Agricultural waste-to-biochar developer Terraton has received its first carbon removal credits from Isometric for its EcoFix Kenya facility, marking a milestone in its plans to expand biochar production across emerging markets. The company has also secured purchase agreements covering up to 97,240 tonnes of carbon removal and $1.5 million in debt financing from HSBC Ventures to develop additional facilities.

The first issuance provides independent verification of carbon removed and stored through the Kenyan project. Terraton aims to replicate its standardized facility model across agricultural supply chains, turning crop residues into biochar while creating a new revenue stream for agribusiness operators.

Its latest agreements include purchases, reserved volumes and marketing rights involving Climeworks Solutions, Climate Impact Partners, Carbonfuture, CUR8 and nonprofit climate fund Terraset. These arrangements provide potential routes to market as the company develops more production capacity.

Terraton Turns Nut Waste Into Carbon Removal Credits

Terraton made its final investment decision on EcoFix Kenya in August 2025 and began producing biochar in May 2026. Isometric issued the facility’s first credits in October, completing the process in roughly 14 months from the investment decision.

Based in Nanyuki, Kenya, EcoFix processes croton nut husks collected through existing agricultural operations. The biochar facility uses this waste stream without requiring major changes to the company’s core business.

The project converts the husks into biochar through thermochemical carbonization, a process that heats biomass under controlled conditions. The resulting material stores carbon in a stable form and can improve agricultural soils when used in compost.

• Biochar can also help raise soil pH, making it relevant to farming regions affected by soil acidification. Its agricultural applications create a potential dual benefit: durable carbon removal and improved soil conditions.

Terraton designed and financed the facility, installed its equipment and sensors, and supplied its smart facility management software. The software sends production data to Offstream’s digital monitoring, reporting and verification (dMRV) platform, which performs accounting and quality checks before submitting production records to Isometric.

David Armstrong, Partnerships Manager at Isometric, said:

“This is a major milestone for the Terraton and EcoFix Kenya teams: their first certificates backed by independent verification. It’s a testament to the work that goes into developing a high-quality carbon removal project, and marks the start of regular issuances. We’re looking forward to working with Terraton on their second project, Tupande.”

Biochar Carbon Removal Market Attracts More Buyers

Terraton’s first issuance comes as companies increase purchases of durable carbon removal credits. Biochar has established itself as a major pathway because producers can convert available biomass into carbon-storing material using commercially deployable technology.

According to CDR.fyi. The market has recorded 7.4 million tonnes of contracted removals and 1.3 million tonnes delivered to date.

Key market figures include:

• 7.4 million tonnes: Total biochar removals contracted.
• 1.3 million tonnes: Biochar removals delivered to date.
• More than 3 million tonnes: Biochar removals contracted in 2026 as of the report’s publication.
• 80%: Approximate share of durable carbon removal deliveries attributed to biochar.
• Five of the top 10 suppliers: Based in the Global South, highlighting the role of emerging markets in expanding production.

Biochar ranks second in contracted volume behind bioenergy with carbon capture and storage (BECCS), which has 31 million tonnes contracted. This growth creates opportunities for Terraton to expand its facilities and supply verified carbon removal credits.

More recent market activity points to continued demand for carbon removal.

• ClimeFi reported that corporate buyers committed to 2.1 million tonnes of carbon removal across all pathways in the second quarter of 2026, up 136% year over year.

• Biochar remains a major pathway for durable carbon removal, although other technologies are gaining ground. ClimeFi’s Q1 2026 review found that biochar accounted for approximately 94% of new carbon removal purchase volumes that quarter, supported by three large deals totaling 1.505 million tonnes.

However, biochar no longer led all pathways by purchase volume in Q2 2026 as the market diversified. This highlighted increasing competition among removal technologies.

Fourteen deals were recorded, including seven from companies making their first major carbon removal commitments. Biochar did not lead purchase volumes in that quarter.

For developers such as Terraton, the opportunity depends on converting demand into verified deliveries. Buyers increasingly use forward offtake agreements to secure future supply, while developers need financing to build facilities before issuing credits.

