Controllable of Underwater Towing Tension Passive Compensation Device Design Research

Abstract:

In order to solve the process of fishing, hull has significant heave motion under the influence of marine environment, that caused towing tension instability and fishing low efficiency problems, proposed and developed based on the hydraulic cylinder and the accumulator between the energy conversion and PLC control of towing tension range controllable passive compensation device. According to its working principle, the passive compensation device of compensation system and control system was designed, using the hull heave motion as the control energy, hydraulic cylinder and accumulator combination as a compensation system, selects PLC224CPU and M235 expansion module as the control unit. Finally, the towing tension range change of compensation has carried on the simulation analysis, the simulation results show that the passive compensation device which can realize the adjustment and control of drag tension range, achieves the expected control effect.

• Periodical: Applied Mechanics and Materials (Volume 721)
• Pages: 104-108
• DOI: https://doi.org/10.4028/www.scientific.net/AMM.721.104
• Online since: December 2014
• Authors: Jing Meng, Zhi Xin Chen, Tao Jiang, Zhi Qiang Xu
• Keywords: Accumulator, Passive Compensation, Simulation Analysis, Tension Control

References

[1] S.L. Liu: Fishery Modernization, Discussion on Chinese Ocean Fisheries Development and Fishing Equipment, Vol. 37 (2012) No. 6, pp.56-60.

[2] X.J. Wang, Y.Y. Zhang: Marine Engineering, (The Composite Cylinder Wave Compensation Device, Vol. 3 (2013) No. 8, pp.86-89.

[3] W.L. Chu, L. Chang: Fisheries Research, Simplified Trawl System Modeling and Design of Depth Control System Using Fuzzy Logic, Vol. 5 (2010) No. 3, pp.84-94.

DOI: 10.1016/s0165-7836(00)00264-2

[4] H.V. Hausa: Research Vessel Design, Hydraulic Deck Equipment for Research Vesse, Vol. 9 (2006) No. 2, pp.23-25.

[5] L. Bai, Y.T. Zhang and Z.L. Zhang: Oil Field Machinery, The Drill String Hydraulic Heaves Compensation System Parameter Calculation and Comparative Analysis, Vol. 38 (2009) No. 3, pp.10-13.

[6] X.Y. Tang, S.J. Liu: Journal of Central South University, Deep Sea Mining Heave Compensation System Modeling and Fuzzy Control Simulation, Vol. 39 (2008) No. 1, pp.128-131.

[7] J. Ni, S.J. Liu and X.F. Li: Computer Simulation: Deep Sea Mining Modeling and Simulation Research on Passive Heave Compensation System, Vol. 26 (2010) No. 3, pp.13-17.

[8] H.B. Wang, Q.F. Wang: Ocean Engineering, Heave Compensation System Research on Hydrodynamic Mathematical Model of Underwater Towed, Vol. 26 (2012) No. 4, pp.37-39.

[9] G.D. Liu: Macroeconomic Management, Support and Expand China's Offshore Fishing Industry, Vol. 16 (2011) No. 1, pp.42-44.

[10] L.J. Ding, X.T. Bao and J.H. Zhang: Fishery Modernization, European Fisheries Energy Saving Technology and Measures, Vol. 37 (2010) No. 5, pp.60-63.

[11] H. Xu, X.Y. Zhao and H. Liu: Fishery Modernization, Study on the Development Strategy of China's Marine Fishing, Vol. 8 (2012) No. 1, pp.21-24.

[12] W. L, Yang, L.Y. Zhang: Ocean Engineering, Underwater Robot Active Heave Compensation System Research, Vol. 26 (2007) No. 8, pp.68-72.

[13] W. Zhang: The MCGS Configuration Software Reference Manual, (Beijing Aviation Institute Publications, Chinese 2012), pp.224-258.

[14] Li Ying: Simulink Modeling and Simulation of Dynamic Systems, (Xi'an Electronic Technology University Publications, Chinese 2009), pp.121-168.