Project Image Pool
There are 394 results.
Terms of use: The pictures on this site originate from the projects in the frame of the programmes City of Tomorrow, Building of Tomorrow and the IEA Research Cooperation. They may be used credited for non-commercial purposes under the Creative Commons License Attribution-NonCommercial (CC BY-NC).
SIRFN focus area Advanced Laboratory Testing Methods
Within this SIRFN focus area, advanced methods for laboratory testing of components and electrical power systems are complemented by novel simulation technologies such as Power Hardware-in-the-Loop (PHIL), Controller Hardware-in-the-Loop (CHIL) and co-simulation, whose practical experience is however limited and not yet widespread. The SIRFN partner laboratories use their world-class research infrastructure to share expertise and jointly evaluate these new techniques, with the aim of establishing future test procedures within the framework of international standards, and provide recommendations for the optimal application of these techniques in laboratory environments.
Copyright: ISGAN Annex 5 SIRFN
SIRFN Focus Area: DER testing protocols
As part of the SIRFN focus are, SIRFN laboratories are developing test protocols for validating the interoperability of distributed energy resources, which can be used in an integrated test platform (System Validation Platform), for implementing a harmonised, international certification standard for all distributed energy resources in the power grids.
Copyright: ISGAN Annex 5 SIRFN
SIRFN Focus Area Power System Testing
Within the framework of the SIRFN focus area "Power System Testing", leading international laboratories are pooling their activities with the aim of developing strategies for testing system aspects of digitalised, renewable energy-based, cyber-physical power systems.
Copyright: ISGAN Annex 5 SIRFN
SIRFN Partnerships and Stakeholders
As a global network, SIRFN also works intensively with partners from other relevant networks. These networks include research and development, industry and, in particular, the field of standardisation.
Copyright: ISGAN Annex 5 SIRFN
Challenges for the Interaction between TSOs and DSOs
Functional, economic, ITC and Regulatory challenges for the interaction between TSOs and DSOs.
Copyright: Berbara Herndler
Lessons learned and recommendations for TSO-DSO interaction
Project results on the findings and recommendations for the interaction between TSOs and DSOs are summarised.
Copyright: Barbara Hendler
Description of ISGAN Annex 6
The main tasks and objectives of ISGAN Annex 6 are described and the participating countries (as of June 2020) are listed.
Copyright: Susanne Windischberger
Key Questions for TSO-DSO Interaction
The most important issues for communication between transmission and distribution system operators are listed.
Copyright: Barbara Herndler
Membrane distillation (MD) laboratory plant at AEE INTEC in Gleisdorf
The MD laboratory system offers the option of connecting different module types and sizes, shown here with a connected test cell. The system can also be operated in different configurations, such as in direct contact mode or with vacuum.
Copyright: AEE INTEC
Contact angle measurement for membrane properties assessment
Depositing a drop of test liquid on the membrane.
Copyright: ACR/schewig-fotodesign
Photovoltaic system installation in the Alps
At a photovoltaic system in the Alps having two different types of glass-backsheet modules, one type shows after a few years cracks at the backsheets outer layer, while the others are free of failures. See Report T13-24:2021 „Qualification of Photovoltaic (PV) Power Plants using Mobile Test Equipment“ and Report IEA-PVPS-T13-25:2022 "Guidelines for Operation and Maintenance of Photovoltaic Power Plants in Different Climates". Download at: https://iea-pvps.org/research-tasks/performance-operation-and-reliability-of-photovoltaic-systems/.
Copyright: Gabriele Eder (OFI)
Vertically installed bifacial photovoltaic modules as a rainscreen, Neuchâtel
Photovoltaic fassade installation using photovoltaic modules with bifacial cells, wide gap between the cells and thin (smart) wire interconnects. See also Report T13-13:2021 "Designing New Materials for Photovoltaics: Opportunities for Lowering Cost and Increasing Performance through Advanced Material Innovations" and Report IEA-PVPS T13-14:2021 "Bifacial Photovoltaic Modules and Systems: Experience and Results from International Research and Pilot Applications". Download-Link: https://iea-pvps.org/research-tasks/performance-operation-and-reliability-of-photovoltaic-systems/.
Copyright: Karl Berger (AIT)
On-site inspection of photovoltaic modules
Left hand side: Hand-held devices can be used to get insight in polymer materials composition and degradation processes. Right hand side: Module backsheet with multiple parallel cracks of the outer layer. See Report T13-24:2021 „Qualification of Photovoltaic (PV) Power Plants using Mobile Test Equipment“ and Report T13-13:2021 "Designing New Materials for Photovoltaics: Opportunities for Lowering Cost and Increasing Performance through Advanced Material Innovations". Download-Link: https://iea-pvps.org/research-tasks/performance-operation-and-reliability-of-photovoltaic-systems/
Copyright: Gernot Oreski (PCCL)
22nd IEA PVPS Task 13 Meeting, October 2019, Chile
Technical tour of the IEA PVPS Task 13 people visiting Atamos-Tec in the Atacama desert, near Antofagasta, Chile.
Copyright: Bernhard Kubicek (AIT)
Tailem Bend Solar Power Farm, South Australia
187 MW Solar Power Farm in Tailum Bend, South Australia
Copyright: AIT Austrian Institute of Technology
IEA-PVPS Task Grid Integration workshop in Tokyo, Japan
International Experts from Task 14 and Experts from the Japanese electricity sector and research attending the NEDO/Task 14 workshop in November 2022