Thesis
The Sabatier reaction was discovered by French chemists Paul Sabatier and Jean-Baptiste Senderens in 1897. It involves the reaction of hydrogen with carbon dioxide at high temperatures and pressures to produce methane and water. While the process has been used aboard the International Space Station since 2011 and is considered essential for manufacturing return fuel for future missions to Mars, it has a more immediate utility on Earth, where the global natural gas market was worth $1.3 trillion in 2025.
Solar and wind can decarbonize electricity generation, but sectors like aviation, shipping, and heavy industry rely on high-density chemical fuels rather than batteries, making decarbonization difficult and expensive. Fuels can be synthesized to decarbonize these so-called hard-to-abate sectors, but there is a significant cost penalty associated with the additional energy the conversion consumes. For example, synthetic aviation fuel (e-SAF) was priced at 10.5 times conventional jet fuel in the EU, and one power-to-liquid pathway converts only 25.6% of its input electrical energy into fuel.
As a result, companies in the space compete on thermodynamic efficiency. They assume electricity is the scarce resource and build complex reactors designed to waste as little energy as possible. This approach has reduced the green premium by lowering energy requirements, particularly for electrolyzer systems, but results in high capital expenditures and long payback periods, so synthetic methane has so far cost at least four times as much as natural gas.
However, solar photovoltaic costs fell by 90% in the decade to 2024, and if learning rates do not significantly deteriorate, projects powered by off-grid solar panels could soon have access to close-to-free energy. In addition, US natural gas prices are projected to more than double from $2.20 per one million British Thermal Units (MMBtu) in 2024 to $4.80 per MMBtu by 2050 (measured in 2024 dollars), driven mainly by growing exports of liquefied natural gas (LNG), which widens the opening for synthetic methane.
Terraform Industries builds machines that turn solar electricity, water, and air into synthetic natural gas, and it has designed them from the start to compete with oil and gas wells on price without subsidies. The company believes the best way to eliminate the green premium is to minimize CapEx at the expense of high energy consumption, using cheap solar power. It builds its machines from the cheapest parts that are still robust enough to last five years with minimal maintenance. In the long term, the company aims to apply the same approach beyond methane to other energy-intensive products that cannot easily be made with electricity alone, including hydrogen, methanol, ammonia, cement, and steel.
Founding Story
Source: Casey Handmer
Terraform Industries was founded in November 2021 by Casey Handmer (CEO). Handmer earned a PhD from Caltech in 2015, then worked as a levitation engineer at Hyperloop One from 2016 to 2018 and as a software system architect at NASA's Jet Propulsion Laboratory (JPL) from 2018 until he left to start Terraform in November 2021. Handmer has been described as a polymath; outside of work, he plays the piano, has studied nine languages, and won the First Ink Prize for an early breakthrough in deciphering ancient scrolls.
Handmer has said the idea for Terraform came to him while he was working on a Mars base at NASA. In a March 2024 interview, he described coming "to the horrifying realization that synthetic fuels are something that we needed to do urgently and that no one else is really doing it." On its website, the company states:
"We are committed to cutting the net CO2 flux from crust to atmosphere as quickly as possible. As solar power gets cheaper, there will come a time when it is cheaper to get carbon from the atmosphere than an oil well. That time is now."
Handmer has emphasized that he looks for practical experience and excellent track records rather than formal qualifications when hiring. Its engineering team includes Ryan Okerson, who moved to Terraform's electrolyzer team in July 2024 to apply his experience setting up the Starlink solar array production line at SpaceX to building the company's first factory for serial production.
Terraform Industries is headquartered in a building described as a "castle" in Burbank, California, across the street from Lockheed's Skunk Works.
Source: Supercluster
While Terraform Industries started with the stated goal of producing clean methane cheaper than natural gas, the scope of the company has since expanded to include hydrogen, methanol, and ammonia, but also materials such as aluminum and titanium, all connected by their highly energy-intensive production processes. In an April 2025 blog post, Handmer described the company's renewed vision as setting out "to conquer the primary energy consumption layer of our entire civilization."
