Gap analysis for National Control Center (NCC) with higher level of Variable Renewable Energy (VRE) systems, and propose initial design of the new NCC for EFL

Expected Outcome: Project results are expected to contribute to all of the following expected outcomes: Measurable increase in the number of tools and solutions at district or city level that are supporting the application of circular economy models by public and private stakeholders active in the construction sector; Measurable reduction of material use and an increase of reuse and recycling in the construction sector as a result of the introduction of new and replicable business models; Measurable reduction in the energy and other resources use and the whole life-cycle GHG emissions of buildings [1] and building stock (residential and non-residential) by introducing circular economy activities at building, district and city level. Scope: Applying circularity principles in the construction sector at building, district and city level can reduce the whole life-cycle GHG emissions and support more efficient resource use of the building stock, and help deliver climate-neutral, smart and circular cities, and a more sustainable built environment. To achieve this, there is a need for tools, solutions and associated business models with market potential that facilitate the adoption of…

Expected Outcome: This topic aims at supporting activities that are enabling or contributing to the Climate-Neutral and Smart Cities Mission by accelerating the transition towards climate neutrality in cities. To this end, project results are expected to contribute to all of the following expected outcomes: Cities involved in this action advance in achieving their climate neutrality targets, reducing greenhouse gas and air pollutant emissions by improving energy efficiency in urban and sub-urban public transport systems , complemented by urban mobility service car fleets – taxis, ride-hailing, car sharing and other active and shared mobility services . Comprehensive inventory and assessment of existing instruments and measures to foster electrification and attractiveness of urban and sub-urban public transport systems , urban mobility service car fleets and shared mobility, accompanied by targeted guidance for responsible authorities, operators and providers through integration of measures to improve energy efficiency in public transport and new shared mobility services. Upscaling of innovative and sustainable integrated mobility solutions , identifying gaps and shortcomings in…

Expected Outcome: Project results are expected to contribute to all of the following expected outcomes: Measurable reduction in the costs of deep renovation compared to current best practices; Measurable increase in resource and energy efficiency compared to current best practices; Measurable reduction in the number of days when occupants are disturbed due to renovation works; Measurable reduction of dust, noise, waste and pollutant and greenhouse emissions on the construction site compared to current best practices. Scope: Meeting Europe’s ambition for the renovation of the housing stock requires innovative approaches that improve buildings’ energy performance and occupants’ satisfaction, at a reduced cost while speeding up the renovation process and minimising impact on the construction site and disturbance for occupants. Renovation approaches should cover the whole workflow from design, off-site manufacturing and on-site installation to strategies for maintenance, operation and end of life. Proposals are expected to address all of the following: Demonstrate cost-effective approaches (comprising design, planning and construction processes and techniques) for deep renovation to…

Expected Outcome: Project results are expected to contribute to all of the following expected outcomes: Based on the results of the project, at least one industrial sector with a significant heating demand in the EU and Associated Countries develops pathways and business models to measurably increase the recovery and upgrade of locally available heat for covering process needs and significantly or totally phasing out of fossil fuel use, while preserving or enhancing its global competitiveness. Measurable improvement of renewable and/or industrial excess/waste heat recovery and upgrade solutions, possibly combined with thermal and/or electrical energy storage, in terms of energy efficiency, flexibility of electrical demand, climate and environment protection, reliability and safety, physical and cyber security, and profitability. Scope: This topic aims to satisfy the need for process heat in the more industrial sectors by upgrading excess/waste heat from the process itself, possibly combined with heat recovered in nearby locations or local renewable heat, as a cost-efficient way to improve energy efficiency and reduce the GHG emissions and air pollutants and the use of fossil…

The opportunity for the Federal Aviation Administration (FAA) Center of Excellence for Alternative Jet Fuel and Environment (AJFE) was awarded in 2013 to the ASCENT cooperative aviation research organization. ASCENT is a coalition of 16 leading US research universities committed to improving the understanding of aviation noise and emissions and the modeling of aviation systems. ASCENT is co-led by Washington State University and the Massachusetts Institute of Technology (https://ascent.aero/). Any new grant opportunities under AJFE are open and available only to the university members of ASCENT.”

Expected Outcome: Successful proposals will contribute to the Circular Economy Action Plan, the Chemicals Strategy for Sustainability, the Ecodesign for Sustainable Products Regulation, the Chemical Industry Action Plan, and the Clean Industrial Deal. Projects results are expected to contribute to the following expected outcomes: Wider availability of bio-based thermoset materials meeting high technical performance requirements. Improved circularity of thermosets and downstream application(s) against specified market benchmarks taking into account production, use and EoL. Scope: Bio-based thermosets have a proven capability to achieve challenging technical performances for high demanding applications including transport, energy, electronics, among others. However, due to their cross-linking nature, the recycling of thermoset materials (including composites) is more challenging without compromising the technical performances. Thus, eco-designing bio-based thermoset materials to be both circular and high-performing remains a significant challenge in scaling-up towards competitiveness and higher sustainability. Some of the key challenges to address for bio-based thermosets include…