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The rise in global temperatures is a concern that many are taking seriously. Governments, big companies, small businesses, and everyday people are looking for ways to reduce greenhouse gas emissions to lessen climate change risks. One method that’s gaining a lot of attention is using carbon credits. This idea helps provide financial rewards for those who cut down on emissions and support the growth of clean energy sources. This article is the 5th part of our new series based on our 2023 Climate Change and Carbon Markets Annual Report. The series so far includes:

In this post, we’re going to explore the journey of carbon credits from the start with the Kyoto Protocol to now with the Paris Agreement. We’ll look at how global agreements on climate have evolved and how carbon credits play a crucial part in these. Through this discussion, we hope to give a clear picture of how the world is working together to create a sustainable environment for the future.

The Kyoto Protocol: Setting the Stage for Carbon Credits

The Kyoto Protocol, established under the United Nations Framework Convention on Climate Change (UNFCCC) in 1997, marked the inception of formalized global efforts to curb greenhouse gas (GHG) emissions. This landmark treaty set forth binding emissions reduction targets for 37 industrialized nations and the European Union, aiming to reduce emissions to 5% below 1990 levels between 2008 and 2012. A subsequent amendment in 2012 extended these targets to 2013-2020. Central to the Kyoto Protocol was the innovative concept of carbon credits, designed to provide economic incentives for emissions reductions. The Protocol introduced Emissions Trading, the Clean Development Mechanism (CDM), and Joint Implementation (JI), laying the foundation for the global carbon credit framework (see: https://unfccc.int/news/kyoto-protocol-paves-the-way-for-greater-ambition-under-paris-agreement#:~:text=,like%20Germany%20by%2030%20percent).

Key facts:

  • The Kyoto Protocol committed developed countries to emissions reduction targets of 5% below 1990 levels between 2008-2012. This was later extended to 2013-2020 with an amended treaty.
  • The innovative mechanisms introduced included Emissions Trading, CDM, and JI which provided the blueprint for carbon credits trading.

Paris Agreement: A New Dawn in Global Climate Cooperation

The Paris Agreement, adopted in 2015, emerged as a robust successor to the Kyoto Protocol, reflecting a global shift towards more inclusive and ambitious climate action. Unlike the Kyoto Protocol, which placed binding targets on developed countries alone, the Paris Agreement encourages all nations to contribute towards global emissions reduction. This inclusive framework aims to limit global temperature rise to well below 2°C, with an ambition of 1.5°C above pre-industrial levels. The Paris Agreement introduced the Sustainable Development Mechanism (SDM), poised to replace the Kyoto Protocol’s Clean Development Mechanism (CDM), signifying a transformation in the realm of carbon credits and setting a new trajectory for global environmental strategies (see: https://greencoast.org/kyoto-protocol-vs-paris-agreement).

Key facts:

  • The Paris Agreement set a more ambitious goal of limiting global warming to 1.5°C compared to the Kyoto Protocol’s 2°C target.
  • It has a universal framework encouraging all countries to contribute, unlike the Kyoto Protocol’s binding targets just for developed nations.
  • Introduced the SDM to replace the CDM, reflecting an evolution in carbon credits post-Kyoto.

Why Some Countries Opted Out: Economic and Strategic Considerations

The Kyoto Protocol faced resistance from some major emitting countries due to concerns surrounding economic competitiveness and equity. The U.S., citing potential economic drawbacks and the lack of binding commitments on developing countries, chose not to ratify the Protocol. Canada withdrew in 2011, expressing concerns over the Protocol’s ability to effectively address global emissions without the participation of major emitters like the U.S. and China. These decisions underscored the complex interplay of economic, strategic, and environmental considerations that influence international climate agreements and the operationalization of carbon credits (see: https://kleinmanenergy.upenn.edu/news-insights/lessons-learned-from-kyoto-to-paris).

Key facts:

  • The U.S. and Canada opted out due to concerns over economic impacts and equity without developing nations’ commitments.
  • Highlights the strategic considerations alongside environmental ones in climate agreements.

