一种数字位移静压风力发电机传动系统

IF 0.7 Q4 ENGINEERING, MECHANICAL
W. Rampen, D. Dumnov, Jamie Taylor, Henry Dodson, J. Hutcheson, N. Caldwell
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引用次数: 7

摘要

1984年,斯蒂芬·索尔特(Stephen Salter)提出了一种具有“二次控制”的静压风力涡轮机传动装置,使用了当时唯一的概念数字位移®(DD)原理,用于控制初级转子驱动环凸轮泵的流量。这种传输“可以在真正的同步发电的情况下,实现正确的叶尖速度与风速的比例”。在接下来的几年里,DD机器逐渐发展起来。一开始,它们的容量相对较小,但功率额定值被系统地增加,直到大功率静压风力涡轮机传动似乎确实可行。2006年,由索尔特原来的大学团队组建的阿尔忒弥斯智能动力公司(Artemis Intelligent Power)开始研究一种基于新型泵和电机设计的兆瓦级静压风力涡轮机传动系统。2011年,Artemis完成了一个1.5兆瓦的传输和测功机试验台。这是有史以来最大的液压传动系统之一,轴对轴的效率高达93%,是最高效的传动系统之一。利用二次控制快速响应阵风和瞬时电网故障,也是最可控的。本文讨论了传动装置和试验台的设计,并给出了稳态效率试验结果。随后的论文将描述系统的实验工作,以解释各种能量损失,并开发DD风传输的综合模拟模型。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
A Digital Displacement Hydrostatic Wind-turbine Transmission
In 1984 a hydrostatic wind-turbine transmission with ‘secondary control’ was proposed by Stephen Salter using the, then only conceptual, Digital Displacement® (DD) principle for controlling the flow of the primary, rotor-driven, ring-cam pump. This transmission ‘could achieve the correct ratio of tip-speed to wind-speed in conjunction with true synchronous generation’. In the following years DD machines were progressively developed. To start with they were relatively small in capacity but the power ratings were systematically increased, until it seemed that a high-power hydrostatic wind-turbine transmission might indeed be feasible. In 2006, Artemis Intelligent Power (Artemis), a company that had been formed from Salter's original university team, began working on a megawatt-scale, hydrostatic, wind-turbine transmission based on new pump and motor designs. In 2011 Artemis completed a 1.5 MW transmission and dynamometer test-rig. This was one of the largest hydraulic transmissions ever made and, with a shaft-to-shaft efficiency of 93%, one of the most efficient. Using secondary control to respond rapidly to gusting wind and to instantaneous grid faults, it was also the most controllable. This paper discusses the design of the transmission and test-rig and presents the results of steady-state efficiency tests. Subsequent papers will describe systematic experimental work to account for the various energy losses and to develop a comprehensive simulation model of the DD wind-transmission.
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来源期刊
International Journal of Fluid Power
International Journal of Fluid Power ENGINEERING, MECHANICAL-
CiteScore
1.60
自引率
0.00%
发文量
16
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