Product
Product Overview
Source: Terraform Industries
Terraform's flagship product is the Terraformer, a three-module system that makes synthetic natural gas. It produces hydrogen from water and solar-generated electricity, captures carbon from airborne carbon dioxide through direct air capture (DAC), and reacts the two together to form methane.
As of September 2026, the Terraformer is the company's focus, but Terraform's master plan describes natural gas as a starting point chosen "for pure technical expediency" within a longer "ambition to own the production of every kind of hydrocarbon." The plan lists electrolyzers, hydrogen, DAC systems, and carbon dioxide as products in their own right, so the company intends to sell both production units and the end products (methane, hydrogen, and carbon dioxide). This plan dates the methanol Terraformer, which replaces the Sabatier reactor with a methanol synthesizer, to 2027, and the company reported producing industrial-grade methanol in May 2026.
Terraformer
The Terraformer is a modular system that converts sunlight and ambient air into methane. It is designed to fit a compact 100x8 ft footprint, to be weatherproof to IP65, to operate over a wide temperature range, and to last five years with minimal maintenance. It is designed to produce 1K cubic feet of natural gas per hour of operation, and it is optimized for 25% utilization of its solar array, a configuration in which it would produce 6K cubic feet per day.
The system prioritizes capital efficiency, cost minimization, and global manufacturability over energy efficiency. If the energy powering it and its components is cheap enough, process efficiency matters less. For this reason, it was designed to be co-located with a 1 MW solar array for on-site energy production, eliminating the need for long-distance energy transport and the costs associated with building and maintaining a grid connection.
Source: Terraform Industries
The commoditized nature of the energy market means that financial returns are thin in the industry. According to data dated to January 2026, power generation earned a return on capital only 1.9 percentage points above its cost of capital. Terraform believes that by vertically integrating, it can more easily earn a healthy margin on synthetic fuels.
While Terraform could have bought the components of the Terraformer separately, and there are, to varying sizes, whole industries built on the sales of electrolyzers, DAC systems, and heat-exchange reactors, Terraform has built all three in-house since the beginning. The Terraformer has three key subsystems in its power-to-methane process: Terraform’s Electrolyzer, its Direct Air Capture System, and its chemical Sabatier reactor.
Electrolyzer
Source: Terraform Industries
The electrolyzer splits water pumped into it into hydrogen and oxygen using electricity generated by solar power (2H2O → 2H2 + O2). The reaction absorbs energy, so each cell needs at least about 1.5 volts to run. Consistent with Terraform’s overall design philosophy, the electrolyzer is designed for minimal capital cost rather than maximum electrical efficiency. It runs at 50% electrical efficiency, or 80 kWh per kilogram of hydrogen.
The company's January 2023 whitepaper set a long-term cost target of $20/kW, and in December 2025 Terraform reported qualifying an electrolyzer stack below $100/kW. Rather than engineering a complex system and using technologies such as anion-exchange membranes, which can achieve higher efficiencies, the company opts for an alkaline electrolyzer with the cheapest possible parts that will still be reliable.
Direct Air Capture
Source: Terraform Industries
Terraform’s DAC unit extracts carbon dioxide from the air to source carbon, the missing ingredient in the methane molecule that the product ultimately outputs. DAC is typically considered more costly than capturing carbon from industrial exhaust because atmospheric carbon dioxide is dilute, averaging 427 parts per million in 2025. By capturing the carbon dioxide on site, the company avoids the costs of storage and transport.
Terraform captures carbon through calcium looping, in which calcium oxide absorbs carbon dioxide to form calcium carbonate, then heats it to release a concentrated stream of the gas and regenerate the sorbent. The raw material is limestone, a commodity input, and crushed stone sold in the US in 2024 for an average of $17.50 per metric ton. The process trades energy efficiency for simple, abundant materials, since regenerating the sorbent requires high temperatures. The input is not free of price risk, however. The producer price index for crushed and broken limestone mining nearly doubled between August 2015 and August 2026.
