DocumentCode
84893
Title
Development and Implementation of a Supervisor Strategy and Sliding Mode Control Setup for Fuel-Cell-Based Hybrid Generation Systems
Author
More, Jeronimo J. ; Puleston, Paul F. ; Kunusch, Cristian ; Fantova, Miguel Allue
Author_Institution
Fac. de Ing., Univ. Nac. de La Plata, La Plata, Argentina
Volume
30
Issue
1
fYear
2015
fDate
Mar-15
Firstpage
218
Lastpage
225
Abstract
This paper presents the development and experimental results of a supervisor strategy and a sliding mode control setup to improve the performance of hybrid generation systems. The topology in this study is conformed by a core comprising a fuel cell module and a supercapacitor module, in combination with an alternative energy source module and an electrolyzer. In particular, a wind power turbine is considered as alternative power source to attain a hybrid generation system fully relying on renewable energy. First, a supervisor strategy is proposed to manage the power flows of the subsystems and coordinate the system as a whole. Subsequently, a sliding mode control setup for combined operation of the dc/dc power converters of the fuel cell/supercapacitor core is presented to track the power references synthesized by the supervisor control. Both control levels, supervisor strategy and sliding mode controllers, are implemented and assessed through extensive experimental tests under different wind conditions and heavy-load changes.
Keywords
DC-DC power convertors; fuel cells; hybrid power systems; load flow; power system control; renewable energy sources; supercapacitors; variable structure systems; wind power plants; DC-DC power converters; electrolyzer; fuel cell-supercapacitor core; fuel-cell-based hybrid generation systems; renewable energy; sliding mode control; subsystems power flows; supercapacitor module; supervisor control; wind power turbine; Fuel cells; Hybrid power systems; Hydrogen; Power demand; Sliding mode control; Supercapacitors; Voltage control; Fuel cells; hybrid systems; sliding mode control; supercapacitors; supervisor control; wind power generation;
fLanguage
English
Journal_Title
Energy Conversion, IEEE Transactions on
Publisher
ieee
ISSN
0885-8969
Type
jour
DOI
10.1109/TEC.2014.2354553
Filename
6909056
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