Google and Kairos Power Unveil Groundbreaking 550 MW Nuclear Energy Initiative

Earlier this month, CarbonCredits reported that Sundar Pichai, Google’s CEO, hinted at the possibility of using nuclear energy to help the company reach its ambitious 2030 net-zero emissions target. Confirming those hints, Google officially announced on October 14 a groundbreaking nuclear energy agreement with Kairos Power.

This milestone isn’t just about power. It’s about accelerating a global clean energy transition, ensuring that nuclear becomes a key player in the fight against climate change.

Google Teams Up with Kairos to Tackle Rising Emissions

Google’s push for nuclear power comes at a critical time. In 2023, its greenhouse gas (GHG) emissions rose to 14.3 million metric tons of CO2 equivalent (tCO2e), a 13% increase from the previous year and a 48% jump from 2019. This increase was largely driven by higher energy consumption in data centers, AI, and supply chain emissions. As its energy use grows, emissions reduction is going to be more challenging.

Source: Google

Coming to the main segment, the tech giant has signed the world’s first corporate agreement to purchase nuclear power from small modular reactors (SMRs), designed by Kairos Power.

We unlock the details in the next segment.

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

Advancing Through PPAs

Under this agreement, Kairos Power will develop, build, and operate advanced reactor plants, supplying clean energy to Google through Power Purchase Agreements (PPAs).

Michael Terrell, Google’s Senior Director of Energy and Climate, said

“This landmark announcement will accelerate the transition to clean energy as Google and Kairos Power look to add 500 MW of new 24/7 carbon-free power to U.S. electricity grids. This agreement is a key part of our effort to commercialize and scale the advanced energy technologies we need to reach our net zero and 24/7 carbon-free energy goals and ensure that more communities benefit from clean and affordable power in the future.”

These plants will be strategically located to power Google’s data centers, with the first SMR deployment expected by 2030. More reactors will roll out by 2035.

The multi-plant agreement will boost innovation by advancing Kairos Power’s demonstration plan. Each new plant will help refine and improve the technology. Furthermore, the pre-determined milestones will keep Kairos Power accountable and ensure proper progress throughout the partnership. This approach will also speed up commercialization and build trust over time.

Mike Laufer, CEO and co-founder of Kairos Power remarked,

“Our partnership with Google will enable Kairos Power to quickly advance down the learning curve as we drive toward cost and schedule certainty for our commercial product. By coming alongside in the development phase, Google is more than just a customer. They are a partner who deeply understands our innovative approach and the potential it can deliver.”

Economic Benefits

Industry experts have estimated that the U.S. could potentially create over 375,000 new jobs by achieving 200 GW of advanced nuclear capacity by 2050. Google’s deal with Kairos Power supports this vision by creating jobs in nuclear technology, construction, and energy sectors.

For local communities, this means more than just employment. The presence of nuclear energy infrastructure can foster economic growth while also contributing to the reduction of carbon emissions. In a world of rising energy demand, reliable, clean power isn’t just a solution—it’s also a powerful driver of economic growth.

MUST READ: US Targets 200 GW Nuclear Expansion to Meet Soaring Energy Demand 

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Unlocking Kairos Power’s Innovative SMR Technology

Founded in 2016, Kairos Power takes a unique approach to bringing advanced nuclear technology to market. In 2023, the U.S. Nuclear Regulatory Commission granted Kairos Power a construction permit for its Hermes demonstration reactor. This was the first non-water-cooled reactor approved for construction in over 50 years.

By using a rapid, iterative development process and vertical integration, the company is speeding up the deployment of safe and efficient small modular reactors (SMRs). Their reactors feature a molten-salt cooling system and ceramic pebble-type fuel, ensuring better heat transfer to steam turbines for power generation. Operating at low pressure, this system reduces risks and creates safer, more reliable operations.

Additionally, they conduct multiple hardware tests to identify and resolve potential issues before large-scale deployment. Google’s involvement will help speed up this process, leading to quicker and more cost-effective SMR installations across the U.S.

The Kairos Power FHR (KP-FHR): A Novel Advanced Reactor

Source: Kairos

See more details about this reactor here: Technology – Kairos Power

Why Google Chose SMRs for a Clean Energy Future

Well, many consider nuclear energy as complex and slow to develop. However, new reactors, especially like the SMRs from Kairos Power are changing this concept. Their advanced designs are smaller, simpler, and quicker to build, making them easier to deploy in more locations.

The modular design of these reactors allows for scalability. Instead of a one-size-fits-all approach, these smaller units can be added on to match energy demands. And because they are quicker to build and safer to operate, the timeline to achieving carbon-free energy is shortened significantly. Simply put, the tech giant is investing in nuclear energy that is both safer and more economically viable than traditional reactors.

Secondly, SMRs provide a constant supply of clean energy. Thus, Google believes this partnership is about finding a balance between renewable sources like wind and solar and more constant energy like nuclear, which can ensure reliable power every hour.

Overall, one can infer that this partnership would accelerate clean energy by bringing affordable nuclear power to U.S. grids. As a result, Google can effectively meet rising electricity demands, especially for AI, while advancing its goal of going 24/7 carbon-free energy by 2030.

FURTHER READING: Larry Ellison’s $100 Billion Bet: Nuclear Power to Drive Oracle’s AI Revolution 

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Are U.S. Utilities Falling Short of Biden’s 2035 Clean Energy Goals?

The latest report from the Sierra Club paints a sobering picture of the U.S. utility sector’s transition to clean energy. The Biden administration set an ambitious goal for the U.S. power sector to fully decarbonize by 2035. However, the report finds that the 50 utility parent companies with the most significant fossil fuel investments are only on track to reach 52% clean energy by that deadline. 

The Sierra Club analysis suggests that the gap between current plans and the federal decarbonization goal could delay efforts to mitigate climate change impacts.

