Improved Damping Control Based on Hamiltonian Control Law for Low-Carbon Hydrogen Production Systems

The article deals with an enhanced damping control strategy exploiting Hamiltonian control methods for a two-phase interleaved buck converter within low-carbon hydrogen production systems. This approach integrates the proton exchange membrane (PEM) electrolyzer and photovoltaic source to contribute to an efficient low-carbon hydrogen production. By applying principles of physics that govern energy conservation and system dynamics, the proposed strategy achieves a more accurate and resilient control mechanism. It specifically focuses on reducing oscillations and improving the system's stability in case of disturbances. The effectiveness of this control technique was assessed through simulation tests, confirming its superior performance. Results demonstrate the PEM electrolyzer's efficiency in both steady-state and dynamic operating conditions, while pointing out the potential of the proposed control approach in enhancing system reliability and performance.

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Published
2024-11-26
DOI
https://doi.org/10.23919/icems60997.2024.10921072
Primary Topic
Methane Hydrates and Related Phenomena
Type
article
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article

Improved Damping Control Based on Hamiltonian Control Law for Low-Carbon Hydrogen Production Systems

Melika Hinaje, Pongsiri Mungporn, Burin Yodwong, Gianpaolo Vitale et al.
Methane Hydrates and Related Phenomena
article

Improved Damping Control Based on Hamiltonian Control Law for Low-Carbon Hydrogen Production Systems

Melika Hinaje, Pongsiri Mungporn, Burin Yodwong, Gianpaolo Vitale, Phatiphat Thounthong, Matheepot Phattanasak, Uthen Kamnarn, Damien Guilbert, Yaowaret Maiket
article en

Abstract

The article deals with an enhanced damping control strategy exploiting Hamiltonian control methods for a two-phase interleaved buck converter within low-carbon hydrogen production systems. This approach integrates the proton exchange membrane (PEM) electrolyzer and photovoltaic source to contribute to an efficient low-carbon hydrogen production. By applying principles of physics that govern energy conservation and system dynamics, the proposed strategy achieves a more accurate and resilient control mechanism. It specifically focuses on reducing oscillations and improving the system's stability in case of disturbances. The effectiveness of this control technique was assessed through simulation tests, confirming its superior performance. Results demonstrate the PEM electrolyzer's efficiency in both steady-state and dynamic operating conditions, while pointing out the potential of the proposed control approach in enhancing system reliability and performance.

Université Le Havre Normandie (FR), Institute for High Performance Computing and Networking (IT), Groupe de Recherche en Énergie Électrique de Nancy (FR), National Research Council (IT), Groupe de Recherche Clinique en Neuro-urologie (FR), Rajamangala University of Technology Lanna (TH), King Mongkut's University of Technology North Bangkok (TH), Université de Lorraine (FR)
Openalex Percentile: Top 79%
Methane Hydrates and Related Phenomena
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