A biochar-graphite battery begins with something most people would never expect to power the future: biomass.
At XOL Industries, we are developing battery technology built around biochar carbon derived from renewable plant material. Through our process, biomass is transformed into engineered carbon that can support energy storage applications. Instead of relying only on conventional carbon pathways tied to mining and energy-intensive production, we are exploring a new route, one that starts with nature, moves through material science, and ends in practical infrastructure.

Traditional batteries depend heavily on graphite, a critical anode material that is typically mined or produced through energy-intensive industrial processes. XOL is working to create a new pathway by developing biochar carbon and biochar-graphite materials from biomass, with primary feedstocks including hemp and agave, while also evaluat
Traditional batteries depend heavily on graphite, a critical anode material that is typically mined or produced through energy-intensive industrial processes. XOL is working to create a new pathway by developing biochar carbon and biochar-graphite materials from biomass, with primary feedstocks including hemp and agave, while also evaluating other biomass options.
What makes this approach compelling is not only the battery itself, but the platform behind it. We are building a system that begins with rapidly renewable biomass and moves toward high-value carbon applications across energy storage, water treatment, and other infrastructure technologies.
We have developed an early working battery prototype that successfully charged phones and iPads.

The world is pushing toward electrification, storage, and more resilient infrastructure. But scaling those systems requires materials, and the current material supply chain is under pressure. Graphite demand is rising with battery growth, and conventional production routes carry both supply risk and environmental burden. Natural graphite
The world is pushing toward electrification, storage, and more resilient infrastructure. But scaling those systems requires materials, and the current material supply chain is under pressure. Graphite demand is rising with battery growth, and conventional production routes carry both supply risk and environmental burden. Natural graphite anode material and synthetic graphite manufacturing are both associated with significant lifecycle emissions, especially when processing is energy intensive.
XOL’s long-term vision is to help reshape that equation.

XOL’s opportunity is to build a lower-impact pathway by starting with renewable biomass, designing efficient carbon conversion processes, and creating higher-value products from feedstocks that can regrow quickly. If executed well, that could reduce reliance on traditional graphite supply chains while creating new economic value from hemp, agave, and other biomass sources.

Most batteries today are built on conventional material pathways, relying on mined or synthetic graphite and supply chains that are increasingly under pressure as global battery demand rises.
XOL is developing a different foundation for energy storage, one built on biochar carbon derived from biomass. Research across the field shows biomass-derived carbons are viable electrochemical materials for next-generation batteries and supercapacitors because of their renewability, low-cost feedstocks, and tunable porous structures.
What makes XOL different is that we begin with grown carbon from biomass such as hemp and agave. Hemp-derived carbon has shown strong electrochemical performance in energy-storage research, including high capacitance and strong cycling stability in hybrid supercapacitor systems.
Agave-derived porous carbon has also shown promise in battery-related applications, reinforcing the potential of renewable plant feedstocks as advanced carbon materials.
A biomass-based carbon platform can create new value from agricultural feedstocks, support more localized production strategies, and open the door to a more sustainable approach to battery materials over time.
At a global level, major automakers and battery companies are working to diversify graphite supply and lower carbon footprints, which underscores how important material origin has become in the future of storage.
XOL is not simply trying to make another battery. We are developing a new carbon pathway for energy storage, one designed around renewable feedstocks, advanced material engineering, and the long-term need for cleaner, more resilient battery systems.

Co-Founder | CEO
Sarai Garrett leads XOL Industries with a focus on strategic growth, partnerships, market positioning, and commercialization. Her background includes marketing research across global household brands, healthcare and public-benefit sectors, political research, and mock trial work, shaping a strong foundation in audience in
Co-Founder | CEO
Sarai Garrett leads XOL Industries with a focus on strategic growth, partnerships, market positioning, and commercialization. Her background includes marketing research across global household brands, healthcare and public-benefit sectors, political research, and mock trial work, shaping a strong foundation in audience insight, strategic messaging, market behavior, and persuasive positioning.
She brings experience in bringing products and services to market, including achieving 600% growth within the first six months of strategy implementation. Her ability to connect insight with execution supports XOL’s path to commercialization and long-term business development.
At XOL, she leads the work of shaping how the company is positioned, introduced, and understood in the market, helping turn innovation into a business that builds credibility, attracts strategic relationships, and generates lasting momentum.

Co-Founder | Science and Technical Development
Carl leads the scientific development behind XOL’s core technology. His work focuses on advancing the company’s biochar carbon platform, material innovation, and the technical foundation for battery, carbon, and water treatment applications.

Co-Founder | Engineering and Systems Development
Ramon Granados is a civil and environmental engineer with decades of experience overseeing project controls and the execution of multi-billion-dollar projects across oil and gas, mining, infrastructure, and industrial development.
At XOL Industries, he leads engineering and systems developme
Co-Founder | Engineering and Systems Development
Ramon Granados is a civil and environmental engineer with decades of experience overseeing project controls and the execution of multi-billion-dollar projects across oil and gas, mining, infrastructure, and industrial development.
At XOL Industries, he leads engineering and systems development, applying a disciplined, execution-oriented approach to the design of scalable industrial platforms. His work helps bridge agriculture, engineering, and manufacturing to support the development of next-generation material and energy systems.
Ramon brings the planning rigor and systems thinking required to help transform complex ideas into investment-ready platforms built for global scale.

Chief Strategy Officer
Ezra oversees strategic development and growth planning for XOL Industries. He works closely with leadership to guide long-term business strategy, identify expansion opportunities, and support the company’s path toward commercialization across energy and infrastructure markets.
A hemp battery is an energy storage solution that uses hemp-derived carbon materials as part of the battery architecture. Our approach is centered on transforming agricultural biomass into high-value carbon materials that can support a cleaner, more localized battery supply chain.
Traditional batteries depend heavily on mined materials and global supply chains. Our technology is being developed to reduce dependence on foreign-mined inputs by using hemp-based carbon materials sourced from agriculture.
Our long-term goal is to reduce reliance on both lithium and mined graphite wherever technically possible. The exact chemistry and material composition will depend on final engineering, testing, and commercial scale development.
Hemp is a fast-growing, renewable biomass with strong potential as a feedstock for advanced carbon materials. It offers an opportunity to create energy products from agricultural resources rather than relying only on mining.
The hemp itself is not used in raw fiber form as the final battery material. It is processed into carbon-based materials that may be used within the battery system. The value lies in what hemp can become through engineered conversion.
We are addressing the need for cleaner material sourcing, more resilient domestic supply chains, and a new path for battery production that is less dependent on foreign mining and more connected to localized agriculture.
Potential benefits include renewable feedstock sourcing, reduced mining dependence, regional manufacturing opportunities, agricultural value creation, and a more flexible domestic supply chain.
Not yet. We are currently in structured development and commercialization planning. Our focus is on engineering validation, production readiness, and strategic scaling.
No. The carbon materials developed through our process may also have broader value across other advanced material markets, depending on final engineering pathways and commercial strategy.
You can join our mailing list or submit an investor inquiry through our website to receive updates on milestones, partnerships, and development progress.
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XOL Industries
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