Resource logo with tagline

West Virginia blue ammonia complex would be world’s largest

A proposed natural gas-to-ammonia facility with CCS being developed by a northeastern gas developer would dwarf the largest ammonia production facility operating in the world today.

Mingo County, West Virginia – deep Appalachian coal country on the border with Kentucky and Virginia – in recent years the subject of highbrow news analyses on poverty, food insecurity, and social disaffection, now the site of what would be the largest ammonia production facility in the world.

TransGas Development Systems, the New York-based affiliate of Gas Alternatives Systems, has been issued a draft Permit to Construct for the Adams Fork Energy nitrogen fertilizer production facility on a former coal mining site near Wharncliffe by the state Department of Environmental Protection. The project includes plans to capture and sequester carbon dioxide in the production process.

An engineering evaluation describes six identical 6,000 mtpd ammonia manufacturing plants on the site of a previously permitted (but not constructed) coal-to-gasoline facility for which TransGas first applied in 2010.

At more than 13 million mtpy, the combined production would far outstrip the Donaldsonville (Louisiana) Complex of CF Industries, the largest ammonia facility in the world to date. CF says that facility has 4.3 million tons of ammonia production capacity but produces 8 million tons of nitrogen products.

The Flandreau Santee Sioux Tribe of South Dakota have publicly urged the federal government to back the project. The tribe is jointly developing the project with Adams Fork Energy, LLC, which was previously an anchor project in the successful ARCH2 application to the US Department of Energy.

CNX Resources, a major proponent of that DOE funding success, backed out of the Adams Fork project late last year.

Unlock this article

The content you are trying to view is exclusive to our subscribers.
To unlock this article:

You might also like...

ENEOS to develop commercial scale LOHC project

ENEOS will use technology from Honeywell to develop a commercial scale liquid organic hydrogen carrier project.

Honeywell today announced that ENEOS, a leading energy company in Japan, will develop the world’s first commercial scale Liquid Organic Hydrogen Carrier (LOHC) project using Honeywell’s solution at multiple sites.

The LOHC solution enables the long-distance transportation of clean hydrogen and can help meet the growing requirements for hydrogen use across various industries by leveraging existing refining assets and infrastructure.

“With more cost-effective long-distance transport, our Liquid Organic Hydrogen Carrier provides a method of more closely matching international supply and demand for hydrogen which enables hydrogen to play a critical role in the energy mix as we move toward lower-carbon economies,” said Ken West, president and CEO of Honeywell Energy and Sustainability Solutions, in a news release. “By providing solutions to help overcome the challenges of hydrogen transportation, Honeywell is supporting ENEOS in transitioning to a hydrogen-powered future.”

This is one of multiple hydrogen transportation projects on which Honeywell and ENEOS are collaborating. In the Honeywell LOHC solution, hydrogen gas is combined chemically through the Honeywell Toluene Hydrogenation process into methylcyclohexane (MCH) – a convenient liquid carrier – compatible with existing infrastructure. The hydrogen at these sites will be exported – in the same way as petrochemical products – to ENEOS in Japan in the form of MCH. Once at its destination, the hydrogen will be recovered using the Honeywell MCH Dehydrogenation process and released for use, while the toluene can be sent back for additional cycles.

Hydrogen is expected to play a critical role in reducing greenhouse gas emissions. At standard conditions, hydrogen is a flammable gas with low density and cannot be efficiently or easily transported. Current solutions available for transporting hydrogen include liquifying the hydrogen and using chemical carriers such as ammonia, each of which requires additional infrastructure to produce and transport hydrogen.

Read More »

Raven SR to supply SAF to Japan Airlines

The agreement provides for an initial 50,000 tons of SAF supply in 2025 with annual incremental increases to 200,000 tons for year 10.

Raven SR has sign a memorandum of understanding to supply SAF to Japan Airlines for global routes, according to a news release.

The agreement provides for an initial 50,000 tons of SAF supply in 2025 with annual incremental increases to 200,000 tons for year 10. The supply will be produced by Raven SR at facilities planned for markets outside Japan.

“We expect that our agreement with JAL to supply SAF in strategic markets globally will enable buying local fuel produced from local waste,” Matt Murdock, CEO of Raven, said in the release. “We see growing interest in such efficiency and circularity in renewable fuel distribution for aviation and other transportation sectors.”

ITOCHU is one of several strategic investors in privately held Raven SR, which is currently undergoing a Series C with bank of America and Barclays.

The Japanese airline industry is required by the country’s General Assembly of the International Civil Aviation Organization (ICAO) to reach a goal of achieving net-zero CO2 emissions from aircraft by 2050. Starting in 2024, Japanese airlines must reduce or offset 15% of emissions from 2019 levels.

