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Horizon 2020: SOCIETAL CHALLENGES - Secure, clean and efficient energy



Horizon 2020: SOCIETAL CHALLENGES - Secure, clean and efficient energy

Strategic Objectives: 

Specific objective

The specific objective is to make the transition to a reliable, affordable, publicly accepted, sustainable and competitive energy system, aiming at reducing fossil fuel dependency in the face of increasingly scarce resources, increasing energy needs and climate change.

The Union intends to reduce greenhouse gas emissions by 20 % below 1990 levels by 2020, with a further reduction to 80-95 % by 2050. In addition, renewables should cover 20 % of final energy consumption in 2020 coupled with a 20 % energy efficiency target. Achieving these objectives will require an overhaul of the energy system combining low carbon profile and the development of alternatives to fossil fuels, energy security and affordability, while at the same time reinforcing Europe's economic competitiveness.

Europe is currently far from this overall goal. 80 % of the European energy system still relies on fossil fuels, and the sector produces 80 % of all the Union's greenhouse gas emissions. With a view to achieving the Union's long-term climate and energy objectives, it is appropriate to increase the share of the budget dedicated to renewable energy, end-user energy efficiency, smart grids and energy storage activities as compared to the Seventh Framework Programme, and increase the budget dedicated to market uptake of energy innovation activities undertaken under the Intelligent Energy Europe Programme within the Competitiveness and Innovation Framework Programme (2007 to 2013). The total allocation to these activities shall endeavour to reach at least 85 % of the budget under this societal challenge. Every year 2,5 % of the Union GDP is spent on energy imports and this is likely to increase. This trend would lead to total dependence on oil and gas imports by 2050. Faced with volatile energy prices on the world market, coupled with concerns over security of supply, European industries and consumers are spending an increasing share of their income on energy. European cities are responsible for 70-80 % of the total energy consumption in the Union and for about the same share of greenhouse gas emissions.

The Roadmap for moving to a competitive low-carbon economy in 2050 suggests that the targeted reductions in greenhouse gas emissions will have to be met largely within the territory of the Union. This would entail reducing CO2 emissions by over 90 % by 2050 in the power sector, by over 80 % in industry, by at least 60 % in transport and by about 90 % in the residential sector and services. The Roadmap also shows that inter alia natural gas, in the short to medium term, can contribute to the transformation of the energy system, combined with the use of carbon capture and storage (CCS) technology.

To achieve these ambitious reductions, significant investments need to be made in research, development, demonstration and market roll-out at affordable prices of efficient, safe, secure and reliable low-carbon energy technologies and services, including gas, electricity storage and the roll-out of small and micro-scale energy systems. These must go hand in hand with non-technological solutions on both the supply and demand sides, including by initiating participation processes and integrating consumers. All this must be part of an integrated sustainable low-carbon policy, including mastering key enabling technologies, in particular ICT solutions and advanced manufacturing, processing and materials. The goal is to develop and produce efficient energy technologies and services, including the integration of renewable energy, that can be taken up widely on European and international markets and to establish intelligent demand-side management based on an open and transparent energy trade market and secure intelligent energy efficiency management systems.

Rationale and Union added value

New technologies and solutions must compete on cost and reliability against energy systems with well-established incumbents and technologies. Research and innovation are critical to make these new, cleaner, low-carbon, more efficient energy sources commercially attractive on the scale needed. Neither industry alone, nor Member States individually, are able to bear the costs and risks, for which the main drivers (transition to a low-carbon economy, providing affordable and secure energy) are outside the market.

Speeding up this development will require a strategic approach at Union level, spanning energy supply, demand and use in buildings, services, domestic use, transport and industrial value chains. This will entail aligning resources across the Union, including Cohesion Policy Funds, in particular through the national and regional strategies for smart specialisation, emission trading schemes (ETS), public procurement and other financing mechanisms. It will also require regulatory and deployment policies for renewables and energy efficiency, tailored technical assistance and capacity-building to remove non-technological barriers.

The Strategic Energy Technology Plan (SET Plan) offers such a strategic approach. It provides a long-term agenda to address the key innovation bottlenecks that energy technologies are facing at the frontier research and R&D/proof-of-concept stages and at the demonstration stage when companies seek capital to finance large, first-of-a-kind projects and to open the market deployment process. Newly emerging technologies with disruptive potential will not be neglected.

The resources required to implement the SET Plan in full have been estimated at EUR 8 billion per year over the next 10 years (12). This is well beyond the capacity of individual Member States or research and industrial stakeholders alone. Investments in research and innovation at Union level are needed, combined with mobilisation of efforts across Europe in the form of joint implementation and risk and capacity sharing. Union funding of energy research and innovation shall therefore complement Member States' activities by focusing on cutting-edge technologies and activities with clear Union added value, in particular those with high potential to leverage national resources and create jobs in Europe. Action at Union level shall also support high-risk, high-cost, long-term programmes beyond the reach of individual Member States, pool efforts to reduce investment risks in large-scale activities such as industrial demonstration, and develop Europe-wide, interoperable energy solutions.