Sabatier Reactor
Source: Terraform Industries
The third subsystem is a chemical reactor that combines the hydrogen and the carbon dioxide to produce methane via the Sabatier reaction (CO2 + 4H2 → CH4 + 2H2O), which releases 165 kJ/mol of heat. Terraform uses a nickel catalyst on the grounds that it is the simplest and cheapest catalyst that will get the job done.
The end product is a stream of pipeline-grade methane that can be sold into existing natural gas infrastructure. Terraform reported reaching 99.4% methane purity with its fourth-generation reactor in April 2024. The process can also form the basis of a liquid hydrocarbon supply chain, either through Fischer-Tropsch upgrading of methane or via the direct synthesis of ethylene. In January 2023, the team set an internal cost target of $2.5K for the reactor, against $7.8K for the prototype at the time, which carried expensive testing equipment.
Market
Customer
Source: Terraform Industries
Terraform's target customers include developers of photovoltaic power stations, who can plug the Terraformer straight into existing infrastructure or develop a project from the ground up. They also include customers who will buy the gas directly from the company, such as industrial players that need methane as a feedstock for hydrogen and other chemicals, and utilities that can contract for synthetic natural gas and distribute it for heating or burn it in gas turbine power plants.
Terraform signed its first natural gas offtake agreement with SoCalGas in September 2022. SoCalGas, a subsidiary of Sempra and the primary provider of natural gas in Southern California, serves 21.1 million consumers through 5.9 million meters as of September 2026. In 2021, it set a target of delivering 20% renewable natural gas by 2030.
Market Size
Natural Gas. Natural gas is one of the most important energy sources for power generation, industrial heat, and residential consumption, and the global natural gas market was valued at $1.3 trillion in 2025.
Fossil natural gas benefits from established production and distribution systems and remains cheap. The US Henry Hub benchmark averaged $3.50/MMBtu in 2025. Forecasts for the synthetic methane market are much smaller in comparison, at $225.2 million by 2030. The willingness to pay a green premium is highly variable and less transparent than regular natural gas pricing. One industry expert estimated that clean methane sells for $3-7 per kilogram, and Terraform reported earning a green premium of $35/Mcf on the gas it delivered to two utility partners in April 2024.
Direct Air Capture. The direct air capture market was valued at $97.6 million in 2024 and is projected to reach $1.7 billion by 2030, representing a 61% CAGR from 2025 to 2030.
Hydrogen. The global hydrogen market was valued at $282.6 billion in 2025. Green hydrogen was priced at $5-11/kg in April 2024, when Terraform reported producing it for less than $2.50/kg. Terraform's master plan lists electrolyzers and hydrogen gas among its near-term products, so hydrogen is both an intermediate for its methane and a market in its own right.
Long-Term Addressable Markets. In an April 2025 blog post, Handmer posited that a phenomenon analogous to Aggregation Theory will happen in energy, shifting the imperative from finding the best energy production to productive energy consumption. For Terraform, this means targeting what Handmer calls the "primary energy consumption layer" of civilization, meaning the industrial products whose manufacture consumes large amounts of energy.
Synthetic methanol: A transportable liquid fuel and chemical precursor. The green methanol market is projected to reach $12.3 billion by 2032.
Synthetic carbon materials: Coke and graphite, used in battery manufacturing and heavy industry and historically produced through carbon-intensive processes. The synthetic graphite market was valued at $8.7 billion in 2025, with a projected CAGR of 6.9% from 2025 to 2035.
Ammonia: The foundation of global agricultural fertilizers and a high-density energy carrier, made from hydrogen and nitrogen. The global ammonia market was valued at $82.9 billion in 2025 and is projected to grow at a 4.3% CAGR from 2026 to 2034.
Cement and lime production: Underpins all global infrastructure development. The global cement market was valued at $428.5 billion in 2025 and is projected to grow at a 5.2% CAGR from 2026 to 2034.