Decarbonization Dreams or Delays?

The Biden administration set a clear target in early 2021, aiming for the U.S. power sector to achieve net-zero emissions by 2035. Achieving this target is crucial for limiting global warming and avoiding the most severe consequences of climate change. 

However, the Sierra Club’s report reveals that utilities currently relying heavily on coal and natural gas are not on track to meet these goals. Instead, many of these companies plan to add significant new natural gas capacity, totaling 93 gigawatts (GW) by 2035.

This expansion is reflected in data from S&P Global Commodity Insights, which indicates an increase in planned natural gas projects in the U.S. As of September 2024, 148 new natural gas-fired power plants were either announced or under development, up from 133 projects recorded in late April. 

This growing investment in natural gas raises concerns about the power sector’s ability to transition away from fossil fuels. It can also impact if the sector can meet its 2035 clean energy target.

RELATED: U.S. Natural Gas Prices to Jump 44%: What’s Driving the Surge?

Utility Report Card: Who’s Leading, Who’s Failing?

The Sierra Club’s report evaluates a wide range of utilities, including investor-owned utilities, public power providers, cooperatives, and large municipal utilities. The analysis focuses on three key metrics: 

plans for phasing out coal by 2030, 
halting the construction of new natural gas plants by 2035, and 
scaling up clean energy resources by 2035. 

Utilities were graded on their progress, with several prominent companies receiving failing marks. Among those receiving an “F” rating were Southern Co., PPL Corp., and Duke Energy Corp. 

Visual from Sierra Club report

According to the Sierra Club, these companies have made inadequate progress toward their decarbonization goals and continue to invest in fossil fuel infrastructure. Xcel Minnesota, on the other hand, gets an “A” for its clean energy transition plan.  

While some utilities acknowledged the findings of the report, they emphasized the complexities of transitioning to a cleaner energy mix.

For example, Duke Energy spokesperson Madison McDonald acknowledged the challenges ahead, noting that the company aims to reduce carbon emissions by at least 50% by 2030, compared to 2005 levels, and reach net-zero emissions by 2050. McDonald highlighted the importance of balancing short-term fluctuations in emissions as the company retires coal plants and brings new energy sources online. 

When State Policy Clashes with Climate Ambitions

The Sierra Club’s analysis also highlights instances where utilities have rolled back previously announced climate targets. FirstEnergy Corp., for example, announced in late 2023 that it would not meet its goal of reducing greenhouse gas emissions by 30% by 2030. The company cited state policies as a significant factor, explaining that it had to extend the operations of its two coal-fired plants in West Virginia to align with local energy policy priorities.

FirstEnergy’s spokesperson, Tricia Ingraham, pointed to West Virginia’s support for maintaining coal generation, emphasizing that reducing coal-fired output for environmental reasons would be inconsistent with state energy policy. This scenario underscores the tension between federal climate goals and state-level policies, which can complicate the path to decarbonization.

Clean Energy Momentum and Barriers

Despite the challenges highlighted in the report, there are some positive trends in the U.S. power sector’s transition to clean energy. According to the U.S. Energy Information Administration (EIA), over 40% of U.S. electricity currently comes from carbon-free resources. These include renewables like wind and solar, as well as nuclear energy

This is also echoed by Sarah Durdaller, a spokesperson for the Edison Electric Institute. Durdaller emphasized that achieving the 2035 target will require collaboration between environmental groups, industry leaders, and government entities to overcome obstacles such as building transmission infrastructure.

Another study by the Pacific Northwest National Laboratory (PNNL) suggests that completing 12 high-voltage electric transmission projects in the US West could significantly cut carbon emissions, reducing power-sector emissions by 73% from 2005 levels by 2030.

The study emphasizes the importance of renewable energy and improved transmission infrastructure in achieving national climate targets, including President Biden’s goal of a 100% carbon-free power system by 2035. These projects are seen as vital for connecting renewable energy sources to the grid and accelerating the transition to a cleaner energy future.

Improving grid resilience and expanding transmission capacity are seen as essential steps in making the power sector more sustainable.

Rural Energy Revolution: Will Co-Ops Catch Up?

The report also turned its focus to electric cooperatives, which supply power to many rural communities across the United States. These cooperatives, many of which are still heavily reliant on fossil fuels, generally received low grades in the analysis. 

Still, the increase in renewable energy adoption among cooperatives is a sign that even these smaller players are beginning to embrace cleaner energy solutions.

The Sierra Club’s report highlights a significant disconnect between the U.S. utility sector’s current trajectory and the federal government’s 2035 decarbonization goals. While some progress has been made in adding renewable energy capacity, the planned expansion of natural gas generation poses a major hurdle to achieving a fully decarbonized power sector.

The study underscores the need for more ambitious actions and policies to steer utilities away from fossil fuel dependency and toward a cleaner, more sustainable America.

READ MORE: Powering the West: How Transmission Projects Can Slash Power-Sector Emissions by 73%

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China Carbon Prices Reach All-Time High At $14.62 Per Ton

China’s carbon market has seen a significant surge in prices, with carbon permits or credits reaching an all-time high as industries prepare for a looming compliance deadline. 

On Monday, emissions permits rose 2.5% to 103.49 yuan ($14.62) per ton. This is the highest since the national market’s launch in mid-2021, as reported by the National Carbon Trading Agency. This increase represents a 35% rise in carbon prices so far this year, fueled by recent government actions aimed at tightening regulations and driving greater activity within the market.

Compliance Countdown: Fueling the Price Surge

China’s carbon market includes a compliance or mandatory Emission Trading System (ETS) and a voluntary greenhouse gas (GHG) emissions reduction market, known as the China Certified Emission Reduction (CCER) scheme, which was revamped earlier this year. 