Carbon Credits – A Mechanism to Meet Targets

The Kyoto Protocol introduced pioneering mechanisms like Emissions Trading, the Clean Development Mechanism (CDM), and Joint Implementation (JI) to help nations meet their emissions reduction targets. These mechanisms provided the blueprint for the evolution of the carbon credit system, allowing for the trading of emission allowances and fostering international collaboration on carbon sequestration projects. The Paris Agreement further refined these mechanisms, introducing the Sustainable Development Mechanism (SDM) to build upon the successes and lessons learned from the Kyoto-era mechanisms, thereby enhancing the global carbon credit framework.

Key facts:

  • Emissions Trading, CDM, and JI were introduced under Kyoto as innovative ways to meet reduction targets.
  • Paris Agreement’s SDM builds on these mechanisms to further improve the carbon credits system.

The Decline of the CDM: Transitioning to a New Era

With the advent of the Paris Agreement, the Clean Development Mechanism (CDM) saw a decline in prominence as the Sustainable Development Mechanism (SDM) emerged. This transition reflects the global community’s adaptive approach to evolving environmental challenges. The SDM, with its broader scope and enhanced flexibility, aims to address the shortcomings of the CDM, offering a more robust framework for carbon credit initiatives. The shift from CDM to SDM signifies a continued evolution in the mechanisms governing carbon credits, aligning with the ambitious global climate goals set forth by the Paris Agreement.

Key facts:

  • The CDM is being replaced by the more robust SDM under Paris reflecting an adaptive approach.
  • SDM has a wider scope and flexibility compared to CDM.

Challenges in Participation: Navigating Global Climate Dynamics

The participation challenges faced by the Kyoto Protocol highlight the complexities inherent in global climate agreements. Major emitters like the U.S. and China’s reluctance to commit to binding emissions reduction targets under the Kyoto Protocol underscored the need for a more inclusive approach. The Paris Agreement, with its universal framework for climate action, addresses some of these challenges by encouraging all nations, regardless of their economic status, to contribute towards global emissions reduction. However, the nuances of national and global priorities continue to influence the level of participation and commitment to carbon credit initiatives.

Key facts:

  • Universal participation under Paris was designed to address the lack of major emitters’ commitment under Kyoto.
  • National interests still impact countries’ levels of commitment to climate agreements.

The Role of the International Transaction Log (ITL): Ensuring Transparency and Accountability

The International Transaction Log (ITL) plays a crucial role in the operationalization of carbon credits by ensuring transparency, accountability, and efficiency in carbon credit transactions. Established by the Secretariat of the Conference of Parties, the ITL meticulously records carbon credit transactions, preventing potential issues like double-counting of reductions or the sale of identical credits multiple times. The ITL, by bridging national emissions trading registries and the UNFCCC, exemplifies the global commitment to a transparent and accountable carbon credit system, underpinning the credibility of international emissions trading initiatives.

Key facts:

  • The ITL prevents double-counting and ensures transparency in carbon credits trading.
  • It bridges national registries and UNFCCC to enable international cooperation.

Risks and Mitigation in Carbon Credit Projects: Ensuring Viability and Sustainability

Carbon credit projects, inherent with regulatory and market risks, necessitate robust mitigation strategies to ensure their viability and sustainability. The complexities of regulatory approvals, monitoring actual emissions, and navigating volatile market dynamics pose challenges to carbon credit projects. Leveraging approved CDM technologies and entering into long-term fixed-price contracts can significantly reduce these risks. The evolving carbon credit framework, transitioning from CDM to SDM under the Paris Agreement, reflects a continued effort to address these risks and enhance the sustainability of carbon credit projects.

Key facts:

  • Regulatory and market risks pose viability challenges for carbon credit projects.
  • CDM methodologies and long-term contracts help mitigate risks.

Controversies in Land Use Projects: Navigating Carbon Sequestration Challenges

Land use projects under the Kyoto Protocol aimed at GHG removals and emissions reductions through activities like afforestation and reforestation. However, they faced resistance due to challenges in estimating and tracking GHG removals over extended periods. The complexities of measuring carbon sequestration, particularly in vast forested areas, underscore the controversies and challenges inherent in the carbon credits domain. The Paris Agreement, with its enhanced framework for carbon credit initiatives, offers avenues to address some of these challenges, promoting a more robust and transparent approach to land use projects within the carbon credits framework.

Key facts:

  • Estimating and monitoring carbon sequestration from land use projects is complex.
  • Caused controversies under Kyoto but Paris Agreement provides scope to improve.

