Introducing

HGraphene

Graphene is widely considered the single most valuable resource on the planet. HGraphene produces high-performance 3D graphene from renewable hemp, at a fraction of the cost of legacy methods.

Cost Quality Scale Solved.
Patent Protected
Foundational IP, global coverage
Carbon-negative
Renewable hemp, not mined graphite
Superior Performance
Exceeds the Nobel-winning benchmarks
Fraction of the cost
vs. legacy graphene production

The wonder material

One atom thick. Infinite potential.

Graphene's hexagonal carbon lattice

In 2004, graphene was isolated for the first time, earning the 2010 Nobel Prize in Physics. It is a single layer of carbon atoms in a two-dimensional hexagonal lattice, and its properties are unlike anything else known.

1 atom
thick
the thinnest material known
300×
stronger than steel
the strongest ever measured
0.77 mg/m²
lightest known
almost weightless

The records it holds

Largest surface-area-to-volume ratio of any known material

Most efficient conductor of heat at room temperature

Highest known electrical current density

Lowest resistivity of any known material

Graphene is widely considered the single most valuable resource on the planet.

The 20-year bottleneck

Held back by how it's made

There are two primary ways to produce pristine graphene today, and both have kept it from reaching its commercial potential.

Chemical Vapor Deposition

Grown like frost on metal using hot gases in a lab.

ExpensiveSlowLow yieldNon-scalable

Chemical Exfoliation

Graphite peeled apart using harsh chemicals and heavy processing.

ToxicLow qualityImpureInconsistent

The result: three barriers

Cost

Legacy graphene can cost tens of thousands of dollars per ton, pricing it out of the mass-market applications that need it most.

Quality

Exfoliated graphite yields inconsistent, often impure material, and a toxic process to match.

Scale

Neither method was built for volume. CVD is slow and low-yield, exfoliation cannot hold quality at industrial scale.

Not all graphene is equal

Introducing 3D HGraphene

Pristine Graphene

Perfect single layers grown in labs. Exceptional quality, but only in tiny amounts and at very high cost.

  • Very high purity
  • Extremely expensive
  • Not scalable

Few-Layer Graphene

Stacks of a few graphene layers, easier to produce but with performance trade-offs and lower consistency.

  • Moderate performance
  • Easier to make
  • Inconsistent

Introducing

3D HGraphene

A high-surface-area, sponge-like network. Ultra-conductive, eco-friendly, and scalable.

  • High performance
  • Extremely scalable
  • Low cost

The breakthrough

From a renewable plant to performance-grade graphene

HGraphene starts with industrial hemp, a fast-growing, renewable, and globally abundant crop. Our patented technology extracts and reforms the hexagonal lattice of the hemp bast fiber into a high-surface-area, sponge-like 3D graphene network.

It avoids the cost of chemical vapor deposition and the toxicity of exfoliating mined graphite. The result is a scalable, low-cost, and consistent path to high-quality graphene.

The HGraphene process: hemp fiber, preparation, carbonization, then HGraphene
3D HGraphene, a fine black high-surface-area powder
The 3D graphene lattice structure

Our carbon nano-material is a fine, high-surface-area powder with a sponge-like 3D internal structure.

Ultra-conductive and consistent at production scale, it drops straight into electrodes, additives, and composites.

That interconnected 3D network makes the material ideal for energy and energy storage.

Secondary product line

HGraphene-Oxide

Graphene versus graphene oxide: oxygen groups added to the carbon lattice
Oxygen groups (hydroxyl, epoxide, and carboxyl) bond to the carbon lattice, turning insoluble graphene into a water-dispersible material.

Graphene Oxide is graphene chemically modified with oxygen groups along its lattice, so it disperses in water. That single change unlocks what dry graphene powder never could.

Standard graphene is a dry powder. It performs brilliantly, but it will not dissolve or bond to most surfaces, which limits what it can go into. Graphene Oxide removes that limit, integrating directly into manufacturing lines that could never handle a powder, in whatever form the process needs.

The forms it takes

SuspensionsSurface coatingsPolymer compositesConcretePrintable inks

That dispersibility carries it into concrete, coatings, substrates, and beyond.

Graphene lattice strands

Properties that not only meet, but exceed the Nobel Prize winning benchmarks.

Energy & storage

A drop-in upgrade for the supercapacitor electrode

Supercapacitors store and release energy in seconds and last for hundreds of thousands of cycles, bridging the gap between batteries and capacitors. Their performance is capped by the electrode, and for decades that electrode has been activated carbon.

