Agency: European Commission | Branch: FP7 | Program: CSA | Phase: ICT-2011.3.2 | Award Amount: 1.13M | Year: 2011
The overall objective of FoodMicroSystems is to initiate the implementation of microsystems & smart miniaturised systems in the food sector by improving cooperation between suppliers and users of microsystems for food/beverage quality and safety. The project has five specific objectives:\n\n1.\tTo improve the coordination of national and EU programmes for the development of food applications\n2.\tTo facilitate cooperation of the value chain actors from research to industrialisation of smart systems in the food sector\n3.\tTo promote industrial take-up actions in the food sector\n4.\tTo develop roadmaps linking applications and technologies\n5.\tTo promote international cooperation\n\nThe project is structured into 5 main work- packages (WPs). WP1 (Current state of play) will identify partners for international cooperation as well as examples of existing MST applications in the food sector. WP2 (Research inventory) will provide an analysis of MST research programmes and activities in regards to food applications. WP3 (Food industry demands and constraints) will study the needs of the food industry, the economic and technical constraints, the perception of the consumers as well as the ethical and regulation context. WP4 (Roadmapping) will develop detailed research and application roadmaps for three food chains. WP5 (Communication and exploitation) aims at communicating the projects results through dissemination, presentations, information campaigns and training.\n\nThe consortium includes key research players in both the food and the microsystems sectors. FoodMicroSystems is an open project that will associate industry and other stakeholders in its activities.
Agency: European Commission | Branch: H2020 | Program: MSCA-ITN-ETN | Phase: MSCA-ITN-2015-ETN | Award Amount: 2.82M | Year: 2016
MEAN4SG network aims to educate 11 young researchers in the smart grids metrology field by constructing a training network gathering the whole innovation value chain. The main EU actors in the field of smart grids metrology have worked together, under the umbrella of the European Association of National Metrology Institutes (EURAMET), and relying on the support of the International Electrotechnical Commission (IEC), in order to design a training program coping with the principal R&D challenges related to metrology for smart grids while tackling the shortage of highly-skilled professionals on this area that has been foreseen by the European Commission, the electricity grids industrial sector and the academia. The overall MEAN4SG research programme tackles the main research challenges in the smart grids metrology field identified by the European R&D community: (1) power quality analysis, (2) smart grids modelling and management, (3) advanced monitoring through Phasor Measurement Units applications and (4) smart cable diagnosis. These main goals have been divided into eleven specific objectives, which will be assigned to the fellows, for them to focus their R&D project, PhD Thesis and professional career. The established training plan answers the challenges identified by the SET Plan Education Roadmap. Personal Development Career Plans (PCDP) will be tuned up for every fellow, being their accomplishment controlled by a Personal Supervisory Team (PST), composed by a main supervisor from the beneficiary and two mentors from the institutions hosting the two fellows secondments. The training plan includes intra-network activities, like Specific Courses lectured by the project partners, as well as network-wide initiatives, like two secondments for every fellow, PhD Seminars organized in cooperation with EURAMET and Summer Schools. Internal agreements have been reached among the beneficiaries to ensure the access for all the fellows to the obtention of a PhD degree.
Agency: European Commission | Branch: H2020 | Program: IA | Phase: EEB-01-2016 | Award Amount: 5.86M | Year: 2016
INNOVIP Consortium will reinvent the top-of-the-line insulating material vacuum-insulation-panels (VIP) by improving their thermal performance over the entire lifetime by at least 25 % and making VIPs adjustable, mountable and machineable. By reducing the density of the core material and/or using an alternative core material together with less expensive VIP-envelopes as gas barrier, it will be possible to sell the new product INNOVIP by more than 20 % lower price. Besides, the new product has a reduced embodied energy by at least 25 % and, attaching different cover layers, the panels can fulfill different functions. These additional functions can be adjusted according to the application they address, for example photocatalytic VOC removal from indoor- and outdoor air, anti mould coating, moisture buffering by Aluminium Compounds or summer heat cut-off by latent heat activated in phase change materials (PCMs). Currently there is no such material on the market. INNOVIP will develop such an innovative solution which will lead to a breakthrough in energy efficiency of the opaque parts of the building envelope both in new built and existing houses. The success of the development process will be demonstrated in two prototypes that can be tested and validated. Development tasks will be carried out in close cooperation with the three complementary and reputed participating testing laboratories. We will show that, in principle, the new product is ready for use in certain important and representative applications, addressing a relevant market volume by replacing conventional insulating materials and standard VIP in established insulation solutions.
