(Discontinued) GR6937 Graphene on Nickel Foam

Graphene on Nickel Foam Description

Graphene on Nickel Foam is a material produced by growing a three-dimensional graphene network on a nickel foam substrate using chemical vapour deposition (CVD). It combines the electrical conductivity of graphene with the physical structure provided by nickel foam, thereby creating a platform for electrochemical research and industrial applications.

The material is used in electrochemical experiments as an electrode. It is applied in sensors, supercapacitors, and electrochemical capacitors. The three-dimensional structure increases the electrode-active surface area. The product is available in various dimensions that meet specific research and industrial requirements.

Key Benefits:

Electrical Conductivity: The material supports current densities as required in electrochemical devices.

Enhanced Surface Area: The three-dimensional network increases the contact area, which improves device efficiency.

Customisable: The product is manufactured in various sizes to meet specified experimental conditions.

Durability: The combination of graphene and nickel foam meets laboratory durability standards.

Versatility: The material is used in electrochemical experiments, sensor development, capacitor construction, and other technologies.

Graphene on Nickel Foam Applications

·      Electrochemical Energy Storage: The material is used as an electrode in supercapacitors, batteries, and other energy storage devices, where measured surface area improvements have been documented.

·      Sensors: It is employed in gas sensors, biosensors, and environmental sensors owing to its measured sensitivity and electrical properties.

·      Electrochemical Capacitors: The material is integrated into electrochemical capacitors to improve charge and discharge rates, as verified by experimental data.

·      Catalysis: It is used in catalytic processes, including hydrogen evolution and fuel cell reactions, where conductivity and active surface area are quantified.

·      Water Splitting: The material functions as an electrocatalyst in water splitting reactions for hydrogen production, as confirmed by laboratory tests.

·      Flexible Electronics: It is used in flexible electronic systems and wearable devices, where measured electrical and mechanical properties are required.

Graphene on Nickel Foam Packaging

The products are packaged in customised cartons that match the material dimensions. Small items are enclosed in PP boxes, while larger items are placed in custom wooden crates. Packaging is carried out using appropriate cushioning materials to protect products during transportation.

Packaging: Carton, Wooden box, Paper barrel, Iron barrel, or Customised.

Please review the packaging details provided for further information.

Graphene on Nickel Foam FAQs

Q1. What is Graphene on Nickel Foam?

Graphene on Nickel Foam is produced by growing a three-dimensional graphene network on a nickel foam substrate using chemical vapour deposition (CVD). This process combines measured electrical conductivity with the physical integrity of nickel foam, which meets specifications for electrochemical applications.

Q2. What are the key benefits of Graphene on Nickel Foam?

Electrical Conductivity: The material supports current densities required in energy storage and sensor applications.

Increased Surface Area: The three-dimensional structure maximises the electrode-active area as measured in laboratory tests.

Durability: Laboratory tests confirm that the mechanical properties of the material meet standard durability requirements.

Customisation: The product is available in various sizes to meet specific experimental and industrial requirements.

Q3. What are the primary applications of Graphene on Nickel Foam?

Electrochemical Energy Storage: It is used as electrode material in supercapacitors, batteries, and other energy storage devices.

Sensors: The material is employed in gas sensors, biosensors, and environmental sensors.

Electrochemical Capacitors: It is used to improve charge/discharge rates in electrochemical capacitors, as measured by performance tests.

Catalysis: The material is applied in catalytic processes, including hydrogen production and fuel cell reactions, with quantifiable activity levels.

Water Splitting: It is used as an electrocatalyst for water splitting in hydrogen production, as supported by experimental data.

Precautions and Storage Instructions

This product should be stored in a sealed container in a dry environment at room temperature. It must be kept away from volatile substances and potential contaminants. The product should be stored in an area free from fire hazards, thereby ensuring safety and consistent quality.