Kjirstin Breure: How Advanced Materials Support the Energy Transition

Kjirstin Breure

Kjirstin Breure is the President, CEO, and Board Chair of HydroGraph Clean Power Inc. HydroGraph makes ultra-pure graphene using a Hyperion detonation process to take graphene out of the lab and turn it into real, commercial-grade products. Under Kjirstin’s leadership, the company is advancing graphene for practical applications, including energy storage, construction materials, coatings, and environmental tech.

She brings a strong background in tech leadership, with a master’s degree in materials science & engineering and a bachelor’s degree in political science from Arizona State University. A significant part of her work focuses on making graphene easier for industries to adopt as global energy and infrastructure systems continue to evolve and demand stronger, better-performing materials.

– – – –

Q: When people talk about the energy transition, they usually mention solar, wind, or electric vehicles. Where does graphene fit into that conversation?

Kjirstin Breure: That’s an important question. Many energy technologies depend on the materials they’re built with. Solar panels, batteries, hydrogen systems, and grid infrastructure all require materials that can withstand heat, conduct electricity, and perform reliably over long periods. When engineers improve those materials, the technologies themselves often perform better. Graphene stands out for combining very high conductivity, strength, and thermal stability. That provides companies with a way to enhance existing technologies rather than reinvent them from the ground up.

Q: Graphene gets a lot of attention in research circles. What makes it so exciting from a practical standpoint?

Kjirstin Breure: Graphene has an unusual atomic structure. A single layer of carbon atoms arranged in a hexagonal pattern creates a material that conducts electricity very efficiently while remaining incredibly thin and strong. Scientists have studied those properties for years, considering how they can translate into real products. The discovery of graphene by Andre Geim and Konstantin Novoselov at the University of Manchester sparked a global surge in research. Many industries are now exploring ways to use graphene to strengthen materials, improve conductivity, and extend product lifespans.

Q: Energy storage is a key challenge in clean energy. How could graphene improve batteries?

Kjirstin Breure: Battery performance comes down to how efficiently electrons move through the materials inside the cell. Graphene has excellent conductivity, which makes it attractive as an additive in battery electrodes. When manufacturers incorporate graphene into certain battery components, the material can conduct electricity more efficiently and maintain structural stability over time. That can lead to faster charging, better energy capacity, and longer battery life. Even small improvements matter when batteries power electric vehicles, grid storage systems, and everyday electronics.

Q: Other than batteries, where else could graphene support clean energy technologies?

Kjirstin Breure: Hydrogen systems are attracting a lot of attention right now, especially for industries that are difficult to electrify. Researchers are studying graphene for hydrogen storage materials, filtration membranes, and fuel cell components. Lightweight graphene composites also attract interest in transportation industries like aerospace and automotive manufacturing. Stronger, lighter materials can reduce energy use across various vehicles. Those incremental improvements add up in large fleets and infrastructure systems.

Q: What still needs to happen before graphene is used more in the energy industry?

Kjirstin Breure: Reliable manufacturing is a big challenge. Industries need consistent quality and predictable supply before introducing a new material into large production lines. Companies working in graphene production focus heavily on refining processes that deliver purity, consistency, and scalability. As manufacturing continues to grow, more engineers and product designers will begin incorporating graphene into commercial technologies. That shift tends to happen gradually as industries test, validate, and integrate new materials into existing systems.