A major new investment is bringing geothermal energy back into focus. Fervo Energy has secured $421 million to build and expand its Cape Station geothermal project in Utah. The deal marks one of the largest recent financings in the U.S. geothermal sector.
This move comes at a time when energy systems are changing fast. Demand for reliable, carbon-free power is rising. Solar and wind are growing quickly, but they depend on the weather. Geothermal offers a different advantage. It provides steady electricity, day and night.
Fervo’s project shows how this technology is starting to scale. It also highlights a broader shift in clean energy markets. David Ulrey, Chief Financial Officer at Fervo Energy, said:
“Non-recourse financing has historically been considered out of reach for first-of-a-kind projects. Cape Station disrupts that narrative. With proven oil and gas technology paired with AI-enabled drilling and exploration, robust commercial offtake, operational consistency, and an unrelenting focus on health and safety, we have shown that EGS [enhanced geothermal systems] is a highly bankable asset class.”
A Major Investment in Next-Generation Geothermal
Fervo’s $421 million financing includes a mix of debt and credit support. The package is designed to fund the construction and early operations of the Cape Station project.
RBC Capital Markets is the coordinating lead arranger, working with Barclays, BBVA, and HSBC, with additional support from J.P. Morgan, Bank of America, and Sumitomo Mitsui Trust Bank’s New York branch.
Sean Pollock, Managing Director at RBC Capital Markets, remarked:
“As demand for firm, clean, affordable power accelerates, EGS is set to become a core energy asset class for infrastructure lenders. Fervo is pioneering this step change with Cape Station, a vital contribution to American energy security that RBC is proud to support.”
The project is located in Utah and is expected to become one of the largest EGS in the United States. Its initial phases could reach hundreds of megawatts of capacity, with long-term plans to scale up to 2 gigawatts (GW).
Conventional and EGS in the U.S.
Source: EIA
This is a significant size. A 1 GW power plant can supply electricity to hundreds of thousands of homes, depending on usage levels. At full build-out, Cape Station could rank among the largest clean energy facilities in the country.
Fervo’s approach uses advanced drilling methods adapted from the oil and gas sector. These techniques allow developers to access deep heat resources that were once too difficult to reach. This expands the potential for geothermal energy beyond traditional locations.
From Niche to Necessary: Geothermal’s Small Share but Large Potential
The United States currently has about 2.7 gigawatts (GW) of conventional geothermal capacity, per the US Energy Information Administration. This is only 0.2% of total U.S. summer generating capacity, which refers to the maximum power available during peak demand in summer.
Source: EIA
The potential for EGS is much larger. The U.S. Geological Survey estimates that 135 GW of power could be developed from EGS in the Great Basin alone.
Other estimates suggest that up to 150 GW of cost-effective geothermal capacity could be built in the coming decades, depending on market conditions and technological progress.
Source: IEA
In 2023, the National Laboratory of the Rockies estimated that about 90 GW of EGS capacity could be economically developed across the United States by 2050.
The small share reflects past limitations. Traditional geothermal projects require natural underground reservoirs of hot water or steam. These are only found in certain regions.
Technology Is Unlocking New Geothermal Resources
However, new technologies are changing that. Enhanced geothermal systems can create artificial reservoirs by injecting water into hot rock formations. This makes geothermal viable in many more areas.
The key to geothermal growth lies in innovation. Traditional geothermal systems are limited by geography. Enhanced systems aim to remove that constraint.
Fervo uses horizontal drilling and hydraulic stimulation. These methods are similar to those used in shale oil and gas production. They allow wells to reach deeper and hotter rock formations.
The company has already tested this approach. Its pilot project, known as Project Red, produced about 3.5 megawatts (MW) of continuous electricity. It also showed strong flow rates, which are critical for long-term performance.
Scaling up from pilot to commercial size is the next step. Cape Station represents that transition. If successful, it could prove that enhanced geothermal systems can operate on a large scale. This would open the door for wider adoption across the United States and other countries.
Why 24/7 Clean Energy Is in High Demand
Electricity demand is rising across the United States and globally. This is driven by electrification, population growth, and new industries.
At the same time, the energy system is shifting toward renewables. Solar and wind are now among the fastest-growing sources of electricity. However, these sources are variable. Solar only produces power during the day. Wind output can change with weather conditions.
This creates a need for stable energy sources that can run at all times. Geothermal meets this need. It provides baseload power, meaning it can operate continuously without interruption.
Other low-carbon baseload options include nuclear and hydropower. Geothermal adds another layer to this group, especially in regions where other options are limited.
As renewable energy expands, the value of steady power is increasing. This trend is driving interest in geothermal projects.
Investment Trends Support Geothermal Growth
Fervo’s funding reflects a broader shift in energy investment. Clean energy technologies are attracting increasing amounts of capital.
The company has raised about $1.5 billion in total funding since its founding in 2017. This includes equity investments and project-level financing.
Government policy is also playing a role. The U.S. Inflation Reduction Act provides tax credits and incentives for clean energy projects, including geothermal. These incentives help reduce project costs and improve returns for investors.
At the same time, utilities and large energy users are seeking long-term clean power contracts. This creates stable revenue streams for projects like Cape Station.
Source: IEA
Global energy investment trends show continued growth in renewables, including geothermal. The International Energy Agency reports that clean energy investment is expected to exceed $2 trillion annually in the coming years, with solar leading but other technologies gaining support.
Geothermal is still a small part of this total today. However, its role could expand as the need for reliable clean energy increases, reaching nearly $3 trillion by 2050.
A New Role for Geothermal in the Energy Transition
Fervo’s $421 million project highlights a shift in how energy systems are evolving. The focus is no longer only on adding renewable capacity. It is also about building a stable and balanced grid.
Geothermal can help fill gaps left by solar and wind. It provides continuous, carbon-free electricity that supports grid reliability. This makes it useful for a range of applications, including:
Powering cities and industrial operations.
Supporting renewable-heavy grids.
Reducing dependence on fossil fuel backup.
If enhanced geothermal systems continue to scale, they could become a key part of the clean energy mix. Fervo’s project is still in its early stages, but it represents a broader trend. Energy markets are starting to value not just clean power, but also consistent power.
As this shift continues, geothermal may move from a niche resource to a core component of the energy transition.
Toyota has secured a major new source of solar power in Texas, marking a big step in corporate clean energy buying. The company signed a long‑term deal with U.S.-based clean energy group Avantus that gives it the full output from a large solar farm. This move adds significant renewable energy to Toyota’s portfolio and reflects wider shifts in the global energy market.
The solar project, known as the Norton Solar Project, is now operational. It sits in Runnels County, in central Texas. The plant can generate 159 megawatts of direct current (MWdc) and 125 megawatts of alternating current (MWac) once connected to the grid. This renewable energy can power tens of thousands of homes.
A Big Step for Corporate Clean Power Buying
Toyota structured the deal through a type of contract called a virtual power purchase agreement (VPPA). Under this arrangement, the carmaker does not take physical power from the site.
Instead, it buys all of the solar farm’s output on paper and uses that to match its electricity use. This allows the company to claim the renewable energy for its operations while the electricity flows into the local power grid.
This deal continues Toyota’s broader strategy to increase its clean energy use while responding to market trends and energy policy changes in the United States.
The automaker’s new power agreement is notable in several ways. A 159 MWdc solar plant is not small. It is larger than many utility‑scale solar projects in the United States. For comparison, the Roserock Solar Facility in Pecos County is about 212 MWac and was one of Texas’s biggest a few years ago.
Texas: A Growing Hub for Clean Power
Utility‑scale solar has grown rapidly in Texas. The state now leads the U.S. in solar generation capacity, and its total solar installations recently surpassed those of California, reaching nearly 21.9 gigawatts (GW) by mid‑2025. Another 12 GW was under construction at that time — more than the next five states combined.
Source: Inside Climate News
Texas is a special case within the U.S. energy landscape. It has long been a leader in electricity generation due to its large market and competitive regulatory environment.
Wind power has dominated in recent years, making the state the top wind generator nationwide. Solar has now joined that trend, growing rapidly due to favorable land, high solar irradiance, and strong developer interest.
This rapid growth reflects both cost trends and market demand. Solar panel prices have dropped a lot in the last ten years. Also, utility-scale projects are now cheaper and quicker to build.
Large energy buyers, like corporations, are signing long-term clean power contracts. They do this to meet environmental goals and secure stable energy costs.
Toyota’s VPPA is one example. Others include Lightsource bp’s 15‑year solar deal with Toyota for 231 MW at the Jones City 2 solar farm, signed earlier in 2026. These agreements help companies lock in clean power without owning generation assets directly.
What the Norton Solar Project Means in Numbers
Avantus is a U.S.-based clean energy developer focused on large-scale solar and battery storage projects. The company has a pipeline of about 24 gigawatts (GW) of solar and 75 gigawatt-hours (GWh) of storage across the western United States. It developed the Norton Solar Project and supplies renewable power to utilities and major corporate buyers like Toyota through long-term agreements.
The Norton Solar Project reached operational status by early 2026 after construction began in mid‑2024. During peak construction, the project supported around 250 jobs in Runnels County.
Once fully online, the plant will supply a large volume of clean electricity to the grid. Based on typical capacity factors for utility solar in Texas, a facility like this could generate hundreds of gigawatt‑hours (GWh) per year. That amount can power roughly 25,000–30,000 average Texas homes annually — pointing to its scale in practical terms.
Utility‑scale solar in Texas now contributes to a state power mix that also includes wind and battery storage. Solar’s share of the grid is growing, especially during daylight hours when peak power demand is high. This growth supports broader decarbonization efforts and reduces reliance on fossil fuels.
Projects of this scale also bring ongoing local economic benefits. Beyond construction jobs, they also generate property taxes and land lease payments for rural counties. This provides steady revenue to support schools, roads, and other public services.
From Solar to EVs: Toyota’s Bigger Climate Strategy
Toyota’s Texas solar deal fits into a wider climate strategy that focuses on cutting emissions across its operations and product lineup. The company aims to achieve carbon neutrality in its global operations by 2035 and across its vehicles by 2050. Securing renewable power through projects like the Norton Solar Project is a key step toward those goals.
Source: Toyota
The carmaker tracks greenhouse gas (GHG) emissions through its Environmental Challenge 2050 and North American sustainability plans. The company plans to cut GHG emissions by 30% by 2030, using 2019 levels as a baseline. It also aims for a 33.3% drop in average emissions from new vehicles by 2030 and over 50% by 2035 compared to 2019.
Toyota plans to cut Scope 1 and 2 emissions by 68% from 2019 levels. Also, they seek to boost renewable electricity use at their facilities. In North America, Scope 1 and 2 emissions have already dropped about 32% since 2019.
