Argo Graphene Solutions · CSE: ARGO
Setting the Standard for the Graphene Industry
Proprietary STREAM™ technology turns carbon-rich feedstocks into high-performance graphene and graphene oxide, in a process designed as a refinery for commercial manufacturing.
Three ways in
Start where your questions are
Whether you build with graphene, study it or invest in it, each path is shaped around what you need to know.
Proprietary STREAM™ technology
One platform. Two material pathways.
- STREAM-G™ · 01 / 06
Feedstocks, prepared
Char, biosolids, biochar and carbon black are pre-treated and prepared into one uniform input, with no reliance on mined natural graphite as the primary feedstock.
Multiple carbon sources · supply-chain resilience - STREAM-G™ · 02 / 06
The STREAM-G™ reactor
A continuous, solid-to-solid conversion, designed as a refinery for commercial manufacturing. Exhaust gases vent above; graphene is collected below.
Built for consistent, repeatable material - STREAM-G™ · 03 / 06
Few-layer graphene
A fluffy, dry black powder of micron-scale, few-layer, low-defect sheets that keep graphene's conductivity and strength.
~1–5 layers · ~1–5 µm sheets · 99.7% carbon - STREAM-O™ · 04 / 06
The STREAM-O™ reactor
A share of the graphene continues into the STREAM-O™ oxidation process: Argo's second material pathway.
Produced from STREAM-G™ graphene - STREAM-O™ · 05 / 06
Graphene oxide
Oxygen-containing functional groups bond to the lattice, giving graphene oxide the chemistry to bond with the materials around it.
Chemical functionality · high surface area - STREAM-O™ · 06 / 06
Made to disperse
Engineered for water-based systems and low loadings. In initial cement testing, about 0.05 wt% raised 7-day compressive strength by roughly 60%.
≈ 5 parts per 10,000 parts cement by weight
The process films play as you scroll
STREAM-G™ graphene · technical data sheet
Measured, not promised
- Carbon purity
- 99.7% Predominantly sp² carbon
- Layers
- ~1–5 Few-layer structure
- Lateral sheet size
- ~1–5µm Micron-scale sheets
- Electrical conductivity
- 1–3×10³ S/m Turbostratic, low-defect
Raman spectroscopy, XPS and XRD confirm high-quality, low-defect few-layer graphene: predominantly sp²-bonded carbon with minimal oxygen and minimal crystalline impurities.
Applications
Where graphene changes the material
Energy storage & batteries
Conductive pathways for energy-storage materials.
AI infrastructure & data centres
Efficient electrical and thermal transport where heat is the limit.
Semiconductors & electronics
High-conductivity graphene for advanced electronics.
Construction & infrastructure
Graphene-enhanced concrete and asphalt at very low loadings.
Composites & advanced materials
Large-area sheets for effective mechanical reinforcement.
Coatings & industrial
Dispersible graphene oxide for advanced formulations.
Agriculture
Graphene-derived materials for agricultural formulations.
Emerging applications
New uses, from 3D-printed construction onward.
Investors
The case for ARGO
Material pathways from one platform: graphene and graphene oxide.
U.S. net-import reliance on natural graphite: the supply gap STREAM™ is built around.
Carbon purity of STREAM-G™ graphene, per the technical data sheet.
Higher 7-day cement strength at ~0.05 wt% graphene oxide, in initial testing.
Education
Understand graphene
Videos, podcasts, documents and articles for customers, engineers and investors, curated and kept current through Command.
VideoWhat makes few-layer graphene different
Graphene and the next generation of batteries
STREAM-G™ technical data sheet
ArticleGraphene oxide in cement: what low loading means
VideoInside the STREAM™ platform
Article