U.S.-based Chestnut Carbon has reached an agreement to deliver Improved Forest Management (IFM) carbon credits to Royal Bank of Canada (RBC) as corporate demand shifts toward higher-quality carbon removal projects.

The deal will direct carbon-market funding toward privately owned forests across the U.S. It also gives landowners another source of long-term income while supporting practices designed to improve forest health.

Brian Hong, Director, Environmental Markets Solutions Group at RBC

“Directing capital to high-quality, third-party verified climate solutions is important to how RBC can support clients in the transition to a low-carbon and resilient economy. This project is compelling to us because it makes responsible forest stewardship economically viable for landowners while delivering environmental benefits at scale across the United States.”

Why Chestnut’s IFM Carbon Credits Matter

Chestnut’s IFM portfolio covers more than 200,000 acres across 37 U.S. states. The company works with private forest owners through its Forest Carbon Works conservation program.

Broadly speaking, Improved Forest Management projects seek to increase or maintain the amount of carbon stored in forests through better management practices.

These can include:

• longer harvest rotations
• retaining larger trees
• selective thinning
• improving forest structure
• prescribed burns

Such practices can also help forests deal with climate-related threats. Healthier forests can be better prepared for wildfire, drought, and other disturbances.

Brian DiMarino, Chief Commercial and Operating Officer at Chestnut, said:

“We’re incredibly proud to be a part of RBC’s commitment to impact through high-quality nature-based carbon removal. Leading financial institutions continue to recognize that nature-based carbon removal is critical in addressing climate change. Lasting conservation happens when economic opportunity is aligned with responsible forest stewardship.”

The Case for Forest Carbon

However, forest management cannot remove every risk. Instead, the goal is to improve resilience while maintaining the long-term productivity of the land.

For private landowners, carbon finance can add another economic reason to keep forests standing. It can provide income without requiring owners to sell land for development or increase harvesting.

Chestnut says its portfolio focuses on privately owned, at-risk U.S. forests. The company also uses a removals-focused approach, with carbon stored in forests forming the basis of its credits.

That focus matters as buyers become more selective about the type of climate benefit they are purchasing.

• EARLIER: Microsoft Signs Groundbreaking 7MT Carbon Credits Deal with U.S.-Based Chestnut Carbon

Carbon Market Buyers Are Paying More for Quality

The carbon market is increasingly moving from a volume-driven model toward one that places a greater value on quality.

Sylvera’s latest data supports that shift. In the first half of 2026, BBB+ rated IFM credits averaged $18.65 per credit, up from $16.34 in the same period of 2025. By comparison, IFM credits rated BB or lower fell to $13.06 from $15.02.

As a result, the price gap between high- and lower-rated IFM credits widened to $5.59 in H1 2026, from just $1.32 a year earlier.

• The broader market shows a similar pattern. In Q2 2026, credits rated BBB or higher represented only 27% of rated retirement volume but 51% of rated market value. In other words, higher-quality credits accounted for a much larger share of market value than their volume would suggest.
• Total retirement market value for Q2 2026 was $247 million.

This trend could benefit well-structured IFM projects. Buyers increasingly want stronger evidence around additionality, permanence, and the amount of carbon actually stored.

• MUST READ: ICVCM Backs Verra’s Biochar and IFM Methods as High-Integrity Climate Solutions

Rise In Demand for Nature-Based Removals

The shift toward removals is also visible in corporate purchasing activity.

MSCI found that publicly disclosed, multiyear offtake agreements for nature-based carbon credits reached a record in 2024. Companies announced 10 such deals in the first half of 2024 alone, compared with five during all of 2023.

More importantly, nine of those 10 deals focused entirely on removal credits. These agreements allow companies to secure future supplies of carbon credits while giving project developers greater certainty to invest in projects.

MSCI’s broader market analysis also shows the growing flow of capital toward removals. Between 2021 and the third quarter of 2024, about $43 billion was committed or directly raised for carbon-credit activities, with most of the capital going toward carbon-removal projects, including nature-based and engineered removals.