Source: Toyota
Solar energy is now central to its decarbonization approach. As costs continue to fall, renewable power has become one of the most practical ways for large manufacturers to reduce emissions from electricity use.
At the same time, Toyota is expanding its electrification strategy. This includes battery electric vehicles, hybrids, and other low-emission technologies. Clean electricity is critical to this shift, especially as EV production and charging demand grow.
Source: Toyota
In this context, utility-scale solar projects like the one in Texas do more than supply power. They help align Toyota’s energy use with its long-term climate targets, showing how renewable energy is becoming a core part of industrial decarbonization.
Corporate Clean Energy Buying Hits New Highs
Many global companies have set internal goals for clean energy use. Toyota is no exception. The automaker has broad sustainability targets under its long‑term environmental plans, including increasing renewable energy procurement across its operations worldwide.
Solar and wind power are now among the cheapest sources of new electricity in most major markets. The U.S. Energy Information Administration (EIA) consistently projects that solar and wind will remain cost‑competitive with fossil fuels through the 2030s and beyond.
This outlook encourages large buyers to lock in long‑term renewable contracts to stabilize energy costs. Independent power purchase agreements allow them to hedge against future price swings.
Looking Ahead: Renewables, EVs, and Decarbonization
For companies with large electricity footprints, the economics are compelling. Renewable energy contracts tied to solar generation often provide predictable costs over many years. They can also generate renewable energy certificates (RECs), which are used to validate claims of clean energy use.
RECs represent the environmental benefits of generating electricity from renewable sources like solar or wind. One REC equals one megawatt-hour (MWh) of clean electricity produced and delivered to the grid.
Companies buy RECs to match their electricity use with renewable energy, even if they do not use that power directly. RECs are widely used in corporate sustainability strategies, but they do not always reflect physical changes in local power supply.
A virtual PPA, as the one Toyota signed, lets a company match its energy use with renewable generation without transporting electricity directly. This flexibility is especially useful in deregulated markets like the Electric Reliability Council of Texas (ERCOT) region, where buyers can contract with independent generators.
Large automakers like Toyota are also investing in electrification, including battery electric vehicles (BEVs) and related technologies. Renewable energy procurement supports these shifts and helps decarbonize operations from manufacturing to corporate offices.
Toyota’s new Texas solar agreement reflects broader energy market trends. Solar power is no longer a niche energy source. It is a core part of both grid supply and corporate clean energy strategies.
The voluntary carbon market is changing. Buyers are no longer focused only on large volumes of cheap credits. Instead, they want projects with strong science, long-term monitoring, and clear proof that carbon has truly been removed from the atmosphere. That shift is drawing more attention to high-integrity, nature-based projects.
One project now gaining that spotlight is the Sabah INFAPRO rainforest rehabilitation project in Malaysia. Climate Impact Partners announced that the project is now issuing verified carbon removal credits, opening access to one of the highest-quality nature-based removals currently available in the global market.
Restoring One of the World’s Richest Rainforest Ecosystems
The project is located in Sabah, Malaysia, on the island of Borneo. This region is home to tropical dipterocarp rainforest, one of the richest forest ecosystems on Earth. These forests store huge amounts of carbon and support extraordinary biodiversity. Some dipterocarp trees can grow up to 70 meters tall, creating habitat for orangutans, pygmy elephants, gibbons, sun bears, and the critically endangered Sumatran rhino.
However, the forest within the INFAPRO project area was not intact. In the 1980s, selective logging removed many of the most valuable tree species, especially large dipterocarps. That caused serious ecological damage. Once the key mother trees were gone, natural regeneration became much harder. Young seedlings also had to compete with dense vines and shrubs, which slowed the forest’s recovery.
To repair that damage, the INFAPRO project was launched in the Ulu-Segama forestry management unit in eastern Sabah.
The project has restored more than 25,000 hectares of logged-over rainforest.
It was developed by Face the Future in cooperation with Yayasan Sabah, while Climate Impact Partners has supported the project and helped bring its credits to market.
Why Sabah’s Carbon Removals are Attracting Attention
What makes Sabah INFAPRO different is not only the size of the restoration effort. It is also the way the project measured carbon gains.
Source: face the future
Many forest carbon projects issue credits in annual vintages based on year-by-year growth estimates. Sabah INFAPRO followed a different path. It used a landscape-scale monitoring system and waited until the forest moved through its strongest natural growth period before issuing removal credits.
This approach gives the credits more weight. Rather than relying mainly on short-term annual estimates, the project measured carbon sequestration over a longer period. That helps show that the forest delivered real, sustained, and measurable carbon removal.
The scientific backing is also unusually strong. Since 2007, the project has maintained nearly 400 permanent monitoring plots. These plots have allowed researchers, independent auditors, and technical specialists to observe the full growth cycle of dipterocarp forest recovery. The result is a large body of field data that supports carbon calculations and strengthens confidence in the credits.
In simple terms, buyers are not just being asked to trust a model. They are being shown years of direct forest monitoring across the project landscape.
Independent assessment has also lifted the project’s profile. BeZero awarded Sabah INFAPRO an A.pre overall rating and an AA score for permanence. That places the project among the highest-rated Improved Forest Management, or IFM, projects in the world.
The rating reflects several important strengths. First, the project has very low exposure to reversal risk. Second, it has a long and stable operating history. Third, its measured carbon gains align well with peer-reviewed ecological research and independent analysis.
These points matter in today’s market. Buyers have become more cautious after years of debate over the quality of some forest carbon credits. As a result, they now look more closely at durability, transparency, and third-party validation. Sabah INFAPRO’s rating helps answer those concerns and makes the project more attractive to companies looking for credible carbon removal.
The project is also registered with Verra’s Verified Carbon Standard under the name INFAPRO Rehabilitation of Logged-over Dipterocarp Forest in Sabah, Malaysia. That adds another level of market recognition and verification.
A Wider Model for Rainforest Recovery
Sabah INFAPRO also shows why high-quality nature-based projects are about more than carbon alone. The restoration effort supports broader ecological recovery in one of the world’s most important rainforest regions.
Climate Impact Partners said it has worked with project partners to restore degraded areas, run local training programs, carry out monthly forest patrols, and distribute seedlings to support rainforest recovery beyond the project boundary. These efforts help strengthen the wider landscape and expand the project’s environmental impact.
That broader value is becoming more important for buyers. Companies increasingly want projects that support biodiversity, ecosystem health, and local engagement, along with carbon removal. Sabah INFAPRO offers that mix, making it a stronger fit for the market’s shift toward higher-integrity credits.
Why IFM is Getting More Attention in the Carbon Market
The project’s launch also fits a wider shift in the voluntary carbon market. Improved Forest Management refers to practices that help existing forests store more carbon or avoid emissions through better stewardship. Unlike afforestation or reforestation, which involve creating or replanting forests, IFM focuses on improving the way current forests are managed.
These practices can help forests grow older, become more diverse, and stay healthier under climate stress. They can also support timber production in some cases by improving harvest cycles rather than stopping forest use altogether.
Because IFM projects often operate over very long periods, sometimes 100 years or more, they can generate lasting climate benefits. Still, buyers must be careful. Quality varies widely across projects, and strong due diligence remains essential.
That is why Sabah INFAPRO is drawing attention. Although IFM supply has grown in recent years, truly high-quality carbon removal credits within the category remain limited.
Nature-Based Carbon Removal Still Leads the Market
Nature-based carbon removal continues to dominate the spot market, as reported by Carbon Direct. In 2025, about 95% of all carbon dioxide removal credits issued in the voluntary carbon market came from nature-based pathways. Only 5% came from higher-durability pathways such as biochar or BECCS.
This shows two things at once. First, nature-based carbon removal still plays the leading role in today’s market. Second, high-durability removal technologies are still at an early stage of deployment.
Afforestation, reforestation, and revegetation, known as ARR, have remained tight. Over the past four years, ARR issuances and retirements have stayed close to a 1:1 ratio, while annual issuance has held nearly flat at around 7 million to 8 million metric tons. That has left limited ARR inventory available for spot buyers.
IFM has followed a different path. Issuances have grown about 2.5 times since 2023, making it one of the biggest growth areas in nature-based carbon credits. Even so, the supply of top-tier IFM carbon removal credits remains much smaller than headline volumes suggest.
Supply Side:
At the same time, buyer behavior is shifting. Demand has moved away from many older REDD+ projects and toward IFM, ARR, agriculture-based projects, and other credit types viewed as more credible or better aligned with corporate climate goals.
Retirements have dipped slightly, but that does not necessarily mean interest is fading. Buyer participation has remained steady. What changed is the purchasing strategy. Companies are becoming more selective about what they buy, when they buy, and how much they are willing to pay for quality.
Meanwhile, long-term nature-based offtakes and purchase commitments have risen above 90 million tons of future delivery. Most of those commitments are concentrated in ARR projects. That trend shows both how tight ARR supply is today and how seriously buyers are trying to secure future volume.
Against that backdrop, Sabah INFAPRO enters the market at the right time. It offers a rare mix of long-term monitoring, strong scientific backing, high biodiversity value, and verified removals. For buyers looking for high-quality nature-based carbon removal, this Malaysian rainforest project may become an important benchmark.
Bitcoin’s recent drop below $70,000 reflects more than short-term market pressure. It signals a deeper shift. The world’s largest cryptocurrency is becoming increasingly tied to global energy markets.
For years, Bitcoin has moved mainly on investor sentiment, adoption trends, and regulation. Today, another force is shaping its direction: the cost of energy.
As oil prices rise and electricity markets tighten, Bitcoin is starting to behave less like a tech asset and more like an energy-dependent system. This shift is changing how investors, analysts, and policymakers understand crypto.
A Global Power Consumer: Inside Bitcoin’s Energy Use
Bitcoin depends on mining, a process that uses powerful computers to verify transactions. These machines run continuously and consume large amounts of electricity.
Data from the U.S. Energy Information Administration shows Bitcoin mining used between 67 and 240 terawatt-hours (TWh) of electricity in 2023, with a midpoint estimate of about 120 TWh.
Other estimates place consumption closer to 170 TWh per year in 2025. This accounts for roughly 0.5% of global electricity demand. Recently, as of February 2026, estimates see Bitcoin’s energy use reaching over 200 TWh per year.
That level of energy use is significant. Global electricity demand reached about 27,400 TWh in 2023. Bitcoin’s share may seem small, but it is comparable to the power use of mid-sized countries.
The network also requires steady power. Estimates suggest it draws around 10 gigawatts continuously, similar to several large power plants operating at full capacity. This constant demand makes energy costs central to Bitcoin’s economics.
When Oil Rises, Bitcoin Falls
Bitcoin mining is highly sensitive to electricity prices. Energy is the highest operating cost for miners. When power becomes more expensive, profit margins shrink.
