Advanced Carbon Nanomaterial

Reduced Graphene Oxide Pure Powder

High-performance reduced graphene oxide engineered for advanced composites, conductive materials, coatings, thermal management, energy storage and next-generation research applications.

Purity >99% 120 m²/g Surface Area 10–20 µm X–Y 10–20 nm Thickness 10–20 Layers
BTcorp Reduced Graphene Oxide Pure Powder

Reduced Graphene Oxide – Product Showcase

Explore the supplied BTcorp Reduced Graphene Oxide Pure Powder, its packaging, material form and laboratory-oriented presentation.

BTcorp Reduced Graphene Oxide Pure Powder – Product Video

What Is Reduced Graphene Oxide?

Reduced Graphene Oxide (rGO) is a graphene-derived two-dimensional carbon nanomaterial produced by reducing graphene oxide and partially restoring the conductive carbon network.

The reduction process decreases oxygen-containing functional groups introduced during graphite oxidation. As the oxygen functionality is reduced, the carbon structure becomes more graphene-like and electrical conductivity can increase significantly.

BTcorp Reduced Graphene Oxide Pure Powder is designed for advanced research and industrial applications where a combination of electrical conductivity, thermal transport, mechanical reinforcement, surface interaction and barrier performance is required.

Why rGO matters: Unlike conventional micron-sized fillers, rGO consists of thin, high-aspect-ratio carbon sheets. These sheets can form interconnected networks inside polymers, coatings, elastomers, cementitious materials and other matrices.

General Properties of Supplied Reduced Graphene Oxide

General Properties of Supplied Reduced Graphene Oxide
General properties and physical characteristics of the supplied Reduced Graphene Oxide material.
>99% Purity
10–20 µm Average X–Y Dimension
10–20 nm Average Z Thickness
120 m²/g Specific Surface Area

Complete Technical Specifications

Property Specification / Typical Value Technical Significance
Material Reduced Graphene Oxide (rGO) Graphene-derived advanced carbon nanomaterial
Production Method Modified Hummers Method + Chemical Reduction Controlled oxidation and reduction route
Overall Purity >99% High-purity material specification
Carbon >96 wt.% Carbon-rich composition
Oxygen <0.1 wt.% Indicates highly reduced material
Average X–Y Size 10–20 µm Micrometre-scale platelet morphology
Average Z Thickness 10–20 nm Thin layered morphology
Average Number of Layers 10–20 layers Multilayer graphene-derived structure
Specific Surface Area 120 m²/g Large material–matrix interface
Bulk Density 0.20 g/mL Important for powder handling and formulation
Explosion Classification ST1 / KST 0–200 bar·m/s Important for industrial dust-handling safety

Physical Appearance of rGO Powder

The supplied material is presented as a dark carbonaceous powder. Its physical appearance reflects the graphene-derived structure and high carbon content of the product.

Reduced Graphene Oxide Pure Powder
Actual supplied Reduced Graphene Oxide powder.

Powder morphology, agglomeration state, moisture exposure and handling conditions can influence dispersion during formulation. For this reason, the material should be stored in a tightly sealed container in a cool, dry environment.

Elemental Characterization – EDS Analysis

Energy-dispersive X-ray spectroscopy (EDS/EDX) is commonly used to investigate the elemental composition of a material at the microscopic scale.

EDS spectrum of Reduced Graphene Oxide
Supplied EDS spectrum associated with the Reduced Graphene Oxide sample.

The supplied spectrum is dominated by carbon, with a smaller oxygen signal visible in the displayed spectrum. EDS is useful for qualitative and semi-quantitative elemental assessment, although exact bulk composition should be interpreted using the appropriate certified analytical method and test report.

Technical note: EDS results can vary with sampling location, substrate, accelerating voltage and instrument conditions. For certified elemental specifications, refer to the current product TDS/COA.

TEM Morphology of Reduced Graphene Oxide

Transmission Electron Microscopy (TEM) provides direct visual information about nanoscale morphology. The supplied TEM image shows thin, overlapping and irregular graphene-derived sheets.

TEM morphology of Reduced Graphene Oxide
TEM image of supplied Reduced Graphene Oxide morphology.

The layered sheet-like morphology is one of the defining characteristics of graphene-derived nanomaterials. In composite systems, these extended sheets can provide large contact areas and help create interconnected networks.

The 200 nm scale shown in the supplied image provides nanoscale visual context for the sheet morphology. Particle-size and lateral-dimension specifications should nevertheless be evaluated using the complete characterization method and statistical measurement procedure.

BTcorp rGO Pure Powder – Product Packaging

BTcorp Reduced Graphene Oxide Pure Powder packaging
BTcorp Reduced Graphene Oxide Pure Powder product packaging.

