Monday, June 29, 2026


 

The AI boom propping up markets could trigger the next crash, central banks warn

People participate in a march to protest the opening of AI data centers in Vancouver, British Columbia, 27 June 2026
Copyright Darryl Dyck/The Canadian Press via AP


By Quirino Mealha
Published on

The vast surge of investment in AI, which has powered global stock markets to record highs, risks ending in a financial bust, the Bank for International Settlements warns, as the build-up’s hidden costs begin to surface in company accounts and consumer prices alike.

In its Annual Economic Report, published on Sunday, the Bank for International Settlements (BIS), known as the central bank for central banks, warned that the enormous spending on AI is accumulating financial vulnerabilities that could amplify any future shock and spread from markets into the wider economy

Presenting the findings, BIS general manager Pablo Hernández de Cos said the message was one of "urgency", with policymakers urged to act before any reversal makes the eventual adjustment more painful.

At the core of the warning is the scale of the spending, despite massive investment having supported global growth over the past year.

The five largest "hyperscalers", the technology giants racing to build AI infrastructure, are on track to commit more than $1 trillion (€878bn) to AI-related investment across 2025 and 2026, a pace that is outstripping their earnings and free cash flow and pushing some to borrow heavily to keep up.

The BIS suggests this race is fuelled by a belief that only a handful of dominant players will ultimately prevail, encouraging firms to pour money into projects whose returns remain deeply uncertain.

Echoes of past manias

The report sets today's AI boom against a long historical lineage, from the canal mania of the 1830s and Britain's railway mania of the 1840s to the electrification of the 1920s and the dotcom bubble.

Each began with a genuine technological breakthrough that attracted more capital than commercial returns could justify, the BIS notes, with each episode ending "with an eventual reversal in investment, inducing economy-wide recessions".

Compounding the danger are stretched share prices and opaque financing.

The BIS highlights the spread of "circular financing", in which chipmakers and cloud giants take equity stakes in AI labs that then commit to buying their chips and computing power, effectively recycling money back to the original investors as revenue.

Much of the funding now flows through hedge funds and private credit vehicles that face lighter scrutiny than banks.

According to Zhang Tao, the BIS chief representative for Asia and the Pacific, that reliance on non-bank channels means an AI downturn could unwind into a sharper, faster crash than a traditional banking crisis.

The hidden costs of data centres

Beyond financial markets, critics argue the true cost of the AI build-out is being obscured in plain sight.

A central concern, examined by the Wall Street Journal, is how the technology giants account for their data centres.

By assuming the expensive equipment inside them will stay useful for longer, firms can spread its cost over more years, lowering the depreciation charged against profits in any given period and making earnings look healthier than the underlying cash burn implies.

However, the specialist chips at the heart of these facilities may become obsolete far faster than those extended schedules assume, leaving a gap between reported profits and economic reality, as well as a balance sheet more exposed than it appears should demand disappoint or a sizable need to replace hardware arise.

FILE. Amazon Web Services data centre in Boardman, Oregon, Aug. 2024 AP Photo/Jenny Kane

The physical scale is staggering

Columbia University economist Stijn Van Nieuwerburgh estimates the build-out could cost in the region of $8 trillion (€7tn) over the next six years, financed in part through the kind of off-balance-sheet arrangements the BIS flagged.

The costs are also no longer confined to corporate accounts.

Some economists now warn of a so-called "third wave" of inflation, after the pandemic and tariffs, driven this time by the AI build-out. As chip manufacturers prioritise high-margin parts for AI servers, the resulting squeeze on memory and storage has rippled out to consumer electronics.

For example, Apple raised prices on its MacBooks, iPads and other devices last week, citing an "extraordinary surge in demand for memory and storage" and saying it had "never seen a component price increase this much, this quickly".

The company's shares fell around 6%, their worst day in over a year, as Microsoft, Nintendo and Sony have also made similar moves.

Beyond hidden costs and inflationary pressures, where the strain may spread furthest is raw power.

Goldman Sachs expects data centres to account for nearly half of the growth in US electricity demand by 2030, with consumer power prices forecast to rise around 6% a year through 2026 and 2027.

The BIS itself notes that the build-out's hunger for electricity is already pressuring prices and input costs, with potential spillovers to inflation, though it stresses, as do many economists, that AI could yet prove disinflationary if its promised productivity gains eventually arrive.



The AI Power Crisis Is Creating a Massive New Market for Fuel Cells


Data center developers are scrambling for reliable power, turning away from congested grids and toward on-site fuel cells. Rystad Energy research and analysis projects a tenfold increase in fuel cell market revenues by 2030, rising from around $2.8 billion in 2025 to roughly $30 billion, as AI computing demand drives unprecedented growth in data center construction. A contracted order book of approximately 9 gigawatts (GW), including framework agreements with Oracle, AEP, Equinix, and Brookfield, points to growing confidence among major operators in fuel cells as a viable long-term power source.

US grid interconnection timelines have tripled since 2015, now stretching to three to six years for large loads. Rystad Energy’s research projects 10.4 GW of cumulative fuel cell demand from data centers between 2026 and 2030, with around 40% of projected 2030 US data center capacity modeled as likely to pursue dedicated on-site power generation rather than grid connection. Unlike conventional grid connections or large gas plants, fuel cells can be deployed quickly and run on natural gas today, transitioning to biogas, renewable natural gas or hydrogen as supply matures, while producing lower on-site emissions than combustion alternatives. North America is expected to account for 91% of installed global on-site power generation capacity, thanks to a combination of grid delays, federal tax incentives and an established domestic supply chain.

Power availability has become one of the defining constraints on data center growth, and operators are increasingly looking beyond the grid for solutions. Fuel cells have moved from a niche application to a measurable part of the firm power mix. The question now is whether the supply chain can scale at the same pace as demand.

