Study on the Motion Response of Buoy in Sea Condition

Yan Gang Wang; Xing Hua Tong; Lin Sen Zhu; Yong Liu

doi:10.4028/www.scientific.net/AMR.712-715.1335

Paper Titles

Impact Factors Analysis of Buildup Well Test in Low Permeability Reservoir
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Effect of the Ignition Time on the Turbocharged Lean-Burned CNG Engine
p.1320

Optimization of the Anode Current Collector Layer Thickness for the Cathode-Supported Solid Oxide Fuel Cell
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Numerical Simulation on Cylinder Flow Field of Diesel
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Study on the Motion Response of Buoy in Sea Condition
p.1335

Experimental Research on Belt Type of Precision Seed-Metering Device
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Research on Parameters Indentification of Synthesis Load Model Considering Distribution Network Connection
p.1343

The Study Based on LABVIEW of the Positioning Accuracy of Spinneret Microporous Fine Machine
p.1347

Study of Eddy Electromagnetic Fields Induced by Propeller Rotating in the Earth's Magnetic Field
p.1351

HomeAdvanced Materials ResearchAdvanced Materials Research Vols. 712-715Study on the Motion Response of Buoy in Sea...

Study on the Motion Response of Buoy in Sea Condition

Abstract:

In the research of buoy wave power devices, earlier studies have indicated that the vertical cylindrical can absorb the most power from wave by comparing the loading conditions of several buoys (e.g.cuboid, vertical cylindrical, horizontal cylindrical, sphere, and so on) using the Froude-Krylov theory. However, it is not argued the motion response of buoys with the same basal area and the different basal shapes. In this paper, buoys with the same basal area and the different basal shapes are investigated by the mean of simulation. There are two modes for the floating system, one is with mooring line and the other is without. In both cases, the motions in horizontal (x axis) and vertical (z axis) direction will be studied.