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Lille, France

Located in the campus of Lille University of Science and Technology in France, École Centrale de Lille is a renowned Graduate Engineering school, with roots back to 1854 as the École des arts industriels et des mines de Lille, re-organised in 1872 as Institut industriel du Nord. It is one of the Centrale Graduate Schools.Its different curricula lead to the following French & European degrees : Ingénieur Centralien de Lille Masters Recherche & Doctorat Mastères Spécialisés .Academic activities and industrial applied research are performed mainly in French and English languages. Students from a dozen of nationalities participate to the different curricula at École Centrale de Lille.Most of the 1300 graduate engineer students at École Centrale de Lille live in dedicated residential buildings nearby research labs and metro public transports on a campus that is shared with 20,000 students from Lille University of Science and Technology. Wikipedia.

École Centrale Lille and French National Center for Scientific Research | Date: 2011-04-11

The invention relates to a submillimeter-sized hot-wire sensor (

École Centrale Lille and French National Center for Scientific Research | Date: 2011-06-16

Magnetoelectric memory element comprising: a magnetic element (ELM) that has two equilibrium directions (P

École Centrale Lille and French National Center for Scientific Research | Date: 2012-07-12

The invention relates to a miniaturised sensor having a heating element, and to an associated production method. The sensor includes a substrate, a cavity and a heat-insulating structure suspended above the cavity by areas connecting to the substrate. The heat-insulating structure includes at least two bridges extending above the cavity, the heating element being supported by said bridges, extending transversely thereto.

École Centrale Lille and Adisseo France S.A.S. | Date: 2011-10-26

A continuous process for obtaining acrolein by catalytic dehydration of glycerol or glycerin, in the presence of an acid catalyst, wherein said process comprises the concomitant regeneration of said catalyst and is carried out in a fluidized bed reactor, said reactor comprising two zones, a first zone, or lower zone, termed catalyst regeneration zone, in which a fluidization gas comprising oxygen is introduced, and a second zone, or upper zone, termed reaction zone, in which the glycerol or glycerin is introduced and converted into acrolein.

Agency: Cordis | Branch: FP7 | Program: CP | Phase: ENERGY.2013.7.2.3 | Award Amount: 62.80M | Year: 2014

A group of eight Transmission System Operators with a generator company, manufacturers and research organisations, propose 5 demonstration projects to remove, in 4 years, several barriers which prevent large-scale penetration of renewable electricity production in the European transmission network. The full scale demonstrations led by industry aim at proving the benefits of novel technologies coupled with innovative system integration approaches: - A scaled down model of generators connected to a HVDC link is used within a new testing facility to validate novel control strategies to improve the interaction between HVDC links and wind turbine generators - The implementation of a full scale, hardware-in-the-loop test setup in collaboration with worldwide market leaders of HVDC-VSC technology explores the interactions of HVDC VSC multiterminal control systems to validate their interoperable operations - Strategies to upgrade existing HVDC interconnectors are validated with the help of innovative components, architecture and system integration performances, to ensure higher RES penetration and more efficient cross border exchanges. - Full scale experiments and pilot projects at real life scale of both installation and operation of AC overhead line repowering technologies are carried out to show how existing corridors can see their existing capacity increase within affordable investments. - The technical feasibility of integrating DC superconducting links within an AC meshed network (using MgB2 as the critical material) will be tested at prototype scale, thus proving that significant performance improvements have been reached to enable commercialization before 2030 The experimental results will be integrated into European impact analyses to show the scalability of the solutions: routes for replication will be provided with benefits for the pan European transmission network and the European electricity market as soon as 2018, in line with the SET plan objectives

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