Recent market movements show this link clearly. As oil prices rise and inflation concerns persist, energy costs have increased. At the same time, Bitcoin prices have weakened, falling below the $70,000 level.
Source: Coindesk
This is not a coincidence. Studies show a direct relationship between Bitcoin prices, mining activity, and electricity use. When Bitcoin prices rise, more miners join the network, increasing energy demand. When energy costs rise, less efficient miners may shut down, reducing activity and adding selling pressure.
This creates a feedback loop between crypto and energy markets. Bitcoin is no longer driven only by demand and speculation. It is now influenced by the same forces that affect oil, gas, and power prices.
Cleaner Energy Use Is Growing, but Fossil Fuels Still Matter
A 2025 study from the Cambridge Centre for Alternative Finance found that 52.4% of Bitcoin mining now uses sustainable energy. This includes both renewable sources (42.6%) and nuclear power (9.8%). The share has risen significantly from about 37.6% in 2022.
Despite this progress, fossil fuels still account for a large portion of mining energy. Natural gas alone makes up about 38.2%, while coal continues to contribute a smaller share.
Source: Cambridge Centre for Alternative Finance (CCAF)
This reliance on fossil fuels keeps emissions high. Current estimates suggest Bitcoin produces more than 114 million tons of carbon dioxide each year. That puts it in line with emissions from some industrial sectors.
The shift toward cleaner energy is real, but it is not complete. The pace of change will play a key role in how Bitcoin fits into global climate goals.
Bitcoin’s Climate Debate Intensifies
Bitcoin’s growing energy demand has placed it at the center of ESG discussions. Its impact is often measured through three key areas:
Total electricity use, which rivals that of entire countries.
Carbon emissions are estimated at over 100 million tons of CO₂ annually.
Energy intensity, with a single transaction using large amounts of power.
Source: Digiconomist
At the same time, the industry is evolving. Mining companies are adopting more efficient hardware and exploring new energy sources. Some operations use excess renewable power or capture waste energy, such as flare gas from oil fields.
These efforts show progress, but they do not fully address the concerns. The gap between Bitcoin’s energy use and its environmental impact remains a key issue for investors and regulators.
Bitcoin mining is now closely integrated with the broader energy system. Operators often choose locations based on access to cheap or excess electricity. This includes areas with strong renewable generation or underused energy resources.
This integration creates both opportunities and challenges. On one hand, mining can support energy systems by using power that might otherwise go to waste. It can also provide flexible demand that helps stabilize grids.
On the other hand, it can increase pressure on local electricity supplies and extend the use of fossil fuels if cleaner options are not available.
In the United States, Bitcoin mining could account for up to 2.3% of total electricity demand in certain scenarios. This highlights how quickly the sector is scaling and how closely it is tied to national energy systems.
Energy Markets Are Now Key to Bitcoin’s Future
Looking ahead, the connection between Bitcoin and energy is expected to grow stronger. The network’s computing power, or hash rate, continues to reach new highs, which typically leads to higher energy use.
Electricity will remain the main cost for miners. This means Bitcoin will continue to respond to changes in energy prices and supply conditions. At the same time, governments are starting to pay closer attention to crypto’s environmental impact, which could shape future regulations.
Source: Qin, S. et al. Bitcoin’s future carbon footprint. https://doi.org/10.48550/arXiv.2011.02612
Some forecasts suggest Bitcoin’s energy use could rise sharply if adoption increases, potentially reaching up to 400 TWh in extreme scenarios. However, cleaner energy systems could reduce the carbon impact over time.
Bitcoin is no longer just a financial asset. It is also a large-scale energy consumer and a growing part of the global power system.
As a result, understanding Bitcoin now requires a broader view. Energy prices, electricity markets, and carbon trends are becoming just as important as market demand and investor sentiment.
The message is clear. As energy markets move, Bitcoin is likely to move with them.
The LEGO Group is giving its new Virginia factory a major clean energy upgrade. The company plans to build a large on-site solar park at LEGO Manufacturing Virginia in Chesterfield County. At the same time, it will add thousands of rooftop solar panels across the site.
Together, these projects mark a big step toward LEGO’s goal of covering 100% of the facility’s yearly electricity needs with renewable energy. The move also shows how the toy giant is tying factory expansion to its wider climate strategy.
A Big Solar Build for a Big Factory
The company announced that its Virginia site is one of its biggest investments in the U.S, having more than 28 MWp of on-site solar capacity in total. Now it is also becoming one of its most important clean energy projects.
Construction on the solar park should begin in summer 2026. The ground-mounted system will include more than 30,700 solar panels and deliver 22 megawatt-peak (MWp) of capacity.
The solar park will spread across nearly 80 acres at the Chesterfield factory site. On top of that, LEGO plans to install 10,080 rooftop solar panels, adding another 6.11 MWp.
Thus, it is a core part of how the company wants this factory to operate from the start.
Lego also said the solar build is a major milestone in its effort to source renewable energy for the plant’s annual needs. That matters because the factory is being designed as a long-term manufacturing hub, not just a packaging or distribution site.
Jesus Ibañez, General Manager of LEGO Manufacturing Virginia, said:
“We’re proud of the progress we continue to make. These initiatives are key to increasing our use of renewable energy and support our ongoing commitment towards more sustainable operations.”
Using Mass Timber for Low- Carbon Factory
The solar park is only one part of the Virginia story. LEGO is also trying to reduce the site’s footprint through the building design itself.
Construction is moving ahead on schedule after the main factory reached its steel topping-out milestone in October 2025. The site’s office space, built with mass timber, is expected to top out later in spring 2026. Mass timber matters because it is a renewable material and can store carbon, unlike many traditional building materials that come with heavier emissions.
Focuses on Energy, Waste, and Better Materials
LEGO also wants the facility to earn LEED Platinum certification once completed. That target covers energy, water, and waste performance. The company further said the Virginia site shares the same goal as all LEGO operations: zero waste to landfill.
In simple terms, it wants almost all factory waste to be reused, recycled, composted, or sent to non-landfill treatment.
These details matter because clean power alone does not make a factory sustainable. Companies also need smarter materials, better energy use, and stronger waste systems. LEGO seems to be taking that broader route here.
Long-Term Impact: Jobs and Local Growth
The Virginia factory is not just about energy. It is also a major job project.
More than 500 people already work across the factory under construction and LEGO’s temporary packing facility. That number is expected to rise to about 900 by the end of 2026 as the company gets ready to run highly automated molding and packing equipment.
The overall investment in the site and regional distribution center is more than $1.5 billion. The full campus covers 340 acres and includes 13 buildings with roughly 1.7 million square feet of space. LEGO has said the site is expected to create more than 1,700 jobs over 10 years.
The company is also trying to build stronger local ties while construction continues. In February 2026, LEGO announced more than $1.3 million in grants for eight nonprofit groups in the Greater Richmond area. Since 2022, it has provided more than $3.5 million in local grants through the LEGO Foundation.
So, the Virginia site is becoming more than a factory. It is shaping up as a long-term regional base for manufacturing, jobs, and community funding.
The company has committed to reaching net-zero greenhouse gas emissions by 2050 across its full value chain. The Virginia solar project also fits into LEGO’s bigger climate plan.
It also has near-term targets validated by the Science Based Targets initiative, aiming to cut absolute Scope 1 and 2 emissions by 37% by 2032 from a 2019 baseline, and reduce Scope 3 emissions by the same amount. Those targets align with the 1.5°C pathway.
However, the toy maker’s emissions rose in 2024 as consumer sales grew faster than expected. Its greenhouse gas emissions are approximately 144,400 metric tons of CO₂‑equivalent (around 144.4 million kg CO₂e) globally.
The company noted that higher product demand pushed carbon emissions 3.9% above target, even as it increased spending on more sustainable manufacturing. This means that when a business grows fast, cutting emissions gets harder, not easier.
Even so, LEGO says it remains committed to its climate goals and is investing in local solutions at each factory rather than using a one-size-fits-all model. That approach makes sense because every site has different energy systems, weather, and infrastructure options.
Renewable Growth Spreads Across Global Sites
The company also expanded renewable energy projects at other locations in 2024. It added 6.64 MWp of solar capacity across operations globally, a 43% increase from the previous year.
In Kladno, Czech Republic, it expanded rooftop solar by 1.5 MWp, bringing total capacity there to 2.5 MWp.
In Billund, Denmark, it added 4.4 MWp, bringing the site’s total solar capacity to 5.5 MWp.
It also cut Scope 1 emissions in Billund by moving 11 buildings from natural gas to district heating, saving about 1,064 tonnes of CO2e each year. Meanwhile, LEGO launched a geothermal project in Hungary and upgraded heat-recovery systems in Jiaxing, China, to reduce gas use.
Progress in Waste Reduction
In 2024, its manufacturing sites generated a total of 25,859 tonnes of waste, which was 7.6% below the target of 28,000 tonnes.
As a remedy for this situation, factories in Denmark, China, and Mexico improved moulding processes to recover more raw materials and cut waste. These efforts reduced scrap by more than 160 tons, helped by digital tools that identified materials for reuse and improved efficiency.
Additionally, in the Czech Republic, it also introduced more circular packing methods. The factory reused 39% of cardboard tube cores from suppliers and tested returnable inbound packaging, cutting waste by more than 39 tons a year.
Source: Lego
Of course, none of this solves LEGO’s full emissions challenge overnight. Scope 3 emissions across the supply chain will still be the harder part.
However, taken together, these efforts show a company trying to clean up its manufacturing footprint piece by piece. The Virginia project stands out because of its scale, but it is part of a wider pattern. Even though it is still under construction, it already shows what modern industrial planning can look like: on-site renewables, lower-carbon materials, waste reduction, and job creation in one package.
But this project gives LEGO something important: a real, visible step forward. And in climate action, visible progress matters.
Chanel has unveiled its first comprehensive climate transition plan, charting a clear path to net-zero emissions by 2040. Building on its earlier “Mission 1.5°” strategy, the plan aligns with global climate standards and follows the Science-Based Targets initiative (SBTi). This means Chanel must reduce at least 90% of its emissions and remove the remainder.
The move shows a bigger change in luxury brands. They face more pressure from investors, regulators, and customers to take real climate action. Many companies now publish detailed transition plans to show how they intend to meet their net-zero commitments.
For Chanel, climate considerations are no longer immaterial—they now inform core business decisions, from risk management to opportunity assessment.
Breaking Down Chanel’s 1M Tonnes Carbon Footprint
In its Climate Transition Plan, Chanel reported total emissions of about 1.12 million tonnes of CO₂e in 2024. Most of these emissions do not come from its own stores or offices. Instead, they come from its supply chain.
Scope 1 and 2 emissions: 2% of total (about 24,071 tonnes)
Scope 3 emissions: 98% of total (about 1.1 million tonnes)
Source: Chanel
This shows a key challenge. Like many fashion brands, Chanel’s biggest impact is upstream. That includes raw materials, manufacturing, and logistics. The largest source is purchased goods and services, which account for over 626,000 tonnes of CO₂e.
