Carbfix has made a big move in Europe’s battle against climate change. It received the first permit for onshore carbon dioxide (CO2) storage under EU law. This project, based in Iceland, makes history by allowing the underground storage of CO2 in line with the EU’s strict climate policies. It is the first time the EU has formally approved an onshore geological storage project under its 2009 CCS Directive.

Carbfix’s storage method uses Iceland’s natural basalt rock to turn captured CO2 into solid minerals. This innovative approach supports the EU’s Green Deal, which aims to cut greenhouse gas emissions by at least 55% by 2030.

The mineral storage operator shows that carbon capture and storage (CCS) can work well on land. This sets a strong example for other European countries.

Understanding the Science Behind Carbfix’s CCS Tech

The Carbfix process is both simple and groundbreaking. First, carbon dioxide is captured from industrial sources or directly from the air. Then it is dissolved in water and injected into underground rock formations.

In Iceland, natural basalt rock reacts with CO2 solution. This forms solid carbonate minerals that trap carbon permanently. Carbfix’s method is different from other carbon storage methods. Instead of keeping gas trapped under rock layers, it turns gas into stone. This process removes the risk of leakage in the long run.

Key features of the project include:

• Location: The site is in Iceland, where volcanic basalt is plentiful and ideal for mineralizing CO2.

• Technology: The CO2 reacts with minerals in the rock to form stable solids in under two years.

• Safety: The National Energy Authority of Iceland (Orkustofnun) checked the project to ensure it follows EU safety rules for geological storage.

Carbfix’s innovative technology has already been used in smaller pilot projects in Iceland, including at the Hellisheiði geothermal power plant. Getting a permit under the EU’s tough rules is a major step for wider use in Europe.

Highlighting the growing importance of CCS technology in Europe’s climate strategy, Carbfix CEO, Edda Sif Pind Aradóttir stated:

“With this first onshore storage permit in Europe, Iceland also retains a certain leadership role in building a new industry that is essential to both the EU’s and IPCC’s climate goals.”

Why the EU Supports Carbon Capture and Storage

The European Union is focused on cutting greenhouse gases to fight global warming. Technologies like CCS play a key role in achieving this.

The European Commission’s Industrial Carbon Management Strategy says that by 2050, the EU will store around 250 million tonnes of CO2 each year. This will be in underground storage.

Total carbon capture could reach around 450 million tonnes yearly, which includes some CO2 that is used instead of stored. This could account for 7-8% of the region’s emissions.

The EU’s climate plan encourages both public and private investment in carbon storage projects. Experts estimate that suitable sites in Europe could store up to 300 million tonnes of CO2 per year by 2030.

The European Climate Law requires net-zero emissions by 2050. This law pressures all sectors, including heavy industry, to cut or offset their emissions.

While the company is pioneering onshore CCS, most EU CCS capacity and projects focus on offshore storage, especially in the North Sea region.

By 2030, Europe might reach a storage capacity of 140 million tonnes per year. However, only about 66 million tonnes per year is expected in EU member states. Most of the onshore projects are small, mainly in Denmark and the Netherlands.

Iceland’s Carbfix project is unique as an onshore basalt mineralization site. The Carbfix permit allows storage of up to about 106,000 tonnes of CO2 annually, totaling around 3.2 million tonnes over 30 years.

• RELATED: Shell, Equinor, and TotalEnergies Expand Northern Lights CCS with $714 Million Investment

It proves that onshore CO2 storage is possible within the EU’s legal framework. It opens the door for similar projects in other member countries. By proving that this kind of storage is safe and effective, Carbfix is leading the way for other innovators to follow. It also opens opportunities for generating carbon credits.

The Growing Role of Carbon Markets

With more companies and governments trying to lower emissions, the demand for carbon credits is growing. These credits allow companies to pay for carbon reductions elsewhere if they cannot cut emissions directly.

Projects like Carbfix generate carbon credits by permanently removing CO2 from the atmosphere. This makes them especially attractive to buyers seeking high-quality, verifiable carbon offsets.

Recent projections indicate the average EU carbon price could reach about €92/t CO2e in 2025. It could rise to €130/t by 2026 and €195/t by 2030.

Analysts expect the global carbon market to more than double in size by 2030, possibly reaching $100 billion. More storage projects like Carbfix are starting up that can increase the supply of high-quality carbon credits. As a result, the market will stabilize and new investment opportunities will arise.

