Harnessing graphene for commercial electronic devices
Paragraf has developed a new and unique production process that makes its “next-generation” graphene suitable for commercially viable electronic devices. Paragraf graphene is directly compatible with existing electronic device processing and production lines, enabling readily scalable graphene electronic device production.
The process:
- enables graphene to be produced directly onto semiconductor-compatible substrates such as silicon, silicon-carbide, sapphire and gallium-nitride
- does not require catalytic formation of the graphene so eliminating metallic contamination
- allows synthesis of large areas of the material (up to 8” diameter to date)
Graphene in electronics
Graphene’s high transparency (only one atomic layer thick), outstanding flexibility, mechanical strength and exceptional conductivity make it particularly suitable for use in electronic device surface applications, such as:
- interactive human interfaces (touchscreens)
- flexible mobile devices
- surface contact for SSDs
- ITO replacement
Efficient production
Paragraf’s graphene production technique enables formation of graphene directly onto semiconductor material surfaces and transparent crystalline substrates. Full coverage with either pristine, functionalised or multi-layer graphene produces a surface with all the properties required for final product application. This combination of benefits eliminates several processing requirements – increasing productivity while reducing cost.
Graphene in energy
Graphene has high levels of electrical and thermal conductivity, electrochemical stability, a large surface area and potential for direct combination with other crystalline materials. These qualities make it invaluable for enhancing electrical extraction efficiency in green energy applications such as:
- solar PV cells
- large-scale rapidly rechargeable batteries
Paragraf’s ability to highly functionalise graphene offers the potential for new energy harvesting ideas. These include using other environmental interactions and forces to create novel energy generation approaches.