Other major sources include:
Capital goods: about 222,000 tonnes
Transport and distribution: over 114,000 tonnes
Business travel: over 53,000 tonnes
These figures highlight how complex the fashion supply chain is. It also shows why cutting emissions is harder than in other sectors.
Clear Targets: 2030 and 2040 Milestones
Source: Chanel
Chanel has set both near-term and long-term net-zero targets to tackle its carbon footprint. By 2030, the company aims to:
Cut Scope 1 and 2 emissions by 50%, and cut Scope 3 emissions by 42%.
By 2040, the goal is deeper:
Cut all emissions (Scope 1, 2, and 3) by 90%, and remove the remaining emissions through carbon removals.
Specific targets also cover land-based emissions associated with raw materials like leather and cashmere, with reductions of 30.3% by 2030 and 72% by 2040.
Importantly, Chanel does not rely on carbon offset credits to meet its targets. Instead, it focuses on real emissions cuts. This aligns with stricter global standards. Many frameworks now limit the use of offsets in net-zero plans.
Progress So Far: Renewable Energy and Supply Chain Improvements
The French luxury brand has already achieved measurable progress. Direct emissions have fallen 22% since 2021, driven primarily by the use of renewable energy. By 2024, 99% of the company’s electricity came from renewable sources, and the goal is to reach 100% by 2025.
Source: Chanel
Long-term power purchase agreements, including solar projects across Asia and Europe, have supported this transition.
Scope 3 emissions have also improved, declining 10% relative to 2021. Raw material emissions dropped 20% in 2024, thanks to changes in sourcing and the adoption of lower-impact inputs such as sustainable leather and cashmere.
How Chanel Plans to Cut Emissions and Reach Net Zero
The company’s strategy to tackle its emissions focuses on six main areas:
optimizing operations,
adopting lower-impact materials and packaging,
implementing sustainable design in construction and events,
shifting to low-emission logistics,
promoting electric mobility, and
engaging closely with suppliers.
Since Scope 3 emissions dominate the total footprint, supplier engagement is crucial.
Source: Chanel
Innovation also plays a key role. Chanel supports initiatives that reduce energy consumption in manufacturing, such as a project that lowered energy use by 27% at a supplier site. Circular design is another focus, with investments in repair services and durable products to extend product life.
Beyond Emissions: Climate Investment and Social Impact
Chanel’s climate plan extends beyond emissions reductions. The company invests in nature and climate projects, including the LEAF Coalition for forest protection, sustainable agriculture programs, and community-based climate initiatives.
In 2024, Chanel committed $125 million to Fondation Chanel, part of which funds women-led climate programs, tying environmental action to social impact. This approach embodies a “just transition,” ensuring that climate action also benefits workers and communities.
The Luxury Sector Shifts: Chanel Sets the Bar for Fashion
Chanel’s plan reflects a wider shift in the fashion and luxury sector. The industry faces growing pressure to act on climate. Fashion accounts for an estimated 2% to 8% of global emissions, based on various global studies.
Source: GreenMatch
Supply chains are complex and global, making change harder. At the same time, regulations are tightening. New rules in Europe and other regions require companies to disclose emissions and transition plans.
Many brands are now setting net-zero targets. But not all have detailed plans. Chanel’s transition plan stands out because it includes:
Full emissions data
Clear reduction targets
A roadmap for action
Still, challenges remain. Cutting Scope 3 emissions is difficult. It depends on suppliers, technology, and costs. There is also a risk of slow progress. New materials, clean energy, and circular systems take time to scale.
Looking Ahead: A Long Road to Net-Zero
Chanel’s transition plan represents a significant step in addressing over 1 million tonnes of emissions. Progress in operations and energy use is evident, but the supply chain remains the most difficult hurdle.
Achieving net-zero by 2040 will require transforming material sourcing, deep collaboration with suppliers, and investment in new technologies.
As consumer demand for low-carbon products grows and investors increasingly scrutinize climate risks, transition plans have become a business imperative. Chanel’s strategy highlights a key trend: climate action is no longer a peripheral responsibility—it is integral to growth, risk management, and long-term value creation.
Carbon credits are vital in the global fight against climate change. They let governments, businesses, and people offset their greenhouse gas (GHG) emissions by supporting projects that remove or reduce carbon from the air. Of the various carbon removal strategies, biochar is a promising solution. It sequesters carbon for decades or centuries while offering agricultural and environmental co-benefits.
Biochar is a carbon-rich material produced by heating organic biomass—such as crop residues, forestry waste, or other plant matter—under low-oxygen conditions. When applied to soil, biochar locks carbon in a stable form, helping to reduce atmospheric carbon dioxide (CO₂) levels. This stability, combined with its positive impact on soil fertility and water retention, makes biochar an attractive option for carbon credit programs.
This article offers a complete guide to biochar carbon credits. It explores the science of biochar, the production technologies, and its benefits for the environment and agriculture. It also explains how biochar qualifies for carbon credit certification and discusses the market dynamics that create investment opportunities.
Understanding biochar and its role in carbon markets helps everyone—farmers and corporations alike. This knowledge allows stakeholders to make smart choices for climate action and sustainable growth.
Key facts to note:
Biochar can store carbon for hundreds or even thousands of years. This depends on how it’s made and used.
Studies estimate that using biochar could remove up to 1.8 gigatons of CO₂ every year. This is possible if it is scaled globally in a sustainable way.
Biochar projects can now earn carbon credits. They qualify under standards like Verra’s VCS and the Gold Standard. This means they can make money from carbon removal.
What is Biochar?
Biochar is a carbon-rich material produced through the thermal decomposition of organic biomass under low-oxygen conditions, a process known as pyrolysis. Pyrolysis is different from regular burning. It stops carbon in biomass from turning into CO₂. Instead, it keeps carbon in a stable form that can stay in soils for hundreds of years and makes biochar a highly effective tool for long-term carbon sequestration.
Types of Biomass Used
The raw material, or feedstock, used to make biochar greatly affects its properties, stability, and ability to store carbon. Common biomass sources include:
Forestry residues: sawdust, wood chips, tree trimmings.
Organic waste streams: green waste, food waste, manure.
Specialty feedstocks: invasive plant species or certain algae.
The choice of feedstock affects carbon content, nutrient makeup, pH, and soil benefits. Wood-based biochar has high carbon stability. Manure-based biochar, on the other hand, is rich in nutrients like nitrogen and phosphorus. This makes it great for improving soil fertility.
Source: Shutterstock
Properties of Biochar
Biochar’s effectiveness depends on several key properties:
Carbon Content: Typically between 50–90%, with higher carbon content contributing to greater sequestration potential.
Stability: Resistant to decomposition, with some biochars remaining stable in soil for hundreds to thousands of years.
Porosity and Surface Area: A highly porous structure enhances water retention, nutrient storage, and microbial habitat in soil.
pH and Cation Exchange Capacity (CEC): Can improve soil fertility by retaining nutrients and moderating soil acidity.
Environmental and Agricultural Implications
By incorporating biochar into soils, multiple benefits occur simultaneously:
Carbon Sequestration: Each ton of biochar applied can lock ~1–3 tons of CO₂-equivalent, depending on feedstock and process efficiency.
Soil Improvement: Enhances water retention, nutrient availability, and microbial activity.
Waste Management: Turns organic waste into a useful product. This prevents it from decomposing and releasing methane, which is a strong greenhouse gas.
Global Potential
The IPCC report states that using biochar on a large scale with sustainable feedstocks could reduce emissions by up to 1.8 GtCO₂ each year. This would cover a large part of global emissions.
Moreover, biochar is versatile. It works well in both tropical and temperate farming, making it useful around the world.
From Biomass to Black Carbon: How It’s Made
Biochar comes from heating biomass in low or no oxygen, also called pyrolysis. Many production technologies have been created over the years. They differ in efficiency, carbon yield, energy co-products, and their fit for carbon credit projects. Knowing these technologies is key to evaluating biochar quality and its ability to store carbon.
Slow Pyrolysis
Slow pyrolysis is the most common method for biochar production. Biomass is heated slowly at moderate temperatures (400–600°C) over several hours. This method produces a high yield of biochar with stable carbon content, making it ideal for carbon sequestration and soil improvement. The slow process also generates some syngas and bio-oil, which can be captured and used for energy.
Fast Pyrolysis
Fast pyrolysis rapidly heats biomass to similar temperatures, but over seconds to minutes. This approach prioritizes the production of bio-oil, with biochar as a secondary output. Biochar yields are lower than those from slow pyrolysis.
However, this process also produces liquid fuels, which can boost overall economic viability. The carbon stability of fast pyrolysis biochar is usually lower. This can affect its use for carbon credit verification.
Gasification
Gasification partially oxidizes biomass at high temperatures (700–1,000°C) to produce syngas, with biochar as a co-product. The biochar yield is lower compared with pyrolysis, but it is often rich in fixed carbon and can be applied to soil or further processed.
Gasification is particularly suitable for integrated energy-biochar projects, combining carbon removal with renewable energy generation.
Hydrothermal Carbonization (HTC)
HTC uses wet biomass, such as agricultural residues or manure, converting it under moderate heat and high pressure into hydrochar, a type of biochar. This method avoids the energy-intensive drying step required in conventional pyrolysis. Hydrochar has moderate carbon stability and can be used in soils or as a feedstock for further carbonization.
Plasma Arc Carbonization
Plasma arc carbonization uses electric plasma to heat biomass to high temperatures. This process creates biochar that is very pure and stable. The carbon content is great for long-term sequestration. However, the process uses a lot of energy that can impact overall lifecycle emissions and project costs.
Torrefaction
Torrefaction is a mild form of pyrolysis carried out at lower temperatures (200–300°C). It partially carbonizes biomass, making it easier to grind and transport, while also improving its energy density. Torrefied biomass isn’t as stable as fully pyrolyzed biochar. However, it can be used as a precursor for more carbonization. It also works well as a soil amendment, with some potential for carbon storage.
Comparing Technologies
Each production technology has trade-offs in carbon yield, stability, energy co-products, and operational complexity:
Carbon stability: Slow pyrolysis and plasma arc produce the most stable biochar.
Biochar yield: Slow pyrolysis generally yields the highest quantity of biochar.
Energy co-products: Fast pyrolysis and gasification produce useful bio-oil or syngas.
Suitability for carbon credits: Methods yielding stable, long-lasting carbon are preferred for verified carbon removal projects.
Choosing the right technology depends on several factors: project goals, feedstock availability, energy needs, and how you plan to use biochar. This could be for soil improvement, energy production, or generating carbon credits. As biochar projects grow, the choice of technology will directly affect environmental impact and financial success.
