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Le Programme Energie
Horizon 2020
13 Octobre 2017, Lyon
Journée Ambition Europe
ERC(13,1 Mds€)
Actions Marie Sklodowska-Curie
(6,2 Mds€)
FET(2,7 Mds€)
Infrastructures(2,5 Mds€)
24,4 Mds€
Excellence scientifique
cv
TIC(7,6 Mds€)
NMP + Biotechs(4,3 Mds€)
Espace(1,7 Mds€)
Accès au financement à risque
(2,8 Mds€)
Innovation PME(0,6 Md€)
17 Mds€
Primauté industrielleSanté, bien être et vieillissement
(7,5 Mds€)
29,7Mds€
Sécurité alimentaire, bioéconomie(3,9 Mds€)
Energies sûres, propres, efficaces(5,9 Mds€)
Transport intel., verts, intégrés(6,3 Mds€)
Climat, env., matières premières(3,1 Mds€)
Sociétés inclusives et novatrices(1,3 Md€)
Sociétés sûres(1,7 Md€)
Défis sociétaux
L’Energie dans Horizon 2020
Institut européen d’innovation et de technologie (EIT)
Centre de recherche commun (JRC)
Diffusion de l’excellence et élargissement / Science
Euratom
ENR (PV, Wind…)RéseauStockageBiocarburantsMarket-uptake
MatériauxEeB
5,9 G€ = 7,7 %
85 % dédiés à la recherche sur les énergies non fossiles
2
Résultats des
appels 2014-2015-2016
(Base eCorda Fev2017)
13 octobre 2018, Lyon
Journée Ambition Europe
4
Programme Energie :bénéficiaires européens (Top 50)
= 7% du
budget
5
Programme Energie :bénéficiaires français (Top 30)
Subvention perçue par bénéficiaire (M€) + Nombre de participation par bénéficiaire
= 42% du
budget FR
6
295 Participations FR
Subvention UE (167 M€)
Participations FR
Subvention perçues FR
~4 700 Participations
Subvention UE (2 G€)
Programme Energie :Participation par type d’organisation
Subvention perçues UE Subvention perçues FR
Participations FRParticipations UE
34%
33%
26%
29%
7
Subvention reçue par Pays
Moyenne UE = 14%
Work programme 2018-2020
8~2,6 G€ ~2,4 G€
Les AAP Energie pour 2018
13 octobre 2018, Lyon
Journée Ambition Europe
Focus Areas in the Work Programme 2018-2020
• Building a low-carbon, climate resilient future
• =LC
• Digitising and transforming European industry and services
• =DT
• Connecting economic and environmental gains –the Circular Economy
• = CE
• Boosting the effectiveness of the Security Union
• = SU
Le programme Energie 2018-2020
Appels « Energy efficiency »
• Réduction de l’utilisation de l’énergie et décarbonisationdans les batiments
• Atteindre les objectifs définis par l’Europe en terme de climat et énergie
• Réduction des coûts pour consommateurs
• Réduction de la dépendance énergétique
• Développement des infrastructures intelligentes et durables
Calls Energy efficiency - 2018
TYPE / GOAL Project/Total
LCE-SC3-EE-1-2018-2019(PPP EEB)
Building renovation
IATRL 8-9
3-4/9 M€12 M€
LCE-SC3-EE-6-2018-2019-2020(PPP SPIRE)
Industrial wasteheat/cold
IA en 2018 - TRL 4-8CSA en 2019
3-4 / 9 M€1-2 / 10 M€
Ouverture = 24 Janv. 2018; clôture = 4 Sept 2018
Ouverture = 25 janv 2019 ; clôture : 3 sept 2019
LCE-SC3-EE-1-2018-2019 : Decarbonisation of the EU building stock: innovative approaches and affordable solutions changing the market for buildings renovation
Challenge
Couverture de la chaine de valeur complète et des acteurs (conso + professionnels) du bâtiment pour atteindre haut niveau de confort et de qualité intérieurs
Scope
demonstrate solutions addressing building fabric and/or technical systems. innovations in technology and in design and construction methods. innovations in business models and the holistic integration of disciplines across the value chain. consider building-level heating and cooling systems and integration of on-site renewable energy
generation, energy storage systems. address drivers of building renovation consider further development and improvement of hybrid energy systems monitoring and displaying of real time energy performance and other relevant data (involvement of
consumers) ensure high levels of occupant comfort (thermal, visual and acoustic) and indoor environmental quality
(e.g. air quality, humidity) if possible based on bio-based materials demonstrate solutions that aim for large scale roll-out according to defined business models and financial
schemes for owners.
