Graphene Foam

 49,900.00

SKU: TI-GPNFM1000 Category:

Technical Specification of Graphene Foam

  • Appearance: Black
  • Odour: Odourless
  • Melting point: 3652 °C
  • Vapour pressure: 1 mmHg at 3586 °C
  • Relative density: 0.2 g/cm³
  • Water solubility: Insoluble
  • Porosity: 99%
  • Surface area: 1500 m²/g
  • Thermal conductivity: 6 W/m·K
  • Electrical conductivity: 1000 S/m
  • Young’s modulus: 10 MPa
  • Average pore size: 580 μm
  • Compressibility: Up to 90%

Specification and Details Graphene Foam

Graphene Foam is made by joining very thin graphene sheets into a three-dimensional network. The sheets form an open, sponge-like structure with many tiny air-filled spaces. Due to this structure, the material is extremely light yet retains graphene’s natural strength and ability to conduct electricity. Graphene foam has an open-cell structure, with the interior composed of interconnected pores rather than solid blocks. This creates a very large surface area and lets heat and electricity pass through with little resistance. Even with this light and airy form, the material stays flexible and springy, and it can handle repeated pressing without losing strength. These qualities set it apart from most common lightweight materials.

These features make it useful in many fields. In batteries and supercapacitors, it works well as an electrode because it conducts electricity quickly and does not break down easily. Its open, porous structure also supports sensors, catalytic reactions, and filtration systems, such as water purification and the removal of harmful pollutants. Creating graphene foam with both high strength and high flexibility is still a technical challenge, but advances in fabrication methods are steadily improving its performance.

Graphene Foam Features

  • Conductivity: Electricity and heat flow smoothly since electrons can move freely within the structure.
  • Flexibility: It can bend, stretch, and compress without cracking, even under heavy pressure.
  • Surface area: The large exposed area helps with adsorption, sensing, and chemical reactions.
  • Lightweight: Its very low density makes it far lighter than most solid materials.
  • Porosity: Many open pores let air, gases, and liquids move through without blockage.
  • Stability: It stays stable at very high temperatures and keeps its performance.
  • Resistance: It resists chemical attack, making it well-suited to harsh environments.
  • Storage: It allows quick charging and discharging in batteries and supercapacitors.
  • Durability: Keeps its shape and function even after repeated compression or stress.
  • Sustainability: Useful for filtration and purification by trapping pollutants and unwanted particles.

Applications of Graphene Foam

Graphene foam is widely used in energy storage systems because it can hold and move charge very efficiently. Its porous structure allows more active material to attach to its surface, which helps batteries and supercapacitors store more energy. This also allows faster charging and discharging. Devices made with graphene foam tend to last longer and remain stable over many charging cycles. In electronics, it is valued for its excellent electrical conductivity. It is commonly used in electrodes and sensing devices where a quick signal response is required. It is both flexible and strong; it works well in wearable electronics that need to bend without damage. As it can handle very high temperatures, it performs well in harsh, demanding conditions.

It is being explored for many advanced technologies. Its light weight, heat resistance, and large surface area support uses in filtration, environmental cleanup, and chemical processing. As research continues, it is expected to play a role in next-generation energy, electronic, and environmental solutions.

How To Use Graphene Foam?

  • Slide open the tab on the box or carefully cut it open without applying pressure to the contents.
  • Use clean, sterile tweezers and hold the foam gently from one edge to avoid crushing or tearing its structure.
  • If smaller pieces are needed, cut the foam slowly using clean scissors or a sharp blade. Make sure the cut is smooth.
  • If required, gently rinse with a suitable solvent or deionized water and allow it to dry completely before use.
  • Place it gently; do not bend or fold the foam, unless the design requires a specific shape.
  • Fix the foam in place using light pressure, small clips, or a conductive adhesive.
  • Make sure the foam touches electrodes or connectors properly, as poor contact can reduce conductivity.
  • Keep unused Graphene Foam in a clean, dry container. Protect it from moisture and dust.
  • Do not handle it with bare hands; always use gloves.
  • Work in a clean area to avoid contamination.

Why Choose Us?