Steel: Essential in construction and manufacturing, but requires high-temperature processes that are difficult to electrify directly. The global steel market was valued at $1.5 trillion in 2024 and is projected to grow at a 4.6% CAGR from 2025 to 2030.
Non-ferrous metals: Aluminum is the primary target for electroreduction and was the largest non-ferrous segment in 2024, when the global aluminum market was valued at $178.5 billion, with an estimated CAGR of 5.9% from 2025 to 2034.
Desalination: Used to secure municipal drinking water supplies in water-scarce regions. The global water desalination market was valued at $24.3 billion in 2025 and is projected to grow at an 11.6% CAGR from 2026 to 2034.
Competition
Many companies sell electrolyzers, DAC systems, or methanation reactors as standalone subsystems, including Sunfire, which makes high-temperature electrolyzers. The competitors below either share Terraform's vertically integrated approach to synthetic methane or make synthetic fuels from captured carbon dioxide.
Synthetic Methane
Rivan: Founded in 2022 and headquartered in London, Rivan designs and builds modular, vertically integrated synthetic fuel plants, with in-house work on direct air capture, electrolysis, reactors, and solar. In April 2026, Rivan raised a £25 million Series A led by IQ Capital at an undisclosed valuation, following a £10 million seed round led by Plural in May 2025 in which NFDG (Nat Friedman and Daniel Gross) and Patrick and John Collison, also early backers of Terraform, participated, for a total of £35 million as of September 2026. The round funds Project Starwell, a 15 MW plant in Wiltshire that Rivan said in April 2026 will be the largest synthetic natural gas plant in Europe and the first to inject synthetic natural gas into the UK gas grid. Rivan also reported that during 2025 it had sold its entire planned production until 2029.
Source: Rivan
The two companies' economics differ as a consequence of their different geographies. Natural gas is significantly more expensive in Europe, at $17.90/MMBtu in July 2026, than in the US, at $2.90/MMBtu in the same month, making Rivan's natural gas worth about six times as much, while Terraform's California sites have the stronger solar resource.
Turn2X: Founded in 2022 and based in Munich, Germany, Turn2X develops and operates plants that produce renewable natural gas by combining green hydrogen with biogenic carbon dioxide in a modular methanation reactor. Its first commercial plant, in Miajadas, Spain, sells all of its output under long-term offtake contracts. In June 2023, Turn2X raised a €4.3 million seed round led by LEA Partners at an undisclosed valuation, and it had raised €4.3 million in total as of September 2026. Unlike Terraform, which captures carbon from the air, Turn2X takes its carbon from biogenic sources, which avoids the cost of DAC but ties each plant to a supply of biogenic carbon dioxide.
Synthetic Liquid Fuels
Prometheus Fuels: Founded in 2018 and based in Santa Cruz, California, Prometheus Fuels produces synthetic diesel, jet fuel, and methanol rather than methane, combining DAC with an electrochemical process that forms long-chain alcohols, which are then upgraded to fuels. In September 2021, Prometheus raised a Series B led by Maersk Growth at a $1.5 billion valuation, with BMW i Ventures among its earlier backers; neither the round size nor its total funding has been publicly disclosed as of September 2026. As of September 2026, its website markets its fuels as seasonal energy storage for data centers as well as for transportation and defense, a shift from its original focus on cost-competitive transportation fuels.
Carbon Engineering: Founded in 2009 and based in Squamish, British Columbia, Carbon Engineering was an independent DAC developer until Occidental Petroleum acquired it for $1.1 billion in November 2023, after it had raised $115.4 million. Its Air to Fuels technology demonstrated converting atmospheric carbon dioxide into liquid fuels, but Occidental's DAC subsidiary, 1PointFive, has focused on capturing carbon dioxide for underground storage. It remains a relevant competitor in DAC technology and intellectual property rather than in fuel sales.