The 3D structure of HGraphene creates a highly porous, interconnected network that maximizes ion flow and electron transport. Unlike flat 2D graphene, the 3D architecture provides a larger accessible surface area, ensuring superior interaction with electrolytes.

HGraphene replaces the activated carbon in the electrode, delivering step-change performance across every key metric.

Measured material performance

2,287
m²/g
Surface area
up to
2,100
S/m
Conductivity
up to
144
F/g
Capacitance
at 60°C, 100 A/g
40
Wh/kg
Energy density
at 100°C
58
%
Mesoporosity
up to

HGraphene vs. activated carbon

charge retention
5% vs 20% daily loss
500%
conductivity
2,100 vs 800 S/m
163%
power density
100+ vs 40 kW/kg
150%
surface area
2,287 vs 1,000 m²/g
129%
cycle life
100k vs 50k cycles
100%
capacitance
144 vs 80 F/g
80%
energy density
40 vs 25 Wh/kg
60%

Where it matters most: AI data centers. Backup power in dense AI racks runs hot, and conventional activated carbon sheds 30 to 40% of its capacity at temperature. HGraphene's 3D structure stays stable past 100°C, holding firm exactly where activated carbon gives out.

A single, bio-derived material that outperforms activated carbon in every supercapacitor metric that matters.

The applications are endless

Built for the technologies defining the next decade

Our initial focus is energy and energy storage, but the potential reaches far beyond.

Supercapacitors

High-performance electrodes for ultra-fast, long-life energy storage, replacing activated carbon across every key metric.

Batteries & EVs

A conductive additive for lithium-ion cells, where graphene can enhance charge rate, power density, and thermal stability.

AI Data Centers

Stable, long-cycle backup power for the extreme thermal and power demands of AI infrastructure, stable past 100°C.

Composites & Thermal

Lightweight strength and thermal management for aerospace, defense, and advanced manufacturing.

And the potential reaches further

Carbon capture Water filtration Anti-corrosion coatings Aerospace & defense Biosensors Heat shielding Desalination Drug delivery Stealth technology Antibacterial coatings Body armor EMI shielding Biomedical Hydrogen storage Heavy-metal removal Chemical catalysts Fuel cells Tissue engineering Conductive inks Smart textiles Gas separation 3D printing Construction materials Flame retardants Deep space tech Lubricant additives Thermal interfaces Bioimaging Carbon capture Water filtration Anti-corrosion coatings Aerospace & defense Biosensors Heat shielding Desalination Drug delivery Stealth technology Antibacterial coatings Body armor EMI shielding Biomedical Hydrogen storage Heavy-metal removal Chemical catalysts Fuel cells Tissue engineering Conductive inks Smart textiles Gas separation 3D printing Construction materials Flame retardants Deep space tech Lubricant additives Thermal interfaces Bioimaging
Bioimaging Thermal interfaces Lubricant additives Deep space tech Flame retardants Construction materials 3D printing Gas separation Smart textiles Conductive inks Tissue engineering Fuel cells Chemical catalysts Heavy-metal removal Hydrogen storage Biomedical EMI shielding Body armor Antibacterial coatings Stealth technology Drug delivery Desalination Heat shielding Biosensors Aerospace & defense Anti-corrosion coatings Water filtration Carbon capture Bioimaging Thermal interfaces Lubricant additives Deep space tech Flame retardants Construction materials 3D printing Gas separation Smart textiles Conductive inks Tissue engineering Fuel cells Chemical catalysts Heavy-metal removal Hydrogen storage Biomedical EMI shielding Body armor Antibacterial coatings Stealth technology Drug delivery Desalination Heat shielding Biosensors Aerospace & defense Anti-corrosion coatings Water filtration Carbon capture

Carbon-negative by design

Performance that gives back to the planet

HGraphene is the only high-performance graphene that is inherently carbon-negative. Its feedstock, fast-growing hemp, pulls down more CO₂ than the entire process emits, with no toxic chemistry and no mined graphite.

Carbon-negative

Negative across the full production lifecycle, not just neutral.

No mined graphite

Renewable, fast-growing hemp, never mined ore.

Domestic supply

An established North American hemp supply chain.

A carbon footprint that runs in reverse.

Let's build with it

Invest, partner, or build with HGraphene

Whether you are an investor, a battery or supercapacitor manufacturer, a materials partner, or a supplier, tell us where graphene fits your roadmap.

Prefer email? info@hgraphene.com