Global SAF supply currently comprises 0.03% of total jet fuel consumption due to a limited supply of feedstock like used cooking oils and tallow.

Raven SR plans to commence commercial production of SAF by 2025 in California and expand SAF production by 200,000 tons/year until 2034 in the US and Europe.

Read More »

Cryo storage tech startup completes strategic fundraise

The new funding will enable Verne to accelerate development of their cryo-compressed hydrogen technology for on-board hydrogen storage for heavy-duty vehicles.

Verne, a developer of high-density hydrogen storage systems, has completed a strategic fundraise led by Trucks Venture Capital, with participation from existing investors Collaborative Fund and Amazon’s Climate Pledge Fund, and new investors United Airlines Ventures Sustainable Flight Fund and Newlab.

The new funding will enable Verne to accelerate development of their cryo-compressed hydrogen (CcH2) technology for on-board hydrogen storage for heavy-duty vehicles. The investment brings Verne’s total funding to $15.5m including grant funding, according to a news release.

Heavy-duty transportation is responsible for 12% of U.S. greenhouse gas emissions. Regulations such as California’s Advanced Clean Fleets and corporate “net zero” commitments necessitate a transition to zero-emission vehicles. However, large energy requirements and the importance of total cost of ownership make it difficult for fleets to transition from diesel to zero-emission technologies that currently involve costly performance tradeoffs. Existing Class 8 Battery Electric trucks provide limited range (~200 miles vs. 1,000 miles for a diesel truck), weigh 5,000–10,000 pounds more than a diesel truck (reducing payload available to haul cargo by 5-15%), and take over two hours to refuel. Hydrogen is the best solution to decarbonize vehicles that need to travel long distances or carry a heavy payload as it provides range, weight, and refueling advantages over battery electric trucks, but current hydrogen trucks still fall short of diesel-truck performance.

Since its founding in 2020, Verne has been dedicated to solving this challenge by developing high-density hydrogen storage that allows these vehicles to reach diesel-equivalent range and payload. Verne’s cryo-compressed hydrogen technology involves cooling and compressing hydrogen to achieve the maximum hydrogen density at 73 g/L internal density, a 33% improvement over liquid hydrogen and an 87% improvement over traditional 700 bar compressed gas hydrogen. The increased density leads to greater range and payload: Verne’s technology enables semi-trucks to achieve diesel-equivalent range, or over 900 miles, without adding any weight to the system.

“Verne’s technology will have a direct positive impact on commercial vehicles on road and in the air. High-density hydrogen is a powerful solution for large vehicles and aligns with our mission of backing the most aggressive climate-positive ideas for transportation,” said Jeffrey Schox, general partner at Trucks Venture Capital.

“Amazon views cryo-compression as a promising hydrogen storage solution,” said Nick Ellis, a principal at Amazon’s Climate Pledge Fund. “We believe cryo-compression can provide economic and operational advantages that will play an important role in the transition to zero-emission fleets.”

“Heavy-duty vehicles like semi-trucks and cargo handling equipment are vital to the functioning of our economy, but they are also some of the worst polluters. Verne is motivated to provide zero-emission solutions that don’t require these critical industries to make costly performance trade-offs,” said Ted McKlveen, co-founder & CEO of Verne. “Bringing on new strategic investors, and strengthening our partnership with existing investors, will help us accelerate our path to market and decarbonize this critical industry.”

Last year, Verne announced a CcHstorage record during stationary demonstration of a 29 kg storage tank at Lawrence Livermore National Laboratory. Verne also completed the first testing of their CcH2 storage system on-board a vehicle as part of their participation in the Breakthrough Energy Fellows program. This on-vehicle testing validated the performance of all sub-systems – including direct integration with the vehicles’ fuel cell – and confirmed the improved hydrogen density relative to the standard 700 bar compressed gas hydrogen storage method. These technical results prepare Verne to meet the significant commercial interest they are receiving from key trucking fleets and OEMs, as well as leading partners across aviation, ports, mining and hydrogen distribution & refueling.

Read More »

Exclusive: Inside Strata’s P2X strategy

Strata Clean Energy is seeking to engage with global chemical, energy, and shipping companies as a potential partner for a pipeline of green hydrogen projects that will have FIDs in 2025 and CODs later this decade.

Strata Clean Energy is developing a pipeline of green hydrogen projects that will produce large amounts of green ammonia and other hydrogen derivatives later this decade.

Mike Grunow, executive vice president and general manager of Strata’s Power-to-X platform, said in an interview that the company is investing in the development of proprietary modeling and optimization software that forms part of its strategy to de-risk Power-to-X projects for compliance with strict 45V tax credit standards.

“We’re anticipating having the ability to produce substantial amounts of low-carbon ammonia in the back half of this decade from a maturing pipeline of projects that we’ve been developing, and we’re looking to collaborate with global chemical, energy, and shipping companies on the next steps for these projects,” he said.