IA – 04/09/18
LCE-SC3-EE-1-2018-2019 : Decarbonisation of the EU building stock: innovative approaches and affordable solutions changing the market for buildings renovation
Impactsdemonstrate the impacts listed below using quantified indicators and targets
Primary energy savings triggered by the project (in GWh/year); Investments in sustainable energy triggered by the project (in million Euro); High energy performance in the renovated buildings; Measurable cost reduction compared with a typical renovation (i.e. a renovation that meets
current minimum requirements of existing building regulations) or major energy performance improvement at comparable cost;
Reduction of time needed on site for renovation works by 20% compared to current national standard practice;
Demonstration of the effectiveness and replicability of the proposed solutions to lead to an increased rate of renovation for defined building typologies in several districts/cities/regions.
Additional positive effects can be quantified and reported when relevant and wherever possible: Reduction of the greenhouse gases emissions (in tCO2-eq/year) and/or air pollutants (in kg/year)
triggered by the project.
LCE-SC3-EE-6-2018-2019 : Business case for industrial excess heat/cold recovery
Challenge
Resource and Energy Intensive Industries (REII) : lost in the form of waste heat/cold by gas, liquid or solid streams.
Lack of financial/ economic justification for the required equipment and, at times, by the limited industrial applicability (i.e. process re-integration)
the sources of heat/cold losses industry can be a valuable resource for other industries and buildings/
IA – 04/09/18
LCE-SC3-EE-6-2018-2019 : Business case for industrial excess heat/cold recovery
Scope
develop integrated cost-benefit simulation tools to determine the best utilisation options of recovered waste heat/cold and/ or surplus renewable energy from industrial and eventual other sources (when available).
contribute to efficient use/system integration of renewable energy sources through e.g. heat/cold storage and flexible production.
to determine the most financial attractive option based on recovery costs, retail and/ or whole sale energy prices, administrative and legal costs, infrastructure costs, internal and external demand, waste heat/cold as source of flexibility in electricity system.
The simulation tools are expected to be flexible enough to allow a large number of different types of industrial sites/ parks
The simulation tools should be validated through demonstration in real operating conditions in industrial facilities.
Proposals are expected to include clear business model development and a clear path to finance and deployment.
relevant business models for the collaboration outside the plant/industrial park
LCE-SC3-EE-6-2018-2019 : Business case for industrial excess heat/cold recovery
Impactsdemonstrate the impacts listed below using quantified indicators and targets
Accurate prediction and holistic modelling of industrial waste heat/cold and/or surplus renewable energy from industrial or other sources from different geographical and market settings;
Better impact of the various factors/ variables on the cost-benefits of industrial waste heat/cold and/or surplus renewable energy from industrial or other sources;
Valorisation in assessments of cost-benefit of industrial waste heat/cold and/or surplus renewable energy from industrial and eventual other sources;
Number of industrial sectors/ sites/ parks, public authorities (including energy agencies), large private facilities (e.g. sport and shopping centres, non-energy intensive industrial parks) and DHC operators aware, interested and supporting the implementation of waste heat/cold and/or surplus renewable energy from industrial and eventual other sources recovery/use for process re-integration or commercial use, depending on the outcome of the simulations;
Primary energy savings triggered by the project (in GWh/year); Investments in sustainable energy triggered by the project (in million Euro). Additional positive effects can be quantified and reported when relevant and wherever possible: Reduction of the greenhouse gases emissions (in tCO2-eq/year) and/or air pollutants (in kg/year)
triggered by the project.