• FURTHER READING: Biochar Demand Hits 2.99 Million Tonnes: Can Corporate Buyers Trigger a Supply Crunch? 

Offtake Agreements Support Terraton’s Expansion

Terraton’s commercial agreements cover several stages of its planned production:

• Climeworks Solutions committed to purchasing 2,000 tonnes from EcoFix and reserved a further 14,000 tonnes from future Terraton facilities.
• Climate Impact Partners agreed to purchase credits from EcoFix, the upcoming Tupande project and facilities still in development.
• Terraset signed a seven-year offtake agreement covering up to 14,000 tonnes from future facilities, with annual purchase volumes confirmed in advance.
• Carbonfuture will bring up to 32,500 tonnes of carbon removal to market through 2031 using its trust infrastructure.
• CUR8 secured a purchase of 240 tonnes, extending Terraton’s customer base to a leading global consumer brand.

These figures describe different types of arrangements and should not be treated as equivalent to credits already issued or delivered. The overall potential volume also includes future production that depends on facility development and performance.

Chris Walters, Sourcing Manager at Climate Impact Partners, said:

“We see growing demand from corporate buyers for tech-based carbon removals, but scaling supply remains a major challenge. Terraton’s approach combines project development, financing, operations and carbon markets to deliver new biochar projects efficiently and at scale, which presents a valuable addition to our portfolio of carbon removal projects.”

HSBC Financing Targets More Biochar Facilities

HSBC Ventures’ $1.5 million debt financing will support facility development over the next two years. Terraton is also developing a $25 million pooled financing vehicle intended to fund approximately 20 additional biochar facilities.

The company plans to standardize equipment, facility design, operating procedures, and reporting across projects. This approach could make it easier to assess and finance multiple facilities as a portfolio rather than evaluating each site independently.

Terraton expects its next facilities to reach credit issuance faster than EcoFix, as the company can reuse the technical systems and operating experience developed at its first site. Its next project, built with Tupande, One Acre Fund’s Kenyan brand, is already being commissioned in Sagana, Kenya.

• It has also signed 28 additional memorandums of understanding and identified more than 30 other sites in its development pipeline across Africa, South America, South Asia and Southeast Asia.

Kevin Gibbs, CEO of Terraton, noted:

“The facility at EcoFix went from investment decision to issued credits in fourteen months, all while we were still building our software, structuring our credits, and learning the ins and outs of our equipment. Our next sites start with all of that experience in place, positioning us to deliver facilities and credits faster.”

Terraton’s growth will depend on how quickly it can replicate its model. Standardized facilities could lower costs and attract financing, but future credit issuance will depend on reliable operations and independent verification. The company was also one of 10 winners of the World Economic Forum’s UpLink Scaling Carbon Dioxide Removal Challenge for its approach to scaling biochar projects.

• READ MORE: Biochar Carbon Removal Is Heating Up. Exomad Green and Carbonfuture Lock In 1.1M Tonnes Through 2035 

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China is proposing a major expansion of its domestic carbon credit market, with 11 new methods that could allow more industries to generate credits for cutting greenhouse gas emissions. The proposals cover clean fuels, battery storage, electric mining vehicles, plastic recycling, and food waste treatment. They could widen the range of projects eligible to earn credits under China’s national voluntary emissions reduction program.

China’s Ministry of Ecology and Environment (MEE) published two groups of draft methods: One contains five proposals, while the other contains six. The ministry is seeking public feedback until October 23. The methods have not yet been approved.

The move comes as China continues to develop its carbon market. If adopted, the new methods could open more ways for companies to earn carbon credits while supporting the country’s wider efforts to cut emissions.

11 New Methods Target Clean Fuels, Batteries and Waste

The proposed methods cover 11 activities across energy, transport, industry and waste management. Five drafts focus on renewable ammonia, electric mining haulage vehicles, pumped-storage hydropower, chemical recycling of low-value plastics, and biogas production from food waste.

