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Thacker Pass Is Being Built: Here Is Why That Is the Best News NILI Investors Have Heard All Year.

Jennifer L
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Thacker Pass Is Being Built: Here Is Why That Is the Best News NILI Investors Have Heard All Year.

Disseminated on behalf of Surge Battery Metals.

Lithium Americas (LAC) has officially broken ground at Thacker Pass, Nevada. The project is advancing toward its first production target in 2028. LAC CEO Jonathan Evans said in the company’s news release that the project should be mechanically complete by the end of 2026. Commissioning will happen through 2027, with commercial production starting in 2028.

For investors watching Nevada clay lithium, this milestone is more than an update. It’s a market signal that could change the investment landscape.

De-Risking the Clay Lithium Category

For years, clay-based lithium has faced a single recurring objection: “It has never been done at a commercial scale.” Unlike brine or hard-rock lithium, sedimentary clay deposits presented a technological and operational unknown. Investors and lenders were cautious, capital costs were higher, and early-stage projects struggled to secure financing.

Thacker Pass changes that narrative. Once LAC makes battery-grade lithium carbonate from sedimentary clay at a commercial scale, it reduces risks for the whole category. Projects in Nevada now have clear proof that clay-based lithium can be mined and processed effectively.

The historical precedent is instructive. In Chile’s Atacama region, the first brine lithium projects proved the chemistry and cost-effectiveness of large-scale lithium extraction. Later projects attracted capital more easily and on better terms. This created a ripple effect, speeding up the region’s lead in global lithium supply.

Thacker Pass is playing that same role for sedimentary clay. Its success is not just a win for LAC. It marks a key milestone for the whole Nevada clay lithium sector, including the Nevada North Lithium Project (NNLP) of Surge Battery Metals (TSX-V: NILI | OTCQX: NILIF).

Understanding the Technical Landscape

Thacker Pass Phase 1 has lithium levels of 1,500–2,500 ppm. They plan to extract it using sulfuric acid leaching to create battery-grade lithium carbonate. The project is important both geographically and operationally.

It features a large pit, a big processing facility, and integrated infrastructure. This covers access roads, water supply management, and energy sources that meet Nevada’s rules.

Thacker Pass lithium mine project
Source: Lithium Americas

While Thacker Pass shows commercial viability, it is crucial to note that NNLP and Thacker Pass are not technically the same. NNLP employs a different beneficiation approach and reagent chemistry to optimize recovery.

NNLP: The Higher-Grade, Next-Generation Project

Thacker Pass shows clay lithium on a large scale. NNLP positions itself as the next evolution of this asset class, with clear geological advantages:

  • Grade: NNLP averages 3,010 ppm lithium, significantly higher than Thacker Pass Phase 1 material. Recent drilling results show that step-out drilling found a 31-meter intercept with 4,196 ppm lithium from surface. This gives NNLP a potential extraction advantage.
  • Strip Ratio: NNLP’s 1.16:1 strip ratio is among the lowest in the sedimentary clay peer group. This indicates that it has favorable material movement requirements relative to ore recovered.
  • Operating Costs: NNLP’s estimated OPEX is US$5,097/t LCE, lower than Thacker Pass guidance of ~US$6,200/t C1. It suggests that it has competitive economic positioning within the peer group.

Both projects produce battery-grade lithium carbonate using sulfuric acid leaching. However, each method is customized for the specific geology of the project. NNLP is not a copy of Thacker Pass. Rather, it is a next-generation clay project designed to leverage lessons learned while improving key parameters.

Surge lithium clay comparison

Moreover, infill drilling showed a steady, thick, high-grade core. It included intercepts like 116 meters at 3,752 ppm Li and 32 meters at 4,521 ppm Li. These results support future resource expansion. They also highlight the project’s scale, quality, and technical readiness as it prepares for a Pre-Feasibility Study.

Why Category De-Risking Matters for Investors

In emerging resource sectors, de-risking is often more valuable than the resource itself. Projects that validate a new extraction method or commodity unlock several market advantages:

  1. Lower financing risk: Investors are more willing to fund projects once proof of concept exists.
  2. Improved capital terms: Lending rates and equity expectations can improve when technology and economics are validated.
  3. Accelerated project development: Developers can move faster, reduce contingencies, and focus on optimization rather than proving viability.

Thacker Pass’s progress effectively removes the “first-mover risk” from sedimentary clay projects. NNLP has higher grades, near-surface mineralization, and competitive OPEX. Now, it can be assessed on its own merits, not on doubts about large-scale clay processing.

Strategic Significance in the U.S. Lithium Market

The timing of Thacker Pass’s construction and NNLP’s development aligns with broader policy and market trends. Lithium is a critical input for electric vehicles, grid-scale storage, and advanced defense technologies. The U.S. government has emphasized domestic lithium production as a strategic priority.

In March 2025, President Trump signed an executive order called “Immediate Measures to Increase American Mineral Production.” This order directs federal agencies to speed up permitting and support domestic projects. It also aims to lessen dependence on foreign supply chains for critical minerals.

Projects like Thacker Pass and NNLP benefit from this policy. They provide secure domestic sources that boost the lithium supply chain.

Nevada is central to this strategy. Its clay deposits are among the largest and best in the U.S. They provide a stable base for domestic lithium production, which supports electrification goals and helps reduce reliance on imports.

Thacker Pass’s progress also sends a signal beyond the Nevada clay sector. It demonstrates that investors and capital markets are willing to back sedimentary clay projects at scale. That validation reduces perceived risk for future projects. It also speeds up permitting and development timelines as well as strengthens valuation metrics.

NNLP, with its superior grade and shallower resource, stands to benefit disproportionately. It is no longer constrained by questions of category viability. It can now be evaluated based on its geological quality, operational efficiency, and potential returns.

NNLP’s advantages, combined with the category de-risking effect of Thacker Pass, position it as a next-generation investment opportunity in Nevada’s clay lithium space.

Looking Ahead: Domestic Lithium’s Role in Energy Transition

Lithium demand is set to grow rapidly as electric vehicles, battery storage, and renewable systems expand. Securing a high-quality, domestic supply is critical to maintaining U.S. leadership in clean energy technology.

lithium demand growth through 2035

Thacker Pass proves that commercial-scale sedimentary clay lithium is achievable. NNLP demonstrates the potential for even higher efficiency and superior economics within the same category. Together, these projects show how local resources can support the energy transition while providing compelling investment opportunities.

NNLP’s higher grades, near-surface mineralization, low strip ratio, and competitive OPEX position it as a leading asset within a now-validated category.

For NILI investors, the message is clear: the clay lithium category is no longer theoretical, and NNLP is positioned to capitalize on the proof-of-concept success. The best news of the year is here—and it’s grounded in both science and strategy.


DISCLAIMER 

New Era Publishing Inc. and/or CarbonCredits.com (“We” or “Us”) are not securities dealers or brokers, investment advisers, or financial advisers, and you should not rely on the information herein as investment advice. Surge Battery Metals Inc. (“Company”) made a one-time payment of $75,000 to provide marketing services for a term of three months. None of the owners, members, directors, or employees of New Era Publishing Inc. and/or CarbonCredits.com currently hold, or have any beneficial ownership in, any shares, stocks, or options of the companies mentioned.

This article is informational only and is solely for use by prospective investors in determining whether to seek additional information. It does not constitute an offer to sell or a solicitation of an offer to buy any securities. Examples that we provide of share price increases pertaining to a particular issuer from one referenced date to another represent arbitrarily chosen time periods and are no indication whatsoever of future stock prices for that issuer and are of no predictive value.

Our stock profiles are intended to highlight certain companies for your further investigation; they are not stock recommendations or an offer or sale of the referenced securities. The securities issued by the companies we profile should be considered high-risk; if you do invest despite these warnings, you may lose your entire investment. Please do your own research before investing, including reviewing the companies’ SEDAR+ and SEC filings, press releases, and risk disclosures.

It is our policy that information contained in this profile was provided by the company, extracted from SEDAR+ and SEC filings, company websites, and other publicly available sources. We believe the sources and information are accurate and reliable but we cannot guarantee them.

CAUTIONARY STATEMENT AND FORWARD-LOOKING INFORMATION

Certain statements contained in this news release may constitute “forward-looking information” within the meaning of applicable securities laws. Forward-looking information generally can be identified by words such as “anticipate,” “expect,” “estimate,” “forecast,” “plan,” and similar expressions suggesting future outcomes or events. Forward-looking information is based on current expectations of management; however, it is subject to known and unknown risks, uncertainties, and other factors that may cause actual results to differ materially from those anticipated.

These factors include, without limitation, statements relating to the Company’s exploration and development plans, the potential of its mineral projects, financing activities, regulatory approvals, market conditions, and future objectives. Forward-looking information involves numerous risks and uncertainties and actual results might differ materially from results suggested in any forward-looking information. These risks and uncertainties include, among other things, market volatility, the state of financial markets for the Company’s securities, fluctuations in commodity prices, operational challenges, and changes in business plans.

