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Disseminated on behalf of Surge Battery Metals.

When General Motors (GM) committed $625 million to develop Thacker Pass in Nevada, it did more than fund a lithium project. It established a new model for how automakers secure critical minerals, and in doing so, it reshaped how investors should evaluate the next generation of U.S. lithium assets.

This was not a passive investment. It was a fully structured supply chain partnership, combining equity, long-term offtake, and pricing strategy into a single agreement. 

For investors watching Nevada’s clay lithium sector, the implication is clear: the first project has been validated – now the market is looking for what comes next.

A Landmark Deal and a New Partnership Model

GM’s $625 million investment in Lithium Americas remains one of the largest commitments by an automaker into upstream battery materials. The structure of the deal matters as much as its size. 

GM secured exclusive access to Phase 1 production, locking in long-term supply from Thacker Pass, which is expected to produce around 40,000 tonnes per year of battery-grade lithium carbonate. That output alone could support hundreds of thousands to up to 1 million EVs annually.

More importantly, the agreement evolved into a joint venture structure, with GM ultimately taking a 38% ownership stake in the project while securing long-term offtake rights. This started as a TopCo equity investment but changed into a JV. 

John Evans, LAC CEO, said in an interview on the GM agreement:

“They view this as an investment as much as they do a hedge to ensure that they get low-cost lithium. They want to run this JV as a business.”

A key highlight of the Thacker Pass deal is GM’s offtake agreement, which now serves as a template for a world-class OEM arrangement. GM must purchase at least 20% of its North American lithium demand, with the option to increase to 100%. 

The floor price is “meaningfully above” the August 2024 low (~$10,000/t) but below current prices (~$21,000/t), as noted by Evans. GM was given an effective discount at higher price levels, lightly structured when prices at that time were at ~$60,000/t.

GM provides rolling three-year forecasts, with the next year’s volume fixed, allowing Lithium Americas to commit remaining volume to third parties. The agreement covers up to three years of contracted volume at a time. 

GM Moves Upstream: From Automaker to Lithium Investor

The GM–Thacker Pass agreement highlights a shift in the lithium market. Automakers are moving upstream, directly into mining, to secure supply, manage costs, and reduce geopolitical risk. This approach is driven by both market forces and policy, with the U.S. pushing for domestic sourcing of critical minerals to support EV supply chains.

Key elements of this emerging model include:

  • Equity participation in the mining project,
  • Long-term offtake agreements tied to production, and
  • Structured pricing mechanisms to manage volatility.

Thacker Pass sits at the center of that strategy. It is widely recognized as the largest known lithium resource in the United States, and with construction underway, it is moving from concept to execution.

Breaking the Clay Lithium Barrier

For years, sedimentary clay lithium has carried a persistent discount in the market. Unlike brine operations in South America or hard-rock mining in Australia, clay deposits had never been proven at a commercial scale. The uncertainty around processing, recovery rates, and operating costs limited investor confidence.

Thacker Pass is now changing that, with construction underway, production targeted later this decade, and processing planned using sulfuric acid leaching at an industrial scale. Once operational, it will mark the first large-scale commercial validation of clay lithium extraction.

In resource markets, once a new extraction method is proven, capital follows. Financing improves, development timelines accelerate, and the entire category begins to reprice. This is exactly what happened in Chile’s brine sector decades ago. Clay lithium in Nevada may now be entering a similar phase.

Why This Matters for Investors

GM’s investment provides a real-world benchmark for what a bankable lithium project looks like in today’s market. It demonstrates that:

  • OEMs are willing to invest upstream
  • Long-term offtake agreements can anchor financing
  • Domestic lithium supply is now a strategic priority

It also answers a key question that has held back the sector: Will major industrial players commit to clay lithium at scale? The answer is now yes.