Lein Mann Bergsmark, Vice President, Clean Tech Supply Chain Research

Fuel cell graph

Fuel cell manufacturers are expanding capacity in response. Aggregate operational and planned manufacturing output is on track to reach 4 GW per year by 2030, up from 1.8 GW today. Solid oxide fuel cells (SOFC) have become the dominant technology for always-on data center power, accounting for around 53% of cumulative stationary deliveries to date. Bloom Energy holds virtually every primary-load SOFC contract in the visible order book, a concentration that presents supply chain risk if demand accelerates faster than one manufacturer’s production capacity.

That concentration extends to materials. Bloom Energy’s SOFC technology depends on scandium, a critical metal used in its electrolyte chemistry. At full utilization of its planned 2 GW manufacturing expansion, Bloom’s theoretical scandium requirement would approach the size of the entire global market, currently estimated to be around 60 tonnes per year. This potential bottleneck is compounded by the fact that China heavily controls the global scandium supply chain. Competitors using alternative electrolyte chemistries do not share this exposure, and a sustained supply constraint could influence how market share develops as the sector scales. Rystad Energy projects SOFC system costs will fall 20 to 25% by 2030, though the pace will depend on manufacturers’ ability to reduce costs across the full delivered system, not the fuel cell stack alone

Fuel cell chart

By Rystad Energy




The $7 Trillion AI Boom Is Turning Into The Energy Trade of the Century

You might think that Shark Tank’sMr. Wonderful,” Kevin O’Leary, is betting it all on AI, but he is not. 

He is betting on the $5+ trillion in infrastructure required to run it, and that’s where big capital is flowing now. 

And he’s betting on Bitzero (NASDAQ: AIBZ) to be one of the first to break AI’s biggest chokepoint: power. 

Bitzero was looking further ahead while most of the rest of the market was narrowly focused on AI software and semiconductors. 

As a result, on May 5th, Bitzero signed a binding letter for a 15-year lease deal for AI power as it makes its first official leap from low-carbon bitcoin mining to being a power provider for a $5-trillion data-center industry that is desperate for cheap electricity. 

This Canadian cryptominer-turned-energy-provider for AI has already secured more than a gigawatt of low-cost power across Norway, Finland, and the United States, as the money moves into the assets that AI can’t run without.  

Amazon alone projects $200 billion in 2026 capital spending, with most of it tied to data centers. Microsoft is expected to be around $190 billion. Alphabet is also projected near $190 billion, and Meta has laid out a $600 billion U.S. infrastructure plan through 2028. Current estimates now put combined 2026 capex for Amazon, Microsoft, Alphabet, and Meta as high as $725 billion, driven largely by AI data centers, chips, power, and long-lived infrastructure. McKinsey estimates another $5.2 trillion will be deployed into AI infrastructure this decade. That capital is funding land, power, facilities, substations, and equipment before AI capacity can operate.

Source: Oilprice.com; Reuters; McKinsey & Company; Amazon, Meta, Microsoft, Alphabet Q3 earnings.

Half the AI data centers being announced today may not get built because projects fail to secure power on time. 

More than 70% of interconnection requests are withdrawn, and only a fraction reach operation. Global data center electricity demand is projected to approach 945 terawatt-hours by 2030, roughly equal to Japan’s total consumption, according to the latest research from Berkeley Labs, which is affiliated with the U.S. Department of Energy’s Science Office. 

Megawatts will decide who builds and who doesn’t.

The AI Build List Is Under Duress

A large share of the AI data centers being announced today may never reach completion because power is not available when projects need it. That creates an advantage for companies like BitZero (NASDAQ: AIBZ) that already control gigawatt-scale electricity.

Artificial intelligence demand is expanding quickly, but the electricity required to run it is becoming harder to secure, slower to connect, and more expensive to deliver. 

More than 70% of interconnection requests are withdrawn, and only a small portion reach operation. At the same time, global data center electricity demand is projected to approach 945 terawatt-hours by 2030, roughly equal to Japan’s total consumption.

While investors were previously focused on semiconductor chips as the make-or-break element of the AI boom, it’s now clear that it’s a question of power above all. 

And that’s exactly why a forward-thinking cryptominer like Bitzero is well positioned to take advantage of the AI-power gap. 

“As electricity prices climb across the U.S., driven in large part by soaring demand from both Bitcoin mining and the rapid expansion of AI data centers, Bitcoin miners are at a distinct advantage because we locked in power access well ahead of the curve,” Mohammed Bakhashwain, founder and CEO of Bitzero Holdings, Inc., told Oilprice.com in a recent interview. 

Both cryptomining and AI require the same infrastructure: reliable power, advanced cooling, and industrial-grade data centers. 

“While others are still fighting for grid access, permits, and infrastructure, Bitzero secured those assets over the past four years and knows how to operate energy-intensive facilities at scale. That creates valuable optionality. The same megawatt can mine Bitcoin or support AI and data center workloads. In a market where power is the real constraint, we believe flexibility is a competitive advantage,” Bakhashwain said. 

Full Speed Ahead on the Biggest Boom in Computing History

Earlier this month, Bitzero (NASDAQ: AIBZ) completed engineering due diligence for up to 520 megawatts at its Kokemäki, Finland campus, eyeing up to 1GW at full ramp. An initial 80MW phase is targeted for the first half of 2027, with 400MW to 800MW expected to follow in later stages as the full buildout advances. 

And that’s just one venue. 

Bitzero’s Norway operations are already running as a fully built industrial platform. The company is operating Bitcoin mining at power costs below four cents per kilowatt-hour, which keeps the site active and monetized while additional infrastructure is layered on top. 

