Halden, Norway

Institute for Energy Technology was established in 1948 as the Institute for Nuclear Energy . The name was changed in 1980. Its main office is at Kjeller, Norway, and slightly under half of the institute’s activities are based in Halden. In Halden IFE is host to the international OECD Halden Reactor Project, with 18 member states.IFE conducts research in the following areas: energy, environmental technology, physics, materials science, petroleum technology, nuclear safety and reliability and man-machine systems .IFE operates the only two existing nuclear reactors in Norway. Both are dedicated to research. The JEEP II reactor at Kjeller is used for basic research in physics and material science, as well as production of radiopharmaceuticals. The Halden Reactor is used for research in materials technology and nuclear fuel safety.The Institute has approximately 600 employees in Halden and at Kjeller. The President is Eva S. Dugstad. Wikipedia.

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Agency: Cordis | Branch: H2020 | Program: CSA | Phase: EE-07-2015 | Award Amount: 1.79M | Year: 2016

The 2012 Energy Efficiency Directive (EED) establishes a set of binding measures to help the EU reach its 20% energy efficiency target by 2020. Countries have also set their own indicative national energy efficiency targets. To reach these targets, EU countries have to implement energy efficiency policies and monitor their impact. The Commission has also the task of monitoring the impacts of the measures to check that the EU is on track with its 2020 target. The objective of the ODYSSEE MURE 2015 proposal is to contribute to this monitoring: By updating two comprehensive databases covering each EU MS; ODYSSEE on energy consumption and energy efficiency indicators, and MURE on energy efficiency measures; By providing new and innovative trainings and didactical documents to national, regional and local administrations in EU MS to raise their capacity and expertise in the field of energy efficiency monitoring and impact evaluation. By extending the evaluation of the impact of energy efficiency from energy and CO2 savings, as already done in ODYSSEE, to the multiple other benefits. The updating of two databases ODYSSEE and MURE will play a key role to provide updated and centralized information required by each MS and the Commission to assess, monitor and evaluate energy efficiency progress and the state of implementation of measures and their impact. The project will provide innovative training tools and documents in a very user friendly way to public administrations to help them in implementing the monitoring of the progress achieved with indicators, in designing new policy measures and assessing the impacts of these measures, not only in terms of energy savings, but also in terms of the other benefits linked to energy efficiency improvements. Finally, the project will try to provide an assessment of the multiple benefits of energy efficiency policies for all MS combing existing evaluation and new calculations.

Europe has invoked the SET-Plan to design and implement an energy technology policy for Europe to accelerate the development and deployment of cost-effective renewable energy systems, including photovoltaics. With lower cost of solar electricity, PV could significantly contribute to the achievements of the 20-20-20 objectives. The Joint Program on PV of the European Energy Research Alliance (EERA-PV) aims to increase the effectiveness and efficiency of PV R&D through alignment and joint programming of R&D of its member institutes, and to contribute to the R&D-needs of the Solar Europe Industry Initiative. In CHEETAH, all EERA-PV members will, through collaborative R&D activities, (1) focus on solving specific bottlenecks in the R&D Joint Program of EERA-PV, (2) strengthen the collaboration between PV R&D performers in Europe through sharing of knowledge, personnel and facilities, and (3) accelerate the implementation of developed technologies in the European PV industry. Specifically, CHEETAH R&D will support Pillar A (performance enhancement & energy cost reduction) of the SEII Implementation Plan, through materials optimization and performance enhancement. CHEETAHs objectives are threefold: 1) Developing new concepts and technologies for wafer-based crystalline silicon PV (modules with ultra-thin cells), thin-film PV (advanced light management) and organic PV (very low-cost barriers), resulting in (strongly) reduced cost of materials and increased module performance; 2) Fostering long-term European cooperation in the PV R&D sector, by organizing workshops, training of researchers, efficient use of infrastructures; 3) Accelerating the implementation of innovative technologies in the PV industry, by a strong involvement of EPIA and EIT-KIC InnoEnergy in the program It is the ambition of CHEETAH to develop technology and foster manufacturing capabilities so that Europe can regain and build up own manufacturing capacity in all parts of the value chain in due time.

Agency: Cordis | Branch: FP7 | Program: MC-ITN | Phase: FP7-PEOPLE-2013-ITN | Award Amount: 4.05M | Year: 2013

