Embedded Software Engineer jobs for Wind Energy Storage projects

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Schedule Wind Energy Storage projects in advance, no more acquisition

Project overview

The wind energy storage project aims to improve the efficiency and reliability of wind energy by developing innovative solutions for storing excess energy generated by wind turbines. As wind energy is a variable source of energy, there is a need to store excess energy for later use when wind speeds are lower or electricity demand is high. The project involves designing and testing various energy storage technologies such as batteries, pumped hydro, and compressed air energy storage systems, and integrating them with wind turbines to ensure a steady and reliable supply of clean energy. By providing a cost-effective and scalable energy storage solution, this project can help accelerate the adoption of wind energy and reduce reliance on fossil fuels. Embedded Software Engineer jobs for Wind Energy Storage projects, only at Skilleon.

Roles and techniques

Project Manager Site Manager Construction Manager Electrical Engineer Mechanical Engineer Embedded Software Engineer Energy Management System (EMS) Battery Management System (BMS) Power Converters Energy Software Monitoring System Predictive Maintenance System Microgrid Control SystemData Analytics for Wind Farm OperationsWind Turbine Control Systems
Your new job as

Embedded Software Engineer

In the role of an embedded software engineer, you will assist in constructing the operating system for the battery storage systems. This operating system links the batteries to various sources of electricity such as the grid, solar parks, and wind turbines while phasing out the need for diesel generators. The popularity of these systems is increasing rapidly, and there are constant technological advancements to keep up with. The position will require you to not only work on improving existing products but also involve designing new ones.

Location & travelling

  • Region Almere, The Netherlands
  • Indoor carpark
  • 2 minutes from bus stop
  • 20 minutes walk from Almere central station

  • Both remote and in office working
  • Visiting many locations throughout the Netherlands

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Meet your new team

Frequently used skills by team


Project Management Reporting Software design Embedded programming Technical Calculations Researching Technical design Problem-solving Communication Stakeholder management Analytical Team Player Agile/Scrum Python Opensource programming Unix/linux C+ Dutch English

Your skills


Skills you will bring:

Python

C+

Communication

Stakeholder Management

Software Design

Embedded Programming

Opensource Software

Unix/linux

Agile/Scrum

Skills you learn


Skills you will improve:

Python

C+

Communication

Stakeholder Management

Software Design

Embedded Programming

Opensource Software

Unix/linux

Agile/Scrum

         
Basic Novice Intermediate Advanced Expert
         
Basic Novice Intermediate Advanced Expert
Your current Skills

Skills that you master:
Wind Turbine Design
Team Player
Fluid Mechanics
Analytical
Reporting
Cost Analysis
Materials Knowledge
Team Management
Skills you will learn

Skills you will improve:
Wind Turbine Design
Team Player
Fluid Mechanics
Analytical
Reporting
Cost Analysis
Materials Knowledge
Team Management
Let's meet each other soon

All about your new job

You are in charge! Let us elaborate on your possible next career opportunity!

Your ambitions matter

As an embedded software engineer working on a renewable energy storage project, we recognize your value as a top-tier professional, and it's important for us to create an environment that nurtures your career growth. To support your ongoing professional development, we provide a range of training and development programs that enable you to expand your skill set and remain current with the latest advancements and industry standards. Furthermore, our organizational culture prioritizes teamwork, creative thinking, and ongoing enhancement, ensuring that you'll enjoy an engaging and fulfilling work environment.

your-ambitions-matter
the-impact-of-your-job

The impact of your job

Your proficiency in software development, design, and optimization will aid in creating a secure, efficient, and effective energy storage system. You are vital in guaranteeing that the energy storage system meets its energy production goals while keeping costs at a minimum. Moreover, your contributions will assist in ensuring the system operates reliably and efficiently throughout its lifespan.

