Insights · Standard Helium AG

Insights · Market structure · 01

Four countries, one global bottleneck

Helium occurs in trace quantities in many gas reservoirs. Marketable helium, however, is produced at a limited number of sites, in a limited number of processing plants and through specialized logistics. Global supply is therefore more concentrated than geological-resource data alone would suggest.

At a glance

Core thesis

The principal constraint is not the quantity of helium in the Earth’s crust, but the number of dependable supply chains.

Key finding

Four countries accounted for around 91% of global production in 2025. The United States and Qatar alone accounted for approximately 76%.

Industrial relevance

Outages at large plants or on transport routes cannot readily be offset by numerous smaller sources.

Capital perspective

A resource gains value when processing, product form, logistics and offtake are secured together.

Key question

Can the supply chain continue to operate reliably if a plant, route or source is temporarily unavailable?

Concentration can be quantified

The helium market is small enough to escape notice, yet important enough for disruption to become immediately visible. According to preliminary U.S. Geological Survey data, approximately 6.7 BCF, or 6.7 billion cubic feet, of helium was produced worldwide in 2025. The United States accounted for 2.9 BCF, Qatar for 2.2 BCF, Russia for 640 MMCF and Algeria for 390 MMCF. Together, these four countries represented around 91% of global production; the United States and Qatar accounted for approximately 76%.

These figures show more than a geographical imbalance. They indicate that outages affecting particular facilities, export routes or political relationships cannot easily be offset by a large number of small suppliers. Helium is not traded like copper or iron ore on a deep, transparent global market. Quality, delivery form, containers, transport routes and contract terms vary. The number of genuinely interchangeable supply options is therefore smaller than the number of producing countries.

For long-term capital, the first important conclusion is that high production does not necessarily mean secure supply. The relevant measure is the quantity of saleable product that a supply chain can deliver reliably to its destination.

The chain, rather than the deposit, is scarce

Helium is generated by radioactive decay in rock and may accumulate in gas fields where geological conditions permit. It is produced commercially mainly as a by-product of natural-gas processing. Some projects target helium-rich gas or nitrogen reservoirs more directly, but globally the link with other gas streams remains significant.

This changes the investment logic. A geologically attractive resource may remain undeveloped if the principal gas stream, processing plant, energy supply or market is absent. Conversely, existing natural-gas infrastructure may make helium recovery commercial even where helium represents only a small part of the total stream. Production therefore responds not only to helium demand, but also to decisions in adjacent markets.

In its outlook to 2029, the USGS states that existing refining capacity determines most primary production capacity. This is a second source of concentration: not every discovery is processed, not all crude helium is liquefied and not every plant can be replaced quickly. Geology, processing and logistics together create supply.

Disruption is rarely local

Recent events illustrate the reach of regional disruption. In 2017, Qatar had to reorganize export routes during a regional dispute and redirect shipments through Oman. Technical incidents delayed the expected ramp-up of Russia’s Amur complex. The USGS records both events in its helium outlook. In the United States, the sale of the Federal Helium System in 2024 changed the ownership and coordination of infrastructure that had served for decades as a reserve, storage facility and source of supply.

No single event proves a permanent shortage. Together, however, they reveal a structural sensitivity: new capacity tends to arrive in large increments, while disruptions also affect large units. Supply grows unevenly through individual projects, rather than steadily across many independent sources.

Container logistics adds a further constraint. Liquid helium moves in specialized, highly insulated containers; gaseous helium requires high-pressure systems. Containers must return for refilling after delivery. A delayed return can therefore restrict transport capacity even when sufficient helium is available at source. In this market, security of supply also depends on cycle time.

Demand is diverse, but not freely interchangeable

Demand is distributed across several technically demanding applications. For 2025, the U.S. Geological Survey attributed 22% of U.S. use to analytical, engineering, laboratory, scientific and specialty-gas applications; 17% to controlled atmospheres, including semiconductor and fiber-optic manufacturing; and 15% to MRI. Further volumes were used in aerospace, welding, leak detection and other applications.