Implementation of the SET Plan as the research and innovation pillar of European energy policy will reinforce the Union's security of supply and the transition to a low-carbon economy, help to link research and innovation programmes with trans-European and regional investments in energy infrastructure and increase the willingness of investors to release capital for projects with long lead-times and significant technology and market risks. It will create opportunities for innovation for small and large companies and help them become or remain competitive at world level, where opportunities for energy technologies are large and increasing.

On the international scene, the action taken at Union level provides a critical mass to attract interest from other technology leaders and to foster international partnerships to achieve the Union's objectives. It will make it easier for international partners to interact with the Union to build common action where there is mutual benefit and interest.

The activities under this societal challenge will therefore form the technological backbone of European energy and climate policy. They will also contribute to achieving the flagship initiative 'Innovation Union' in the field of energy and the policy goals outlined in the flagship initiatives 'Resource-efficient Europe', 'An Industrial Policy for the Globalisation Era' and 'Digital agenda for Europe'.

Research and innovation activities on nuclear fission and fusion energy are carried out in the Euratom programme established by Regulation (Euratom) No 1314/2013 Where appropriate, possible synergies between this societal challenge and the Euratom programme should be envisaged.

Broad lines of the activities

(a) Reducing energy consumption and carbon footprint by smart and sustainable use

Activities shall focus on research and full-scale testing of new concepts, non-technological solutions, more efficient, socially acceptable and affordable technology components and systems with in-built intelligence, to allow real-time energy management for new and existing near-zero-emission, near-zero-energy and positive energy buildings, retrofitted buildings, cities and districts, renewable heating and cooling, highly efficient industries and mass take-up of energy efficiency and energy saving solutions and services by companies, individuals, communities and cities.

(b) Low-cost, low-carbon electricity supply

Activities shall focus on research, development and full scale demonstration of innovative renewables, efficient, flexible and low carbon emission fossil power plants and carbon capture and storage, or CO2 re-use technologies, offering larger scale, lower cost, environmentally safe technologies with higher conversion efficiency and higher availability for different market and operating environments.

(c) Alternative fuels and mobile energy sources

Activities shall focus on research, development and full scale demonstration of technologies and value chains to make bioenergy and other alternative fuels more competitive and sustainable for power and heat and for surface, maritime and air transport, with potential for more efficient energy conversion, to reduce time to market for hydrogen and fuel cells and to bring new options showing long-term potential to maturity.

(d) A single, smart European electricity grid

Activities shall focus on research, development and full scale demonstration of new smart energy grid technologies, back-up and balancing technologies enabling higher flexibility and efficiency, including conventional power plants, flexible energy storage, systems and market designs to plan, monitor, control and safely operate interoperable networks, including standardisation issues, in an open, decarbonised, environmentally sustainable, climate-resilient and competitive market, under normal and emergency conditions.

(e) New knowledge and technologies

Activities shall focus on multi-disciplinary research for clean, safe and sustainable energy technologies (including visionary actions) and joint implementation of pan-European research programmes and world-class facilities.

(f) Robust decision making and public engagement

Activities shall focus on the development of tools, methods, models and forward-looking and perspective scenarios for a robust and transparent policy support, including activities on public engagement, user involvement, environmental impact and sustainability assessment improving the understanding of energy-related socio-economic trends and prospects.

(g) Market uptake of energy innovation - building on Intelligent Energy Europe

Activities shall build upon and further enhance those undertaken within the Intelligent Energy Europe (IEE) programme. They shall focus on applied innovation and promotion of standards to facilitate the market uptake of energy technologies and services, to address non-technological barriers and to accelerate the cost-effective implementation of the Union's energy policies. Attention will also be given to innovation for the smart and sustainable use of existing technologies.


Leading Institutions:

