ABOUT

The world needs energy. It doesn't need the emissions.

BioEnergy Fuels turns waste that already exists into fuel that works in the engines we already have. No new drilling, no new landfills, and nothing cut down to make it.

Pinyon-juniper woodland, a lignocellulosic biomass feedstockBiomass feedstock, ready to become fuel
01
THE PREMISE

The trade-off we refuse

Modern life runs on energy, and the way the world makes it is changing the climate. Most answers to that ask somebody to give something up: range, cost, convenience, or the engine they already own.

We started from a different premise. The problem is not that we burn fuel. It is where the fuel comes from. Pull it out of the ground and you release carbon that was safely buried. Make it from waste that is already above ground and already breaking down, and the arithmetic changes.

OUR MISSION

To turn waste streams into fuels worth more than the waste was, without creating a new problem in the process. Lower carbon emissions, a use for material that currently costs money to dispose of, and energy produced close to where it is consumed.

02
THE ORIGIN

The science came before the company

Dr. Foster Agblevor spent more than a decade at Utah State University on a single question: how to convert plant matter into fuel that behaves like the fuel we already use.

In 2019 we partnered with USU and began funding that research directly. BioEnergy Fuels now holds exclusive rights to the patented catalytic pyrolysis process that came out of it — built on a bauxite-residue catalyst that is itself an industrial waste product, used to turn other waste into fuel.

A DECADE BEFORE US

USU research into turning biomass into drop-in liquid fuel.

2019

The partnership begins. We fund the research directly.

TODAY

Exclusive rights to the patented process.

03
THE HARD QUESTION

Aren't you just cutting down trees?

It is the first question a serious person asks, and Dr. Agblevor asks it of himself before anyone else can. Won't making fuel out of plants create a bigger problem than it solves?

The answer is in the feedstock. We do not harvest anything. We take what the forestry and agricultural industries already discard: residues, thinnings, byproducts, material that today gets burned, buried, or left to rot. Nothing is felled to feed this process.

That constraint is not a marketing position. It is a design requirement, and it shapes what the technology is allowed to be. In Agblevor's words, the issue is that you have to do it sustainably.

04
THE MECHANISM

How it works

A catalyst breaks the waste down into vapour. The vapour is condensed into a liquid. That liquid is stable, which is the part that matters: a stable liquid can be refined, shipped and stored like any other fuel stock, rather than treated as a laboratory result.

What comes out the other side is functionally no different from the petroleum-based fuels in use today. Nothing downstream has to change to accept it.

WASTE IN

Residues, thinnings, byproducts. Nothing felled.

CATALYST

Heat and the red-mud catalyst decompose it into vapour.

STABLE LIQUID

Condensed. Refinable, shippable, storable — drop-in.

See the technology →
OUR TEAM
Dr. Foster Agblevor at the catalytic pyrolysis reactor, Utah State University
Dr. Foster Agblevor
Chief Technical Consultant

More than a decade researching the conversion of biomass into liquid fuels, and the scientist behind the catalytic pyrolysis process we license. Named among the World's Top 2% Scientists (Stanford, 2021). Fulbright Scholar (Finland, 2015) and multiple-time researcher of the year. PhD in Chemical Engineering, University of Toronto. Photographed at the USU reactor.

Michael Thompson
Chief Executive Officer / Owner
Hamza Abdellaoui, PhD
Engineering Operations Manager
Sean Thompson
Chief Operations Manager
Spencer Thompson
Communications

Let's build something cleaner.

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