Principaux calls 2018 : NMBP
TYPE/GOAL Project/Total
LC-EeB-02-2018 Building information modelling adapted to efficient renovation
RIA/ 6 5-7/
Ouverture = 2/5/2018 ; clôture = 6/9/2018
LC-EeB-02-2018: Building information modelling adapted to efficient renovation (RIA)Challenge
- To offer easy, practical, operational tools for all stakeholders, including constructing companies, designers, architects and service companies, for existing buildings.
- To produce compatible tools that would allow collecting of data from existing buildings (e.g. geometric data) and exploit data from different sources.
- Providing methods and tools to generate data for existing buildings. (Residential)
Scope
ALL of the following: To harmonise and provide common data exchange formats regarding the components and
equipment of a building Should include existing parameters, as well as the environmental and GIS data. Be flexible in coupling the overall BIM system with other additional types of models, Be flexible to adapt to work planning, Allow the development of applications to benefit from inputs of inhabitants. cooperation with standardisation bodies is required in order to validate the new BIM tools. Should include actions designed to facilitate cooperation with other projects; to enhance
user involvement; and to ensure the accessibility and reusability of data produced in the course of the project
LC-EeB-02-2018: Building information modelling adapted to efficient renovation (RIA)
Impacts
ALL the following:
A reduction of the renovation working time of at least 15 -20 % compared to current practices with the baseline defined in the proposal.
Acceleration of the market uptake by speeding-up industrial exploitation, in particular amongst constructing/ renovations companies with a target of 50% of their renovation business based on BIM.
Creation of best practice examples for the construction retrofitting sector with benefits for the operators and associated stakeholders (architects, designers, planners, etc.)
Relevant indicators and metrics, with baseline values, should be clearly stated in the proposal
Appels «Renewable Energy Solutions»
• Identification d’innovations technologiques dans le domaine des énergies renouvelables
• Des solutions moins couteuses
• Plus compétitives
• Prise en compte des besoins des consommateurs
• Applications dans les bâtiments et transports
Calls Renewable Energy Solutions - 2018
Ouverture = 5/12/2017 clôture 19/04/2018TYPE / GOAL Project/Total
LCE-SC3-RES-2-2018 Disruptive innovation RIA / 3-5 2-3 / 12 M€
LCE-SC3-RES-4-2018 ENR integrated in Building RIA / 3-5 2-5 / 27 M€
Ouverture = 31/10/2017 ; clôture 31/1/2018 + 23/8/2018
LCE-SC3-RES-5-2018 Local H&C solutions IA/6-7 3-10 / 10M€
LCE-SC3-RES-6-2018 Cost reduction for BIPV IA/6-7 6-10 / 30M€
LCE-SC3-RES-12-2018 Demonstration CHP IA/ 7-8 15-20 / 30 M€
LCE-SC3-RES-13-2018 Reduce cost of power generation
IA/ 7 15-20 / 45 M€
LCE-SC3-RES-21-2018 Biofuel for transport RIA / 5 3-5 / 25 M€
Ouverture = 31/10/2017 ; clôture 13/2/2018
LC-SC3-RES-2-2018: Disruptive innovation in clean energy technologies
Challenge
2 specific fields : to develop efficient fully transparent photovoltaic (PV) cells that only absorb light in the non-
visible part of the spectrum. to enable production of sufficient quantities of liquid fuels that do not compete with food
for land, do not displace land uses, are cost competitive to fossil fuels and substantially reduce greenhouse gas emissions.
Scope
1 of the following sub-topics : Photovoltaic windows ('transparent' solar cells): development of transparent and
economically viable PV cells for integration in building applications.
Bionic leaf technology: advanced renewable fuel production through biological conversion of CO2 and renewable hydrogen in the presence of inorganic catalysts
TRL 3 à 5
RIA – 19/04/18
LC-SC3-RES-2-2018: Disruptive innovation in clean energy technologies
Impacts
PV windows : Significant market potential To be fitted to existing buidings cut down on air conditioning needs, further reducing energy use and operating costs in
buildings.