Ineratec: Founded in 2014 and headquartered in Karlsruhe, Germany, Ineratec builds modular power-to-liquid plants that use micro-structured chemical reactors to perform the Fischer-Tropsch process, converting hydrogen and carbon dioxide into e-diesel, e-kerosene, and e-methanol. In January 2024, Ineratec raised a $129 million Series B led by Piva Capital at an undisclosed valuation, and it had raised €208 million in total as of September 2026. In June 2025, it opened Era One in the Frankfurt-Höchst industrial park, a plant designed to produce up to 2.5K tonnes of e-fuels a year from biogenic carbon dioxide and by-product hydrogen. Its "plant-in-a-box" architecture resembles the modularity of Terraform's approach, though its end product is liquid fuel and its feedstocks come from an industrial park rather than from the air and a dedicated solar array.
Business Model
Source: Terraform Industries
Terraform plans to generate upfront revenue through sales of Terraformers, which it offers at a base price of $100K, to utilities, industrial users, and other buyers seeking carbon-neutral fuel sources. The company plans to move to Terraformer factory manufacturing from 2029 to reduce unit CapEx and unlock volume economics.
Although the long-term vision is for the sale of the Terraformer to represent the primary source of revenue, one analysis argued that Terraform will likely need to play a much more active role in developing initial projects, both to get them built and to set standards and best practices.
Who owns a sold system would depend on how complex it is to operate and maintain. At the lowest complexity, financial sponsors could own it the way they own a battery energy storage system in a solar farm; at moderate complexity, utilities, independent power producers, and shale producers could run portfolios of them, much like power plants; and at the highest complexity, traditional hydrocarbon producers like Shell could take them on.
Once deployed, each Terraformer is designed to produce over 2 million cubic feet of synthetic natural gas annually, based on 2.2K operating hours a year at 25% utilization, which can be sold under long-term offtake contracts. At a $10/Mcf sale price plus $54/Mcf of Inflation Reduction Act (IRA) production tax credits, which the company listed as 45V (clean hydrogen), 45Q (carbon capture), and 45E (clean electricity), the company projected in June 2023 that a single unit could generate up to $150K in annual revenue. In that model, tax credits make up 84% of revenue per Mcf, $54 of every $64.
One independent analysis noted in June 2025 that the IRA does not allow the 45V and 45Q credits to be claimed together, and that US natural gas was likely to remain available at $3-5 per thousand cubic feet for the foreseeable future and to rise only slowly toward $7-10 by 2050, below the $10/Mcf assumption.
Traction
Terraform's earliest public commercial traction came in September 2022, when it signed an offtake agreement with SoCalGas. By May 2023, the company had landed agreements with two California utilities, SoCalGas and Pacific Gas and Electric (PG&E), the second of which Terraform plans to work with as both a customer, buying clean electricity, and a supplier, selling clean natural gas. Terraform has also been approached by other utilities and by companies in the oil and gas industry.
In March 2024, the company produced its first batch of pipeline-grade synthetic natural gas in an end-to-end demo, validating the technology and allowing the team to move on to building the first Terraformer to be deployed in the field. In April 2024, it delivered carbon-neutral pipeline-grade gas to two utility partners at a green premium of $35/Mcf.
Handmer has emphasized the need to build relationships with the many different industries and players in the energy sector, pushing the team to attend annual meetings for the American Public Gas Association and the Independent Petroleum Association of America to build trust and evangelize synthetic fuels, while also joining industry associations such as the Carbon Business Council and building relationships with other climate tech startups like Prometheus Fuels and Heirloom.
Much of the company's progress from 2024 to 2026 came on the engineering and manufacturing side. In 2025, Terraform made 13 new hires, completed a demonstration of its integrated high-pressure reactor injection system in February, and took delivery of a 480-ton plastic injection molding machine to mass-produce electrolyzers in May. By December 2025, it had molded nearly 6K Terraformer electrolyzer slices, qualified an electrolyzer stack below $100/kW, and installed all components of its DAC system, and it said that 2026 would see full-scale deployment in the field.
