This know-how extends to elements specific to stacks (fluid circulation, sealing...), and to complete systems (auxiliary components, operating conditions, and safety...). Our customers are supported by our experts at all stages of their project, from analysis of needs, and co-writing specifications, to product development, and the eventual transfer of skills required for production start-up.
Axane's engineering services for fuel cell design
Our engineers are experts in the design of stacks and fuel cell systems for a variety of application areas. This unique know-how attracts companies including one of the world leaders in fuel cells for forklift trucks to partner with our teams in developing a new range of fuel cells for the European market.
Looking for performance? Improved lifetime? To solve reliability and safety issues? Optimise production costs?
Our design office helps you define technical specifications, drawing on expertise in the choice of technology.
Your project benefits from state-of-the-art testing facilities at our Sassenage test centre.
You benefit from the safety guarantees and access to hydrogen in large quantities that only a group such as Air Liquide can provide.
Looking for a service provider to test your products? To acquire test benches?
Our teams take charge of testing products you have developed at our Sassenage test centre.
We can design and manufacture test benches adapted to tests required for your products.
Stages of project development in partnership
Co-construction of technical specifications
Our engineers analyse your needs, a fundamental step for your project. Knowing how to identify the fundamental characteristics is crucial to guarantee the efficiency and profitability of your product. What are your priorities? Fuel Cell lifetime, compactness, performance, reliability, production cost?
At each stage our design office provides the advice you need to make the best decisions, which we then incorporate together in your specifications.
Customised product design (stack, system, bench)
Throughout this process, our experts subject your products to several tests that evaluate their performance, reliability and suitability in accordance with your specifications.
Our project management method – Cycle V – results in a high-performance product based on quality design.
To define the system architecture, we study the structure of the fuel cell system, draw up the functional architecture diagrams and measure potential risks.
At this stage, our experts design the detailed drawings of the stacks and fuel cell systems. This work includes the specification of all materials and components of the assembly, as well as the tools and software required for its implementation.
We validate the technical hypotheses and perform the necessary calculations for the brief, with certain elements prototyped. For example, sub-component testing allows us to validate hypotheses and identify potential problems, with the aim of reducing the level of risk and uncertainty. In this way, our experts can ensure that production complies with specifications and decide to proceed with the assembly of your system or stack.
Prototyping is to validate whether your fuel cell system confirms with specifications such as:
- Electrical performance
- Mechanical characteristics
- Manufacturing cost.
The prototype is subjected to multiple tests at our dedicated site in Sassenage. Our teams can then manufacture pre-series for testing of your products in real-life situations.
Transfer of skills
Our collaboration can conclude with a transfer of skills to your teams, allowing you to operate the manufacturing of your hydrogen fuel cell system in full autonomy.
Fuel cell: how does it work?
For 1 to 120 kW cells, Axane uses PEM (proton exchange membrane) technology. Through an electrochemical reaction, the cell produces electricity and heat while only emitting water.
The fuel cell consists of several cells, each containing a membrane electrode assembly (MEA), which is the active heart of electricity generation. The MEA consists of two electrodes, the anode (negative) and cathode (positive), on either side of the PEM membrane.
At the anode, H2 hydrogen molecules are transformed into H+ ions (protons) and electrons. The H+ ions are directed to the cathode through the PEM membrane. At the cathode, they react with oxygen and electrons to form water. The production of electrons and their consumption generate the expected electrical current and power.
The electrochemical reactions at the electrodes are:
at the anode 2 H2 → 4 H+ + 4 e-
at the cathode O2 + 4 H+ + 4 e- → 2 H2O
The resulting overall electrochemical reaction is:
O2 + 2 H2 → 2 H2O
What is an hydrogen fuel cell?
AXANE develops reliable and high-performance products
Stacks: carbon and metal
Why choose one technology over another for the development of your fuel cell? The field of application, as well as the environmental constraints, may be determining factors in your choice.
CARBON : CUSTOMER BENEFITS
METAL : CUSTOMER BENEFITS
CARBON : ADVANTAGES OF AXANE'S SOLUTIONS
METAL : ADVANTAGES OF AXANE'S SOLUTIONS
Fuel cell systems
Our teams have designed and developed hundreds of systems for 20 years. Choosing AXANE for the design and development of your fuel cell system is the guarantee of benefiting from the expertise of a leader in its field.
AXANE CUSTOMER BENEFITS
ADVANTAGES OF AXANE SOLUTIONS
Systems & stacks developed by Axane
Products - metal technology
Name: Stack M240
Description: Liquid cooled metal stack for automobiles
Products - carbon technology
Name: Stack C260
Description: Liquid-cooled compact carbon stacks for heavy vehicles (trucks, buses, trains, boats)
Download the Stack C260 product sheet
Name: Stack HPS
Description: Liquid-cooled carbon stacks for forklift trucks and stationary generators
Name: Stack G1
Description: Liquid-cooled carbon stack for stationary and portable applications
Dimensions: 280 x 112 x 105 cm
Dimensions: 940 x 450 x 385 mm