China’s ETS plans to include 8 major emitting sectors—power generation, steel, building materials, non-ferrous metals, petrochemicals, chemicals, paper, and civil aviation—representing 75% of China’s total emissions. 

Since its launch, the ETS has become the world’s largest emissions trading platform. It covers about 5.1 billion tons of carbon dioxide equivalent or 40% of China’s total emissions.

The spike in prices comes as China’s power utilities face a year-end deadline to secure enough carbon allowances, also called carbon credits, to offset their 2023 emissions. 

The existing ETS system allocates a certain amount of free permits to companies. However, if their emissions exceed these allowances, they must purchase additional credits on the market. The impending deadline has intensified demand for these permits, contributing to the price surge.

This year, the Chinese government introduced stricter regulations to further develop the national carbon market. The goal is to increase the pressure on polluting industries to curb their emissions. These changes could spur a more aggressive transition toward lower-carbon operations among industrial players.

China’s carbon market vitality has been on the rise. By the end of June 2024, the cumulative trading volume in China’s national carbon emissions trading market reached 465 million tons, with a transaction value of around 27 billion yuan (around $3.7 billion).

Expanding the Scope of Regulation

The latest regulatory shift broadens the scope of China’s carbon market, which currently covers around 2,200 power utilities that together account for about 4.5 billion tons of carbon dioxide emissions annually. New rules will extend emissions obligations to other high-polluting sectors starting next year, including:

steel, 
aluminum, and 
cement production. 

Moreover, fossil-fuel power generators are facing tighter emissions caps, which further pushes them toward either reducing their carbon output or purchasing more permits to comply with regulatory requirements.

These measures align with China’s broader climate commitments to peak carbon emissions before 2030 and achieve carbon neutrality by 2060. By intensifying regulations, China aims to use its carbon market to steer industries towards cleaner energy and lower emissions.

RELATED: New Rules to Jumpstart China’s Voluntary Carbon Credit Market

Strategic Implications for Industries

As the market adapts to the stricter compliance requirements, industries are being prompted to reassess their carbon strategies. Companies that exceed their allotted emissions must factor in the rising cost of permits. This, in turn, could put pressure on profit margins, especially for high-emitting sectors like power generation, steel, and cement

To mitigate costs, these industries may accelerate their investments in clean energy solutions, such as renewable power sources or efficiency upgrades, to reduce their reliance on carbon credits.

The inclusion of new industrial sectors into the carbon trading scheme is expected to increase market liquidity, as the demand for permits will expand beyond power utilities to other key players. This change could also drive more transparency and efficiency in China’s carbon pricing mechanism as more companies participate.

What’s Next for China’s Carbon Trading?

With China’s national carbon market still in its early stages, the recent surge in prices represents a crucial phase in its development. Analysts believe that tightening regulations will be instrumental in enhancing the market’s effectiveness as a tool for reducing emissions. The Chinese government’s efforts to refine and expand the market are likely to continue, as it aims to strike a balance between economic growth and climate goals.

If China can successfully integrate more industries into its carbon trading system and continue to enforce stringent emissions standards, the national market could become one of the most significant in the world. This would help the world’s largest greenhouse gas emitter move closer to its climate targets. It could also provide valuable lessons for other countries seeking to implement or expand their own carbon markets.

The response from industrial players in the coming months—particularly as they navigate the end-of-year compliance deadline—will serve as an early indicator of the market’s long-term impact on China’s decarbonization efforts.

SEE MORE: China’s Grip On Rare Earth Elements Loosens

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Hydrogen’s Big Leap: Can Electrolyzers and Tax Credits Fuel the Green Revolution?

The global push for green hydrogen is gaining momentum, with 20 GW of electrolyzer capacity now reaching final investment decisions (FIDs), according to the International Energy Agency (IEA). Major players like China and companies such as Nikola are driving growth, but challenges around government support, demand signals, and regulatory hurdles persist.

Despite the promising outlook, many hydrogen projects are still in the early stages. Moreover, some face delays or cancellations due to these barriers, including permitting challenges. 

Electrolyzer Expansion: Powering the Future of Green Hydrogen

Analysts from S&P Global Commodity Insights report that 1.2 GW of electrolyzer capacity is operational globally, and 2.1 GW began construction in Q2 2024, with 1.5 GW of this growth happening in China.

The country accounts for over 40% of recent FIDs and is home to 60% of global electrolyzer manufacturing capacity, which currently stands at 25 GW annually.

The IEA projects that by 2030, electrolysis-based hydrogen production in China could be cheaper than hydrogen from coal. This is assuming that the global project pipeline is realized. 

Image from the IEA Report

IEA Executive Director Fatih Birol emphasized the need for stronger demand-side incentives, warning that current demand targets lag far behind government production goals.

The report calls for policies such as carbon contracts for differences and sustainable fuel quotas to stimulate demand. It also warns that the progress made in the hydrogen sector so far is insufficient to meet climate goals, citing stalled cost reductions due to high raw material and energy prices.

Hydrogen production costs could potentially halve to between $2/kg and $9/kg by 2030 under the IEA’s Net-Zero Emissions by 2050 scenario, closing the price gap with “gray” hydrogen. However, under existing policies, the cost is expected to drop by just 30%.

Global hydrogen demand rose to 97 million metric tons in 2023, mostly in refining and chemicals. However, only 1 million metric tons came from low-emission sources. 

The IEA estimates that low-carbon hydrogen production could reach 49 MMt/y by 2030. Yet, achieving this would require an unprecedented annual growth rate of over 90%, a rate even higher than solar power’s fastest growth phase. 

Various challenges like financing, regulatory issues, and permitting delays continue to put the project pipeline at risk. Amid these hydrogen production challenges and projections, a big player in the industry continues to show impressive growth.  