Forward-looking information is based on several key expectations and assumptions, including, without limitation, that the Company will continue with its stated business objectives and will be able to raise additional capital as required. Although management of the Company has attempted to identify important factors that could cause actual results to differ materially, there may be other factors that cause results not to be as anticipated, estimated, or intended.

There can be no assurance that such forward-looking information will prove to be accurate, as actual results and future events could differ materially. Accordingly, readers should not place undue reliance on forward-looking information. Additional information about risks and uncertainties is contained in the Company’s management’s discussion and analysis and annual information form for the year ended December 31, 2025, copies of which are available on SEDAR+ at www.sedarplus.ca.

The forward-looking information contained herein is expressly qualified in its entirety by this cautionary statement. Forward-looking information reflects management’s current beliefs and is based on information currently available to the Company. The forward-looking information is made as of the date of this news release, and the Company assumes no obligation to update or revise such information to reflect new events or circumstances except as may be required by applicable law.

Disclosure: Owners, members, directors, and employees of carboncredits.com have/may have stock or option positions in any of the companies mentioned: .

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Why Panasonic, CATL, and China’s Battery Giants Are Racing into AI Data Center (AIDC) Energy Storage

Saptakee S
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0
Why Panasonic, CATL, and China’s Battery Giants Are Racing into AI Data Center (AIDC) Energy Storage

Artificial intelligence (AI) is driving new growth in the global battery industry. For years, electric vehicles (EVs) fueled battery demand. Now, AI data centers are the next multi-billion-dollar opportunity.

The fast growth of generative AI has led to a rush in building AI data centers in the U.S., Europe, and Asia. These centers require significant electricity to train and operate large AI models such as ChatGPT, Gemini, etc. As electricity demand rises, battery makers are exploring a new market beyond electric vehicles (EVs).

This shift shows a bigger change in the battery industry. As per reports, China’s leading battery makers CATL, Panasonic, BYD, Sungrow, Hithium, Sunwoda, and Envision Energy are racing to create advanced energy storage for AI systems.

The Next Battery Boom Is Being Built for AI

Traditional data centers mainly store data and run cloud services. AI data centers are quite different. These facilities train and run large AI models. They need thousands of high-performance graphics processing units (GPUs) working at the same time. They use much more electricity than regular data centers.

Their power demand has three key traits.

  • First, power density is much higher. A traditional server rack needs around 5-8 kilowatts (kW). In contrast, AI server racks often require 30-100 kW, and some advanced systems need even more.
  • Second, energy consumption is enormous. A single hyperscale AI data center can use as much electricity yearly as a medium-sized city.
  • Third, electricity demand changes almost instantly. When training AI models, power usage can spike sharply within seconds. When workloads slow, demand drops just as quickly. These fluctuations pose significant challenges for power grids.

Challenges in Traditional Backup Systems 

Most conventional data centers rely on two backup systems.

  • First, an uninterruptible power supply (UPS) keeps servers running briefly during outages.
  • Second, diesel generators provide electricity during longer power interruptions.

However, these systems were not designed for the rapid power swings caused by AI workloads. AI data centers need batteries that respond almost instantly, delivering large amounts of electricity within milliseconds while maintaining stable voltage.

The Solution: AIDC Battery Storage

This demand has sparked a need for a new generation of high-power battery cells and advanced energy storage systems for continuous, high-intensity operation.

According to the International Energy Agency (IEA), global data center electricity consumption is expected to hit 485 terawatt-hours (TWh) by 2025 and could nearly double by 2030. AI will drive much of this growth.

Other forecasts show even steeper increases. Goldman Sachs estimates that global data center electricity use may rise by over 220% by 2030. This could hit about 1,350 terawatt-hours each year.

AI Data center
Source: Goldman Sachs

Thus, as AI expands, reliable energy storage is becoming as crucial as computing power. Many experts believe AI data center batteries could be the next big growth driver for the global energy storage market.

Panasonic Bets Big on AI Infrastructure

At its Investors Day in Tokyo, Panasonic announced a 350 billion yen ($2.4 billion) investment to expand its battery business. The company aims to strengthen its supply chain in Japan and North America while ramping up production of battery systems for AI data centers and continuing its EV battery business.

Panasonic plans to add dedicated production lines at its battery plant in De Soto, Kansas, complete additional battery module factories in Mexico, and significantly boost battery cell production in Japan by fiscal year 2029.

  • The Kansas battery factory is expected to produce 32 gigawatt-hours (GWh) of batteries each year.
  • The facility will create about 4,000 new jobs and cover roughly 4.7 million square feet, making it one of the world’s largest battery manufacturing plants.

Part of this expansion involves converting an automotive battery production line in Osaka to make lithium-ion batteries and supercapacitors for industrial applications.

Panasonic’s Kankas Facility

panasonic
Source: Panasonic

A Complete Power Solution for AI Facilities 

Instead of focusing solely on EV batteries, it also aims to provide complete power solutions for AI facilities.

Its future portfolio includes advanced Capacitor Backup Units (CBUs) that stabilize voltage during power spikes, battery backup systems for high-voltage direct current (HVDC) data center architecture, and high-power lithium-ion battery cells that can deliver rapid bursts of electricity.

The company’s strategy reflects how AI infrastructure is shifting battery demand from transportation to essential digital infrastructure.

  • Meanwhile, Panasonic’s Sparks, Nevada, facility produces approximately 5.7 million battery cells daily, or nearly 70 cells every second.

Interestingly, Panasonic’s AI strategy follows its exit from the U.S. residential solar and home energy storage business in 2025. Now, the company is focusing on higher-growth industrial markets like electric vehicles and AI data centers.

CATL Calls AIDC Energy Storage Its Next Growth Engine

Among Chinese firms, CATL has the clearest strategy. Chairman Robin Zeng noted that energy is the foundation of artificial intelligence.

Every AI-generated token requires electricity, making reliable energy infrastructure as vital as advanced chips and servers. Zeng pointed out that limited energy supply is becoming a major constraint on AI development.

Rather than enter chip manufacturing, CATL plans to focus on its strengths—batteries, energy storage, and integrated energy management systems. In short, it aims to be a full-service energy provider for AI data centers.

  • To meet these needs, CATL has introduced a 300Ah-plus sodium-ion battery built on the same platform as its lithium systems.
  • The battery reportedly offers over 15,000 charge cycles, around 97% efficiency, and supports energy storage times from two to eight hours.

Moreover, the battery giant now sees AI infrastructure as a long-term business that might rival or exceed the growth of its traditional EV battery sector.

Building an Entire AI Energy Ecosystem

Since 2025, the company has invested in AI software firm Damao Technology, high-voltage direct current specialist Zhongheng Electric, and plans to become the largest shareholder of data center operator 21Vianet.

These investments create an integrated model that covers battery production, power management, electricity distribution, and AI data center operations. So, instead of just selling battery cells, it is now engaging across the entire energy value chain.

Chinese Battery Giants See an Even Bigger Opportunity

Other than Panasonic and CATL, China’s leading battery manufacturers are aggressively entering AI energy storage. To name a few, Sungrow, Hithium Energy Storage, Sunwoda, Envision Energy, and others are heavily investing in batteries tailored for AI infrastructure.

These batteries focus on rapid discharge capability, long lifespan, and safety under continuous heavy workloads.

They operate at a massive scale, benefit from integrated supply chains, and continually reduce manufacturing costs through innovation. These strengths give them an edge as AI data centers become one of the fastest-growing battery markets.

The Bottom Line: A Multi-Billion-Dollar Battery Market

While EVs are still important, AI data centers are now a big source of battery demand. Unlike EVs, these centers need batteries that deliver quick power, handle constant load changes, and support crucial digital infrastructure around the clock.

  • The market for AI data center energy storage is set for rapid growth over the next decade. Annual revenue is expected to rise from about $1.2 billion in 2025 to $4.1-$6.0 billion by 2030, representing a strong annual growth rate of 28% to 38%.
AIDC market forecast
Data Source for Market Size: ResearchAndMarkets.com

Panasonic’s multi-billion-dollar investment is a classic example that shows how traditional battery makers recognize this opportunity.

Additionally, firms like Shuangdeng Group, Ampace, Highpower Technology, and Vision Group are creating customized power systems. They are investing directly in data center operators to ensure long-term demand. This strategy provides a steady flow of future battery needs and allows manufacturers to play a bigger role in the growing AI economy.

As governments and tech companies invest billions in AI, energy storage is becoming essential. It’s more than just backup; it’s a key asset. Companies that provide reliable, high-performance batteries for AI data centers could lead the global battery market.

U.S. Department of War Backs Phoenix Tailings With $500M to Rebuild America’s Rare Earth Industry

Saptakee S
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0
U.S. Department of War Backs Phoenix Tailings With $500M to Rebuild America’s Rare Earth Industry

The United States is investing to strengthen its rare earth supply chain and reduce dependence on China for essential minerals. The Department of War’s Office of Strategic Capital (OSC) has pledged a conditional $500 million in debt financing to Phoenix Tailings. This funding will help build the Freedom Facility.

This investment is part of a larger $1 billion initiative to revitalize America’s rare earth processing industry.