Bionic leaf technology : Significant market potential and environmental impact enable development of sustainable fuel for transport that will completely replace fossil fuels
and their best alternatives Improve Europe’s energy security and create economic growth
LC-SC3-RES-4-2018: Renewable energy system integrated at the building scale
Challenge
Solutions that integrate several technologies based on one or more renewable energy sources should be made available
Highest possible share of renewable energy should be achieved. Due consideration of the implications for the user and a proper assessment of the cost-
effectiveness
Scope
Combination of different renewable energy technologies to cover the highest possible shareof electricity, heating and cooling needs of a multi-family residential or commercial or public or industrial building
Needs and requirements of users and installers shall be taken into account Relevant expertise in terms of social sciences and humanities has to be included in the
consortium Attention should be paid to reducing emissions of air pollutants
TRL3-4 à 4-5
RIA – 31/01/18
LC-SC3-RES-4-2018: Renewable energy system integrated at the building scale
Impacts
Reduction of the dependence on fossil fuels for providing electricity, heating and cooling in buildings.
Cost competitiveness with traditional solutions to be achieved by 2025
LC-SC3-RES-5-2018: Increased performance of technologies for local heating and cooling solutions
Challenge
to make existing technologies more performant and more cost-efficient and attractive for the market
innovation in resource mapping, monitoring and control tools to improve the design and the operation of heating and cooling systems thus reducing investments and operation costs and increasing the systems' performance
Scope
One or more of the following aspects:
o Optimisation of the different components of a renewable heating and cooling system;
o Development of tools and systems to optimize the design and monitoring of the different components of a heating and cooling system;
o Development of integrated control systems for the smart operation of a heating and cooling system.
to supply heating and cooling in residential and small and larger commercial buildings
TRL 5-6 à 6-7
IA – 13/02/18
LC-SC3-RES-5-2018: Increased performance of technologies for local heating and cooling solutions
Impacts
Leading to :
o either a significant performance increase, in the order of 10-20%, in terms of available heat/cold
o or a reduction in the investment and operation costs
o or to a combination of both aspects,
o reducing the dependence on fossil energy for heat and cooling in buildings.
LC-SC3-RES-6-2018: Demonstrate significant cost reduction for Building Integrated PV (BIPV) solutions
Challenge
Need to satisfy multiple building functions + architectural and aesthetic considerations
Need to consider a control system for building management functions, grid-feeding, self-consumption and local storage
Scope
a) new BIPV product concepts to meet these requirements and cost-efficient production techniques reducing their additional cost by 75% by 2030 compared to 2015 levels
and
b) demonstration of these concepts into a BIPV energy system that guarantees the building functionalities and energy needs on a life-cycle basis
TRL 5-6 à 6-7
IA – 13/02/18
LC-SC3-RES-6-2018: Demonstrate significant cost reduction for built-in PV solutions
Impacts
To contribute to :
o the implementation of policies towards Zero-Energy Buildings
o the creation of new opportunities and the diversification of the European PV manufacturing industry, by achieving a substantial reduction of the BIPV costs
Others
Proposals will involve : o multidisciplinary consortia including the PV manufacturing industry. o The building materials industry, certification bodies and market actors who are committed
to adopting/implementing the results where relevant.
Proposals will also address standardization issues.
