• Investigate the challenges and potential market gaps in procuring costeffective
yet high-quality advanced composite materials, emphasizing
strategies to optimize the supply chain and reduce overall material costs for
blade manufacturing.
• Focus on the critical issue of ensuring consistent quality when acquiring
materials in both Europe and Asia, exploring solutions and best practices to
maintain stringent quality standards throughout the supply chain.
• Examine the potential risks of supply chain disruptions in the wind blade
manufacturing process, identifying areas where wind park owners and
OEMs can implement robust contingency plans to ensure a seamless flow of
materials and avoid project delays.
Sandro Di Noi
Wind Turbine Expert
RWE
• Off-shore wind turbine structural validation faces challenges from top to
bottom, requiring thorough analysis and testing.
• Extreme loading conditions necessitate robust validation techniques to
ensure component integrity.
• Validation at the tip involves assessing aerodynamics, material fatigue, and
structural response.
• Validation at the bottom involves evaluating foundation stability and
dynamic interaction with the supporting structure.
Dr. Steffen Czichon
Head of Department
Fraunhofer IWES
• Introducing the next generation of the Bladed aero-elastic tool, designed
for automation and use at scale
• How modular wind turbine design practices can be reflected in aero-elastic
tool design
• Modelling innovative wind turbine concepts through enhanced tool flexibility
• Re-thinking interfaces to other tools in the design process, for holistic
optimisation
• Using field data to enhance and complement simulation data
Diogo Samora Cerqueira
Digitalisation Product Owner
DNV
-Design progress /status quo
-Production technology steps
Edo Kuipers
Co-Owner and Engineering Manager
We4Ce B.V
Join our panel discussion on XXL Rotor Blades, where we will explore the unique challenges they pose to the Rotor Blades industry and delve into effective strategies for tackling these challenges while ensuring longevity, cost-efficiency, and addressing operational concerns. Discover how advancements in technology and innovative approaches are shaping the future of XXL rotor blade development.
• Discuss the technical challenges associated with XXL rotor blades, including structural integrity, aerodynamics, and transportation logistics, and explore engineering solutions to optimize performance.
• Explore cost considerations in XXL rotor blade production and how manufacturing processes can be optimized to achieve economies of scale without compromising quality.
• Address operational concerns such as maintenance accessibility, repairability, and blade lifespan, and identify strategies to enhance reliability and reduce downtime.
• Highlight the importance of collaboration between industry stakeholders, research institutions, and manufacturers to collectively overcome challenges and drive innovation in XXL rotor blade technology.
Edo Kuipers, Co-Owner and Engineering Manager, We4Ce B.V.
Dr. Steffen Czichon, Head of Department, Fraunhofer IWES
Alexander Krimmer, Senior Engineer, TPI Composites
• Unveiling TPI Composites' pioneering fatigue measurement approach that targets issues with fatigue assessment and aims to extend the lifecycle of wind turbine components.
• Highlighting the ongoing efforts of TPI Composites in obtaining validation for their fatigue design and testing approach, underscoring its significance in ensuring accurate fatigue assessment and enhancing component longevity.
• Exploring how TPI Composites' approach tackles critical challenges related to fatigue assessment, including accuracy, reliability, and predicting component lifespan under varying operating conditions.
• Demonstrating how the approved fatigue measurement approach can effectively extend the design life of wind turbine blades, leading to improved operational efficiency, reduced maintenance costs, and enhanced overall performance.
Alexander Krimmer, Senior Engineer, TPI Composites
Explore the latest trends: the impact of novel design, innovative composite
materials and manufacturing processes have in making blades:
• More efficient
• More sustainable
• More reliable
Sabrina Malpede
Co-Owner
Act Blade
• Exploring the innovative practice of repurposing wind blade composite
parts to maximize their value and contribute to the development of
advanced next-generation rotor blades.
• Showcasing how repurposing composite parts reduces waste and
promotes a sustainable circular economy within the wind energy industry.
• Highlighting how repurposing allows for the optimization of composite
materials, enabling the incorporation of reclaimed components into new
rotor blade designs.
• Discussing the benefits of repurposing composite parts, including improved
performance, reduced manufacturing costs, and enhanced overall
efficiency of next-generation rotor blades.
Satish Balusu
Blade Design Engineer
Siemens Gamesa
Join our evening Get-Together at emma am see and take this opportunity to network and make new business contacts. Or just to relax and round off your first conference day.
This technical workshop will focus on the latest advancements in materials used in wind energy, particularly new and recyclable glass fibre composites. Join us to discover how these cutting-edge materials are revolutionizing the industry, contributing to enhanced performance, sustainability, and circular economy practices.
• Explore the development and characteristics of new glass fibre composites, including their mechanical
properties, thermal stability, and potential applications in wind turbine blade manufacturing.
• Discuss the concept of a circular economy and how recyclable glass fiber composites can play a crucial role
in minimizing waste, promoting eco-friendly practices, and reducing the environmental footprint of wind energy
projects.
• Evaluate the performance and long-term durability of glass fiber composites compared to traditional materials,
understanding how these materials are advancing the efficiency and reliability of wind turbines in various
environmental conditions.
Lisa Schudack Wissenschaftliche Mitarbeiterin