Once operational in 2028, the Freedom Facility will produce both light and heavy rare earth metals. These metals are vital for electric vehicles (EVs), batteries, wind turbines, defense equipment, semiconductors, and consumer electronics.

This announcement comes as governments worldwide seek critical minerals for clean energy and national security.

Closing the ‘Mine-to-Magnet’ Supply Chain Gap

Rare earth elements consist of 17 minerals known for their unique properties. They are essential for many products, including smartphones, electric motors, and renewable energy technologies.

Though the U.S. has rare earth mines, it relies heavily on foreign companies to refine these materials into usable metals. This midstream processing stage is a key supply chain weakness.

To address this, the OSC offers long-term financing for projects that strengthen critical technology supply chains. By supporting Phoenix Tailings, OSC aims to enhance domestic processing and reduce foreign reliance.

David A. Lorch, Director of the OSC, emphasized that boosting domestic processing is a top priority. He noted that the Freedom Facility will help close a significant gap in the U.S. rare earth supply chain, improving the overall “mine-to-magnet” ecosystem.

China Still Controls Much of the Global Supply Chain

Despite the U.S. ramping up domestic mining, China still dominates the global rare earth industry, especially in refining and processing.

  • According to the U.S. Geological Survey (USGS), the U.S. produced about 45,000 metric tons of rare earth oxide (REO) concentrates in 2024, valued at roughly $260 million.
USA rare earth elements
Source: USGS

Most of this output came from the Mountain Pass mine in California, where bastnaesite ore is mined. Additional mixed rare earth compounds came from the western U.S., while monazite concentrates were stockpiled in the southeast.

Despite domestic production, the U.S. imports a large share of its processed rare earth materials. The estimated value of U.S. imports of rare earth compounds and metals was $170 million in 2024, down 11% from $186 million in 2023. USGS data shows that:

  • China supplied about 70% of U.S. rare earth compounds and metal imports from 2020 to 2023.
  • Other sources included Malaysia (13%), Japan (6%), Estonia (5%), and the remaining 6% from other countries.

Much of the material from Malaysia, Japan, and Estonia was originally processed from concentrates sourced in China or Australia.

Comparison of Rare Earth Production and Reserves by Country

usa rare earth
Source: USGS

Globally, rare earth mine production rose to about 390,000 metric tons of REO in 2024, mainly due to increased output in China, Nigeria, and Thailand. These figures show why Washington is fast-tracking investments across the rare earth supply chain, not just in mining.

Rare earth element china
Source: IEA

ALSO CHECK: 

Freedom Facility: Connecting Mines, Recyclers, and Manufacturers

Mining is only the first step in producing rare earth materials. After extraction, minerals must be separated into individual rare earth oxides before they can be converted into high-purity metals and alloys.

This refining process mostly takes place overseas, causing a major bottleneck in the U.S. supply chain.

Phoenix Tailings’ Freedom Facility aims to solve this by adding large-scale domestic separation and metallization capacity.

The company states that the facility will process various feedstocks, including rare earth concentrates, recycled materials, mining byproducts, and other secondary sources. Using diverse feedstocks will increase supply chain flexibility and reduce reliance on imports.

Anthony Balladon, Co-Founder and Chief Commercial Officer of Phoenix Tailings, noted that the project will support every aspect of the domestic rare earth ecosystem.

According to Balladon, the Freedom Facility will create a reliable market for mines and recyclers, while giving manufacturers direct access to the rare earth metals they need. Instead of shipping materials overseas for refining, producers will process and sell them within the U.S.

Phoenix Tailings: Turning Waste into Critical Metals

The start-up focuses on recovering valuable metals from mining waste, recycled materials, and other overlooked resources.

Its platform combines advanced chemistry, electrochemistry, industrial hardware, and digital automation to produce rare earth metals more efficiently than traditional methods.

  1. The process begins by collecting feedstocks from mining tailings, recycled products, and mineral concentrates.
  2. Then, the critical metals are extracted. Their proprietary technology then separates light and heavy rare earth oxides.
  3. The final stage converts these oxides into high-purity metals and alloys used in batteries, defense systems, clean energy technologies, electric vehicles, advanced manufacturing, and electronics.

The company claims its technology reduces waste and minimizes many environmental and worker safety challenges linked to traditional rare earth refining.

Building a More Secure Critical Minerals Supply Chain

Phoenix Tailings states that the Freedom Facility will use U.S.-controlled technology and intellectual property. This will lessen reliance on foreign processing technologies.

The project is more than just a new processing plant. It’s part of a larger plan to rebuild America’s critical minerals industry. This will strengthen the supply chain for advanced manufacturing. Demand for rare earth metals will rise quickly as countries invest in electric vehicles, renewable energy, artificial intelligence, robotics, and new defense systems.

Rare earth elements demand and supply
Source: IEA

The U.S. aims to increase its refining and metallization capacity. This move will allow it to gain more value from its mineral resources. It will also lower geopolitical risks tied to overseas supply chains.

If construction stays on track, the Freedom Facility could be a key rare earth processing hub, boosting America’s industrial edge and supporting long-term energy and national security goals.

Guyana’s $353 Million Carbon Credit Success Shows How Forests Can Become a Global Climate Asset

Jennifer L
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0
Guyana’s $353 Million Carbon Credit Success Shows How Forests Can Become a Global Climate Asset

Guyana has earned US$353 million from carbon credit sales since 2022, making it one of the world’s most successful examples of turning forest protection into climate finance.

The announcement came from Pradeepa Bholanath, Senior Director of Climate and REDD+ in Guyana’s Office of the President. She said the revenues help fund climate action, community projects, and economic development. This is part of the country’s Low Carbon Development Strategy (LCDS) 2030.

Bholanath remarked:

“Since then, we’ve been able to expand those market opportunities in ways that we didn’t even envision, to the point now where, to date, since 2022, we have earned a total of US$353 million from the sale of carbon credits.”

Forest Cover: The Natural Asset Powering Guyana’s Carbon Economy

Guyana’s achievement is significant. It became the first country to earn forest carbon credits under the ART-TREES standard on a national level.

In 2022, the country received certification for about 33.4 million carbon credits generated between 2016 and 2020. Guyana soon signed a landmark deal with Hess Corporation, which will see Hess buy some of those credits.

The deal is worth at least US$750 million from 2022 to 2032. The agreement quickly became one of the largest sovereign carbon credit transactions ever completed.

Today, Guyana is a prime example of how countries can earn money by protecting forests and supporting local growth. Few countries have as much forest coverage as Guyana.

About 86% of the country’s land area remains covered by forests, giving it one of the highest forest cover rates in the world. At the same time, Guyana has maintained one of the lowest deforestation rates among tropical forest nations.

These forests play an important role in fighting climate change.

According to Guyana’s LCDS 2030 framework, the country’s forests store an estimated 19.5 gigatons of carbon dioxide equivalent (CO2e). That makes them one of the world’s largest carbon sinks relative to the country’s size and population.

Guyana carbon credits in LCDs
Source: Guyana LCDs Report

For years, developing countries have argued that they deserve compensation for safeguarding forests. These forests benefit the climate worldwide.

Carbon markets are now helping make that possible. Countries can earn credits under the ART-TREES system. They can do this by reducing forest-related emissions and protecting carbon-rich ecosystems.

In Guyana’s case, the credits represent emissions that were avoided because forests remained standing instead of being cleared.

The country’s program has gained global attention because it covers the entire nation rather than a single project area. Many experts believe this broader approach can help address some of the trust and quality concerns that have affected parts of the carbon market in recent years.

Carbon Revenue Is Reaching Indigenous Communities

One of the most important parts of Guyana’s program is how the money is shared. Under LCDS 2030, the government promised that at least 15% of carbon credit revenues would go to Indigenous peoples and local communities.

According to government officials, this has become one of the biggest successes of the program. Today, 252 Indigenous villages participate in the initiative. Community leaders decide how the funds should be used based on local needs and priorities.

Since the first carbon revenues arrived in 2022, Guyana has distributed funding to villages every year. According to Bholanath, nearly 3,000 village-level projects have already been completed or launched.

  • Government data show that over GYD 9 billion has gone to Indigenous communities via the benefit-sharing system.

The money has supported projects in agriculture, transportation, tourism, renewable energy, education, food security, and community infrastructure.

This approach is unique. Local communities get to decide how to spend the funds. This is different from decisions being made only at the national level.

Forest Carbon Markets Are Showing Signs of Recovery

Guyana’s success comes at an important time for global carbon markets. The voluntary carbon market (VCM) grew fast from 2020 to 2022. Companies made more climate commitments, so demand for carbon credits surged.

The VCM reached roughly US$2 billion in value in 2022, according to Ecosystem Marketplace. But growth later slowed as concerns emerged about the quality and effectiveness of some carbon credits. As a result, buyers became more selective, and so a lower transaction value was recorded.

voluntary carbon market vcm price volume and value 2025

Today, demand is increasingly shifting toward credits that can show strong environmental benefits, independent verification, and clear community impacts. Forest credits remain one of the largest parts of the market.

