Renewable Energy

Wind Turbine Design engineering jobs

Project overview

The wind turbine design project is a complex engineering project that focuses on designing and developing innovative wind turbines. This project involves several stages, including initial research and conceptualization, detailed design and analysis, prototype testing, and final production. The ultimate goal of this project is to create high-performance wind turbines that are both efficient and cost-effective, helping to drive the adoption of renewable energy sources around the world.

Roles and techniques

Design Engineer Structural Engineer Electrical Engineer Project Manager Quality Assurance Specialist Computational Fluid Dynamics (CFD) Finite Elemant Analysis (FEA) Blade Element Momentum Theory (BEMT) Control Systems Design Materials Science and Engineering


Wind Turbine Design engineering jobs

Project information

Designing an efficient and reliable wind turbine requires a diverse range of skills and expertise. This project involves the collaboration of several professionals and companies, each with their unique role in the process. Through the use of various cutting-edge techniques and specialized equipment, the project aims to create a wind turbine design that is safe, effective, and sustainable. In this section, we'll delve into the various phases of the project, the roles of the different professionals involved, and the techniques and equipment used to bring the project to fruition.

Project size

The cost of a wind turbine design project can vary significantly depending on the size and scope of the project. A small-scale wind turbine design project may cost as little as a few thousand euros, while a larger-scale project can cost several million euros or more.

Factors that can impact the cost of the project include the number and size of the wind turbines being designed, the complexity of the project, and the level of detail required in the design. Additionally, the cost of raw materials, specialized equipment, and labor can all contribute to the overall cost of the project.

It's important to note that while the initial investment may be significant, a well-designed wind turbine can generate significant cost savings over its operational lifetime. In addition to providing renewable energy, wind turbines can help to offset energy costs and reduce a company's carbon footprint. As such, the long-term financial benefits of a well-designed wind turbine can far outweigh the initial investment.

Professionals and companies

The design of a wind turbine involves a significant number of professionals and companies. Depending on the size and complexity of the project, it can involve hundreds or even thousands of people, from design engineers and project managers to construction workers and maintenance crews. This large number of individuals and companies work together to ensure the wind turbine is designed, constructed, and maintained to meet the needs of the client and the community.

To give a more concrete example, a typical wind turbine project might involve a team of design engineers who work together to create a blueprint of the wind turbine. This team would be responsible for designing the turbine's tower, rotor blades, gearbox, and other critical components. In addition, the team would work with suppliers to ensure they have the materials and parts necessary to construct the turbine.

Once the design is complete, the project moves to the construction phase, where a team of construction workers would assemble the wind turbine. This team would be responsible for erecting the tower, attaching the rotor blades, and connecting the electrical components. Throughout the construction phase, project managers would oversee the work to ensure it is completed on time and within budget.

Finally, after the wind turbine is constructed, a team of maintenance crews would be responsible for ensuring it operates smoothly and efficiently. This team would be responsible for inspecting the turbine regularly, performing maintenance tasks, and troubleshooting any issues that arise.

In terms of the number of companies involved in a wind turbine project, it can vary widely depending on the size and scope of the project. A small-scale project may only involve a handful of companies, while a large-scale project may involve dozens or even hundreds of companies, including suppliers, contractors, and sub-contractors. Regardless of the number of companies involved, it's critical that they all work together seamlessly to ensure the project's success.


Used equipment

In order to efficiently harness the power of wind, a variety of specialized equipment is required for the design of a wind turbine. These machines and tools are essential to designing, constructing, and maintaining the wind turbines.


AutoCAD software

CAD software allows engineers to create and modify 2D or 3D designs of wind turbine components. This software enables engineers to model, analyze, and optimize the design before the actual production of the components begins.

Finite Element Analysis (FEA)

FEA software is used to analyze and simulate the behavior of wind turbine components under different loading conditions. This software helps engineers to predict the performance of the wind turbine components and identify potential design flaws.

Wind tunnel

Wind tunnels are used to test wind turbine designs in controlled environments. Engineers can measure the aerodynamic properties of the blade profiles and optimize the design for maximum efficiency.

Strain Gauges

Strain gauges are used to measure the stress and strain on wind turbine components under different loading conditions. Engineers can use the data collected from strain gauges to improve the design and ensure the structural integrity of the components.

Rotor balancing machine

Rotor balancing machines are used to balance the rotating components of the wind turbine, such as the rotor blades and generator shaft. Proper balancing reduces vibration, improves efficiency, and prolongs the lifespan of the wind turbine.

Material testing equipment

Material testing equipment is used to evaluate the mechanical properties of wind turbine components. This equipment allows engineers to test the strength, hardness, and other material properties of the components to ensure they meet design specifications and safety standards.


Wind Turbine Design jobs

Project timeline

Phase 1

Initiative & feasibility

In this phase, the initial concepts and feasibility of the project are explored. The goal is to determine if the project is technically and economically viable, and if it aligns with the company's goals.

Phase 1
Phase 2

Design & planning

During this phase, the project is designed in detail and a plan is developed to execute the project. The design includes specifications for the wind turbine, tower, and foundation, and may involve computer-aided design (CAD) software.

Phase 2
Phase 3

Engineering & tendering

In this phase, the detailed engineering work is carried out, and procurement processes are initiated. The engineering work includes structural analysis, aerodynamic calculations, and performance analysis.

Phase 3
Phase 4


This phase involves the actual construction of the wind turbine. The tower and foundation are constructed, and the turbine components are assembled on site. A wide range of heavy equipment is used during this phase, including cranes, loaders, and excavators.

Phase 4
Phase 5


Once construction is complete, the turbine undergoes a series of tests to ensure it is functioning properly. This includes tests of the electrical and control systems, as well as the turbine's mechanical systems.

Phase 5
Phase 6

Operations & maintenance

The final phase involves ongoing operation and maintenance of the wind turbine. This includes regular maintenance and inspections, as well as repairs and replacements as needed.

Phase 6


Company roles


The government plays a critical role in the wind turbine design project by providing regulatory oversight to ensure compliance with laws and regulations. They also provide guidance on environmental, health and safety, and other requirements that must be met during the design and construction process. Furthermore, the government provides support for research and development initiatives, making it easier for companies to explore new technologies and techniques to improve the performance and efficiency of wind turbines.


The client is the entity that commissions the wind turbine design project and is responsible for funding it. They play a crucial role in setting the project requirements and ensuring that the design meets their needs. Additionally, the client provides feedback on the project design, approves the design documents, and oversees the construction process to ensure that the project is completed on time, within budget, and to their satisfaction.


The consultant is responsible for providing technical advice and support throughout the design and construction process. They work closely with the client to ensure that the project meets their requirements and provide guidance on the selection of materials and equipment. Additionally, they may perform site inspections to monitor the construction process, ensure compliance with regulations, and identify potential issues that could impact the project's success.


The contractor is responsible for executing the wind turbine design project and completing it on time, within budget, and to the client's satisfaction. They are responsible for coordinating the various subcontractors and suppliers involved in the project and ensuring that the project is completed to the highest quality standards. They may provide input on the project design and offer recommendations for improvements to enhance its efficiency and performance.


The supplier is responsible for providing the equipment, materials, and components required for the wind turbine design project. They play a critical role in ensuring that the project runs smoothly by delivering high-quality products on time and within budget. Moreover, they may provide technical support and advice on the selection and use of their products, helping to optimize the performance and efficiency of the wind turbine design.