LC-SC3-RES-12-2018: Demonstrate highly performant renewable technologies for heat and power generation and their integration in the EU's energy system
Challenge
• Improvement of individual technologies performance of CHP• Integration of CHP into the energy system
Scope
One of the following sub-topics :
a) Demonstration (technically & cost-effective) = retroffiting of existing fossil-fuel driven or power plants (>10MW electrical) into a medium to large scale CHP using sustainaiblebiomasso Overall cost benefits over new biomass-based CHPo At least state-of-the-art for continuous operationo Prove advances in combustion emission reductiono Commercial operation after the end of the project
b) Propose technologies for more flexible geothermal plants and/or more efficient geothermalplant with or without associating renewable heat sources or storage
TRL 5 à 7-8
IA – 13/02/18
LC-SC3-RES-12-2018: Demonstrate highly performant renewable technologies for heat and power generation and their integration in the EU's energy system
Impacts
• Reduce the cost of combined heat/power generation from renewable (making it competitive to fossil fuel solutions)
• Leading to commercial industrial projectso EU industrial capacityo Lower installation cost
• Decarbonisation of power/heat sector
LC-SC3-RES-13-2018: Demonstrate solutions that significantly reduce the cost of renewable power generation
Challenge
• Bringing the cost of electricity generation from Offshore wind, deep geothermal or CSP to a competitive level allowing their penetration in the EU energy mix
Scope
One of the following sub-topics :
a) Offshore Wind = Development and validation of :o New manufacturing techniqueso Installation and/or operation & maintenance techniqueso Introduction of new materialso The whole value chain (dismantling, recycling, retroffiting) will be involved
b) Deep geothermal = Demonstration of cost efficient technologies too Limit the emissions and/or to condense and re-inject gases
c) CSP = Demonstration on the operational environmento Novel heat transfer fluidso And/or solution of innovative use of heat transfer fluid already used in CSP
IA – 13/02/18
LC-SC3-RES-13-2018: Demonstrate solutions that significantly reduce the cost of renewable power generation
Impacts
Successful demonstration of the proposed solutions making electricity generation capable to compete in the electricity market
LC-SC3-RES-21-2018: Development of next generation biofuels and alternative renewable fuel technologies for road transport
Challenge
Increasing the competitiveness of next generation biofuel while diversifying the fuel supplypathway
Scope
Next generation non-food/feed drop-in biofuel for energy & transportImproving substantially beyond the state-of-the-art :
o the performance (conversion efficiency)o The costo The feedstock supplyo End use compatibility
One of the following sub-topics :• Liquid diesel and gasoline-like biofuels from biogenic residues and wastes <= either chemical,
biochemical, thermochemical pathways (or combination)
• Liquid gasoline-like biofuels through biogenic upgrading of biogas
TRL 3-4 à 5
RIA – 13/02/18
LC-SC3-RES-21-2018: Development of next generation biofuels and alternative renewable fuel technologies for road transport
Impacts
Reducing costs and improve performance (efficiency, environment, society) of biofuelStrengthening the EU leadership in this area
Calls Energy System - 2018
Ouverture = 5/12/2017 clôture 05/04/2018
TYPE / GOAL Project/Total
LCE-SC3-ES-3-2018-2020 Energy islands IA / 8 5-6 / 26 M€
LCE-SC3-ES-5-2018-2020 TSO-DSO-Consumer : demonstration
IA / 8 13-17 / 30 M€
LC-SC3-ES-3-2018-2020: Integrated local energy systems (Energy islands)
Challenge
• Decarbonising local energy systems (including saving energy and improvement of local air quality and the acceptance by citizens) on the mainland
• Storage of all energy vectors, (including electric vehicles), and intensive use of the latest technologies on power electronics, control and digitization.
• Boost local energy sources and activate local demand-response.
Scope
• develop and demonstrate solutions which analyse and combine, in a well delimited system, all the energy vectors that are present and interconnect them where appropriate.
• preliminary analysis of the local case and propose to develop solutions and tools for the optimisation of the local energy network, but having a high replication potential across Europe.
• Involvement of Local consumers, small to medium industrial production facilities and commercial buildings,
• international cooperation is encouraged, in particular with India.
LC-SC3-ES-3-2018-2020: Integrated local energy systems (Energy islands)
Impacts
• validate solutions for decarbonisation of the local energy system and a positive impact on the centralised energy infrastructure, on the local economy and local social aspects;
• enhance the involvement of local energy consumers and producers, and test new business models;
• validate approaches to safe and secure local energy system that integrates significant shares of renewables ;
• benchmark technical solutions and business models that can be replicated in many local regions and that are acceptable by local citizens.
• Identify and substantiate to which of the above impacts they contribute and include ad-hoc indicators to measure the progress against specific objectives of their choice
LC-SC3-ES-5-2018-2020 TSO – DSO – Consumer: Large-scale demonstrations of innovative grid services through demand response, storage and small-scale (RES) generationChallenge
• balancing, congestion management and ancillary services from assets connected to the network both at transmission and at distribution level, based on cooperation among them.
