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According to industry experts, the cobalt market is currently under pressure due to an oversupply and slow demand. The heat is palpable more on cobalt sulfate prices, which are gradually declining, indicating weaker demand. One reason is China’s passenger electric vehicle (PEV) sector, which strongly prefers lithium-iron-phosphate (LFP) batteries that do not rely on cobalt.

However, as revealed by S&P Global Commodity Insights, the Platts-assessed European cobalt price has held steady at approximately $11.00/lb since October 11, but with suppressed trading activity.

Let’s see what the report reveals further about the current and future cobalt market.

China’s Move to LFP Batteries Weakens Cobalt Market

The report revolved around the cobalt market in China. It highlighted that China’s cobalt metal price stabilized after hitting a low in late September. From September 25 to November 21, the price rose by 5.6% and increased another 2.0% month to November 21, despite some fluctuations.

This recovery was driven by stronger feedstock costs, as cobalt hydroxide prices remained more stable compared to refined cobalt products.

China Cobalt

However, according to Shanghai Metals Market, margins for cobalt sulfate production using imported cobalt hydroxide turned negative in Q3 2023. This strained margin significantly impacted China’s cobalt sulfate output.

  • From January to October 2023, combined production dropped by 28.1% compared to the same period last year.

The reason for the decline remains the same- a slowdown in the PEV sector. The other significant reason is automakers shifting to lithium-iron-phosphate (LFP) batteries as they are cost-effective and avoid using critical minerals like cobalt and nickel. This transition has reduced the demand for cobalt-containing batteries in China.

Additionally, S&P Global noted, that in October 2024, cobalt-containing batteries accounted for only 20.6% of vehicle installations in China. This figure is a steep drop from nearly 50% in 2021.

Unlocking Cobalt’s Role in Battery Chemistry

Cobalt remains a vital component in many battery chemistries, offering stability and safety benefits. In 2023, demand for cobalt-containing chemistries grew by 15% year-over-year (y/y) to approximately 500 GWh, accounting for 55% of total battery demand.

While this represents a decline from 63% in 2022, cobalt chemistries are expected to maintain a significant market share in the medium to long term as demand continues to grow. Let’s study how experts explain this evolving landscape…

A Shifting Landscape

Cobalt Institute’s latest report revealed that demand for cobalt was mainly driven by high and mid-nickel chemistries driving this growth in 2023. High-nickel chemistries saw a 32% increase, while mid-nickel grew by 15%. Meanwhile, low-nickel and lithium cobalt oxide (LCO) chemistries experienced declines of 11% and 13% y/y, respectively.

It further highlighted,

  • Demand for cobalt-containing chemistries rose 15% y/y in 2023, to ~ 500
    GWh. This equated to around 55% of battery demand in 2023, down from 63% in 2022.

High-nickel chemistries also increased their market share to 11%, while low-nickel chemistries fell behind nickel-cobalt aluminum oxide (NCA) chemistries for the first time.

These cobalt-free chemistries now make up 45% of global cathode demand, driven largely by lithium iron phosphate (LFP) batteries. For the first time, LFP overtook nickel cobalt manganese (NCM) cathodes, claiming a 45% market share compared to NCM’s 43%. While manganese-based chemistries also contributed, their impact was minor.

Beyond batteries, cobalt is needed in aviation, energy storage, and electronics and its recyclability makes it sustainable.

Image: LFP vs. NCM: the share of NCM battery cells declines

cobalt battery

Source: Cobalt Institute report

Pressures Facing Cobalt

Cobalt, despite its critical role in batteries, faces significant challenges in the supply chain related to cost, composition, and sourcing. Cobalt is costly, but falling prices have improved battery cell cost competitiveness.

The report highlighted that in 2023, NCM and LFP chemistries dominated the global lithium-ion battery market, making up 88% of cathode demand. Automakers in North America and Europe preferred NCM batteries for their higher energy density and longer range and they were mainly used in high-performance EVs.

On the other hand, LFP batteries have gained market share globally, particularly in China, where their lower cost and reduced reliance on critical minerals like cobalt make them a popular choice. This also means that although NCM chemistries have high energy density they are globally less widely adopted.

Image: 2023 Cathode active materials (CAM) product mix from the major ex. China CAM suppliers, %cobalt cathode anode mix

Additionally, ethical and environmental concerns regarding cobalt sourcing, particularly from the DRC and Indonesia are extensively scrutinized over its sustainability and responsible extraction practices.