The other six include:

• Methanol from agricultural and forestry biomass.
• Methanol from biomass mixed with green hydrogen.
• Two types of biodiesel from waste oils and fats.
• Energy storage with sodium-ion batteries.
• Energy storage with all-vanadium flow batteries.

These activities target different sources of emissions. Some could replace fossil fuels with lower-carbon alternatives. Others could improve energy storage, reduce fuel use in mining, or turn waste into useful products.

The proposed methods would set rules for how eligible projects are designed, assessed, and monitored. They would also establish how projects calculate their emissions reductions and how those results are checked.

That standardization matters because carbon credits need a consistent way to measure the emissions avoided or reduced by a project. Without clear rules, it becomes harder to compare projects and judge whether their claimed climate benefits are real.

New CCER Methods Could Broaden China’s Carbon Credit Market

China’s voluntary carbon credit program is known as China Certified Emission Reduction, or CCER. It works with the country’s national emissions trading system (ETS). This system requires companies to manage and give up emissions allowances based on government rules.

The CCER program resumed trading in January 2024. It provides a route for eligible projects to generate credits under China’s domestic system. These credits can be used under applicable market rules, including to meet part of the compliance needs of covered companies.

Before this latest proposal, China approved 17 methods under the current CCER framework. This information comes from a June 2026 overview by Columbia University’s Center on Global Energy Policy. The 11 new drafts would represent a substantial expansion if they are all approved.

The proposals also reflect a wider effort to bring more types of emissions-reduction projects into the system. Previous methods included:

• Forest planting,
• Mangrove restoration,
• Offshore wind power,
• Solar thermal power,
• Energy-saving highway tunnel lighting, and
• Using low-concentration coal mine gas.

The new proposals extend this approach into areas such as alternative fuels, industrial processes and energy storage. That could give more businesses a path to participate in carbon credit generation, although eligibility will depend on the final rules.

RELATED: China’s Farmland Could Remove 350 Million Tonnes of CO₂ a Year, Study Finds

China’s Wider Carbon Market Is Also Growing

China operates two connected but distinct systems: a national emissions trading system (ETS) for covered emitters and the China Certified Emission Reduction (CCER) program, which allows eligible projects to generate carbon credits.

The national ETS is China’s main compliance carbon market. Its trading activity has continued to grow. Cumulative allowance trading exceeded 930 million tonnes by the end of July 2026, according to figures reported by Xinhua and cited by Carbon Herald.

On October 21, Vice-Minister of Ecology and Environment Li Gao announced that cumulative trading had passed 1 billion tonnes. The system covers about 8.3 billion tonnes of CO₂ emissions, representing more than 65% of China’s total carbon dioxide emissions.

China also plans to extend the ETS to major emitting industries, including petrochemicals and chemicals, by 2027. The government said its policies helped reduce emissions in the thermal power sector by about 530 million tonnes of CO₂ during 2021–2025.

These developments provide important context for the 11 proposed CCER methods. While the ETS regulates emissions through allowance trading, the CCER program creates a route for eligible projects to earn credits. The proposed methods could expand the types of projects that qualify, but their impact will depend on final approval and the verified emissions reductions they deliver.

Carbon Credit Quality Will Depend on Strong Measurement Rules

More methods could create more routes for companies to seek carbon credits. But expanding the list of eligible activities does not guarantee that every project will deliver the emissions reductions it claims.

The final methods will need clear rules for setting emissions baselines, measuring results, and checking project performance. A baseline estimates what emissions would have occurred without the project. The difference between that baseline and the project’s actual emissions helps determine how many credits it may qualify to generate.

The rules also need to account for emissions created during production and operation. For example, a fuel made from waste or biomass is not automatically emissions-free. Its overall climate benefit depends on factors such as how the feedstock is sourced, how much energy production uses, and what emissions the new fuel replaces.

Energy storage projects also need sound accounting. Their climate benefits can depend on when and how the stored electricity is generated and used. If a battery charges with high-emissions electricity, its benefit may be smaller than if it stores power that would otherwise go unused from a lower-carbon source.

