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Development of a Remotely Controlled Testing Platform with Low-drag Air-ventilated Hull 被引量:3

Development of a Remotely Controlled Testing Platform with Low-drag Air-ventilated Hull
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摘要 This paper addresses the development and testing of a remotely controlled boat platform with an innovative air-ventilated hull. The application of air cavities on the underside of ship hulls is a promising means for reducing hydrodynamic drag and pollutant emissions and increasing marine transportation efficiency. Despite this concept's potential, design optimization and high-performance operation of novel air-cavity ships remain a challenging problem. Hull construction and sensor instrumentation of the model-scale air-cavity boat is described in the paper. The modular structure of the hull allows for easy modifications, and an electric propulsion unit enables self-propelled operation. The boat is controlled remotely via a radio transmission system. Results of initial tests are reported, including thrust, speed, and airflow rate in several loading conditions. The constructed platform can be used for optimizing air-cavity systems and testing other innovative hull designs. This system can be also developed into a high-performance unmanned boat.
出处 《Journal of Marine Science and Application》 CSCD 2015年第1期25-29,共5页 船舶与海洋工程学报(英文版)
基金 Foundation item: Supported by the National Science Foundation (CMMI-1026264 and EEC-1157094).
关键词 air-cavity ship air-ventilated hull remotely controlled testing platform drag reduction hull construction unmanned surface vehicle 测试平台 远程控制 低阻力 通风 空气 开发 船体结构 传输系统
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