At Namsskogan, the next 70MW tranche is scheduled for energization in the fourth quarter of 2026, tied directly to a defined 325MW expansion corridor that follows existing grid capacity.

And here, in Norway, is where Bitzero’s great leap into data center power just became official. 

On May 5, Bitzero signed a binding letter of intent with OneQode Networks covering the full 110 MW capacity of its Namsskogan, Norway data center site under a 15-year lease tied to GPU-based AI workloads. The agreement carries an implied value of roughly $2.6 billion over the lease term and marks Bitzero’s formal entry into the large-scale AI data-center infrastructure market.

This is a double victory for Bitzero. 

When it mines in Norway, Bitzero uses its own electricity to generate revenue from the Bitcoin it produces. Under the AI agreement, Bitzero generates revenue by leasing the site’s power capacity and infrastructure to OneQode. Simultaneously, OneQode pays the electricity bill tied to running the AI systems inside the facility. 

That means Bitzero captures the recurring infrastructure revenue from the site without directly absorbing the massive ongoing power costs associated with operating large-scale AI workloads.

According to Bitzero management, at full utilization of 110 MW, the Namsskogan site could generate roughly $176 million to $178 million in annual revenue. A recent shareholder analysis modeling the agreement estimated potential annual NOI of roughly $151 million based on an 85% margin profile tied to the lease structure.  

It’s the plentiful, low-cost, low-carbon energy Bitzero has harnessed in Scandinavia that OneQode is after. 

Norway is served by hydro power, and Finland is served by a cocktail of low-cost hydro, nuclear, solar and wind energy. 

Finally, the North Dakota footprint gives Bitzero a second operating lane tied to U.S. demand. The company controls power-backed sites there that position it inside a different pricing and regulatory environment from its Nordic assets. 

Across Norway, Finland, and North Dakota, the operating model is consistent: secure power first, bring megawatts online in stages, and deploy that capacity into whichever use case offers the highest return at that point in the cycle, whether it’s mining, colocation, or AI compute.

The AI Investment Model Is Outrunning The Grid

It takes up to 7 years to build out a large-scale power source to feed a data center. 

Still, investors have been operating on a massive assumption: That the power will magically be there once all the data centers are built. This is where the data center hype meets an electrification reality. 

But securing power isn’t that easy. At a bare minimum, it requires grid studies, transmission access, permitting, utility negotiations and long-term pricing frameworks.

And demand is bursting. 

The IEA expects global data-center electricity use to grow 4X the growth rate of total electricity demand from every other sector combined. The agency is eyeing data center power demand of roughly double to around 945 TWh by 2030.

Similarly, Goldman Sachs has forecast data-center power demand soaring 175% by 2030 compared to 2023 levels.

That’s like adding an entire country to the grid.  

The business of sourcing power is not keeping pace with the business of building out data centers. 

We will need  $6.7 trillion in capital by 2030, including $5.2 trillion for AI infrastructure alone, in order to make the data center hype a reality. Yet, so far, grid investment expected to support that demand is only around $720 billion.

With more than a gigawatt of power already secured across Norway, Finland and North Dakota, Bitzero already controls sites, permits, grid access, and expansion capacity while AI developers line up to get a start on the 7-year process. 

Why Bitzero’s Model Is Getting Attention

Bitzero (NASDAQ: AIBZ) is building large-scale campuses backed by secured, low-cost power and positioning them for AI and high-performance computing demand. It’s not choosing between crypto and AI. It is running both. Bitcoin mining keeps capacity active and generates cash flow, while the same sites are being developed to support AI and HPC workloads as that demand scales.

“We see a really big opportunity in HPC,” CEO Mohammed Bakhashwain said, pointing to an engineering team that has already worked on deployments with Microsoft and Nscale in Norway. The company controls land, power, and infrastructure in place to deliver large campuses, and is already moving to market that capacity to AI tenants.

The model is built to capture two revenue streams off the same megawatts. Mining today and higher-value AI and colocation tomorrow. 

“We’re hoping to get the best of both worlds—the long-term, investment-grade cash flows from HPC and AI, while having exposure to Bitcoin,” Bakhashwain said. 

That keeps sites operating while capacity is repositioned for larger, longer-term contracts.

That structure is what has drawn investor attention.

Kevin O’Leary doesn’t frame Bitzero as a mining company. He calls it an energy contract business. The asset is the site: power secured at low cost, tied to land, permits, and continuous load. Mining monetizes that power now. Leasing compute and capacity to large off-takers is where the longer-term value sits.

“The value of what Bitzero has has risen dramatically, and I think over time the market will recognize that,” O’Leary said.

The company is building capacity that can be deployed into whichever market pays more at a given time. That is how the same infrastructure can generate cash flow today and scale into larger contracts as AI demand continues to build.

The AI power boom is also reshaping investor interest across some of the largest publicly traded U.S. energy companies. EQT Corporation (NYSE: EQT), the country's largest natural gas producer, is widely viewed as a key supplier of fuel for the gas-fired generation expected to support rising electricity demand. Vistra Corp. (NYSE: VST) has become a leading AI infrastructure play through its diverse fleet of natural gas, nuclear and renewable power assets, while Constellation Energy (NASDAQ: CEG) has attracted significant attention thanks to its position as the nation's largest producer of carbon-free nuclear electricity. Together, these companies underscore a growing realization across markets: the AI race is no longer just about chips and software—it is increasingly about securing dependable, long-term power. Companies that already control energy assets and grid-connected infrastructure are likely to occupy an increasingly strategic position as electricity becomes the defining constraint on AI expansion.

Given all of this, Bitzero is not simply participating in the AI buildout. It may be sitting on part of the infrastructure that others will have to come to, just as OneQode did on May 5th. 

The bigger point is where capital could start to flow as that logic sinks in. 