Strata’s approach to potential strategic offtakers could also include the partner taking an equity stake in projects, “with the right partner,” Grunow said. The projects are expected to reach FID in 2025.

Grunow declined to comment on the specific size or regional focus of the projects.

“We aspire for the projects to be as large as possible,” he said. “All of the projects are in deep discussions with the regional transmission providers to determine the schedule at which more and more transmission capacity can be made available.”

Strata will apply its expertise in renewable energy to the green hydrogen industry, he said, which involves the deployment of unique combinations of renewable energy, energy storage, and energy trading to deliver structured products to large industrial clients, municipal utilities and regulated utilities.

The company “commits to providing 100% hourly matched renewable energy over a guaranteed set of hours over the course of an entire year for 10 – 20 years,” Grunow said.

“It’s our expectation that the European regulations and more of the global regulations, and the guidance from the US Treasury will require that the clean energy supply projects are additional, deliverable within the same ISO/RTO, and that, eventually, the load of the electrolyzer will need to follow the production of the generation,” he said.

Strata’s strategy for de-risking compliance with the Inflation Reduction Act’s 45V revenue stream for green hydrogen will give asset-level lenders certainty on the delivery of a project’s IRA incentives.

“Right now, if I’m looking at a project with an hourly matched 45V revenue stream, I have substantial doubt about that project’s ability to actually staple the hourly matched RECs to the amount of hydrogen produced in an hour, to the ton of hydrogen derivative,” he said.

During the design phase, developers evaluate multiple electrolyzer technologies, hourly matching of variable generation, price uncertainty and carbon intensity of the grid, plant availability and maintenance costs along with evolving 45V compliance requirements.

Meanwhile, during the operational phase, complex revenue streams need to be optimized. In certain markets with massive electrical loads, an operator has the opportunity to earn demand response and ancillary service revenues, Grunow said.

Optimal operations

“The key to maximizing the value of these assets is optimal operations,” he said, noting project optionality between buying and selling energy, making and storing hydrogen, and using hydrogen to make a derivative such as ammonia or methanol.

Using its software, Strata can make a complete digital twin of a proposed plant in the design phase, which accounts for the specifications of the commercially available electrolyzer families.

Strata analyzes an hourly energy supply schedule for every project it evaluates, across 8,760 hours a year and 20 years of expected operating life. It can then cue up that digital project twin – with everything known about the technology options, their ability to ramp and turn down, and the drivers of degradation – and analyze optimization for different electrolyzer operating formats. 

“It’s fascinating right now because the technology development cycle is happening in less than 12 months, so every year you need to check back in with all the vendors,” he said. “This software tool allows us to do that in a hyper-efficient way.”

A major hurdle the green hydrogen industry still needs to overcome, according to Grunow, is aligning the commercial aspects of electrolysis with its advances in technological innovation.

“The lender at the project level needs the technology vendor to take technology and operational risk for 10 years,” he said. “So you need a long-term service agreement, an availability guarantee, key performance metric guarantees on conversion efficiency,” he said, “and those guarantees must have liquidated damages for underperformance, and those liquidated damages must be backstopped by a limitation of liability and a domestic entity with substantial credit. Otherwise these projects won’t get financed.”

Read More »
exclusive

Denver green ammonia firm prepping series C capital raise

A green ammonia developer and technology provider is laying the groundwork for a series C capital raise later this year, and still deliberating on a site for its first project.

Starfire Energy, a Denver-based green ammonia producer, is wrapping up a series B capital raise and laying the groundwork for a series C later this year, CEO Joe Beach said in an interview.

The company completed a $6.5m series A in 2021 and finished a $24m series B last year. Investors include Samsung Ventures, AP Ventures, Çalık Enerji, Chevron Technology Ventures, Fund for Sustainability and Energy, IHI Corporation, Mitsubishi Heavy Industries, Osaka Gas USA, Pavilion Capital and the Rockies Venture Club.

Beach declined to state a target figure for the upcoming raise. The firm has not used a financial advisor to date.

Starfire is currently deliberating on locations for its first production facility to come online in 2026, Beach said. Colorado is a primary contender due to ammonia demand, while the Great Plains offer abundant wind energy.

The firm’s strategy is to use renewable energy and surplus nuclear power from utilities to create ammonia from hydrogen with no storage component, eliminating the problems associated with hydrogen storage and transportation.

Targeted offtake industries include agriculture, maritime shipping and peaking power fuel consumption.

“The demand is global,” Beach said, stating that he expects about 150 leads to convert to MOUs. “We get inbound interest every week.”

For future capital raising, Beach said the company could take on purely financial investors, as it already has a long list of strategic investors.

