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CVD Graphene — Large-area graphene film grown by chemical vapor deposition
Continuous graphene layers synthesized on metal substrates for electronic and functional surfaces
Introduction

Short answer: CVD graphene is a graphene material grown as a continuous film by chemical vapor deposition on metal substrates such as copper or nickel. It is used where large-area, uniform graphene layers are required. Its properties depend on growth conditions and transfer quality, and it is not a powdered graphene filler or graphene oxide.

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Last updated: 2026-01

Material Identity

  • Chemical name: Graphene (CVD-grown)
  • Material class: two-dimensional sp2-bonded carbon film
  • Structure: continuous graphene layer grown on metal substrate
  • CAS number: not assigned (process-grown carbon material)
  • Physical form: thin film; typically supplied on substrate or transferred to another surface
  • What it is not: not graphene oxide, not reduced graphene oxide, not graphene nanoplatelet powder

Activation & Trigger Conditions

  • Trigger: electronic transport through continuous graphene lattice
  • Energy domain: delocalized π-electron system in sp2 carbon network
  • Absent trigger: discontinuities or cracks interrupt electrical pathways
  • Insufficient condition: poor growth uniformity or defective transfer reduces functionality
  • Excess condition: aggressive handling or processing damages the graphene film

Functional Role

  • Provides continuous graphene coverage over large areas
  • Enables electrical conductivity through an uninterrupted carbon lattice
  • Acts as a functional surface layer rather than a bulk filler
  • Supports surface-level electronic, thermal, or barrier functions

Application Windows

  • Compatible systems: electronic substrates, flexible films, optical and functional surfaces
  • Integration mode: on-substrate use or transfer to target surface
  • Processing notes: cleanliness, transfer method, and substrate compatibility strongly affect outcomes

Limitations & Failure Modes

  • Transfer defects → cracks or tears → loss of electrical continuity
  • Surface contamination → increased resistance → degraded electronic behavior
  • Mechanical stress → film rupture → localized performance failure

Alternatives & Trade-offs

  • Graphene nanoplatelets: bulk composite use but no continuous film
  • Reduced graphene oxide films: easier processing but lower structural order
  • Conductive coatings: simpler deposition but different electronic structure

When to Use

  • When large-area, continuous graphene coverage is required
  • When surface conductivity is needed without bulk fillers
  • When two-dimensional electronic properties are important
  • When substrate-based integration is feasible

FAQ

Is CVD graphene the same as graphene powder?

No. CVD graphene is a continuous film, while graphene powders are particulate materials.

Does CVD graphene always show high conductivity?

Conductivity depends on film continuity, defect density, and transfer quality.

Why does performance vary between samples?

Variation arises from growth parameters, substrate quality, and handling during transfer.

Data

No numerical values are listed. Sheet resistance, layer count, defect density, and uniformity are process- and grade-specific and must be verified experimentally.

Sources

Peer-reviewed literature on chemical vapor deposition graphene and supplier technical documentation.

Application area
  • Electronic and optoelectronic substrates
  • Flexible and transparent conductive surfaces
  • Functional coatings and surface layers
  • Graphene research and advanced materials