Imec, formerly the Interuniversity Microelectronics Centre, is a micro- and nanoelectronics research center headquartered in Leuven, Belgium, with offices in Belgium, the Netherlands, Taiwan, USA, China, India and Japan. Its staff of about 2,000 people includes more than 600 industrial residents and guest researchers. Wikipedia.
Agency: Cordis | Branch: H2020 | Program: ECSEL-RIA | Phase: ECSEL-01-2014 | Award Amount: 27.39M | Year: 2015
This project will research new technologies for CMOS image sensors that are needed in the next generation of several application domains. The image sensor research will focus on enhancing the capabilities of current imaging devices: New design (architectures) and technology (e.g. 3D stacking) for better pixels (lower noise, higher dynamic range, new functionality within the pixel) and more pixels (higher spatial and temporal resolutions) at higher speed, time-of-flight pixels, local (on-chip) image processing, embedded CCD in CMOS TDI pixels. Extended sensitivity and functionality of the pixels: extension into infrared, filters for hyper-and multi-spectral imaging, better colour filters, programmable filters with LCD cells. Application domains that will be covered are: Digital Lifestyle: Broadcast, Digital Cinema & Entertainment, Smart home (Grass Valley, Angenieux, Silios, Delft University of Technology, SoftKinetic) Smart Production (IMEC, C-cam) High-end Security (Adimec, Angenieux, Le2i, TNO) Agriculture and food sorting using hyper- and multi-spectral imaging and programmable filters (Silios, Le2i) Medical healthcare: diagnostics using multi-/hyper-spectral imaging and programmable filters (Adimec, TNO, Silios, Quest and Focal) Gas detection using multi spectral IR imagers (Sofradir) Security: gas sensing (Sofradir) The prototype CMOS image sensors for several application domains will be demonstrated together with the sensor related processing.
Agency: Cordis | Branch: H2020 | Program: ECSEL-IA | Phase: ECSEL-02-2014 | Award Amount: 48.05M | Year: 2015
The goal of the InForMed project is to establish an integrated pilot line for medical devices. The pilot line includes micro-fabrication, assembly and even the fabrication of smart catheters. The heart of this chain is the micro-fabrication and assembly facility of Philips Innovation Services, which will be qualified for small/medium-scale production of medical devices. The pilot facility will be open to other users for pilot production and product validation. It is the aim of the pilot line: to safeguard and consolidate Europes strong position in traditional medical diagnostic equipment, to enable emerging markets - especially in smart minimally invasive instruments and point-of-care diagnostic equipment - and to stimulate the development of entirely new markets, by providing an industrial micro-fabrication and assembly facility where new materials can be processed and assembled. The pilot line will be integrated in a complete innovation value chain from technology concept to high-volume production and system qualification. Protocols will be developed to ensure an efficient technology transfer between the different links in the value chain. Six challenging demonstrators products will be realized that address societal challenges in: Hospital and Heuristic Care and Home care and well-being, and demonstrate the trend towards Smart Health solutions.
Agency: Cordis | Branch: H2020 | Program: ECSEL-IA | Phase: ECSEL-02-2014 | Award Amount: 87.61M | Year: 2015
The key objective of PowerBase Enhanced substrates and GaN pilot lines enabling compact power applications is to ensure the availability of Electronic Components and Systems (ECS) for key markets and for addressing societal challenges, aiming at keeping Europe at the forefront of the technology development, bridging the gap between research and exploitation, creating economic and employment growth in the European Union. The project PowerBase aims to contribute to the industrial ambition of value creation in Europe and fully supports this vision by addressing key topics of ECSEL multi annual strategic plan 2014. By positioning PowerBase as innovation action a clear focus on exploitation of the expected result is primary goal. To expand the limits in current power semiconductor technologies the project focuses on setting up a qualified wide band gap GaN technology Pilot line, on expanding the limits of todays silicon based substrate materials for power semiconductors, improving manufacturing efficiency by innovative automation, setting up of a GaN compatible chip embedding pilot line and demonstrating innovation potential in leading compact power application domains. PowerBase is a project proposal with a vertical supply chain involved with contributions from partners in 7 European countries. This spans expertise from raw material research, process innovation, pilot line, assembly innovation and pilot line up to various application domains representing enhanced smart systems. The supporting partners consist of market leaders in their domain, having excellent technological background, which are fully committed to achieve the very challenging project goals. The project PowerBase aims to have significant impact on mart regions. High tech jobs in the area of semiconductor technologies and micro/nano electronics in general are expressed core competences of the regions Austria: Carinthia, Styria, Germany: Sachsen, Bavaria and many other countries/ regions involved.
Agency: Cordis | Branch: H2020 | Program: IA | Phase: WASTE-1-2014 | Award Amount: 11.43M | Year: 2015
The RESYNTEX project aims at designing, developing and demonstrating new high environmental impact industrial symbiosis between the unwearable blends and pure components of textile waste and the chemical and textile industries. The project comprises: - a strategic design of the whole value chain from textile waste collection, until the new marketable feedstock for chemical & textile industrie, by which the symbiosis opportunities are evaluated (by public authorities and the private sector) in terms of their social, technical, economic, environmental and legislative aspects - the improvement of collection approaches particularly for non-wearable textiles for recycling by changing citizens behaviour and creation of tools for higher social involvement and recycling promotion. This will ensure a greater accessibility to textile waste as resource and increase the textile waste rates destined for recycling. With 50% collection rate all over Europe would be a significant improvement in order to provide large quantities of feedstock - a data aggregation system that will be developed and implemented in order to ensure waste traceability and also provide relevant data for economic and environmental assessment; - the development of new business models adapted for different synergies identified and for new markets. In addition, environmental LCA and LCC for different scenarios and identification of the most promising routes and synergies will support this objective - automation of the macro separation and sorting for pure or blended textiles, in order to enhance productivity and competitiveness of the whole recycling process - a new demonstration process based on a synergistic chemical and biotechnological cascading separation/transformation approach of textile basic components (proteins, cellulose, polyamide and polyester) from textile blends as basic feedstock materials for chemical & textile industries. Liquid and solid waste treatment and valorisation will close the loop
Advanced Energy Materials | Year: 2011
In this paper, we consider the optical effects in conventional and inverted bulk heterojunction organic solar cells associated with various electrodes, and perform a systematic study on the anode and cathode buffer layers commonly used in high performance devices. In the devices produced here, we determine that parasitic absorption by low work function metals such as calcium reduces photocurrent by 25%, and that parasitic refl ection at interfaces between the transparent conducting oxide and metal oxide buffer layers can reduce photocurrent by more than 10%. We also quantify the impact of an optical spacer, and determine that this accounts for only a fraction of the improvement that can be gained through alternative electrode optimization routes. It is therefore our intention that this study serves as a guideline for the optimization of the electrodes of organic thin film photovoltaic devices. © 2011 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim. Source