The main goal of the Green Transport Delta – Hydrogen project is to develop three hydrogen technologies: hydrogen combustion engines, hydrogen fuel cells, and next generation technology for hydrogen refueling infrastructure.
Creating a metrological framework to support growing demands for ‘green’ hydrogen as part of the EU’s climate strategy.
LED-based lighting contributes to energy saving and the reduction of the environmental impact of lighting. However, LED lamps can show fluctuations in the light output known as temporal light modulation (TLM)
Given that European citizens spend more than 80 % of their time indoors, it is vital to have a healthy indoor environment. Building materials, such as paints, flooring, and from other products used indoors, such as furniture, emit harmful substances.
The goal of this project is therefore to fulfill the needs of IEC TC 38 “Instrument Transformers” to establish PQ-relevant indices for performance assessment of instrument transformers, test procedures, reference setup requirements, and methodologies to quantify uncertainty contributions.
The aim of this project is to develop a SI-traceable calibration service to enable evaluation of photobiological safety of lamps and lamp systems, including LED based sources.
Creating a metrological framework to support growing demands for ‘green’ hydrogen as part of the EU’s climate strategy.
De algemene EU-doelstelling voor het verbruik van hernieuwbare energiebronnen tegen 2030 is verhoogd tot 32 % in de RED II-richtlijn. De conformiteitsbeoordeling van biomethaan vereist verdere standaardisatie om de toekomst van groene energie in Europa te ondersteunen. De algemene doelstelling van dit project is de ontwikkeling van standaardisatie te ondersteunen en de traceerbaarheid, betrouwbaarheid en karakterisering te bieden die nodig zijn voor de conformiteitsbeoordeling van biomethaan.
The main goals of the project are to propose new reference radiation qualities in combination with classification of different commercially available dosimeters and x-ray multimaters (XMMs) which will lead to harmonized calibration procedures for XMMs and to realize a traceability chain for relevant clinical parameters, e.g.: air kerma , practical peak voltage (PPV), current-time product (mAs), etc. An international comparison will be carried out for validation.
This project focuses the development of traceable measurement methods for high throughput nanodimensional characterisation of NW energy harvesters.
