

Unleasing Innovative Energy Worldwide

At Higher Power Technologies LLC (HPT), we envision a world where everyday waste fuels a more resilient, low‑carbon future - we are committed to pioneering waste‑to‑energy (W2E) technologies that drive the circular economy and unlock new value for our partners

Our purpose‑driven team of experienced energy professionals helps businesses achieve their sustainability goals by designing and implementing customized waste‑to‑value solutions tailored to each client’s unique needs

From advanced W2E systems and managed services to equipment upgrades and 100% project financing, our solutions are built to elevate our clients’ revenues and accelerate their transition to a circular, sustainable economy

HPT’s patented closed‑loop system is engineered for continuous operation and minimal emissions of hazardous substances, helping businesses and communities turn waste into revenue while supporting cleaner, more sustainable energy production

HPT is a U.S.-based company specializing in proprietary, continuous NETZERO non‑oxidative thermal decomposition technology that converts end‑of‑life tires, plastics, and biomass into valuable products

At HPT, we believe in a world where 100% funding programs are available and where debt is serviced through established offtake agreements, incentives, and revenue share programs

Non‑oxidative thermal decomposition enables end‑of‑life tires to be transformed into valuable products such as oil, fuel fractions, recovered carbon black, and recyclable metal. Inside a controlled, oxygen‑free reactor, the rubber is heated until it depolymerizes into vapors that are condensed into tire‑derived oil and liquid fuels, while
Non‑oxidative thermal decomposition enables end‑of‑life tires to be transformed into valuable products such as oil, fuel fractions, recovered carbon black, and recyclable metal. Inside a controlled, oxygen‑free reactor, the rubber is heated until it depolymerizes into vapors that are condensed into tire‑derived oil and liquid fuels, while the remaining solid char is upgraded into recovered carbon black and the separated steel is recovered as scrap. This closed‑loop process both reduces landfilling of tires and creates offtake streams that can substitute for higher‑carbon virgin materials and conventional fossil fuels.

Plastics recycling through non‑oxidative thermal decomposition converts mixed or sorted plastic waste into high‑value fuels and carbon‑rich solids. In an oxygen‑free reactor, plastics are heated until their long polymer chains crack into shorter hydrocarbon molecules that are condensed into liquid fuels and chemical feedstocks, while a
Plastics recycling through non‑oxidative thermal decomposition converts mixed or sorted plastic waste into high‑value fuels and carbon‑rich solids. In an oxygen‑free reactor, plastics are heated until their long polymer chains crack into shorter hydrocarbon molecules that are condensed into liquid fuels and chemical feedstocks, while a solid carbonaceous fraction remains as char that can be further refined into carbon products. This process diverts plastics from landfills and incineration and creates marketable low‑carbon fuels and carbon materials that can offset the use of virgin petrochemicals and conventional fossil fuels.

Biomass recycling through non‑oxidative thermal decomposition converts organic residues such as wood waste, agricultural byproducts, and food waste into renewable fuels and biochar. In an oxygen‑free reactor, biomass is heated so its volatile components vaporize and are condensed into bio‑oils and other fuel fractions, while a stable car
Biomass recycling through non‑oxidative thermal decomposition converts organic residues such as wood waste, agricultural byproducts, and food waste into renewable fuels and biochar. In an oxygen‑free reactor, biomass is heated so its volatile components vaporize and are condensed into bio‑oils and other fuel fractions, while a stable carbon‑rich solid remains as biochar. This process both creates usable renewable energy products and locks a portion of the carbon into biochar, which can be applied to soils for long‑term carbon sequestration and agronomic benefits

HPT uses physical, thermal, water, or biological processes to convert waste (tires, plastics, & biomass) into useful energy products such as electricity, heat, carbon, or fuels

HPT centralizes tax and carbon credit incentive strategies, credit monetization (including transferability and direct pay where available), and carbon accounting under one umbrella, to significantly improve capital position for capex, and project economics while reducing administrative burden and risk for developers, municipalities, and asset owners

HPT delivers a well‑designed capital stack anchored by predictable revenues and supportive policy can significantly improve bankability and enable more rapid deployment of waste‑to‑energy infrastructure and a successful long-term revenue development strategy

HPT’s feedstock and offtake management focuses on securing the right waste inputs and reliably placing the energy and material outputs (fuels, oil, carbon black, metal & energy) from each waste‑to‑energy facility, ensuring predictable revenue streams and minimizing exposure to market volatility

Feedstock: TIRES
Impact: Resource Recovery
System: 50tpd
Tires: 1.7m(50tpd)
Fuels: 2.4m gal
Carbon Black: 6k tons
Syngas: 3.4k tons
Metal: 2k tons
Power: 24-48MW/day
CO2 Diversion: 31k tons
Waste: NETZERO

Feedstock: PLASTIC
Impact: Resource Recovery
System: 400tpd
Fuels: 35m gal
Carbon: 20.4k tons
Syngas: 17k tons
Power: 25MW/day
CO2 Diversion: 340k tons
Waste: NETZERO

Feedstock: BIOMASS (Cow Manure)
Impact: Resource Recovery
System: 50tpd
Fuels: 971k gal
Biochar: 8.5k tons
Syngas: 2.5k tons
Power: Internal Power
CO2 Diversion: 25.5k tons
Waste: NETZERO
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