Technical Lead Engineer – Mechanical Load Analysis

Job Requirements

At Quest Global, it’s not just what we do but how and why we do it that makes us different. With over 25 years as an engineering services provider, we believe in the power of doing things differently to make the impossible possible. Our people are driven by the desire to make the world a better place—to make a positive difference that contributes to a brighter future. We bring together technologies and industries, alongside the contributions of diverse individuals who are empowered by an intentional workplace culture, to solve problems better and faster.

Key Responsibilities:

Lead complete Mechanical Load Assessment for complex wind turbine platforms and customer/site-specific projects.

Define appropriate simulation strategies for:

o Normal operation

o Fatigue

o Extreme/storm conditions

o Start-up/shutdown

o Fault conditions

o Grid/environmental events

o Site-specific conditions

Analyze complex wind/site conditions and determine their impact on turbine loading.

Define and optimize Wind Sector Management strategies.

Identify load-critical turbine configurations and operating conditions.

Perform advanced interpretation of simulation results and translate loads into design implications and engineering recommendations.

Technical Review & Engineering Governance

Act as technical authority for MLA analysis and results.

Perform independent Peer Review Board (PRB) of complex/critical simulations.

Review simulation methodology, model assumptions, input data, load cases and acceptance criteria.

Challenge engineering results and provide technically justified recommendations.

Review and approve MLA reports, load models and certification documentation.

Support internal and external certification activities and technical discussions with certification bodies/customers.

To be part in ongoing processes & tool developments.

Platform & Configuration Development

Lead validation of new turbine configurations, variants and operating modes in MLA tools.

Define validation plans and acceptance criteria for new configurations.

Investigate unexpected loads, model behavior and simulation discrepancies.

Lead root-cause investigations and resolution of complex technical issues.

Provide load requirements/input to new turbine and component designs.

Tools, Methods & Innovation:

Lead development and improvement of MLA methodologies, processes and engineering tools.

Drive automation of simulation setup, execution, post-processing and reporting.

Identify opportunities for:

• Digitalization
• Data analytics
• Automated result interpretation
• AI/ML-assisted engineering workflows

Establish engineering best practices and standard methodologies across MLA teams.

Contribute to technology roadmaps and next-generation turbine development.

Leadership:

Provide technical mentoring and coaching to engineers.

Lead technical reviews and knowledge-sharing sessions.

Support project planning, technical risk assessment and resource estimation.

Interface with:

• Turbine design
• Aero
• Structural engineering
• Certification
• Reliability
• Product management
• Project management
• Customers

Represent the MLA function in technical/customer/certification discussions.

Typical Deliverables:

• Approved MLA summary reports
• Load models
• Certification reports/documentation
• PRB/independent technical reviews
• Wind Sector Management strategies
• Configuration validation reports
• Technical methodologies and guidelines
• Engineering standards/processes
• Root-cause and technical investigation reports

Required Technical Expertise:

Strong expertise in:

• Wind turbine aeroelasticity and dynamics
• Mechanical load analysis
• Fatigue and ultimate load assessment
• Wind turbine design load cases
• Site suitability assessment
• Wind Sector Management
• Turbine control/load interaction
• Structural dynamics
• Load path and component design implications
• IEC 61400-1 and GL guidelines relevant wind turbine certification requirements
• Simulation model development and validation
• Engineering uncertainty and sensitivity assessment

Tools:

Strong experience with relevant:

• Wind turbine aeroelastic/MLA simulation tools
• MATLAB/Simulink
• Python
• Advanced data analytics
• Automation/scripting
• Version control and software development practices
• Experience using Git or equivalent version control systems to support collaborative engineering development.
• Expert knowledge of aeroelastic simulation tools such as Bladed, Flex5, OpenFAST, or HAWC2.
• Working experience ANSYS Workbench, Solid works/UG

We are known for our extraordinary people who make the impossible possible every day. Questians are driven by hunger, humility, and aspiration. We believe that our company culture is the key to our ability to make a true difference in every industry we reach. Our teams regularly invest time and dedicated effort into internal culture work, ensuring that all voices are heard.

We wholeheartedly believe in the diversity of thought that comes with fostering a culture rooted in respect, where everyone belongs, is valued, and feels inspired to share their ideas. We know embracing our unique differences makes us better, and that solving the worlds hardest engineering problems requires diverse ideas, perspectives, and backgrounds. We shine the brightest when we tap into the many dimensions that thrive across over 21,000 difference-makers in our workplace.

Work Experience

Must Have

• Bachelor's degree in Mechanical/Aerospace/Mechatronics/Structural Engineering or related discipline.

Preferred

• Master's/PhD in:
• Mechanical Engineering
• Aerospace Engineering
• Structural Dynamics
• Wind Energy
• Renewable Energy

Experience

Typically, with substantial experience specifically in wind turbine loads/aeroelastic simulation/MLA.

Communication & Soft Skills:

Communication:

• Clear and concise technical writing.
• Ability to explain simulation results and engineering conclusions to non-specialists.
• Good verbal communication and presentation skills.
• Ability to communicate assumptions, risks, uncertainties and recommendations clearly.
• Strong documentation discipline.

Collaboration:

• Effective collaboration with global, cross-functional engineering teams.
• Ability to work with design, aero, structural, certification and project teams.
• Ability to work independently while escalating issues appropriately.

Analytical Thinking:

• Strong problem-solving and analytical mindset.
• Ability to identify trend