In January 2026, Kern County processed a conditional use permit for a temporary testing site to produce e-methane with an associated solar array on a five-acre parcel in Rosamond, California. In March 2026, as Terraform broke ground on a Kern County site, Handmer said that the company had been able to get through California's permitting process. In May 2026, Terraform reported that it had produced and sold thousands of cubic feet of pipeline-grade natural gas, produced industrial-grade methanol, and deployed 1.8 MW of solar at its Muroc desert test site, and in August 2026 it announced the production of hydrogen and carbon dioxide at the Muroc site running on pure solar power. As of September 2026, the company had 28 employees on LinkedIn.
Valuation
In May 2026, Terraform reported that it had closed seed funding of $38 million at a valuation of $150 million, and that it was taking some limited further capital. A Form D filed in April 2026 recorded $37.7 million of equity sold in the offering, bringing Terraform's total funding to $37.7 million as of April 2026. In August 2026, the company said it was continuing to raise money. Investors include Climate Capital, Trajectory Ventures, Mana Ventures, and early backers Nat Friedman, the former GitHub CEO, and Stripe co-founders Patrick and John Collison.
Key Opportunities
Continued Reduction in Solar Panel Costs
Continued reduction in solar energy prices is the most important factor outside Terraform's control. Handmer described the company in its 2022 whitepaper as "a bet on cheap solar, synthetic hydrocarbon supremacy, and hyperscale."
In the benchmark published in February 2026, the global levelized cost of electricity (LCOE) for fixed-axis solar rose 6% to $39/MWh, driven by supply chain constraints, poorer resource availability, and market reforms in mainland China. Despite this, solar remained less than half the cost of combined-cycle gas generation, at $102/MWh, and solar LCOE is forecast to fall another 30% over the decade to 2036. Global cumulative photovoltaic capacity exceeded 2.2 terawatts at the end of 2024.
Source: Casey Handmer
Increase in Natural Gas Price
The US Henry Hub price is projected to rise from $2.20/MMBtu in 2024 to $4.80/MMBtu by 2050 in 2024 dollars, driven mainly by growing LNG exports. If these price increases materialize, Terraform would, in effect, be able to sell its synthetic gas at a higher price as well, increasing its profit margin. Gas-fired power is also becoming more expensive to build, which strengthens the case for solar. Combined-cycle gas LCOE rose 16% to $102/MWh in the same benchmark, the highest level on record.
Carbon Pricing
There are good reasons why fossil fuels have been, and still are, foundational to human civilization: hydrocarbons are energy-dense, versatile, and cost-competitive. Another, less visible reason is that part of the cost they impose on society is an externality. When the carbon in these hydrocarbons reacts with oxygen to form carbon dioxide, it harms everyone, but those who burn it have an incentive to do so anyway, since they keep the economic benefit and bear only a marginal share of the damage, externalizing the environmental cost.
One possible solution to the externalities problem is to price the environmental cost in. The EU Emissions Trading System (ETS), launched in 2005, creates allowances that each permit a company to emit one ton of carbon dioxide equivalent. It covers electricity and heat generation, industrial manufacturing, aviation, and maritime transport, which together account for 40% of the EU's greenhouse gas emissions. Since 2013, the EU ETS has raised over €175 billion, part of which funds the EU's energy transition through the Innovation Fund and the Modernisation Fund.
The US does not have a federal carbon market, but California's cap-and-invest program, formerly called cap-and-trade, covers about 80% of the state's greenhouse gas emissions. As a price on carbon becomes more comprehensive and widespread, the price of natural gas rises to reflect the cost of its emissions, increasing the competitiveness of synthetic methane made with carbon drawn from the air, which Terraform describes as carbon neutral, where regulators credit it as such. Burning natural gas emits 52.9 kg of carbon dioxide per MMBtu, so at the EU allowance price of €86.70 in September 2026, fossil gas carries a carbon cost of €4.60/MMBtu, and at California's Q3 2026 settlement price of $32.50 per allowance, $1.70/MMBtu.