Cobalt Forecast 2024: Price and Production

As cobalt demand continues to face challenges with automakers favoring lithium-iron-phosphate (LFP) batteries, cobalt-containing batteries are considerably losing market share. CMOC expects cobalt-containing batteries to eventually make up less than 10% of the total battery mix.

This declining demand is further reflected in price forecasts as rolled out by S&P Global Commodity Insights noted below:

  • Analysts now estimate the cobalt market surplus will widen significantly in 2024, reaching 53,000 metric tons, which is more than 2X of its earlier predictions.
  • The growing surplus has also led to a downward revision of cobalt price estimates, with prices now expected to fall to $12.72/lb by 2028.

Batteries now drive three-quarters of global cobalt demand, making the market highly sensitive to changes in cathode chemistries and technologies. As demand for EVs grows, cobalt’s role remains crucial, but the rise of alternatives like LFP will reshape the landscape.

The EV sector’s trajectory in key regions, including the US, China, and the EU, will play a critical role in shaping cobalt’s future. However, with battery technology shifting rapidly and economic policies uncertain, the path ahead remains unpredictable.

Supply Surge from CMOC, DRC, Australia, and Indonesia

The Democratic Republic of the Congo (DRC), Australia, and Indonesia are the three major countries that control about 73% of the world’s cobalt reserves. Last year, DRC topped the list, accounting for more than 70% of global production.

cobalt supplySource: Cobalt Institute

S&P Global forecasts that cobalt production is expected to soar in 2024. It will be significantly driven by Indonesia’s high-pressure acid leaching (HPAL) projects and surge in output from the DRC. Additionally, China’s CMOC, a major producer, has already surpassed its 2023 full-year cobalt production guidance by 21% within the first nine months.

In H1 2024, the company secured the position of the world’s largest cobalt producer with an impressive output of 54,024 tons, marking a staggering 178.22% year-over-year (YoY) growth. This surge not only reflects the company’s pivotal role in the global cobalt supply chain but also signifies a contribution to meet rising demand for battery-grade cobalt.

Notably, CMOC’s production surge is primarily linked to its copper-focused strategy that resulted in increased cobalt inventories.cmoc cobalt

From this report, we can fairly infer that cobalt can still hold its ground as a key material in high-performance batteries, particularly in Western markets. However, its future will depend on balancing cost, sustainability, and evolving technology trends.

The post Cobalt at Crossroads: How Will Oversupply, Price Drops, and LFP Boom Impact Its Future? appeared first on Carbon Credits.

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Bitcoin Price Hits $124,000 Record High vs Ethereum Price Near $4,800: Which Crypto Is Greener?

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Bitcoin Hits A New Record, Ethereum Nears Its Peak: But Which Is Greener?

Bitcoin price just smashed through $124,000 while Ethereum is closing in on its $4,800 record, fueling fresh excitement in the crypto market. But beyond price charts, the two blockchains have sharply different environmental footprints.

One still runs on an energy-hungry proof-of-work system, while the other has reinvented itself with a proof-of-stake model that slashes energy use by over 99%. The question for climate-minded investors: which crypto comes out greener? Let’s find out.

Crypto’s New Highs, Old Questions

Bitcoin price surged past $124,000 upon writing, setting a new all-time high. Analysts credit several factors:

  • strong institutional buying,
  • increased inflows into Bitcoin ETFs,
  • favorable regulatory changes allowing crypto assets in 401(k) retirement accounts, and
  • growing market optimism over expected Federal Reserve interest rate cuts.
Bitcoin all time high $124,000
Source: AlphaFlipper

The rally reflects both a recovery from previous market downturns and a renewed appetite for digital assets among mainstream investors.

Ethereum, the second-largest cryptocurrency by market capitalization, is also on the rise. It is now approaching its all-time high of around $4,800, last seen in November 2021.

ethereum near record high

Investor sentiment is rising because of Ethereum’s role in decentralized finance (DeFi) and NFT marketplaces. Its better environmental profile, thanks to the switch to a proof-of-stake (PoS) model, also helps.

With both tokens in focus, let’s look at their energy use and carbon footprint. This matters for investors and policymakers who care about their climate and environmental impact.

How Bitcoin’s Proof-of-Work Consumes Energy

Bitcoin’s network runs on a process called proof-of-work (PoW). Miners around the world compete to solve complex mathematical puzzles. The first to solve it gets to add a block of transactions to the blockchain and earn newly minted Bitcoin. This process secures the network but demands enormous computing power.

