A 316L sintered stainless steel hydrogen dissolving stone has good chemical compatibility and is suitable for various liquid media. The sintering process creates a uniform and interconnected pore structure, ensuring stable and reliable performance.

In the fuel cell system, the specific role of hydrogen dissolving stone is to promote the dissolution of hydrogen into the electrolyte of the fuel cell, thereby supporting the normal operation and electrochemical reaction of the fuel cell.

Products Parameters

Material: stainless steel 316L powder

Technical: sintering

Size:12*30mm

Pore size:20um

Porosity:35%

Products detail

20230810113625

It's important to note that the design and selection of a hydrogen dissolving stone depend on the specific application parameters, such as hydrogen gas flow rate, operating pressure, desired dissolution efficiency, and the characteristics of the liquid media involved. Working closely with a supplier or manufacturer experienced in hydrogen dissolution technologies can help ensure the optimal design and performance of the sintered stainless steel hydrogen dissolving stone for your specific application.

Products Applications

Water Treatment: By dissolving hydrogen gas into water, the stones help reduce the oxidation-reduction potential (ORP) and increase the water's antioxidant capacity, which can have benefits for drinking water, spa treatments, and other water-related applications.

Hydrogenation Reactions: These stones facilitate the efficient dissolution of hydrogen gas into liquid reactants, enabling hydrogenation reactions that are crucial in the production of various chemicals, pharmaceuticals, and fine chemicals.

Hydrogenation of Edible Oils: Hydrogen gas is dissolved into the liquid oils to modify their properties, such as improving stability and increasing the melting point, to achieve desired characteristics for food products like margarine or shortening.

Laboratory Applications: Hydrogen dissolving stones find use in various laboratory applications where precise control over dissolved hydrogen gas concentration is required. This includes research, analysis, and experiments that involve hydrogenation, catalyst testing, or studies on hydrogen gas dissolution in liquids.