Nikola’s Hydrogen Trucks Hit the Road Amid Industry Challenges

Nikola, a leader in producing zero-emissions hydrogen fuel cell trucks with its HYLA brand, saw a 22% increase in wholesale deliveries of its hydrogen-powered electric trucks during the third quarter. This achievement signals steady demand for the company’s Class 8 hydrogen fuel cell trucks. 

The company delivered 88 trucks to dealers, a record sales quarter, meeting its target of 80 to 100 units. However, it fell short of the 80% surge in deliveries seen in the second quarter. 

The Phoenix, Arizona-based company continues to see demand for its hydrogen-powered trucks. As of the 3rd quarter, Nikola has delivered 200 hydrogen fuel cell trucks in 2024, aiming to meet its full-year target of 300 to 350 trucks. 

Since launching sales in the 4th quarter of 2023, the company has sold a total of 235 trucks. Nikola remains on track to complete the rollout of revamped battery-electric trucks by the end of the year.

RELATED: Nikola’s HYLA Stations Are Supercharging the Hydrogen Revolution

Nikola CEO Steve Girsky highlighted the importance of this achievement, saying:

“Despite overall market headwinds, Nikola remains focused on our mission to pioneer solutions for a zero-emission world, and we’re doing it one truck at a time.”

Economic Setbacks and Project Delays

While the hydrogen fuel cell company strives through market turmoil, some major developers have scaled back or canceled their green hydrogen projects due to economic hurdles. 

Origin Energy, for example, scrapped a hydrogen project in Australia, citing slow market development and high input costs. CEO Frank Calabria explained that technological advancements are still needed to make the investment viable. 

Similarly, Norway’s Nel ASA saw a large U.S. order canceled by Hy Stor Energy, reflecting broader industry hesitation. Michael Liebreich, an industry analyst and investor, sees this as a healthy shift, with unfeasible projects being abandoned to focus on more economically sound ventures. 

Despite the setbacks, clean hydrogen production is expected to grow by over 40% in 2024, though it will still account for just 1% of global hydrogen demand. While the long-term potential remains, the industry is recalibrating expectations as it faces significant financial and technological challenges.

What’s The Road Ahead for Green Hydrogen?

The hesitation around green hydrogen is partly due to uncertainty regarding the U.S. Treasury’s rules for the 45V hydrogen production tax credits. These credits were created under the Inflation Reduction Act (IRA) to incentivize clean hydrogen production. Developers have delayed their commitments to green hydrogen until these rules are finalized. 

Initially, green hydrogen advocates saw the IRA as a significant opportunity, believing that its clean fuel tax credits would make electrolysis-based hydrogen production cheaper than conventional methods. Yet, nearly all of today’s hydrogen supply is derived from natural gas without carbon capture technology, highlighting the slow transition to green hydrogen. 

A study by McKinsey & Co., commissioned by the Hydrogen Council, found that 85% of committed hydrogen production capacity in North America through 2030 is tied to carbon capture projects.

While the 45V tax credit is technology-neutral, analysts have noted that incentives for electrolysis are more attractive than those for carbon capture. However, developers of blue hydrogen projects have benefited from carbon capture tax credits under the expanded 45Q program. It offers up to $85 per metric ton of CO2 captured.

While blue hydrogen is gaining ground, the global pipeline for green hydrogen is also expanding, particularly outside the U.S. 

Companies like Air Products and CF Industries have proposed green hydrogen projects in the U.S. but have yet to make final investment decisions. Interestingly, Air Products supports the Biden administration’s proposed tax credit requirements, which mandate that hydrogen plants source electricity from new zero-carbon generation facilities. Nonetheless, the company has delayed its $4 billion green hydrogen project in Texas pending the final tax credit rules.

Despite the promising growth in electrolyzer capacity and hydrogen production, significant challenges like regulatory uncertainty and economic hurdles persist. While companies like Nikola are making progress, the road to large-scale green hydrogen adoption remains complex and uncertain. The future will depend on clearer policies and more competitive technologies.

SEE MORE: Microsoft and ESB Launch Groundbreaking Green Hydrogen Pilot to Decarbonize Dublin Data Centers

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How Tracking Emissions Can Give the U.S. Steel Sector an Edge Over Imports

On September 25, the US Department of Energy (DOE) launched a pilot project to measure the greenhouse gas intensity of several industrial products, including steel. This move is a part of the Biden administration’s agenda to reduce emissions while boosting sustainable domestic manufacturing. By tracking emissions more effectively, the U.S. steel sector could gain a competitive edge over foreign competitors.

Notably, one key technology helping drive this change is the electric arc furnace, which operates without coal, unlike traditional blast furnaces. This shift aims to lower emissions in the U.S. steel industry which is a major contributor to global greenhouse gas emissions.

Kevin Dempsey, President and CEO of the American Iron and Steel Institute Remarked,

The pilot program is a step toward assessing the environmental footprint of industrial products and promoting the output of domestic producers.”

He further explained the US steel industry scenario to S&P Global Commodity Insights this way,

“We need a trade policy that ensures that all of the efforts being made domestically to invest in all this much cleaner production, which is expensive, is not undercut by imports of much dirtier but much cheaper steel from abroad. For that, we really need to have measurements on the average emissions intensity of the full range of steel products made in the US as a baseline to compare to the emissions intensity of steel products coming from overseas.”

Dempsey further highlighted that measuring average emissions could pave the way for a “border fee” that reflects the emissions intensity gap between domestic products and imports. This would prevent cheaper, high-emission imports from undercutting cleaner US-made steel.

Accurate Emissions Data Crucial for Investors

Fabio Passaro, a senior transition policy analyst at the Climate Bonds Initiative, noted that this initiative creates a strong opportunity for steel producers to lead in the race for greener steel. As regulators, investors, and consumers demand lower-emission products, early adopters of decarbonization could reap significant benefits.