These issues make measurement, reporting, and verification essential. Strict rules can help ensure that credits reflect real emissions reductions rather than overstated estimates.

Public Consultation Is the Next Step

China’s consultation period for all 11 draft methods closes on October 23, 2026. The MEE will consider feedback before the proposals can move forward. The ministry has not yet confirmed that all 11 will be approved.

For project developers, approval could create new opportunities to seek crediting under the CCER program. For companies that buy credits to meet applicable obligations, the new methods could eventually broaden the range of available projects.

However, the number of proposed methods is only one measure of progress. The next milestones will be final approval, clear eligibility rules, project registration, and verified emissions reductions.

China’s proposal signals a wider scope for its domestic carbon credit system. Whether that expansion leads to a meaningful increase in high-quality credits will depend on how the methods are finalized and applied in practice.

• READ MORE: Brazil Eyes China as Carbon Credit Buyer Ahead of Potential COP31 Accord

The post China Moves to Expand CCER Market With 11 New Carbon Credit Methods appeared first on Carbon Credits.

Google and McKinsey are backing a new carbon removal project in Brazil that aims to store carbon while keeping cattle farming productive. The deal could help bring a nature-based climate solution to a larger scale and create a new source of income for ranchers.

The two companies agreed to buy 320,000 metric tonnes of carbon removal credits over 10 years from a project developed by climate technology company Working Trees. The purchase is part of the Symbiosis Coalition, a group of major corporate buyers seeking long-term supplies of nature-based carbon removal credits.

The project will initially restore 8,700 hectares of degraded and partly degraded cattle pasture in Brazil’s southeastern Amazon and Cerrado regions. It forms part of a wider 50,000-hectare effort.

The approach is called silvopasture, which combines trees, pasture, and livestock on the same land. Trees absorb carbon as they grow, while cattle can continue grazing.

The agreement highlights a growing role for corporate carbon finance: helping projects secure money before they generate credits. Yet, the climate benefits will depend on how much carbon the project removes, how that removal is measured, and whether the carbon remains stored over time.

Julia Strong, Executive Director of Symbiosis Coalition, remarked:

“Silvopasture is one of the most underused tools we have for nature-based carbon removal, and what excites us about the Working Trees project is how much room there is to scale it. Working Trees’ project is sequestering carbon while also improving the land that communities rely on. That’s the kind of outcome we strive for at Symbiosis, real climate impact that supports the livelihoods of the communities this project touches while thinking holistically about landscape-level impacts that last.”

Silvopasture: How Trees and Cattle Can Share the Same Pasture

Traditional cattle pasture often has few trees. Silvopasture adds rows of trees to grazing land, allowing ranchers to keep cattle while increasing tree cover.

Working Trees says it combines native trees with commercial timber species and other trees suited to the land. The trees can absorb carbon, provide shade, improve soil conditions, and create additional income through timber sales. The company also says shade can reduce heat stress in cattle and help pastures cope with hot and dry conditions.

This matters in Brazil, where cattle farming is a major part of agriculture and land conversion is an important source of environmental pressure. Restoring degraded pasture could improve land productivity and reduce the need to clear additional areas for farming.

However, silvopasture is not the same as restoring a natural forest. The project must balance tree growth, grazing, and farm income. Its climate value will depend on the amount of carbon stored in trees and soil, minus relevant project emissions and any carbon losses.

Why the 320,000-Tonne Purchase Matters

The Google and McKinsey agreement gives Working Trees long-term buyers for a large share of its planned carbon removal. The companies have not publicly disclosed the purchase price or a detailed delivery schedule.

Long-term purchase agreements, often called offtake agreements, can help carbon project developers raise money and plan future work. Buyers agree to buy credits that meet specified requirements, often before all the credits have been generated.

This can help address some of the main barriers facing nature-based projects:

• the high upfront cost of planting trees,
• working with landowners, and
• monitoring results over many years.