This diversity supports a broad demand base but makes generalization difficult. Balloon gas has different quality and supply requirements from helium used by a semiconductor fab or hospital. A unit saved in one application does not necessarily replace a high-purity or cryogenic delivery elsewhere. Recycling and recovery are also application-specific: they can be technically and commercially valuable, but are not a universal substitute for new supply.

A robust analysis therefore requires more than global production data or a general demand forecast. Product quality, regional availability, delivery form, contractual terms and the cost of interruption in the specific application all matter.

Concentration creates risk and barriers to entry

Concentrated supply increases dependence on a small number of plants and corridors. It also protects established supply chains from rapid competition. A new entrant needs more than wells: gas processing, and potentially liquefaction, quality control, suitable containers, supply contracts and operating experience all require capital and time.

This leads to a practical diligence framework. How independent is the project from the market for its principal gas? Which processing steps already exist or are secured by contract? How will the product reach its destination, and who controls the containers? Which applications require the quality offered? What redundancy is available if a plant stops, a border closes or containers are delayed?

A resource may appear large and strategic on paper. It creates value only when the complete chain works.

What follows

The helium market is vulnerable not because the world contains no helium, but because marketable product is recovered, processed and distributed through a limited number of specialized systems. The 91% share produced by four countries in 2025 is the visible result of that structure.

For long-term capital, the decisive question is therefore not the next global volume forecast. It is which supply chains can continue to deliver when part of the system fails. Projects with sound geology, owned or secured processing, dependable logistics and contracted offtake address the genuinely scarce asset: reliable availability.

Sources for this article (6)

August 2026

Insights · Infrastructure · 02

The Federal Helium System after its change of ownership

For almost a century, the U.S. Government influenced the storage, pricing and distribution of helium. Since June 2024, the Federal Helium System has been privately owned. The infrastructure remains in place, but its role in the market has changed fundamentally.

At a glance

Core thesis

The sale did not remove the infrastructure; it changed the rules governing access, storage and market coordination.

Key finding

The Federal Helium System passed into private ownership in June 2024. The transaction generated US$460 million for the U.S. Treasury.

Industrial relevance

Functions once performed by a public-sector buffer must now be organized to a greater extent through private contracts, capacity and redundancy.

Capital perspective

The value lies not only in the helium stored, but also in controlled access to storage, pipelines, processing and customers.

Key question

Which rights, contracts and alternatives replace the flexibility previously embedded in the public system?

An industrial policy dating from 1925

Federal involvement in helium began not with semiconductors or MRI, but with airships. In 1925, the U.S. Government established a program to secure helium for military and strategic purposes. It later acquired large volumes of crude helium, stored them in the Cliffside Field near Amarillo, Texas, and connected the system to private refiners by pipeline.

This became more than a reserve. The Federal Helium System was a hub for the U.S. market: storage, pipeline, enrichment plant, production and injection wells, and federally administered access to crude helium. According to the General Services Administration, the pipeline included in the sale extended for 423.24 miles, or approximately 681 kilometers. When the sale process began, the reservoir held more than 4 BCF of federally owned helium and around 2 BCF in private ownership.

The system was both physical infrastructure and a form of market organization. It stored volumes, connected producers with refiners and aggregated federal demand. For decades, federal disposal rules also influenced price formation well beyond Texas.

A long-planned withdrawal

Privatization was not unexpected. The Helium Privatization Act of 1996 initiated the drawdown of federal inventory. The Helium Stewardship Act of 2013 then established the route to disposal of the system. The policy objectives were clear: the Government would cease to operate a commercial raw-material system indefinitely, reduce inventory and debt, and allow a larger role for private-market mechanisms.

The transition occurred in stages. The in-kind program ended on September 30, 2022. Responsibility for the assets passed to Messer on June 24, 2024, and the Bureau of Land Management announced completion of the sale three days later. In December 2024, the agency reported that the transaction had transferred US$460 million to the U.S. Treasury.

The program ended 99 years after it began. The physical significance of the assets did not.

An operating system, not an abstract stockpile

The shorthand claim that “the United States closed its helium reserve” is misleading. An operating system and associated rights were sold: storage, plant, pipeline, wells, equipment and the remaining federal inventory. The infrastructure did not disappear; ownership and the institutional framework changed.