“The expectation is we will wind up with manufacturing plants around the world,” Beach said.

The “new petroleum”

Many hydrogen production projects have been announced worldwide in the last year.

Beach said he expects many of those to transition into ammonia production projects, as ammonia is much easier to export.

Now, Starfire is working on developing its ammonia cracking technology, which converts ammonia into an ammonia/hydrogen blend at the point of use for chemical processes. The final product form in that process is 70% ammonia, 22.5% hydrogen and 7.5% nitrogen – all free of emissions.

The company is using proceeds of its series B capital raise to develop its Rapid Ramp and Prometheus Fire systems. Rapid Ramp uses a modular system design for the production of green ammonia using air, water, and renewable energy as the sole inputs. Prometheus Fire is an advanced cracking system that converts ammonia into hydrogen, operating at lower temperatures than other crackers and creating cost-effective ammonia-hydrogen blends that can replace natural gas.

The advantage to using this technology is that it makes the export of a hydrogen product financially feasible, Beach said.

“You should see ammonia becoming the new petroleum,” he said of the global industry. Ammonia can be deployed internationally like oil and provide the dependability of coal.

Eventually Starfire will undergo a financial exit, Beach said. Likely that will mean an acquisition, but an IPO is also on the table.

Read More »

Exclusive: Geologic hydrogen startup raising Series A

A US geologic hydrogen startup that employs electric fracking with a pilot presence on the Arabian Peninsula is raising a $40m Series A and has identified a region in the midwestern US for its first de-risked project.

Eden GeoPower, a Boston-based geologic hydrogen technology provider, is engaged in raising a Series A and has a timeline on developing a project in Minnesota, CEO and co-founder Paris Smalls told ReSource.

The Series A target is $40m, with $10m being supplied by existing investors, Smalls said. This round, the company is looking for stronger financial investors to join its strategic backers.

The company has two subsidiaries wholly owned by the parent: one oil and gas-focused and one climate-focused. The Series A is topco equity at the parent level.

Eden was one of 16 US Department of Energy-selected projects to receive funding to explore geologic hydrogen; the majority of the others are academic lab projects. Eden has raised some $13m in equity and $12m in grant funding to date.

Beyond geothermal

Eden started as a geothermal resource developer, using abandoned oil and gas wells for production via electric fracking.

“We started seeing there were applications way beyond geothermal,” Smalls said. Early grant providers recommended using the electric fracking technology to go after geologic hydrogen reservoirs, replacing the less environmentally friendly hydraulic fracking process typically used.

A test site in Oman, where exposed iron-rich rock makes the country a potential future geologic hydrogen superpower, will de-risk Eden’s technology, Smalls said. Last year the US DOE convened the first Bilateral Engagement on Geologic Hydrogen in Oman.

Early developments are underway on a demonstration project in Tamarack, Minnesota, Smalls said. That location has the hollow-vein rocks that can produce geologic hydrogen.

“We likely won’t do anything there until after we have sufficiently de-risked the technology in Oman, and that should be happening in the next 8 months,” Smalls said. “There’s a good chance we’ll be the first people in the world to demonstrate this.”

Eden is not going after natural geologic hydrogen, but rather stimulating reactions to change the reservoir properties to make hydrogen underground, Small said.

The University of Minnesota is working with Eden on a carbon mineralization project, Smalls said. The company is also engaged with Minnesota-based mining company Talon Metals.

Revenue from mining, oil and gas

Eden has existing revenue streams from oil and gas customers in Texas and abroad, Smalls said, and has an office in Houston with an expanding team.

“People are paying us to go and stimulate a reservoir,” he said. “We’re using those opportunities to help us de-rick the technology.”

The technology has applications in geothermal development and mining, Smalls said. Those contracts have been paying for equipment.

Mining operations often include or are adjacent to rock that can be used to produce geologic hydrogen, thereby decarbonizing mining operations using both geothermal energy and geologic hydrogen, Smalls said.

“On our cap table right now we have one of the largest mining companies in the world, Anglo American,” Smalls said. “We do projects with BHP and other big mining companies as well; we see a lot of potential overlap with the mining industry because they are right on top of these rocks.

Anti-fracking

Eden is currently going through the process of permitting for a mining project in Idaho, in collaboration with Idaho National Labs, Smalls said.

In doing so the company had to submit a public letter explaining the project and addressing environmental concerns.

“We’re employing a new technology that can mitigate all the issues [typically associated with fracking],” Small said.

With electric fracturing of rocks, there is no groundwater contamination or high-pressure water injection that cause the kind of seismic and water quality issues that anger people.

“This isn’t fracking, this is anti-fracking,” Smalls said.
Read More »

Welcome Back

Get Started

Sign up for a free 15-day trial and get the latest clean fuels news in your inbox.