Working Trees says it covers most implementation costs for participating farmers and provides technical support. That can lower the financial burden on ranchers who want to change how they manage their land.

The company reports that it has planted about 450,000 trees across 2,167 hectares with 18 partner farmers. It also reports interest from landowners covering 200,000 hectares. These are company-reported figures, not independently verified measures of carbon removal.

The new deal could help the company expand beyond its existing projects. Still, the 320,000 tonnes represent contracted carbon removal, not carbon already removed from the atmosphere.

• READ MORE: Brazil’s Mombak Delivers Amazon Carbon Credits Early, Giving Google a Climate Win

Corporate Buyers Are Building a Larger Carbon Removal Market

The agreement is part of a wider push by companies to secure future carbon removal. Google, Microsoft, Meta, and Salesforce are among the companies involved in the Symbiosis Coalition. The group aims to contract more than 20 million tonnes of carbon credits by 2030, with a focus on nature-based carbon removal.

This demand can help developers secure funding for projects that take years to grow and deliver measurable results. Market data also show why nature-based removal matters.

A 2025 survey by CDR.fyi and Sylvera found that nature-based carbon removal was much larger than durable carbon removal in terms of credits retired in 2024:

• About 11 million nature-based credits compared with roughly 200,000 durable removal credits.

Nature-based projects can often be deployed across large areas, but they face risks such as fires, drought, pests, and changes in land use. Durable removal methods, such as direct air capture with storage, can offer longer-lasting storage but often have higher costs and greater energy needs.

The two approaches serve different roles. This Brazilian deal shows how corporate buyers are helping build a supply of nature-based removal credits while seeking projects that can expand over time.

Brazil’s Carbon Market Adds Another Layer to the Investment Opportunity

Brazil has major potential for land-based climate projects because of its large agricultural sector, forests, and areas of degraded pasture.

McKinsey has estimated that Brazil could become a major global supplier of carbon removal credits. Its analysis points to restoration of degraded pasture, reduced deforestation, and improved land management as important opportunities. These are estimates of potential, not guaranteed future credit supply.

The country is also building a regulated carbon market. In December 2024, Brazil passed Law No. 15,042, which created the Brazilian Greenhouse Gas Emissions Trading System, known as the SBCE. The government is now working on the rules, governance, monitoring systems, and registry needed to implement it.

The Working Trees deal is a voluntary carbon removal agreement, not a transaction under the new regulated system. Even so, the wider policy effort could shape how carbon projects are measured and how buyers assess credits in Brazil.

For developers, a clearer market framework could support investment. For buyers, the challenge will remain to distinguish credible carbon removal from credits that overstate their climate benefits.

Carbon Quality Will Determine the Project’s Long-Term Value

The deal’s scale is important, but the project’s credibility will depend on how it measures and verifies carbon removal.

Tree growth can be measured over time, but carbon projects must also account for what would have happened without the project. They need to show that the activity creates additional climate benefits rather than simply paying for changes that were already planned.

Projects must also manage the risk of reversal. Trees can burn, die, or be cut down, releasing stored carbon. Soil carbon can also change with land management. Long-term monitoring and clear rules for handling carbon losses are therefore essential.

Working Trees says future timber revenue is part of its model. Whether that income is enough to support long-term maintenance remains to be demonstrated at scale.

Can Corporate Carbon Finance Help Silvopasture Scale?

Google and McKinsey’s 320,000-tonne purchase gives Working Trees long-term demand for carbon removal credits and supports the initial restoration of 8,700 hectares of Brazilian pasture.

The project offers a model that links carbon finance with continued cattle production, tree growth, and potential timber income. If it performs as planned, it could help show how degraded land can support both farming and carbon removal.

But the deal is not proof that all the expected carbon has been removed. The project must still deliver its planned work, measure results, and manage risks over time.

For the carbon market, the key test is whether long-term corporate purchases can turn promising land-based projects into verified, lasting carbon removal while creating lasting value for farmers.