That computing power uses a lot of electricity. Bitcoin’s annual energy use is estimated at about 138–178 terawatt-hours (TWh). This is similar to the electricity consumption of countries like Poland or Thailand, and even greater than Norway.

The carbon footprint is equally large, at around 40 million tonnes of CO₂ equivalent per year. To put that into perspective, that’s similar to the emissions of Greece or Switzerland.

On a per-transaction basis, a single Bitcoin payment can use as much energy as a typical U.S. household does in one to two months.

Bitcoin energy use versus countries
Source: Statista

Beyond electricity, Bitcoin mining also generates significant electronic waste. Specialized mining hardware, called ASICs, becomes obsolete quickly—often within two to three years—because faster, more efficient models keep being developed. This turnover contributes thousands of tonnes of e-waste annually.

Ethereum’s Post-Merge Energy Transformation

Before 2022, Ethereum also used proof-of-work, with high energy demands. But in September 2022, the network completed the Merge, switching to proof-of-stake.

Ethereum now uses validators instead of miners. These validators “stake” their ETH tokens as collateral. This helps confirm transactions and secure the network.

This change cut Ethereum’s energy use by over 99.9%. Today, the network consumes an estimated 2,600 megawatt-hours (MWh) annually—roughly 0.0026 TWh. That’s less electricity than a small town of 2,000 homes might use in a year.

The carbon footprint is also tiny compared to Bitcoin—under 870 tonnes of CO₂ equivalent annually. That’s about the same as the yearly emissions of 100 average U.S. households. In environmental terms, Ethereum has gone from being one of the largest blockchain energy consumers to one of the most efficient.

Ethereum carbon footprint
Source: Ethereum

Beyond Electricity: Hidden Environmental Costs

While electricity use is the biggest factor, it’s not the only environmental concern for both cryptocurrencies. Here are the other environmental impacts:

  • Water Use:
    Large-scale Bitcoin mining facilities often require substantial cooling, which can consume millions of liters of water annually. This can put pressure on local water supplies, particularly in drought-prone regions. Ethereum’s low energy profile greatly reduces such needs.
  • Heat Output:
    Mining facilities generate significant heat. In some cases, waste heat is reused for industrial or agricultural purposes, but in most situations, it is simply released into the environment, adding to local thermal loads.
  • Land and Infrastructure:
    Bitcoin mining operations require large warehouses and access to high-capacity electrical infrastructure. This can limit available industrial space for other uses and put stress on local grids.

By using proof-of-stake, Ethereum avoids most of these impacts. It just needs standard server equipment. This can run in data centers with other low-impact computing tasks.

bitcoin versus ethereum carbon footprint

How the Industry Is Addressing Bitcoin’s Footprint

The crypto industry is aware of Bitcoin’s environmental challenges and is taking steps to address them. Some of the actions taken include:

  • Renewable Mining: Some mining operations use only hydro, wind, or solar energy. This is common in areas with plenty of renewable resources.
  • Waste Heat Recovery: A few miners capture and reuse waste heat for agriculture (e.g., greenhouse farming) or district heating systems.
  • Carbon Offsetting: Companies and mining pools are buying carbon credits to offset emissions. However, how well this works depends on the quality of those credits.
  • Policy Proposals: Governments may require Bitcoin miners to share their energy sources or meet renewable energy goals.

SEE MORE: Top 5 Sustainable Bitcoin Mining Companies To Watch Out For

While these efforts are promising, the core challenge remains: proof-of-work’s high energy requirement is built into Bitcoin’s security model.

Why This Matters for ESG-Minded Investors

For investors who care about environmental, social, and governance (ESG) factors, the difference between Bitcoin and Ethereum is stark. Ethereum’s low-energy proof-of-stake model makes it easier to align with climate goals. Bitcoin’s high energy use and emissions, while partially mitigated by renewable adoption, remain a significant concern.

These factors may influence where ESG-focused funds allocate capital. Companies and institutions wanting exposure to blockchain technology without a large carbon footprint might prefer Ethereum or other PoS networks.

Bitcoin may still attract investors because of its market dominance and value as a store. However, it will likely keep facing environmental concerns.

The Road Ahead for Crypto and Climate

Bitcoin and Ethereum’s price rallies show that investor interest in crypto remains strong. As climate change and sustainability gain importance in policy and investment, environmental performance may play a larger role in the long-term value and acceptance of digital assets.