This is why long-term agreements such as the Chestnut-RBC deal could become more important. They can give developers predictable demand while helping buyers secure access to higher-quality projects.

RBC Reports 59,519 Carbon Credit Retirements

The Chestnut agreement adds to RBC’s broader use of carbon credits.

According to its 2025 Sustainability Report, RBC purchased and retired 59,519 carbon credits to match its Scope 1 emissions, Scope 2 market-based emissions and business-travel emissions.

RBC says it sources credits from third-party verified projects and considers factors such as additionality, permanence, location, technology, credit vintage, and environmental and community benefits. Its carbon-credit procurement includes projects registered with Verra, the American Carbon Registry, and Climate Action Reserve.

However, the bank does not disclose the amount it paid for its 2025 carbon credits. Therefore, the financial value of the 59,519 credits cannot be calculated from the sustainability report.

A Small Operational Footprint, But Larger Financing Exposure

Carbon credits address only one part of RBC’s climate footprint.

• The bank reported about 29.7 million tonnes of disclosed financed emissions across the sectors covered by its PCAF reporting. Oil and gas represented the largest share, at about 26.4 million tonnes of CO₂e.

At the same time, RBC reported C$29 billion in authorized lending exposure to low-carbon energy and enabling activities, including C$10.2 billion in renewable energy.

The contrast is significant. RBC’s operational emissions are measured in tens of thousands of tonnes, while its financed emissions run into the tens of millions.

Carbon Finance Gives IFM Projects a New Opportunity

Still, the Chestnut agreement shows how carbon finance can support action beyond a company’s direct operations. It connects corporate demand with private landowners and forest-management projects.

As the carbon market matures, buyers are likely to focus less on simply purchasing credits and more on where the carbon is stored, how long it stays there, and whether the claimed climate benefit is credible.

For IFM developers such as Chestnut, that shift could create a stronger market for projects that combine carbon removal with healthier and more resilient forests.

• ALSO SEE: Microsoft and RBC Buy North America’s First Verified Direct Air Capture (DAC) Carbon Credits From Canada’s Deep Sky

The post RBC Buys Chestnut’s IFM Carbon Credits as Demand for Removals Grows appeared first on Carbon Credits.

Europe has opened its largest industrial carbon capture and storage (CCS) facility at Yara International’s Sluiskil ammonia and fertilizer plant in the Netherlands. The facility was officially inaugurated on September 7, 2026, marking a major step for Europe’s push to reduce emissions from heavy industry. 

Yara expects the site to capture and liquefy up to 800,000 metric tons of CO2 per year from ammonia production. The captured carbon will then be shipped to Norway and permanently stored beneath the North Sea.

Over 15 years, the project is expected to capture and store about 12 million tons of CO2. The European Commission announced that this project is the largest commercial CCS facility in Europe. It is also one of the first complete cross-border systems for capturing, transporting, and permanently storing industrial CO2.

The project matters beyond Yara. It shows how captured industrial emissions could be moved across borders to storage sites, creating a model that other hard-to-abate industries could use. Svein Tore Holsether, President and CEO of Yara International, remarked:

“This is an important day for Yara and for European industry. The carbon capture facility in Sluiskil proves that large-scale industrial decarbonization is possible today. As global competition intensifies, Europe must find ways to cut emissions while keeping industry, jobs and critical value chains in Europe. That is exactly what this project is about.”

Capturing 800,000 Tons of CO2 Each Year

Yara’s Sluiskil site is one of Europe’s largest ammonia and fertilizer production facilities. Ammonia production generates process emissions that are difficult to eliminate through renewable power alone.

The new CCS system captures CO2 from the ammonia production process before it reaches the atmosphere. The gas is then compressed and liquefied at the Dutch site for transport.

Yara says the project can capture up to 800,000 tons of CO2 annually, equal to roughly 0.5%  of the Netherlands’ annual emissions. This is based on the company’s earlier comparison with 2022 national emissions.