Recent market data show that companies continue to retire millions of forestry and land-use credits each year as part of their climate strategies. Buyers are increasingly favoring credits backed by stronger standards and transparent monitoring systems.

Global investment in forests and nature-based climate solutions is growing rapidly. Between 2020 and 2024, annual funding nearly doubled from less than $12 billion to about $23.5 billion.

Governments and development banks still provide about 60% of the funding, but private investment is increasing quickly, rising from roughly 25% of total forest finance in 2020 to 40% today. This trend highlights growing confidence in forests as a climate solution and an investment opportunity.

Public and private finance flows to forests in 2023
Source: UNEP Report

At the same time, forests continue to play a critical role in climate action. The United Nations Environment Programme (UNEP) estimates that forests absorb about 7.6 billion metric tons of carbon dioxide every year.

New initiatives are also helping improve confidence in carbon markets. Organizations like the Integrity Council for the Voluntary Carbon Market (ICVCM) and the Voluntary Carbon Markets Integrity Initiative (VCMI) have launched new frameworks. These aim to boost transparency and enhance credit quality.

These efforts are helping rebuild trust and could support future growth for large-scale forest programs like Guyana’s.

Sovereign Carbon Credits Are Gaining Global Attention

Guyana’s experience is helping shape a growing market for sovereign carbon credits. Unlike traditional project-based credits, sovereign credits are issued at the national or regional level. They measure performance across entire forest landscapes rather than a single conservation project.

Supporters say this approach can reduce the risk that deforestation simply shifts from one location to another. It can also improve oversight and accountability. As a result, governments across Latin America, Africa, and Southeast Asia are closely watching Guyana’s progress.

Many tropical forest nations face a similar challenge. Forests offer key climate benefits, but protecting them usually earns less than logging, mining, or big agriculture.

Carbon markets offer a way to change that equation. By creating financial value for conservation, countries can generate new revenue while keeping forests intact.

Guyana has become one of the strongest examples of how this model can work in practice.

Turning Carbon Into Capital: Guyana’s New Development Model

Carbon credit revenues are now playing a growing role in Guyana’s long-term development plans. The government is using LCDS 2030 to fund:

  • Climate adaptation,
  • Clean energy,
  • Environmental protection, and
  • Community development.

The strategy is especially notable because Guyana is also one of the world’s fastest-growing economies due to major offshore oil discoveries. Rather than choosing between economic growth and environmental protection, the government says both can advance together.

Guyana low-carbon development strategy 2030
Source: Guyana LCDs Report

The country uses carbon revenues to fund projects. These projects strengthen communities and protect natural resources. As revenues grow, carbon finance is becoming a key funding source for these efforts.

A Blueprint for the Future of Forest Finance

Guyana’s US$353 million in carbon credit revenue is more than a financial milestone. It shows that protecting forests can generate significant economic value when supported by strong standards and credible market rules.

The program has funded nearly 3,000 projects in Indigenous communities, proving that carbon markets can support both climate action and local development.

As buyers look for high-quality credits with clear environmental and social benefits, Guyana is emerging as a leading example of how forest conservation can generate long-term climate finance while keeping forests standing.

UK and Japan Strengthen Nuclear Partnership With Rolls-Royce AMR Deal

Saptakee S
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0
UK and Japan Strengthen Nuclear Partnership With Rolls-Royce AMR Deal

The UK aims to replace its old nuclear fleet and hit its 2050 net-zero target. Advanced nuclear technology plays a key role in this effort. Rolls-Royce has partnered with the UK National Nuclear Laboratory (UKNNL) and the Japan Atomic Energy Agency (JAEA). Together, they are fast-tracking the development of next-gen nuclear reactors and advanced fuel technology.

The new agreements focus on High-Temperature Gas-Cooled Reactors (HTGRs). These Advanced Modular Reactors (AMRs) can generate both clean electricity and industrial heat. The collaboration also aims to advance coated particle fuel, which enhances reactor safety and performance.

For the UK, this partnership boosts long-term energy security and helps reduce industrial carbon emissions. For Japan, it allows for wider use of HTGR technology, honed over decades of research.

Why the UK Needs More Nuclear Power

Nuclear energy currently makes up about 15% of the UK’s electricity. Most current reactors will retire before the decade ends, creating an urgent need for low-carbon power sources.

  • The UK government aims to increase nuclear capacity to around 24 gigawatts by 2050. This would mean nuclear power could supply roughly a quarter of the nation’s electricity, supporting its net-zero emissions target.
UK nuclear energy
Source: WNA

While large nuclear plants are part of the plan, smaller, more flexible reactors are seen as a way to speed up deployment and cut costs. And this is where Advanced Modular Reactors come in.

Chris Cholerton, Group President, Rolls-Royce, said:

“Our two agreements with UKNNL and JAEA are a milestone moment for the UK’s nuclear sector. Strengthening existing relationships between our nations and combining our broad nuclear capability, they will enable us to jointly address technical challenges and accelerate the development of Advanced Modular Reactors and their advanced coated particle fuel, to deliver industrial growth, skilled jobs and energy security for our nations.”

The Growing Promise of Advanced Modular Reactors

Advanced Modular Reactors are smaller, more flexible, and easier to build than traditional plants. Many parts can be made in factories and assembled on-site, cutting construction risks and speeding up timelines.

High-Temperature Gas-Cooled Reactors are among the most promising AMR designs. Unlike traditional reactors, HTGRs can work at much higher temperatures, producing both electricity and industrial heat.

  • This capability could help decarbonize hard-to-electrify sectors like chemical manufacturing, steel production, and hydrogen generation.

Rolls-Royce views HTGR technology as a natural fit for its growing nuclear portfolio. The company is already developing Small Modular Reactors (SMRs) in the UK and plans to enter the advanced reactor market.

While HTGRs and SMRs differ in design and output, both benefit from modular construction, improving project certainty and lowering costs.

Coated Particle Fuel (CPF) Could Be the Key

A major focus is on developing coated particle fuel (CPF), a specialized fuel for HTGRs.

CPF is one of the most advanced nuclear fuel technologies today. Each small uranium particle is surrounded by protective layers that contain radioactive materials even in extreme conditions. This design improves reactor safety and allows for very high operating temperatures.

HTGR japan nuclear reactor
Source: Japan Atomic Energy Agency

The partners will collaborate on:

  • Fuel qualification
  • Manufacturing processes
  • Supply chain development

Most importantly, a reliable fuel supply chain will be crucial for the success of HTGR projects in both the UK and Japan.

More Than Just Clean Electricity

HTGR technology offers benefits beyond power generation.

  • These reactors can provide heat and electricity, making them suitable for various applications.
  • This includes industrial facilities, hydrogen production, remote energy systems, and critical infrastructure.

The partnership also plans to create new manufacturing jobs, boost research cooperation, enhance access to specialized facilities, and strengthen local nuclear supply chains

Furthermore, knowledge gained from UK licensing and deployment could help Japan’s HTGR projects. Similarly, Japan’s years of reactor experience can help reduce risks for the UK.

This exchange of expertise could shorten deployment times and strengthen both countries in the advanced nuclear sector.

Building on Existing UK-Japan Nuclear Cooperation

These new agreements build on years of collaboration between JAEA and UKNNL.

Since 2022, the UK government has backed HTGR development through its Advanced Modular Reactor Research, Development, and Demonstration Programme. This initiative has funded reactor design studies, fuel development, engineering assessments, and licensing activities to prepare the technology for commercial use.

  • Both JAEA and UKNNL have been key players in these programs, laying the groundwork for HTGRs.

The UK has also launched its Advanced Nuclear Framework to attract private investment in innovative nuclear technologies. Rolls-Royce is interested in deploying HTGRs under this framework, seeing collaboration with UKNNL and JAEA as a way to speed up commercialization.

Thus, the partnership aims to move the technology from research to real-world use.

A New Chapter for Nuclear Energy

Governments worldwide are increasingly turning to advanced nuclear technologies for energy security and to cut greenhouse gas emissions.

  • Analysts have projected that the global advanced nuclear power market was valued at $17.2 billion in 2024 and could reach $39.2 billion by 2033, growing at a 9.7% CAGR during the forecast period.
advanced nuclear market size
Source: Research Intelo

HTGRs stand out for combining reliable power generation, industrial heat production, and strong safety features in one platform. These advantages make them appealing for industries seeking alternatives to fossil fuels.

For Rolls-Royce, these agreements are a chance to expand beyond SMRs and play a larger role in the nuclear market. For the UK, they support building a secure, low-carbon energy system. For Japan, they paved the way for bringing years of HTGR research closer to commercial use.

As countries seek practical solutions for net-zero emissions, partnerships like this could help turn advanced nuclear technologies into real-world clean energy projects.

Top 3 Uranium Stocks in 2026 Riding the Nuclear Energy Boom

Saptakee S
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Top 3 Uranium Stocks in 2026 Riding the Nuclear Energy Boom

For years, nuclear power struggled with public opposition, project delays, and competition from cheaper natural gas. Today, the picture looks very different.

Countries worldwide are seeking dependable, clean energy sources that can operate around the clock. Unlike solar and wind, nuclear plants generate electricity regardless of weather conditions.