Agency: European Commission | Branch: FP7 | Program: CP-IP | Phase: NMP.2013.1.4-3 | Award Amount: 9.29M | Year: 2013
Nanotechnology is a key enabling technology. Still existing uncertainties concerning EHS need to be addressed to explore the full potential of this new technology. One challenge consists in the development of methods that reliably identify, characterize and quantify nanomaterials (NM) both as substance and in various products and matrices. The European Commission has recently recommended a definition of NM as reference to determine whether an unknown material can be considered as nanomaterial (2011/696/EU). The proposed NanoDefine project will explicitly address this question. A consortium of European top RTD performers, metrology institutes and nanomaterials and instrument manufacturers has been established to mobilize the critical mass of expertise required to support the implementation of the definition. Based on a comprehensive evaluation of existing methodologies and a rigorous intra-lab and inter-lab comparison, validated measurement methods and instruments will be developed that are robust, readily implementable, cost-effective and capable to reliably measure the size of particles in the range of 1100 nm, with different shapes, coatings and for the widest possible range of materials, in various complex media and products. Case studies will assess their applicability for various sectors, including food/feed, cosmetics etc. One major outcome of the project will be the establishment of an integrated tiered approach including validated rapid screening methods (tier 1) and validated in depth methods (tier 2), with a user manual to guide end-users, such as manufacturers, regulatory bodies and contract laboratories, to implement the developed methodology. NanoDefine will be strongly linked to main standardization bodies, such as CEN, ISO and OECD, by actively participating in TCs and WGs, and by proposing specific ISO/CEN work items, to integrate the developed and validated methodology into the current standardization work.
Agency: European Commission | Branch: FP7 | Program: CP-IP | Phase: NMP.2012.1.3-3 | Award Amount: 49.52M | Year: 2013
The innovative and economic potential of Manufactured Nano Materials (MNMs) is threatened by a limited understanding of the related EHS issues. While toxicity data is continuously becoming available, the relevance to regulators is often unclear or unproven. The shrinking time to market of new MNM drives the need for urgent action by regulators. NANoREG is the first FP7 project to deliver the answers needed by regulators and legislators on EHS by linking them to a scientific evaluation of data and test methods. Based on questions and requirements supplied by regulators and legislators, NANoREG will: (i) provide answers and solutions from existing data, complemented with new knowledge, (ii) Provide a tool box of relevant instruments for risk assessment, characterisation, toxicity testing and exposure measurements of MNMs, (iii) develop, for the long term, new testing strategies adapted to innovation requirements, (iv) Establish a close collaboration among authorities, industry and science leading to efficient and practically applicable risk management approaches for MNMs and products containing MNMs. The interdisciplinary approach involving the three main stakeholders (Regulation, Industry and Science) will significantly contribute to reducing the risks from MNMs in industrial and consumer products. NANoREG starts by analysing existing knowledge (from WPMN-, FP- and other projects). This is combined with a synthesis of the needs of the authorities and new knowledge covering the identified gaps, used to fill the validated NANoREG tool box and data base, conform with ECHAs IUCLID DB structure. To answer regulatory questions and needs NANoREG will set up the liaisons with the regulation and legislation authorities in the NANoREG partner countries, establish and intensify the liaisons with selected industries and new enterprises, and develop liaisons to global standardisation and regulation institutions in countries like USA, Canada, Australia, Japan, and Russia.
Agency: European Commission | Branch: FP7 | Program: CP-FP | Phase: SST.2008.4.1.1. | Award Amount: 5.58M | Year: 2009
There is an urgent need to have a confident toxicity measurement methodology that contributes to the existing level of surface transport fire safety, which is the most difficult issue to assess in case of fire. The lack of confidence in the robustness of the existing product toxicity classification forbids its acceptance as a standard which prevent the European industry from common safety rules and consequently competitiveness. Moreover, it is also important to have a holistic approach of fire safety design of vehicle being able to provide more flexible and economic solutions than the current approach. TRANSFEU undertakes to deliver both a reliable toxicity measurement methodology and a holistic fire safety approach for all kind of surface transport (trains, vessels, etc.). It will be based on a harmonized Fire Safety Engineering methodology which will link passive fire security with active fire security mode. This all embracing system is the key to attain optimum design solutions to respect fire safety objectives as an alternative to the prescriptive approach. It will help in the development of innovative solutions (design and products used for the building of the surface transport) which will better respect the environment. In order to reach these objectives new toxicity measurement methodology and related classification of materials, new numerical fire simulation tools, fire test methodology and a decision tool to optimize or explore new design in accordance to the fire safety requirements will be developed. A great effort of dissemination of TRANSFEU results with a significant contribution to European standardization process will also be undertaken. The participation of railway industrials, operators and fire science researchers, professional organisations for railway (UNIFE) and vessels (IMO) and finally standardisation organisations (CEN) demonstrates the great interest of TRANSFEU for the harmonisation of fire safety in all surface transports.
