Suchergebnisse

Internationale Energieagentur (IEA)

IEA Wind Task 32: Wind LiDAR Systems für Wind Energy Deployment (Working period 2019-2021)

IEA Wind Task 32 (since 2022: Task 52) deals with the challenges of using Wind-LiDAR-Systems and provides a strong opportunity to generate new knowledge by global networking. Energiewerkstatt elaborated in this phase of Task 32 an analysis regarding data availabilities of LiDAR measurement campaigns at different sites in Austria and resumed an organisational role regarding the assessment of uncertainties of LiDAR measurements in complex terrain.

Internationale Energieagentur (IEA)

IEA Wind Task 54: Wind Energy in Cold Climates (Working period 2022 - 2024)

In order to achieve the development targets for renewable energies, generation plants will increasingly have to be installed at locations with more demanding technical and environmental conditions in the future. For wind energy, this means planning and operating turbines under icing conditions in many countries. The task investigates and evaluates technological solutions in this environment and publishes procedural recommendations in the form of technical reports and guidelines.

Internationale Energieagentur (IEA)

IEA Wind Task 32: Wind lidar systems for wind energy deployment (Working period 2016-2019)

Since 2012 Task 32 of IEA Wind has been concerned with the development and the multiple challenges in the application of LIDAR (light detection and ranging) applications in wind energy. The aims of this international research cooperation are the compilation of existing knowledge and experience as well as the elaboration of new conclusions through mutual exchange and global networking.

Internationale Energieagentur (IEA)

IEA Wind Task 19: Wind Energy in Cold Climates (working period 2013 - 2015)

The international experts elaborated two guidelines on the current state of wind energy utilization under icing conditions: the "State of the Art Report" and the "Recommended Practices Report". On a national level, Energiewerkstatt compiled a comparative report on international approval procedures with the assessment of icefall risk, a report regarding operational experience with a stand-alone power supply unit as well as a report on the evaluation of different ice detection systems.

Internationale Energieagentur (IEA)

IEA Wind Energy Systems (Wind TCP)

The mission of the Wind TCP is to stimulate co-operation on wind energy research and development and to provide high quality information and analysis to member governments and commercial sector leaders. The focus lies on technology development and deployment, as well as market and policy instruments.

Internationale Energieagentur (IEA)

IEA Wind Task 54: Wind Energy in Cold Climates (Working period 2025 - 2029)

In order to achieve the expansion targets for renewable energies, generation plants will increasingly have to be erected at locations with more demanding framework conditions in the future. For wind energy, this means planning and operating turbines under icing conditions in many countries. The task examines and evaluates technological solutions in this environment and publishes procedural recommendations in the form of technical reports and guidelines.

Internationale Energieagentur (IEA)

IEA Wind Task 19: Wind Energy in Cold Climates (working period 2016 - 2018)

IEA Wind Task 19 deals with the challenges of the utilisation of wind energy in Cold Climates (i.e. under icing-conditions) and offers through global networking and mutual exchange of experience, the possibility of collecting and generating additional know-how. Aim of the subtask was to share experiences with international partners and standardising of icefall risk assessments. In addition, an evaluation report on the functionality of the new Vestas rotor blade heating system was published.

Internationale Energieagentur (IEA)

IEA Wind Task 52: Large-Scale Deployment of Wind Lidar (Working period 2022 - 2026)

Task 52 works towards the widespread adoption of wind LiDAR-systems and provides a strong opportunity to generate and spread knowledge and experience through global networking. Energiewerkstatt contributes to Task 52 with a comparative study of data availability of different LiDAR measurement principles under Alpine conditions and will take an organisational role in the creation of guidelines for the use of ground-based LiDAR in wind energy applications.

Internationale Energieagentur (IEA)

IEA Wind Task 27: Small Wind Turbines in High Turbulence Sites (working period 2018 - 2019)

By participating in the IEA Wind Task 27, a number of goals could be achieved, including the development of a site assessment scheme for wind turbines in areas with high turbulence intensities, the further development of the IEC 61400 standard, the participation in the “Compendium of IEA Wind TCP Task 27 case studies “And the update of the “Small Wind Power Report 2018” as well as activities such as holding the event “Small Wind Power Conference” in Austria.