Conclusion – Carbon Credits and the Evolution of Global Climate Strategy

The journey of carbon credits, from the early days of the Kyoto Protocol to the transformative era of the Paris Agreement, offers a window into the world’s evolving approach to climate change mitigation. The innovative mechanisms introduced under these agreements have played a pivotal role in shaping the global carbon credit framework. As nations continue to navigate the complex landscape of global climate cooperation, understanding the intricacies of carbon credits remains pivotal in the collective quest for a sustainable future. Through the lens of carbon credits, we witness the global community’s adaptive strategies in the face of evolving environmental challenges, charting a course towards a more sustainable and resilient global climate framework.

Sources and References:

Image credit:

Kelly Sikkema on Unsplash

Carbon Footprint

Boeing Locks in 40,000 Tons of Soil Carbon Removal with Texas-Based Grassroots Carbon

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The aviation industry is under pressure to cut emissions while demand for air travel continues to grow. Against this backdrop, Boeing’s latest agreement with Grassroots Carbon signals a clear shift in how large emitters approach climate action. Instead of relying heavily on traditional offsets, the company is now backing high-quality carbon removal rooted in nature.

This multi-year deal focuses on verified soil carbon removal. It reflects a broader industry trend: moving from compensation to actual carbon removal. More importantly, it connects climate goals with real economic benefits for rural communities.

Boeing’s Shift: From Offsets to Real Carbon Removal

Boeing’s agreement to purchase at least 40,000 metric tons of carbon removal credits marks more than just another sustainability initiative. It shows a deeper transition in its carbon strategy.

Earlier, many companies relied on carbon offsets to balance emissions. However, Boeing has refined its approach. It now follows an “avoid first, remove second” model. This means the company prioritizes cutting emissions directly—through renewable electricity and sustainable aviation fuel—before addressing the remaining footprint.

Targeting Scope 3 Emissions 

Still, not all emissions can be eliminated. Business travel, classified under Scope 3 emissions, remains difficult to reduce. This is where carbon removal comes in. By investing in verified soil carbon credits, Boeing aims to tackle these residual emissions more credibly.

At the same time, this approach aligns with growing scrutiny in voluntary carbon markets. Buyers are increasingly looking for durable, science-backed solutions. Soil carbon, when properly measured and maintained, can meet these expectations.

Boeing emissions
Source: Boeing

Allison Melia, vice president, Global Enterprise Sustainability, Boeing, said:

“We’re proud to work with Grassroots to accelerate carbon-removal technology that will benefit the entire global aviation industry. Enabling the long-term growth of air travel and supporting our airline customers’ emissions reduction targets are key priorities for Boeing.”

Regenerative Ranching: Turning Soil into a Climate Asset

At the core of this agreement lies regenerative ranching—a land management approach that restores ecosystems while capturing carbon.

Unlike conventional grazing, regenerative systems mimic natural herd movements. Ranchers rotate livestock across pastures. This prevents overgrazing and allows vegetation to recover. As a result, plant roots grow deeper and stronger.

This process plays a critical role in carbon sequestration. Through photosynthesis, grasses absorb carbon dioxide from the atmosphere. They then transfer this carbon into the soil through roots and organic matter. Over time, this builds stable soil carbon that can remain stored for decades.

Additionally, grazing itself can enhance this process. When managed properly, it stimulates plant growth and increases carbon storage below ground. Studies suggest these systems can capture between 1 to 5 tons of CO2 per hectare each year.

However, the benefits go beyond carbon. Healthier soils improve water retention, reduce erosion, and support biodiversity. Ranchers also see improved productivity and greater resilience to climate extremes.

This makes regenerative ranching a rare win-win solution. It supports climate goals while strengthening agricultural systems.

Soil Carbon Credits Are Gaining Credibility

Carbon credits often face criticism for lacking transparency or permanence. However, soil carbon credits are evolving quickly.

In this case, credits are generated by tracking changes in soil carbon over time. Projects establish a baseline and then measure improvements driven by regenerative practices. Each credit corresponds to one metric ton of CO2 removed or avoided.

To ensure credibility, projects use a combination of soil sampling, satellite monitoring, and modeling. Independent verification further strengthens trust. Many of these credits meet standards set by leading registries such as Verra and the Climate Action Reserve.