For now, Ethereum sets the standard for energy efficiency among major blockchains, while Bitcoin represents the ongoing challenge of balancing security, decentralization, and sustainability. Can Bitcoin cut its environmental impact without losing its key features? This will be an important question in the coming years.

The post Bitcoin Price Hits $124,000 Record High vs Ethereum Price Near $4,800: Which Crypto Is Greener? appeared first on Carbon Credits.

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ENGIE Lands $600M from World Bank Group and Investors to Boost Peru’s Renewable Energy

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ENGIE Lands $600M from World Bank Group and Investors to Boost Peru’s Renewable Energy

The International Finance Corporation (IFC), part of the World Bank Group, approved up to $600 million in funding to support ENGIE Energía Perú’s push into non-conventional renewable energy. Of that, $250 million is from the IFC itself, and an additional $350 million comes from other mobilized investors.

The financing structure is a Sustainability-Linked Loan (SLL), which links financial terms to performance goals. Let’s uncover where the funds will go and how this will help ENGIE’s net zero and climate goals.

Where Will the Money Go?

The goals of the fundraising are to expand renewable energy, support climate adaptation, and promote gender diversity initiatives. The first tranche of $120 million will immediately fund the acquisition and development of key renewable infrastructure.

The first installment will finance these three major projects:

  • Expand the Intipampa Solar Plant: Increase capacity by 51.4 MW in Moquegua, boosting total solar output.
  • Wind Farm Acquisitions: Acquire existing wind capacity of 36.8 MW at the Duna and Huambos sites.
  • Battery Energy Storage System (BESS): Develop or refinance the 26.5 MW Chilca battery system—the largest in Peru—to improve grid flexibility.

These investments help ENGIE reach its goal of adding 800 MW of non-conventional renewables in five years. This will transform the country’s energy mix.

ENGIE’s Power Play in Peru’s Energy Market

ENGIE Energía Perú (EEP) is a dominant force in Peru’s energy sector. By 2024, it was the biggest electricity generator in the country. It owned about 2,694 MW from ten plants. This made up 19% of Peru’s total installed capacity and around 14% of national production.

EEP’s renewable and conventional installations include:

  • Punta Lomitas Wind Farm (296 MW), the largest in Peru.
  • Expanded solar capacity with Intipampa.
  • Hydro and gas-fired plants such as Chilca and Ilo.
  • The Chilca BESS, launched in 2023 with an investment of approximately $20 million, demonstrates its adaptability and drive for stability.

Peru’s Renewable Wave: From Hydro to Solar Growth

Peru’s electricity mix is shifting. In 2024, renewables accounted for arond 59% of electricity, with breakdowns of hydroelectricity at almost 50%, wind at around 6%, solar at almost 2%, and biomass at 0.8%.

Peru energy mix 2024
Source: Low Carbon Power

The country boasts significant untapped renewable potential:

  • Hydropower: Installed capacity stands at 5.7 GW (2020), with untapped technical potential of ~70 GW.
  • Renewables Market Growth: In 2022, Peru’s renewables sector generated 34,727 GWh, valued at around $900 million, with moderate annual growth in both output and value.

Looking ahead, an IFC study predicts that by 2050, wind and solar could make up 45% of installed capacity in the country. This growth will be backed by investments in grid storage, which will help improve system resilience.

Other big investments show regional growth. For instance, Spain’s Zelestra is investing $1–1.5 billion in Peru’s renewable energy. This will support mining operations with a pipeline of 1 GW capacity.

How The Loan Could Change Peru’s Grid

The $600 million SLL from IFC is more than capital; it’s a catalyst for renewable energy growth in Peru. The key benefits include:

Increased Clean Energy: The financing helps deliver over 100 MW of additional wind and solar capacity, plus the country’s largest BESS, enhancing energy diversification.

Climate Action: IFC estimates the Intipampa expansion alone will save 61,461 tonnes of CO₂ equivalent per year by displacing fossil-based electricity.

Grid Modernization: Energy storage fosters a more flexible, renewable-friendly grid and supports off-grid electrification in rural areas.

Market Confidence: The SLL’s structure signals investor belief in Peru’s green energy potential and supports broader regional ambitions.

ENGIE’s expansion is part of a broader wave of renewable growth in Latin America. In Peru, ENGIE’s projects contribute to the broader energy transition—and set an example for public-private collaboration in sustainable infrastructure. 