Your reward & promotion

As an embedded software engineer on a renewable energy storage project, you can anticipate a market confirm salary with 40 holiday days. As you gain more experience and demonstrate your proficiency, you may advance to roles with greater responsibilities and higher salaries, such as a senior embedded software engineer or a project manager (with a potential salary increase of 5-10% within two years). Your career trajectory could also present opportunities for specialized training, professional development, and international assignments.

your-reward-promotion
you-have-success-when

A successful day is achieved by...

... ensuring that the energy storage system is designed and installed to operate at its highest level of efficiency.

... competently identifying and troubleshooting any technical difficulties that arise.

... demonstrating effective communication and collaborative skills within the project team.

... ultimately, your success is measured by your personal satisfaction in the work you produce and your ability to deliver exceptional results.

APPLY FOR THIS POSITION »
Wind Energy Storage

Project information

The wind energy storage project is an innovative project in the renewable energy sector, specifically in the wind energy industry. The project aims to develop and implement a system for storing wind energy efficiently and cost-effectively. This project requires a wide range of technical expertise and knowledge, as well as strong project management skills. To ensure the success of the project, a team of professionals from different fields is required. In this section, we will provide an overview of the project size, the number of professionals and companies involved, the equipment and tools used, the project timeline, and the roles of different companies in this project.

Project size

The size of a renewable energy project can vary widely depending on the type of technology used, the capacity of the project, and the location of the project. In the wind energy sector, an average wind park project might have a capacity of around 50-100 MW, and could require a land area of several square kilometers. The size of the project can have significant implications for the project timeline, as larger projects typically require longer development, construction, and commissioning periods.

In terms of financials, a typical wind energy project can involve a significant amount of capital expenditure (CAPEX) during the construction and commissioning phases. The CAPEX range for a wind energy project can vary widely depending on a number of factors, including the size and capacity of the project, the technology used, the location, and the regulatory environment. However, a typical CAPEX range for a medium-sized wind farm might be around €100-200 million, while larger projects can easily exceed €1 billion in CAPEX.

In addition to CAPEX, wind energy projects typically involve a significant amount of operating expenses (OPEX) over the life of the project. OPEX can include costs such as maintenance, repair, insurance, and taxes, and can have a significant impact on the overall financial viability of the project. Effective project management and cost control are critical to ensuring the long-term profitability and sustainability of a wind energy project.

Professionals and companies

The number of professionals and companies involved in a project can vary greatly depending on the size and complexity of the project. A small project may involve only a handful of professionals and one or two companies, while a larger project may require hundreds or even thousands of professionals and involve multiple companies across different industries.

In general, a project will involve a project manager or project director who oversees the project from start to finish. They are responsible for managing the budget, timeline, and resources to ensure that the project is completed successfully. Depending on the scope of the project, there may be several project managers overseeing different aspects of the project.

Other key roles on a project may include architects, engineers, designers, contractors, and consultants. Architects are responsible for designing the overall layout and aesthetic of the project, while engineers work to ensure that the project is structurally sound and meets all safety and regulatory requirements. Designers may focus on specific elements of the project, such as the interior design or landscaping.

Contractors are responsible for carrying out the physical construction of the project, while consultants may be brought in to provide specialized expertise in areas such as sustainability, logistics, or legal matters. Depending on the project, there may also be roles for technicians, operators, and maintenance personnel to ensure that the project continues to run smoothly after it is completed.

In terms of companies, a project may involve several contractors working together, as well as subcontractors who are brought in for specific tasks. There may also be multiple design firms, engineering firms, or consulting firms involved, as well as suppliers and vendors providing equipment and materials.

The financial aspect of a project can also vary widely depending on the scope and size of the project. Generally, the larger the project, the higher the capital expenditure (CAPEX) will be. CAPEX refers to the total amount of money that is required to fund the project, including all costs associated with planning, design, construction, and equipment. Projects in the renewable energy sector, for example, can have CAPEX ranging from a few million dollars for a small project to several billion dollars for a large-scale wind or solar park.

