@article{oai:nagoya.repo.nii.ac.jp:02002210,
 author = {Jung, Hongjin and Hayasaka, Takehiro and Shamoto, Eiji and Ishii, Hiroaki and Ueyama, Takashi and Hamada, Seiji},
 journal = {Precision Engineering},
 month = {Nov},
 note = {This paper proposes a new vibration cutting method named “multimode vibration cutting” for precision surface texturing. The proposed cutting method utilizes multiple unidirectional vibration modes mainly in the depth-of-cut direction. The vibrations at multiple frequencies induced to the tool tip can generate not only sinusoidal but also highly-flexible trajectories such as trapezoidal, triangular, and distorted triangular waves. Notably, only a sinusoidal vibration can be induced when a single resonant vibration is applied to the tool tip. Compared to conventional highly-flexible cutting methods for surface texturing, such as the utilization of fast tool servo and amplitude control of ultrasonic elliptical vibration cutting, the proposed method is highly-efficient because of its direct usage of high resonant frequencies. Compared to conventional highly-efficient cutting methods for surface texturing, such as linear and elliptical vibration cutting which mainly utilizes the vibration component in the depth-of-cut direction, the proposed method can generate highly-flexible trajectories for various micro texture profiles. In this study, an ultrasonic multimode vibration device is developed, and the mechanics of generating multimode vibrations are demonstrated. Turning experiments with several texture profiles are performed to confirm the validity of the proposed method for highly-efficient and highly-flexible micro/nano surface texturing.},
 pages = {111--121},
 title = {“Multimode vibration cutting” – A new vibration cutting for highly-efficient and highly-flexible surface texturing},
 volume = {72},
 year = {2021}
}