More notably, it forms part of the energy giant’s net zero goals.

ENGIE’s Global Renewable Energy and Net-Zero Strategy

The company’s global stance reflects increasing corporate commitment to clean energy infrastructure. The infographics below shows ENGIE’s decarbonization ambitions. 

Engie net zero startegy

Globally, ENGIE has positioned itself as a leader in the clean energy transition. It aims to achieve net-zero greenhouse gas emissions by 2045. The company focuses on quickly increasing renewable energy capacity. It aims to phase out coal and expand energy storage solutions. This will help integrate more variable renewables.

By 2025, ENGIE targets 50 gigawatts (GW) of renewable capacity worldwide, growing to 80 GW by 2030. This expansion focuses on wind, solar, hydro, and green hydrogen projects, supported by digital tools for efficiency and performance monitoring.

ENGIE has cut its direct emissions (Scope 1) by over 40% from 2017 to 2024. This change came mainly from retiring coal assets and switching to clean energy. Below is the company’s 2024 carbon footprint.

ENGIE 2024 carbon footprint or emissions
Source: ENGIE report

The company is investing in large energy storage, aiming for 10 GW of battery capacity by 2030. This will help keep the grid stable as more renewable energy comes online.

ENGIE’s climate roadmap includes Science Based Targets initiative (SBTi) validation, ensuring its emissions reduction pathway aligns with the Paris Agreement’s 1.5°C goal.

These global efforts reinforce ENGIE’s operations in Peru, showing how the company’s local renewable expansions contribute to a broader, coordinated push toward a carbon-neutral energy system worldwide.

Moreover, ENGIE supports strong carbon pricing policies and systems that encourage investment in low-emission technologies, energy efficiency, and reduced energy use.

As part of its path to net zero, the company plans to carry out internal carbon absorption projects and use carbon removal credits. These credits will follow the Integrity Council’s ten principles, with a focus on transparency, proving real additional impact, and ensuring that reductions last over time.

With IFC’s backing, ENGIE Energía Perú is poised to expand its renewable energy footprint significantly. The financing supports solar expansion, wind farm acquisition, and advanced energy storage. This boosts Peru’s clean energy pipeline, strengthening grid reliability, and contributing to national sustainability targets.

As Peru works toward a greener energy future, ENGIE’s investments may become a model for transformative growth across Latin America.

The post ENGIE Lands $600M from World Bank Group and Investors to Boost Peru’s Renewable Energy appeared first on Carbon Credits.

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France Eyes Bitcoin Mining Powered by Surplus Nuclear Energy

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France Eyes Bitcoin Mining Powered by Surplus Nuclear Energy

France is weighing a bold proposal to use surplus nuclear energy in Bitcoin mining, turning unused power into millions in revenue. The five-year pilot is backed by the far-right Rassemblement National (RN) party. It would use EDF (Électricité de France)’s excess electricity during low-demand hours, with heat reuse systems warming homes and greenhouses.

If approved, it could make France the first EU nation to weave crypto mining into its official energy strategy.

From Waste to Wealth: The Surplus Power Plan

France’s far-right party, RN, is backing a bold plan that could repurpose surplus nuclear electricity to power Bitcoin mining. MP Aurélien Lopez-Liguori introduced an initiative for a five-year pilot program. It aims to use excess energy from EDF-run nuclear plants for crypto mining.

The pilot allows Bitcoin mining to run only when nuclear energy is more than needed, like at night. This way, it uses power that would otherwise be wasted. Developers say one gigawatt of extra nuclear power could make $100–150 million in BTC revenue each year.

The plan also includes heat reuse systems that will capture waste heat from mining rigs. The heat can then warm homes, greenhouses, or industrial facilities. This model is already in use across Scandinavia.

Why Nuclear? France’s Energy Context

France, the EU’s top nuclear energy producer, gets over 70% of its electricity from nuclear plants. This amounts to 338,000 GWh each year. However, during low-demand periods, power supply often surpasses consumption.

France nuclear output cumulative EDF
Source: EDF

France occasionally sells extra power at negative prices. Sometimes, it even pays for nearby countries to take this power, leading to losses of hundreds of millions. Bitcoin mining offers a way to monetize this surplus and ease grid stress.

Mining rigs can quickly adjust their load, providing a flexible buffer that stabilizes grid operations. This strategy supports wider energy transition goals. It helps manage inflexible nuclear output more effectively.