Used equipment

The equipment used in the wind energy storage project plays a critical role in ensuring efficient and reliable energy storage from wind turbines. Wind energy storage systems involve the use of several types of equipment, including batteries, power inverters, transformers, and control systems, among others. These pieces of equipment work together to capture and store wind energy, convert it to usable electricity, and distribute it to the power grid. 

Wind turbine

Wind turbines

These are the key pieces of equipment used in the generation of wind energy. They are used to harness the wind's kinetic energy and convert it into electrical energy.
Energy storage systems

Energy storage systems

These systems are used to store energy that is generated by the wind turbines. They are crucial for ensuring that the energy generated can be used during times when wind speeds are low.
Electrical transformers

Electrical transformers

These are used to transform the voltage of the electrical energy generated by the wind turbines and stored in the energy storage systems.
Control systems

Control systems

These systems are used to monitor and control the operation of the wind turbines, energy storage systems, and other equipment on the project. They help ensure that the energy generated is being used efficiently.
Power electronics

Power electronics

This equipment is used to regulate the flow of energy between the wind turbines and the energy storage systems, as well as between the energy storage systems and the grid.
Wind Energy Storage

Project timeline

Phase 1

Initiative & feasibility

During this phase, the project team will conduct a feasibility study to determine the potential for wind energy storage in the specific region where the project will take place. 

Project team conducts a feasibility study to determine the potential for wind energy storage.
Phase 1
Phase 2

Design & planning

In this phase, the project team will work on the detailed design and planning of the project. This includes developing technical specifications, creating the engineering design, and selecting the required equipment and materials.

Project team works on the detailed design and planning.
Phase 2
Phase 3

Engineering & tendering

During this phase, the project team will start the engineering work and will begin the tendering process for the procurement of equipment and materials. The team will also work on finalizing the contracts with suppliers and contractors.

Project team starts the engineering work and will begin the tendering process
Phase 3
Phase 4

Construction

This phase involves the actual construction of the wind energy storage project. The project team will oversee the installation of equipment and materials, as well as the commissioning of the storage system. 

The actual construction of the wind energy storage project.
Phase 4
Phase 5

Commissioning

During this phase, the project team will conduct testing and commissioning of the wind energy storage system to ensure that it is fully operational and functioning as intended.

Testing and commissioning of the wind energy storage system.
Phase 5
Phase 6

Operations & maintenance

In this final phase, the wind energy storage system is put into operation and the project team is responsible for ongoing maintenance and monitoring of the system to ensure its continued performance. 

Wind energy storage system is put into operation.
Phase 6

Company roles

Government

In a wind energy storage project, the government's role is to provide regulatory oversight, including permits, licenses, and compliance with environmental regulations. They may also be responsible for providing financial incentives, tax credits, or subsidies to encourage renewable energy projects. The government may also work with local communities to ensure that the project is not disruptive to the surrounding area.

Client

The client in a wind energy storage project is typically an energy company or a utility that wants to store excess wind energy to use during periods of low wind. The client is responsible for defining the project scope and objectives, setting the budget and timeline, and managing the overall project. The client may also be responsible for securing financing for the project.

Consultant

Consultants play a vital role in wind energy storage projects. They provide technical expertise and advice on project planning, design, and implementation. Consultants may help with feasibility studies, environmental impact assessments, site selection, and engineering design. They also provide project management services, ensuring that the project is completed on time and within budget.

Contractor

Contractors in wind energy storage projects are responsible for the actual construction of the project. They work closely with the client and consultants to ensure that the project is built to specifications and meets all regulatory requirements. Contractors are responsible for managing subcontractors, ensuring safety on the job site, and ensuring that the project is completed on time and within budget.

Supplier

Suppliers in wind energy storage projects provide the materials and equipment necessary for the project. This includes the wind turbines, energy storage systems, and other components necessary for the project. Suppliers are responsible for ensuring that the equipment is delivered on time and meets the specifications required for the project. They may also provide installation and maintenance services for the equipment.

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