Design of a Four-Station Translational and Rotary Worktable for Special Occasions

Xi Yan Li; Yong Bao Xin; Li Dong Si; Wen Feng Li; Pei Xun Jin

doi:10.4028/www.scientific.net/AMR.940.213

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HomeAdvanced Materials ResearchAdvanced Materials Research Vol. 940Design of a Four-Station Translational and Rotary...

Design of a Four-Station Translational and Rotary Worktable for Special Occasions

Abstract:

A newly developed four-station translational and rotary worktable can be applied for complex human-machine hybrid operations and dangerous heat treatment operations. And the design can guarantee closed operations without involvement of human when the worktable rotates to the concentrated area, while the installation or other manual processing when the worktable rotates to the separate area. In addition, by designing innovative rotating and track-changing mechanism and the direction-holding mechanism, the work piece remains the constant direction in the rotation process. Furthermore, the interference problem of the Geneva mechanism of the track-changing fork is analyzed. Consequently, the smaller the angle of fork notch is, the smaller the force that fork reacts on the support shaft is, meanwhile, the strength can be satisfied more easily. The optimal angle of Y-fork is 90 degree. The application of the four-station translational and rotary worktable can achieve multi-step continuous process, save workspace and improve production efficiency.

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Machinery, Materials Science and Engineering Applications 2014

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Periodical:

Advanced Materials Research (Volume 940)

Pages:

213-216

DOI:

https://doi.org/10.4028/www.scientific.net/AMR.940.213

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Online since:

June 2014

Authors:

Xi Yan Li*, Yong Bao Xin, Li Dong Si, Wen Feng Li, Pei Xun Jin

Keywords:

Direction-Holding Mechanism, Geometric Analysis of Track-Changing Interference, Optimal Angle, Rotating, Track-Changing Mechanism

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* - Corresponding Author

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