The push to cut emissions while maintaining grid reliability has placed nuclear energy back at the center of energy policy discussions. More than 30 countries have endorsed efforts to significantly expand nuclear capacity by 2050, while major technology companies are exploring nuclear power to meet the massive energy needs of AI-driven data centers.

This renewed interest is creating a favorable environment for uranium producers, and uranium stocks are becoming more attractive to investors.

Uranium Prices Remain Supported by Tight Supply

Uranium prices have experienced strong volatility over the past several years, but the long-term trend remains positive.

According to Trading Economics, uranium recently traded around $85 per pound, significantly above pre-2021 levels. Prices have risen more than 18% year over year despite some short-term fluctuations.

uranium prices
Sources: Trading Economics

Industry reports show that spot uranium prices moved above $100 per pound earlier in 2026 before easing back. Long-term contract prices remain strong as utilities secure future fuel supplies.

The key reason is simple: demand is growing faster than supply.

Uranium Demand Is Expected to Climb for Decades

The World Nuclear Association estimates global reactor requirements at roughly 68,920 tonnes of uranium in 2025. Under its reference scenario, demand could exceed 150,000 tonnes by 2040, more than doubling over the next 15 years.

Uranium demand

Another industry forecast projects uranium demand increasing by about 28% between 2023 and 2030, followed by further growth during the following decade.

Several trends are driving this expansion:

  • New nuclear reactors under construction
  • Life extensions for existing plants
  • Growth in SMRs
  • Rising electricity consumption from AI and data centers
  • National energy security initiatives

Global nuclear generation reached record levels in 2025, highlighting the sector’s growing importance in the energy transition.

Supply Challenges Continue

While demand is rising, uranium supply remains constrained.

Years of underinvestment following the Fukushima accident reduced exploration spending and delayed mine development. Although prices have improved, bringing new mines into production takes years.

The United States illustrates the challenge clearly. As per EIA data:

  • U.S. uranium concentrate (U₃O₈) production reached 1.04 million pounds in Q4 2025. Production jumped 217% from 329,623 pounds in Q3 2025.
eia uranium supply
Source: EIA

The sharp increase shows that U.S. uranium production is recovering as nuclear fuel demand grows. However, the country uses more than 50 million pounds of uranium each year. Domestic production still falls far short of demand, leaving utilities dependent on imports and existing stockpiles.

Meanwhile, enrichment companies are expanding capacity to meet future demand. In June 2026, Urenco announced plans to increase enrichment capacity at its U.S. facility by nearly 50%, signaling confidence in long-term nuclear growth.

Against this backdrop, uranium-focused companies may benefit from higher prices and stronger contracting activity.

Top 3 Uranium Stocks to Buy Now as Nuclear Power Demand Grows

In the current uranium market, many investors view uranium stocks as a way to benefit from the long-term growth of nuclear power. According to analysts, here are the top 3 uranium companies to watch in 2026.

Cameco (NYSE: CCJ)

Cameco is one of the world’s largest uranium producers and a key supplier of nuclear fuel. The company has built a strong position in the global nuclear industry through its mining operations and long-term customer relationships.

CCJ shares recently traded near $101, well below their 52-week high of $135.24. Despite the recent pullback, the stock remains up nearly 50% over the past year, showing strong investor confidence in the uranium sector.

cameco stock ccj shares

  • Cameco reported solid first-quarter 2026 results. Revenue from its uranium segment reached $510.5 million, while uranium sales volumes increased 13% from a year earlier. Adjusted net earnings rose to $145.6 million, and net income climbed 87% to $93.8 million.
  • It plans to deliver between 29 million and 32 million pounds of uranium in 2026 at average realized prices of $85 to $89 per pound.
cameco
Source: Cameco

One of Cameco’s biggest strengths is its long-term contract portfolio. The company has around 230 million pounds of uranium committed under long-term agreements. These contracts provide steady cash flow and reduce the impact of short-term price swings.

Why Investors Should Consider Cameco

  • Strong revenue and earnings growth
  • Large portfolio of long-term uranium contracts
  • Global leadership position in uranium production
  • Additional growth opportunities through Westinghouse (owns 49% stake)
  • Well-positioned to benefit from expanding nuclear capacity worldwide

Centrus Energy (NYSE: LEU)

Centrus Energy operates in a different but equally important part of the nuclear fuel supply chain. The company enriches uranium, a critical step before the fuel can be used in reactors.

It is currently the only U.S.-based commercial uranium enrichment company, giving it a strategic role in America’s efforts to build a domestic nuclear fuel supply chain.

The LEU stock recently traded around $162, significantly below its 52-week high of $464.25. While the shares have been volatile, the company continues to deliver strong financial performance.

centrus energy LEU stock
Source: Yahoo Finance

During the first quarter of 2026, Centrus reported revenue of $76.7 million, up 5% from the same period last year. Adjusted diluted earnings per share came in at $1.05, well above analyst expectations.

Centrus Energy Q1 2026 Results

centrus energy revenue
Source: Centrus Energy

Much of the growth came from the company’s Technical Solutions segment. Revenue from this business increased 47% as demand grew for High-Assay Low-Enriched Uranium (HALEU), a specialized fuel expected to power many advanced reactors and small modular reactors in the future.

Centrus also reported approximately $1.87 billion in cash and raised its full-year revenue forecast to between $450 million and $500 million.

The company has built a backlog of roughly $3.8 billion extending through 2040. This includes a $900 million HALEU-related task order from the U.S. Department of Energy.

Why Investors Should Consider Centrus Energy

  • Only commercial uranium enrichment company in the United States
  • Strong earnings growth and improving revenue
  • Growing demand for HALEU fuel
  • Multi-billion-dollar contract backlog
  • Potential beneficiary of U.S. nuclear fuel security initiatives

Energy Fuels (NYSE American: UUUU)

Energy Fuels is one of the most interesting uranium stocks because it is not just a uranium company. It also has a growing rare earth business, giving investors exposure to two major themes: nuclear energy and critical minerals.

UUUU stock recently traded around $15 per share. It’s below its 52-week high of $27.90. Despite the pullback, the stock remains up sharply from about $5.24 a year ago.

uuuu stock energy fuels
Source: Yahoo Finance

Recent Revenue Highlights 

  • Revenue increased to $35.8 million, more than double the $16.9 million reported a year earlier.
  • Uranium revenue reached $35.7 million.
  • The company reduced its net loss to $10.8 million, compared with a loss of $26.3 million in Q1 2025.
  • Working capital grew to approximately $956.6 million, giving the company a very strong balance sheet.

The company is one of the leading uranium producers in the United States and owns the White Mesa Mill in Utah. This facility is the only operating conventional uranium mill in the country and plays an important role in the domestic nuclear fuel supply chain.

Unlike many uranium producers, Energy Fuels has expanded into rare earth elements. These materials are used in electric vehicles, wind turbines, advanced electronics, and defense technologies.

This diversification gives the company another avenue for growth while still allowing investors to benefit from rising uranium demand.

In its latest quarterly update, Energy Fuels continued advancing uranium production and expanding its rare earth processing business.

  • It expects to produce about 1.6 million pounds of finished U₃O₈ in the first half of 2026. It will keep the track to meet its full-year production target of 1.5 million to 2.5 million pounds.

This opens the door for investors in its future growth opportunities.

energy fuels
Data Source: Energy Fuels

Moreover, as governments work to reduce dependence on foreign supplies of critical minerals, Energy Fuels could benefit from both uranium and rare earth demand growth.

Why Investors Like Energy Fuels

  • Exposure to rising uranium demand from nuclear power growth.
  • The only operating conventional uranium mill in the U.S.
  • Nearly $1 billion in liquidity supports future growth projects.
  • Expanding the rare earth business provides a second growth engine.
  • Benefits from U.S. efforts to build domestic critical mineral supply chains.
  • Strong uranium production growth in 2026

The Bottom Line

The long-term outlook for uranium remains strong. Governments need reliable, low-carbon electricity to support economic growth and climate goals. Nuclear power is increasingly becoming part of that solution.

Cameco offers investors exposure to a global uranium leader with strong contracts and growing earnings. Centrus Energy provides a unique opportunity in uranium enrichment and advanced nuclear fuels. Energy Fuels combines uranium production with rare earth processing, giving investors exposure to two important energy-transition markets.

As nuclear power gains momentum worldwide, these three companies are among the best-positioned stocks to benefit from the next phase of uranium market growth.

Google and American Airlines Sign Record 35M Gallon SAF Deal to Cut Aviation Emissions

Jennifer L
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Google and American Airlines Sign Record 35M Gallon SAF Deal to Cut Aviation Emissions

Google and American Airlines have signed a major sustainable aviation fuel (SAF) agreement that could help reduce emissions from air travel. The deal covers 35 million gallons (132 million liters) of SAF over three years. It is the largest publicly announced sustainable aviation fuel certificate (SAFc) agreement between an airline and a single corporate customer so far.

The two companies estimate the agreement will reduce nearly 300,000 metric tons of carbon dioxide equivalent (CO2e) emissions.

