Innovative Wind Solutions
Advanced Structural Analysis for Floating Wind Turbines Using ANSYS and QBlade for Optimal Performance We deliver advanced structural analysis for floating wind turbines, combining the industry-leading capabilities of ANSYS and QBlade to achieve optimal performance in even the most demanding offshore environments. Floating wind structures present unique engineering challenges—subject to simultaneous wave-induced motions, aerodynamic loads, mooring tensions, and dynamic interactions between turbine and platform. Our integrated simulation approach captures these complexities with precision, modeling everything from blade aerodynamics and rotor dynamics to platform hydrodynamics, structural stresses, and fatigue accumulation over the turbine's operational lifetime. ANSYS provides the multi-physics depth needed for detailed structural and thermal-stress assessments, while QBlade contributes specialized aeroelastic and power-performance modeling. Together, they enable us to analyze design alternatives, validate safety margins, and fine-tune configurations for maximum energy output, structural integrity, and cost-efficiency. Whether supporting early-stage concept development, certification processes, or performance optimization of existing assets, our analyses deliver the reliable, data-driven insights that engineers and project developers need to advance floating wind technology with confidence.
Wind Turbine Analysis
We provide advanced simulation analysis for structural wind turbines using industry-leading tools such as ANSYS, QBlade, and other specialized software. Our capabilities span the full spectrum of wind turbine analysis—from aerodynamic performance modeling and blade load assessment to structural integrity evaluation and fatigue life prediction. By leveraging high-fidelity simulations, we enable our clients to optimize turbine designs for maximum energy output while ensuring reliability under extreme wind conditions, turbulent flows, and complex terrain influences. Our approach integrates multi-physics simulations that capture the interaction between aerodynamics, structural dynamics, and control systems, providing a comprehensive understanding of turbine behavior throughout its operational lifecycle. Whether supporting early-stage design validation, retrofit assessments, or failure mode analysis, we deliver actionable insights that enhance performance, extend service life, and reduce operational risks. With a commitment to precision and innovation, we empower the renewable energy sector to build more efficient, durable, and cost-effective wind energy solutions.
Floating Turbines
Specialized analysis for floating wind turbines, ensuring optimal performance and structural integrity under various conditions.
Stress Determination
Utilizing advanced tools to determine stress in turbine structures, enhancing safety and efficiency in design.
Wind Turbine Modelling and Analysis
LGE offer a computer-oriented calculations for industrial customers. Thank to our years of experience in the fields of FEM analysis in different engineering field , we are able to analyze high complex structures such as wind turbines or the interaction of vibrations and sound emissions. Depending on the problem, numerical analysis FE-solvers (e.g. ANSYS,QBlade, SIMULIA Abaqus) can be used.
From the rotor blade to the hub, gearbox and nacelle to the tower – we are able to evaluate your entire wind turbine. More components such as a flexible bedplate and a can be added for highly detailed analysis. Fully parameterized models result in high efficiency, highly non-linear model behavior in realistic results.
Complete analysis with different levels of details
Detailed component analysis is available
Strain, stress and fatigue analysis of all component,
Management construction onshore offshore,
Cost analysis feasible study support ,
Wind Turbines
Advanced Simulation Analysis for Structural Wind Turbine Projects : We deliver advanced simulation analysis for structural wind turbine projects, employing cutting-edge tools such as ANSYS, QBlade, and other specialized software to drive precision and performance. Our expertise covers the complete spectrum of turbine analysisfrom aerodynamic modeling and blade loading to structural response, fatigue assessment, and lifecycle durability. By integrating multi-physics simulations, we capture the complex interplay between wind forces, mechanical stresses, and control dynamics, enabling optimized designs that maximize energy yield while withstanding extreme environmental conditions. Our simulations support every project stage, from conceptual design and certification to troubleshooting and life extension of existing assets. With a focus on accuracy, efficiency, and innovation, we provide the technical insights that empower developers, manufacturers, and operators to build reliable, high-performance wind energy infrastructure for a sustainable future.
Floating Turbines
Analyzing Stress in Floating Wind Turbine Structures Effectively : We specialize in the effective analysis of stress in floating wind turbine structures, addressing one of the most complex challenges in renewable energy engineering. Unlike fixed-bottom foundations, floating platforms are subject to dynamic loads from waves, currents, wind, and turbine operations—creating a continuously shifting stress environment that demands sophisticated analytical approaches. Our advanced simulation capabilities, utilizing tools such as ANSYS and specialized hydrodynamic software, enable us to model these interactions with exceptional accuracy. We assess stress distribution across mooring systems, floating platforms, tower structures, and subsea components, evaluating fatigue life, extreme load response, and long-term structural integrity under diverse sea states. Our analyses also consider coupled effects—how platform motion influences turbine performance and how aerodynamic forces feed back into structural loading. By delivering detailed stress mapping and performance predictions, we empower developers and engineers to optimize designs, enhance safety margins, extend operational lifespans, and reduce maintenance costs. With our expertise, floating wind projects gain the analytical rigor needed to succeed in even the most demanding offshore environments.
Simulation Tools
Utilizing ANSYS and QBlade for Accurate Analysis Results
We harness the combined power of ANSYS and QBlade to deliver accurate, reliable analysis results for complex engineering challenges. ANSYS enables us to perform high-fidelity structural and multi-physics simulations, capturing stress distributions, fatigue behavior, and dynamic responses with exceptional precision. Complementing this, QBlade provides dedicated aerodynamic and aeroelastic modeling capabilities, allowing us to thoroughly assess blade performance, power curves, and load variations under diverse wind conditions. By integrating these tools, we achieve a comprehensive understanding of turbine behavior from individual component stresses to full-system interactions between aerodynamics, structural dynamics, and control systems. This integrated approach ensures that our analyses are not only precise but also holistically informed, supporting optimized designs, reduced uncertainties, and confident decision-making. Whether validating new concepts, troubleshooting operational issues, or extending asset life, we leverage these industry-leading tools to deliver insights that drive performance, safety, and long-term value.
Wind Turbine Gallery
Explore Our Structural Analysis and Simulation of Floating Wind Turbines : Explore our comprehensive structural analysis and simulation services for floating wind turbines—where cutting-edge engineering meets the demands of offshore renewable energy. Floating wind structures operate in one of the most challenging environments imaginable, subject to relentless wave action, strong currents, variable wind loads, and the complex motions of floating platforms. Our approach integrates advanced multi-physics simulations using tools such as ANSYS and QBlade to capture the full spectrum of structural behavior, from aerodynamic performance and blade loading to platform dynamics, mooring system stresses, and long-term fatigue life. We model the coupled interactions between wind, waves, and structural response, delivering a complete picture of how these systems perform under both normal operating conditions and extreme storm events. Our analyses support every stage of development—from conceptual design and optimization to certification, risk assessment, and lifecycle management. By providing accurate, actionable insights, we empower engineers and developers to build floating wind farms that are not only efficient and cost-effective but also robust, reliable, and capable of withstanding the harshest marine conditions for decades to come.
Contact Us
Reach out for inquiries on wind turbine simulation and analysis.