Broadband On-Chip Three Mode (De) Multiplexer Using SWG-Asymmetric Adiabatic Coupling

This paper proposes a novel cascade high-gain state and perturbation observer (CHGSPO)-based robust adaptive control (RAC) strategy of modular multi-level converter based high voltage direct current (MMC-HVDC) system integrating offshore wind farms. The sending-end MMC and receiving-end MMC are decomposed into four subsystems by input-output linearization, respectively. The CHGSPO is designed to estimate the states and perturbations of each subsystem accurately. Then the estimated states and perturbations are used by the feedback linearization controller (FLC) to eliminate the nonlinearities of the system. Compared with traditional vector control (VC), the design of the proposed controller does not rely on the accurate model of MMC-HVDC, and it has strong robustness to model uncertainties, parameter variations, and external disturbances. Moreover, there are no physical connections between the control loops. Thus, it can achieve complete decoupling control of MMC-HVDC. Simulation studies are undertaken in an MMC-HVDC system connecting a modified 4Generator-13Bus system with two offshore wind farms. The results reveal that the CHGSPO-based RAC has better performance under various conditions than VC.

Institutions

Publication Details

Journal
IEEE Photonics Technology Letters
Published
2025-04-03
DOI
https://doi.org/10.1109/lpt.2025.3556783
Citations
1
Primary Topic
HVDC Systems and Fault Protection
Type
article
Field-Weighted Citation Impact
0.73

Funders

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article

Broadband On-Chip Three Mode (De) Multiplexer Using SWG-Asymmetric Adiabatic Coupling

1 citations
IEEE Photonics Technology Letters
HVDC Systems and Fault Protection
0.73
article

Broadband On-Chip Three Mode (De) Multiplexer Using SWG-Asymmetric Adiabatic Coupling

article en
1 citations

Abstract

This paper proposes a novel cascade high-gain state and perturbation observer (CHGSPO)-based robust adaptive control (RAC) strategy of modular multi-level converter based high voltage direct current (MMC-HVDC) system integrating offshore wind farms. The sending-end MMC and receiving-end MMC are decomposed into four subsystems by input-output linearization, respectively. The CHGSPO is designed to estimate the states and perturbations of each subsystem accurately. Then the estimated states and perturbations are used by the feedback linearization controller (FLC) to eliminate the nonlinearities of the system. Compared with traditional vector control (VC), the design of the proposed controller does not rely on the accurate model of MMC-HVDC, and it has strong robustness to model uncertainties, parameter variations, and external disturbances. Moreover, there are no physical connections between the control loops. Thus, it can achieve complete decoupling control of MMC-HVDC. Simulation studies are undertaken in an MMC-HVDC system connecting a modified 4Generator-13Bus system with two offshore wind farms. The results reveal that the CHGSPO-based RAC has better performance under various conditions than VC.

IEEE Photonics Technology LettersVol. 37(8)
North China Electric Power University (CN), Indian Institute of Technology Dhanbad (IN)
Science and Engineering Research Board
Affordable and clean energy
Openalex Percentile: Top 30%
HVDC Systems and Fault Protection
0.73
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Broadband On-Chip Three Mode (De) Multiplexer Using SWG-Asymmetric Adiabatic Coupling · IEEE Photonics Technology Letters (2025) | TGRS Research Map | TGRS