Type of funding:
Total Budget: 
€ 5931.2 million
Number of projects:
Project Profiles:
  1. A patent pending gearbox for ships that decrease fuel consumption with 25% (appr 500 ton fuel and 1500 ton carbon dioxide per ship and year)
  2. Advanced biofuel production with energy system integration
  3. Advanced Biomass Catalytic Conversion to Middle Distillates in Molten Salts
  4. Advanced Solutions for Smart Energy storage and electric Transportation
  5. Advanced sustainable BIOfuels for Aviation
  6. Biocatalytic solar fuels for sustainable mobility in Europe
  7. BIOmethane as SUstainable and Renewable Fuel
  8. Biorefinery combining HTL and FT to convert wet and solid organic, industrial wastes into 2nd generation biofuels with highest efficiency
  9. Brazil-EU Cooperation for Development of Advanced Lignocellulosic Biofuels
  10. Building Innovative Green Hydrogen systems in an Isolated Territory: a pilot for Europe
  11. Cogeneration of Hydrogen and Power using solid oxide based system fed by methane rich gas
  12. Compact Gasification and Synthesis process for Transport Fuels
  13. Concerted Action supporting the transposition and implementation of Directive 2009/28/EC on the promotion of the use of energy from renewable sources (RES Directive)
  14. Developing the sustainable market of residential Mediterranean solid biofuels.
  15. Dual LIquid Vector for hydrogEn Refueling Station
  16. Efficient CO2 conversion over multisite Zeolite-Metal nanocatalysts to fuels and OlefinS
  17. Electric LOsses Balancing through integrated STorage and power Electronics towards increased synergy between Railways and electricity distribution networks
  18. Energy efficient and environmentally friendly multi-fuel power system with CHP capability, for stand-alone applications.
  19. Establishing Eco-design Guidelines for Hydrogen Systems and Technologies
  20. European Hydrogen Train the Trainer Programme for Responders
  21. European Technology and Innovation Platform Bioenergy - Support of Renewable Fuels and Advanced Bioenergy Stakeholders 2
  22. Facilitating market roll-out of RESfuels in the transport sector to 2030 and beyond
  23. FLExible Dimethyl ether production from biomass Gasification with sorption-enhancED processes
  24. From residual steel gasses to methanol
  25. Fuel Cells HydroGen educatiOnal model for schools
  26. Fuels from electricity: de novo metabolic conversion of electrochemically produced formate into hydrocarbons
  27. Hydrogen Energy Applications for Valley Environments in Northern Netherlands
  28. Hydrogen In Gas GridS: a systematic validation approach at various admixture levels into high-pressure grids
  29. Hydrogen Supply and Transportation using liquid Organic Hydrogen Carriers
  30. Hydrothermal liquefaction: Enhanced performance and feedstock flexibility for efficient biofuel production
  31. Implementing Fuel Cells and Hydrogen Technologies in Ports
  32. Increasing penetration of renewable power, alternative fuels and grid flexibility by cross-vector electrochemical processes
  33. Innovative large-scale energy STOragE technologies AND Power-to-Gas concepts after Optimisation
  34. integrated Smart GRID Cross-Functional Solutions for Optimized Synergetic Energy Distribution, Utilization Storage Technologies
  35. Integrated solar-thermochemical synthesis of liquid hydrocarbon fuels
  36. INteractive CHarging
  37. INteractive CHarging (2)
  38. Keep the Energy at the right place!
  39. Making hydrogen affordable to sustainably operate Everywhere in European cities
  40. New technology and strategy for a large and sustainable deployment of second generation biofuel in rural areas
  41. Next Generation Bio-butanol
  42. Production of Sustainable aircraft grade Kerosene from water and air powered by Renewable Electricity, through the splitting of CO2, syngas formation and Fischer-Tropsch synthesis
  43. Production of sustainable, advanced bio-ethANOL through an innovative gas-fermentation process using exhaust gases emitted in the STEEL industry
  44. REgeneration MOdel for accelerating the smart URBAN transformation
  45. Reliable Bio-based Refinery Intermediates
  46. REsidual soft WOod conversion to high characteristics drop-in bioFUELs
  47. Scenarios for integration of bio-liquids in existing REFINERY processes
  48. Second Generation BIoethanol sustainable production based on Organosolv Process at atmospherIc Conditions
  49. Storage capacity sharing over virtual neighbourhoods of energy ecosystems
  50. Storage4Grid
  51. Supporting Sustainable Energy Production from Biomass from Landscape Conservation and Maintenance Work
  52. Sustainability Assessment of Harmonised Hydrogen Energy Systems: Guidelines for Life Cycle Sustainability Assessment and Prospective Benchmarking
  53. Sustainable Jet Fuel from Flexible Waste Biomass
  54. Sustainable production of next generation biofuels from waste streams
  55. SustainaBlE SoluTions FOR recycling of end of life Hydrogen technologies
  56. Teaching Fuel Cell and Hydrogen Science and Engineering Across Europe within Horizon 2020
  57. The Demonstration of Waste Biomass to Synthetic Fuels and Green Hydrogen
  58. TORrefying wood with Ethanol as a Renewable Output: large-scale demonstration
  59. Turning unexploited food waste into biomethane supplied through local filling stations network
  60. “GREEN HYSLAND – Deployment of a H2 Ecosystem on the Island of Mallorca”
Contact Organisation: 

European Commission

Rue de la Loi 170
1040 Brussels