Carbon credit markets help create a circular carbon economy. In this system, captured emissions are reused or stored permanently, preventing them from entering the atmosphere. As countries strengthen their climate commitments, demand for such credits will likely increase.

A Model for Future Projects

Carbfix could serve as a model for future carbon storage projects across Europe and beyond. Other European countries are already exploring similar opportunities. Reports say that up to 10 new onshore storage projects might start in the next five years. This is especially true in areas with volcanic or sedimentary rock formations.

To support this growth, the EU is working on clearer rules and funding support for carbon capture projects. This includes easier permitting, better carbon pricing, and more public-private partnerships. The Innovation Fund and Horizon Europe are two major EU programs supporting climate technology, including CCS.

Experts agree that CCS must grow quickly to meet climate targets. Renewable energy and energy efficiency are vital. However, technologies like Carbfix can cut emissions in tough industries, which include cement, steel, and chemicals.

The Carbfix carbon storage permit marks the beginning of a new phase in Europe’s climate journey. As the EU looks to scale up CCS efforts, the success of onshore projects will be crucial. With the right policies and technologies in place, the region could become a global leader in carbon storage innovation.

• READ MORE: Netherlands Invests $726 Million in Aramis CCS as Shell and Total Shift Strategies

The post Carbfix Secures First EU Permit for Onshore Carbon Capture and Storage appeared first on Carbon Credits.

Bitcoin began as an idea shared by a small group of technology enthusiasts. In the last ten years, it has become a global digital asset. It draws interest from big investment firms, governments, and regular people.

Today, Bitcoin is not just a digital currency used for online payments. It is also seen as a new type of asset, similar to gold or stocks, that people can invest in. However, this transformation has come with significant challenges, particularly regarding energy use and environmental impact. As the Bitcoin mining industry matures, the focus is shifting toward more sustainable practices.

The Digital Pickaxe: How Bitcoin Mining Actually Works

In 2024, a major event for Bitcoin took place. The U.S. Securities and Exchange Commission (SEC) approved spot Bitcoin exchange-traded funds (ETFs). This decision made it much easier for regular investors and big institutions to buy and sell Bitcoin.

More companies and financial firms now offer Bitcoin to their clients. So, the digital asset is becoming more accepted in mainstream finance. Here’s how its market value compares with other cryptoassets and traditional assets. 

Bitcoin depends on a process called “mining” to keep its network secure and to create new coins. Mining is done by powerful computers that solve complex math problems. When a computer solves a problem, it adds a new “block” to the Bitcoin blockchain. The miner then gets new bitcoins and transaction fees as a reward.

This process is called “Proof-of-Work.” It is designed to make sure that no one can cheat the system or take over the network. The more computers, or “hashrate,” that are working to mine Bitcoin, the more secure the network becomes.

Mining has changed a lot since Bitcoin started. At first, anyone with a home computer could mine Bitcoin. Now, most mining is done by large companies using special machines called ASICs (Application-Specific Integrated Circuits). These companies often have mining farms with thousands of machines running day and night.

The Cambridge Digital Mining Industry Report states that a recent survey covered 49 mining companies. These companies control almost half of the total computing power for Bitcoin mining. These companies operate in 16 countries. The United States is now the biggest mining hub, accounting for over 75% of mining activity.

The Energy Debate: Powering Bitcoin

One of the biggest debates about Bitcoin is how much energy it uses. Bitcoin mining is a high-energy process. Because mining requires so much computing power, it also needs a lot of electricity. Some people worry this might hurt the environment. This is a concern, especially if the electricity comes from fossil fuels like coal or natural gas.

The Cambridge report estimates that Bitcoin mining uses about 138 terawatt-hours (TWh) of electricity each year. This is similar to the annual electricity use of a country like Sweden.

• The mining activity also produces about 39.8 million metric tons of carbon dioxide (CO2) each year. However, this share of global emissions remained under 0.1%.

However, the report also shows that the energy mix for Bitcoin mining is changing. More than half (52.4%) of the electricity used by miners now comes from sustainable sources. This includes hydropower (23.4%), wind (15.4%), nuclear (9.8%), and solar (3.2%). Still, natural gas remains the single largest energy source at 38.2%, followed by coal (8.9%).

Many mining companies are trying to use more renewable energy and to find ways to reduce their environmental impact. Some are even using energy that would otherwise be wasted, such as gas flaring from oil fields. These efforts are important as the industry faces growing pressure to be more environmentally friendly.

