• Introducing improved methodologies and techniques for rain erosion
testing of wind turbine Leading Edge Protection (LEP) materials, ensuring
their durability and performance in harsh weather conditions.
• Exploring the use of current industry standard simulation methods to
predict erosion in-situ and advances that are required to improve accuracy.
• Highlighting advancements in material characterization techniques to
enable advanced formulation to improve the erosion resistance of different
LEP materials.
• Discussing the limitations with polymeric solutions and how metallic
solutions will develop more reliable and long-lasting LEP materials, reducing
maintenance costs and increasing the lifespan of wind turbine blades.
Dr. Kirsten Dyer
Principal Materials Research Engineer
ORE-Catapult
Stephen Jones
Research Engineer – Blade Materials
ORE-Catapult
• Introducing Refit Front Infusion Technology, utilizing steel inserts to address
loose bushings in blade refits, reducing waste and improving performance.
• Examining the suitability of Refit Front Infusion Technology for resolving
loose bushings in larger blades at the M36 level, avoiding the need for blade
replacement.
• Highlighting the environmental advantages of Refit Front Infusion
Technology by enabling repair and refurbishment, minimizing the disposal
of blades with loose bushings.
• Ensuring reliability and safety through adherence to IEC 6400-5 regulations
in the testing of Refit Front Infusion Technology, assuring its effectiveness
and quality.
Erik Vos
Materials and Processing Engineer
We4Ce – The Rotorblade Specialist
• Introduction
• The principle of active stall
• The design development
• The way forward
Koos Lichtendonk
Managing Director
KL projects Energy Solutions & Prof.
Dr. Eize J. Stamhuis
Dept of Ocean Ecosystems, Energy & Sustainability
Research Institute Groningen, Faculty of Science & Engineering
University of Groningen
This panel discussion delves into the realm of materials and production
manufacturing within the rotor blades industry, focusing on the latest
technologies that are shaping the future of manufacturing processes. The
panel aims to uncover advancements that can drive increased productivity
and efficiency, enabling participants to stay at the forefront of the rapidly
evolving rotor blades sector.
• Exploring the latest technologies, such as automation, robotics, and
additive manufacturing, that are revolutionizing the production of rotor
blades, leading to improved productivity and efficiency.
• Discussing cutting-edge material advancements, including composite
materials and coatings, that offer enhanced performance characteristics,
durability, and reduced maintenance requirements.
• Highlighting strategies for optimizing production processes, such as digital
twin simulation, predictive modelling, and data analytics, to achieve higher
levels of precision, quality, and operational efficiency.
• Examining the role of supply chain management and collaboration in
achieving seamless integration of materials and manufacturing processes,
ensuring timely availability of resources and maximizing productivity
throughout the value chain.
Sabrina Malpede
Co-Owner
Act Blade
Dr. Kirsten Dyer
Principal Materials Research Engineer
ORE-Catapult
Stephen Jones
Research Engineer – Blade Materials
ORE-Catapult
-Revolutionizes turbine noise reduction without sacrificing efficiency.
-Measurable noise reduction fosters positive community relations.
-Ongoing R&D ensures FeatherEdge® leads in sustainable wind energy noise reduction.
Ryan Church
Founder and CEO / CTO
BiomeRenewables
· Innovation at Vestas
· Introduction to the innovative Vestas Cable Stayed Pitchable Rotor Concept
· Experience from the Cable Stayed Pitchable Rotor Technology Demonstrator, a Vestas V136–4.2 MW wtg with CSP Rotor, placed at the DTU Test Centre Høvsøre, Denmark
· Full scale blade testing of CSPR type blades. How to ensure high quality testing
Thomas Bjertrup Nielsen
Senior Concept Lead
Vestas Wind Systems A/S
• Showcasing sensor-based monitoring systems that detect and assess
corrosion risks, enabling proactive maintenance and minimizing damage.
• Utilizing data analytics to analyse corrosion data and identify potential
vulnerabilities for targeted maintenance interventions.
• Exploring techniques to optimize the durability and performance of
corrosion protection systems, including material selection, thickness
optimization, and considering environmental factors.
• Implementing proactive maintenance strategies based on smart
monitoring data to prevent corrosion-related issues and enhance the
longevity of rotor blades.
• For which hub heights
• Tower system vs. Erection (crane availability)
• Market trends
• Future materials for towers
Falk Lueddecke
Geschäftsführer
Jörss - Blunck - Ordemann GmbH