Durability remains a key question. Soil carbon is considered a long-term storage solution, especially when supported by ongoing land management. In many cases, carbon can remain stored for 25 to 100 years or more.

For corporate buyers, this level of integrity is critical. It allows them to make credible climate claims while supporting real-world impact.

agriculture market size

How Grassroots Carbon Is Scaling a Natural Climate Solution

The United States holds a unique advantage in this space. Its grasslands cover roughly 655 million acres—nearly 40% of the country’s land area. These landscapes represent one of the largest untapped carbon sinks.

If managed effectively, they could remove up to 1 billion tons of CO2 equivalent annually. That potential makes soil carbon one of the most scalable nature-based solutions available today.

Grassroots Carbon is working to unlock this opportunity. The company partners with ranchers across more than 2.2 million acres in 22 states. It supports them in adopting regenerative practices while ensuring measurable climate outcomes.

Importantly, the company focuses on scientific rigor. It measures soil carbon directly, often up to one meter deep. Then, independent third parties verify the data using recognized standards. This process ensures that each carbon credit represents real and additional carbon removal.

  • The company has already delivered 1.9 million tons of verified carbon removals. A large portion of these credits has been retired by corporate buyers, reflecting strong market demand.

This scale matters. It shows that soil carbon is not just a niche solution. Instead, it can operate at a level relevant to global climate goals.

soil carbon credits

Supporting Rural Economies

Moving on, regenerative ranching supports rural communities by creating new revenue streams. Ranchers can earn income from carbon credits while improving their land. This reduces financial pressure and encourages long-term stewardship.

Moreover, healthier ecosystems provide broader benefits. Improved soil structure enhances water retention, which is critical in drought-prone areas. Restored grasslands also support wildlife habitats, including bird populations.

Grassroots Carbon works with partners such as conservation groups and research institutions to ensure these outcomes. This collaborative approach strengthens both environmental and social impact.

grassroots carbon
Source: Grassroots Carbon

Aviation’s Broader Climate Challenge

The aviation sector faces one of the toughest decarbonization challenges. Unlike power generation or road transport, it cannot be easily electrified. Aircraft require high-energy-density fuels, which limit near-term options.

Sustainable aviation fuel offers a partial solution. However, supply remains limited, and costs are high. As a result, carbon removal will likely play a growing role in the sector’s strategy.

AlliedOffsets estimates that carbon credit buyers will spend around $2.27 billion per year.  Aviation and energy are expected to contribute the most.

  • The aviation sector alone has a budget of over $800 million per year, which is about one-third of the total.

Boeing, by supporting soil carbon projects, diversifies its approach to emissions reduction. The biggest advantage is that soil carbon removal is both scalable and immediately deployable. Unlike emerging technologies, it does not require decades of development. Instead, it builds on existing agricultural practices.

At the same time, this move sends a signal to the market. Large buyers can drive demand for high-quality carbon removal. This, in turn, encourages more investment and innovation in the space.

However, scaling this solution will require continued investment, strong verification, and supportive policies. It will also depend on maintaining trust in carbon markets. However, as demand for carbon removal grows, partnerships like this could become a cornerstone of global decarbonization efforts.

The post Boeing Locks in 40,000 Tons of Soil Carbon Removal with Texas-Based Grassroots Carbon appeared first on Carbon Credits.

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Tesla Reclaims EV Sales Crown from BYD in Q1 2026, Heating Up the EV Race

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Tesla Reclaims EV Sales Crown from BYD in Q1 2026, Heating Up the EV Race

Tesla has reclaimed the global electric vehicle (EV) sales crown, overtaking BYD in early 2026. In the first quarter of 2026, Tesla delivered 358,023 EVs worldwide. This figure edged out BYD’s 310,389 EV deliveries, giving Tesla back the lead in pure battery electric vehicle (BEV) sales and sending stock slightly upward.

Tesla’s sales in this period rose about 6.3% year‑over‑year, showing a rebound from slower parts of 2025. This shift matters because the EV giant lost the annual global BEV sales lead in 2025.

Last year, BYD’s annual pure electric vehicle sales were higher than Tesla’s, largely due to China’s strong EV demand and policy changes.

The recent growth in Tesla’s sales shows high demand for its main models. The Model Y and Model 3 made up most of the deliveries in Q1 2026.