The partnership arrives when airlines and large corporations face growing pressure to cut emissions. Air travel demand continues to rise, but so does the need to lower its environmental impact.

For both Google and American Airlines, the agreement supports broader climate goals. It also shows how companies are working together to help expand the market for cleaner aviation fuels.

Why SAF Has Become Aviation’s Best Near-Term Climate Solution

Aviation is one of the hardest industries to decarbonize. Most commercial aircraft need energy-dense fuels to fly long distances. Current battery and hydrogen technologies cannot yet replace jet fuel for many routes. Because of this, SAF has become one of the most important tools for reducing aviation emissions.

According to American Airlines, SAF can lower lifecycle greenhouse gas emissions by up to 80% compared with conventional jet fuel, depending on the feedstock and production process. The fuel used under this agreement will be made from waste-based materials such as used cooking oil.

Another advantage is that SAF can be blended with traditional jet fuel and used in today’s aircraft. Airlines do not need to replace fleets or build entirely new fueling systems. This makes SAF one of the fastest ways to reduce emissions from flying while longer-term technologies continue to develop.

The aviation sector currently produces about 2% to 3% of global carbon dioxide emissions. At the same time, it supports more than 86 million jobs worldwide and generates over $4 trillion in economic activity each year.

This creates a difficult challenge. The industry must continue supporting global travel and trade while reducing its carbon footprint.

  • The International Air Transport Association (IATA) report shows that SAF could account for about 65% of the emissions cuts the sector needs to reach net zero by 2050.
SAF for net zero aviation
Source: IATA

Inside the Record-Breaking 35-Million-Gallon Deal

Under the agreement, American Airlines will purchase and use SAF at Chicago O’Hare International Airport. Google will receive the environmental benefits through the SAFc Registry using a system known as “book-and-claim.”

In simple terms, American Airlines uses the fuel, while Google claims the emissions reductions linked to that fuel purchase.

This model is becoming more common in the aviation sector. It allows companies to support SAF production even when the fuel is not physically used on their own flights.

The agreement also helped American Airlines secure a new SAF supply deal with Valero Marketing and Supply Company. Long-term commitments like this are important because they give fuel producers greater confidence to invest in new SAF production capacity.

The project also received support from Illinois’ SAF tax credit program, which helped improve its economics.

How Google Uses Buying Power to Scale Cleaner Aviation

The agreement fits into Google’s broader climate strategy. The tech giant has committed to reaching net-zero emissions across its operations and value chain by 2030. The company plans to achieve this through deep emissions cuts and investments in carbon removal.

google net zero 2030
Source: Google

It is also working toward a goal of operating on 24/7 carbon-free energy by 2030. This means matching its electricity use with carbon-free energy every hour of every day.

Google has already become one of the world’s largest corporate buyers of renewable energy. However, business travel remains one of the harder emissions sources to address.

SAF offers a practical way to reduce emissions linked to employee travel while helping increase demand for cleaner aviation fuels. By signing a long-term agreement, Google is helping create a stronger market signal for fuel producers and investors.

That support is important because SAF production remains limited compared with global demand for jet fuel.

In recent years, Google has expanded its support for climate solutions beyond its own operations. These efforts include renewable energy, carbon removal, and cleaner transportation technologies.

American Airlines’ Multi-Pronged Strategy to Cut Flight Emissions

For American Airlines, SAF remains a key part of its climate strategy. The airline has invested in cleaner fuels, newer aircraft, operational improvements, and other technologies aimed at reducing emissions. It seeks to achieve net-zero emissions by 2050. 

American Airlines carbon footprint pathway
Source: American Airlines

Jill Blickstein, Chief Sustainability Officer at American Airlines, remarked:

“Our industry-leading agreement with Google is a critical step forward in reducing emissions from our operations. By working with leaders like Google who share our commitment to innovation, we’re helping to grow demand for SAF and support the development of a stronger, more resilient market.”

Modern aircraft use less fuel and produce fewer emissions than older models. As a result, fleet renewal remains an important part of the airline’s environmental efforts. The company has also explored other ways to reduce aviation’s climate impact.

Earlier this year, American Airlines worked with Google, Contrails.org, and Flightkeys on a 16-week trial focused on reducing contrails. These are the cloud-like trails that form behind aircraft and can contribute to warming. According to American Airlines, the project reduced contrail formation by 62% during the trial period.

The SAF agreement builds on these efforts by targeting emissions from fuel use, which make up the largest share of an airline’s carbon footprint.

The Supply Crunch Facing Sustainable Aviation Fuel

The Google-American Airlines deal reflects a broader trend across the aviation industry. Governments, airlines, corporations, and investors are increasingly supporting SAF as a key climate solution.

However, supply remains limited. SAF also costs more than conventional jet fuel, making large-scale adoption more challenging. Industry groups and airlines have repeatedly said that more investment is needed to increase production.

SAF supply forecast 2030

Long-term agreements like this one help address that challenge. They give producers greater certainty that demand will be there before they invest in new facilities and equipment.

Corporate buyers are playing a growing role in this process.

Through SAF certificates, companies can help support cleaner aviation even if they do not operate aircraft themselves. This allows businesses to address emissions linked to employee travel while helping expand the SAF market.

As more companies adopt net-zero targets, demand for sustainable aviation fuel is expected to continue growing.

A Growing Model for Climate Partnerships

The agreement between Google and American Airlines highlights a larger shift in corporate climate action. The record-setting 35-million-gallon agreement is important not only because of its size, but also because it shows how corporate buyers can help accelerate cleaner aviation.

The deal suggests that SAF will play a growing role in the industry’s path toward lower-carbon air travel.

For Google, the deal supports progress toward its climate goals. For American Airlines, it advances efforts to reduce emissions and expand SAF use.

For the aviation sector, it offers another example of how partnerships can help turn climate commitments into measurable action and help cut airlines’ environmental footprint. 

Blue Carbon Market Set to Triple by 2035 Fueled by Mangroves Restoration and Corporate Demand

Saptakee S
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Blue Carbon Market Set to Triple by 2035 Fueled by Mangroves Restoration and Corporate Demand

As governments and companies strive to meet climate goals, blue carbon credits are gaining traction. These credits come from coastal ecosystems like mangroves, seagrasses, and salt marshes. They are quickly becoming a key part of the global carbon market.

These ecosystems cover less than 2% of the ocean’s surface but account for nearly half of marine carbon burial. They capture carbon, protect coastlines, and support biodiversity. This makes them crucial for climate efforts.

Market forecasts from IndexBox indicate that the global blue carbon market is expected to grow. It will have a compound annual growth rate (CAGR) of 11% from 2026 to 2035. Starting from a 2025 index value of 100, the market could reach about 285 by 2035.

Market forecast of the global blue carbon market

blue carbon market
Source: IndexBox
  • In contrast, Grand View Research gives a bolder estimate. They project the market will grow from $3.1 million in 2026 to $14.8 million by 2033. That’s a CAGR of 25%.

mangrove

This growth shows a rising demand for high-quality carbon credits. It also highlights a greater awareness of nature-based climate solutions.

Why Blue Carbon Is Becoming So Valuable

Blue carbon ecosystems provide multiple benefits beyond carbon storage.

Mangrove forests protect coastal communities from storms and flooding. Seagrass meadows support marine life and fisheries. Salt marshes improve water quality and store carbon for long periods.

These benefits make blue carbon credits attractive in the voluntary carbon market. Companies in aviation, technology, finance, and shipping are buying these credits to support their net-zero goals. Buyers now seek measurable benefits in biodiversity, community support, and resilience.

This shift has created a supply-demand imbalance. The demand for verified blue carbon credits exceeds supply, keeping prices high.

Mangroves Lead the Market While Seagrasses Gain Momentum

  • Currently, mangrove projects dominate the blue carbon market. Estimates suggest that mangroves accounted for about 68% of market revenue in 2025.
  • Their strong position comes from their excellent carbon storage and proven restoration techniques.

Large-scale mangrove restoration projects are expanding in Indonesia, the Philippines, Malaysia, Brazil, Colombia, Kenya, and Tanzania. These regions provide great chances for restoration at lower project costs.

Seagrasses are emerging as a fast-growing segment. Scientists recognize seagrass meadows as powerful carbon sinks. With better measurement technologies, investment in seagrass restoration is expected to rise in the next decade.

As a result, market growth is diversifying across different coastal ecosystems.

blue carbon mangrove

Voluntary Carbon Markets Remain the Main Growth Engine

The voluntary carbon market (VCM) is the largest source of demand for blue carbon credits. IndexBox estimates show that voluntary markets represent about 45% of the total market value. Companies use these credits to meet climate commitments and offset emissions.

vcm blue carbon
Source: IndexBox

Buyers are becoming more selective. High-integrity credits that provide verified environmental and social benefits are gaining attention. This trend has led to the rise of carbon credit rating agencies like Sylvera and BeZero, which assess project quality.

Forward purchase agreements are also becoming common. In these agreements, companies commit to buying future credits, helping project developers fund restoration efforts.

As a result, voluntary carbon markets are evolving into a sophisticated climate finance system.