The system is designed to operate as part of a wider transport and storage chain rather than as a standalone capture project. That distinction is important because capturing CO2 is only the first step. The carbon must also be transported safely and stored permanently.

• RELATED: Your Ultimate Guide to Carbon Capture and Storage
• ALSO: Live Carbon Prices Today

Captured CO2 Will Travel From the Netherlands to Norway

After capture and liquefaction, the CO2 will be loaded onto ships operated by Northern Lights, the Norwegian CO2 transport and storage company.

The carbon will travel to Øygarden on Norway’s western coast. From there, Northern Lights will transport it through pipelines and inject it about 2,600 meters beneath the seabed on the Norwegian continental shelf.

Yara’s project will use two ships, each capable of carrying about 7,200 tons of liquefied CO2. The company previously outlined a schedule of up to two loaded ships per week.

The project is significant because it creates a cross-border CCS chain linking an industrial emitter in one country with a geological storage site in another.

Northern Lights is part of Norway’s Longship CCS program. Norway’s government has committed about NOK 22 billion in support for construction and operation of Longship. The total estimated cost of the broader project, including 10 years of operation, is about NOK 34 billion.

Longship’s first phase has an annual CO2 storage capacity of 1.5 million tons, with plans to expand to 5 million tons in a second phase. It already has agreements with Yara in the Netherlands, Ørsted in Denmark, and Stockholm Exergi in Sweden.

• SEE MORE: World’s First Commercial CCS Plant Owned by Shell, Equinor, and TotalEnergies Injects CO2 in North Sea

CCS Offers Heavy Industry a New Route to Cut Emissions

The fertilizer industry faces a difficult decarbonization challenge. Ammonia is essential for fertilizer production, but conventional ammonia manufacturing relies heavily on fossil fuels and also creates process emissions.

Electrification and low-carbon hydrogen can reduce some emissions, but they require major changes in energy supply and industrial processes. CCS can address emissions that are harder to remove through efficiency or renewable energy alone.

The European Commission has identified CCS as an important tool for industries such as chemicals, cement and waste management. It says Europe needs to be ready to capture at least 50 million tons of CO2 annually by 2030. That requirement could rise to around 280 million tons by 2040 and approximately 450 million tons by 2050.

The EU has also set a legally binding target of at least 50 million tons of annual CO2 injection capacity by 2030 under the Net-Zero Industry Act.

Against that target, Yara’s 800,000-ton annual capture capacity represents about 1.6% of the EU’s 2030 storage-injection goal. The comparison is not a direct measure of total emissions reduction because the EU target refers to injection capacity, while Yara’s figure refers to capture capacity. Still, it shows why projects at this scale are becoming important pieces of Europe’s carbon-management infrastructure.

CCS Meets Europe’s Carbon Pricing Market

The Sluiskil project is not a conventional carbon removal project. That distinction matters. The facility captures industrial process CO2 that would otherwise enter the atmosphere. It does not directly remove CO2 that was already in the atmosphere.

Under the EU’s carbon management framework, CCS can cover fossil, biogenic or atmospheric CO2, while permanent removals generally refer to CO2 captured from atmospheric or biogenic sources.

The immediate financial incentive for Yara is therefore linked to avoiding emissions and the cost of carbon allowances rather than generating a traditional voluntary carbon credit.

Yara says capturing and permanently storing the emissions will allow the company to avoid carbon taxation on the captured volumes. EU legislation also provides rules under the EU Emissions Trading System for captured CO2 that is transferred for permanent geological storage.

This creates an important connection between CCS infrastructure and Europe’s carbon pricing market.

As the EU ETS carbon price increases over time, the economic value of permanently storing industrial emissions can also increase. At the same time, the cost of capture, liquefaction, shipping, and storage remains an important factor in determining whether projects are commercially attractive.

Yara’s 2026 Capital Markets Day materials put the Sluiskil project’s net investment at about $200 million. It further reported that the project was 75% complete at the time of the presentation. Yara also described the project as having a double-digit expected internal rate of return before the blue premium.

