Control of solid oxide fuel cell for stand-alone and grid connection using fuzzy logic technique

A.R. Sakehare, A. Davari, A. Feliachi
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引用次数: 20

Abstract

Fuel cells are very promising sources of electricity; environmentally safe and very efficient. The fuel cells have numerous applications: houses, industries, hospitals, vehicles etc. Another facet of these fuel cell applications is distributed generation, the implementation of various power generating resources, near the site of need, for reducing reliance on grid power. Fuel cells generate electricity from hydrogen by a chemical process. In this paper a solid oxide fuel cell mathematical model is adopted. The solid oxide fuel cells are very efficient and the technology is most suited to applications in the distributed generation. The main aim of the paper is to achieve the control of the fuel cell for stand-alone and grid connection. To achieve a grid interface and stand-alone working by designing suitable power conditioning units. The power conditioning unit is needed for the processing of the raw power output of the fuel cell in order to make it usable. The power conditioning unit might consist of only a DC/DC converter or the two stages of a DC/DC converter and a DC/AC inverter. For the stand-alone part the concentration is on the controlled DC power thus, only a boost converter (DC/DC) stage is used. For the grid interface of the solid oxide fuel cell controlled AC power is needed at the interface point, thus, both stages; boost converter as well as the inverter (DC/AC) are needed. A power conditioning unit is designed for this solid oxide fuel cell and for fuel cells in general. The fuzzy logic control strategy is used for designing the controllers.
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固体氧化物燃料电池单机及并网控制的模糊逻辑技术
燃料电池是非常有前途的电力来源;既环保又高效。燃料电池有许多应用:住宅、工业、医院、车辆等。这些燃料电池应用的另一个方面是分布式发电,在需要的地点附近实施各种发电资源,以减少对电网电力的依赖。燃料电池通过化学过程将氢转化为电能。本文采用固体氧化物燃料电池的数学模型。固体氧化物燃料电池效率高,最适合应用于分布式发电。本文的主要目的是实现燃料电池的单机和并网控制。通过设计合适的功率调节装置,实现电网接口和单机工作。为了使燃料电池可用,需要功率调节单元对燃料电池输出的原始功率进行处理。功率调节单元可能仅由DC/DC转换器或DC/DC转换器和DC/AC逆变器的两级组成。对于独立部分,集中在控制的直流功率上,因此,只使用升压转换器(DC/DC)级。对于固体氧化物燃料电池的网格界面,在界面点需要控制交流电源,因此,两个阶段;需要升压变换器和逆变器(DC/AC)。为此固体氧化物燃料电池和一般燃料电池设计了一种功率调节装置。采用模糊逻辑控制策略设计控制器。
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