FORSKNING

Internationale forskningsmiljøer og testfaciliteter til lands til vands og i luften

DTU Risø Campus er Danmarks førende forsknings- og innovationsmiljø inden for blandt andet bæredygtige energiformer og energisystemer og driver nogle af verdens mest avancerede forskningsfaciliteter og testanlæg inden for vind -og energisystemer. Her kan forskere og virksomheder blandt andet teste alt fra nanoskala materialer, storskalastrukturer og fuldt operationelle demonstrationer af vindmøller og forskerne samarbejder med hele energisektoren for at udvikle de mest effektive og grønne teknologier i verden.

Forskningsfaciliteter

Aarhus Universitet

Aarhus Universitet er Danmarks næststørste universitet målt på antal studerende, og det næstældste. Universitetet blev etableret i 1928 i Aarhus og tæller i dag omkring 32.000 bachelor- og kandidatstuderende, hvortil yderligere kommer nogle tusinde ph.d.- og deltidsstuderende.

Aero- and Fluid Dynamics

By investigating the principles of airflow and fluid behavior, this research aims to enhance the performance of wind energy systems and refine the design and operation of renewable energy technologies for a more sustainable future.

Airfoil and Rotor Design

Focusing on airfoil and rotor design, this research aims to optimize the performance of wind turbines. By exploring advanced aerodynamic principles and design techniques, the project seeks to improve efficiency, reduce costs, and enhance the overall sustainability of wind energy systems.

BIPV Test Facility

The BIPV Test Facility at DTU Risø Campus evaluates building-integrated photovoltaics (BIPV) under real-world conditions, collecting detailed data on solar radiation, temperature, and performance to optimize solar integration in architecture.

Composites Manufacturing and Testing

Focusing on the manufacturing and testing of composite materials, this research aims to enhance the efficiency and longevity of renewable energy technologies. By developing advanced production techniques and analyzing material properties, the project seeks to improve the performance and sustainability of energy systems.

Dansk Dekommissionering

Dansk Dekommisionering er en statslig virksomhed, etableret i 2003, som nu hører under Uddannelses- og Forskningsministeriet. Dansk Dekommisionering er beliggende på Risø med ca. 85 medarbejdere.

Diode Lasers and LED Systems

Research in diode lasers and LED systems focuses on improving the efficiency and performance of light-emitting technologies. By optimizing design and energy output, the project aims to enhance their applications in telecommunications, lighting, and medical devices, promoting sustainability.

DTU LINK

DTU Link is the innovation hub at DTU Risø Campus, where startups, researchers and companies collaborate on innovation and technological breakthroughs. We are part of DTU Skylab, and since 2018, we have supported the development of solutions that will be able to improve the problems of the future and make a difference for the many

E-Mobility & Prosumer Integration

By exploring the interaction between electric vehicles and renewable energy sources, this project focuses on optimizing energy efficiency and supporting a sustainable energy system through innovative solutions and prosumer involvement.

Energy System Integration

Distributed Energy Systems is specializes in developing digital solutions for optimizing decentralized resources and managing interconnected local energy systems. They focus on areas like control and automation, actor role definitions, system integration into markets, and much more.

Large Scale Facility

State-of-the-art lab for producing composite structures up to 15 meters. Supports innovation in material testing, simulation validation, and advanced manufacturing techniques.

Measurement Systems and Methods

This research focuses on refining measurement technologies to ensure accurate data collection, which is vital for optimizing energy performance and supporting the effective integration of renewable energy sources.

Mechanical Workshop Risø

With specialized mechanical engineering services, the workshop plays a key role in facilitating the design, prototyping, and testing of advanced technologies, driving progress in energy research and innovation.

Medical Dosimetry

Advancing medical dosimetry involves improving the accuracy of radiation dose measurements for therapeutic purposes. By refining these techniques, the project aims to increase treatment precision and ensure enhanced safety for patients undergoing radiation therapy.

Meteorology and Remote Sensing

Accurate weather data and atmospheric analysis are key to advancing renewable energy solutions. This research explores meteorology and remote sensing to enhance climate modeling, wind resource assessment, and weather forecasting for a more reliable and efficient energy system.

Optical Sensor Technology

The development of optical sensor technologies focuses on improving data collection and monitoring within energy systems. By advancing these sensing methods, the project aims to enhance measurement accuracy and reliability, supporting more efficient and effective renewable energy solutions.

Pilot Plant for Thermal Conversion Processes

The Pilot Plant for Thermal Conversion at Risø develops technologies to convert biomass into biochar, bio-oils, and gases through pyrolysis and gasification, collaborating with industry to enhance efficiency and sustainability.

Poul La Cour Wind Tunnel

The wind tunnel is designed for conducting aerodynamic and aeroacoustic testing of airfoils and rotors. This cutting-edge facility offers unparalleled capabilities for studying the complex interactions between wind and turbine components

PV Tracker Facility

The PV Tracker Facility at DTU Risø is a research facility that tests bifacial and monofacial solar panels under different tracking and fixed conditions. It aims to optimize energy production and improve the performance of solar technologies.

Renewable Plants in Energy Systems

Integrating renewable energy plants into modern energy systems is essential for a sustainable future. This research focuses on optimizing efficiency, stability, and reliability through advanced modeling and analysis, ensuring that renewable energy sources contribute effectively to a balanced and resilient energy network.

Response, Aero- elasticity, Control and Hydrodynamics

The research project at DTU Risø focuses on the interaction between aerodynamics, structural dynamics, and hydrodynamics in wind energy systems. It aims to enhance wind turbine performance and lifespan through advanced control and modeling.

Solar Resource Measurement Station

The Solar Resource Measurement Station at DTU Risø collects precise data on solar radiation and weather conditions to support research in solar energy, resource assessment, and system optimization.

Structural Design and Testing

Large Scale Facility is DTU’s 1560 sqm modern test hall with dynamic testing for blades and structures of varying lengths. It aims to be a global center for large structure strength research.

Thin-Film Photovoltaics

Advances in thin-film photovoltaics aim to improve the efficiency and cost-effectiveness of solar energy solutions. By exploring new materials and production methods, the project focuses on enhancing the performance and scalability of thin-film solar cells, driving progress toward a more sustainable energy future.

Wind Resource Assessment and Meteorology

Wind resource assessment and meteorological analysis aim to improve the accuracy of wind energy predictions. By studying wind patterns and atmospheric conditions, the research seeks to optimize energy production and enhance the efficiency of wind energy systems.