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Concept design of a fast sail assisted feeder container ship

机译:一艘快速的风帆的概念设计协助了饲养者容器船

摘要

An environmentally sustainable fast sail-assisted feeder-container ship concept, with a maximum speed of 25 knots, has been developed for the 2020 South East Asian and Caribbean container markets. The use of low-carbon and zero-sulphur fuel (liquefied natural gas) and improvements in operational efficiency (cargo handling and scheduling) mean predicted Green house gas emissions should fall by 42% and 40% in the two selected operational regions. The adoption of a Multi-wing sail system reduces power requirement by up to 6% at the lower ship speed of 15 knots. The predicted daily cost savings are respectively 27% and 33% in South East Asian and the Caribbean regions.Two hull forms with a cargo capacity of 1270TEU utilising different propulsion combinations were initially developed to meet operational requirements. Analysis & tank testing of different hydrodynamic phenomena has enabled identification of efficiency gains for each design. The final propulsion chosen is a contra-rotating podded drive arrangement. Wind tunnel testing improved Multi-wing sail performance by investigating wing spacing, wing stagger and sail-container interactions. The associated lift coefficient was increased by 32%. Whilst savings in sail-assisted power requirement are lower than initially predicted an unexpected identified benefit was motion damping.The fast feeder-container ship is a proposed as a viable future method of container transhipment.
机译:已为2020年东南亚和加勒比海集装箱市场开发了一种环境可持续的快速风帆辅助支线集装箱船概念,最高航速为25节。使用低碳和零硫燃料(液化天然气)以及提高运营效率(货物装卸和调度)意味着,在两个选定的运营区域中,预计温室气体排放量将分别下降42%和40%。在低速15节的航行速度下,采用多翼帆系统可使动力需求降低多达6%。东南亚和加勒比海地区预计每天节省的成本分别为27%和33%。最初开发了两种船体形式,使用不同的推进组合,载重量为1270TEU,以满足运营要求。通过对不同流体动力学现象的分析和储罐测试,可以确定每种设计的效率增益。选择的最终推进是反向旋转的荚式驱动装置。风洞测试通过研究机翼间距,机翼交错以及帆-容器之间的相互作用,改善了多翼帆的性能。相关的升力系数增加了32%。尽管帆辅助动力需求的节省低于最初的预期,但出乎意料的好处是运动阻尼。快速进料集装箱船被提议作为未来可行的集装箱转运方法。

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