Design of the Main Parameter of Large and Heavy Workpieces Upender for Shell Units of Nuclear Power and Hydrogenation Equipment

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In the production process for large and heavy workpieces of Nuclear Islande equipment and Hydrogenation reactor, Turn is the important technics of the convergence of every technological process, and a direct impact on production efficiency and production safety and production quality. The researching and manufacturing of overloaded upender for large and heavy workpieces will effectively contribute to the improvement of the production capacity. The force model under maximum load conditions is established. The force of upender body in the eversion process is analyzed. The main drive torque formula for upender turnover is obtained. From the actual functioning of the overloaded upender for large and heavy workpieces, carring a maximum load, the upender flip process is dynamic simulation on ADAMS. After the results were compared with theoretical calculations showed that: the variation between the two is consistent. The main parameter for driving of upender is designed. By theoretical calculations confirming simulation with each other, in simulation model, the feasibility of using the contact vice for defining non-hinged rotation vice is verified. And a new solution is provided for adding non-hinged rotation vice constraints to a similar shstem dynamics model. In this paper work it has an engineering value for the design of large and heavy equipment.

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143-148

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August 2013

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© 2013 Trans Tech Publications Ltd. All Rights Reserved

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[1] Lin Feng, Yan Yongnian, Wu Rendong, et al. Key technologies of Modean Heavy Die Forging Press. Chinese Journal of Mechanical Engineering. Vol. 9-14(2006), p.42.

Google Scholar

[2] LIU Yanyan, YANG Jin, CHEN Chao, et al. Research of the Chucking Power of the Heavy-loaded Forging M anipulator. Chinese Journal of Mechanical Engineering. Vol. 66-71 (2012), p.48.

DOI: 10.3901/jme.2012.04.066

Google Scholar

[3] Shen Yuan, Jin Yi, Chu Biao, et al. A Multi-objective Optimization Method for Forging Machine Based on Genetic Algorithm. China Mechanical Engineering. Vol. 291-294(2012), p.23.

Google Scholar

[4] Su Jian-bo, Jiang Zong-ying, Li xiao-bin. Casting Technique and Equipment Selection in Heavy-duty Cast Iron W orkshop. Foundry Technology. Vol. 837-838(2012), p.33.

Google Scholar

[5] Gao Feng, Guo Weizhong, Song Qingyu, et al. Current Development of Heavy-duty Manufacturing Equipments. Chinese Journal of Mechanical Engineering. Vol. 92-100(2010), p.46.

DOI: 10.3901/jme.2010.19.092

Google Scholar

[6] Li Chang, Han Xing, Sun Zhili. Exact Dynamic Simulation of Gear Mesh Based on Pro/E and ADAMS. Machinery & Electronics. Vol. 55-58(2008), p.1.

Google Scholar

[7] Gao Qing-ran, Sun Hai-yan, Li Hai-dong, Zhou Xiaoliang. Research on machine tool design and simulation based on virtual prototype. Journal of Machine Design. Vol. 16-18(2009), p.26.

Google Scholar

[8] Fu Weiping, Fan Ligang, Bai Shengrui. Automated Warehouse Tunnel Stacker Dynamics Modeling and Simulation Based on ADAMS. Journal of Vibration and Shock. Vol. 151-153(2007) , p.26.

Google Scholar

[9] ZHU Li-da, SHI Jia-shun, CAI Guang-qi, WANG Wan-shan. Kinematic/Dynamic Simulation Based on ADAMS for 3-TPS Hybrid Machine Tool. Journal of Northeastern University. Vol. 1473-1476(2007), p.28.

Google Scholar