The Next Project in the Queue: NNLP

With Thacker Pass moving forward, investor focus naturally shifts to the next project capable of attracting similar strategic interest. That brings attention to Surge Battery Metals’ Nevada North Lithium Project (NNLP), a structurally aligned next-tier candidate. 

NNLP is not competing with Thacker Pass as a first mover; it is emerging as a next-generation project within a now-validated category.

NNLP stands out based on core project metrics that directly impact economics. Its average lithium grade of 3,010 ppm is significantly higher than Thacker Pass Phase 1 material, which ranges from 1,500 to 2,500 ppm. Higher grades typically translate into more efficient recovery and lower processing intensity per tonne. 

Surge lithium clay comparison

The project also benefits from near-surface mineralization and a low strip ratio of approximately 1.16:1. This may reduce mining complexity and indicate efficient material movement. 

From a cost perspective, NNLP’s estimated operating cost of around $5,243 per tonne LCE compares favorably to LAC’s Thacker Pass guidance of roughly $6,200 per tonne.

Beyond geology, NNLP aligns with the same development framework that defines Thacker Pass. The project has secured a strategic partnership with Evolution Mining, funding up to C$10 million toward the Pre-Feasibility Study (PFS), while Fluor Corporation, the engineering firm involved in Thacker Pass, is leading the PFS at NNLP. 

Surge joint venture evolution mining

Leadership expertise also matters: Steffen Ball, a key member of the team, previously led battery raw material sourcing strategies at major automakers. These include Nissan North America and Ford Motor Company, aligning with the type of OEM agreements now seen in GM–Thacker Pass.

Scale, Market Tailwinds, and Second-Wave Opportunities

Scale is critical to attract major OEM partners. NNLP outlines a 42-year mine life with average annual production of approximately 86,300 tonnes of lithium carbonate equivalent. That output positions it to support long-term anchor offtake agreements, similar in structure to what GM secured at Thacker Pass.

Market fundamentals continue to support these developments:

  • Global lithium demand is projected to more than double by 2030.
  • EV production is scaling rapidly across major markets.
  • Governments are prioritizing domestic supply chains for critical minerals.

Even with recent lithium price volatility, long-term fundamentals remain intact. GM’s investment reflects a forward-looking strategy: secure supply today to avoid constraints tomorrow. 

Thacker Pass carries the burden of being first, proving the process, building infrastructure, and validating the economics of clay lithium. This creates opportunities for projects that follow, like NNLP, which benefit from reduced technical uncertainty, clearer financing pathways, and a market that now understands clay lithium.

First Project Validated, Next Project Poised to Follow

GM’s $625 million investment was not just a bet on one project. It was a commitment to a new supply chain model for lithium—one that integrates mining, manufacturing, and long-term demand into a single structure. Thacker Pass is now proving that model, and NNLP is positioned to fit within it.

With higher grades, favorable mining characteristics, strong development partners, and the right scale, NNLP aligns with the criteria that attracted one of the world’s largest automakers to Nevada clay lithium in the first place. 

For investors, the takeaway is straightforward: the first project is being built, the template is established, and the next project in the queue is becoming easier to identify.

DISCLAIMER 

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

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

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

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

CAUTIONARY STATEMENT AND FORWARD-LOOKING INFORMATION

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

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

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

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

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


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The post GM Bets $625 Million on Nevada Lithium Clay: What It Signals for the Next U.S. Project appeared first on Carbon Credits.

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The Environmental Impact of Industry: Causes, Effects & Solutions

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Since the Industrial Revolution, human activities have left a significant and growing mark on the natural world. Pollution, carbon emissions, and altered land use have degraded ecosystems, contaminated water supplies, and pushed global temperatures to record highs. These are not distant consequences. They affect the air people breathe, the food they eat, and the stability of the climate every community depends on.

Understanding the environmental effects of industry is the first step toward meaningful change. When we grasp the full picture of how industrial practices damage the planet, we can make better decisions at every level, from individual choices to corporate policy to government regulation.