• more efficient and effective network management and optimisation, for the benefit of increased demand response and the ability to integrate increasing shares of renewables.
Scope
. The markets and platforms should enable the integration of relevant digital technologies like Internet-of-Things, Artificial Intelligence, cloud and big data services. • define and test in real-life demonstrations of integrated system-based markets and platforms for (a set of)
grid services that can be used and procured by DSOs and TSOs in a coordinated manner, in markets that they jointly set up in a way that: o will lead to the development of a seamless pan-European electricity market o enables TSOs and DSOs to give incentives to connected consumers, buildings, devices (including
small-scale generation) to improve predictability and anticipate problems, based on jointly developed grid-models;
• Defines and tests :1) standardised products and key parameters for grid services; 2) the activation process for the use of assets for network services; 3) the settlement process for payment related to the services;
LC-SC3-ES-5-2018-2020 TSO – DSO – Consumer: Large-scale demonstrations of innovative grid services through demand response, storage and small-scale (RES) generation
Scope
• facilitates scaling up the platforms and markets to spread its wider use and to increase liquidity• allows procurement based on the specific location and grid conditions (if necessary);
Selected projects also will: • Define the needs of network operators for system operation, and turn these into services and products
• Test the needs of network operators and technological capabilities of the assets,
• Identify the relevant system data that enable market participants to better assess and forecast the need for grid services and publish such data (as much as possible);
• Test innovative ways to promote consumer participation, engagement and perception, such as peer-to-peer trading, and innovative ways to reduce transaction costs, such as via distributed ledgers (blockchain);
• investigate the possibilities for innovative pricing and compensation (including through local markets) for consumers that provide the grid services
In relation to the organisation, selected projects are encouraged to: o Make use of cascading funds for the incorporation of developers of innovative energy services (in particular
for household consumers) by SME’s. o Coordinate their work with NRA's, ENTSO-E, the DSO organisations and other stakeholders and take into
account the experience from other projects through cooperation in the Bridge initiative and work with the Digitisation of Energy Projects
LC-SC3-ES-5-2018-2020 TSO – DSO – Consumer: Large-scale demonstrations of innovative grid services through demand response, storage and small-scale (RES) generation
Impacts
• Contribute to a smart, secure and more resilient energy system through demonstrating cost-efficient model(s) for electricity network services that can be scaled up to include networks operated by other TSOs and DSOs,
• Replicable across the EU energy system
• Provide the foundations for new network codes, particularly on demand-response.
• Contribute to opening up significant new revenue streams for consumers to provide grid services, and increase the share of RES in the electricity system.
Défi à relever
Réf. du sujetEt réf. de l ’appel
Périmètre
Impact attendu
Type of action = Schémas de financement
Un appel dans le programme de travail
+ informations sur le budget disponible + la date limite pour soumettre une proposition
Indication du budget du projet
16/10/2017 44
Indication des TRLs
EnergieLC-SC3-EE-1-2018-2019-2020: Decarbonisation of the EU building stock:
innovative approaches and affordable solutions changing the market for buildings
renovation
Specific Challenge: The market for deep renovation of buildings needs to be
transformed in terms of technologies, processes and business models. The multiple
benefits of improved energy efficiency are well known, but more action is needed
for Europe to achieve the higher rates of renovation that would reduce energy
use and decarbonize the building stock in order to meet long-term climate and
energy targets. In particular, deep renovations need to become more attractive
to all relevant stakeholders, more reliable in terms of performance, less
disruptive for occupants (especially in residential buildings), less time-
consuming, less energy-intensive from a life cycle perspective, more
environmentally friendly regarding applied materials and more cost-effective.
There is a need to demonstrate and roll out holistic consumer-centred solutions
that involve the whole value chain, ensuring high levels of comfort and a high
quality of the indoor environment. It is expected that this topic will continue in 2020.
EnergieScope: Proposals should demonstrate solutions of building fabric and/or systems that ensure
faster and more cost-effective deep renovations that result in high energy performance.