The supplied packaging presentation identifies the product as Reduced Graphene Oxide Pure Powder under the BTcorp / BT-GRAPH product range. Packaging may vary according to laboratory, pilot-scale, bulk or customized industrial supply requirements.

How Reduced Graphene Oxide Is Produced

The supplied product is produced through a modified Hummers oxidation process followed by controlled chemical reduction. The process begins with natural vein graphite and transforms the layered carbon structure into graphene oxide before reduction.

01

Natural Graphite

Natural vein graphite provides the carbon-rich starting material.

02

Oxidation

Modified Hummers chemistry introduces oxygen-containing groups.

03

Reduction

Controlled chemical reduction removes much of the oxygen functionality.

04

rGO Powder

The resulting reduced graphene oxide is processed for applications.

NATURAL GRAPHITE → MODIFIED HUMMERS OXIDATION → GRAPHENE OXIDE → CONTROLLED REDUCTION → REDUCED GRAPHENE OXIDE

Electrical & Thermal Performance

>10⁷ S/m X–Y Electrical Conductivity
>90 S/m Z Electrical Conductivity
≥2800 W/m·K X–Y Thermal Conductivity
<3 W/m·K Z Thermal Conductivity

The supplied technical specification reports strong directional differences between in-plane and through-plane transport. This anisotropy is associated with the layered structure of graphene-derived materials.

Directional Property Overview

X–Y Electrical
>10⁷ S/m
Z Electrical
>90 S/m
X–Y Thermal
≥2800 W/m·K
Z Thermal
<3 W/m·K

Major Applications of Reduced Graphene Oxide

01

Epoxy & Polyurethane Nanocomposites

rGO can be used as a multifunctional reinforcement and conductive filler in epoxy and polyurethane systems.

02

Anti-Corrosion Coatings

Graphene-derived platelets can contribute to barrier performance by increasing diffusion-path tortuosity.

03

Conductive Coatings & Paints

Suitable for research into conductive and antistatic coating systems.

04

EMI Shielding

Conductive graphene-derived networks can be incorporated into electromagnetic shielding composites.

05

Batteries

rGO can act as a conductive framework or composite component in advanced electrode architectures.

06

Supercapacitors

Electrical conductivity and surface characteristics make rGO relevant to electrochemical energy storage.

07

Conductive Inks

Properly formulated dispersions can be investigated for printed electronics and sensing applications.

08

Polymer Masterbatches

rGO can be introduced into polymer systems through masterbatch-based processing.

09

Thermal Interface Materials

High in-plane thermal transport makes rGO interesting for thermal-management research.

10

Adhesives & Sealants

Can be investigated where mechanical, electrical or barrier functionality is required.

11

Cement & Concrete

Graphene-derived additives are researched for reinforcement and multifunctional cementitious materials.

12

Rubber & Elastomers

rGO can be investigated as a reinforcing and conductive filler in elastomeric compounds.

BTcorp Reduced Graphene Oxide – Pure Powder

Reduced Graphene Oxide Pure Powder BTcorp
BTcorp Reduced Graphene Oxide Pure Powder – product presentation.

Storage & Handling

Store the material in a tightly sealed container in a cool, dry environment away from moisture and direct sunlight. Prolonged exposure to humidity should be avoided.

Safety: The supplied specification identifies an ST1 dust explosion classification with KST reported in the 0–200 bar·m/s range. Industrial users should follow the latest SDS/MSDS, workplace dust-control procedures, ventilation requirements, grounding practices, ignition-source controls and appropriate PPE.

Advanced rGO for Next-Generation Materials

Reduced Graphene Oxide combines the unique morphology of graphene-derived sheets with electrical, thermal, mechanical and interfacial functionality. This makes it a valuable platform for developing advanced composites, coatings, conductive materials, energy-storage systems and thermal management solutions.

The supplied BTcorp material is specified with greater than 99% purity, 10–20 µm average X–Y dimensions, 10–20 nm average thickness, 10–20 average layers, approximately 120 m²/g specific surface area and approximately 0.20 g/mL bulk density.

Its combination of high purity, layered morphology and multifunctional properties makes it suitable for laboratory, R&D, pilot-scale and industrial material-development programs.

Reduced Graphene Oxide rGO Powder Graphene Nanomaterial Conductive Materials Thermal Materials EMI Shielding Anti-Corrosion Coatings Energy Storage Polymer Nanocomposites
Technical Information: Product specifications are based on the supplied BTcorp Reduced Graphene Oxide technical information and supplied characterization material.

For updated TDS, MSDS/SDS, COA, laboratory quantities, customized grades, pilot-scale requirements and industrial packaging, contact: btc@bt-corp.co

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