This distinction matters economically. Under federal ownership, the system served several purposes: supplying public bodies, managing the disposal of inventory, generating federal revenue and supplying the market. A private owner operates the same assets on commercial terms. Access, maintenance, investment, contract duration and allocation of risk become matters of private agreement to a greater extent.

Neither structure is inherently superior. Private operators may invest efficiently and respond quickly to market requirements. A public system can perform functions whose value becomes clearest during a crisis, such as maintaining strategic inventory, prioritizing supply or providing neutral access to several market participants. Following the sale, such functions must be secured through contracts, regulation or alternative capacity; they no longer arise solely from the owner’s public mandate.

A buffer becomes a contractual matter

The system also provided temporal flexibility. Helium can be stored in suitable geological formations and withdrawn later, separating production from consumption. Volumes do not have to be used at the same moment they emerge from natural-gas processing. Storage can absorb seasonal fluctuations, maintenance periods or temporary supply interruptions.

Under private ownership, access to this flexibility is priced and allocated more directly. Who may inject helium? Who receives withdrawal capacity? What minimum volumes and terms apply? Who bears the technical risk? These questions matter more to market participants than the headline claim that the reserve has ended.

The pricing function has also changed. A 2010 National Academies study observed that federal disposal prices acted as a reference for the wider market and could distort investment signals. Federal withdrawal removes that particular reference but does not create a transparent exchange price. Helium remains a contract market with varying qualities and high logistics costs. Less state involvement does not automatically produce greater price transparency.

The wider context

The sale occurred while the United States remained the world’s largest helium producer in 2025, but its market had become more international. Qatar, Algeria and Russia have substantial production or processing capacity; Canada and other countries are developing new projects. At the same time, the United States remains a major center for research, aerospace, semiconductor manufacturing and medical applications.

The Government is withdrawing from a historic ownership model, not from its strategic interest in security of supply. Federal agencies remain customers, regulators and providers of support. The instruments are changing: from direct operation toward procurement, permitting, geoscience, industrial policy and, potentially, new stockpiling arrangements.

For market participants, this is a change of regime. Historic assumptions about federal residual volumes, priorities or disposal procedures no longer apply. Robust contracts, alternative sources, access to storage and container capacity all carry greater weight.

What follows

Privatization of the Federal Helium System did not cause U.S. helium infrastructure suddenly to disappear. It completed a policy withdrawal lasting several decades. Since June 2024, important assets, rights and inventory have been operated privately; the transaction generated US$460 million for the Treasury in 2024.

For long-term capital, the principal consequence is institutional. Some of the supply security previously embedded in the public system must now be created through contracts, redundancy and private investment. Value lies not only in molecules underground, but also in controlled access to storage, processing, pipelines and customers. Treating the sale simply as an inventory event understates its effect: it changed how reliability is organized and paid for.

Sources for this article (7)

August 2026

Insights · Demand · 03

AI needs chips. Chip fabs need process gases.

The expansion of artificial intelligence is usually measured in computing power, electricity and data centers. One stage earlier, however, is a physical value chain: additional, more powerful computing requires more advanced semiconductors, whose manufacture uses high-purity gases, including helium.

At a glance

Core thesis

AI does not consume helium directly. It expands the industrial base of semiconductor manufacturing, which requires high-purity process gases.

Key finding

The IEA expects global electricity consumption by data centers to rise from 415 terawatt-hours in 2024 to approximately 945 terawatt-hours in 2030.

Industrial relevance

New semiconductor fabs require specified gas supply, recovery systems and redundant delivery routes before production begins.

Capital perspective

The relevant evidence is financed facilities under construction with specific process-gas requirements, not general assumptions about AI growth.

Key question

Which fab capacity, gas quality, volume and logistics are actually supported by evidence?

The digital boom has an industrial foundation

Artificial intelligence appears on screen as software, but scaling it is an industrial undertaking. It requires data centers, grid connections, cooling systems, high-performance chips, memory, manufacturing equipment and a long chain of specialized inputs.

