Multi-objective optimization of machining parameters for hard whirlwind milling of screw

被引:0
|
作者
He Y. [1 ]
Yu P. [1 ]
Wang L. [1 ]
Li Y. [1 ]
Wang Y. [2 ]
机构
[1] State Key Laboratory of Mechanical Transmission, Chongqing University, Chongqing
[2] School of Mechanical Engineering, Nanjing University of Science and Technology, Nanjing
基金
中国国家自然科学基金;
关键词
Hard whirlwind milling; Machining energy; Machining performance; Multi-objective optimization problem;
D O I
10.13196/j.cims.2018.04.009
中图分类号
学科分类号
摘要
To research the coordination optimization between machining energy and machining performance for hard whirlwind milling of screw, the multi-objective optimization method considering specific energy consumption, surface roughness and surface residual stress was proposed. According to the Box-Behnken experiments, specific energy consumption, surface roughness and surface residual stress were modeled with Response Surface Methodology (RSM) respectively. Based on the above models, the multi-objective optimization model was established by taking machining parameters of whirlwind milling as input variables, and specific energy consumption, surface roughness and surface residual stress as optimization objectives. The Non-dominated Sorting Genetic Algorithm Ⅱ (NSGA-Ⅱ) was used to solve the multi-objective optimization model, and the effectiveness of optimization method was demonstrated by comparing the experimental data with optimization results. © 2018, Editorial Department of CIMS. All right reserved.
引用
收藏
页码:894 / 904
页数:10
相关论文
共 33 条
  • [1] Lu Y., Green and intelligent manufacturing-the road of Chinese manufacturing development, China Mechanical Engineering, 4, pp. 31-32, (2010)
  • [2] He Y., Chen P., Yan P., Et al., Energy-saving operation method of machine tool oriented to work piece random arrival, Computer Integrated Manufacturing Systems, 22, 4, pp. 1029-1036, (2016)
  • [3] Munoz A.A., Sheng P., An analytical approach for determining the environmental impact of machining processes, Journal of Materials Processing Technology, 53, 3-4, pp. 736-758, (1995)
  • [4] Velchev S., Kolev I., Ivanov K., Et al., Empirical models for specific energy consumption and optimization of cutting parameters for minimizing energy consumption during turning, Journal of Cleaner Production, 80, pp. 139-149, (2014)
  • [5] Li L., Yan J., Xing Z., Energy requirements evaluation of milling machines based on thermal equilibrium and empirical modelling, Journal of Cleaner Production, 52, 4, pp. 113-121, (2013)
  • [6] Yoon H.S., Lee J.Y., Kim M.S., Et al., Empirical power-consumption model for material removal in three-axis milling, Journal of Cleaner Production, 78, 78, pp. 54-62, (2014)
  • [7] Buj-Corral I., Vivancos-Calvet J., Dominguez-Fernandez A., Surface topography in ball-end milling processes as a function of feed per tooth and radial depth of cut, International Journal of Machine Tools & Manufacture, 53, 1, pp. 151-159, (2011)
  • [8] Lu Z., Wang M., Predictive modeling of surface roughness and cutting parameters optimization in ultra-precision turning based on genetic algorithm, Chinese Journal of Mechanical Engineering, 41, 11, pp. 158-162, (2005)
  • [9] El-Sonbaty I.A., Khashaba U.A., Selmy A.I., Et al., Prediction of surface roughness profiles for milled surfaces using an artificial neural network and fractal geometry approach, Journal of Materials Processing Technology, 200, 1, pp. 271-278, (2008)
  • [10] El-Khabeery M.M., Fattouh M., Residual stress distribution caused by milling, International Journal of Machine Tools & Manufacture, 29, 3, pp. 391-401, (1989)