This guide covers the origins of industrial pollution, its specific environmental impacts, which industries carry the heaviest footprint, and the solutions that are already making a difference. We also highlight companies leading by example and explain how businesses of all sizes can take action today.

How Did the Industrial Revolution Cause Environmental Pollution?

The Industrial Revolution began in England in the 18th century before spreading through Europe and across the world. Nations shifted from agrarian economies to industrial ones, and fossil fuels were burned on a massive scale to power that transition. The environmental deterioration that followed has been compounding ever since.

Land use changed dramatically alongside industrial growth. As factories and urban centers expanded, farmland shrank and agriculture itself became industrialized. Industrial farming introduced fossil-fuel-powered machinery, synthetic fertilizers, pesticides, and concentrated livestock operations. The result was soil deterioration, widespread air and water pollution, and a significant rise in greenhouse gas emissions from the agricultural sector alone.

Deforestation and urbanization compounded the damage by eliminating natural carbon sinks. Forests and wetlands that once absorbed carbon dioxide from the atmosphere were cleared for development, removing the land’s natural ability to absorb carbon and leaving more greenhouse gases concentrated in the air.

The numbers tell the story clearly. Atmospheric CO2 was consistently around 280 parts per million before industrialization began. According to the IEA, CO2 concentrations reached approximately 427 parts per million in 2025, more than 50% above pre-industrial levels, with total energy-related emissions hitting a record high of nearly 38.4 billion tonnes. That figure has risen every decade since the Industrial Revolution began.

Industrialization continues today in developing nations, many of which lack the financial infrastructure to adopt clean energy and rely instead on coal, oil, and petroleum to power their growing economies. Even many developed nations remain heavily dependent on polluting industries, continuing to add to global greenhouse gas concentrations.

What Are the Environmental Impacts of Industry?

Industrial pollution creates environmental damage at every scale, from local waterways to the global atmosphere. The consequences affect ecosystems, human health, and the long-term stability of the climate. Below are the three primary categories of environmental impact driven by industry.

Pollution

Industry causes pollution across water, air, and soil, the three foundations of life on Earth. Each type of pollution carries its own chain of consequences.

Water pollution occurs in both freshwater systems and oceans. Water used in industrial processes becomes contaminated when it contacts metals, chemicals, or radioactive waste, and that water is often discharged into rivers and waterways. The result is contaminated drinking water, damaged aquatic ecosystems, and crops irrigated with polluted water that can become harmful to consume. Globally, 80% of wastewater is still released untreated into the environment.

Air pollution is any physical, biological, or chemical change to the atmosphere that reduces air quality. Gas, smoke, and fine particulate matter from burning coal or natural gas cause respiratory and cardiovascular disease in humans and threaten ecosystems globally. Air pollution now contributes to approximately 7.9 million premature deaths per year worldwide, making it one of the leading environmental causes of mortality. Airborne contaminants also cause acid rain, which ruins crops and acidifies freshwater bodies.

Soil pollution occurs when chemical levels in the ground exceed safe thresholds and present a threat to human health or ecosystems. Soil becomes polluted through industrial waste, chemical pesticides and fertilizers, oil spills, and landfills. Heavy metal contamination from industrial waste currently affects an estimated 20% of global agricultural land. Contaminated soil reduces crop yields, harms wildlife, and can lead to serious health problems in humans and animals living in affected areas.

Ecological Consequences

Pollution and altered land use place severe strain on ecosystems in ways that ripple outward for generations. Three interconnected effects stand out.

Habitat destruction results from deforestation, urban expansion, and industrial development. When natural habitats are destroyed or fragmented, plants and animals lose the environments they need to survive. Species are pushed into shrinking territories, forcing greater competition for resources and raising extinction risks. According to current data, 33% of global soils are degraded due to pollution and erosion, compressing the productive land available to both agriculture and wildlife.