Electricity use indicates the scale. According to the International Energy Agency, data centers consumed approximately 415 terawatt-hours of electricity worldwide in 2024, around 1.5% of global consumption. The IEA expects this to rise to approximately 945 terawatt-hours by 2030, with AI the principal driver. Global investment in data centers approached US$500 billion in 2024, almost twice the 2022 level.

These figures are not a helium forecast. They show how quickly demand for computing infrastructure is becoming physical investment. Data centers can expand only if the upstream semiconductor industry also develops capacity, yield and technical capability.

Governments are supporting new manufacturing capacity

The response to semiconductor shortages in the early 2020s was not solely commercial. The United States, European Union, Japan, South Korea and other jurisdictions began supporting manufacturing capacity through grants, tax incentives and infrastructure policy.

In January 2025, the U.S. Department of Commerce reported almost US$450 billion of announced investment in semiconductors and electronics since the start of that administration. The announcements included 17 new semiconductor fabs and eight new supply-chain or advanced-packaging facilities across 22 states. By January 2025, more than US$33 billion of CHIPS funding had been awarded, according to the Department.

Under the European Chips Act, the European Union aims to increase its share of the global semiconductor market to 20% by 2030. The European Commission states that the policy measures support more than €100 billion of public and private investment by 2030.

Announcements are not installed production. Fabs take several years to plan, permit, build, qualify and ramp. This is precisely why capacity expansion matters to suppliers: process gases, purification media and supply systems must be planned well before the first production-grade wafer.

Why helium is used in a fab

Semiconductor fabs process silicon wafers through hundreds of precision steps. Numerous gases serve as reactants, carrier gases, protective atmospheres, cleaning media or temperature-control agents. The National Institute of Standards and Technology identifies nitrogen, hydrogen, helium and argon among the gases used in large quantities by modern fabs.

Helium combines properties that are valuable in sensitive processes: it is chemically inert, conducts heat efficiently and becomes liquid only at about 4.2 kelvin, or −269°C. NIST describes its use in protecting wafers from thermal damage and unwanted chemical reactions. Other industrial applications include leak testing, cooling and controlled atmospheres.

Quality is critical. A fab does not simply purchase “gas”; it purchases specified purity, documented supply capability and a delivery system with very little tolerance for failure. Contamination or interruption can stop expensive equipment and place production batches at risk. The economic value of a process gas therefore reflects not only its volume, but also the cost of its failure.

No simple multiplier

Deriving a fixed helium-demand factor from AI growth would be tempting but methodologically weak. An AI chip contains no directly attributable volume of helium. Demand arises during manufacturing and depends on process technology, fab size, utilization, process steps, equipment configuration, purity, recovery and operating efficiency.

Fabs also differ. A leading-edge logic facility has a different process mix from a memory fab, a power-semiconductor plant or a packaging facility. Greater wafer capacity may raise gas demand, while more efficient tools and recovery may reduce helium intensity per unit of output. Both can occur at the same time.

The defensible thesis is narrower: AI increases the strategic and commercial importance of semiconductor capacity. New manufacturing facilities broaden the industrial base for high-purity process gases, increasing the relevance of reliable helium supply chains. The evidence does not support a universal consumption factor.

Location also matters

Gas suppliers must consider not only how many fabs are being built, but where. Helium must be processed, sometimes liquefied, transported, stored and fed into plant systems. New semiconductor clusters concentrate demand in places that may not previously have had comparable gas infrastructure.

This creates opportunity and increases capital requirements. Regional storage, filling, containers, technical-gas systems and long-term supply agreements must develop alongside the fabs. Supply is particularly valuable where it connects multiple sources and routes. A nominally low-cost contract offers little protection if one facility or corridor serves the entire site.

For long-term capital, the relevant test is therefore not a general AI narrative, but specific integration into industrial clusters. Which fabs are financed and under construction? What gas qualities do they require? Who funds the supply systems? What contract duration supports utilization? Where volume and process make it worthwhile, how will helium be recovered?

What follows

AI is not a direct consumer of helium. It is a significant demand driver for computing power and, in turn, for a semiconductor industry that uses high-purity process gases. The scale of data-center electricity consumption and announced semiconductor investment illustrates the industrial dimension.

