About DexMat

From a Rice University lab to a production floor in Houston

DexMat makes Galvorn®, an advanced carbon material that gives engineers conductivity, strength and light weight in one material. This is the company behind it, the people who make it, and the reason we started.

Why we exist

The materials that built the modern world can’t build what’s next

Copper, aluminum and steel built the grid, the aircraft and the data center. They also set the terms. A strong conductor is heavy, a light one carries less, and a flexible one wears out. Engineers have designed inside those trade-offs for a century because there was no other material to design with.

Those limits matter more every year. Aircraft, satellites, data centers and the grid all want more conductor in less weight and less room, and copper, aluminum and steel are already as good as they will ever be. DexMat exists to give engineers a material designed for this century, and to make it in volume in the United States.

Two DexMat engineers check a Galvorn braiding machine at the Houston facility

What we make

Galvorn is a conductor made of carbon instead of metal

Galvorn® is an advanced carbon material. We spin it into continuous fiber and supply it as fiber tow, twisted yarn, braided yarn, fabric and film. Our customers build the wire, the cable, the shielding and the finished products. We make the material they build with.

Galvorn is produced at our ISO 9001-certified facility in Houston, Texas, and ships to customers in aerospace and defense, data centers, wire and cable, automotive and energy. For the properties and the data behind them, start with Why Galvorn. For how the fiber is made, read Making Galvorn.

Where Galvorn comes from

Twenty-five years of science and one scalable spinning process

Galvorn came out of two decades of work at Rice University, and the people who did that work are the people who founded DexMat.

1991

A new form of carbon

Sumio Iijima discovers carbon nanotubes: tubes of carbon a few atoms wide, with strength and conductivity far beyond any bulk material. For the next decade they stay in the lab, because nobody can turn a nanoscale tube into something you can hold.

Sumio Iijima, 1991

2001

Smalley and Pasquali start spinning

At Rice, Rick Smalley, the 1996 Nobel laureate in chemistry, starts work on dissolving carbon nanotubes and spinning them into continuous fiber, the way industry already spins aramid and other high-performance fibers. Matteo Pasquali joins at the outset and leads the work after Smalley’s death in 2005.

DexMat_history_Richard-Smalley-PhD

2013

The fiber works

Pasquali’s team, including Dmitri Tsentalovich and Colin Young, produces a carbon nanotube fiber that handles like a textile and conducts like a metal wire. The work is done with Teijin Aramid, the U.S. Air Force and the Technion.

The Rice University research team in the lab, one member holding a spool of the new fiber

2015

DexMat is founded

The scientists who made the fiber work incorporate DexMat to take the spinning process out of the lab and make Galvorn available to the industries that need it.

A researcher holds a spool of black Galvorn fiber up to the camera

2023

Time to scale

With the fiber proven and a process ready to grow, the company brings in Bryan Guido Hassin, a climate technology entrepreneur who joined DexMat’s board in 2022 and took the CEO role that October, completing the founding team. 2023 brings DexMat’s first venture round, led by Shell Ventures, exclusive licenses to two Rice University patents, and a twenty-fold increase in production capacity alongside a 96% cut in cost.

A DexMat engineer holds a spool of 10-filament Galvorn fiber beside the spinning line in Houston

2025

Customers arrive

Galvorn produced and sold grows 2.5x. DexMat signs its first multi-year offtake agreement and is voted Trellis Climate Tech Startup of the Year.

NeuroBionics evStim endovascular neural interface

2026

Into the manufacturer channel

A seed round of more than $5 million led by non sibi ventures, a first joint development agreement with a Tier 1 global wire and cable manufacturer, and selection by the World Economic Forum as an UpLink Powering Tomorrow challenge winner for a transmission conductor developed with Prysmian.

wire-and-cable-manufacturing

We’re just getting started.

Natural gas storage tanks feed a reactor that produces Galvorn, with hydrogen captured in a tank, flat illustration

What we’re here to do

The next industrial age needs a new material

Every industrial age has run on a material. Iron and steel built the first one, and copper wired the second. We think the next one needs a material that is simultaneously strong, light and conductive, can be produced from abundant domestic natural gas at scale, and that takes less energy to produce than mining and smelting metal.

That is what we are here to do: make that material real, make it affordable, and put it in the hands of the people building what comes next. We will know it is working when things that used to be made of metal are made of Galvorn, and are better for it.

FAQ

Galvorn is made at DexMat’s ISO 9001-certified facility in Houston, Texas, and ships from there to customers worldwide.

See what the team is building

Whether you are an engineer with a design that copper can’t carry, a manufacturer looking at a new material, or someone who wants to work on it, the next step is a conversation.

A DexMat engineer loads a spool of Galvorn onto a winding machine in Houston
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