Meanwhile, the survey shows a possible scenario when miners want to offset the emissions of their activities by buying carbon credits. The chart below compares the cost of removing Bitcoin’s carbon emissions using two methods: nature-based solutions like planting trees, and high-tech solutions like direct air capture (DAC).

Nature-based methods cost about $5 to $9 per ton of CO2, while DAC costs much more—between $134 and $344 per ton. Lower emissions mean lower total costs, and higher emissions mean higher total costs for offsetting.

Wall Street Meets Blockchain: Institutions Dive In

Bitcoin’s price has seen big changes in recent years. In early 2025, Bitcoin reached a new high of about $109,000 before dropping to around $74,000 in April. By May, it had recovered to about $95,000. These price swings show how quickly the market can change.

However, the broader market trend shows growing maturity:

• Institutional adoption is rising. Major firms—including BlackRock, Fidelity, and MicroStrategy—have invested directly in Bitcoin or launched crypto-related products.
• Spot Bitcoin ETFs approved in early 2024 have brought mainstream exposure, unlocking billions in capital inflows.
• Bitcoin’s market cap briefly surpassed $1.5 trillion in early 2025, signaling continued investor interest even amid macroeconomic uncertainty.

RELATED: BlackRock Bets on Abu Dhabi for Strategic Growth. Is Crypto Part of the Plan?

Experts have different predictions for where Bitcoin’s price will go next. Some believe it could reach $150,000 or even $200,000 by the end of 2025, especially as more institutional investors enter the market.

The approval of Bitcoin ETFs has made it easier for large funds and retirement accounts to invest in Bitcoin. Even a small investment from these big players could have a big impact on Bitcoin’s price.

The growing interest from companies is also important. Some businesses, like MicroStrategy, have bought large amounts of Bitcoin as a way to store value. This shows that Bitcoin is being used not just as a currency, but as a financial asset.

These trends point to Bitcoin’s growing acceptance as both a store of value and a portfolio diversifier. This financial legitimacy is helping drive the push toward more sustainable and compliant mining practices. And one name stands out in this direction – American Bitcoin Corp. 

Stars, Stripes, and Satoshis: The Rise of American Bitcoin

American Bitcoin Corp. is a majority-owned subsidiary of Hut 8 Corp., one of North America’s leading digital asset mining companies. In early 2025, Hut 8 teamed up with American Data Centers to launch American Bitcoin. This partnership includes investors Eric Trump and Donald Trump Jr. American Bitcoin will focus on large-scale Bitcoin mining and creating a strategic Bitcoin reserve.

Hut 8 serves as American Bitcoin’s exclusive infrastructure and operations partner. American Bitcoin uses Hut 8’s strong data center skills, energy setup, and large-scale operations. They do this through long-term business agreements.

Hut 8’s CEO, Asher Genoot, highlights that separating American Bitcoin helps it raise growth capital on its own. This move also keeps Hut 8 shareholders connected to Bitcoin’s potential gains.

Just recently, American Bitcoin announced a merger with Gryphon Digital Mining. This stock-for-stock deal will take them public. They plan to trade on Nasdaq with the ticker symbol “ABTC.” This move aims to scale American Bitcoin as a low-cost Bitcoin accumulation vehicle, unlocking new capital to expand mining capacity and Bitcoin holdings.

The combined company will be led by a board including Hut 8 CEO Asher Genoot and other key executives such as Mike Ho and Eric Trump. American Bitcoin aims to be the largest and most efficient Bitcoin miner globally. They plan to achieve over 50 exahashes per second (EH/s) of mining power. Their goal is also to maintain an average fleet efficiency below 15 joules per terahash (J/TH).

By combining Hut 8’s operational excellence and infrastructure with strategic capital and market access, American Bitcoin is positioned to lead the U.S. Bitcoin mining industry and build a robust Bitcoin reserve for long-term growth.

Hurdles on the Hashrate Highway

Bitcoin’s future hinges on overcoming several key challenges. Regulatory uncertainty is a big problem. Governments have different rules for digital assets, which makes it hard for mining companies to plan for the long term.

Energy costs are a big concern. Mining only makes money when Bitcoin’s price is higher than electricity and equipment costs. If energy prices keep rising, miners might lose and shut down.

Additionally, as more miners join, mining becomes harder and requires continuous equipment upgrades to remain competitive. Environmental impact remains a concern, but innovations like AI are improving efficiency.