Battle of the EV Titans: Tesla vs. BYD

Competition between Tesla and BYD has become one of the defining stories in global EV markets.

BYD expanded rapidly over the past few years. It has a broad lineup of EVs and plug‑in hybrids and benefits from strong domestic sales in China. In 2025, BYD reported high sales growth as it strengthened its footprint outside China.

BYD vs TESLA ev sales 2025

Tesla, by contrast, focuses on a narrower range of pure EVs but scales production efficiently. It has manufacturing plants in the United States, China, and Europe. These facilities help cut costs and serve major markets more quickly.

The rivalry pushes both companies to improve pricing, technology, and production capacity. Tesla’s price cuts in some markets and BYD’s aggressive growth have kept competition tight.

The EV Boom: Markets on Overdrive

The global EV market keeps growing strongly. According to the International Energy Agency (IEA), electric car sales reached more than 17 million units globally in 2024. EVs made up more than 20% of total new car sales that year — up from earlier levels.

Data from the IEA’s Global EV Outlook 2025 shows that electric light‑duty vehicle sales are expected to reach about 40% of total vehicle sales by 2030 under current policy trends.

The stock of EVs on the road is also growing. The global EV fleet could expand to around 245 million vehicles by 2030 under stated policies.

global EV sales 2024 china lead

Growth is strongest in China, Europe, and the United States. China remains the largest EV market, accounting for more than half of global EV sales in recent years.

Battery cost declines also fuel adoption. Average lithium‑ion battery prices have fallen significantly over the past decade, making electric vehicles more affordable. Governments around the world are also boosting EV uptake with incentives and stricter emissions standards.

Tesla’s Playbook: Scale, Tech, and Price Moves

Tesla’s return to the top reflects its focus on production scale and cost efficiency. The company has reduced vehicle prices in key markets to stay competitive. These price cuts helped increase demand, though they also put pressure on profit margins.

Elon Musk’s EV company continues to invest in manufacturing technology. Its “gigafactories” use advanced automation and large casting techniques to reduce production costs. Newer facilities in the U.S. and abroad help Tesla maintain output even as demand shifts.

The company is also developing next‑generation vehicles. These include plans for more affordable EV models designed to attract a wider range of buyers.

Tesla is expanding its energy business as well. This includes battery storage systems and solar products that align with the company’s broader clean energy goals.

Tesla energy generation and storage
Source: Tesla

Software remains a strength for Tesla. Features like over‑the‑air updates and driver assist systems add value for customers and differentiate Tesla’s vehicles from competitors.

Wall Street Watches, TSLA Reacts

Tesla’s stock, traded as TSLA, has shown volatility in response to sales news.

After Tesla’s delivery numbers in Q1 2026 showed the company regaining the BEV sales lead, its shares saw some short‑term gains. However, the stock has remained volatile. Broader concerns about pricing pressure, excess inventory, and competition have kept investor sentiment cautious.

TESLA stock price TSLA

In early 2026, shares pulled back after production exceeded deliveries and analysts noted weaker-than-expected margins. Tesla produced 408,386 vehicles in Q1 2026 but delivered 358,023, leaving some inventory unsold. This gap contributed to stock pressure.

Despite these swings, Tesla remains one of the highest‑valued automakers in the world. Its market capitalization continues to reflect expectations about future EV adoption and the company’s role in clean energy.

Market watchers note that Tesla’s ability to maintain leadership in BEV sales affects its valuation. Strong delivery figures help support confidence in Tesla’s long‑term strategy, even as competition increases.

Beyond sales and competition, Tesla’s EVs also play a key role in the global effort to reduce carbon emissions and fight climate change.

EVs Fighting Climate Change, One Mile at a Time

Electric vehicles help cut carbon emissions from transport. Road transport is a major source of energy‑related emissions. In recent years, EVs made up more than 20% of global car sales, according to the IEA.

EVs reduce oil demand and lower emissions. The global EV fleet could rise to nearly 245 million vehicles by 2030 under stated policy scenarios, significantly displacing traditional gasoline and diesel cars.

EV sales share by region 2030 IEA

As EV adoption grows, the carbon intensity of the electricity grid becomes more important. EVs charged with cleaner power produce larger net emission benefits.

