Inorganic ceramic coating technology

Ending concrete corrosion.

Zirconia's CeramycGuard™ transforms the surface of concrete into a skin of granite that ends corrosion, dramatically increasing the lifespan of the asset.

British Engineering Excellence Award recognizing Zirconia's CeramycGuard technology
“A great development of materials, simple to use and meeting multiple applications.”
Judges, British Engineering Excellence Awards
Miami-Dade County NOA approved
Materials Performance Published technology
Tyson Foods Food-processing floors
Sacramento Reservoir Corrosion reversed

The problem

Concrete is porous by design, and that porosity is the entry point for corrosion.

Water, salt, carbonation and acids travel through the pore network and attack the concrete from within, breaking down the cement binder that protects the reinforcing steel. As the binder degrades, the steel corrodes, and the structure cracks, spalls and slowly fails. This is not a coatings problem. It is a chemistry problem, and it takes a chemistry solution.

Restore. Protect. Preserve.

We don't just coat the surface. We rebuild it first.

The Zirconia approach begins beneath the surface. An alumina-doped colloidal treatment penetrates the concrete and rebuilds its chemistry into a denser, more stable state before the ceramic layer goes on. Competitor coatings sit on whatever the concrete happens to be. Ours bond to a substrate we have already engineered to receive them.

Restore, protect, preserve: one continuous chemistry, from inside the concrete out to the surface.

The Roman Pantheon, built with geopolymer cement that has lasted millennia

Roman cement reborn

Liquid granite that chemically bonds to concrete.

CeramycGuard is based on micronized Roman Cement technology, an alumina-silicate geopolymer, combined with modern nano-scaled ceramic elements. It chemically bonds with the concrete surface to create an ultra-durable anti-corrosion barrier.

This skin of granite eliminates porosity, fixes cracks and restores the surface. Like the geopolymer cements the Romans used to build structures still standing today, it has an effectively indefinite lifespan.

Immune tocarbonation, salt, UV, freeze-thaw
Bond typechemical, not adhesive
Lifespananalog of granite
How chemical bonding beats adhesion →

Industrial coatings

Next-generation durable systems for industry.

Using CeramycGuard as a base layer with inorganic-organic hybrid topcoats, Zirconia builds coating systems that chemically bond to concrete and deliver performance epoxies cannot match.

Proof in the field

From food floors to launch pads.

All project spotlights
Tyson Foods
Food manufacturing

Tyson Foods

Acid-resistant, antimicrobial floors for food processing and beverage production.

Sacramento Water Reservoir
Infrastructure

Sacramento Water Reservoir

Corrosion reversed and the concrete asset durably protected against carbonation and salt.

CG HeatShield™
Fire & heat

CG HeatShield™

A high-temperature glass-phase system that shields concrete from fire, radiant heat and thermal shock.

Protect the asset before corrosion sets in.

Talk to our technical team about CeramycGuard for your concrete or steel infrastructure.

Questions

Frequently asked

What is CeramycGuard™?

An inorganic, alumina-silicate ceramic coating that chemically bonds with concrete to form a granite-like surface immune to corrosion, carbonation, salt, UV and freeze-thaw.

How is this different from epoxy or urethane?

Epoxies and urethanes adhere to the surface and can delaminate. CeramycGuard chemically bonds and becomes part of the concrete, so it does not peel and it lasts the life of the asset.

What does it protect?

New and existing concrete infrastructure: reservoirs, bridges, food and beverage facilities, data centers and coastal structures exposed to salt corrosion.

Is it suitable for food and biosecurity environments?

Yes. The surface is antimicrobial, disallows biofilm formation and resists acids, which suits food manufacturing, processing and biosecurity applications.

How does the Zirconia system perform under chloride exposure and carbonation?

It protects by chemistry, not by forming a barrier. The restored C-A-S-H matrix holds pore-water pH in the alkaline range that keeps reinforcing steel passive (around 11.5 to 12.5), and its aluminate sites bind incoming chlorides, holding them away from the steel while the matrix keeps the pore solution alkaline. Carbonation cannot propagate through a fully restored C-A-S-H matrix. This is chemistry restoration, not a film sitting on the surface.