Asia-Pacific Dominates Global Supply

Asia-Pacific leads the global blue carbon market, accounting for about 39% of the market value in 2025. Some estimates suggest its broader market influence could be as high as 45%.

The region has extensive mangrove ecosystems, especially in Indonesia, Malaysia, and the Philippines. Government restoration programs and international funding have sped up project development.

Demand in the region is growing, too. Companies in Japan, Australia, and Singapore are increasingly purchasing blue carbon credits to meet sustainability goals.

  • North America is also a key demand center, making up about 20% of the market. Corporate buyers in the U.S. and Canada drive credit purchases, while restoration projects expand along the Gulf Coast and Pacific Northwest.
  • Europe holds about 18% of the market share. This is due to strong ESG regulations and corporate climate commitments. At the same time, Latin America and Africa are emerging as key supply regions. Their coastal ecosystems and increasing restoration efforts drive this growth.
blue carbon asia pacific
Source: IndexBox

Policy Support Could Unlock the Next Growth Phase

Government policies may drive significant growth in the coming decade.

Most blue carbon credits are currently traded in voluntary markets. However, policymakers are exploring ways to include blue carbon in compliance systems. Future linkages with international mechanisms like CORSIA could boost demand.

The market outlook shows gradual integration. However, regulatory support is getting better. Countries are adding blue carbon ecosystems to their Nationally Determined Contributions (NDCs) under the Paris Agreement. New standards under the Verified Carbon Standard (VCS) and Plan Vivo are creating clearer methods.

The Integrity Council for the Voluntary Carbon Market (ICVCM) is also enhancing quality standards through its Core Carbon Principles. These efforts aim to improve transparency and increase buyer trust.

Challenges Still Limit Market Expansion

Despite promising growth, several challenges hinder market development.

Project developers face high initial costs for restoration, monitoring, and long-term management. Securing permits and resolving land ownership issues can also delay projects.

Measurement, reporting, and verification (MRV) remain complicated, especially for new ecosystem types and remote areas.

Ecosystem degradation, coastal development, and climate risks can affect long-term carbon storage. Many developing regions struggle with a lack of technical expertise and funding, which may slow project expansion despite growing demand.

Thus, supply shortages are expected to continue, supporting higher credit prices.

Technology and Finance Are Creating New Opportunities

Emerging trends could speed up market growth. Advances in satellite monitoring, remote sensing, and digital MRV systems are making carbon measurement more precise and affordable. Greater transparency can boost investor confidence and lower project risks.

Blended finance models are also attracting more participants, including governments and private investors. Public-private partnerships are funding large-scale restoration projects and easing financial barriers for developers.

  • Carbon pricing systems are adding momentum to the market. Global carbon pricing generated over $100 billion in revenue in 2024, signaling strong demand for carbon reduction and removal solutions.

These trends are likely to create new revenue streams and expand investment opportunities across the blue carbon value chain.

Blue Carbon Market Offers a Critical Climate Solution for the Decade Ahead

The blue carbon market lies at the crossroads of climate action, biodiversity conservation, and sustainable development.

Corporate demand is rising, climate policies are supportive, and technology is advancing. These factors drive future growth. Challenges still exist in project development and ecosystem protection, but the long-term outlook is bright.

As companies aim for net-zero goals and governments tighten climate policies, blue carbon projects may provide a key source of reliable carbon credits in the next decade. These projects also offer more than just carbon removal. Restoring mangroves, seagrasses, and salt marshes protects coastlines, supports communities, preserves biodiversity, and boosts resilience against climate change.

Microsoft Scales Net-Zero Strategy With Major Carbon Removal Deal and 260 MW Solar Expansion

Jennifer L
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Microsoft Scales Net-Zero Strategy With Major Carbon Removal Deal and 260 MW Solar Expansion

Microsoft is scaling up its climate strategy with two parallel moves: expanding clean energy and buying more carbon removal. Recent agreements with MN8 Energy and Alt Carbon show how the company is combining renewable power and carbon removal to support its long-term net-zero goals.

The approach reflects a wider shift in corporate climate action, where emissions cuts alone are no longer seen as enough. 

Microsoft’s Dual Net-Zero Strategy: Reduce Emissions, Then Remove What’s Left

Microsoft has one of the most ambitious climate roadmaps in the corporate world. In 2020, the company set two major goals.

First, it aims to become carbon negative by 2030. This means it plans to remove more carbon than it emits each year. Second, it pledged to remove all historical emissions—both direct and electricity-related—since its founding in 1975 by 2050, according to its sustainability framework.

Microsoft emissions
Source: Microsoft

These targets place Microsoft in a small group of companies attempting not just to reduce emissions, but to reverse them over time.

But the challenge has grown more complex. The rapid rise of artificial intelligence (AI) and cloud computing has increased energy demand across Microsoft’s global data center network. This has made both clean electricity and carbon removal more important than ever.

260 MW of New Solar Power Expands Clean Energy Portfolio

Microsoft’s latest renewable energy deal adds 260 megawatts (MW) of solar capacity through MN8 Energy projects in the United States. The portfolio includes:

  • 120 MW Long Point Solar in Texas
  • 140 MW American Beech Solar in North Carolina

Both projects are now operational and deliver electricity through long-term power purchase agreements. These projects feed into two major U.S. power markets.

Long Point supports the ERCOT Houston load zone in Texas. Meanwhile, American Beech supplies the PJM Interconnection, which serves much of the eastern United States.

Microsoft already operates one of the largest corporate renewable energy portfolios globally. According to its sustainability reporting, it has 40 gigawatts (GW) of contracted capacity across 26 countries. This scale puts Microsoft among the world’s largest corporate buyers of clean electricity.

Microsoft clean energy portfolio

Beyond emissions reduction, the projects also support local economies. MN8 Energy reports that each project created hundreds of construction jobs and will generate long-term tax revenue for host communities.

Moe Hanifi, SVP, Head of Revenue and Commodities at MN8 Energy, remarked:

“As digital infrastructure scales across the U.S., energy solutions must scale with it. These projects deliver new capacity to two critical power markets while helping Microsoft achieve their energy goals.”

Clean Energy Alone Is Not Enough for Fast-Growing AI Demand

Microsoft’s renewable energy push is closely tied to the growing electricity needs of digital infrastructure.

Data centers already consume a significant share of global electricity. In the United States, they account for over 4% of total electricity use, according to recent energy studies. This share is expected to rise as AI workloads expand.

Microsoft has reported that its Scope 1 and Scope 2 emissions fell 6.3% from its 2020 baseline, showing progress in direct operational emissions. However, supply chain emissions (Scope 3) remain a major challenge, especially as hardware demand for AI increases.

This creates a structural tension. Even as efficiency improves, overall electricity demand continues to grow. That is why Microsoft is pairing renewable energy procurement with longer-term carbon removal strategies.’

Carbon Removal Investment Hits 45 Million Tons

Alongside clean energy expansion, Microsoft is one of the world’s largest corporate buyers of carbon removal credits.

In fiscal year 2023, the company contracted more than 5 million metric tons of carbon removal, with delivery spread over the next 15 years. That amount rose to 800% or 9x more in 2025 to 45 million metric tons. 

Microsoft carbon removals by the numbers 2025

Its portfolio includes multiple carbon removal approaches:

  • Direct air capture,
  • Bioenergy with carbon capture, 
  • Reforestation and afforestation, 
  • Soil carbon projects, and
  • Enhanced rock weathering.

One of its largest agreements includes a purchase of more than 7 million tons of credits from Chestnut Carbon’s U.S. afforestation projects. It also signed a major deal for 2.85 million soil carbon credits with Indigo Ag (Indigo Carbon).

This positions Microsoft as a key early buyer in a still-developing global carbon removal market. The sector remains small today, but it is expanding as companies search for ways to address hard-to-abate emissions.

First Enhanced Rock Weathering Deal Expands Into Asia

Microsoft’s latest agreement with Alt Carbon marks an important geographic and technological expansion. The deal will remove 36,920 metric tons of carbon dioxide using enhanced rock weathering (ERW) in India. This is Microsoft’s first ERW carbon removal project in Asia.

Phil Goodman, Program Director, Carbon Removal at Microsoft, said:

“Our contract with Alt Carbon for high-quality carbon removal uses field deployments to collect primary and secondary quantification methods for carbon quantification, while using a high standard to safeguard against environmental impacts. We are encouraged by Alt’s efforts to build durable carbon removal capacity in India given their past success in delivering carbon credits.”

ERW works by spreading crushed basalt rock on farmland. When rainwater and carbon dioxide interact with the rock, they form stable compounds that lock carbon away for long periods. The method is based on natural geological processes but is accelerated for climate use.

Alt Carbon enhanced rock weathering ERW

The project is part of Alt Carbon’s Darjeeling Revival initiative in West Bengal. It spans more than 80,000 acres of farmland and involves over 35,000 farmers. The agreement also includes an option for Microsoft to scale up purchases if the project meets future delivery and verification standards.

This deal highlights a broader trend: carbon removal supply is increasingly coming from the Global South. Alt Carbon estimates that suppliers in these regions now account for about 26% of carbon removal credit issuance, up from around 2% in 2022.