Finding novel solutions for energy storage is of high societal relevance, since it is a prerequisite for the turnaround from fossil fuels and nuclear power to energy from renewable sources, since these sources mostly are intermittent. Also for providing an ecological friendly mobility, high capacity energy storage solutions are urgently needed. Well trained experts in energy storage are a prerequisite of the necessary technological development. ECOSTORE contributes to these targets by training 12 ESRs and 3 ERs in materials science and use of novel metal hydrides for energy storage chemical, as hydrogen, and electrochemical, in batteries. The fellows will be trained in scientific skills by pursuing own research projects (leading to a PhD in the case of ESR) as well as in complementary skills, important for their future career in academia or industry, like management of scientific and technical projects, science-public communication and development of their own career and personality. ECOSTORE is an international network of partners each with high reputation in the field of hydrogen and electrochemical storage. 9 European research institutions, 3 European industrial companies, and 2 Associated Partners from Japanese Universities form a network of complementary scientific and techno-economical expertise. Novel borohydride- and nitride based materials may allow for high energy storage densities in terms of both hydrogen and electrochemical processes. For commercial introduction, a prerequisite is the cost efficient large scale production from abundant and relatively cheap raw materials, going from extremely pure chemicals and laboratory-scale to less pure raw materials and industrial scale. ECOSTORE aims at the scientific understanding of materials behaviour in hydrogen as well as in electrochemical processes, and, based on this, at scale-up of cost effective materials production, and at prototype testing to perform a techno-economical evaluation of the developments

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: NMBP-03-2016 | Award Amount: 4.95M | Year: 2017

Permanent magnets are crucial in modern technology as they allow storing, delivering and converting energy. They are able to transform electrical energy into mechanical and vice versa, which means that improving their performance entails transforming energy in a more efficient and sustainable way. The best magnets are based on rare-earths (RE), however, their status as a Critical Raw Material (CRM) has brought forward the realization that it is of great strategic, geographic, environmental and socio-economic importance to consider alternative magnets that present a reduced amount (or absence) of RE. One of the most sought approaches towards this goal consists on constructing composite magnetic materials magnetically coupled at the interface. In the framework of the success of a previous European Project (FP7-SMALL-NANOPYME-310516), focused on improving ferrite-based magnets, we developed a low-cost novel approach (Patent P201600092) that exploits the magnetostatic interactions within these composites and that yielded extremely promising results in the form of an experimental proof-of-concept. The goal of this project is to implement up-scalable and cost-efficient methods for fabrication of ferrite-based dense anisotropic magnets with a 40% enhanced magnetic performance (energy products above 55 kJ/m3) with respect to commercial ferrites. We aim at producing improved magnets that retain the advantages of ferrites availability, sustainability, cost, recyclability, eco-friendliness- and which have the potential to substitute currently used RE magnets (CRM) in the electric power system. Our targeted application is an electric energy storage device: we will substitute RE magnets by AMPHIBIAN ones in a demonstrator of a flywheel and evaluate its performance against cost, eco-friendliness and resource efficiency criteria.

Agency: Cordis | Branch: FP7 | Program: CP | Phase: ENERGY.2013.2.4.1 | Award Amount: 13.30M | Year: 2013

The IMAGE project will develop a reliable science based exploration and assessment method to IMAGE geothermal reservoirs using an interdisciplinary approach based on three general pillars: 1 Understanding the processes and properties that control the spatial distribution of critical exploration parameters at European to local scales. The focus will be on prediction of temperatures, in-situ stresses, fracture permeability and hazards which can be deduced from field analogues, public datasets, predictive models and remote constraints. It provides rock property catalogues for 2 and 3. 2 Improving well-established exploration techniques for imaging and detection beyond the current state of the art and testing of novel geological, geophysical and geochemical methods to provide reliable information on critical subsurface exploration parameters. Methods include a) geophysical techniques such as ambient seismic noise correlation and magnetotellurics with improved noise filtering, b) fibre-optic down-hole logging tools to assess subsurface structure, temperature and physical rock properties, and c) the development of new tracers and geothermometers. 3 Demonstration of the added value of an integrated and multidisciplinary approach for site characterization and well-siting, based on conceptual advances, improved models/parameters and exploration techniques developed in 1 and 2. Further, it provides recommendations for a standardized European protocol for resource assessment and supporting models. The IMAGE consortium comprises the leading European geothermal research institutes and industry partners who will perform testing and validation of the new methods at existing geothermal sites owned by the industry partners, both in high temperature magmatic, including supercritical, and in basement/deep sedimentary systems. Application of the methods as part of exploration in newly developed fields will provide direct transfer from the research to the demonstration stage.

Agency: Cordis | Branch: FP7 | Program: CP | Phase: ENERGY.2013.5.1.2 | Award Amount: 9.22M | Year: 2014

ASCENT will provide a robust proof-of-concept of three related high temperature processes; each will lead to a step-change in efficiency of carbon removal in three types of pre-combustion capture, producing the hydrogen needed for highly efficient low-carbon power production. The project brings together five small and medium enterprises preparing to launch these concepts with the support of leading research institutes, universities and industrial partners. The essential feature linking the three technologies is the use of a high temperature solid sorbent for the simultaneous separation of CO2 during conversion of other carbon containing gases (CO and CH4) into H2. Each technology provides a step-change in efficiency because they all separate the CO2 at elevated temperatures (>300C) providing for more efficient heat integration options not available in technologies where the separation occurs at lower temperatures. Each process matches both endothermic and exothermic heat requirements of associated reactions and sorbent regeneration in an integrated in situ approach. The synergies between the three technologies are strong, allowing both multiple interactions between the different work packages and allowing a consistent framework for cross-cutting activities across all the technologies. Each technology will be proven under industrially relevant conditions of pressure and temperature, at a scale that allows the use of industrially relevant materials that can be manufactured at a scale needed for real implementation. This represents a necessary step to be taken for each of the technologies before setting out on the route to future demonstration level activities. ASCENT, Advanced Solid Cycles with Efficient Novel Technologies, addresses the need for original ideas to reduce the energy penalty associated with capturing carbon dioxide during power generation, and create a sustainable market for low carbon emission power with low associated energy penalties