The investment case lies beneath the headline. A sound assessment of helium supply for new semiconductor sites should connect real fab capacity, specified gas demand, technical recovery and redundant logistics. Digital expansion creates the requirement; value is created where the physical supply chain meets it reliably.

Sources for this article (8)

August 2026

Insights · Logistics · 04

The container makes a return journey

Helium is not simply produced and sold. It is compressed or liquefied, transported in specialist containers, unloaded and returned to the source. A model that omits the return journey captures only half the economics.

At a glance

Core thesis

Helium logistics does not end at delivery. Specialist containers must return before the same capacity can be used again.

Key finding

Product form, container numbers and round-trip time together determine the volume that is genuinely available over a given period.

Industrial relevance

Gaseous and liquid helium serve different distances, volumes and applications.

Capital perspective

Long cycles tie up containers, product and working capital. Technical capacity is not automatically commercially usable capacity.

Key question

Does the model include outbound freight, return transport, holding time, maintenance, losses and refilling?

One molecule, two delivery forms

Helium can be delivered as a gas or a liquid. Chemically it is the same element; commercially these are different products.

Gaseous helium is transported at high pressure in cylinders, bundles or large tube systems. This form is suited primarily to regional distribution, smaller volumes and applications that do not require a cryogenic liquid. Despite compression, transport density remains limited, so the logistics cost per delivered unit generally rises with distance.

Liquid helium is much denser and allows larger volumes to be transported. It must, however, be cooled to approximately 4.2 kelvin, or −269°C. This requires a sophisticated liquefaction plant and highly insulated, vacuum-jacketed containers. Liquid helium is therefore the output of an additional industrial process, not simply chilled gas.

This distinction shapes the value chain. Gas can be filled closer to source and distributed regionally. Liquid helium can reach more distant markets and serve cryogenic applications, but requires more capital for plant, energy, containers and operating capability.

Low temperature is not a permanent state

A transport container cannot prevent all heat ingress; some liquid evaporates. Pressure management, permissible holding time and operating practice therefore have commercial consequences. The longer a container remains in transit or idle, the lower the productivity of the capital committed and the greater the potential volume loss.

Generic boil-off rates are of limited value. They depend on container type, fill level, condition, temperature, route and duration. Project diligence should use documented performance data for the specific system.

The extreme temperature also explains why logistics cannot be scaled without constraint. NIST gives helium’s boiling point as approximately 4.2 kelvin. When liquid helium becomes a gas, its volume expands many times under ambient conditions. Containers, valves, pressure-relief systems and procedures must be designed accordingly. Safety is part of the business model, not an addition to it.

Packaging is productive capital

In many raw-material markets, logistics ends at delivery. In helium, the return journey begins. Specialist containers are reusable operating assets and must return to a suitable filling or liquefaction plant after unloading. The USGS specifically identifies this return flow as a feature of the helium supply chain.

Cycle time therefore becomes a key metric. A container requiring 20 days for transport, customs, unloading and return can complete fewer deliveries than one with a ten-day cycle. Moving the same annual volume over the slower route requires more container capital, even if road or sea-freight rates are identical.

Delays have a dual effect: they postpone delivery and prevent the next filling. A port strike, missed connection or delayed release ties up both product and a scarce part of the transport fleet. The empty return leg is economically productive because it restores the capacity required for the next sale.

Geography becomes cost structure

The route between the resource, processing, liquefaction, port, distribution depot and customer determines which delivery form is commercial. Distance alone is insufficient; the full cycle, border clearance, port risk, return-load availability, maintenance and proximity to alternative filling points also matter.

Qatar’s rerouting of exports through Oman during the 2017 regional blockade illustrates the point. Production facilities remained in place, but additional distance and handling changed supply capability. A geopolitical event became an operating issue through container circulation.

Geography has an even more direct effect on gaseous supply. High-pressure transport carries less helium per vehicle than liquid transport, and usually becomes less attractive as distance increases. Regional gas can nevertheless be highly competitive if it avoids liquefaction and reliably serves nearby industry. The relevant question is not whether helium should be delivered as gas or liquid, but which form fits the volume, distance, quality and application.