How Biochar Captures Carbon: The Science of Permanence
Biochar’s primary climate benefit comes from its ability to sequester carbon in a stable form. It is different from many organic materials. While those materials break down and release CO₂ into the air, biochar traps carbon in a stable form. This structure can stay in the soil for decades or even centuries.
Carbon Sequestration Mechanism
During pyrolysis or other carbonization processes, biomass is heated in low-oxygen conditions. This transforms volatile compounds into gases or liquids, while the remaining solid material—biochar—contains a high proportion of fixed carbon. Once in the soil, this carbon resists microbial breakdown. This helps remove CO₂ from the air and stores it for a long time.
Longevity in Soil
The stability of biochar is one of its most important attributes for climate mitigation. Depending on feedstock, production method, and soil conditions, biochar can persist for hundreds to thousands of years. This long-term stability makes it a more reliable carbon storage option than other organic materials. Compost and crop residues decompose much faster.
Co-Benefits Enhancing Carbon Retention
Beyond direct sequestration, biochar improves soil structure, water retention, and nutrient availability. These benefits promote healthier plant growth, which in turn absorbs more CO₂ from the atmosphere. Biochar also cuts nitrous oxide and methane emissions from soils. This boosts its overall effect on reducing greenhouse gases.
Comparison with Other Carbon Removal Methods
Biochar is unique among carbon removal methods. It stores carbon permanently and also boosts soil productivity. It stands out because it removes carbon and helps agriculture.
Biochar also needs less land than afforestation or direct air capture. Its lower risk of reversal makes it more appealing for verified carbon credit projects. This is better than forests or soil carbon projects, which can be impacted by wildfires or changes in land use.
Implications for Carbon Credits
The permanence and verifiability of carbon storage in biochar make it highly suitable for carbon credit programs. Accurate measurement, reporting, and verification (MRV) of biochar carbon content are essential to ensure credits represent real climate benefits. As standards change, biochar’s stable carbon profile makes it a strong choice in voluntary and compliance carbon markets.
Benefits of Biochar: Soil, Water, and Waste Wins
Biochar offers a range of environmental, agricultural, and climate benefits, making it a versatile tool for sustainability and carbon mitigation efforts. Its ability to store carbon permanently is complemented by positive impacts on soil health and ecosystem services.
Environmental Benefits:
Carbon Sequestration: Biochar locks carbon in a stable form, helping reduce atmospheric CO₂ levels.
Reduced Emissions: By improving soil properties, biochar can lower nitrous oxide and methane emissions from agricultural soils.
Waste Valorization: It converts biomass waste into a useful product, reducing open burning or decomposition that would otherwise release greenhouse gases.
Agricultural Benefits:
Improved Soil Fertility: Biochar enhances nutrient retention in soils, reducing the need for synthetic fertilizers.
Water Retention: Its porous structure increases soil moisture-holding capacity, helping crops withstand drought conditions.
Crop Yield Enhancement: Healthier soils and better nutrient availability can lead to higher and more stable agricultural yields.
Climate Mitigation Impact:
Long-Term Carbon Storage: Biochar carbon remains stable in soils for decades to centuries, providing a reliable carbon removal solution.
Support for Carbon Markets: High-stability biochar can generate verified carbon credits, creating financial incentives for adoption.
Co-Benefits for Communities and Ecosystems:
Biochar production can create new job opportunities in rural areas.
It supports circular economy principles by converting agricultural and forestry residues into a high-value soil amendment.
The improved soil and ecosystem health contribute to biodiversity and resilience against climate impacts.
Waste to Asset: Ending Residue Burning
Biochar has a big but often-ignored benefit. It can turn farm waste into a useful carbon product that lasts a long time. Agriculture around the world creates over 5 billion tons of crop residues each year. A lot of this waste is burned or left to rot. This process releases significant amounts of CO₂, methane, and nitrous oxide.
In many areas, especially in Asia and Latin America, open-field burning of waste is a big cause of rural air pollution and seasonal haze.
Biochar production offers a controlled and beneficial alternative, as the company in the video shows. Pyrolysis changes residues like rice husks, corn stover, coconut shells, sugarcane bagasse, and forestry by-products into stable carbon.
The process prevents greenhouse gases from escaping and keeps carbon locked away for hundreds to thousands of years. This intervention cuts air pollution, lowers greenhouse gas emissions, and builds a carbon sink.
The importance of this waste-to-value pathway is twofold:
It provides farmers with a practical method for managing biomass without incurring disposal costs, and
It transforms a climate liability into a climate asset.
In this way, biochar acts as both a soil amendment and a key strategy to tackle agricultural waste and its environmental effects.
Biochar’s multifaceted benefits make it a compelling solution for farmers, investors, and policymakers alike. Its role goes beyond capturing carbon: it combines climate action with real benefits for farming and environmental management.
Biochar Carbon Credits: How Biochar Becomes a Tradable Removal Credit
A carbon credit represents a verified, quantifiable reduction or removal of greenhouse gas (GHG) emissions — typically 1 ton CO₂-equivalent (CO₂e) per credit. For biochar projects, carbon credits come from measuring the carbon stored in stable biochar. This carbon isn’t released and is verified under accepted protocols.
Biochar turns “biogenic” biomass like agricultural waste and wood chips into a stable, carbon-rich solid. This process counts as carbon removal, not just avoidance, if the feedstocks, production, and storage follow set standards.
To ensure credits represent real, permanent removals, biochar projects must follow recognized methodologies and go through a monitoring, reporting, and verification process. As of 2025:
The Integrity Council for the Voluntary Carbon Market (ICVCM) has officially approved three biochar methodologies under its Core Carbon Principles (CCP). These include Isometric Biochar Production and Storage and Verra’s VM0044 (Biochar Use in Soil & Non‑Soil Applications).
Under Isometric’s registry, over 30 projects are set to issue about 500,000 credits starting in 2026. In contrast, fewer than 10 projects are registered under Verra VM0044 by the end of 2025, with an expected output of around 249,000 credits each year.
More approved methods boost the credibility of biochar as a trustworthy carbon removal option.
MRV (Monitoring, Reporting, Verification): What Gets Measured
For biochar carbon credits to be valid, MRV processes typically include:
Documenting feedstock type (must be biogenic biomass) and origin — to verify the carbon source is renewable/biogenic.
Recording details of the conversion process (e.g., pyrolysis yield, reactor efficiency) and final biochar mass produced.
Tracking the fate of biochar — e.g., soil application, embedding in materials, or other stable storage — to ensure the carbon remains sequestered instead of being oxidized or burned.
Independent audits for certification registries to verify data before credits are issued.
Only after successful MRV can a carbon credit (1 tCO₂e removed) be issued, listed, traded, or retired.
Economics: Production Cost and Carbon Removal Potential
Peer‑reviewed research offers some concrete figures for biochar economics and sequestration potential:
One study estimated the production cost of biochar at about US$232.87 per ton of biochar.
That same study estimated that 1 ton of biochar production mitigates about 6.22 tons of CO₂ (i.e., CO₂e removed), implying a high leverage ratio of carbon removal vs material produced.
In their crop-production experiments, the authors found that applying biochar at 8 tons/hectare yielded the most favorable economic returns. At that rate, the benefit–cost ratio (BCR) was ~1.476, net present value (NPV) was positive, and internal rate of return (IRR) reached ~85.7%.
They also observed that at higher application rates (24–28 t/ha), returns became negative. This finding suggests optimal biochar application rates are key for both agronomic benefit and economic viability.
These data suggest that, under the right conditions (efficient production, proper application, stable feedstock), biochar projects can be both climate‑effective and economically competitive, especially if carbon credits are priced favorably.
The Biochar Carbon Credit Market Landscape
The market for biochar carbon removal credits (often called Biochar Carbon Removal or BCR credits) has grown rapidly in recent years. According to a 2025 market snapshot by CDR.fyi, over 3 million tCO₂e of biochar credits are contracted by mid-2025.
In just the first half of 2025 alone, 1.6 million tonnes were sold — more than half of the total contracted volume to date.
Deliveries and retirements have also accelerated: by mid‑2025, about 683,000 tonnes had been delivered and 330,000 tonnes retired.
This surge demonstrates strong growth momentum. According to a report cited by a market intelligence platform, the overall market value (i.e., the dollar value of transactions) for biochar credits rose dramatically, reflecting both volume growth and rising per‑credit prices.
According to a market‑outlook report, about 80% of global biochar credit volume is listed on a major biochar marketplace. This indicates concentration and market data transparency.
For 2024–2025, around 41% of carbon credits purchased by corporates came from “high‑quality” vetted biochar projects. This is in comparison with only 13% from lower-quality ones, showing increasing demand for certified, high‑integrity biochar credits.
Moreover, according to a 2023 industry report, the broader biochar industry (not only credits but all biochar-related production and activities) already had annual revenues exceeding US$ 600 million, with projections to nearly US$ 3.3 billion by 2025.
These figures illustrate that biochar is shifting from niche or experimental to a more mature, scaled market, at least in terms of demand and production capacity.
Price Trends, Credit Value & How Biochar Compares
As of 2025, the average price for biochar carbon removal credits is about US$ 177 per tonne CO₂e, per Sylvera data.
For “high‑quality” vetted biochar credits (i.e., credits from projects that pass stricter quality/integrity screening), the average price appears to be higher, around US$ 200 per tonne CO₂e, compared to ~US$ 153/t for credits that did not meet the highest vetting standards.
Notes: 2024 price is from market estimates, while 2023 and 2025 figures are from Sylvera
A recent market assessment in late 2025 indicates that, despite some slowdown in retirements (i.e., credits being permanently “used up”), prices have remained resilient. For example, U.S. biochar credits were assessed at roughly US$150/tCO₂e for 2025 delivery.
Biochar has typical “sequestration factors,” which show how much CO₂ is removed per tonne produced. This means the value of each tonne of biochar can be quite high. For example, one tonne of biochar can remove about 2.5 to 3.3 tonnes of CO₂. This depends on the feedstock and production method.
At current market prices, this could mean around US$450-700 in carbon credits. The exact value varies based on the price per tonne of CO₂e and the quality premium.
Biochar credits are priced between intermediate and premium levels for carbon removal. They cost more than many nature-based credits, like afforestation or land-use credits. However, they are cheaper than high-end options, such as some direct air capture (DAC) or bioenergy-with-carbon-capture and storage (BECCS) credits.
This “sweet spot” offers high permanence at a more moderate cost. It explains why demand grows, mainly among corporate buyers who seek credible long-term carbon removals.
Price: How Biochar Credits Compare to Other CDR Methods
Why biochar often commands a premium vs most nature-based credits?