Passaro, who recently authored a report on decarbonizing steel and cement for the G20’s Sustainable Finance Working Group, called the DOE’s pilot project a “great first step.” He emphasized that “you can’t decarbonize what you can’t measure.

While the details are still being finalized, Passaro pointed out that accurate emissions data is increasingly essential for investors looking to avoid the risks associated with high-emission industries.

Currently, emissions data for the steel sector varies widely in availability and accuracy. Investors are wary of industries like steel due to potential risks, including stranded assets, as governments increasingly enforce stricter emissions regulations. Accurate data, transparency, and public availability are critical for addressing these concerns and encouraging investment in greener steel production.

Decarbonizing the steel industry is complex and costly but necessary. Passaro believes that with this pilot project, the US is prioritizing the decarbonization of the steel industry.

U.S. Steel Emissions Report

Source: United States Steel Corporation 2023 Sustainability Report

U.S. Steel’s Major Moves to Cut Emissions

Tracking emissions is one side of the story. Subsequently, it is equally important to combat steel emissions. In this regard, U.S. Steel is making significant progress in reducing emissions through recycling, energy efficiency, and advanced technologies.

Process Optimization and Renewable Energy

U.S. Steel is actively increasing efficiency in its operations through process optimization models, which enhance performance at existing steel mills. The company is also expanding its use of renewable energy sources, such as the Driver Solar project at Big River Steel Works. These initiatives demonstrate a growing commitment to reducing reliance on fossil fuels and embracing cleaner power options.

Innovating with Direct-Reduced Iron and Mini Mills

Direct-reduced iron (DRI) with natural gas is helping U.S. Steel cut back on carbon-intensive coal and coke. Plans to incorporate hydrogen into the DRI process will further reduce greenhouse gas emissions. Mini mills, such as those at Big River Steel Works, already rely on electric arc furnaces, which generate 70–80% fewer emissions than traditional blast furnaces. The company will expand its mini mill capabilities with the BR2 facility in late 2024.

Exploring Carbon Capture and Electrification

Emerging technologies like carbon capture are expected to play a key role in reducing U.S. Steel’s carbon footprint. Electrification and the use of batteries and hydrogen in place of carbon-based fuels are additional strategies to lower emissions.

With advancements in the electrical grid and a shift toward green energy, U.S. Steel anticipates reductions in both Scope 1 and Scope 2 emissions. Significantly, carbon offsets and credits will further bridge any remaining gaps in the company’s decarbonization efforts.

The U.S. aims to achieve 100% carbon-free electricity by 2035, a move that will significantly aid the decarbonization of heavy industries like steel and aluminum. It’s worth quoting that President Biden’s Inflation Reduction Act allocates $369 billion to combat climate change and provides a strong foundation for cleaner industrial operations.

Leveraging Carbon Policies

According to Global Efficiency Intelligence, the U.S. steel industry can fully capitalize on its lower carbon intensity through policy measures like Border Carbon Adjustments and Carbon Tariffs. These policies would promote cleaner domestic production and support global decarbonization goals.

Additionally, initiatives like “Buy Clean” would boost the use of low-carbon steel in public projects, strengthening the industry’s competitiveness and reinforcing U.S. leadership in reducing emissions. Overall, it’s evident that U.S. Steel is taking serious steps to track and mitigate steel emissions to achieve the nation’s net-zero target.

FURTHER READING: Canada’s Steel and Aluminum Industries Demand Tariffs to Block Chinese Dumping 

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BloombergNEF Reveals Mining Needs $2.1 Trillion by 2050 to Fuel Net-Zero Raw Material Demand. Where Does Silver Stand?

The mining industry faces a critical supply shortage of key metals, despite growth in supply over the past decade. According to BloombergNEF’s Transition Metals Outlook, the world needs $2.1 trillion in new mining investments by 2050 to meet the demand for clean energy technologies. It further illustrates that essential metals like aluminum, copper, and lithium could face deficits as early as this year, which might make EVs, wind turbines, and other low-carbon technologies more expensive.

Kwasi Ampofo, head of metals and mining at BNEF and lead author of the report said,

“The prolonged deficit of these metals will lead to higher prices for raw materials, which increases the cost of clean energy technologies. High costs could slow their adoption, and the energy transition at large

Interestingly, BloombergNEF’s Economic Transition Scenario (ETS) highlights, that between 2024 and 2050, the world will need about 3 billion metric tons of metals to drive the global energy transition. It further estimates that achieving net zero emissions by 2050 could push that demand to 6 billion metric tons. This means this can spike metal prices and slow the progress of green technologies.

Recycling Metals, A Viable Solution for Supply and Emissions

However, BNEF says recycling metals can ease supply pressures. Sooner, recycled materials will play a crucial role in the supply chain, which will also reduce overall emissions from production.

According to Allan Ray Restauro, a metals and mining associate at BNEF,

“Good government policies are crucial to the industry’s success. For batteries and stationary storage, governments need to establish collection networks, set the requirements for recovery rates, develop the frameworks to trace individual cells and provide the principles on second-life battery management. These actions can build a robust system that oversees the full lifecycle of battery metals.”

Decarbonizing Mining for a Low-Carbon Future

As the world moves toward a low-emissions economy, resource-rich countries face a tough challenge: reducing emissions while developing their mining sectors. This is because the mining industry is significant for supplying minerals needed for clean energy technologies. Sadly, mining still contributes to global emissions, especially in coal extraction.

Minerals used in selected clean energy technologies

Source: IEA, 2022, p. 6. CC BY 4.0

Countries like Chile are showing progress by using renewable energy in mining operations, but many developing nations struggle to balance growth, sustainability, and emissions goals. In this regard, governments must adopt policies that decarbonize mining while ensuring economic growth and meeting Paris Agreement targets. Countries that implement strong climate policies along with robust financing are the ones to succeed in their global commitments.