What a robust model should include

A simple calculation of production cost plus outbound freight is insufficient. A robust model should address at least five areas.

First, processing: raw-gas composition, achieved purity and energy use. Second, delivery form: compressed, liquefied or sold to a liquefier. Third, container capital: the number of units actually available and their purchase, lease, maintenance and inspection costs. Fourth, the complete cycle: loading, principal journey, customs, unloading, return and refilling. Fifth, losses and downtime: the volumes lost in the specific system and the reserve capacity provided.

Working capital is also relevant. Several weeks may pass between filling and payment, tying up both product and containers. As volume grows, financing requirements may rise before earnings. Long-term offtake contracts help only where pricing, minimum volumes, responsibility for containers and delay costs are defined clearly.

Technical and commercial capacity should be distinguished. A liquefaction plant may have substantial nameplate capacity, but some of it will remain commercially unusable if containers are unavailable or routes are too slow. A large container fleet without secured filling capacity is equally limited.

What follows

In helium, logistics is not an activity that follows production; it helps create the deliverable product. Liquefaction extends reach but requires additional energy, technology and capital.

The essential point for every commercial assessment is simple: the container makes a return journey. Its cycle determines how often the same unit of capital can generate revenue.

Sources for this article (7)

August 2026

Insights · Regulation · 05

Helium in international raw-material strategies

The European Union, Canada and the United Kingdom classify helium as a critical raw material. It does not appear on the final 2025 U.S. list. This is only an apparent contradiction: the lists measure different risks and activate different policy instruments.

At a glance

Core thesis

Criticality is not an intrinsic material property, but the result of a policy and methodological assessment.

Key finding

Helium appears on the critical lists of the European Union, Canada and the United Kingdom, but not on the final U.S. list for 2025.

Industrial relevance

Classification can affect monitoring, financial support, geoscience, permitting routes or strategic partnerships.

Capital perspective

The relevant question is not the label, but the specific instrument available to a project.

Key question

Does the classification materially improve financing, permitting or access to infrastructure?

A list is not a law of nature

“Critical raw material” sounds like an objective property. In practice, it is a policy classification that combines the importance of a material with the vulnerability of a particular economy, at a particular time and under defined criteria.

The differences are evident in helium. It has appeared on the EU list of critical raw materials since the Critical Raw Materials Act entered into force in May 2024. Canada includes helium on its list updated in 2024. Following its 2024 criticality assessment, the United Kingdom classifies helium as both critical and important to growth. The United States did not include helium on its final 2025 list of 60 critical minerals.

These decisions do not mean that three jurisdictions consider helium important and one does not. The USGS states expressly that unlisted minerals may still be essential to particular industries and to the wider economy. The distinction begins with the purpose of each list.

Europe distinguishes between critical and strategic

EU Regulation 2024/1252 uses two categories. Annex II lists 34 critical raw materials that meet defined thresholds for economic importance and supply risk; helium is included.

Annex I lists 17 strategic raw materials and also considers their importance to green and digital technologies, defense and space, expected demand growth, and the difficulty of increasing production. Helium is not included in this narrower group.

The distinction has practical consequences. EU benchmarks for 2030 apply to strategic raw materials: 10% domestic extraction, 40% processing, 25% recycling and no more than 65% dependence on a single third country for imports. They do not apply to helium in the same way. Other provisions on monitoring, circularity, exploration or sustainability cover critical raw materials more broadly.

The label “EU critical” does not by itself identify the support available to a helium project. The relevant provision of the regulation matters more than the heading of the list.

Canada links risk with domestic production potential

Canada takes a different approach. Under its 2024 methodology, a supply chain must be threatened and there must be a reasonable prospect of producing the material in Canada. At least one additional criterion must also be met: importance to economic or national security; relevance to the low-carbon and digital transition; or the opportunity to position Canada as a sustainable, strategic partner in global supply chains.

The Canadian list therefore reflects more than import vulnerability. It is also an industrial-policy signal for domestic value creation, relevant to helium resources and advanced projects in Alberta and Saskatchewan. The underlying question is where supply risk meets Canada’s ability to contribute to the solution.