By. Charles Kennedy

 

World’s largest EV battery repurposing megafactory opens in British Columbia


Image: Moment Energy.

Moment Energy on Monday opened Megafactory 1, the largest EV battery repurposing facility in the world, bringing domestic battery energy storage manufacturing capacity online with a ceremony attended by investors, industry and government leaders. 

The now operational facility transforms retired EV batteries into cost-effective, rapidly deployable energy storage systems that support critical infrastructure, including data centres, factories and microgrids, the company said.  

The facility comes online as demand for electricity continues to surge, driven by AI, data centres, the energy transition and grid modernization.  

Meanwhile, millions of EV batteries already on North American roads are expected to be retired over the coming years, and Moment Energy said it addresses both challenges by turning retired batteries into scalable energy storage systems that offer an immediate solution to energy shortages. 

The facility is expected to produce 1 GWh of battery energy storage systems by 2030, creating more than 100 direct jobs and supporting more than 1,000 indirect jobs across British Columbia. 

Moment’s megafactory in Surrey, British Columbia. Image: Moment Energy.

“We announced this project six weeks ago. Today it’s operational,” Moment Energy CEO Edward Chiang said in a news release. “Demand for energy storage is accelerating, and so is the supply of retired EV batteries.”  

“We show that the right technology can enable North America to re-onshore domestic manufacturing in weeks, not decades, creating thousands of jobs and economic prosperity.” 

Since its founding in Vancouver in 2020, Moment Energy has attracted both private and government support across British Columbia’s innovation ecosystem, helping the company scale from a university-born startup into a global leader in second-life battery energy storage, it said.

“This is exactly the kind of homegrown innovation we want to see in British Columbia,” Gregor Robertson, Minister responsible for Pacific Economic Development Canada (PacifiCan) said.  

“With PacifiCan’s $4.9 million investment, Moment Energy is expanding clean manufacturing, creating good local jobs, and finding smart solutions to global challenges.” 

 

Op-Ed: Lithium’s next demand wave extends beyond EV batteries


Stock image.

Electric vehicles (EVs) will remain the dominant source of lithium demand for at least the next 15 years, but a growing range of technologies from artificial intelligence to advanced nuclear systems could create a meaningful second wave of consumption by mid-century.

A study by GEM Mining Consulting found emerging lithium applications would contribute about 105,000 tonnes of lithium carbonate equivalent (LCE) annually by 2035, rising to 303,000 tonnes in 2040 and 720,000 tonnes by 2050 under its base-case scenario. Those volumes represent about 2.8%, 6.1% and 10.3%, respectively, of projected demand from current applications such as electric vehicles, consumer electronics and grid-scale energy storage. In a transformative upside case where multiple lithium-intensive technologies scale simultaneously, additional demand could reach 2.81 million tonnes of LCE annually by 2050.

The report shows that emerging applications are unlikely to replace EVs as the primary source of lithium demand before 2040. They can, however, become material by 2050 if several technology gates are passed.

In the article, we argue that investors and industry participants should focus less on headline demand figures and more on how lithium is consumed. It distinguishes between gross lithium use, additive demand and net primary demand, noting that large inventories embedded in batteries, nuclear systems or industrial materials do not necessarily translate into new annual requirements for mined and refined lithium. Recycling, recovery and closed-loop reuse could significantly reduce the amount of fresh supply required.

AI data-centre demand

The largest expected sources of new demand by 2050 are AI data-centre resilience storage systems, humanoid and service robotics, aviation and defence batteries, lithium-7 molten-salt nuclear reactors, ceramic carbon-capture sorbents and industrial robotics.

Fusion energy remains strategically important because it could create demand for lithium isotopes, particularly lithium-6, but the broader opportunity spans electrochemical, nuclear, thermal-management, photonic and specialty chemical applications.

Lithium’s appeal across those sectors stems from its unique physical and chemical properties. The metal’s light weight and electrochemical characteristics make it central to advanced batteries and solid electrolytes, while lithium isotopes play specialised roles in nuclear technologies. Lithium compounds are also used in high-temperature carbon-capture systems, industrial cooling applications, photonic materials and hydrogen-rich shielding technologies.

The study cautions that substitution remains the biggest risk to long-term demand growth outside batteries. Sodium-ion batteries, flow batteries, iron-air systems, hydrogen storage and alternative aviation fuels could reduce lithium consumption in some applications. Alternative cooling chemicals, photonic materials and reactor designs could also limit adoption. The risk is greatest where lithium acts primarily as an energy-storage medium and lowest where the lithium atom or isotope is essential to the technology itself.

For lithium producers, the findings suggest strategic flexibility may become increasingly valuable. While battery-grade carbonate and hydroxide are expected to remain the industry’s core products, specialty materials such as lithium metal, lithium fluoride, lithium bromide, lithium chloride, lithium silicates, lithium hydrides and isotope products could emerge as higher-value markets. Governments and manufacturers may also need to treat lithium refining, isotope production and recycling capabilities as strategic assets rather than niche industries.

The lithium industry may be entering a more diversified phase of growth. While EVs are likely to remain the dominant demand driver for decades, a broad portfolio of emerging technologies could create new markets that reshape supply chains and expand the strategic importance of the metal well beyond transportation.

* Juan Ignacio Guzmán is the CEO of GEM Mining Consulting

 

Jindalee Lithium explores environmental stewardship measures for McDermitt project

Outcropping mineralized sediments towards the centre of the giant McDermitt lithium deposit. (Image courtesy of Jindalee Resources.)

Australia’s Jindalee Lithium (ASX: JLL) has partnered with nonprofit organization RESOLVE on an environmental stewardship initiative in areas surrounding its flagship lithium project in the US.