Agency: European Commission | Branch: H2020 | Program: SGA-RIA | Phase: FETFLAGSHIP | Award Amount: 89.00M | Year: 2016
This project is the second in the series of EC-financed parts of the Graphene Flagship. The Graphene Flagship is a 10 year research and innovation endeavour with a total project cost of 1,000,000,000 euros, funded jointly by the European Commission and member states and associated countries. The first part of the Flagship was a 30-month Collaborative Project, Coordination and Support Action (CP-CSA) under the 7th framework program (2013-2016), while this and the following parts are implemented as Core Projects under the Horizon 2020 framework. The mission of the Graphene Flagship is to take graphene and related layered materials from a state of raw potential to a point where they can revolutionise multiple industries. This will bring a new dimension to future technology a faster, thinner, stronger, flexible, and broadband revolution. Our program will put Europe firmly at the heart of the process, with a manifold return on the EU investment, both in terms of technological innovation and economic growth. To realise this vision, we have brought together a larger European consortium with about 150 partners in 23 countries. The partners represent academia, research institutes and industries, which work closely together in 15 technical work packages and five supporting work packages covering the entire value chain from materials to components and systems. As time progresses, the centre of gravity of the Flagship moves towards applications, which is reflected in the increasing importance of the higher - system - levels of the value chain. In this first core project the main focus is on components and initial system level tasks. The first core project is divided into 4 divisions, which in turn comprise 3 to 5 work packages on related topics. A fifth, external division acts as a link to the parts of the Flagship that are funded by the member states and associated countries, or by other funding sources. This creates a collaborative framework for the entire Flagship.
Agency: European Commission | Branch: FP7 | Program: CP-IP | Phase: NMP.2013.1.4-2 | Award Amount: 12.85M | Year: 2013
The thermal properties of nanostructured materials are of fundamental importance to modern technology, but at present reproducible metrological definitions, tools and methods do not exist. This is because the mechanisms of heat transport at the nanoscale are entirely different to those at the macro scale. The project will place nanothermal metrology on a solid basis by an integrated physics-based experimental and modelling effort to: Define a common terminology for nanothermal measurement Realise standard materials and devices for measurement and calibration of nanothermal measurements Develop new instruments and methods for traceable nanothermal measurement Develop calibrated and validated thermal models covering the range from atomic to macro-scale Apply these tools to selected representative industrial problems Assess the tools for suitability for adoption as potential standards of measurement including their traceability and reproducibility The objectives will be achieved by a team comprising physicists, materials scientists, modellers, instrumentalists, microscopists, industrial partners (including SMEs and OEMs) and National Measurement Institutes. The outputs of QUANTIHEAT will be embodied in highly characterised reference samples, calibration systems, measurement tools, numerical modelling tools, reference measurements and documented procedures. The availability of calibrated numerical modelling tools will facilitate the rapid digital thermal design of new nanosystems without the need for extensive prototyping. Their validation against experiment over all length scales will provide a solid basis for the deployment of new nanostructured materials, devices and structures having optimised performance without the need for excessively conservative design. Standardization is a key driver of industrial and scientific progress: QUANTIHEAT is expected to constitute a de-facto standard for a key area of physical measurement at the nanoscale worldwide.
Ribeiro-Palau R.,French National Laboratory of Metrology and Testing
Nature Nanotechnology | Year: 2015
The quantum Hall effect provides a universal standard for electrical resistance that is theoretically based on only the Planck constant h and the electron charge e. Currently, this standard is implemented in GaAs/AlGaAs, but graphene's electronic properties have given hope for a more practical device. Here, we demonstrate that the experimental conditions necessary for the operation of devices made of high-quality graphene grown by chemical vapour deposition on silicon carbide can be extended and significantly relaxed compared with those for state-of-the-art GaAs/AlGaAs devices. In particular, the Hall resistance can be accurately quantized to within 1 × 10-9 over a 10 T wide range of magnetic flux density, down to 3.5 T, at a temperature of up to 10 K or with a current of up to 0.5 mA. This experimental simplification highlights the great potential of graphene in the development of user-friendly and versatile quantum standards that are compatible with broader industrial uses beyond those in national metrology institutes. Furthermore, the measured agreement of the quantized Hall resistance in graphene and GaAs/AlGaAs, with an ultimate uncertainty of 8.2 × 10-11, supports the universality of the quantum Hall effect. This also provides evidence of the relation of the quantized Hall resistance with h and e, which is crucial for the new Système International d'unités to be based on fixing such fundamental constants of nature. © 2015 Nature Publishing Group
Griset, French National Laboratory of Metrology, Testing and Association Pour La Recherche Et Le Developpment Des Methodes Et Processus Industriels A.R.M.I.N.E | Date: 2013-10-18
This substrate for power electronic components comprises a colaminated multilayer composite material containing at least one internal layer (8) made of a material having a thermal expansion coefficient chosen depending on the expansion coefficient of said components, and external layers (6, 7) made of a thermally conductive material covering on either side said internal layer and connected together by wells (P) made of a thermally conductive material, said wells being arranged in the internal layer. Each interior layer forms an insert localized in a zone for mounting the components so that the external layers extend laterally beyond the insert.