The list contained 31 minerals in 2021. High-purity iron, phosphorus and silicon metal were added in 2024; helium was already included. A three-year review cycle makes criticality a changing priority rather than a permanent status.

For developers, this production focus can increase policy attention and access to programs. It does not replace permits, infrastructure, offtake or evidence of commercial viability.

The United Kingdom adds growth relevance

The United Kingdom also uses two perspectives, but differently from the EU. Its full critical-minerals list is based on the Critical Minerals Intelligence Centre’s 2024 assessment. The Government also identifies “growth minerals” whose demand is linked with the eight growth-driving sectors in the UK industrial strategy.

Helium appears on both UK lists. For the growth classification, the technical annex refers to MRI and semiconductors, among other uses. The United Kingdom therefore links supply risk with demand-led industrial policy and considers a material’s role in planned growth.

This makes the classification useful to companies, but not automatically predictive. Published demand estimates depend on assumptions about sector growth and end uses. For individual helium projects, quality, delivery form and location remain decisive.

The United States models economic disruption

For its 2025 list, the USGS used an updated methodology covering 84 mineral groups, more than 400 industries and over 1,200 potential trade-disruption scenarios. It combined the probability and economic effect of an interruption. Minerals assessed as presenting high, elevated or moderate risk were proposed for inclusion; certain domestic production bottlenecks could also be considered.

Helium was assessed in the technical work but does not appear on the final list. This is notable because, at an estimated 2.9 BCF in 2025, the United States remained the largest producer and also hosted important research, medical, aerospace and semiconductor uses.

Substantial domestic production may have influenced the outcome: a method focused on the effects of foreign trade disruption will treat a domestically produced resource differently from one on which a jurisdiction is import-dependent. This is a reasonable inference, not a helium-specific explanation given by the USGS.

Four lists, four investment questions

The approaches can be translated into four questions. The EU asks how significant the economic importance and supply risk are, and whether the material also belongs to the strategic group. Canada asks whether domestic production can strengthen an exposed supply chain. The United Kingdom asks where criticality and industrial growth coincide. The United States asks which trade disruption could cause material economic harm, and with what probability.

These distinctions affect project diligence. Classification may improve access to geoscience, grants, strategic partnerships or accelerated procedures, but it is not a uniform seal of quality. Conversely, absence from a list does not indicate a market without risk or policy interest.

What follows

For long-term capital, the conclusion is to invest on the basis of the instrument, not the label. Eligibility for support, the permitting route, infrastructure policy, the offtake environment and the timing of the next review all matter.

Raw-material policy may accelerate a project or improve financing; commercial durability still depends on policy priority and operating reality pointing in the same direction.

Sources for this article (8)

August 2026

Insights · Supply logic · 06

Primary helium: when supply security begins in the reservoir

Helium is often considered a by-product of natural-gas production. That view is incomplete. Resources developed specifically for helium, under their own commercial logic, may offer different supply characteristics where geology, processing and offtake are aligned.

At a glance

Core thesis

“Primary helium” describes resources whose development depends materially on the value of helium. It is a working definition, not a standardized industry classification.

Key finding

A high helium concentration alone demonstrates neither recoverable volume nor reservoir economics.

Industrial relevance

Such sources may reduce the dependence of helium supply on decisions made in natural-gas and LNG projects.

Capital perspective

Value arises only when the resource, processing, infrastructure, product quality and contracted offtake work together.

Key question

Is production supported by helium economics, and is the complete route to a product of the required specification substantiated?

A useful but non-standard category

Standard Helium uses “primary helium” as a working definition for resources and projects whose development is materially supported by the value of helium. It distinguishes them from helium produced incidentally by an operation focused principally on natural gas or another resource. The term is not a standardized or regulated industry classification.

The distinction is nevertheless useful. In conventional by-product production, helium supply depends on decisions outside the helium market: gas prices, LNG-plant utilization, maintenance cycles or the economics of the principal product. A helium-led project responds more directly to demand, costs and contracts in the helium market.

This does not make either source inherently superior. Large integrated projects can be highly efficient. The relevant question is which factor determines whether helium reaches the market.

