Application of Visualized Design Method on the Designing of Articulatory Vibrating Screen

Abstract:

Articulatory vibrating screen is composed of multi-section screen with articulatory vibrating. The principle of even-thickness screening is referenced on its layout, with linear vibrating screen as the discharge end, with round vibrating screens as the feeding end, and also the intermediate screen. In accordance with the structural features of articulatory vibrating screen and under the condition of assembly module in Pro/E, mechanical components of articulatory vibrating screen are assembled in the light of the arrangement, the sequence, the restrictions and the modifications of installation. With the visualized research on the operational process, the three-dimensional illustrations of assembly model are established to ensure the correct design on every mechanical component of articulatory vibrating screen. The finite element model of vibrating screen is set up by its analysis software to carry out the analysis of finite element calculation and modal according to two operating modes of the regular work and the machine halt beyond resonance region. The analysis result indicates that the intensity and the rigidity of the vibrating screen are safe; the machine operation is stable; and no resonance phenomenon would happen. This study provides the theoretical reference for the design of similar machinery. It is of practical importance and economic value to apply the visualized design method into the design of articulatory vibrating screen.

• Periodical: Applied Mechanics and Materials (Volumes 121-126)
• Pages: 4396-4404
• DOI: https://doi.org/10.4028/www.scientific.net/AMM.121-126.4396
• Online since: October 2011
• Authors: Jing Jiang, Guang Chao Liu, Chao Feng Li, Lei Wang, Shu Ying Liu, Bang Chun Wen
• Keywords: Articulatory Vibrating Screen, Finite Element Model (FEM), Modal Analysis, Visualized Design

References

[1] B. C . Wen, G. Z. Zhang and H. Y. Liu: Synthesizing Design Theory and Method Aimed to Generalization Quality of Product (Science Press, China 2006).

[2] B. C . Wen: Chinese Journal of Mechanical Engineering Vol. 39(10) (2003), pp.43-52.

[3] G. Q. Wang: The Paractice of Virtual Prototyping Technology under ADAMS (Northwestern Polytechnical University Press, China 2002).

[4] B. C. Wen, W. Sun and H. Li: Product Manufacturing Performance and Visual Optimization Design (China Machine Press, China 2009).

[5] B. C. Wen, Y. M. Zhang, Q. K. Han, Z. H. Ren and S.Y. Su, in: High-level Design Method of 1+3+X for General Quality of Modern Mechanical Product. Proceedings of International Conference on Mechanical Engineering and Mechanics, edtied by Science Press and Science Press USA Inc, Nanjing (2005).

[6] B. C. Wen, X. P. Li, W. Sun and Z. H. Ren: 7D overall planning of product design and synthesized design method of 1+3+X based on systems engineering, edtied by Proceedings of the International Conference on Design and Modeling of Mechanical Systems, Tunisia(2007).

[7] B. C. Wen, Q. K. Han and H. L. Yao: Product Structural Performance and Dynamic Optimization Design (China Machine Press, China 2008).

[8] C. F. Li, J. Liu, S. Q. Ji and B. C. Wen: Machinery & Electronics Vol. 12 (2006), pp.12-15.

[9] Q. K. Han, Z. H. Jin and H. R Zhan: Finite element method and its applications (Jilin Science and Technology Press, China 2002).

[10] S. Wei, Z. H. Ren, Y. Tao and B. C. Wen: Journal of Northeastern University (Natural Science) Vol. (2007), pp.385-388.

[11] S. Wei, H. Ma and C. F. Li: Study on parametric modeling based on visual optimization design of mechanical product, edtied by 2009 Second International conference on Intelligent Computation Technology and Automation(IEEE), China (2009).

DOI: 10.1109/icicta.2009.304

[12] R. D. Yang, X. M. Fan and D. L. Wu: Robotics and Computer-Integrated Manufacturing Vol. 23 (2007), pp.447-456.

[13] H. Y. K. Lau, K. L. Mak and M. T. H. Lu: Journal of Materials Processing Technology Vol. 139 (2003), pp.402-407.