Despite these challenges, Bitcoin mining continues to evolve, with new technologies emerging to enhance sustainability and possibly even support power grids. The balance between growth and these hurdles will shape Bitcoin’s future in the global economy.

• READ MORE: The Energy Debate: How Bitcoin Mining, Blockchain, and Cryptocurrency Shape Our Carbon Future

The post Bitcoin’s New Gold Rush: ETFs, Energy Battles and the Rise of American Bitcoin appeared first on Carbon Credits.

The global tech sector faces a growing challenge to power energy-hungry services, like AI and cloud computing, while cutting carbon emissions. Google, one of the world’s largest technology companies, is pushing ahead on both fronts.

The tech giant is making new investments in advanced nuclear energy. It is also taking strong steps to cut powerful greenhouse gases. These actions help Google become a leader in corporate sustainability.

This article looks at Google’s latest clean energy strategies — combining nuclear power, carbon removal, and superpollutant destruction — to support its long-term carbon-free goals.

A Big Bet on Advanced Nuclear Energy

Google has teamed up with Elementl Power to invest in 3 new advanced nuclear projects in the U.S. Each plant will produce at least 600 megawatts (MW) of electricity. This move supports Google’s goal to run its operations on carbon-free energy 24/7.

The collaboration focuses on small modular reactors (SMRs). These next-gen nuclear designs offer better safety, more flexibility, and lower costs than traditional nuclear plants. SMRs are modular, meaning they can be built in factories and assembled on-site more quickly and at lower risk.

Key facts about the projects:

• Total capacity: At least 1,800 MW (600 MW each x 3)
• Location: United States (specific sites not yet disclosed)
• Expected benefits: Reliable, zero-carbon baseload power to complement intermittent wind and solar energy

By adding reliable, carbon-free power, Google hopes to support its growing energy needs while cutting emissions. Nuclear energy can provide steady electricity even when wind or solar power is unavailable. This is important as Google works toward running on 24/7 carbon-free energy by 2030. The project is also expected to create thousands of new jobs and boost local economies.

According to the National Renewable Energy Laboratory (NREL), nuclear energy could provide up to 25% of U.S. electricity by 2050. This makes it a crucial player in the transition to a clean energy grid. In 2023, nuclear power was responsible for generating 100 GW of power in the country, per Bloomberg data.

Beyond decarbonization, the projects will create thousands of jobs during construction and operations. This will help boost local economies, in addition to decarbonization efforts.

Google’s investments in nuclear align with broader industry trends. Governments in the U.S., Canada, and Europe are ramping up funding for advanced reactors. The Trump administration has proposed billions in support for nuclear innovations.

The World Nuclear Association says about 440 reactors supply 10% of the world’s electricity now. They expect this to grow to 15% in the next ten years.

• RELATED: Google Speaks: Why Nuclear Energy Could be Big Tech’s Next Bet

Eliminating Superpollutants: Tackling Potent Greenhouse Gases

Alongside its nuclear push, Google is stepping up efforts to eliminate superpollutants. These gases trap far more heat than carbon dioxide (CO₂) per ton. These include:

• Methane (CH₄)
• Nitrous oxide (N₂O)
• Fluorinated gases (HFCs, HCFCs)

Although short-lived, these gases contribute significantly to near-term global warming. The Intergovernmental Panel on Climate Change (IPCC) estimates they’ve caused nearly 50% of historical warming.

Google announced new partnerships with Recoolit and Cool Effect to target these superpollutants. 

Recoolit, based in Indonesia, partners with HVAC technicians. They recover and destroy harmful HFC refrigerants from air conditioners. This process prevents leaks into the atmosphere.

Cool Effect, in Brazil, helps destroy landfill methane. They install systems to capture and flare methane from waste as it decomposes.

Through these initiatives, Google aims to eliminate over 25,000 tons of superpollutants by 2030. This is equal to 1 million tons of CO₂ in long-term warming impact.

These programs build on Google’s other superpollutant work:

• Partnering with the Environmental Defense Fund (EDF) on the MethaneSAT satellite to detect global methane leaks
• Supporting the Global Methane Hub through grants
• Using low-GWP refrigerants in Google’s own cooling systems

By targeting both long-lived CO₂ and short-lived superpollutants, Google is attacking climate change from many angles. As Randy Spock, Carbon Credits and Removals Lead at Google, noted,

“We can’t combat climate change without solving for superpollutants – and we’re eager to use every tool we have available to catalyze the range of solutions needed to address near-term warming…”

Google’s Broader Carbon-Free Strategy

These new initiatives fit into Google’s overarching goal of running on 24/7 carbon-free energy globally by 2030. This means using carbon-free sources for every hour of electricity consumption, not just offsetting yearly totals.

