IEA Energy Storage (ES)
Short Description
In the future, the demand for energy storage will increase significantly, which can be attributed to the discontinuous supply of renewable energy sources that are increasingly being used and the associated increase and decentralization of the supply portfolio. However, in order to achieve the overall goal of 100% renewable energy, only technologies available today for storing energy and system implementation approaches are insufficient. Targeted research, development and demonstration of storage techniques are essential.
Although the development in the energy sector is very heterogeneous, a trend is visible. All in all, wind and solar energy have significantly increasing capacities, while the share of fossil fuels, especially brown coal and hard coal, is declining. The integration of fluctuating energy forms in combination with a reduction in the number of baseload power plants requires large structural changes in transport and distribution networks. This requires solutions such as the development of storage capacities and / or flexibility in demand. For this reason, targeted research, development and demonstration of storage technologies are essential.
In addition, the future role of energy storage will become more complex and more important than today. In a growing number of applications, energy storage is an important key technology (e.g. e-mobility, decentralised self-sufficiency or integration of renewable energy sources) or rather a key technology that increases the added value and enables technological potentials in the form of sector coupling.
The two biggest innovation challenges for energy storage are:
- Techno-economic improvement: reduction of investment costs, longer life, higher efficiency, compact design, safety
- Economic-regulatory barriers: Non-discriminatory market access (equal competitive conditions), business models / market design, regulatory barriers (e.g. taxes), investment security in the event of uncertain market developments
Both challenges need to be addressed simultaneously. An efficient, low-carbon, sustainable and stable energy system requires the increased use of renewable energies and a high degree of flexibility in the form of storage technologies.
New energy storage systems of different technologies are also important for a sustainable energy system in Austria and must be developed in cooperation between research and industry and successfully integrated into the energy system. Since energy storage is a cross-cutting topic, the expert knowledge of many disciplines (energy supply and all end-use areas as well as distribution) must be taken into account. In order to use this widespread experience efficiently and to benefit from the resulting synergies, high-level coordination is necessary to develop appropriate work plans and research objectives.
ES is responsible for fulfilling this important task. The ES Strategic Plan therefore includes research activities (strategies for scientific research and development, dissemination and market introduction) and coordination activities (objectives and management).
Ongoing Tasks and Annexes
- IEA ES Annex 35: Flexible Sector Coupling through Energy Storage Implementation
- IEA ES Annex 39: Large Thermal Energy Storages for District Heating
- IEA ES Task 41: Economics of Energy Storage
- IEA ES Task 43: Storage for renewables and flexibility through standardized use of building mass
- IEA ES Task 44: Power-to-Heat and Heat integrated Carnot Batteries for Zero-Carbon (industrial) heat and Power supply
Completed Annexes
Publications
Participants
Austria, Belgium, Canada, China, Denmark, Finland, France, Germany, Italy, Japan, Netherlands, Norway, Slovenia, South Korea, Sweden, Switzerland, Turkey, United Kingdom, USA
Contact Address
AEE – Institute for Sustainable Technologies
Christian Fink
Feldgasse 19
A-8200 Gleisdorf
E-Mail: c.fink@aee.at
Tel: +43 3112 5886-214
BMVIT
Sabine Mitter
Radetzkystraße 2
A-1030 Vienna
Tel: +43 1 71162-652915
E-Mail: sabine.mitter@bmk.gv.at