Durability/permanence: Biochar converts biomass carbon into a stable form that resists decomposition for decades to centuries when applied to soil. Buyers value this durability relative to many nature-based credits, which face reversal risks (fires, land-use change). Supercritical notes demand for “durable, credible supply” is outpacing supply.
Measurability & additionality: Biochar MRV is becoming more robust and tech-enabled (geotagging, machine data), raising buyer confidence and willingness to pay a premium for verified removals.
Co-benefits: Soil health, nutrient retention, and waste valorization deliver tangible non-carbon benefits that some buyers value (and sometimes pay more for).
Why is biochar generally cheaper than many tech-based durable CDR pathways?
Lower capital intensity/near-term deployability: Pyrolysis and biochar production are proven today and can be deployed at smaller scales than capital-intensive DAC plants or BECCS facilities, lowering per-tonne price ceilings for many projects. Supercritical emphasizes biochar “works today” and has already delivered substantial tonnes.
Easily scalable: Biochar production can be scaled more easily than many tech-based carbon removal methods. It uses common biomass residues like crop stalks or forestry waste. Small farms can start projects that grow regionally or industrially. Modular systems and multiple feedstocks make scaling flexible, while co-products like bio-oil add value. This makes biochar a practical, low-energy carbon removal option for both farmers and businesses.
Co-product revenue: Biochar projects can stack revenue streams (physical biochar sales, heat/electricity), which can lower net credit cost per tCO₂e relative to DAC, which has fewer co-revenue streams.
At-a-glance, here is a comparison table showing global average price ranges for biochar and other CDR methods:
Biochar is often called a “hybrid” carbon removal solution because it blends nature-based and technological approaches. On one hand, it uses natural biomass—crop residues, forestry waste, or other organic materials—to store carbon in soil for decades or centuries.
On the other hand, its production involves controlled technological processes, like pyrolysis or gasification, which optimize carbon stability and can generate energy or bio-products as co-benefits.
This combination allows biochar to deliver reliable carbon sequestration while integrating with modern innovations, making it both a practical and versatile tool for climate mitigation.
Hemp biochar is gaining attention because hemp grows quickly and produces a large amount of biomass. This makes it a good feedstock for biochar.
The global industrial hemp market was valued at about US$11-12 billion in 2025. It continues to grow as more companies use hemp for textiles, building materials, food products, and other sustainable goods.
A recent market study shows that the hemp biochar segment is worth about US$210 million in 2025. It is expected to reach around US$475 million by 2032, growing at a rate of about 12% per year. This growth is supported by rising demand for natural soil enhancers, carbon removal solutions, and low-carbon materials.
Hemp biochar also helps cut waste because it uses leftover stalks and other plant parts. This lowers disposal costs for farmers while creating a useful product for soil health and long-term carbon storage.
Key Players, Procurement Patterns, and Market Dynamics
Corporate buyers are among the biggest demand drivers. According to a recent market data summary, a relatively small number of large purchasers account for a significant share of total biochar credit purchases, led by Microsoft and Google.This concentration of demand (and often long‑term offtake agreements) has helped stabilize pricing and accelerate project financing.
On the supply side, despite the volume of credits contracted and sold, some market observers note that a large portion of biochar producers still do not participate in voluntary carbon markets. They instead choose to sell biochar for soil, agriculture, energy, or other uses rather than pursue credit generation.
Moreover, liquidity in the biochar credit market seems relatively high. One report estimates that a majority of issued credits undergo primary transfer (i.e, sale or trade) quickly, with average transfer times now on the order of weeks rather than months.
However, this growth has also sparked increasing scrutiny of quality. According to analysis from 2024–2025, a non-trivial share of biochar credits comes from projects that failed vetting for high-quality standards. These credits sell for significantly lower prices at ~ US$153/tCO₂e vs ~ US$220 for quality‑vetted.
Returns vs. Risks: What Buyers Must Underwrite
Given the trend in price stability, rising demand, and growing corporate interest in durable carbon removal technologies, biochar-based credits present a compelling investment opportunity:
for project developers (those producing biochar),
for investors or funds backing biochar plants or operations, and
for corporate buyers aiming to secure a long‑term carbon removal supply.
The fact that biochar credits sit between low-cost nature‑based offsets and high-cost engineered technologies on the cost/permanence spectrum gives them a competitive advantage, especially as standards tighten and demand for high-integrity credits grows.
Key Risks and Challenges:
Supply bottlenecks: while demand surges, not all biochar producers are participating in credit markets. This limits the pool of available credits for high-integrity, verifiable carbon removal.
Credit quality variation: as shown by the price differences between “high‑quality” vs “lower‑vetting” credits, buyers and investors must carefully assess project standards, feedstock, production method, and verification rigor.
Market volatility and demand concentration: heavy reliance on a few large buyers could create market instability if corporate demand shifts or regulatory incentives change.
Non‑market pressures: environmental or supply‑chain constraints (e.g., sustainable biomass sourcing, land‑use competition, feedstock availability), which may limit scaling or raise costs.
The Friction Points: Feedstock, MRV, and Scale
While biochar offers significant environmental and economic benefits, the adoption of biochar for carbon removal and carbon credits faces technical, market, and environmental challenges. Understanding these limitations is essential for project developers, investors, and policymakers.
Technical Challenges
Feedstock Availability and Quality: Sustainable and consistent biomass supply is crucial. Competing demands for agricultural residues or forestry waste can limit availability, affecting scalability and project economics.
Production Technology Constraints: Different pyrolysis or carbonization methods yield varying amounts of biochar and carbon stability. Ensuring high-quality, verifiable biochar requires careful technology selection and process optimization.
Carbon Quantification: Accurately measuring the carbon content and permanence of biochar is complex. Soil conditions, environmental factors, and application methods can influence carbon retention, making monitoring and verification more challenging.
Market Challenges
Standardization and Certification Costs: The market still faces variability in methodologies, verification protocols, and registry standards. Certification and MRV costs can be a barrier, particularly for small-scale producers.
Credit Quality Variation: Not all biochar carbon credits are created equal. Buyers must navigate differences in permanence, verification rigor, and project transparency, which can affect market confidence and pricing.
Liquidity and Market Access: Although volumes are growing, access to buyers, marketplaces, and financing remains limited in some regions, slowing market participation.
Environmental Considerations
Sustainable Sourcing: Overharvesting biomass can lead to land degradation, deforestation, or competition with food production. Projects must ensure feedstock sustainability.
Lifecycle Emissions: Energy-intensive production methods or transportation can offset some carbon removal benefits if not carefully managed.
Application Risks: Incorrect application rates or practices can reduce soil benefits and carbon retention, diminishing environmental impact.
Balancing Potential and Risk
Despite these challenges, ongoing technological improvements, evolving standards, and growing corporate demand are helping to mitigate risks. Stakeholders are increasingly focused on combining high-integrity verification, sustainable feedstock management, and optimized production methods to unlock the full climate potential of biochar.
Proof It Works: Real Projects Moving Real Tonnes
Several biochar projects around the world demonstrate both environmental impact and carbon credit generation.
Cool Planet (USA): Cool Planet produces biochar from agricultural residues and applies it to crop fields. Their projects have sequestered thousands of tons of CO₂ annually while improving soil fertility. Verified carbon credits from these operations are listed on voluntary markets, attracting corporate buyers seeking high-quality removals.
Carbon Gold (UK): Carbon Gold combines biochar production with horticultural and agricultural applications. Their biochar has improved soil structure and water retention, while the associated carbon credits have been independently verified under the Verra standard.
Terra Preta (Australia): In Australia, Terra Preta projects convert unloved biomass waste, such as orchard prunings and agricultural residues, into biochar. Beyond storing carbon, these projects enhance soil productivity and reduce fertilizer use, providing dual benefits for farmers and the climate.
Impact summary: Across these examples, biochar projects:
Remove CO₂ permanently from the atmosphere.
Improve soil health and crop yields.
Generate verifiable carbon credits for voluntary and corporate markets.
These success stories highlight the feasibility of biochar as a scalable carbon removal solution that delivers measurable environmental and economic benefits.
How to Participate in Biochar Carbon Credits: Launch, Verify, Sell
Participating in biochar carbon credits can be approached by different stakeholders — farmers, project developers, investors, businesses — depending on resources, goals, and local context. Here is a general roadmap based on established methodologies and current market practices:
Key Preconditions and Initial Steps
Before entering the carbon credit pathway with biochar, a project must meet certain basic conditions:
Use eligible biomass feedstock: The raw material must be “biogenic” — e.g., agricultural residues, wood chips, forestry, or crop waste. Non‑eligible materials (e.g, plastics, tires, municipal solid waste) are generally excluded.
Adopt an approved methodology/standard: For biochar carbon credits, one widely accepted standard is Verra’s methodology VM0044 Biochar Utilization in Soil and Non‑Soil Applications (as of version 1.2, active since June 27, 2025).
Demonstrate additionality and project soundness: Under VM0044 v1.2, an investment analysis is required to show that the project wouldn’t have happened under a “business-as-usual” baseline.
Create a project plan including monitoring and application strategy: The project must plan not just for producing biochar, but for where and how biochar will be applied (e.g., soil, non-soil) — because carbon sequestration depends on stable storage.
Implementation → Biochar production & application — produce biochar via pyrolysis or another approved method, apply it to soil or approved non‑soil uses (as described in project plan).
Monitoring & Reporting — systematically document biomass inputs, biochar yield, biochar application location and amount, soil or land use data, and other required metrics.
Verification — the verifier reviews the monitoring report and issues a verification report; once approved, credits (e.g., Verified Carbon Units, VCUs) are issued.
Credit issuance and sale/trade/retirement — once issued, credits can be sold through voluntary carbon marketplaces or private agreements. Buyer entities (companies, investors) purchase these credits to offset emissions or hold as long-term assets.
For Farmers and Small‑scale Producers
If you are a farmer or smallholder, take note of these:
Aggregation may be an option: under approved biochar credit classes, small producers can aggregate biomass feedstock and biochar output under a single project developer, helping overcome high transaction/verification costs that otherwise deter small-scale efforts.
Combining biochar application with soil fertility benefits makes the approach more attractive — beyond just carbon credits, improved yields and soil health may help justify the investment in biochar production and verification.
Participation may require upfront investments (kiln/pyrolysis equipment, documentation, possible external verifiers) — so it’s important to assess economic feasibility before committing.
Ensure clear feedstock sourcing strategies, ideally using agricultural or forestry residues that would otherwise decompose or be burned — avoiding unsustainable biomass harvesting.
Use an approved methodology (e.g., VM0044) and design projects with robust MRV, permanence, and documentation — important especially now that the credit standards are under stricter scrutiny.
Factor in verification and transaction costs: third‑party audits can cost thousands of USD per cycle; small volumes may not justify these costs.
Consider blending revenue streams: biochar can yield soil‑improvement benefits or biochar sales for agriculture/industry — diversifying income beyond carbon credits.