Slower environmental recovery is another consequence of the cumulative strain on ecosystems. Natural disasters like wildfires and hurricanes are growing more frequent and severe as the climate shifts, and ecosystems already weakened by pollution and habitat loss take longer to recover from each new event. Industrial accidents, such as oil spills or chemical leaks, add further damage that can persist in an environment for decades.

Biodiversity loss continues to accelerate as species go extinct at rates far above natural baselines. The combination of habitat destruction, pollution, climate change, and resource depletion creates overlapping pressures that many species cannot adapt to quickly enough.

Atmospheric Changes

Industrial practices release large quantities of greenhouse gases into the atmosphere, driving global warming and climate change. These two phenomena are distinct but deeply linked.

Global warming occurs when greenhouse gases like CO2 and methane accumulate in the atmosphere and trap heat that would otherwise radiate into space. Burning fossil fuels is the primary driver of CO2 buildup. Agricultural practices and landfills release significant quantities of methane, a greenhouse gas with more than 80 times the short-term warming power of CO2.

Climate change is the broader set of consequences that follows from global warming. Rising temperatures shift rainfall patterns, intensify storms, accelerate glacial melting, raise sea levels, and make agricultural conditions less predictable. Every fraction of a degree of additional warming increases these risks. The remaining carbon budget for limiting warming to 1.5 degrees Celsius is now projected to be exhausted by 2029 at current emission rates.

What Industries Have the Largest Environmental Impact?

Green Energy Claims Image of Smoking Factory Plant

Some industries carry a disproportionately large environmental footprint. Researchers evaluate environmental impact across six key components: greenhouse gas emissions, water use, waste generation, land and water pollutants, air pollutants, and natural resource use. The industries that dominate these categories are as follows.

Energy and electric utilities are the most polluting sector on Earth, generating approximately 15.83 billion tonnes of greenhouse gas emissions annually. The energy sector ranks highest in four of the six environmental impact categories: greenhouse gas emissions, waste, air pollutants, and natural resource use. As long as coal and natural gas remain central to electricity generation, this sector will continue to lead all others in environmental damage.

Transport is the second most polluting industry globally, responsible for around 8.43 billion tonnes of greenhouse gas emissions each year. Road transport accounts for the majority of that figure, while aviation and shipping contribute significantly. The sector is under growing pressure to electrify and adopt cleaner fuels.

Manufacturing and construction generate approximately 6.3 billion tonnes of emissions annually and consume vast quantities of raw materials including metals, sand, and timber. This sector appears across all six environmental impact categories, reflecting its broad footprint across pollution, resource use, and land disruption.

Food production ranks as the highest non-utility industry in water use and land and water pollutants. Industrial agriculture is responsible for the majority of freshwater withdrawals globally and is a leading driver of deforestation, soil degradation, and chemical runoff into waterways.

How Can the Environmental Impact of Industry Be Reduced?

Meaningful solutions to industrial pollution already exist. The challenge is implementing them at speed and scale. Below are the most impactful approaches available to businesses and industries today.

Better Waste Management

Improperly handled industrial waste is one of the most direct and preventable causes of environmental pollution. When waste is not treated and disposed of correctly, it contaminates waterways, soil, and groundwater. Industries that invest in proper waste treatment and disposal systems can eliminate a significant portion of their local environmental impact. This is also an area where regulation has historically produced measurable results.

Improved Recycling and Water Reuse

Unnecessary pollution occurs when recyclable materials and reusable water are instead discarded. Industrial water recycling, for example, keeps contaminated water within closed systems rather than releasing it into rivers and oceans. Expanding recycling programs across manufacturing sectors reduces both raw material extraction and waste generation, addressing two environmental problems at once.