 We are the supplier of Graphene Foam used for both research and industrial use. Each batch is manufactured with care and checked to meet performance standards. Custom sizes and properties are available to match specific needs. Our team offers technical support when required. We ship worldwide and focus on delivering materials that customers can rely on. We offer the foam at a reasonable price.

Description

Specification and Details Graphene Foam

Graphene Foam is made by joining very thin graphene sheets into a three-dimensional network. The sheets form an open, sponge-like structure with many tiny air-filled spaces. Due to this structure, the material is extremely light yet retains graphene’s natural strength and ability to conduct electricity. Graphene foam has an open-cell structure, with the interior composed of interconnected pores rather than solid blocks. This creates a very large surface area and lets heat and electricity pass through with little resistance. Even with this light and airy form, the material stays flexible and springy, and it can handle repeated pressing without losing strength. These qualities set it apart from most common lightweight materials.

These features make it useful in many fields. In batteries and supercapacitors, it works well as an electrode because it conducts electricity quickly and does not break down easily. Its open, porous structure also supports sensors, catalytic reactions, and filtration systems, such as water purification and the removal of harmful pollutants. Creating graphene foam with both high strength and high flexibility is still a technical challenge, but advances in fabrication methods are steadily improving its performance.

Graphene Foam Features

  • Conductivity: Electricity and heat flow smoothly since electrons can move freely within the structure.
  • Flexibility: It can bend, stretch, and compress without cracking, even under heavy pressure.
  • Surface area: The large exposed area helps with adsorption, sensing, and chemical reactions.
  • Lightweight: Its very low density makes it far lighter than most solid materials.
  • Porosity: Many open pores let air, gases, and liquids move through without blockage.
  • Stability: It stays stable at very high temperatures and keeps its performance.
  • Resistance: It resists chemical attack, making it well-suited to harsh environments.
  • Storage: It allows quick charging and discharging in batteries and supercapacitors.
  • Durability: Keeps its shape and function even after repeated compression or stress.
  • Sustainability: Useful for filtration and purification by trapping pollutants and unwanted particles.

Applications of Graphene Foam

Graphene foam is widely used in energy storage systems because it can hold and move charge very efficiently. Its porous structure allows more active material to attach to its surface, which helps batteries and supercapacitors store more energy. This also allows faster charging and discharging. Devices made with graphene foam tend to last longer and remain stable over many charging cycles. In electronics, it is valued for its excellent electrical conductivity. It is commonly used in electrodes and sensing devices where a quick signal response is required. It is both flexible and strong; it works well in wearable electronics that need to bend without damage. As it can handle very high temperatures, it performs well in harsh, demanding conditions.

It is being explored for many advanced technologies. Its light weight, heat resistance, and large surface area support uses in filtration, environmental cleanup, and chemical processing. As research continues, it is expected to play a role in next-generation energy, electronic, and environmental solutions.

How To Use Graphene Foam?

  • Slide open the tab on the box or carefully cut it open without applying pressure to the contents.
  • Use clean, sterile tweezers and hold the foam gently from one edge to avoid crushing or tearing its structure.
  • If smaller pieces are needed, cut the foam slowly using clean scissors or a sharp blade. Make sure the cut is smooth.
  • If required, gently rinse with a suitable solvent or deionized water and allow it to dry completely before use.
  • Place it gently; do not bend or fold the foam, unless the design requires a specific shape.
  • Fix the foam in place using light pressure, small clips, or a conductive adhesive.
  • Make sure the foam touches electrodes or connectors properly, as poor contact can reduce conductivity.
  • Keep unused Graphene Foam in a clean, dry container. Protect it from moisture and dust.
  • Do not handle it with bare hands; always use gloves.
  • Work in a clean area to avoid contamination.

Why Choose Us?

 We are the supplier of Graphene Foam used for both research and industrial use. Each batch is manufactured with care and checked to meet performance standards. Custom sizes and properties are available to match specific needs. Our team offers technical support when required. We ship worldwide and focus on delivering materials that customers can rely on. We offer the foam at a reasonable price.

Additional information

Weight N/A
Dimension

Thickness

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