Mathilde Weber
Air Liquide
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Publication
Featured researches published by Mathilde Weber.
Defect and Diffusion Forum | 2012
Marie Hélène Klopffer; Philippe Berne; Mathilde Weber; Sylvie Castagnet; Gilles Hochstetter; Eliane Espuche
In France, the steel transportation network for natural gas is connected to the distribution network which operates at lower pressure. This one (total length of 165 000 km) is mainly made of polymer pipes like polyethylene. With the introduction of hydrogen in mixture with natural gas and finally the transport of pure hydrogen, the key challenge is the high level of permeability that is to say the flow rate of hydrogen through polymer infrastructures (pipes or components like connecting parts). This high flow rate of hydrogen has to be taken into account for safety and economic requirements. Long-term behaviour must be carefully assessed: permeation/diffusion properties, thermo-mechanical behaviour and ageing. It is important to characterize the existing distribution network and to propose more innovative materials than polyethylene that could meet the targets for future hydrogen distribution applications. The aim of this project was to develop and assess material solutions to cope with today problems in term of high flow rate of hydrogen and ageing under a hydrogen environment. Polyethylene is considered as a reference material since it is used today in natural gas distribution pipes. Test benches and protocols for testing materials in term of mechanical and barrier properties were first developed. On the other hand, technical polymers (multi-layers, other thermoplastics, polymer blends) have been proposed and studied to improve gas-barrier performances compared to polyethylene. Step by step, permeation and basic mechanical tests have been performed and then more specific characterisations have been done (for long-term ageing under various conditions) in order to choose one or several materials that could meet the specifications required by hydrogen distribution. The design of a pipe prototype was also carried out at the end the project and an economic study was performed for the different potential solutions.
International Journal of Hydrogen Energy | 2017
Hervé Barthelemy; Mathilde Weber; F. Barbier
International Journal of Hydrogen Energy | 2015
Thomas Bourgeois; Fouad Ammouri; Mathilde Weber; Christophe Knapik
International Journal of Hydrogen Energy | 2009
O. Comond; D. Perreux; F. Thiebaud; Mathilde Weber
Archive | 2008
Mathilde Weber; Jérôme Perrin
Archive | 2009
Mathilde Weber; Sitra Colom; Brian Besancon; Gilles Cannet; Philippe Renault; Jerome Levy; Jerome Laforcade
International Journal of Hydrogen Energy | 2018
P. Blanc-Vannet; P. Papin; Mathilde Weber; P. Renault; Julie Pépin; Eric Lainé; G. Tantchou; Sylvie Castagnet; Jean-Claude Grandidier
International Journal of Hydrogen Energy | 2018
Julie Pépin; Eric Lainé; Jean-Claude Grandidier; Guillaume Benoit; David Mellier; Mathilde Weber; Christophe Langlois
International Journal of Hydrogen Energy | 2018
Julie Pépin; Eric Lainé; Jean-Claude Grandidier; Sylvie Castagnet; Pierre Blanc-vannet; Philippe Papin; Mathilde Weber
Archive | 2016
Thomas Bourgeois; Fouad Ammouri; Mathilde Weber; Elena Vyazmina