Challenges to Watch Out For
Even with proper setup, as a market participant, you should be aware of:
The need for long‑term commitment and record‑keeping: carbon credits generally reflect long‑term carbon storage, requiring adherence over years.
Costs vs scale tradeoff: small-scale efforts may struggle to cover verification costs; aggregation or partnerships may be necessary.
Feedstock sustainability: using biomass that competes with food production, leads to deforestation, or causes land‑use conflicts, undermines the environmental integrity of the project.
Market uncertainty: credit prices and demand fluctuate; demand depends on corporate commitments to climate goals and regulatory developments.
Next Decade: From Niche to Gigaton?
The outlook for biochar is positive. It works as both a soil improver and a carbon removal solution. Growing interest from governments, companies, and investors suggests biochar will play a bigger role in climate action over the next decade.
The global biochar market is expected to grow fast. Recent estimates suggest it could reach US$1.5–2.5 billion by 2030, with strong annual growth. Other forecasts show continued expansion through the 2030s, driven by demand in agriculture, waste management, and carbon removal.
Farmers use biochar to improve soil health and crop yields. At the same time, companies are buying biochar carbon credits because they offer durable carbon removal. This is pushing biochar from a niche product into a more mainstream climate solution.
Some studies suggest biochar could remove large amounts of CO₂ by 2040, if production and supply chains scale. Growth is strongest in North America and the Asia–Pacific, where biomass is abundant.
Still, success depends on sustainable feedstocks, consistent quality, and strong verification systems.
In sum: the next 5–15 years may see biochar evolve from a niche soil amendment to a globally relevant carbon‑removal solution. This is particularly true if demand for durable, verifiable carbon credits continues to grow and supply-side constraints are addressed.
The Bottom Line: Durable Carbon With Co-Benefits
Biochar is a powerful solution that combines climate mitigation, sustainable agriculture, and waste management. It sequesters carbon permanently while improving soil health and crop yields. With global market growth and rising interest from farmers, businesses, and investors, biochar carbon credits offer a scalable, verifiable path for carbon removal.
Realizing its full potential requires sustainable feedstock, reliable production, and strong verification. Biochar not only removes carbon but also supports agricultural sustainability, rural livelihoods, and circular-economy principles.
The UK government recently released its Fusion Energy Strategy 2026, where it has laid out a bold plan to turn fusion into a commercial, clean power source while building a strong domestic industry.
The key vision is a £2.5 billion investment over five years. The goal is clear: make the UK the first country with a real pathway to commercial fusion energy. At the same time, the strategy connects clean power goals with economic growth, job creation, and long-term energy security.
A Clear Push Toward Energy Independence
The UK’s strategy comes at a time when global energy markets remain volatile. Fossil fuel dependence continues to create risks. As a result, the government sees fusion as a long-term solution for energy sovereignty.
Fusion offers several advantages. It is clean, abundant, and reliable. Unlike solar or wind, it can provide constant power. Because of this, it could play a major role in meeting future electricity demand, especially as industries and AI systems consume more energy.
The government believes that reducing reliance on fossil fuels is the only way to secure long-term stability. Fusion, therefore, is not just a research goal—it is a strategic priority.
Investing Across the Fusion Ecosystem
The £2.5 billion investment in fusion energy over five years (2025–2030) is spread across the following sectors:
Together, these investments aim to strengthen the entire value chain—from early research to final deployment.
At the same time, the UK is working closely with the private sector. More than 500 companies are already involved in the fusion space. This number is expected to grow as global competition increases.
The potential market is massive. Estimates suggest that fusion could become a £3 trillion to £12 trillion global industry. Therefore, countries are racing to secure leadership positions early.
Five-Year Fusion Trends: Total Funding Till 2025
Source: Fusion Industry Association Report 2025
STEP Program: Building the First Fusion Power Plant
A major part of the funding—£1.3 billion—will go to the Spherical Tokamak for Energy Production (STEP) program. This initiative aims to design and build the UK’s first prototype fusion power plant.
The plant will be located at a former coal site in Nottinghamshire. Construction is expected to begin in 2030, with completion targeted for 2040. The mission is ambitious: generate net energy from fusion and prove that the technology can work at a commercial scale.
Source: UK Fusion Strategy 2026
To deliver this, the UK has partnered with a consortium called ILIOS. This group, led by Kier and Nuvia, will handle construction, engineering, and supply chain management. Their role covers everything from design integration to infrastructure development.
Importantly, STEP is meant to act as a catalyst. By building this prototype, the UK hopes to stimulate a broader fusion ecosystem, including suppliers, engineers, and technology firms.
UK Fusion Energy
A key part of this shift is the creation of UK Fusion Energy, a subsidiary responsible for delivering the STEP program. This organization will act as a systems integrator. It will bring together multiple technologies and partners to build a complete fusion power plant.
In summary, the three main goals for UK Fusion Energy are:
Make future fusion power plants safer and more reliable
Build strong UK industries and supply chains
Bring lasting economic benefits and energy security to the UK
UKAEA Group: The Backbone of the UK’s Fusion Ambition
The backbone of the UK’s fusion strategy is the UK Atomic Energy Authority (UKAEA Group). It acts as the country’s main public body driving fusion research, innovation, and delivery.
The UKAEA operates the National Fusion Laboratory based in Culham, Oxfordshire. This facility leads advanced research in plasma science, robotics, materials, tritium systems, and high-performance computing. Over time, it has built a strong global reputation for technical excellence.
However, the UKAEA’s role is now expanding. Other than research, it is actively helping to turn scientific progress into commercial outcomes.
Turning Research into Real-World Innovation
Furthermore, the UKAEA is working closely with industry to transfer knowledge and scale up technologies. Many of its capabilities are already moving toward commercialization. These include:
Neutral beam systems are used for plasma heating
Robotics for remote maintenance in extreme environments
Advanced diagnostics and sensor technologies
Fusion fuel cycle systems and materials
This approach ensures that public research does not remain in the lab. Instead, it flows into real-world applications, supporting both fusion and other industries.
The UK’s strategy goes beyond technology. It focuses heavily on building a full industrial ecosystem.
The plan supports companies of all sizes—from startups to multinational firms. It also aims to develop strong supply chains within the country. By doing so, the UK wants to become a top destination for fusion investment.
Key areas of opportunity include:
High-temperature superconducting magnets
Advanced materials
Robotics and remote maintenance
Plasma systems and lasers
AI-driven control systems
These technologies are not limited to fusion. They also have applications in sectors like aerospace, automotive, healthcare, and telecommunications. As a result, fusion investment could drive innovation across multiple industries.
For example, UK-based companies are already exploring how fusion-related technologies can be used in power grids and advanced manufacturing. This creates near-term economic benefits, even before fusion becomes fully commercial.
AI Meets Fusion: A Game-Changing Combination
One of the most forward-looking parts of the strategy is its focus on artificial intelligence. The government sees AI as a key tool for unlocking fusion energy.
Fusion systems are highly complex. They involve extreme temperatures, fast reactions, and dynamic plasma behavior. Managing these systems requires advanced data analysis and real-time decision-making. This is where AI becomes critical.
Revealing an AI supercomputer: Sunrise
The UK plans to invest £45 million in a dedicated AI supercomputer called Sunrise. This system will support fusion research by accelerating simulations, improving designs, and optimizing operations.
In addition, the UKAEA’s Culham campus will become an AI Growth Zone. This hub will bring together scientists, engineers, and AI experts. The goal is to create a collaborative environment where innovation can thrive.
The government’s broader AI strategy supports this effort. It focuses on building strong data systems, expanding computing power, and encouraging multidisciplinary research. Fusion stands out as one of the priority sectors where AI can deliver rapid breakthroughs.
Interestingly, the relationship works both ways. While AI helps make fusion possible, fusion could eventually power energy-intensive AI data centers. This creates a strong link between future clean energy and digital growth.
DESNZ Sets Clear Rules for Fusion Development
Investors and developers need clear rules to plan fusion projects with confidence. This includes understanding safety, environmental, and planning approvals, as well as which UK organizations must be involved.
To provide clarity, DESNZ (Department for Energy Security and Net Zero) will release a roadmap for the UK fusion regulatory process by Summer 2026. This will guide developers on how to get approvals and engage with regulators early.
The plan also aims to help regulators understand fusion technologies better and support early collaboration, reducing risks in plant design. Fusion regulators are already working with industry and will continue reviewing processes as the sector grows.
In conclusion, with growth in fusion development around the world, collaboration and competition are both rising. The UK is becoming a global leader through the STEP program, international partnerships, and smart investment. And with public and private collaboration, the UKAEA Group is key to turning research into commercial fusion plants and boosting the UK’s role in the global market.
Chery Automobile is steering full speed ahead. The Chinese carmaker posted record revenues and profits for Q4 2025, backed by a stronger global presence and growing investments in new energy vehicles (NEVs) and smart technology. While the future looks bright, investors should keep an eye on the challenges of NEV profitability and the costs of rapid expansion.
Last year, Chery’s net income jumped 34.6% to 19.02 billion yuan ($2.77 billion). This surge came on the back of record global deliveries of 2.63 million vehicles, an 8% rise from 2024.
Revenue also climbed 11.3% to 300.29 billion yuan. Despite tough competition in China’s passenger car market, Chery managed to slightly lift its overall gross margin to 13.8% from 13.5% the year before.
Financial highlights for the year ended 31 December 2025
Data Source: Chery
NEVs Take the Spotlight
Passenger vehicles made up the major revenue at 272.4 billion yuan, or 90.7% of total sales. NEVs stole the spotlight, with sales soaring 66.4% to 98 billion yuan, now making up almost a third of passenger vehicle revenue.
Traditional internal combustion engine (ICE) vehicles fell 7.2% to 174.3 billion yuan, reflecting the ongoing industry shift toward electrification. The surge in NEV sales shows how the market is changing fast, and Chery is clearly keeping pace.
Chery Going Global Pays Off
Chery’s international strategy is paying off.
For the first time, overseas revenue outpaced domestic sales, jumping to 157.4 billion yuan from 100.9 billion yuan, while China’s sales dropped to 142.9 billion yuan.
This milestone highlights how Chery’s global expansion is more than a strategy—it’s a real driver of growth. It also shows the brand’s rising appeal outside China, particularly in markets that value affordable, high-tech, and energy-efficient vehicles.
A Rise in Gross Profit
Overall gross profit increased 14.1% to 41.4 billion yuan, but NEVs still lag behind ICE vehicles on margins, earning 8.8% compared to 15% for ICEs. As NEVs took up a larger share of the passenger vehicle mix, the core business margin slipped slightly to 12.8%.
