How Will Ultrasonic Atomization Hydrogen Production Change The World?

Ultrasonic atomization spray equipment uses ultrasonic energy to convert liquid into tiny droplets to form a uniform spray, which is suitable for a variety of precision spraying scenarios.

The application of ultrasonic atomization spraying in hydrogen production by electrolysis is mainly reflected in the following aspects:

1. Catalyst coating

Uniformity: Ultrasonic atomization spraying can generate tiny and uniform droplets to ensure that the catalyst is evenly distributed on the electrode surface and improve the reaction efficiency.

Material saving: Precisely control the spraying amount, reduce catalyst waste, and reduce costs.

2. Electrode preparation

Thin film preparation: Suitable for preparing thin and uniform electrode coatings to improve electrode performance.

Multilayer structure: Different materials can be sprayed layer by layer to build a multilayer electrode structure and optimize performance.

3. Membrane electrode assembly (MEA) preparation

Uniform coating: Evenly coat the catalyst on both sides of the proton exchange membrane to ensure consistent reaction areas and improve battery efficiency.

Efficient production: Suitable for large-scale production and improve the manufacturing efficiency of MEA.

4. Surface modification

Enhance adhesion: Surface treatment is performed through ultrasonic atomization spraying to improve the adhesion between the coating and the substrate and extend the life of the electrode.

Functional coating: Spraying functional materials to improve the conductivity and corrosion resistance of the electrode.

5. R&D and Optimization

Rapid prototyping: facilitates rapid preparation and testing of different catalysts and electrode designs, accelerating R&D.

Parameter optimization: optimize coating performance and improve electrolysis efficiency by adjusting spraying parameters.

6. Environmental protection and safety

Reduced pollution: no solvent volatilization during the spraying process, reducing environmental pollution.

Safe operation: non-high temperature and high pressure process, reducing operation risks.