Technological Breakthroughs
Across the three subsystems Terraform is working on, several emerging technologies could improve performance significantly. In electrolyzers, a high-temperature solid oxide electrolyzer has converted 84% of its input electricity into hydrogen energy, against 60% for alkaline and proton exchange membrane systems. In DAC, metal-organic frameworks, the subject of the 2025 Nobel Prize in Chemistry, can capture carbon dioxide, though they have so far been used only at small scale.
Handmer has discussed these alternative pathways, and Terraform has deliberately chosen mature, robust, and energy-inefficient technologies instead. If any of the alternatives becomes mature enough to improve the Terraformer, the company could adopt it, given the breadth of products it plans to make in the medium and long term.
Key Risks
Failure to Solve Technical Challenges
Every part of the Terraformer that the company builds in-house is a source of engineering problems that need to be solved at a fast pace to keep a competitive advantage and the team motivated. While Terraform has demonstrated rapid progress, there is an unavoidable risk that the team fails to address some problems or loses momentum and cannot grow fast enough. Handmer's prolific social media presence likely helps attract talent, but engineers are scarce in the US, where about a third of new engineering roles go unfilled. Delivery has already slipped once. In June 2023, Terraform said production of the Terraformer Mark One would start in Q2 2024, and as of September 2026, the company was still running its systems at a desert test site. As of September 2026, it listed 27 open roles on its website, most of them in engineering.
Dependence on Solar and Gas Price Trends
Terraform's economics depend on trends outside its control, primarily the cost of solar panels. While there is significant upside if the trend continues, one industry expert said that a slowdown in the learning rate of solar panel production would compromise the business case. The likelihood of this happening is difficult to estimate, but part of the fall in module prices through 2025 reflected production overcapacity, especially in China. A supply correction could slow price declines while supply readjusts to demand or, in a worst-case scenario, lead to factory shutdowns and a short-term rise in solar panel prices.
Higher natural gas prices are not guaranteed either, and even if they arrive, they may not improve margins enough to make the Terraformer profitable once IRA subsidies are phased out. The Henry Hub price averaged below $5/MMBtu each year from 2023 to 2025, and the EIA's reference case keeps it below that level through 2050, at less than half the $10/Mcf price Terraform's revenue model assumes. Sustained low US prices would limit the revenue potential of the Terraformer in the US, and therefore the business model as a whole.
Loss of Federal Tax Credits
The One Big Beautiful Bill Act, signed in July 2025, terminates the 45V clean hydrogen credit for facilities that begin construction after 2027, while keeping the 45Q carbon capture credit for facilities that start construction before 2033. The company's revenue projections for the Terraformer counted on 45V, so units that begin construction after 2027 will not be able to claim it.
In Europe, officials have reaffirmed the EU's commitment to its ReFuelEU Aviation targets for mandated markets for biofuels and e-SAF, but there is uncertainty about whether they will be met, since supply lagged demand in 2025, the mandate's first year. This is less important for the company, however, since it is focusing on selling in the US. In July 2024, Handmer argued that subsidy cuts would help Terraform "relative to our competition," but the company's own June 2023 revenue model drew 84% of projected revenue per Mcf from tax credits.
Summary
Terraform Industries operates on the contrarian premise that the most effective way to decarbonize fuel is to minimize CapEx rather than optimize for thermodynamic efficiency. By coupling low-cost, modular machines with falling solar costs, Casey Handmer aims to produce synthetic natural gas at a price that eventually undercuts fossil fuels.
The company views methane as a beachhead market, with long-term plans to produce hydrogen, methanol, ammonia, and metals as part of what it calls the "primary energy consumption layer" of civilization. By September 2026, it had sold its first pipeline-grade gas and deployed 1.8 MW of solar at its test site, but its first Terraformers will enter a market where Henry Hub gas averaged $3.50/MMBtu in 2025 and the 45V credit is ending for facilities that begin construction after 2027. The key question is whether solar costs keep falling fast enough for Terraform's gas to compete without subsidies.