Yara Is Linking CCS to Its Wider Climate Strategy

The Sluiskil project is part of Yara’s broader emissions reduction strategy. According to its 2025 Annual Report, Yara reduced its scope 1 and 2 emissions by 17% against its stated baseline by 2025. Its greenhouse gas emissions intensity reached 2.7 tons of CO2e per ton of nitrogen, meeting its 2025 target.

Yara has a target to reduce absolute scope 1 and 2 emissions by 30% by 2030 from a 2019 baseline. It also has a 2030 target to reduce scope 3 emissions from the use of sold products by 11.1% from a 2021 baseline.

The company reported $15.7 billion in revenue in 2025 and operates in more than 60 countries. For Yara, CCS therefore serves two purposes:

• reducing emissions from an existing industrial site and supporting the company’s longer-term effort to lower the carbon intensity of fertilizer production.                                                                                  

Putting Europe’s Carbon Strategy to the Test

Yara’s Sluiskil facility arrives at a critical point for Europe’s climate and industrial policy. The EU wants to rapidly expand carbon storage while protecting energy-intensive industries from rising carbon costs and international competition. The challenge is turning that ambition into commercially viable infrastructure.

The Sluiskil project provides a real-world test. It combines industrial capture, liquefaction, maritime transport and permanent geological storage across national borders.

The project also highlights an important point for carbon markets: not every tonne of CO2 permanently stored will become a tradable carbon removal credit. In this case, the main climate benefit comes from preventing industrial emissions from entering the atmosphere and allowing the emitter to manage its obligations under Europe’s carbon pricing system.

For Europe’s hard-to-abate industries, however, that could prove just as important as the growth of carbon removal markets.

• READ MORE: Eni and BlackRock Scale Up Europe’s CCS Race With $670 Million HyNet Financing Deal

The post Europe’s Largest Carbon Capture Facility Launches in the Netherlands to 800,000 Tons of CO2 appeared first on Carbon Credits.

Carbon credit prices have been under pressure for several years, but the long-term outlook for the voluntary carbon market (VCM) could be very different.

Patch’s A Buyer’s Guide to Carbon Credits points to a potential turning point. The report argues that demand for high-quality carbon credits could eventually outpace available supply, creating upward pressure on prices as companies move closer to net-zero targets.

The market has already experienced a major correction. But the forces that could drive the next phase are beginning to look different.

For buyers, the question may soon shift from how cheaply they can purchase carbon credits to whether they can secure enough high-quality credits at all.

Why Carbon Credit Prices Collapsed After the VCM Boom

The voluntary carbon market experienced explosive growth in 2021. According to Patch, the market quadrupled year over year that year, reaching about $2 billion. At the time, forecasts suggested the VCM could grow to between $10 billion and $40 billion by 2030.

Instead, demand weakened sharply.

• Carbon credit purchases and retirements fell to around 155 million credits in 2022 from 161 million in 2021, a decline of roughly 4%.

Unlocking the Triggers 

Concerns over credit quality were a major factor. High-profile investigations into some Verra REDD+ projects raised questions about whether certain credits delivered the climate benefits claimed by project developers.

The collapse of the crypto market added another layer of pressure. Crypto investors had poured significant capital into carbon credits during the market’s boom, and their retreat contributed to weaker demand.

Nature-based credits were especially vulnerable. Patch noted that the supply of REDD+ credits fell by 32%, yet buyers remained hesitant. Average prices for nature-based credits subsequently dropped below $2.

Note: In this market, three primary types of offsets are traded – NGEO, GEO (General Emissions Offsets), and CGEO (Certified Global Emissions Offsets).

The correction exposed a fundamental weakness in the VCM. Much of the demand was behavioral and highly sensitive to price, market sentiment, and concerns over corporate climate claims.

But Patch argues that this is unlikely to define the market forever.

• FIND: LIVE CARBON PRICES

Carbon Credit Supply Could Fall Behind Future Demand

One of the most important findings in Patch’s report is the growing gap between investment in future carbon-credit supply and current market sales.

