Ethanol CO2 + H2 Creates Electric Natural Gas: Nebraska Project Moves to Design Phase

A global partnership including TotalEnergies, TES, and Japanese energy firms is developing a 250 MW electrolyzed green hydrogen project in Nebraska, aiming to produce 75 kilotons of e-NG annually for export to Japan. The project emphasizes sustainability by utilizing renewable energy and biogenic CO2 from ethanol plants. KBR will oversee the FEED phase, with a final investment decision expected next year, potentially enabling commercial operations by 2030.

Key Highlights

  • Biogenic CO2 captured from Nebraska ethanol plants is combined with hydrogen to generate low-emission natural gas for export, primarily to Japan.
  • KBR has been contracted to lead the FEED phase, supporting the project's development toward a potential 2030 commercial launch.
  • Live Oak's backers say that Nebraska's abundant biogenic CO2 and renewable energy resources make it an ideal location for this pioneering low-emissions natural gas project.

A Nebraska project which is intended to combine renewably produced hydrogen with biogenic carbon dioxide from ethanol plants to create a reportedly low-emissions form of natural gas is entering its pre-construction and front-end engineering design (FEED) phase with its owners contracting a prominent Houston-based firm to do that early work.

KBR was selected by the Live Oak Consortium to initiate FEED services for the project planned in Norfolk, Nebraska. Live Oak is at the center of an international partnership featuring French-based TotalEnergies, German electric-natural gas (e-NG) developer Tree Energy Solutions (TES) and three Japanese energy entities—Osaka Gas, ITOCHU Corp. and Toho Gas.

This global team wants to create 250 MW of electrolyzed green hydrogen, combine it with biogenic C02 and produce a fuel which is “chemically identical to methane natural gas” which can be introduced into existing pipelines and equipment without adaptation, according to the Live Oak Consortium.

 The project is awaiting final investment decision by next year. If approved going forward, Live Oak could begin commercial operations in 2030 with e-NG export agreements in Japan creating the commercial justification. They hope to produce about 75 kilotons of e-NG annually.

In the meantime, KBR will handle the FEED phase of project development.

“We are pleased to support the Live Oak consortium and its partners on this strategically important project,” said Jay Ibrahim, President, KBR Sustainable Technology Solutions, in a statement. “This award reflects KBR’s proven ability to deliver large-scale energy transition projects, our deep expertise in hydrogen and electrolysis technologies, strong U.S. execution capabilities and successful track record supporting TotalEnergies worldwide. We look forward to helping advance one of the largest e-methane projects currently under development in North America.”

Future electric natural gas heading to Japan

Live Oak’s backers say that future e-NG also will seamlessly integrate into existing liquified natural gas (LNG) infrastructure. The U.S. is the global leader in LNG exports, primarily from LNG liquefaction terminals along the Gulf Coast.

TotalEnergies, TES, Toho, Osaka and ITOCHI announced they signed the joint development and operating agreement for Live Oak last December. The Japanese companies together hold a 33% stake in the Live Oak Consortium. This larger partnership grew out of an earlier deal between TotalEnergies and TES—both of which hold 33.3% stakes, as well—focused on creating a site to produce e-NG.

The group chose Nebraska because the state holds abundant biogenic CO2 resources which are captured from ethanol production plants. The Live Oak site also would utilize renewable energy resources to power electrolyzers.

Electrolyzers separate hydrogen (H2) by splitting water into its H2 and O (oxygen) atoms through electric current. To be classified as green hydrogen, the electrolyzers must be powered by carbon-free resources such as renewable solar and wind or even nuclear power.

The biogenic CO2 captured from ethanol production—a process which turns agricultural feedstocks such as corn into fuel—is then mixed with the H2. The resulting e-NG would be pipelined and transported for export, with Osaka Gas and Toho Gas as the primary off-takers. Japan imports 90% of its energy capacity needs.

Nebrkasa consistently ranks second in U.S. ethanol production behind only Iowa. The Cornhusker state has 24 plants and produces close to 2.4 billion gallons of ethanol per year, according to federal Energy Information Administration statistics.

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About the Author

Rod Walton, EnergyTech Managing Editor

Rod Walton, EnergyTech Managing Editor

Managing Editor

For EnergyTech editorial inquiries, please contact Managing Editor Rod Walton at [email protected].

Rod Walton has spent 17 years covering the energy industry as a newspaper and trade journalist. He formerly was energy writer and business editor at the Tulsa World. Later, he spent six years covering the electricity power sector for Pennwell and Clarion Events. He joined Endeavor and EnergyTech in November 2021.

Walton earned his Bachelors degree in journalism from the University of Oklahoma. His career stops include the Moore American, Bartlesville Examiner-Enterprise, Wagoner Tribune and Tulsa World. 

EnergyTech is focused on the mission critical and large-scale energy users and their sustainability and resiliency goals. These include the commercial and industrial sectors, as well as the military, universities, data centers and microgrids. The C&I sectors together account for close to 30 percent of greenhouse gas emissions in the U.S.

He was named Managing Editor for Microgrid Knowledge and EnergyTech starting July 1, 2023

Many large-scale energy users such as Fortune 500 companies, and mission-critical users such as military bases, universities, healthcare facilities, public safety and data centers, shifting their energy priorities to reach net-zero carbon goals within the coming decades. These include plans for renewable energy power purchase agreements, but also on-site resiliency projects such as microgrids, combined heat and power, rooftop solar, energy storage, digitalization and building efficiency upgrades.

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