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Very high temperature HVDC busbar (180 - 240°) with reliable and cost effective technology

Description du projet

Une technologie avancée de barres omnibus pour des applications à haute température

Les systèmes de distribution d’énergie des aéronefs plus électriques devraient être confrontés à des tensions et des températures élevées. Grâce au financement du projet VILB par l’UE, l’entreprise française Auxel et le LSE Research Laboratory, basé au Royaume-Uni, vont concevoir conjointement une technologie capable de relever efficacement ces défis, puis en faire la démonstration. Cette nouvelle technologie, baptisée «barre omnibus laminée vernie et imprégnée» (VILB, pour «varnished and impregnated laminated busbar»), représente une véritable avancée car elle repose sur une stratégie entièrement nouvelle d’isolation des barres omnibus laminées. Ce procédé devrait permettre aux barres omnibus laminées de résister à des températures plus élevées (240 °C) ainsi qu’à des décharges partielles.

Objectif

More Electrical Aircraft power distribution systems are increasingly required to operate in harsh environments and increasing voltage (HVDC), including high temperature. The company Auxel (an industrial leader in laminated busbars) & the LSEE Research Laboratory (Electrotechnical Systems and Environment) will conjointly address this topic by developing a technology able to effectively address the challenges of High Voltage, high operating temperature (up to 240°) and controlled lifetime: VILB (Varnished & Impregnated Laminated Busbar) technology. Firstly, VILB is a technological breakthrough as it is based on an entirely new strategy for the insulation of laminated busbars (LBB) (one component of the power distribution systems). Indeed, VILB will replace insulating films, glue and complex assembly processes by a heating press with an impregnation technology using a dielectric resin. This process will make the LBB resistant to higher temperatures (240°) and partial discharge (tiny short circuits appearing during the insulation phase and accelerating the system ageing). Secondly, VILB is a limited risk taking technology as it is inspired by perfectly mature technologies and products widely used for the insulation of electric machines. Thirdly, the potential VILB impacts are way beyond aeronautical sector: VILB could be duplicated in many other applications such as power modules, converters, automotive Industry, etc. Finally, thanks to this simplified process, in comparison with the traditional thermally bonded insulating film on heating press process, the implementation of VILB technology for busbars will result in higher productivity (x 5), lower production costs (from - 10% to - 30%) and energy savings (- 80%). During the project, the busbar will be designed, its performance simulated, the prototypes tested to TRL6 demonstration ending with a “TRL 7 ready” prototype. AUXEL and the LSEE have already co-patented VILB with 2 patent pending applications.

Régime de financement

CS2-IA - Innovation action

Coordinateur

AUXEL
Contribution nette de l'UE
€ 398 816,25
Adresse
RUE DE LA BARRE ZONE INDUSTRIELLE
59147 GONDECOURT
France

Voir sur la carte

Type d’activité
Private for-profit entities (excluding Higher or Secondary Education Establishments)
Liens
Coût total
€ 569 737,50

Participants (1)