Even with mixed grid emissions, EVs still reduce lifetime greenhouse gas output compared with internal combustion vehicles.

Governments around the world support EV adoption with stricter fuel standards, tax incentives, and expanded charging networks. These policies help ensure electric vehicles contribute to global decarbonization and climate goals.

Outlook: Growth, Competition, and Innovation

The EV market is expected to grow strongly in the coming years. Demand is supported by climate goals, advancing technology, and consumer interest in cleaner mobility.

Tesla’s return to the top in early 2026 shows that it remains a central player in the electric transition. Its focus on pure electric vehicles, global scale, and continuous innovation continues to fuel its position.

However, the gap between Tesla and competitors like BYD is narrowing. BYD’s strong EV growth, especially in China and expanding export markets, shows that competition remains intense.

Future leadership in the EV industry will depend on cost, technology, charging infrastructure, and the ability to scale production efficiently. Companies that balance these factors well will shape the next phase of the global EV market.

For now, Tesla’s rebound highlights both the rapid growth of the sector and the increasing intensity of competition among the world’s leading EV makers.

The post Tesla Reclaims EV Sales Crown from BYD in Q1 2026, Heating Up the EV Race appeared first on Carbon Credits.

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Microsoft Signs 626,000-Tonne Carbon Removal Deal with Svante and Indigenous-Led North Star Project in Canada

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Microsoft (MSFT stock) has signed a long-term carbon removal agreement that highlights both the scale and direction of the emerging carbon market. The company will purchase 626,000 tonnes of durable carbon dioxide removal (CDR) credits over 15 years from the North Star project in Saskatchewan, Canada.

This project is being developed by Svante Technologies Inc. in partnership with the Meadow Lake Tribal Council (MLTC), through their joint venture North Star Carbon Solutions LP.

The facility will use bioenergy with carbon capture and storage (BECCS) to remove CO₂ from the atmosphere and store it permanently underground. Notably, the project will be co-located at the existing MLTC Bioenergy Centre and powered by waste biomass from a nearby Indigenous-owned sawmill.

This makes it one of the first fully integrated, Indigenous-led BECCS projects in Canada and a landmark deal in Microsoft’s growing carbon removal portfolio.

Indigenous-Led Carbon Project Sets New Benchmark in Canada

The North Star project stands out not just for its technology, but also for its ownership model. It is expected to be Canada’s first major Indigenous-owned, high-quality carbon removal project. The Meadow Lake Tribal Council, which represents several First Nations communities, plays a central role in both ownership and development.

This structure ensures that economic benefits stay within the local community. During construction, the project is expected to create around 50 jobs. Once operational, it will support a smaller but steady workforce while also boosting demand for nearby businesses. As a result, the project delivers both climate and economic value.

Equally important, the facility will rely on an existing industrial ecosystem. The MLTC Bioenergy Centre already generates renewable energy using wood waste.

That waste comes from the NorSask Forest Products sawmill, which is owned by MLTC and supplied through sustainably managed forests. This close integration reduces costs, improves efficiency, and strengthens the project’s environmental credibility.

Phillip Goodman, Director of Carbon Removal Portfolio, Microsoft, said:

“We’re pleased to work with North Star Carbon Solutions and Meadow Lake Tribal Council to help advance high-quality, durable carbon dioxide removal. To meet our climate goals, we need to help scale solutions that deliver durable storage and are backed by rigorous monitoring and verification. This agreement supports an Indigenous-led collaboration that enables the infrastructure needed to bring durable carbon removal online in Canada, thus creating a pathway for additional projects over time.”

How the North Star BECCS System Works

The North Star facility uses BECCS, a technology widely seen as critical for achieving net-zero emissions. It combines renewable energy production with carbon capture to deliver negative emissions.

  • In this system, trees first absorb CO₂ from the atmosphere as they grow. When these trees are processed for wood products, leftover biomass is used as fuel to generate energy.
  • Normally, this process would release carbon back into the air. However, in this case, the CO₂ is captured before it can escape.
  • The captured carbon is then compressed, transported, and injected deep underground into a secure geological formation.

This ensures long-term storage, often lasting hundreds or even thousands of years. Continuous monitoring systems track the stored carbon to ensure safety and permanence.