On Monday, the company announced that the parties have entered a memorandum of understanding (MOU) that explores the creation of a voluntary stewardship area in the broader Oregon-Nevada Caldera region, where its McDermitt lithium project is located.

Under the MOU, Jindalee’s US subsidiary HiTech Minerals and RESOLVE are expected to engage with stakeholders and rightsholders in the region to identify potential land areas that may warrant investment, protection, restoration or other stewardship measures.

HiTech may fund part of these stewardship measures, agreed through the process subject to meeting McDermitt lithium project development milestones.

The creation of a stewardship area is intended to support improved environmental outcomes for high-value habitat areas, alongside HiTech’s advancement of responsible domestic lithium development in the McDermitt Caldera, Jindalee said.

“HiTech recognizes the ecological, cultural and community values of the broader Oregon-Nevada McDermitt Caldera region, and the importance of advancing McDermitt in a way that is responsible, transparent and constructive,” Jindalee CEO Ian Rodger said in a news release.

“This MOU with RESOLVE provides a practical framework to explore how domestic lithium development and long-term environmental stewardship objectives can be progressed together.”

Rodger also noted that the process is at an early stage, and any future stewardship area will need to be shaped through engagement with tribal nations and stakeholders, technical assessment, and the ongoing permitting pathway.

The move comes as Jindalee prepares to spin out its US lithium assets into a new Nasdaq-listed company called US Elemental. The centerpiece of that company will be the McDermitt project, located on the same geological formation that hosts Lithium Americas’ (TSX, NYSE: LAC) Thacker Pass project being backed by the US government and General Motors.

 

Nigeria’s Major Lithium Reserve Discovery Near Abuja Explained

BYMUFLIH HIDAYATON JUNE 26, 2026

The Geological Lottery Africa Has Been Sitting On

For decades, the dominant narrative around African resource wealth has centred on a familiar paradox: a continent holding an extraordinary share of the world's critical minerals, yet capturing a disproportionately small fraction of the economic value those minerals generate. Nowhere is this tension more visible than in Nigeria, where a Nigeria lithium reserve discovery is forcing an economy historically anchored to crude oil revenues to confront the scale of what lies beneath its non-petroleum geology.

The global energy transition has fundamentally reordered the strategic value of specific minerals. The critical minerals demand for lithium, nickel, platinum group metals (PGMs), and rare earth elements has moved these resources from industrial footnotes to the centrepiece of geopolitical supply chain strategy across the United States, European Union, and China. Against this backdrop, two significant mineral discoveries announced at the African Natural Resources and Energy Investment Summit 2026 in Abuja have placed Nigeria at the centre of a conversation it has long been absent from

Two Discoveries, One Strategic Signal

The Kaduna Polymetallic Province: Breadth Over Single-Commodity Exposure

The first announcement involved the identification of a world-class polymetallic mineral province in Kaduna State, verified by the Nigerian Geological Survey Agency (NGSA). The deposit was identified by Steron Mining and Company Limited in collaboration with the NGSA, which subsequently confirmed the geological findings.

What makes polymetallic provinces commercially distinct is their multi-revenue architecture. Rather than depending on a single commodity price cycle, operators can generate simultaneous cash flows across several mineral streams. The Kaduna deposit contains high-grade concentrations of:

  • Platinum group metals (PGMs)
  • Gold
  • Nickel
  • Copper
  • Lithium
  • Rare earth elements (REEs)

Nigeria's Minister of Solid Minerals Development, Dr. Dele Alake, characterised the Kaduna find as a landmark breakthrough with the potential to elevate Nigeria's standing in the global market for strategic minerals used in clean energy technologies and advanced manufacturing. The high-grade nature of the deposits was specifically highlighted as a differentiating quality factor.

Investor Insight: Polymetallic deposits provide a natural hedge against single-commodity price downturns. If lithium prices soften, for instance, gold or PGM revenues can support project economics. This structural diversity makes the Kaduna province considerably more resilient than a pure-play lithium discovery.

The Abuja Lithium Reserve: 3.3 Million Metric Tonnes Confirmed

Separately, Steron Mining and Company Limited disclosed an estimated 3.3 million metric tonnes of lithium reserves at its mining site near Abuja. This constitutes one of the most significant standalone Nigeria lithium reserve discovery announcements in the country's recorded mining history and was unveiled at the same 2026 summit.

The dual-announcement format is itself strategically significant. By revealing a polymetallic province in Kaduna alongside a discrete lithium reserve near the capital, Nigeria's mining sector is signalling breadth of geological opportunity rather than a concentrated single-site story. This matters to institutional investors who assess country-level mineral prospectivity rather than individual project economics alone.

How Nigerian Lithium Grades Stack Up Against Global Benchmarks

Understanding Li₂O Concentration as a Commercial Threshold

One of the least understood aspects of lithium investment outside specialist circles is the critical role of ore grade in determining project viability. Understanding how lithium mining works reveals that lithium oxide concentration, expressed as a percentage of Li₂O, is the primary commercial benchmark for hard-rock spodumene deposits.

The following thresholds are widely used across the industry:

Li₂O Grade Range Commercial Classification Below 1.0% Sub-economic; generally not viable
1.0% to 2.0% Minimum viable threshold for most projects
2.0% to 4.0% Good commercial grade
4.0% to 6.0% High quality; strong project economics
Above 10.0% Exceptionally rare; premium-tier deposit


Against these benchmarks, Nigerian lithium geology stands out sharply. ASX-listed Chariot Resources Limited, which secured six mining licences across Nasarawa, Kogi, Kwara, Ekiti, and Cross River states, independently verified spodumene extraction grades ranging from 2.66% to 5.96% Li₂O across its licensed sites. Certain Nigerian deposits have recorded concentrations approaching 13% Li₂O — a figure that would place them among the highest-grade hard-rock lithium sources identified anywhere on earth.