A “Reduce and Remove” Model Is Emerging Across Corporates

Microsoft’s latest deals reflect a wider shift in corporate climate strategies. Companies are increasingly adopting a dual approach:

  • Reduce emissions through renewable energy and efficiency.
  • Remove emissions through carbon removal technologies.

This combined model is becoming more common as net-zero deadlines approach across industries. At the same time, investors and regulators are pushing for more transparent emissions reporting. Companies are now expected to show measurable progress, not just long-term commitments.

As a result, climate strategies are becoming more data-driven, more diversified, and more dependent on long-term carbon accounting.

The Road Ahead: Multiple Solutions, One Target

Microsoft’s recent investments underline a key reality of corporate climate action: there is no single solution to net zero.

Solar power helps reduce emissions from electricity use. Carbon removal addresses emissions that cannot yet be avoided. Together, they form a more complete climate strategy.

The company’s 260 MW solar expansion strengthens its clean energy base in fast-growing U.S. power markets. Its 36,920-ton carbon removal deal in India expands its global portfolio of engineered and nature-based solutions.

Taken together, these moves show how large companies are reshaping their climate strategies. Instead of relying on one tool, they are building layered approaches that combine clean energy, new technologies, and carbon removal.

For Microsoft, this is part of its long-term net-zero roadmap. For the wider corporate world, it reflects where climate strategy is heading next.

Canada’s $4.7 Trillion Infrastructure Challenge: Can Faster Permits Unlock a Critical Minerals Boom?

Saptakee S
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Canada’s $4.7 Trillion Infrastructure Challenge: Can Faster Permits Unlock a Critical Minerals Boom?

Canada stands at a crossroads. The country possesses vast reserves of critical minerals, abundant energy resources, and a strong reputation as a reliable supplier to global markets. Yet a new report prepared by Oxford Economics for PwC warns that the country could lose its competitive edge. Thus, faster infrastructure development and quicker project approvals are needed to attract investment, clean energy projects, and critical mineral supply chains.

According to the forecasts, Canada will require roughly $4.7 trillion in infrastructure investment by 2050. The spending will support everything from roads, bridges, ports, and water systems to hospitals, defense facilities, power infrastructure, data centers, and mining projects.

The report argues that infrastructure is no longer simply about maintaining public assets. It has become a key driver of economic growth, energy security, trade competitiveness, and national sovereignty.

Infrastructure Spending Set to Rise, But Gaps Remain

Canada currently ranks among the world’s largest infrastructure investors, spending about $145 billion annually. By 2050, that figure is expected to climb to approximately $210 billion per year, representing a 45% increase.

While that growth appears significant, PwC notes that Canada still trails many leading economies when infrastructure spending is measured as a share of GDP.

canada infrastructure spending
Source: PwC Report

Canada invests about 6.6% of its GDP in infrastructure today, compared with an average of 7.4% among top-performing countries. Closing that gap would require roughly $34 billion in additional annual investment by mid-century.

PwC emphasizes that future outcomes remain uncertain. Canada could surpass current forecasts if governments and industry act decisively. However, delays in decision-making and project development could leave the country behind as global competition intensifies.

The stakes are particularly high as nations race to secure critical mineral supplies, strengthen energy systems, and build the infrastructure needed for artificial intelligence, advanced manufacturing, and defense.

Critical Minerals Drive Canada’s Biggest Opportunity

Resource infrastructure will remain the largest category of Canada’s infrastructure spending over the next 25 years.

Annual investment in facilities supporting mining, energy production, mineral processing, and transportation is projected to increase from approximately $53 billion today to $63 billion by 2050. Cumulatively, that represents nearly $1.6 trillion in spending.

canada mining investment
Source: PwC report

Several factors are fueling this growth.

  • Global demand for critical minerals continues to rise as countries expand electric vehicle production, battery manufacturing, renewable energy systems, and defense technologies.
  • At the same time, geopolitical tensions are encouraging Western economies to diversify supply chains away from heavily concentrated suppliers.

Canada can significantly benefit from these trends.

The country currently produces more than 60 minerals and metals and remains a leading global supplier of nickel, potash, aluminum, and uranium. Canada has also identified 31 minerals as strategically important under its Critical Minerals List.

To qualify as a critical mineral, a resource must support Canada’s economic security, contribute to the low-carbon transition, or serve as a reliable supply source for allies and trading partners.

Government incentives are also helping attract investment. Tax credits and other support programs encourage companies to develop clean-technology manufacturing facilities and critical-mineral processing operations across the country.

CANADA INVESTMENTS
Source: Govt of Canada

Ring of Fire Highlights Infrastructure Challenge

Despite Canada’s vast resource potential, many opportunities remain difficult to develop because supporting infrastructure is missing.

PwC points to Ontario’s Ring of Fire as one of the clearest examples. The mineral-rich region contains significant deposits of nickel, chromite, copper, and other critical minerals. However, large-scale development requires much more than mines alone.

Roads, electricity transmission lines, digital connectivity, and community infrastructure must all be built simultaneously before production can begin at scale.

The report argues that future competitiveness increasingly depends on integrated infrastructure systems rather than isolated projects. Mining operations, processing facilities, transportation networks, and energy systems must advance together to unlock economic value.

Without coordinated development, Canada risks missing opportunities as investors seek jurisdictions capable of moving projects forward more quickly.

North America’s Critical Minerals Market Continues to Expand

North America is expected to play an increasingly important role in global critical mineral supply chains over the coming decades.

IEA forecasts suggest the market value of North America’s energy mineral production could reach approximately $30 billion for mining activities and $14 billion for refining operations by 2040.

Growth will come from multiple sources, such as:

  • Copper production is expected to expand significantly in the United States and Mexico, while Canada is positioned to benefit from rising lithium and nickel output.
  • On the refining side, Canadian facilities are expected to strengthen their role in processing copper and nickel for domestic and international markets.

These developments help Western countries secure critical mineral supplies and reduce their reliance on a few major suppliers.

canada crirical minerals
Source: IEA

Defense Spending Emerges as a Major Growth Driver

The fastest-growing infrastructure category in Canada is defense.

PwC projects defense-related infrastructure investment will surge by nearly 389% between 2024 and 2050. The forecast aligns with Canada’s commitment to increase spending on defense and security by an additional 1.5% of GDP.

Many defense investments provide benefits beyond military applications. Airports, ports, communications networks, transportation corridors, and energy infrastructure can serve both national security and civilian economic needs.

As a result, defense spending could become a key catalyst for broader infrastructure modernization nationwide.

Canada Risks Falling Behind in Strategic Sectors

Although resource projects dominate Canada’s investment outlook, PwC warns that excessive concentration could create long-term vulnerabilities.

By 2050, resource infrastructure is expected to account for roughly 30% of Canada’s total infrastructure spending. Meanwhile, many competing countries are investing aggressively in sectors reshaping the global economy.

Nuclear power illustrates the challenge.

  • Global nuclear infrastructure investment is projected to increase by approximately 45% through 2050.
  • In Canada, however, growth is expected to reach only 11%, despite several major nuclear development projects already underway.

Canada also trails global growth projections in transportation infrastructure.

  • Worldwide investment in ports is expected to rise 73%, compared with 64% in Canada.
  • Airport infrastructure is projected to grow 93% globally versus 78% domestically.

The United States is forecast to outperform Canada in several strategic categories, including nuclear energy, airports, and other high-growth infrastructure segments.

PwC also highlights concerns about Canada’s ability to attract data center investments, where countries such as the United States, the United Kingdom, and Australia are moving rapidly to expand digital infrastructure.

canada investments
Source: PwC Report

Regulatory Delays Remain the Biggest Obstacle

While Canada offers strong mineral resources, political stability, and attractive investment incentives, the report identifies one persistent challenge: lengthy approval processes.

Complex permitting requirements, overlapping regulatory reviews, and extended timelines continue to increase costs and uncertainty for developers.

The federal government has acknowledged the issue, particularly for critical mineral projects that support climate goals and economic growth. Officials have emphasized the need to balance environmental protection, Indigenous engagement, and sustainable development with faster decision-making.

Canada has already introduced several funding programs to accelerate project development, including:

  • A $2 billion Critical Minerals Sovereign Fund
  • Substantial investments through the First and Last Mile Fund.
  • Additional financing support is available through institutions such as the Canada Infrastructure Bank and the Canada Growth Fund.

However, PwC argues that financial support alone will not be enough.

To fully capitalize on its resource wealth and strategic advantages, Canada must modernize approval processes and accelerate infrastructure delivery. Otherwise, competing jurisdictions may capture the investment, jobs, and supply chain opportunities that Canada is well-positioned to secure.

The Race Is On

Canada possesses many of the ingredients needed to become a global leader in critical minerals, clean energy, and strategic infrastructure. Massive mineral reserves, supportive government programs, and growing global demand create a compelling opportunity.

Yet the window may not remain open forever.

The PwC report delivers a clear message: infrastructure investment and permitting reform will determine whether Canada strengthens its competitive position or falls behind countries moving faster to secure the industries of the future.

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