Publications

International Papers Optimizing the mean and variance of bead geometry in the wire + arc additive manufacturing using a desirability function method

페이지 정보

profile_image
작성자 관리자
조회 672회 작성일 24-02-01 23:48

본문

Journal International Journal of Advanced Manufacturing Technology, 120, 7771-7783
Name Cho, J., Lee, D., Seo G., Kim, D., Shin, S.
Year 2022

Wire + arc additive manufacturing is an arc welding process that uses non-consumable tungsten electrodes to produce the weld. The material used in this study is a titanium, carbon, zirconium, and molybdenum alloy that is physically and chemically stable and has good performance for use as a welding and high-temperature heating element. In this study, welding experiments are designed based on a central composite design, and single-layer wire + arc additive manufacturing is performed using the titanium, carbon, zirconium, and molybdenum alloy. Consequently, 17 beads are obtained and the height, width, left and right toe angles, which represent the geometry of the beads are measured. Based on the measured geometry, response surface models for mean and standard deviation of the four geometries are fitted. Mean absolute percentage error of the four response surface models is 16.6% on average which implies that the models are reasonably well fitted. Based on the response surface models, the optimal settings for the Wire + arc additive manufacturing parameters are obtained by using a desirability function method. At the optimal setting, the desirability function value shows 0.85 on average which is close to ideal value of 1.00. This result indicates that valid optimal settings for the process parameters can be obtained via the proposed method. 

Total 79건 3 페이지
Papers 목록
No. 제목
49
48
47
International Papers

Journal of Food Measurement and Characterization,16, 2999–3009

2022

Link
24.02.01 752
열람중
45
44
43
42
41
40
39
38
37
International Papers

Quality and Reliability Engineering International, 36(6), 1982-2002

2020

Link
24.02.01 574
36
International Papers

Quality and Reliability Engineering International, 36(6), 1931-1978

2020

Link
24.02.01 514
35

검색