Technical Note: High-grade deposits do more than improve headline economics. They reduce the volume of ore that must be processed to yield a tonne of lithium carbonate equivalent (LCE), directly lowering energy consumption, processing costs, and environmental footprint per unit of output. For frontier jurisdictions where energy infrastructure is constrained, this grade advantage is operationally meaningful.

Nigeria's Lithium Landscape: A Comparative Overview


Site or ProgrammeLocationReserve / GradeVerified BySteron Mining
 Lithium Reserve Near Abuja ~3.3 million metric tonnes NGSA
Kaduna Polymetallic Province Kaduna State PGMs, gold, nickel, copper, Li, REEs NGSA + Steron Mining
Chariot Resources Licensed Sites Nasarawa, Kogi, Kwara, Ekiti, Cross River 2.66% to 5.96% Li₂O spodumene Independent verification
National Lithium Belt Estimate 10+ states $34B to $700B estimated value NGSA mapping


Nigeria's lithium-bearing geology spans at least ten states, tracing a belt mapped by the NGSA that extends from the northwest toward the southeast, approaching the Cameroon border. Total estimated reserve value across this belt ranges from $34 billion to $700 billion depending on methodology, commodity pricing assumptions, and deposit scope — a variance that itself illustrates how early-stage much of this geology remains. Furthermore, recent research published in geochemical literature reinforces the geological significance of Nigeria's lithium-bearing pegmatite formations across these states.

Who Is Deploying Capital Into Nigeria's Lithium Sector

Chinese Investment Leads the Committed Capital Wave

Jiuling Lithium Mining Company and Canmax Technologies have collectively committed investments exceeding $1.3 billion to establish lithium processing infrastructure in Nasarawa and Kaduna states. This level of financial commitment from Chinese industrial capital is not incidental. It mirrors a well-established strategic playbook: secure upstream supply access while simultaneously building downstream processing capacity inside the producing country.

What is less commonly discussed is the value-capture implication of this model. When foreign processors build in-country facilities, host nations gain jobs and tax revenues — but the highest-margin stages of the lithium value chain, including battery precursor chemicals and cathode active materials, typically remain in the investor's home jurisdiction. Moreover, Chinese companies are actively grabbing stakes in Nigeria's lithium and EV future, making Nigeria's ambition to capture more than raw export value all the more dependent on deliberate policy architecture around domestic processing mandates.

Australian Junior Mining Enters the Picture

The involvement of ASX-listed Chariot Resources Limited carries a different signal than Chinese industrial investment. Australian junior mining companies operate on exploration risk capital, meaning their entry is driven by geological conviction rather than downstream supply security. Their independently verified grades of 2.66% to 5.96% Li₂O across multiple licensed states represent a technically credible exploration outcome that adds weight to the broader thesis about Nigerian lithium prospectivity.

Saudi Capital Being Actively Courted

Nigeria has separately pitched $600 million in lithium and gold projects to Saudi investors, reflecting a deliberate strategy to build an investor base diversified beyond Chinese capital. This matters geopolitically: dependence on a single foreign investor class in a critical mineral sector creates leverage vulnerabilities that sovereign resource strategies should seek to mitigate.

The Structural Barriers That Could Limit Nigeria's Potential

Infrastructure: The Invisible Cost Multiplier

High ore grades and large reserve tonnages are necessary but not sufficient conditions for a successful mining operation. Nigeria's mining sector faces a set of infrastructure constraints that add cost at every stage of the value chain:

  • Transport corridors: The absence of dedicated rail links between mineral-bearing states and export ports adds significant cost-per-tonne relative to more developed mining jurisdictions.
  • Power reliability: Mineral processing is energy-intensive. Grid instability in Nigeria raises operating costs and complicates the business case for in-country processing ambitions.
  • Port capacity: Export scalability depends on adequate port infrastructure to handle bulk mineral shipments competitively.

These are not insurmountable problems, but they require capital investment that typically must precede, or run in parallel with, mining development rather than following it.

Artisanal Mining: A Hidden Depletion and Governance Risk

Unregulated artisanal and small-scale mining (ASM) activity across Nigeria's lithium-bearing states creates a compound problem that is often underappreciated by outside investors:

  1. Resource depletion: Surface and near-surface high-grade material — often the most economically significant portion of a deposit — can be extracted ahead of formal development, reducing the resource base available for bankable feasibility studies.
  2. Environmental liability: ASM activity can create ground disturbance and contamination that complicates future environmental permitting for formal operators.
  3. Revenue leakage: Minerals extracted through informal channels bypass royalty and tax collection systems, reducing the fiscal benefit to the state and undermining the revenue diversification argument.

Formalising ASM activity is a stated government priority under the Ministry of Solid Minerals Development's reform programme. However, the operational complexity of transitioning thousands of informal operators into a regulated framework should not be underestimated.

Regulatory Maturity and the Timeline to Bankable Feasibility

Risk Callout: In frontier mining jurisdictions, the gap between a verified resource discovery and a definitive feasibility study — the document required before project financing can be secured — routinely spans five to ten years. Regulatory clarity, transparent royalty frameworks, and enforceable environmental compliance mechanisms are not optional features of an attractive investment environment; they are prerequisites.

Nigeria's mining regulatory infrastructure has historically been less developed than its petroleum sector equivalent. The Nigerian Minerals and Mining Act and its associated regulations provide a framework, but investor confidence requires consistent application of that framework over time, not just its existence on paper.