Political 180: From Crypto Ban to Bitcoin Boost

This move marks a dramatic shift in RN’s stance on crypto. In 2016, Marine Le Pen condemned cryptocurrencies as elitist tools and pledged to ban them. By 2022, she softened her position to support regulation. In 2025, she supports Bitcoin mining as a smart economic tool. This shows a wider trend of political practicality.

However, not all RN lawmakers agree. Jean-Philippe Tanguy, the party’s finance chief, argues that Bitcoin undermines centralized monetary control.

Meanwhile, the left and green parties oppose the plan due to its environmental impact, pointing to Bitcoin’s intensive energy use. Approval will require navigating internal party splits and environmental scrutiny.

bitcoin energy use
Source: Digiconomist

Potential Benefits and Concerns

Supporters of the proposal see several clear advantages. First, surplus nuclear power can generate revenue. Estimates show it could bring in $100–150 million each year for every 1 GW of excess output.

Second, bitcoin mining facilities can be a flexible load for the grid. They absorb extra electricity when demand is low. Then, they can power down fast when demand rises. This helps stabilize the system.

Third, the heat generated by mining rigs could be captured and reused to warm buildings or support greenhouse agriculture. This improves overall energy efficiency.

However, critics raise valid concerns:

Bitcoin energy use versus countries
Source: Statista
  • Environmental impact: Despite cleaner power, increased Bitcoin mining still uses heavy energy. The chart above shows that Bitcoin alone utilizes more power than most countries. 
  • Regulatory challenges: The proposal needs strong legal and policy backing—June’s similar amendment failed on procedural grounds.
  • Public perception: Tying climate-smart infrastructure to crypto may provoke resistance.

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

Global Trends: Nuclear Meets Bitcoin Mining

This move in France aligns with growing interest worldwide in matching crypto mining with low-carbon energy. Here are some major facts to know:

  • Clean Energy Uptake: More than 52% of global Bitcoin mining now runs on sustainable energy. Of this, about 11% comes from nuclear sources.
  • Fuel Mix Shifts: Coal and gas once dominated Bitcoin’s electricity supply. But the share of nuclear has roughly doubled from 4% in 2021 to over 11%.
  • Energy Use Scale: Bitcoin mining is energy-intensive—estimated at 176–180 terawatt-hours (TWh) annually, on par with national consumption by countries like Poland or Egypt.
  • Hashrate Surge: The Bitcoin network’s computing power, or hashrate, continues to rise. As of May 2025, it exceeded 831 exahashes per second (EH/s), a 77% jump from its 2024 low.
  • Adaptation to Costs: With mining profitability squeezed, miners seek cheap, stable energy like nuclear to stay competitive.

bitcoin mining energy mix

Analysts at ScottMadden argued that Bitcoin mining paired with nuclear energy offers a compelling value proposition—a clean energy use case that could diversify utility income. The business case has only grown stronger as Bitcoin prices rose from about $9,275 in 2020 to over $47,000 by 2021.

France isn’t alone in exploring this pairing. Studies suggest that Bitcoin mining might use extra power wisely. This could cut waste and help the grid stay flexible. For example, South Korean researchers found surplus electricity could be a new revenue stream for the power utility while stabilizing the grid.

Moreover, academic models propose a zero-emissions energy system. This system combines nuclear power with crypto-mining. In this setup, mining serves as a flexible load that helps balance demand. Also, many devices around the world already rely on constant nuclear power.

crypto mining and nuclear power compatibility
Source: ScottMaden

The Road Ahead: Regulation, Revenue, and Resistance

If the pilot moves forward, EDF and lawmakers would need to finalize guidelines, site mining hubs near existing infrastructure, and ensure regulatory oversight. A six-month feasibility review by the French Council of State is planned, followed by expansion if the pilot succeeds.

When that happens, France could become the first EU nation to legally integrate Bitcoin mining into its energy roadmap. It could turn an economic burden—unused power—into a revenue stream while mitigating grid stress. This would spark debate across Europe—might other nuclear-rich countries follow suit?

From a crypto standpoint, the move elevates mining from underground activity to a strategic industrial asset, redefining its role in the energy economy. 

However, the plan still faces political, environmental, and technical hurdles. Yet, as the proposal gains traction, it may shape how nations view the intersection of crypto, energy policymaking, and sustainability.

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