• READ MORE: Google and McKinsey Secure Future Carbon Credits From Indonesia Through the Symbiosis Coalition

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Disseminated on behalf of Sierra Madre Gold & Silver Ltd.

Silver is no longer being driven by one industrial story. Solar remains one of the metal’s biggest applications, but a broader technology shift is reshaping demand.  

Artificial intelligence, data centers, electric vehicles, electronics, and power-grid investment are creating new uses for silver across the global economy.

Industrial demand hit 657.4 million ounces in 2025. This made up over half of total global silver demand, as noted in the Silver Institute’s World Silver Survey 2026. 

Although industrial demand declined 3% last year because of weaker photovoltaic consumption, the underlying mix is changing. Structural growth in AI infrastructure, automotive applications, and electricity networks helped offset part of the decline in solar.

That shift matters for silver producers because the next demand cycle may be less dependent on any single end market.

Silver Is Becoming a Technology Metal

Silver’s value in industrial applications comes largely from one property: electrical conductivity.

The metal is used in electrical contacts, circuit boards, switches, and power electronics. It’s vital for parts that need reliable conductivity. That makes silver increasingly relevant as the global economy becomes more electrified and more digitally connected.

The Silver Institute estimates a 2% drop in electrical and electronics demand for 2025. However, gains from grid infrastructure, automotive applications, and AI-driven electronics still support the sector. 

Those gains were not enough to offset falling photovoltaic demand, where manufacturers have accelerated efforts to reduce silver loadings through thrifting and substitution.

The result is an important distinction: silver demand can remain structurally tied to technology even when total industrial demand temporarily declines. That makes the composition of demand increasingly important.

AI Is Creating a New Silver Demand Channel

The growth of artificial intelligence is adding another layer to silver demand.

AI models need a lot of computing resources. This includes servers, processors, networking gear, power systems, and data centers. Silver is used throughout electrical and electronic equipment because of its conductivity and reliability.

The Silver Institute’s 2025 tech report shows that global IT power capacity rose from 0.93 gigawatts in 2000 to almost 50 GW in 2025. That’s about a 53-fold increase. The organization expects data centers and AI-related technologies to remain important drivers of industrial silver consumption through 2030.

The connection is broader than AI chips themselves.

More computing requires more data center capacity. More data centers require more electricity. More electricity requires additional transmission, distribution, and power-management infrastructure. That creates multiple potential pathways for silver demand.

As AI adoption grows, the metal faces new demands. It is now needed for semiconductor production and the infrastructure for power-hungry computing systems.

EVs Add Another Layer of Electrical Demand

Transportation is undergoing a similar transformation.

Electric vehicles have more electrical parts than traditional internal-combustion vehicles. This opens up more uses for silver. It’s now found in electrical contacts, power electronics, battery management systems, and charging infrastructure.

A Silver Institute report from Oxford Economics shows that battery-electric vehicles use 67% to 79% more silver than internal combustion vehicles. Each EV has about 25 to 50 grams of silver. It forecasts automotive silver demand to grow at a 3.4% compound annual growth rate between 2025 and 2031.

The change is not limited to the vehicle itself. A larger EV fleet requires a larger charging network. That means additional electrical equipment, connections, and power infrastructure.

Oxford Economics predicts that by 2027, EVs will lead automotive silver demand. They expect EVs to make up 59% of this demand by 2031.

These figures show why electrification may be a long-term source of silver use. This is true even as manufacturers try to use less material.

Power Grids Could Become an Overlooked Silver Driver

The growth of AI and EVs ultimately leads back to electricity.

Data centers need power. EV charging requires power. Manufacturing, industrial automation, and broader electrification all require additional generation and transmission capacity.

Silver is used in electrical systems due to its excellent conductivity. This includes contacts, switches, and other electrical parts.

The Silver Institute specifically identified power-grid investment as one of the structural factors supporting electrical and electronics demand in 2025. This creates an important second-order effect for silver.

The world does not simply need more devices. It needs the electrical infrastructure capable of supporting those devices.

