By the time NASA entered the picture, Joseph Wright wasn’t chasing an idea. He had already built something that worked.

At Loyalty Technologies, Wright has been engineering conductive carbon materials from waste—wood, plant matter, biomass—turning discarded inputs into materials that can carry electricity, store energy, and power sensing systems. “I take everyday waste… and turn it into a form of carbon that can conduct electricity,” Wright said.

That alone is interesting. What matters more is what it replaces. Most advanced carbon materials today rely on mined graphite, one of the most widely used and resource-intensive inputs in modern energy systems. Wright’s approach uses renewable waste streams to produce materials that early testing shows can compete in conductivity and electrochemical performance. That’s not just a scientific win—it’s a potential alternative to how these materials are sourced at scale.

In deep tech, ideas don’t carry weight until they’re proven—and even then, they don’t matter until someone credible believes you can take them further. That’s where NASA enters the story, not as the origin, but as a checkpoint.

The connection didn’t happen by accident. Through REaKTOR in Hampton, Wright was introduced to a pathway he hadn’t been pursuing on his own: NASA’s technology transfer program. From there, the process became his to execute.

Through its technology transfer program, NASA licenses patented technologies to companies that can commercialize them. It’s not funding, and it’s not a grant. It’s access. Companies apply, document their capabilities, and demonstrate that they can take something built inside a federal lab and move it into the real world. “They want to see your research, your results, your experiments,” Wright said. “You have to prove you can actually do something with it.”

In this case, the patent Wright licensed—originally developed within NASA’s research portfolio—centers on engineered carbon structures with microscopic pores. Those pores increase surface area, allowing the material to perform more effectively in demanding environments like filtration, sensing, and energy storage. For Wright, it’s not a starting point—it’s an upgrade, adding structural precision to a material he was already building from waste.

The process took months—applications, technical documentation, and direct conversations with the inventors behind the patent—before Wright secured a signed agreement to commercialize the technology.

Right now, Loyalty Technologies is still deep in research and development—reproducing the material, testing it, and determining where it performs best. The focus is tight: water systems and sensing. Pressure sensors inside pipes, filtration systems, and environmental monitoring—real applications with immediate demand. “At this stage, it’s about producing the material and proving what it can do,” Wright said. “Then we choose the best path to commercialization.”

That process isn’t glamorous. It’s expensive, iterative, and slow. Material testing alone can cost tens of thousands of dollars, and Wright is funding much of it himself to build a defensible foundation before raising capital. Without that proof, there is no next step.

What the NASA agreement does is change the conversation. It signals that this isn’t just experimentation anymore—it’s credible. “The fact that I’ve done enough work for NASA to trust me to commercialize their technology—that says a lot,” Wright said.

Wright doesn’t fit the traditional mold. No PhD, no large institutional lab—just a founder who built something real and kept pushing until it reached a level others couldn’t ignore. In a region like Hampton Roads, that distinction matters. The area is filled with assets—federal research, defense infrastructure, advanced manufacturing—but those assets don’t create outcomes on their own. Execution does.

Wright didn’t wait for access to build something real, he built it first, then earned validation.

Now, with NASA-backed technology and early performance data in hand, the focus shifts from proving what’s possible to delivering it at scale.

“At its core, this work is about rethinking what we consider waste,” he said.

But the outcome is more concrete than that: a new class of carbon materials, engineered from what we throw away, moving from lab-scale experiments toward real-world deployment.

That’s the technical framing. The real takeaway is simpler: it was built first. Then it earned validation.

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