Greenhouse Gas Mitigation and Carbon Offsetting

Reducing greenhouse gas emissions from industrial processes is the single most important lever for slowing climate change. Switching to renewable or clean energy cuts emissions at the source. Gas capture programs reduce methane and other potent greenhouse gases that would otherwise escape from operations like landfills and agricultural sites. For emissions that cannot yet be eliminated, verified carbon offset programs allow businesses to fund reforestation, methane capture, and renewable energy projects that compensate for their remaining footprint. Understanding the social cost of carbon helps businesses make the case internally for these investments.

Smarter Land Use

Industrial site selection and land management have lasting ecological consequences. Businesses should choose locations that minimize habitat disruption and avoid high-risk areas where accidents like fires or spills could cause catastrophic environmental damage. Reducing resource extraction on sensitive lands and funding environmental restoration projects, including reforestation and wetland rehabilitation, helps offset the land-use impact of ongoing operations. Carbon removal credits are one mechanism businesses can use to support these restoration efforts directly.

Advancing Technology

Older industrial technologies are often energy-inefficient and generate disproportionately high levels of pollution. Upgrading to newer equipment and processes allows industries to reduce emissions and resource consumption simultaneously. Switching to renewable energy, adopting AI-driven energy management, and investing in cleaner production technologies are all practical steps that industries can take now. The companies seeing the most progress are those that have embedded sustainability goals into their technology roadmaps rather than treating them as separate initiatives.

Environmental Awareness and Impact Assessment

Education and measurement underpin all other solutions. Industries that conduct regular environmental impact assessments, track their resource consumption and emissions, and train employees on sustainability practices are better positioned to identify problems early and respond effectively. Measuring and managing your carbon footprint is as essential for businesses as financial reporting, and increasingly, regulators and investors are requiring exactly that.

What Companies Are Reducing Their Environmental Impact?

Several major companies have made substantial commitments to reducing their environmental footprint and serve as benchmarks for the rest of the corporate world. Their progress, and in some cases their setbacks, offer useful lessons for any business navigating the transition to more sustainable operations.

Microsoft has been carbon neutral since 2012 and has set more ambitious targets since then. The company’s 2025 Environmental Sustainability Report outlines its goals to become carbon negative, water positive, and zero waste by 2030. Microsoft charges an internal carbon fee to business units and reinvests those funds into carbon reduction and removal initiatives. The company achieved its goal to protect more land than it uses by 2025 and has invested in renewable energy across 16 countries, including its first large-scale nuclear energy agreement.

Intel aims to be net positive on water use and achieve 100% renewable energy for its global operations by 2030. Intel links a percentage of employee compensation to corporate sustainability metrics, recognizing that achieving environmental goals requires company-wide participation rather than top-down mandates alone.

Alphabet (Google) has made significant progress on data center efficiency, reducing data center energy emissions by 12% in 2024 despite a 27% increase in overall electricity consumption, driven largely by AI workloads. Google’s data centers now provide six times more computing capacity per unit of electricity compared to five years ago. In 2024, Google signed agreements for more than 8 gigawatts of clean energy, the highest annual volume in the company’s history. The company has also pioneered AI-driven cooling systems for its data centers that dramatically reduce energy waste. It is worth noting that all three of these companies face the growing challenge of rising energy demand from AI infrastructure, a reminder that sustainability commitments require continuous adaptation as business models evolve.

Changing the Environmental Impact of Industry

More than two centuries of large-scale industrial activity have given us a clear view of the consequences. Pollution, ecological damage, and atmospheric change are not side effects we can manage around. They are the defining environmental challenge of our time, and the window for meaningful action is narrowing.

The good news is that solutions are no longer theoretical. Renewable energy is now cost-competitive with fossil fuels in most markets. Carbon capture and offset programs are funding real-world emissions reductions. Companies across every sector are finding that sustainable practices often improve efficiency and reduce long-term costs alongside their environmental benefits.

Whether you run a business or simply want to understand your own role in this picture, the path forward starts with knowing where you stand. Visit Terrapass to learn how you can measure your carbon footprint, reduce your emissions, and support verified projects that make a difference.

Brought to you by terrapass.com

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