RELATED: Driving Decarbonization: Rio Tinto and Green Lithium to Boost EU Lithium Supply 

Southeast Asia Set to Lead in Metal Demand Growth

Certainly, the demand for energy transition metals will vary by region. The research indicated that Southeast Asia is poised to become the fastest-growing market for these materials in the 2030s. The region’s vast mining industry could benefit from this demand surge, helping to accelerate industrialization while contributing to global emissions reductions. Conversely, China’s consumption outpaced the global average between 2020 and 2023. The country’s consumption of transition metals is expected to peak by 2030.

In summary, a $2.1 trillion investment in mining is crucial to meet the global push for clean energy. As metal supplies tighten and prices rise, recycling and supportive policies will be essential to keeping the energy transition on track.

MUST READ: Alaska Energy Metals Pioneers A Model of Carbon-Neutral Mining 

Silver Surges as Coeur Mining Acquires SilverCrest

Coeur Mining is making a strategic move to strengthen silver in the industry. In a $1.7 billion all-share deal, Coeur is set to acquire Canadian silver producer SilverCrest, adding the high-grade, low-cost Las Chispas mine in Mexico to its portfolio.

With this acquisition, Coeur has all the potential to become a major global silver producer, aiming to produce 21 million ounces of silver and 432,000 ounces of gold annually. The Las Chispas mine, which began production in late 2022, has over 10.25 million silver equivalent ounces produced in its first full year of operations. Coeur’s CEO Mitchell J. Krebs highlighted the mine’s strong operational performance and low cash costs of $7.73 per ounce.

The press release reported, that in this partnership Coeur will have a 63% share, and SilverCrest will hold 37%. The acquisition price of $11.34 per share offers an 18% premium to SilverCrest’s recent trading levels. Both companies’ boards have endorsed the deal, which is expected to close in Q1 2025 as regulatory and shareholder approval is pending.

Rising Silver Demand and Market Consolidation

According to the United States Geological Survey (USGS), Mexico led global silver production in 2022, producing an estimated 6,300 metric tons of silver. This output far surpassed China, the second-largest producer, with 3,600 metric tons.

While Mexico dominates in production, Peru holds the largest silver reserves globally, with 98,000 metric tons. Australia follows closely, with reserves totaling 92,000 metric tons. Peru’s stable silver output is supported by its vast reserves and advanced mining infrastructure.

In 2023, silver prices jumped nearly 35% due to heightened demand for solar energy and electronics. This surge has triggered significant mergers in the silver mining sector, including Coeur Mining’s $1.7 billion acquisition of SilverCrest and First Majestic’s $970 million purchase of Gatos Silver. Despite these moves, the market grapples with supply shortages, intensifying the race for reserves. On a positive note, Coeur’s acquisition should be a ray of hope for the global silver industry.

RELATED: Silver Lining: Soaring Demand Outstrips Supply, Pushing Prices to The Roof 

The post BloombergNEF Reveals Mining Needs $2.1 Trillion by 2050 to Fuel Net-Zero Raw Material Demand. Where Does Silver Stand? appeared first on Carbon Credits.

Supreme Court to Rule on Nuclear Waste Storage in Texas: Could Carbon-Free Energy Hang in the Balance?

The U.S. Supreme Court has agreed to review a case concerning a proposed nuclear waste storage facility in Texas. The project was meant to be a temporary site for storing spent nuclear fuel, but Texas state officials, along with landowners and energy groups, opposed it. They argued that the U.S. Nuclear Regulatory Commission (NRC) didn’t have the authority to approve such a facility away from nuclear reactors. The Fifth Circuit Court agreed and blocked the project.

Now, the Supreme Court is being asked to weigh in on two key issues:

Can third parties challenge an agency’s decision when they believe it oversteps its authority?
Does the NRC have the legal power to approve private companies to store nuclear waste far from the reactors where it was generated?

In a nutshell, here are the second-order effects of the Supreme Court’s final decision:

Nuclear Waste Management Stalemate: If the Supreme Court upholds the lower court’s ruling, it could delay or complicate efforts to find new storage sites for nuclear waste, a longstanding problem for the U.S.
Energy Sector Impact: Delays in resolving nuclear waste storage could discourage further investments in nuclear energy, just as demand for clean energy is growing. Nuclear power is seen as a critical part of reducing carbon emissions. Thus, this legal battle may slow the nuclear industry’s growth.
Shift in Federal Policy: A decision against the NRC could push the government to revamp nuclear waste policies and create new legal frameworks to address the issue. The fight over where to put this waste could escalate, particularly in Western states like Nevada, where past efforts were blocked.

Waste Not, Want Not: How Delays Can Hurt U.S. Nuclear Energy

If the Supreme Court sides with the NRC, it could pave the way for more interim storage sites. This could offer a temporary fix to the nation’s nuclear waste problem. However, the challenge of finding a permanent solution would remain.

This case is significant for the future of U.S. nuclear energy. This particularly applies to how the country manages nuclear waste—a longstanding challenge in the nuclear industry. 

SEE MORE: What Does the U.S. Need to Triple Its Nuclear Capacity by 2050? DOE Explains…

The U.S. produces around 2,000 metric tons of spent nuclear fuel annually. Despite this, the total volume is small—less than half an Olympic pool. Since the 1950s, the spent fuel could fit on a single football field stacked less than 10 yards high. The energy produced from this fuel powers over 70 million homes, avoiding 400 million metric tons of CO2 emissions

Spent nuclear fuel is stored at over 70 sites in 35 U.S. states. A quarter of these sites no longer have operational reactors. The Department of Energy is considering consolidating the fuel at interim storage facilities.