Internationale Energieagentur (IEA)

Clean Energy Education & Empowerment (C3E International Initiative)

The C3E TCP deals with strategies, policies and measures to increase the promotion of women in the energy sector. The aim is to create a framework in which participating countries can share information and best practices on effective strategies for the empowerment of women in this sector.

Internationale Energieagentur (IEA)

IEA AFC Annex 31: Polymer electrolyte membrane fuel cell (Working period 2017 - 2019)

Task 31 is a research and development oriented Task with the objective to contribute to the identification and development of techniques and materials to reduce the cost and improve the durability of polymer electrolyte fuel cells (PEFCs).

Internationale Energieagentur (IEA)

IEA AFC Annex 31: Polymer Electrolyte Fuel Cells (Working period 2020 - 2024)

AFC Annex 31 covers the technological development of the key components of fuel cells, system development, market introduction support through the analysis and development of the political framework conditions and the reduction of market entry barriers.

Internationale Energieagentur (IEA)

IEA AFC Annex 34: Fuel Cells for Transportation (Working period 2022 - 2025)

The vision of the Technology Collaboration Programme on Advanced Fuel Cells (AFC TCP) is to make a significant contribution to addressing the opportunities and barriers to the commercialisation of fuel cells by promoting the development of fuel cell technologies and their applications at the international level. In detail, Annex 34 deals with the advantages and disadvantages of fuel cells, the further development of storage media, the recording of cost reduction potentials and the results analysis of pilot projects for mobile applications.

Internationale Energieagentur (IEA)

IEA AFC Annex 35: Fuel cells for portable applications (Working period 2017 - 2019)

The aim of Annex 35 is the information exchange on the status and new developments of portable fuel cell systems and comprises the development and manufacture of membrane electrode assemblies (MEAs) all the way through to system components such as electronic converters or gas supply units. In addition the setup and configuration of hybridized systems and the key topics of secure operation, codes and standards are of interest.

Internationale Energieagentur (IEA)

IEA AFC Annex 33: Stationary Applications (Working period 2017 - 2019)

The main objective of Annex 33 is to support the technology development of key components and systems. Market implementation and transformation will be supported by the analysis and development of the necessary political framework and instruments. The current technological, economic and political barriers are to be identified, solutions developed and the barriers gradually removed.

Internationale Energieagentur (IEA)

IEA AFC Annex 35: Fuel cells for portable applications (Working period 2020 - 2023)

The aim of Annex 35 is the information exchange on the status and new developments of portable fuel cell systems and comprises the development and manufacture of membrane electrode assemblies (MEAs) all the way through to system components such as electronic converters or gas supply units. In addition, the setup and configuration of hybridized systems and the key topics of secure operation, codes and standards are of interest.

Internationale Energieagentur (IEA)

IEA AFC Annex 34: Fuel Cells for Transportation (Working period 2019 - 2022)

The overall objective of the project is the advancement of fuel cells in transportation applications. To ensure a comprehensive penetration of the automotive market, the focus will be laid on the cost-reduction potential of fuel cell components and systems including hydrogen storage, the hydrogen infrastructure and fuel cell vehicles in public transportation as well as fuel cell powered utility vehicles.

Internationale Energieagentur (IEA)

IEA TCP AFC Annex 33: Stationary Fuel Cells (Working period 2024 - 2027)

The focus of this task is on the secure supply of electricity for service and industrial applications. Analyses of at least three real applications (e.g. applications in healthcare facilities, data centers) show the strengths and weaknesses of stationary fuel cells compared to batteries and diesel generators. Global technological developments are considered in the analyses and target group-specific communication is used to promote the exchange with stakeholders.

Internationale Energieagentur (IEA)

IEA AFC Task 30: Electrolysis (Working period 2024 - 2027)

IEA AFC Task 30 deals with the production of hydrogen through electrolysis. Questions regarding material costs and durability, efficiency and reliability are at the core of research efforts. This is addressed through the development of new materials and advanced monitoring strategies to detect aging phenomena, as well as the optimisation of operating strategies. Within Task 30, developments shared among the world's leading research institutions and companies.

Internationale Energieagentur (IEA)

IEA AFC: Technology Collaboration Programme on Advanced Fuel Cells

In the AFC TCP, both technology-oriented R&D activities (polymer electrolyte membrane fuel cells, solid oxide fuel cells, electrolysers) as well as analysis to implement fuel cells in commercial applications (stationary and mobile applications) are carried-out. System investigations and modelling complement the activities of this TCP.