Burtonsville, MD, United States

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Agency: Cordis | Branch: H2020 | Program: CSA | Phase: LCE-04-2015 | Award Amount: 1.99M | Year: 2016

Europes electricity sector is in the midst of major transformation moving from public monopolies to competitive private companies in liberalized markets. The liberalization is expected to increase competition and thus increase cost-efficiency in energy production, transmission and distribution with the result of decreasing electricity prices. The efforts of Member State governments to create a more competitive and sustainable electricity sector are currently clouded by a major economic downturn in Europes economic activity. Such economic hardship often triggers reluctance to change which is becoming visible in particular in the electricity sector, where measures to protect jobs and national industry start to compete with market liberalization. The affordability of sustainable electricity is questioned. There is a strong need for innovative business models for Renewable Energy Source (RES) electricity generation in the long and mid-term because support schemes will fade out in the long term pushing renewables on the market at no marginal costs which then in particular for strongly correlated generation as wind and PV leads to price deterioration during production hours. Already today many Member States have drastically reduced measures to further support the development of the RES sector, so that new investment is not possible without tapping new revenues with new business. The aim of the BestRES project is to identify best practices business models for renewable electricity generation in Europe and to improve these further taking into account new opportunities and synergies coming along with changing market designs in line with the EU target model. Business models investigated in this project shall make use of the aggregation of various renewable sources, storage and flexible demand. The improved business models will be implemented during the project in real-life environments, depending on the market conditions, to proof the soundness of the developed concept.

Agency: Cordis | Branch: H2020 | Program: IA | Phase: LCE-03-2015 | Award Amount: 26.52M | Year: 2016

Offshore wind business competitiveness is strongly related to substructures and offshore logistics. DEMOGRAVI3 addresses these areas through a very promising solution called GRAVI3. GRAVI3 is an innovative hybrid steel-concrete offshore sub-structure for transitional water depths between 35 and 60m. It will sustainably reduce the levelized cost of energy by up to 15% by combining the following vectors: - Using three concrete caissons, with water ballast, instead of more complex and costly steel solutions and anchoring systems - Using a smaller steel structure - Performing all construction and assembly onshore and towing the complete unit to the site where it is submerged with an innovative and robust method. - Preventing the use of heavy lift vessels and reducing the level of complexity and risk of offshore operations. GRAVI3 has undergone the typical technology development process and is presently at TRL5. The logical next steps is the demonstration at full scale in real operational conditions. Thus, the project fits perfectly to the addressed Call for Proposals as the project will support technology development and bring the technology close to market readiness. The proposed project will design, engineer, build, assemble, transport, install and demonstrate a full scale foundation, equipped with a 2 MW offshore wind turbine, in a consented and grid connected demonstration site. Additionally, the project will undertake further technology development for improved design and perform an in depth evaluation of the technologys future industrialization, competitiveness and bankability. The core partners are committed to bring the GRAVI3 technology to market intending to 1) form a company with the objective to commercialize the GRAVI3 technology; 2) prepare themselves to take on important segments of the industrial value chain which will be put in place to move the GRAVI3 product forward; 3) foster the use of the technology, namely in the wind farms they are developing.

InteGrids vision is to bridge the gap between citizens, technology and the other players of the energy system. The project will demonstrate how DSOs may enable all stakeholders to actively participate in the energy market and distribution grid management and develop and implement new business models, making use of new data management and consumer involvement approaches. Moreover, the consortium will demonstrate scalable and replicable solutions in an integrated environment that enables DSOs to plan and operate the network with a high share of DRES in a stable, secure and economic way, using flexibility inherently offered by specific technologies and by interaction with different stakeholders. To achieve these objectives, a complementary partnership covering the distribution system value chain has been established. The consortium includes three DSOs from different countries and their retailers, innovative ICT companies and equipment manufacturers as well as customers, a start-up in the area of community engagement and excellent R&D institutions. InteGrids concepts and approaches are based on the these two elements: 1. the role of the DSO as system optimiser and as market facilitator and 2. the integration of existing demonstration activities in three different regions allowing to move from single solutions to an integrated management at a higher scale while focusing on the scalability and replicability considering current and evolving market (and regulatory) conditions. The three conceptual pillars proactive operational planning with DER, business models for flexible DER, information exchange between different power system actors offer an opportunity to maximize the economic, societal and environmental gains from the combined integration of DRES and flexible DER. A market hub platform coupled with smart grid functions and innovative business models will open opportunities for new services and an effective roll-out of emerging technologies in the short-term.

New Energy Technologies | Date: 2014-01-17

An adaptive, low-impact vehicle energy harvester system, and a method of harvesting vehicle energy, is provided. The system includes a plurality of channels disposed longitudinally in a trafficway, wherein each of the plurality of channels includes one or more compressible, elongated hollow bodies such that a movement of a vehicle along the trafficway causes contents in the elongated hollow bodies to be expelled from one end, a motor in communication with the hollow bodies such that the contents expelled from one end of the hollow bodies actuate the motor, and a control unit that varies a resistance to the movement of the contents in the elongated hollow bodies based on at least one of a mass of the vehicle, a velocity of the vehicle, and a rate of change of velocity of the vehicle.

New Energy Technologies | Date: 2014-07-11

A vehicle energy harvesting roadway is provided. The vehicle energy harvesting roadway includes a deformable driving surface that is longitudinally flexible and transversely stiff. The deformable driving surface is disposed between a passing vehicle and one or more transducers or one or more compressible hoses.

A general method for the fabrication of three-dimensional objects of arbitrary shapes coated in organic optoelectronic devices, including semitransparent objects and optoelectronic devices, is described. In particular, a method for fabricating curved objects coated in organic photovoltaic, and especially semitransparent photovoltaic, devices is presented. High-throughput and low-cost fabrication options also allow for economical production.

A variety of methods for fabricating organic photovoltaic-based electricity-generating military aircraft windows are described. In particular, a method for fabricating curved electricity-generating military aircraft windows utilizing lamination of highly flexible organic photovoltaic films is described. High-throughput and low-cost fabrication options also allow for economical production.

An electricity-generating coating for commercial aircraft window surfaces and methods for fabricating organic photovoltaic-based electricity-generating aircraft fuselage surfaces are provided. The coating includes a conformal organic photovoltaic device having one or more cells connected in series and/or parallel, adhered to an aircraft window surface, along with wires and power electronics such that the coating provides electricity for mission-critical systems and/or maintenance loads on-board the aircraft.

Flexible transparent conductive films, flexible OPV devices, and semitransparent flexible OPV devices, and methods for the fabrication of flexible transparent conductive films, and the use of those films in fabricating flexible OPV devices, and semitransparent flexible OPV devices are presented. High-throughput and low-cost fabrication options also allow for economical production.

A method for fabricating organic photovoltaic-based electricity-generating military pilot equipment, including flight suits, helmets, helmet visors, and related equipment is described. In particular, a method for fabricating such equipment utilizing lamination of highly flexible organic photovoltaic films is described. High-throughput and low-cost fabrication options also allow for economical production.

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