To date, Google has:

• Signed contracts for over 7 gigawatts (GW) of renewable energy worldwide
• Helped pioneer hourly clean energy tracking to measure real-time carbon-free electricity use
• Invested in direct air capture, bioenergy with carbon capture and storage (BECCS), and other emerging carbon removal technologies

The company is also a founding member of Frontier, a $1 billion advanced market commitment that supports early-stage carbon removal companies. These efforts aim to eliminate Google’s operational emissions and its carbon footprint since 1998 by 2050.

Why Tech Companies Are Betting on Nuclear

Google isn’t the only one that views nuclear energy as a solution for the next-gen AI data centers. These centers need a lot of power, all day and night.

Other big tech companies in the U.S., such as Amazon and Microsoft, are also looking into nuclear power purchase agreements. They are also considering data center co-location with nuclear plants.

For example, Amazon acquired a data center campus powered by Pennsylvania’s Susquehanna Nuclear Plant. Moreover, Microsoft signed a 20-year nuclear PPA with Constellation Energy to restart a retired reactor.

Data center energy demand in the U.S. is set to rise by 19% each year until 2029, according to 451 Research. This makes reliable, carbon-free power sources like nuclear more appealing.

• SEE MORE: Big Tech’s Clean Energy Rush to Power the AI Era, With Nuclear Boosting Growth

A Multi-Pronged Approach to Clean Energy

Google’s investments in nuclear energy and superpollutant destruction show a clear strategy: diversify its clean energy mix to deliver reliable, zero-carbon power while tackling the most potent climate pollutants.

Google leads in sustainable innovation by using advanced nuclear technology, carbon removal, and pollutant destruction. As energy demands grow and climate goals tighten, these bold moves could serve as a model for how major businesses can meet both their power needs and environmental responsibilities.

If successful, these efforts will cut Google’s carbon footprint. They will also speed up the technologies and markets needed for a sustainable global economy.

• READ MORE: Google Ignites Taiwan’s First Corporate Geothermal Deal for 24/7 Clean Energy

The post Google Bets Big on Next-Gen Nuclear and Carbon Credits from Superpollutants For a Greener AI appeared first on Carbon Credits.

Lithium prices have dropped to their lowest in three years, raising key questions about the future of EVs and batteries. What’s behind the slide? As China tightens its lead in battery production, the U.S. faces roadblocks, tariffs, policy shifts, and import dependence. Can the U.S. close the gap? Will cheaper lithium help or hurt the industry? The answers could shape the next wave of the global clean energy shift.

Lithium Prices Hit 3-Year Lows Amid Oversupply and Trade Tensions

In April 2025, lithium prices plunged to their lowest in over three years due to an oversupplied market and escalating trade tensions.

In the latest quarter lithium report, S&P Global highlighted,

• By April 16, lithium carbonate prices in China fell 5.4% to 70,000 yuan per tonne. It’s the lowest since January 2021.
• Similarly, prices for lithium carbonate shipped to Asia dropped 5.3% to $9,000 per tonne, the weakest since February 2021, according to Platts data.

• SEE MORE: Lithium Market Insight 2025: Price Recovery, EV Demand, and the Future of Extraction – Exclusive Interview 

China’s Battery Boom Pushes Supply Higher

China’s lithium production surged in March 2025 as refiners ramped up post-Lunar New Year and new plants began operations. This influx of supply intensified the downward pressure on prices.

At the same time, China’s traction battery output soared 55.6% year-on-year in Q1 2025, underscoring the country’s dominance in the EV battery market.

In March alone, 56.6 GWh of power battery installations happened in China, a 61.8% jump from 2024, driven by rapid EV adoption.

Major firms like CATL and BYD now hold over 65% of the domestic market, further reinforcing China’s position as the global leader in battery innovation and supply.

Technology Gains and Falling Battery Costs Drive Growth

Rapid advances in battery technology, including improved lithium-ion and solid-state batteries, are boosting energy density, safety, and charging speed. These upgrades are making electric vehicles more appealing to drivers and fleet operators alike.