Here’s a representation of the BECCS process:

north star beccs carbon removal
Source: Svante

A Fully Integrated “Source-to-Sink” Model

From the process explained above, it’s clear that one of the most important features of the North Star project is its fully integrated design. It connects every step of the carbon removal process, from biomass supply to permanent storage.

This end-to-end system improves efficiency and reduces uncertainty. It also strengthens the credibility of the carbon credits produced.

Significantly, Svante will fund the project through its early stages, supporting development until a final investment decision is made. Commercial operations are expected to begin in early 2029.

Reliable Carbon Removal, Verified and Transparent

At full capacity, the facility is expected to capture up to 90,000 tonnes of CO₂ annually. Over the 15-year contract period, this will translate into the delivery of 626,000 tonnes of verified carbon removal credits to Microsoft.

All credits will follow strict monitoring, reporting, and verification (MRV) standards, ensuring transparency and quality.

Microsoft Scales Up Carbon Removal Strategy

This agreement is part of Microsoft’s broader push to scale carbon removal. The company has rapidly increased its purchases over the past few years, signaling a shift from small pilot projects to large, long-term commitments.

In 2023, Microsoft contracted roughly 5 million tonnes of carbon removal. By 2024, that number rose to 22 million metric tons. In 2025, the target surged further to around 45 million tonnes, as announced by the company. This sharp increase shows how quickly the company is building a diversified carbon removal portfolio.

microsoft carbon removals
Source: Microsoft

Importantly, Microsoft does not rely on a single technology. Instead, it spreads its investments across multiple pathways, including BECCS, direct air capture, and mineralization. This approach reduces risk while supporting the development of different solutions.

Recent agreements reflect this strategy. These include multi-million-tonne deals with BECCS facilities in the United States and Europe. Together, they position Microsoft as one of the most influential buyers in the global carbon removal market.

Rising Emissions Make Carbon Removal Essential

Despite its climate commitments, Microsoft faces a growing emissions challenge. The company’s total emissions have increased by more than 30% compared to 2020 levels. This rise is largely driven by the rapid expansion of data centers, cloud services, and AI infrastructure.

These operations require vast amounts of energy and materials, making it difficult to cut emissions quickly. As a result, carbon removal has become a key part of Microsoft’s strategy.

However, the company is clear about its priorities. It focuses first on reducing emissions through efficiency and clean energy. Carbon removal is used only for emissions that cannot be eliminated.

This approach supports Microsoft’s ambitious net-zero goals. The company aims to become carbon negative by 2030 and aims to run on 100% renewable electricity and eliminate all historical emissions by 2050.

microsoft emissions
Source: Microsoft

BECCS Market Gains Momentum

The North Star deal also reflects growing interest in BECCS technology. While still at an early stage, the global BECCS market is expanding rapidly. Analysts expect it to grow at a CAGR of around 19.27% from 2024 to 2030 as governments and companies seek reliable carbon removal solutions.

beccs
Source: marknteladvisors

BECCS is particularly valuable because it can deliver durable removals. Unlike some nature-based solutions, which may face risks like fires or land-use changes, BECCS stores carbon permanently underground. This makes it attractive for companies looking for high-quality credits.

According to the International Energy Agency, BECCS could play a major role in climate mitigation. It may contribute up to 15% of the emissions reductions needed by 2100 to limit global warming to 2°C.

At the same time, challenges remain. Concerns about biomass sourcing, land use, and storage safety continue to shape the debate. Even so, projects like North Star aim to address these issues through sustainable sourcing and rigorous monitoring.

North Star Marks a New Era in Carbon Markets

In conclusion, the Microsoft–North Star agreement highlights how quickly the carbon removal market is evolving. Large buyers are now committing to long-term deals that help bring new projects to life.

At the same time, the project sets a new benchmark for inclusive climate action. Indigenous ownership ensures that local communities benefit directly from the energy transition.

As demand for durable carbon removal continues to grow, more projects like North Star are likely to emerge. These developments will play a critical role in helping companies meet climate targets while building a scalable, high-integrity carbon market.

In that sense, this deal is more than just a contract. It is a clear signal that carbon removal is moving from concept to reality—and becoming a core part of global climate strategy.

The post Microsoft Signs 626,000-Tonne Carbon Removal Deal with Svante and Indigenous-Led North Star Project in Canada appeared first on Carbon Credits.

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