The Supreme Court’s decision to review the cancellation of a permit for a temporary nuclear waste storage site in Texas could have major implications for the U.S. nuclear program.

The Growing Problem of Spent Fuel Storage

The U.S. relies on nuclear power for about 20% of its electricity. As the country pushes for clean energy and net-zero emissions goals, nuclear energy is becoming more critical due to its low-carbon emissions. 

However, one of the biggest unresolved issues is the storage of spent nuclear fuel. Currently, there is no permanent solution in place for long-term nuclear waste disposal. Moreover, many reactors store waste on-site, which is not sustainable long-term.

The U.S. Nuclear Regulatory Commission (NRC) has been trying to establish temporary storage sites to manage this waste. The proposed site in Texas, which this case revolves around, was meant to be a step toward addressing the nuclear waste problem, especially as the original plan to store waste at Yucca Mountain in Nevada has been abandoned due to political opposition.

Potential Impact of Supreme Court’s Decision: Is It Good or Bad?

If the Supreme Court sides with the NRC and allows the Texas site to move forward, it could be seen as a positive step for the nuclear energy sector. Temporary storage facilities like the one proposed are essential for managing the growing amount of nuclear waste from the U.S.’s aging nuclear fleet and for any future expansion of nuclear power to meet clean energy goals. Allowing these sites would enable the industry to continue operating without being hindered by the lack of long-term waste solutions.

On the other hand, if the Court upholds the lower court’s ruling and blocks the site, it would complicate the future of U.S. nuclear energy. The industry already faces significant challenges from environmental and political opposition, and this would add another obstacle. 

Without a clear path for storing waste, it may become harder to justify building new nuclear reactors or even keeping older ones running. This could undermine U.S. energy independence and clean energy targets, as nuclear energy plays a key role in reducing greenhouse gas emissions.

Ultimately, the outcome of this case will shape the future direction of U.S. nuclear energy. It highlights a key issue in the country’s energy transition—how to handle nuclear waste responsibly while increasing reliance on nuclear power to meet clean energy goals.

READ MORE: How Retired Nuclear Power Sites in the U.S. Could Fuel Net Zero by 2050

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Fortescue’s “Real Zero” Ambition Could Yield Up To $150M in Carbon Credits by 2030

Fortescue Metals Group is forging ahead with its bold plan to achieve “real zero” emissions by 2030, a move that could generate substantial financial rewards under the Australian government’s new carbon credit scheme. This initiative, known as Safeguard Mechanism Credits (SMCs), is part of the Albanese government’s broader strategy to incentivize businesses to cut emissions and meet the country’s climate targets. 

If Fortescue succeeds in meeting its ambitious emissions goals, it could earn between $50 million and $150 million annually from selling the carbon credits.

Fortescue’s Bold “Real Zero” Ambition

Chairman Andrew Forrest has made it clear that Fortescue’s ultimate goal is to achieve “real zero” by eliminating all Scope 1 and Scope 2 emissions from its iron ore mining operations by 2030. This is distinct from “net zero,” where companies can rely on carbon offsets to balance out hard-to-abate or unavoidable emissions. 

Forrest is a long-time critic of carbon offsets and suggests they do little to drive actual reductions in emissions. Instead, Fortescue’s focus is on achieving genuine emissions reductions through the transformation of its operations.

The mining giant’s commitment to decarbonization includes an extensive plan to overhaul its energy sources, transitioning from fossil fuels to renewable energy to power its operations. Fortescue estimated in 2022 that achieving “real zero” in its Pilbara mining district would require an investment of $US6+ billion. 

The company’s strategy also involves the electrification of its mining fleet, investments in green hydrogen, and innovative technology solutions to reduce its carbon footprint.

Despite Forrest’s aversion to carbon offsets, Fortescue’s progress toward “real zero” could lead to the company becoming a major beneficiary of the Safeguard Mechanism Credits program. 

RELEVANT: ASX Debuts Environmental Futures Contracts for Carbon Markets

The Clean Energy Regulator will allow companies to earn carbon credits if they exceed their mandated emissions reduction targets. For Fortescue, this could mean generating around 1.4 million SMCs by 2030. This is because its projected emissions could be significantly lower than the regulatory allowance for its iron ore production.

What is The Safeguard Mechanism Credits Scheme?

The Safeguard Mechanism, set to begin in 2024, is a key component of the Albanese government’s strategy to reduce national greenhouse gas emissions. The program rewards companies that cut their emissions beyond the required levels by granting them SMCs. These credits can then be sold to other companies that fail to meet their emissions reduction targets, creating a market-based approach to driving climate action. 

Analysts project that the value of these credits could be substantial, with a government-imposed ceiling price of $75 per tonne.

If Fortescue succeeds in its decarbonization plans, it could generate tens of millions of dollars by selling SMCs to companies struggling to meet their own emissions reduction targets. According to projections, the miner will be permitted to emit around 1.4 million tonnes of carbon dioxide by 2030. 

However, if the company manages to achieve its “real zero” goal, it will have cut all emissions. And thus, it could earn 1.4 million credits in that year alone. Given the price of $75/tonne, that could total about $105 million worth of carbon credits. 

While the financial windfall from selling SMCs is attractive, Fortescue hasn’t yet decided whether to participate in this carbon market

Andrew Forrest said that Fortescue is still finalizing its position on the Safeguard Mechanism, noting that:

“We will do this consistent with our broader approach to voluntary and compliance carbon markets, which is that the core focus must always be the delivery of real reductions in emissions.”

He reiterated that Fortescue’s core focus remains on achieving genuine emissions reductions, not on offsets or carbon capture technologies.

Decarbonization Challenges Amid Rising Emissions

Fortescue’s path to achieving “real zero” is fraught with challenges. While the company is making strides in decarbonizing its operations, it still has a long way to go. 