Nigeria Within Africa's Broader Critical Minerals Competition

How Africa's Major Critical Mineral Producers Compare


CountryPrimary Critical MineralNotable Development Status

Nigeria Lithium, PGMs, REEs, Nickel, Gold 3.3Mt lithium reserve near Abuja; Kaduna polymetallic province verified
Zimbabwe Lithium Africa's largest lithium producer; mineral-for-infrastructure arrangements with China
DRC Cobalt, Copper Approximately 70% of global cobalt supply; persistent governance challenges
Zambia Copper $372M UK investment commitment in copper assets
Kenya Rare Earth Elements Preliminary US agreement on $62.4B estimated untapped REE deposits
Namibia Uranium, Lithium Growing junior miner interest; emerging exploration profile

Nigeria's Competitive Differentiators Within This Landscape

Several factors distinguish Nigeria's positioning relative to peer African mineral producers:

  • Commodity diversity: The combination of lithium, PGMs, gold, nickel, copper, and REEs across multiple provinces creates a broader investment proposition than single-commodity producers.
  • Economic scale: As Africa's largest economy by GDP, Nigeria brings capital market depth, existing trade infrastructure, and domestic industrial demand that smaller mineral-rich nations cannot replicate.
  • Coastal access: Unlike several landlocked competitors in the critical minerals space, Nigeria's port access provides a latent logistical advantage provided internal connectivity is improved.
  • Geological belt continuity: The NGSA-mapped lithium belt traversing more than ten states suggests a systemic geological endowment rather than isolated deposits — a distinction that matters for long-term sector scale.

From Oil Dependency to Mineral Diversification: The Economic Reframing

Why the Solid Minerals Sector Carries Structural Importance Beyond Revenue

Nigeria's petroleum revenues have historically accounted for the dominant share of government foreign exchange earnings, creating a structural vulnerability to oil price cycles that has periodically destabilised public finances. The solid minerals sector's contribution to GDP has remained marginal despite the geological evidence of significant endowment — a gap the current administration is explicitly seeking to close.

A successfully developed critical minerals sector would deliver economic benefits across several dimensions:

  • A countercyclical revenue stream decoupled from crude oil price movements
  • Foreign direct investment inflows spanning exploration, processing, logistics, and services
  • Technical workforce development in geology, mining engineering, and environmental management
  • Downstream industrial development potential in battery component manufacturing over the long term

The Value-Addition Question: Who Captures the Margin?

The most strategically important question facing Nigeria's minerals sector is not whether lithium can be extracted, but at what point in the value chain Nigerian entities capture economic benefit. The progression from raw ore to refined lithium carbonate to battery-grade lithium hydroxide to cathode active material represents a series of value-addition steps, each carrying progressively higher margins.

Nigeria's stated objective of building in-country processing capacity aligns with this logic. However, investment structures that place processing infrastructure under foreign ownership — even when physically located in Nigeria — can still result in the majority of value-added margin flowing offshore. Structuring investment agreements to ensure progressive local content requirements and domestic value retention will be as important as attracting the initial capital. Consequently, trends in African mining finance suggest that host nations are increasingly seeking equity participation rather than royalty-only arrangements to better retain in-country value.

Frequently Asked Questions: Nigeria Lithium Reserve Discovery

How large is Nigeria's newly confirmed lithium reserve near Abuja?

Steron Mining and Company Limited has identified an estimated 3.3 million metric tonnes of lithium reserves at its mining site near Abuja, disclosed at the African Natural Resources and Energy Investment Summit 2026.

What minerals were confirmed in the Kaduna polymetallic province?

The Kaduna deposit contains verified high-grade concentrations of platinum group metals, gold, nickel, copper, lithium, and rare earth elements, confirmed by the Nigerian Geological Survey Agency in collaboration with Steron Mining.

How does Nigerian lithium grade compare to global averages?

Nigerian deposits are notably high-grade relative to global norms. Verified spodumene grades from licensed sites range between 2.66% and 5.96% Li₂O, while certain deposits have recorded concentrations approaching 13% Li₂O against a global commercial average of 1% to 2%.

What is the estimated total value of Nigeria's lithium reserves nationally?

Estimates vary significantly based on methodology and commodity pricing. Nigeria's total lithium reserve value across more than ten lithium-bearing states has been cited at figures ranging from $34 billion to $700 billion.

Which companies are currently active in Nigeria's lithium sector?

Key operators include Steron Mining and Company Limited (Abuja reserve and Kaduna polymetallic province), Chariot Resources Limited (ASX-listed, six licensed sites), Jiuling Lithium Mining Company, and Canmax Technologies, the latter two having committed a combined total exceeding $1.3 billion in processing infrastructure.

What are the primary risks facing Nigeria's lithium development timeline?

The main constraints include inadequate transport and energy infrastructure, widespread artisanal mining activity creating resource depletion and permitting complications, regulatory framework maturity relative to more established mining jurisdictions, and the extended timeline typically required to convert exploration discoveries into producing mines.

Key Takeaways

  • Nigeria has confirmed two major mineral discoveries: a polymetallic province in Kaduna State and a 3.3 million metric tonne lithium reserve near Abuja, both verified by the NGSA
  • Nigerian lithium is commercially differentiated by exceptionally high ore grades, with verified deposits reaching up to 13% Li₂O against a global commercial average of 1% to 2%
  • Total national lithium reserve value estimates span $34 billion to $700 billion across more than ten states
  • Chinese companies alone have committed over $1.3 billion in processing infrastructure, with Saudi and Australian capital also entering the sector
  • Structural barriers including infrastructure deficits, artisanal mining activity, and regulatory development gaps must be systematically addressed to convert geological potential into sustained export revenue
  • The value-addition question — determining how much of the lithium value chain margin is retained within Nigeria rather than captured offshore — will ultimately define whether this Nigeria lithium reserve discovery reshapes the country's economic structure or simply replicates the extractive model that characterised its oil era

This article contains forward-looking assessments based on publicly available geological data, investment announcements, and industry benchmarks. Reserve estimates, valuation ranges, and development timelines are subject to material change as exploration and feasibility work progresses. Nothing in this article constitutes financial or investment advice.

