DocumentCode
1755630
Title
Hybrid Three-Phase/Single-Phase Microgrid Architecture With Power Management Capabilities
Author
Qiuye Sun ; Jianguo Zhou ; Guerrero, Josep M. ; Huaguang Zhang
Author_Institution
Sch. of Inf. Sci. & Eng., Northeastern Univ., Shenyang, China
Volume
30
Issue
10
fYear
2015
fDate
Oct. 2015
Firstpage
5964
Lastpage
5977
Abstract
With the fast proliferation of single-phase distributed generation (DG) units and loads integrated into residential microgrids, independent power sharing per phase and full use of the energy generated by DGs have become crucial. To address these issues, this paper proposes a hybrid microgrid architecture and its power management strategy. In this microgrid structure, a power sharing unit (PSU), composed of three single-phase back-to-back (SPBTB) converters, is proposed to be installed at the point of common coupling. The aim of the PSU is mainly to realize the power exchange and coordinated control of load power sharing among phases, as well as to allow full utilization of the energy generated by DGs. Meanwhile, the method combining the modified adaptive backstepping-sliding mode control approach and droop control is also proposed to design the SPBTB system controllers. With the application of the proposed PSU and its power management strategy, the loads among different phases can be properly supplied and the energy can be fully utilized, as well as obtaining better load sharing. Simulation and experimental results are provided to demonstrate the validity of the proposed hybrid microgrid structure and control.
Keywords
adaptive control; control nonlinearities; distributed power generation; load regulation; power control; power convertors; power system management; PSU; SPBTB converters; SPBTB system controllers; coordinated control; droop control; fast proliferation; hybrid three-phase-single-phase microgrid architecture; independent power sharing unit; load power sharing; modified adaptive backstepping-sliding mode control; point of common coupling; power exchange; power management capability; residential microgrid structure; single-phase DG units; single-phase back-to-back converters; single-phase distributed generation units; Educational institutions; Lyapunov methods; Mathematical model; Microgrids; Power demand; Reactive power; Reliability; Adaptive backstepping-sliding-mode control; adaptive backstepping-sliding-mode control; droop control; energy utilization; microgrid; power sharing;
fLanguage
English
Journal_Title
Power Electronics, IEEE Transactions on
Publisher
ieee
ISSN
0885-8993
Type
jour
DOI
10.1109/TPEL.2014.2379925
Filename
6983633
Link To Document