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Multi-Physical Modeling and Design of a Hydraulic Compression System for Hydrogen Refueling of Heavy-Duty Vehicles

Articolo
Data di Pubblicazione:
2025
Citazione:
Multi-Physical Modeling and Design of a Hydraulic Compression System for Hydrogen Refueling of Heavy-Duty Vehicles / Fornaciari, A., Bertoli, M., Zardin, B., Rizzoli, M., Noppe, E., Borghi, M., Barth, F., Kucera, P., Kloft, P., Eynard, F., Butstraen, L., Marthelot, R., Sauger, E.. - In: ENERGIES. - ISSN 1996-1073. - 18:23(2025), pp. 1-22. [10.3390/en18236333]
Abstract:
Heavy-duty vehicles cause a significant percentage of the harmful gas emissions from the automotive industry. This article presents the development of a compression system for hydrogen as part of the H2REF-DEMO hydrogen refueling station, joining the European efforts to promote hydrogen (H2) as a fuel that can play a key role in the energy transition of these types of vehicles. The H2REF-DEMO project, co-funded by the European Union’s “Horizon. Europe” programme under the “Clean Hydrogen Partnership” (grant agreement no. 101101517), involves a partnership between companies and research centers that aims to investigate the possibility of compressing hydrogen through hydraulic power to handle large vehicle refueling applications, such as bus fleet depots, trucks, or trains. The basic principle is the exploitation of hydraulic power to compress hydrogen through hydro-pneumatic bladder accumulators. The hydraulic power units, in fact, pump oil into the accumulators, causing a deformation of the bladder containing H2 and thus a consequent gas compression. In this article, we focus on the development of the compression system, from the theoretical starting point to the core final layout of the refueling station for large vehicles. We also exploit a lumped parameter numerical model to both support the system design and virtually test its first control logic. The latter, in particular, allows the system to operate in three modes—Bypass, Parallel, and Serial modes—thus leaving room for testing basic and more complex control strategies. The results of numerical simulations demonstrate the effectiveness of this innovative compression technology and its considerable efficiency in terms of refueling time and energy consumption, especially when compared to the standard systems used for this application. These are thus encouraging results that can support the development of an actual H2REF-DEMO hydraulic test rig for hydrogen compression.
Tipologia CRIS:
Articolo su rivista
Keywords:
compression; heavy-duty vehicles; hydraulics; hydrogen; refueling
Elenco autori:
Fornaciari, A.; Bertoli, M.; Zardin, B.; Rizzoli, M.; Noppe, E.; Borghi, M.; Barth, F.; Kucera, P.; Kloft, P.; Eynard, F.; Butstraen, L.; Marthelot, R.; Sauger, E.
Autori di Ateneo:
FORNACIARI ANDREA
ZARDIN Barbara
Link alla scheda completa:
https://iris.unimore.it/handle/11380/1403210
Link al Full Text:
https://iris.unimore.it//retrieve/handle/11380/1403210/971340/energies-18-06333%20(1).pdf
Pubblicato in:
ENERGIES
Journal
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