The report cites Trove Research, which estimated that capital investment in carbon-credit projects was about five times greater than overall carbon-credit sales.

In 2022, the primary market, based on retired credits, was worth approximately $1.5 billion. Capital investment in projects, meanwhile, reached around $7.5 billion.

That imbalance is significant.

It suggests that investors and project developers were committing substantial capital to creating future carbon-credit supply despite relatively weak demand at the time.

The bigger question is whether that future supply will be enough.

Patch cited Trove Research projections showing that demand could exceed supply by 2030 even under lower-demand scenarios. Under a pathway consistent with limiting warming to 1.5°C, the imbalance could emerge earlier.

This could create a very different market environment from the one that produced today’s low prices.

If demand accelerates faster than new projects can deliver credible credits, buyers could find themselves competing for a limited supply.

Carbon Credit Demand Could Become Less Price-Sensitive

Patch separates carbon-credit demand into two broad categories: behavioral demand and fundamental demand.

Behavioral demand tends to respond quickly to market conditions. Companies may reduce purchases when credit prices rise, economic conditions deteriorate, or concerns about the credibility of offsets increase.

Fundamental demand is more structural.

It comes from companies that have made public climate commitments and eventually need to address emissions that cannot be eliminated through internal reductions alone.

That distinction could become increasingly important as corporate net-zero deadlines approach.

The cost of eliminating the final portion of emissions can be considerably higher than reducing emissions through easier efficiency or clean-energy measures. This is particularly relevant for difficult-to-abate sectors such as aviation, shipping and heavy industry.

As a result, carbon credits could become less discretionary.

Could Carbon Credit Prices Reach $150 by 2035?

Companies may eventually have fewer options for addressing residual emissions, making their demand less sensitive to price.

Patch cited EY Net Zero Centre projections that put carbon prices between $80 and $150 by 2035 across different climate scenarios.

That is far above the prices currently seen across much of the voluntary market.

The key point is not that every carbon credit will reach those levels. Rather, it illustrates how dramatically prices could change if structural climate demand begins to outweigh short-term buyer sentiment.

• READ MORE: What Types of Projects Generate Carbon Credits?

High-Quality Carbon Credits Are Already Commanding a Premium

Recent data from Sylvera offers an important update to Patch’s longer-term outlook.

The latest figures suggest that buyers are already becoming more selective about where they spend their carbon budgets.

• In Q2 2026, carbon credit retirements reached 38.55 million, down 10% from the same quarter a year earlier. First-half retirements stood at 89.27 million, also below the previous year’s level.

On the surface, declining retirement volumes could suggest that demand remains weak.

However, pricing tells a more complicated story.

• MUST READ: Carbon Credit Prices Reward Quality More Than Ever, but MIT Study Questions Market Pricing 

Buyers Are Shifting Toward Better Credits

Sylvera’s Q1 2026 data showed that average carbon credit prices increased to $5.69 from $5.60 despite an 8% decline in retirement volumes. Investment-grade BBB+ credits commanded an average price of $20.10, up from $18.10.

The pattern is important because it shows that the market is not moving uniformly.

Buyers may be purchasing fewer credits overall while allocating more money toward credits they consider higher quality.

Sylvera’s 2025 data reinforces the trend. Carbon credit retirements declined 4.5% to 168 million, but the market’s total value increased 6% to $1.04 billion.

High-quality BB+ credits also increased their share of retirements from 44% to 50% and accounted for 70% of total spending.

The market is therefore becoming increasingly differentiated.

Lower-quality or oversupplied credits can remain cheap, while scarce credits that meet stronger integrity expectations can command substantial premiums.

Why Buyers May Need to Lock In Carbon Credits Early

Patch’s analysis makes a strong case for buyers to think beyond today’s spot prices.

Long-term carbon-credit purchase agreements can provide companies with greater certainty around future volumes and pricing. At the same time, they give project developers the revenue visibility needed to secure financing and expand their operations.

This could be particularly important for carbon removal.

New removal projects often require significant upfront investment and can take years to develop. If corporate demand accelerates before enough projects reach commercial scale, buyers could face a shortage of available supply.