 

Congo eyes coops, credit scheme to fund mine workers’ equity stakes


Image courtesy of Katanga Mining Ltd

The Democratic Republic of Congo is considering a plan to help mining employees acquire mandatory stakes in the companies they work for through worker cooperatives and company-financed credit, a draft decree seen by Reuters on Tuesday showed.

Authorities in the world’s top cobalt and second-largest copper producer are preparing rules to enforce a law requiring miners to reserve 10% of their equity for Congolese nationals, including 5% for their employees.

Congo introduced the rule in 2018, but no company has yet complied. In January, the government asked miners – the majority of them multinationals including Glencore, Ivanhoe and China’s CMOC – to show proof of compliance by the end of July or risk sanctions.

As commodities prices surge, African countries are increasingly seeking a larger share of their mineral wealth.

Worker cooperatives and interest-free credit

Under the decree drafted by Congo’s mines ministry, companies would be required to sell shares to their employees on interest-free credit.

The workers’ stakes would be held through cooperatives, while a separate 5% of equity would be reserved for other Congolese nationals, who could hold shares either directly through Congolese-owned companies or via public social security institutions.

A mining executive told Reuters on Monday that a draft of the decree was shared with workers for input.

Under the credit-backed system, workers would reimburse their loans through the withholding of up to 80% of their annual dividends until the debt is fully repaid, according to the draft decree seen by Reuters.

Companies will, meanwhile, not be allowed to dilute the 10% equity for Congolese nationals irrespective of capital increases, the decree added.

Congo’s mines ministry and Chamber of Mines did not immediately respond to requests for comment.

Labour groups say the success of the law’s 5% worker equity requirement would depend on how the financing arrangements are ultimately structured.

Speaking after discussions with the mines ministry, Juresse Lokosha, head of the Union for Social Peace, said access to shares will not be automatic for all workers but would instead depend on their ability to mobilize financing, whether privately or through a company-backed credit scheme.

Authorities are, therefore, encouraging pooled structures to lower entry barriers, he added.

(By Ange Adihe Kasongo, Maxwell Akalaare Adombila and Ashitha Shivaprasad; Editing by Joe Bavier)



 

Mining billionaire calls on China to push green ship fuel deal


Andrew Forrest, Fortescue Metals’ chairman. (Image by Fortescue, Twitter/X.)

China should be pushing to decarbonize global shipping fuel after plans to charge emissions fees stalled last year because of US opposition, according to Australian billionaire miner Andrew Forrest.

The International Maritime Organization in October postponed by a year a decision on the landmark charge after attacks on the proposal from US President Donald Trump. China had supported a draft proposal in April 2025, but didn’t push back against the delay.

Penalties against shipping emissions would stand to benefit green hydrogen, a technology touted by both China and Forrest, who made his fortune as the founder of iron ore miner Fortescue Ltd. The billionaire in recent years has focused on pivoting to green technologies, although progress has been uneven.

“I need China to really lean forward on the International Maritime Organization proposal to trend itself to go green,” Forrest said Tuesday during a panel discussion at a World Economic Forum event in Dalian, China. “There’s huge vested political interest in the United States because they don’t want to see the world’s shipping industry go green.”

The US is the world’s largest oil and gas producer, while China is investing heavily in green hydrogen, which is made from water and carbon-free electricity. That hydrogen can then be blended into ammonia or methanol to produce an emissions-free shipping fuel.

BloombergNEF projects China will have 5 million tons of green ammonia production by 2030, far above the next biggest producer India at a projected 1.6 million metric tons. China is the cheapest producer, but the fuel remains two to three times more expensive than the ammonia generated by natural gas.

Securing demand for all that fuel has been more difficult. In 2025, for example, hydrogen output only rose by 11,000 tons in China despite the country adding 44,000 tons of production capacity, indicating that many projects are operating at only a fraction of their full utilization, according to BloombergNEF.

(By Lili Pike)

 

BHP and Rio Tinto test electric trucks to clean up iron ore


One of two Cat 793 XE Early Learner battery-electric haul trucks being tested. (Image courtesy of Caterpillar.)

BHP (ASX: BHP), Rio Tinto (ASX: RIO) and Caterpillar (NYSE: CAT) have launched an industry-first trial of battery-electric haul trucks in Western Australia’s Pilbara, a key step in efforts to reduce emissions from some of the world’s largest mining operations.

The companies unveiled two Cat 793 XE Early Learner battery-electric haul trucks at BHP’s Jimblebar iron ore mine, where the vehicles have undergone three months of initial testing following safety validation at Caterpillar’s Tucson Proving Ground in Arizona, US.

Jimblebar is home to two of seven Caterpillar battery-electric haul trucks currently being tested globally. The trial will assess the trucks’ technical performance, charging requirements and commercial viability in one of mining’s most demanding operating environments.

“These trucks exemplify what can be achieved when leaders in our industry collaborate to find a solution to a complex problem,” Western Australia Mines and Petroleum Minister David Michael said.

“We can’t underestimate what a feat it is to have such innovative, cutting-edge technologies rolled out in the Pilbara.”

Charging challenge

The project will evaluate both static and dynamic charging systems, including technology designed to charge the trucks while they are moving. More than 100 operating hours and 200 test laps have already generated data on safety, maintenance and performance.

The trial reflects growing pressure on major miners to decarbonize heavy equipment fleets, one of the industry’s largest sources of operational emissions.

Success in the Pilbara could help accelerate adoption of battery-electric mining equipment across the global resources sector while supporting net-zero ambitions at major producers.