Fuel Cell Manufacturing with Laser Technology

Fuel cells are a promising solution for a greener future. They can play an important role to power commercial electric vehicles and facilities.

During fuel cell manufacturing, bipolar plates (also known as flow plates or interconnects) can benefit from laser surface preparation. Laser texturing and cleaning can prepare these plates for various protective coatings and adhesives with precision, speed, and cost efficiency. The same laser can also be used to mark plates for traceability.


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Laser Technology to Scale Up Bipolar Plate Production
 

With our industrial expertise, we help fuel cell manufacturers achieve the quality they need, reduce production costs, and scale up their production line to meet high-volume requirements.

  • Easy automation
  • No consumables
  • Precise treatment
  • Fast processing
  • Green technology
  • 100% safe
  • Low maintenance
  • Fixtures with magnets to correct warping before processing

Industrial Laser Applications for Bipolar Plates

Fiber lasers are increasingly used in the manufacturing process of bipolar plates. They are ideal to replace abrasive blasting and eliminate masking, which are hard to control and lack precision. A single laser unit can be used for texturing, cleaning, and marking applications.

Laser Texturing

Laser texturing etches metallic surfaces to create a repeatable texture and roughness on bipolar plates. This is used to improve adhesion for thermal spray coating, e-coating, and other protective coatings.

With its precision, laser texturing can texture specific areas while leaving the rest untouched.

Laser Cleaning

Bipolar plates must be clean of all contaminants to meet the highest quality requirements.

Laser cleaning is used to remove oxides, oils, and other contaminants that would otherwise interfere the good adhesion of coatings. These contaminants also need to be removed to improve the overall efficiency of the fuel cells.

Laser Marking

The same laser used for texturing and cleaning can be used to mark bipolar plates with a data matrix code. Using laser marking to implement traceability as well as laser cleaning and texturing is a great way to optimize your investment.

Hydrogen and Fuel Cell Applications

  • Hydrogen Electric Vehicles

    Fuel cells can transform hydrogen into electricity to power electric vehicles. While they are not as energy efficient as lithium-ion batteries, they offer shorter charging times. This makes them ideal for commercial vehicles like buses, trucks, trains, ships, and airplanes.

    Fuel cell vehicles also help reduce our dependency on lithium, a scarce and polluting resource used in the fabrication of EV batteries in the automotive industry.

  • Hydrogen Power Generators

    Fuel cells are used in microgrids to transform hydrogen into electrical energy. In doing so, they act as power generators for various facilities such as data centers, hospitals, financial processing centers, pharmaceutical companies, and research centers.

    Microgrids can also solve energy storage for renewable energy sources by using electrolyzers to extract hydrogen from water and store this element for a future use in fuel cell systems.

What is a Fuel Cell?

What is a Fuel Cell?

Unlike typical batteries, fuel cells do not store energy within their components. Instead, they generate power by transforming hydrogen and oxygen into electrical energy. To do this, fuel cells need a fuel that is rich in hydrogen. The most common type of fuel is hydrogen, but methanol, ethanol, and ammonia can also be used.

A single fuel cell does not generate enough power for most applications. For this reason, multiple fuel cells are assembled together to form a fuel cell stack and provide more power. Fuel cells are a component of a complete system that can be used, for example, in electric vehicle batteries or as backup power generators.

How Hydrogen is Produced Matters

Hydrogen fuel cell technology can produce energy that is 100% green, where the only byproducts are heat and water. However, most of the world’s hydrogen is currently produced using natural gas, oil and coal. To meet sustainability goals and truly reduce green gas emissions, hydrogen production must be done using a renewable energy source such as solar, wind or hydro power. One exciting example is Canada’s deal with Germany to provide clean hydrogen produced using wind turbines as soon as 2025.

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