That means silver demand can be linked to several investment cycles at once: 

• data center construction, vehicle electrification, renewable energy deployment, grid modernization, and broader industrial automation.

Solar Is Still Huge, But the Silver Story Is Changing

Solar remains critical to the silver market, but it is also where the industry is confronting one of its biggest challenges.

Photovoltaic demand helped drive years of industrial silver growth. However, manufacturers have increasingly reduced the amount of silver used per solar cell through thrifting and substitution.

The effect was significant in 2025.

Industrial silver demand fell 3% to 657.4 Moz, while the electrical and electronics segment declined 2%. The Silver Institute noted that the drop in PV demand was the main cause of the weakness. This happened even with ongoing gains from AI, automotive, and grid applications.

The Institute predicts that industrial demand will drop another 3% in 2026. This decline is mainly due to ongoing weakness in photovoltaic silver use. At the same time, it expects AI infrastructure, automotive applications and power-grid investment to remain areas of structural growth.

This does not make solar less important. Instead, it shows why the silver market is becoming more diversified.

The next phase of industrial demand may rely less on just adding more solar panels. Instead, it will focus on expanding digital infrastructure, transportation electrification, and electricity networks together.

A Changing Demand Mix Raises the Stakes for Supply

This evolution creates an unusual challenge for the silver market.

Demand is becoming increasingly connected to industries that governments and companies are investing in for long-term economic reasons. AI infrastructure, EV adoption, grid modernization, and digitalization are not single-year trends.

However, silver supply cannot necessarily respond at the same speed.

The Silver Institute reported that global mine production reached 846.6 million ounces in 2025, up 3%, while the market still recorded a deficit. Its 2026 outlook calls for mine production to remain broadly flat and projects another 46.3 million-ounce structural deficit.

That makes existing production capacity increasingly relevant. New mines can take years to permit, finance, build, and ramp up. Expansions and restarts at existing mining operations can happen more quickly. This is especially true when there is already processing infrastructure and mining facilities in place.

That is where Sierra Madre Gold & Silver enters the picture.

Sierra Madre Is Expanding Into a Changing Silver Market

Sierra Madre is building its production base while the industrial demand story is becoming more diversified.

At La Guitarra in Mexico, the company is boosting its current operation from 500 tonnes per day to 750–800 tpd. They also plan to expand to 1,200–1,500 tpd by Q3 2027. The company recently reported processing rates reaching as high as 720 tpd, showing the operation is already moving beyond its original 500-tpd level.

The expansion is designed around existing infrastructure rather than starting a new mine from scratch. Sierra Madre has increased its milling, crushing, material handling, and tailings capacity. It is also making progress in developing the Guitarra complex.

The company also now has Del Toro, a past-producing silver-lead-zinc complex in Zacatecas.

Del Toro includes three underground mines and a 3,000-tpd processing facility, along with more than 62.5 kilometers of underground development. Sierra Madre is evaluating a restart beginning at approximately 800 tpd, with potential to scale toward 1,600 tpd. 

The significance is not that one company can solve the global supply problem.

Sierra Madre shows how producers can meet a market linked to long-term tech and electrification trends. They can: expand current operations, restart old infrastructure, and build more production capacity.

The Silver Market Is Becoming More Electrified

Silver’s industrial story is entering a broader phase. Solar remains a major source of consumption, but AI, data centers, EVs, electronics, and power infrastructure are creating additional demand channels. 

Some applications will use less silver and become more efficient. But others will need more electrical equipment as economies go digital and electrified.

The result is a market where demand growth cannot be reduced to a single theme.

For producers, that creates a parallel challenge: supplying a metal that sits inside multiple growth industries while mine supply remains difficult to expand quickly.

Sierra Madre’s La Guitarra expansion and Del Toro restart strategy provide a direct example of how established mining assets can be positioned to participate in that changing market.

The bigger question for silver is whether new supply can keep pace as the metal moves from being primarily a precious metal into an increasingly important industrial and technology input.

• READ MORE: Silver Falls 45% From Its 2026 Peak as Sierra Madre Scales Up Production

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