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首页> 外文期刊>Journal of Energy Engineering >Design and Simulation Analysis of a Small-Scale Compressed Air Energy Storage System Directly Driven by Vertical Axis Wind Turbine for Isolated Areas
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Design and Simulation Analysis of a Small-Scale Compressed Air Energy Storage System Directly Driven by Vertical Axis Wind Turbine for Isolated Areas

机译:垂直轴风力发电机直接驱动偏远地区小型压缩空气储能系统的设计与仿真分析

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Increasing interest is being paid to the exploitation of wind power to supply stable electricity for the microgrid. The microgrid system coupled with wind turbines is available to generate power for local residents, especially in isolated areas. Being suitable for a microgrid, a 30-kW compressed air energy storage (CAES) system directly driven by a vertical axis wind turbine (VAWT) is presented in this paper. A high-pressure storage tank was used to store the compressed air in order to guarantee continuous operation. In addition, a control strategy was designed for the system to make full use of wind energy and enhance system stability. Moreover, a mathematical model was established to simulate the system with hourly wind speed data, which were randomly selected from Zibo in the Shandong province of China. Variations in gas turbine temperature, operation pressure, and the mass flow rate of compressed air with wind speed over two weeks in winter and two weeks in summer are shown in the paper. The results indicate that the adoption of the VAWT control strategy enables the round-trip efficiency to increase by 5.21% and the number of hours in the protection mode to decrease by 22 h in four weeks. Moreover, the system absorbed zthe fluctuant wind power and generated stable output (30 kW) for consumption. (C) 2014 American Society of Civil Engineers.
机译:越来越多的兴趣用于开发风力以为微电网提供稳定的电力。微电网系统与风力涡轮机相连,可为当地居民发电,特别是在偏远地区。本文提出了一种适用于微电网的,由垂直轴风力涡轮机(VAWT)直接驱动的30 kW压缩空气储能(CAES)系统。为了确保连续运行,使用了一个高压储气罐来存储压缩空气。此外,为系统设计了一种控制策略,以充分利用风能并增强系统稳定性。此外,建立了一个数学模型来模拟具有每小时风速数据的系统,该数据是从中国山东省淄博市随机选择的。本文显示了冬季两周和夏季两周内燃气轮机温度,运行压力和压缩空气质量流量随风速的变化。结果表明,采用VAWT控制策略可使往返效率在四周内提高5.21%,在保护模式下的小时数减少22小时。此外,该系统吸收了波动的风力,并产生了稳定的输出功率(30 kW)以供消耗。 (C)2014年美国土木工程师学会。

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