The EV maker is investing heavily to meet rising global demand, pushing up capital expenditure, marketing, and R&D spending to build capacity and future models. Selling and distribution costs jumped 32.6% due to aggressive marketing campaigns, while research and development spending rose 23.8% as the company accelerated innovation for its next-generation vehicles.
Brand Performance Highlights
Among Chery’s brands, Luxeed and iCar saw the fastest growth. Luxeed sold 90,493 vehicles, up 56% year-on-year, while iCar delivered 96,989 units, a 47% increase.
Meanwhile, the premium Exeed brand fell 15% to 120,369 units, showing that not all segments are booming equally.
This show, Chery is clearly experimenting with a multi-brand approach, pushing emerging names forward while keeping an eye on premium offerings.
Chery is doubling down on technology to stay ahead. According to the CnEV report, the company planned to unveil its solid-state battery technology at its upcoming “Battery Night,” promising ranges over 1,200 kilometers—a potential game-changer in the EV market.
The solid-state battery module showcased in October 2025 signals Chery’s serious step toward longer-range, high-performance electric vehicles, which could help it compete with international EV leaders.
Chery’s Emissions and Energy Use
Chery is ambitious about cutting emissions and using energy more efficiently. In its 2024 ESG Report, the company tracks greenhouse gas emissions, energy consumption, and ways to make operations cleaner.
It reports both Scope 1 and Scope 2 emissions—direct emissions from the fuel it uses and indirect emissions from electricity.
Scope 1 emissions rose from 140,000 to 203,000 tonnes of CO₂e in 2024, and total emissions for Scopes 1 and 2 reached over 733,000 tonnes.
Emission intensity, which measures CO₂e per vehicle, rose slightly to 0.30 tCO₂e, reflecting changes in production and energy use.
Source: Chery
Chery’s energy strategy focuses on cleaner electricity and renewables, aligning with China’s targets for carbon peak by 2030 and carbon neutrality by 2060. About 30% of energy at China plants comes from green sources, and the company has installed 210 MW of solar panels across its facilities. It also improves energy efficiency in factories, cutting energy use and emissions.
Source: Chery
On the vehicle side, it assesses the full lifecycle carbon footprint of nearly all models, from production to end-of-life, helping the company target areas with the highest impact.
To further reduce emissions, Chery is investing in hybrids, NEVs, and supply chain efficiency. Low-carbon materials, energy-efficient manufacturing, and renewable adoption are part of a multi-year transition to greener operations. This approach shows that Chery is serious about sustainability while scaling up production globally.
Smart Mobility and AI
Chery’s guiding philosophy, “Technology Shapes the Future,” reflects a clear commitment to electrification and intelligent mobility. The company is building cross-industry alliances and pushing innovations in AI and smart vehicles.
Its AI governance framework aligns with international standards, covering intelligent cockpits, driver assistance, and quality prediction tools. This ensures that Chery’s vehicles are not only electric but also smart, safe, and ready for future mobility trends.
Innovation in Hybrids and Ethanol Fuel
Chery focuses on hybrid powertrains, next-gen battery tech, and expanding electric vehicle options. The Fulwin, EXLANTIX, and JETOUR Shan Hai series offer hybrid and plug-in options for city driving, long trips, and off-road adventures.
Its fifth-generation Super Hybrid System powers multiple series, offering high fuel efficiency and long-range capabilities, tested under extreme conditions. The tri-motor architecture and 3-speed intelligent electric hybrid DHT enable the JETOUR Shan Hai T2 AWD to accelerate from 0 to 100 km/h in 5.5 seconds while covering over 1,200 kilometers.
Last year, the company rolled out plug-in hybrids compatible with high-ratio E32 ethanol fuel, further cutting carbon emissions and boosting energy flexibility. These moves highlight how the company blends innovation with environmental responsibility.
Source: Chery
Looking Ahead
Chery’s 2025 performance shows a company in transition. Revenues and global sales are surging, NEVs are taking a larger share, and investment in technology and sustainability is accelerating.
However, challenges remain, including NEV profitability, execution risks, and cash flow management. But with strong finances, aggressive R&D, and a clear global strategy, Chery can become a major player in low-carbon, intelligent mobility.
AtkinsRéalis Group has announced a collaboration with NVIDIA to explore nuclear‑powered large‑scale “AI factories.” These facilities are meant to support next‑generation artificial intelligence computing using stable, low‑carbon energy. The work combines AtkinsRéalis’s engineering and nuclear expertise with NVIDIA’s digital and AI design tools.
The project aims to use AI tools like NVIDIA’s Omniverse libraries and accelerated computing systems. These tools help engineers design and test physical infrastructure in a digital, 3D environment before actual construction. AtkinsRéalis said this could speed up the deployment of highly efficient computing hubs powered by nuclear energy.
Ian L. Edwards, President and CEO, AtkinsRéalis stated:
“AtkinsRéalis brings deep engineering and delivery expertise across complex infrastructure and a 70-year legacy of excellence in the nuclear industry. This collaboration enables us to leverage these strengths in energy, infrastructure, and complex project delivery to complement NVIDIA’s leadership in accelerated computing to help power critical AI data centers.”
Why Nuclear Power Matters for AI
Nuclear energy is seen as a potential solution for very large energy needs. AI data centers and high‑performance computing facilities require constant, very high levels of electricity. Nuclear plants can run 24/7, unlike intermittent sources like solar or wind. This makes them attractive for energy‑intensive AI operations.
AI computing is driving huge increases in data center energy use. In 2024, global data centers consumed about 415 terawatt-hours (TWh) of electricity. That is enough to power all of Japan for a year.
This figure is forecast to grow to 800 TWh by 2026 and possibly beyond as AI workloads expand rapidly. Some analysts predict that AI will drive 165% increase in data center power demand by the same period.
The world’s leading research and consulting firms also view nuclear as key to meeting future electricity demand. For example, analysts at Goldman Sachs estimate that new nuclear capacity of 85 to 90 gigawatts (GW) may be needed by 2030 to supply power for data centers worldwide.
Nuclear power offers stable, continuous energy — a trait industry leaders call baseload power. This helps facilities operate reliable computing systems without interruptions. Nuclear plants also have very low operational emissions compared with fossil fuels.
AI Tools Designing the Next Power Plants
The AtkinsRéalis–NVIDIA deal highlights another trend: AI is not just a load on power systems. It is also a tool for designing and optimizing new power infrastructure.
NVIDIA’s Omniverse and AI analytics can simulate everything from heat flow to electrical load in highly complex systems. This allows engineers to design layouts and workflows with precision. It also helps in digital twin modeling: creating virtual replicas of physical systems to test performance before building.
These tools can support nuclear reactor design, safety planning, and integration with computing facilities. AI can also help optimize operations, lowering costs and improving reliability.
The partnership focuses on three key areas to support the development of nuclear-powered AI infrastructure:
Nuclear + AI integration: AtkinsRéalis will link its CANDU® reactors with AI data centers, while NVIDIA provides computing and digital twin tools.
Faster project delivery: AI, simulation, and Omniverse tools aim to speed up design and construction and improve safety.
Data center engineering: AtkinsRéalis will deliver power, cooling, and modular systems for efficient AI facility deployment.
Energy analysts believe that using digital tools with nuclear power can speed up new energy projects. This includes small modular reactors (SMRs), which are viewed as a key source of carbon-free energy for the future.
SMRs are typically smaller and more modular than traditional reactors. They may be built faster and at lower cost. Many technology companies and utilities are exploring SMRs for new power capacity to meet rising energy demand.
Data Center Boom Reshapes Global Energy Demand
AI’s rise has reshaped energy demand. As shown below, power needs for data centers could double or more by 2030 compared with 2024 levels. This growth comes from both AI training workloads and everyday data processing.
Data center energy demand is expected to grow faster than many other industrial sectors. Some forecasts suggest that electricity consumption by data centers could account for up to 12% of total U.S. power demand by 2028.
Globally, around 15% of data center energy comes from nuclear power. This number is growing as companies make long-term deals with nuclear providers. Renewables (wind and solar) also play a growing role, with their share expanding due to climate goals and cost declines.
Despite this growth, fossil fuels still supply a large share of data center power today — around 56% globally — leading to rising carbon emissions unless clean sources are scaled rapidly.
Many major tech companies have set ambitious targets for net‑zero emissions. These targets focus on three main goals:
Powering data centers with zero-carbon electricity.
Improving energy efficiency.
Adopting new technologies like nuclear energy or carbon capture.
Can Nuclear Keep Up with AI Growth?
Investments in nuclear energy are rising. In 2025, nuclear capacity is expected to grow by about 29 GW worldwide, with more than half of that expansion in China and India.
Some nations are doubling down on nuclear power to support digital growth and energy security. France, for example, gets over 70% of its electricity from nuclear and is pushing to power new AI facilities with low‑carbon energy.
SMRs are gaining attention because they can be located closer to industrial or urban centers. Full commercialization of SMR technology is expected around 2030, making it a key component for future data center energy strategies.
In the clean energy market overall, nuclear power’s share is expected to grow alongside wind and solar. The International Energy Agency says that nuclear, renewables, and other low-carbon sources must grow a lot. This growth is needed to meet increasing electricity demand and reduce emissions.
Cost, Regulation, and Public Trust
Despite these trends, challenges remain. Nuclear infrastructure is expensive and time‑intensive to build. Regulatory hurdles, licensing processes, and community acceptance can slow deployment. Public perception of nuclear safety also affects project timelines. Analysts say streamlined permitting and clear safety standards will be needed to scale nuclear for data center support.
Moreover, deploying nuclear‑powered AI factories requires long‑range planning. Construction can take years, and financing relies on government incentives and private investment. Nuclear projects often require large capital outlays upfront, which can slow adoption without policy support.
At the same time, data centers are rapidly evolving. Advanced cooling systems help reduce energy use. AI workload scheduling makes tasks more efficient. Energy-efficient hardware also cuts the sector’s footprint. These technologies can reduce overall energy demand, but they do not eliminate the need for stable, baseload power sources like nuclear.
The Convergence of Energy and Computing
The collaboration between AtkinsRéalis and NVIDIA points to a future where energy and computing strategies are tightly linked. As AI demand grows, the need for reliable, low‑carbon energy becomes more urgent. Nuclear energy offers a potential answer — one that can deliver power around the clock without emissions.
Big tech companies are already exploring nuclear solutions. For example, Meta has signed long‑term agreements to secure hundreds of megawatts of nuclear power for its data centers, and Google is building small modular reactors to power AI operations.
The integration of AI design tools with nuclear engineering can speed up planning, improve safety, and reduce cost risk. This is important if large‑scale AI infrastructure is to be built in a way that supports sustainability goals.
As the energy and tech sectors converge, nuclear‑powered AI factories may represent a new evolution in how computing hubs are powered and designed. If successful, this trend could reshape data center energy strategies and help meet the growing power demand of the AI era with low‑carbon solutions.
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