Proposals should include innovations in technology and in design and construction methods
with low embodied energy and on-site works organisation, industrialization and lowering cost
of energy retrofitting and they should take into account any architectural constraints. They
should also include innovations in business models and the holistic integration of disciplines
across the value chain. Proposals should also consider energy efficient and low carbon
solutions to retrofit building-level heating and cooling systems and the integration of on-site
renewable energy generation, energy storage systems which allow for optimisation and
flexible consumption, and, if relevant, integration with district heating and cooling systems.
Proposals could address drivers of building renovation that go beyond a desire to reduce
energy consumption and related energy costs. For example, decisions to renovate may
sometimes coincide with structural repairs. They could also consider further development and
improvement of hybrid energy systems using fossil fuel based heating systems coupled with
RES based heating systems as well as the integration of highly-efficient buildings and local
energy system solutions such as District Heating and Cooling, including hybrid solutions.
EnergieSolutions should include quick and simple installation of components and systems,
minimizing disruption for building occupants and the time spent on site. Proposals
should include monitoring and displaying of real time energy performance and other
relevant data and consider the ways in which consumers and others could access and
make use of such information. Solutions should ensure high levels of occupant
comfort (thermal, visual and acoustic) and indoor environmental quality (e.g. air
quality, humidity) if possible based on bio-based materials, as well as low risk of
moisture-related problems, summer overheating and other harmful unintended
consequences, and should address the multiple benefits of energy efficiency.
Proposals should demonstrate solutions that aim for large scale roll-out according to
defined business models and financial schemes for owners.
Energie
Projects are expected to bring the technology to TRL level 8-9 (please see part
G of the General Annexes).
This topic will contribute to the PPP on Energy-efficient Buildings.
The Commission considers that proposals requesting a contribution from the EU
of between EUR 3 and 4 million would allow this specific challenge to be
addressed appropriately. Nonetheless, this does not preclude submission and
selection of proposals requesting other amounts.
Energie
Expected Impact: Proposals are expected to demonstrate the impacts listed below
using quantified indicators and targets wherever possible:
- Primary energy savings triggered by the project (in GWh/year);
- Investments in sustainable energy triggered by the project (in million Euro);
- High energy performance in the renovated buildings;
- Measurable cost reduction compared with a typical renovation (i.e. a renovation
that meets current minimum requirements of existing building regulations) or major
energy performance improvement at comparable cost;
- Reduction of time needed on site for renovation works by 20% compared to
current national standard practice;
- Demonstration of the effectiveness and replicability of the proposed solutions to
lead to an increased rate of renovation for defined building typologies in several
districts/cities/regions.
Type of Action: Innovation action
Pour vous aider :les Points de contact nationaux (PCN)
• Pascal Newton (MESRI & RCP) Coordinateur
• Michel Viktorovitch (METS/DGEC & RCP)
• Grégoire Postel-Vinay (MEIN)
• Michel Pasquier (METS/CGDD)
• David Argenti (Université Grenoble Alpes)
• Marie-Cécile Barras (Insavalor)
• Michel Pons (CNRS)
• Miguel-Angel Ayllon (Université de Pau)
• Argyro Karathanou (Université Bourgogne/Franche Comté)
• Nicolas Dupuy (Université de Lorraine)
Co
nso
rtiu
m d
u P
CN
En
erg
ie
Déposants potentiels publics et privés
français
INFORMENThttp://www.horizon2020.go
uv.fr/cid73963/le-point-
contact-national-
energie.html
16/10/2017 51
http://www.horizon2020.gouv.fr/cid77777/recherches-partenaires-
offres-competences-energie.html
Trouver un partenaire (site français)
16/10/2017 52
Trouver un partenaire (site européen)
http://c-energy2020.eu/
16/10/2017 53
Trouver un partenaire :Nouvel outil sur le Participant Portal
https://ec.europa.eu/research/partici
pants/portal/desktop/en/organisation
s/partner_search.htmlhttp://c-
energy2020.eu/
16/10/2017 54
Trouver un partenaire :Nouvel outils sur le Participant Portal
Devenez expert-évaluateur
http://ec.europa.eu/research/participants/portal