At the same time, battery prices are dropping fast. In 2023, lithium-ion battery costs averaged $139/kWh and are projected to fall to $113/kWh by 2025, driven by larger economies, innovation, and smarter manufacturing.

US Still Relies on Lithium Imports Despite Push for Domestic Supply

Despite growing demand, the US continues to rely heavily on imported lithium. Most direct imports come from Chile and Argentina, but the majority enter indirectly through electric vehicles, lithium-ion batteries, and parts like cathodes.

The S&P Global report further revealed that last year, 69% of US EV imports came from Japan, South Korea, and the EU regions still tied to China’s battery supply chain, especially for cathodes and LFP batteries.

Can Trump’s Tariff Encourage Domestic Lithium Production?

To reduce reliance on foreign sources, the US is stepping up efforts to increase domestic lithium production. On March 20, former President Donald Trump signed an executive order to accelerate mineral production by improving funding, streamlining permits, and expanding federal land access.

Additionally, the US launched a critical minerals investigation on April 15, which may result in tariffs. If enacted, these tariffs could incentivize local mining and refining of lithium and cobalt.

Global EV Sales Soar But U.S. Struggles

Electric vehicle (EV) sales posted strong gains in March and Q1 2024. Globally, passenger plug-in EV sales rose 33.5% in March and 31.1% in the first quarter compared to last year.

Once again, China dominated, while the US struggled with growing uncertainty due to trade tensions.

Battery Manufacturing and EV Growth

In the US, there’s a clear divide between support for raw material mining and EV battery manufacturing. The upstream sector, i.e., mining and refining, has gained momentum from recent policy support.

However, downstream manufacturing is under pressure. Rising costs, funding freezes, and reduced demand fueled by tariff concerns have led to project cancellations:

• T1 Energy Inc. scrapped a $2.6 billion battery plant in Georgia.
• KORE Power Inc. canceled its $1.25 billion project in Arizona.

These facilities were initially backed by former President Joe Biden’s clean energy incentives, now paused under the Trump administration. If tariffs persist, more EV battery projects may be delayed or shelved.

Automakers Shift Strategy Amid US Tariffs

As tariff impacts intensify, carmakers are shifting production strategies to avoid added costs:

• General Motors is increasing US output and cutting production in Mexico.
• Nissan has paused US orders for some Mexico-built cars and may move manufacturing entirely to the US.
• Stellantis has temporarily halted operations in both Mexico and Canada.
• Jaguar Land Rover has suspended US shipments for a month to assess tariff implications.
• Tesla is also affected, as it relies heavily on China-based suppliers for key components.

• MUST READ: Top 5 Lithium Producers Powering the Battery Market in 2025 

UK and EU Ease EV Targets in Response to Trade Pressure

In response to the US tariffs, the UK has aligned with the EU in relaxing short-term EV adoption targets. Automakers can now use future sales to meet current quotas. The UK’s 2025 target of 28% BEV (battery electric vehicle) sales remains unchanged, rising to 80% by 2030.

However, penalties for missing emission targets have been pushed from 2026 to 2029, and fines have been reduced from £15,000 to £12,000 per vehicle. Additionally, EU carmakers can now pool EV sales to meet joint goals, easing near-term sales pressure.

Lithium Price Forecast Beyond 2025: Rebound Expected After 2035 Supply Crunch

Between 2024 and 2026, the lithium will remain oversupplied, with 2025 marking the steepest surplus. As seen, this trend pushed prices to their lowest point in years.

S&P Global forecasts that although the market will gradually move toward balance after that, prices will stay relatively low through 2030–2034. Even as demand starts to exceed supply.

• Notably, it’s only by 2035, when a significant shortage of 406,000 tonnes is expected, that lithium prices finally begin to rebound. Study the chart below:

Overall, the global EV market remains strong, but falling lithium prices, policy shifts, and rising trade tensions are reshaping the landscape. While China strengthens its hold on battery production, the US is struggling to build a fully domestic battery supply chain. With EV demand rising and tariffs looming, the road ahead for US manufacturers will depend on how quickly they can secure local resources and revive clean energy investments.

• FURTHER READING: Lithium Prices Drop—What It Means for EV Batteries & Global Supply Chains

The post Lithium Prices Hit 3-Year Lows in Q1 2025 as Supply Surges and Global Trade Risks Rise appeared first on Carbon Credits.