Sustainable zero-carbon methanol

Fueling the New Millennium

Methylennium Energy's modular technology platform transforms intermittent renewable power and captured waste CO2 into transportable liquid fuels for maritime shipping, aviation, and transportation industries, chemicals, and grid-scale renewable power integration.

Methanol market bubble chart

About

Technology enabling the global transition to renewable power.

Population and renewable power density maps

Wind and solar resources are often strongest far from population centers where long-distance electricity transmission can be prohibitively expensive or unavailable. Methylennium technology converts renewable power into stable liquid fuel that can move through established logistics networks. Thousands of FuelGenTM plants will be deployed around the globe to gradually substitute for fossil oil in most large transportation and industrial applications.

The system will initially develop using biogenic and industrial CO2 and then will integrate with direct air capture (DAC) as deployment scales toward a sustainable carbon cycle with no new fossil carbon extraction.

Methylennium FuelGen schematic showing carbon-free energy, water electrolysis, methanol synthesis, and recycled carbon methanol

Technology

A modular platform integrating proven commercial components.

Methylennium Energy system diagram showing renewable power, electrolysis, carbon capture, methanol synthesis, and storage
1.

Renewable power

Behind-the-meter and curtailed wind or solar power create low-cost input energy.

2.

Water electrolysis

Renewable electricity produces hydrogen on demand without requiring expensive bulk storage.

3.

Carbon capture

Biogenic and industrial CO2 streams provide recycled carbon feedstock.

4.

Methanol synthesis

Flexible production modulates with local power availability to improve economics.

5.

Fuel logistics

Stable liquid methanol uses established low-cost storage and distribution networks.

Why Methanol

Methanol is easy to make, store, distribute, and use in existing power applications.

Methanol is a liquid alcohol that can be produced from CO2 and H2, stored under normal conditions, used directly as fuel, or converted into other fuels and chemicals through developed commercial processes.

  • Stable liquid under normal ambient conditions
  • Developed global distribution infrastructure
  • Low-temperature, low-pressure synthesis over non-PGM catalyst
  • Can convert into jet fuel, gasoline, DME, plastics, and green chemicals
  • Biodegrades naturally in soil and groundwater if spilled
Methanol marine fuel applications

More than 450 methanol capable ships are expected to be operating globally by 2030. Each consuming 50,000 to 100,000 tonnes of methanol annually.

Methanol-to-jet sustainable aviation fuel applications

Commercial Methanol-to-Jet processes offered by ExxonMobil, Topsoe and others convert renewable methanol to SAF for aviation industry.

Renewable methanol and DME heating fuel applications

Renewable methanol or derivative DME can replace LPG and NG in many heating and cooking applications.

Renewable methanol for green chemical production

Chemical industry can replace about 100M t/yr of grey methanol produced from coal and NG with green renewable zero-carbon methanol.

Deployment

Partner with ethanol industry to recycle CO2 emissions.

Methylennium Energy is partnering with CapCO2 Solutions, Inc. to develop green methanol projects that leverage ethanol plant waste CO2 and low-cost wind power across the Midwest.

Ethanol fermentation emits a nearly pure stream of biogenic CO2. Capturing and converting it to methanol can reduce ethanol carbon intensity scores by 25-30 points, while using existing rail sidings and tanker loading for market access.

Map of ethanol sites and green power resources
200 Midwest ethanol plants near strong wind resources
10B gal/yr e-methanol production potential
$30B/yr revenue potential

Lighthouse Project

The first green methanol demonstration project in partnership with CapCO2 Solution, Inc. is under development at the Agri-Energy Bio-Innovation Center ethanol plant in Luverne, MN.

  • 1.25 MW from two wind turbines
  • 800 tonnes per year of methanol production
  • Modular design readily scalable to commercial systems
  • The project is expected to start production in 2027

Team

Experienced leadership across engineering, process design, and project development.

Dr. Max Lyubovsky

Dr. Max Lyubovsky

Founder and CEO

Ph.D. Chemical Engineering with 30+ years experience in hydrogen, methanol synthesis, electrolysis, DAC, chemical systems design, and R&D management.

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John Reardon

John Reardon, P.E.

Co-founder, Board member

A licensed professional engineer with 30+ years of experience in front-end engineering, chemical process design, and project management.

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Dr. Jeff Bonar

Dr. Jeff Bonar

CEO of CapCO2 Solutions, Board member

Ph.D. Computer Science with 30+ years leading complex technical projects and connecting ethanol, rural development, and stakeholder networks.

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Alex Shaffer

Alex Shaffer

A licensed Professional Engineer with 15+ years of experience in process engineering with specialized experience in Aspen process modeling, TEA modeling, and carbon capture systems design. BEChE.

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Jason White

Jason White

Licensed Professional Engineer with 20+ years of experience in process engineering, project management, and consulting operations with specialization in process safety, PSM and RMP compliance. MSChE, MBA, and an ASME voting member.

LinkedIn

Contact

Build the sustainable fuel markets of the future with Methylennium Energy.

For project development, partnerships, and investment conversations, contact the Methylennium Energy team.

info@methylennium.com