Early purchasing can therefore serve two purposes.

It can protect buyers from potential future price increases while also helping developers build the supply needed to meet future demand.

However, locking in supply does not mean simply buying the cheapest credits available.

The market’s experience over the past several years has demonstrated why quality matters. Questions around additionality, permanence, measurement, verification, and project-level risks can significantly affect the long-term value of a credit.

The objective should be to secure credible supply at a price that remains attractive against potentially higher future costs.

The Carbon Market Is Splitting Into Two Price Tiers

Patch’s report was produced during a period when the VCM was dealing with a major credibility and demand crisis. The latest market data suggests that the market is not disappearing. Instead, it is becoming more selective.

Overall demand remains uneven, but spending is increasingly concentrated in higher-quality credits.

That could eventually produce a two-tier market.

Lower-quality and oversupplied credits could continue trading at relatively low prices. Meanwhile, high-integrity reduction and removal credits could become increasingly expensive as buyers compete for limited supply.

This distinction is critical for companies planning long-term climate strategies.

Patch’s central argument remains compelling: companies that wait until carbon-credit demand becomes urgent could face tighter availability and higher prices.

Those that secure credible long-term supply earlier may have greater control over both cost and access.

The voluntary carbon market has already shown how quickly prices and buyer sentiment can change.

The next major shift could come from the opposite direction. As corporate climate commitments become more difficult to defer and emissions reductions become increasingly expensive at the margin, fundamental demand could begin to dominate behavioral demand.

The bottom line is, if that happens, the biggest risk for carbon-credit buyers may no longer be paying too much.

It could be not having enough high-quality credits to buy.

• ALSO READ: Carbon Market 2026: Supply Squeeze Pushes Premium Carbon Credit Prices Up, Sylvera Finds

The post Is the Cheap Carbon Credit Era Coming to an End? appeared first on Carbon Credits.

Cypress Creek Energy has brought its new Ostrea Solar project online in Washington state, adding 104 MWdc of solar capacity to a region facing rapidly rising electricity demand.

The $180 million project in Yakima County is backed by a long-term power purchase agreement (PPA) with Microsoft (MSFT Stock). The technology giant will purchase electricity and environmental products generated by the facility, making it the project’s long-term offtaker.

Ostrea Solar is the latest example of how large technology companies are using long-term clean energy contracts to secure renewable power while supporting new generation capacity.

The project began commercial operations as Washington’s economy continues to expand. According to Cypress Creek, the state recorded annualized real GDP growth of 4.5% in the first quarter of 2026, more than twice the national rate. The information sector was one of the main contributors, highlighting the growing relationship between Washington’s technology economy and electricity demand.

Microsoft Backs New Washington Solar Capacity

Ostrea Solar is connected to the Bonneville Power Administration transmission system and provides 80 MWac of generation capacity to the regional grid.

Microsoft’s agreement covers both the electricity and environmental products produced by the facility. While the company has been expanding its renewable energy procurement across the U.S., projects such as Ostrea are particularly important because they add new generation rather than simply relying on existing clean power.

The timing is significant. Electricity consumption is rising as technology companies, data centers and other businesses expand their operations. More power generation and transmission infrastructure will be needed to meet that demand while supporting Washington’s broader economic growth.

Cypress Creek CEO Kevin Smith said the project demonstrates how new power capacity can be developed while also creating benefits for local communities and protecting the land around energy projects.

The project represents a private investment of approximately $180 million in Washington’s energy infrastructure.

U.S. Solar Capacity Continues to Climb

Ostrea is entering a U.S. solar market that has expanded rapidly over the past decade.

• The U.S. had about 225.6 GW of estimated solar photovoltaic capacity by June 2026, including utility-scale and small-scale systems, according to the U.S. Energy Information Administration.

Solar is also expected to remain a major source of new U.S. electricity capacity. The EIA expects solar to account for 51% of planned utility-scale generating capacity additions in 2026. Developers are expected to add another 86 GW of total utility-scale capacity this year if all planned projects are completed.

