum speed. If a better surface finish and higher machining efficiency are desired during the ultrasonic rolling process, higher speed, larger static load and smaller ball feed can be selected.

Key words: 300M steel, ultrasonic rolling, surface morphology, roughness, plastic flow

中图分类号:

TG306

党嘉强, 安庆龙, 李宇罡, 明伟伟, 王浩伟, 陈明. 300M钢超声滚压表面形貌演变机理和试验表征[J]. 机械工程学报, 2024, 60(15): 358-367.

DANG Jiaqiang, AN Qinglong, LI Yugang, MING Weiwei, WANG Haowei, CHEN Ming. Mechanism and Experimental Characterization of Surface Morphology Evolution of 300M Steel during Ultrasonic Rolling Process[J]. Journal of Mechanical Engineering, 2024, 60(15): 358-367.

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http://www.cjmenet.com.cn/CN/Y2024/V60/I15/358

参考文献

[1] CHEN R，ZHENG Z，LI N，et al.In-situ investigation of phase transformation behaviors of 300M steel in continuous cooling process[J].Materials Characterization，2018，144:400-410.
[2] 别文博，赵波，王晓博，等.超声加工在齿轮抗疲劳制造中的研究综述与展望[J].表面技术，2018，47(7):35-51.BIE Wenbo，ZHAO Bo，WANG Xiaobo，et al.Overview and expectation on gear anti-fatigue manufacture by ultrasonic-assisted machining[J].Surface Technology，2018，47(7):35-51.
[3] 赵振业.高强度合金抗疲劳应用技术研究与发展[J].中国工程科学，2005，7(3):90-94.ZHAO Zhenye.Investigation and development status of the application technology to improve fatigue behavior of high strength alloys[J].Strategic Study of CAE，2005，7(3):90-94.
[4] CHIERAGATTI M.Modelling the influence of machined surface roughness on the fatigue life of aluminium alloy[J].International Journal of Fatigue，2008，30(12):2119-2126.
[5] SHAHZAD M，CHAUSSUMIER M，CHIERAGATTI R，et al.Influence of surface treatments on fatigue life of Al 7010 alloy[J].Journal of Materials Processing Technology，2010，210(13):1821-1826.
[6] 孟波，郭万林.表面微观形貌对疲劳强度影响的定量分析[J].机械工程材料，2006，30(5):1-4.MENG Bo，GUO Wanlin.Quantitative analysis of the effect of surface topography on fatigue strength[J].Materials for Mechanical Engineering，2006，30(5):1-4.
[7] 赵振业.高强度合金应用与抗疲劳制造技术[J].航空制造技术，2007(10):30-33.ZHAO Zhenye.High strength alloy application and anti-fatigue manufacturing technology[J].Aeronautical Manufacturing Technology，2007(10):30-33.
[8] 赵振业.发展热处理和表面改性技术,提升国家核心竞争力[J].金属热处理，2013，38(1):8-10.ZHAO Zhenye.Developing heat treatment and surface modification technology in China，promoting national core competitiveness[J].Heat Treatment of Materials，2013，38(1):8-10.
[9] 高玉魁，赵振业.齿轮的表面完整性与抗疲劳制造技术的发展趋势[J].金属热处理，2014，39(4):1-6.GAO Yukui，ZHAO Zhenye.Development trend of surface integrity and anti-fatigue manufacture of gears[J].Heat Treatment of Materials，2014，39(4):1-6.
[10] 朱有利，王燕礼，边飞龙，等.金属材料超声表面强化技术的研究与应用进展[J].机械工程学报，2014，50(20):35-45.ZHU Youli，WANG Yanli，BIAN Feilong，et al.Progresses on research and application of metal ultrasonic surface enhancement technologies[J].Journal of Mechanical Engineering，2014，50(20):35-45.
[11] WANG D，DANG J，LI Y，et al.Study on the surface integrity distribution of 300M ultrahigh strength steel subjected to different surface modification treatments[J].Surface and Coatings Technology，2022，451:129033.
[12] 焦锋，兰帅领，王毅，等.超声滚压12Cr2Ni4A齿轮钢残余压应力特性研究及参数优化[J].表面技术，2020，49(11):334-341.JIAO Feng，LAN Shuailing，WANG Yi，et al.Residual stress characteristics and parameters optimization of ultrasonic rolling 12Cr2Ni4A gear steel[J].Surface Technology，2020，49(11):334-341.
[13] DANG J，AN Q，LIAN G，et al.Surface modification and its effect on the tensile and fatigue properties of 300M steel subjected to ultrasonic surface rolling process[J].Surface and Coatings Technology，2021，422:127566.
[14] DANG J，ZHANG H，AN Q，et al.Surface integrity and wear behavior of 300M steel subjected to ultrasonic surface rolling process[J].Surface and Coatings Technology，2021，421:127380.
[15] MALEKI E，UNAL O，GUAGLIANO M，et al.The effects of shot peening，laser shock peening and ultrasonic nanocrystal surface modification on the fatigue strength of Inconel 718[J].Materials Science and Engineering:A，2021，810:141029.
[16] BERTINI L，SANTUS C.Fretting fatigue tests on shrink-fit specimens and investigations into the strength enhancement induced by deep rolling[J].International Journal of Fatigue，2015，81:179-190.
[17] DEKHTYAR A I，MORDYUK B N，SAVVAKIN D G，et al.Enhanced fatigue behavior of powder metallurgy Ti–6Al–4V alloy by applying ultrasonic impact treatment[J].Materials Science and Engineering:A，2015，641:348-359.
[18] PORTELLA Q，CHEMKHI M，RETRAINT D.Influence of surface mechanical attrition treatment (SMAT) post-treatment on microstructural，mechanical and tensile behaviour of additive manufactured AISI 316L[J].Materials Characterization，2020，167:110463.
[19] 朱有利，李礼，王侃，等.一种超声深滚与滚光一体化抗疲劳制造技术[J].机械工程学报，2009，45(9):183-186.ZHU Youli，LI Li，WANG Kan，et al.An integrated ultrasonic deep rolling and burnishing technology for anti-fatigue manufacturing[J].Journal of Mechanical Engineering，2009，45(9):183-186.
[20] JIAO F，LAN S，ZHAO B，et al.Theoretical calculation and experiment of the surface residual stress in the plane ultrasonic rolling[J].Journal of Manufacturing Processes，2020，50:573-580.
[21] LI Y，LIAN G，GENG J，et al.Effects of ultrasonic rolling on the surface integrity of in-situ TiB2/2024Al composite[J].Journal of Materials Processing Technology，2021，293:117068.
[22] 黄炎.局部应力及其应用[M].北京:机械工业出版社，1986.HUANG Yan.Local stress and its application[M].Beijing:China Machine Press，1986.
[23] 钟丽琼.表面形变强化残余应力场对Inconel718高温合金高周疲劳性能的影响规律研究[D].贵阳:贵州大学，2019.ZHONG Liqiong.Study on the effect of surface strengthened residual stress field on high cycle fatigue properties of Inconel718 superalloy[D].Guiyang:Guizhou University，2019.
[24] FU Z，GAO G，WANG Y，et al.Investigation of acoustic softening and microstructure evolution characteristics of Ti3Al intermetallics undergoing ultrasonic vibration-assisted tension[J].Materials & Design，2022，222:111015.

300M钢超声滚压表面形貌演变机理和试验表征

Mechanism and Experimental Characterization of Surface Morphology Evolution of 300M Steel during Ultrasonic Rolling Process

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