In the year to June 2024, Fortescue’s Scope 1 and Scope 2 emissions—the direct emissions from its mining activities and those associated with its energy use—rose by about 7%. This increase in emissions led to the company exceeding its government-mandated emissions cap by about 120,000 tonnes. Therefore, the iron miner was forced to purchase $4.2 million worth of Australian Carbon Credit Units (ACCUs) to comply with the law.

Visual from Fortescue Climate Transition Plan report

Despite the setbacks, Fortescue has reaffirmed its commitment to decarbonization and has emphasized that it will only purchase carbon offsets when legally required. The company insists that it will not rely on carbon credits to achieve its 2030 target. It will remain focused on reducing emissions at the source. 

The company has also pledged not to rely on carbon capture and storage (CCS) technologies, which it views as an insufficient solution for addressing the climate crisis.

Rival Approaches in the Mining Industry

Fortescue’s aggressive push toward “real zero” stands in contrast to some of its competitors in the mining industry. Rival miner Rio Tinto, for instance, has set a target to halve its carbon emissions by 2030, at an estimated cost of $US6 billion. 

Rio Tinto has been in major partnerships recently with its lithium expansion. Still, though Rio Tinto’s plans are substantial, they do not match the level of ambition shown by Fortescue, which is aiming for complete decarbonization in the same time frame.

Fortescue Metals Group’s “real zero” target is a landmark initiative that could set a new standard for the mining industry. It can also generate significant financial benefits through Australia’s Safeguard Mechanism Credits program. The company’s commitment to genuine emissions reductions, combined with its potential to earn millions from selling carbon credits, makes Fortescue a key player in the global transition to a low-carbon economy. 

READ MORE: Fortescue Launches Innovative Green Metal Project in Australia, Fueled by Green Hydrogen!

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Malaysia’s First Industrial Biochar Facility, Carbon Plus Partners with CrystalTrade for Carbon Removal Optimization

Carbon Plus has launched Malaysia’s first industrial biochar facility, the Bukit Selar Carbon Station, located in Bukit Selar, Kelantan. This pioneering facility, which will produce 500 tonnes of high-quality biochar annually, utilizes advanced gasification technology provided by Renewables Plus. The feedstock for biochar production includes wild, mature bamboo and Palm Kernel Shell (PKS), a byproduct of palm oil production.

To enhance the efficiency and transparency of its operations, Carbon Plus has integrated CrystalTrade’s digital Monitoring, Reporting, and Verification (dMRV) solution. This technology allows Carbon Plus to track and optimize its carbon removal processes while generating CO2 Removal Certificates (CORCs) under the Puro.earth methodology.

dMRV Integration: Boosting Efficiency and Transparency

By employing the CrystalTrade dMRV system, Carbon Plus can monitor each stage of biochar production with precision. This ensures accurate, real-time calculations of the carbon removed and enables detailed tracking of the entire process—from biomass sourcing to emissions monitoring and carbon storage. The data-driven insights provided by dMRV offer full traceability, allowing Carbon Plus to continually optimize its operations and guarantee the integrity of its carbon removal projects.

Source: CrystalTrade Press Release

READ MORE: Callirius and Cula Forge Alliance for Biochar Project Funding and Monitoring

Who is Carbon Plus?

Carbon Plus is a pioneer in biochar project development and implementation across Malaysia and the surrounding region. Their innovative approach centers on converting biomass into biochar through gasification at temperatures exceeding 850˚C. This process produces highly stable biochar, which ensures long-term carbon storage and makes their carbon credits especially appealing to buyers.

The Bukit Selar Carbon Station, a demonstration project implemented by Carbon Plus’s subsidiary Carbon Zero, is just the beginning. With the facility’s current capacity to remove 1,200 tonnes of CO2e annually, Carbon Plus plans to scale up operations, establishing larger biochar facilities next year. This expansion is set to position the company as a key player in carbon removal across Southeast Asia.

Carbon Plus Biochar Facility

CrystalTrade’s dMRV: Unlocking Value for Carbon Credits

The integration of CrystalTrade’s dMRV system highlights the value of Carbon Plus’s high-quality carbon credits by ensuring they are backed by precise data. As the demand for carbon removal solutions grows, this technology will enable Carbon Plus to monitor and scale its projects efficiently.

Project developers interested in enhancing their carbon removal initiatives can adopt their unique solution. They offer all the necessary tools to optimize performance, ensure transparency, and remain competitive in an evolving carbon market.

The Unique dMRV Carbon Management Software for Carbon Removal Technologies

They manage the entire lifecycle of a biochar project, from feasibility studies to the sale of carbon credits. The entire process is backed by their hallmark dMRV for biochar platform. It typically has 5 stages:

1. Pre-feasibility studies

Technical analysis (pyrolysis technology, credits estimations…)
Carbon crediting comparison (Puro.earth, CSI, Verra)
Analysis of needed parameters for verification

2. Life Cycle Analysis

Collection of data (Upstream, core and downstream processes)
Production of the LCA model aligned with Puro.earth requirements and ISO 14040/44 standard

3. Project Registration

Carbon documentation (Environmental permits, Final use…)
Support in the submission of the documentation to the Standard

4. Pre-sale / sale of carbon credits

Offtake agreement on the future deliveries of credits
Sale of the credits to buyers through our client’s base, RFPs…
Portfolio constitution of credits for buyers

dMRV for biochar project

Traceability of the biochar at a batch level. Use of QR-Code, and bar code scanning to track bags from the factory to the final use.
Real-time LCA monitoring of the emissions on the Biomass, production, and use of the biochar.

Disclaimer: Information disseminated for CrystalTrade

FURTHER READING: PETRONAS, ADNOC, and Storegga Forge Deal to Explore CCS in Malaysia

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