The growing solar fleet is already having an impact on electricity generation. Utility-scale solar generation increased 34% in 2025, while small-scale solar generation rose 11%, according to the EIA.

Projects such as Ostrea therefore fit into a much larger shift in the U.S. power market, where renewable generation is increasingly being built to serve utilities and large corporate customers.

• ALSO READ: Microsoft and Avangrid Team Up on 140MW Solar Project to Power AI Growth and Net Zero Goals

Cypress Creek Prioritizes Land Conservation at Ostrea Solar

Cypress Creek says Ostrea was developed with land management and environmental protection as key priorities.

During development, the company worked with Washington’s Energy Facility Site Evaluation Council and the Washington Department of Fish and Wildlife. The project design was modified to conserve about 275 acres of shrubsteppe habitat.

Shrubsteppe is an important ecosystem in Washington, supporting a range of plants and wildlife. Much of the state’s historic shrubsteppe has been lost or degraded because of agriculture and development.

Ostrea also includes wildlife corridors intended to preserve movement through the project area. Those corridors can help species such as Rocky Mountain elk continue to move across the landscape.

Land restoration is another part of the project’s environmental strategy.

Some areas of the site were formerly used as cropland but had not been actively farmed for more than two decades. Invasive and non-native vegetation had taken hold in parts of the property.

Promising Long-Term Stewardship

During construction, Cypress Creek removed invasive plants and restored disturbed areas. The company then planted a mix of grasses and flowering species designed to support native vegetation and pollinators.

The approach highlights a broader issue facing utility-scale solar development. Solar facilities require land, but the entire project area is not covered by panels. Vegetation can remain beneath and around many solar arrays, allowing developers to combine electricity generation with land management.

Cypress Creek plans to own and operate Ostrea for up to 40 years. The company says its goal is to leave the property in good condition when the project’s operating life ends, preserving options for future land use.

$180 Million Investment Creates Local Economic Benefits

Beyond electricity generation, Ostrea is expected to provide a long-term economic contribution to Yakima County.

Cypress Creek estimates the project will generate approximately $13.3 million in state and local tax revenue over its operating life.

Construction was also a significant source of employment. About 300 jobs were created during the development and construction phase, with workers paid prevailing wages.

The project included an apprenticeship program designed to provide workers with experience in construction trades. Around 75 apprentices contributed approximately 39,000 hours to the project.

PCL Solar Constructors USA served as the engineering, procurement, and construction contractor.

Cypress Creek also reported that the project completed construction without a recordable injury or incident.

Community Investment Extends Beyond the Solar Site

The company has also made investments in the surrounding Yakima community.

Cypress Creek contributed $50,000 toward a new aquatic center at Martin Luther King Jr. Park in Yakima. It also participated in a back-to-school initiative at Moxee Elementary School with PCL.

Through its Energizing Tomorrow’s Leaders program, the company has provided scholarships to 14 Yakima County students since 2023. The scholarships represent $18,500 in educational support.

The company has also partnered with the Oregon Institute of Technology on scholarships and educational opportunities for students pursuing energy-related careers.

These initiatives are designed to extend the economic benefits of the project beyond construction and electricity generation.

Microsoft Links Renewable Energy to Rising Power Demand

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.

Its renewable energy strategy is increasingly tied to the growing electricity needs of digital infrastructure, particularly as data centers and artificial intelligence workloads expand.

Ostrea Shows the Next Phase of Solar Development

Ostrea combines corporate clean energy demand with private investment, job creation, land restoration, and long-term environmental management. Cypress Creek will operate and maintain the facility throughout its expected operating life, including its electricity generation, vegetation management, and land stewardship.

As U.S. solar capacity continues to expand, projects such as Ostrea show that renewable development is about more than adding panels. New projects will increasingly need to balance rising power demand with grid needs, environmental protection, and economic benefits for local communities.

• READ MORE: Microsoft Invests in Clearloop’s Solar Projects to Drive Grid Decarbonization in America 

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