Knaapila M.,Institute for Energy Technology of Norway | Monkman A.P.,Durham University
Advanced Materials | Year: 2013

Knowledge of the phase behavior of polyfluorene solutions and gels has expanded tremendously in recent years. The relationship between the structure formation and photophysics is known at the quantitative level. The factors which we understand control these relationships include virtually all important materials parameters such as solvent quality, side chain branching, side chain length, molecular weight, thermal history and myriad functionalizations. This review describes advances in controlling structure and photophysical properties in polyfluorene solutions and gels. It discusses the demarcation lines between solutions, gels, and macrophase separation in conjugated polymers and reviews essential solid state properties needed for understanding of solutions. It gives an insight into polyfluorene and polyfluorene beta phase in solutions and gels and describes all the structural levels in solvent matrices, ranging from intramolecular structures to the diverse aggregate classes and network structures and agglomerates of these units. It goes on to describe the kinetics and thermodynamics of these structures. It details the manifold molecular parameters used in their control and continues with the molecular confinement and touches on permanently cross-linked networks. Particular focus is placed on the experimental results of archetypical polyfluorenes and solvent matrices and connection between structure and photonics. A connection is also made to the mean field type theories of hairy-rod like polymers. This altogether allows generalizations and provides a guideline for materials scientists, synthetic chemists and device engineers as well, for this important class of semiconductor, luminescent polymers. The structural hierarchies of polyfluorenes in solution and gel range from intramolecular structures to the diverse aggregate classes, network structures and agglomerates of these units including the curious beta phase. These structures can be controlled by solvent quality, side chain branching, side chain length, molecular weight, thermal history and myriad functionalisations. These different structures have profound effects on the photophysics of the polymers at the quantitative level. Here, these properties of polyfluorenes are reviewed in detail. Copyright © 2013 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim.

Agency: Cordis | Branch: H2020 | Program: RIA | Phase: LCE-23-2016 | Award Amount: 10.00M | Year: 2016

The GEMex project is a complementary effort of a European consortium with a corresponding consortium from Mexico, who submitted an equivalent proposal for cooperation. The joint effort is based on three pillars: 1 Resource assessment at two unconventional geothermal sites, for EGS development at Acoculco and for a super-hot resource near Los Humeros. This part will focus on understanding the tectonic evolution, the fracture distribution and hydrogeology of the respective region, and on predicting in-situ stresses and temperatures at depth. 2 Reservoir characterization using techniques and approaches developed at conventional geothermal sites, including novel geophysical and geological methods to be tested and refined for their application at the two project sites: passive seismic data will be used to apply ambient noise correlation methods, and to study anisotropy by coupling surface and volume waves; newly collected electromagnetic data will be used for joint inversion with the seismic data. For the interpretation of these data, high-pressure/ high-temperature laboratory experiments will be performed to derive the parameters determined on rock samples from Mexico or equivalent materials. 3 Concepts for Site Development: all existing and newly collected information will be applied to define drill paths, to recommend a design for well completion including suitable material selection, and to investigate optimum stimulation and operation procedures for safe and economic exploitation with control of undesired side effects. These steps will include appropriate measures and recommendations for public acceptance and outreach as well as for the monitoring and control of environmental impact. The consortium was formed from the EERA joint programme of geothermal energy in regular and long-time communication with the partners from Mexico. That way a close interaction of the two consortia is guaranteed and will continue beyond the duration of the project.

Nordic Mining ASA and Institute for Energy Technology of Norway | Date: 2015-03-11

A process for alumina and carbonate production from aluminium rich materials with integrated CO_(2 )utilization, comprising: comminuting and leaching Al-rich materials in concentrated HCI; separating unreacted material from metal chloride solution; separating Al^(3+) from solution by crystallization of AlCl_(3).6H_(2)O; calcination of AlCl_(3).6H_(2)O with HCl recovery; precipitation of metal carbonates from CO_(2); regeneration of HCl and extractive amines; the Al^(3+) separation the facilitated by increasing HCl concentration; the calcination being performed in two steps, one in the range 400 and 600 C. to generate a HCl-rich gas and one above 600 C. to produce Al_(2)O_(3); for precipitating metal carbonates, mixing the metal chloride solution with an organic solution containing a selected amine and contacting the mixture with a CO_(2)-containing gas, thereby also extracting HCl by formation of an ammonium chloride salt complex; processing thermally or chemically the organic solution to regenerate the amine for recirculation.

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