Concentration is only the starting point

Over geological timescales, helium is generated mainly by the radioactive decay of uranium and thorium. It can accumulate underground where host rock, migration pathways and impermeable seals align. An attractive helium result from one sample is therefore insufficient to establish a project.

In its 2021 assessment of known U.S. gas reservoirs, the USGS used a concentration of at least 0.3 mol% as a common threshold for helium-rich resources. Of 1,217 fields with at least one sample above this threshold, only 481 could be included fully in the probabilistic resource assessment. Concentration is no substitute for robust knowledge of reservoir size, pressure, production performance, composition and volumes already recovered.

Capital providers should focus on reproducible distribution across the reservoir, not the highest assay. Associated gases also matter. Nitrogen-rich resources may support targeted helium recovery, while high levels of carbon dioxide, water or hydrocarbons require different processing routes, costs and permits.

A distinct supply logic does not guarantee independence

Primary helium may reduce linkage with the natural-gas cycle, but this alone does not create secure supply. Wells, gathering systems, raw-gas processing, purification, potentially liquefaction, specialist containers and return logistics stand between the resource and the saleable product.

The USGS outlook to 2029 notes that only some helium produced with natural gas is refined. Available processing capacity, not geological volume alone, therefore determines primary supply. Liquid helium must also be transported at extremely low temperatures in scarce specialist containers that return after delivery.

A primary-helium project should be assessed as a small supply system. Can it produce continuously? Is there a suitable purification route? How far away is the nearest liquefier? Is there a contract for gaseous product, or does the target market require liquid helium? Only the combined answers form a robust business model.

Four levels of commercial assessment

A sound assessment should distinguish four levels. First, the resource: geology, distribution of concentration, recoverable gas volume and decline profile. Second, product quality: crude helium is not automatically Grade A, and contaminants and required purity determine technology and energy use. Third, infrastructure: gathering lines, pressure stages, purification, storage and transport are part of unit cost. Fourth, offtake: contract volume, specification, delivery point, duration and dependability determine how much of a theoretical resource is commercially recoverable.

National resource estimates should not be confused with the quality of a particular project. In 2021, the USGS estimated a mean of 306 BCF of technically recoverable helium in known U.S. natural-gas reservoirs. This is a resource estimate, not a production forecast or valuation of any particular acreage.

Diversification begins with different supply drivers

The strategic value of primary helium lies less in the label than in its distinct responsiveness. Supply may become more robust if several sources do not depend on the same primary product, large facility or logistics corridor. For critical applications, this diversification may matter more than a global volume figure.

Discipline remains essential. Small helium-led projects spread infrastructure costs over lower volumes and often require modular processing, short transport distances or long-term offtake. Inferring attractive margins from high concentration alone omits the most commercially demanding parts of the chain.

What follows

Primary helium is not a guarantee of quality. It poses a precise question about supply logic: is helium developed deliberately, or produced only while another market supports operations? A project gains substance when robust resources, suitable processing, manageable logistics and contracted offtake come together. Value lies not in helium concentration alone, but in the ability to deliver a product of the required specification predictably.

Sources for this article (4)

August 2026

Insights · Value creation · 07

Vertical integration: value is created at the interfaces

A helium resource is not yet a deliverable product. Between the wellhead and the application lie processing, purification, liquefaction, specialist logistics and the supply contract. Control over several stages may reduce friction, but it also increases capital requirements and operating risk.

At a glance

Core thesis

Vertical integration creates value through control of critical supply-chain interfaces, not through ownership for its own sake.

Key finding

Quality, utilization, timing and contract value are often determined at the interfaces between production, processing, product form and logistics.

Industrial relevance

Joint planning can reduce outages, shortfalls and specification failures at these interfaces.

Capital perspective

Each additional stage increases capital requirements and operating risk. Access rights or long-term contracts may be more commercial than ownership.

Key question

Which stages require control, which can be procured dependably, and where is redundancy more important than utilization?

A chain with unusually close interfaces

In the helium market, control of molecules is not sufficient. They must reach the right place, in the right purity, form and volume, at the right time. Raw gas must be gathered and separated from associated gases. Crude helium is purified further and, for many international supply chains, liquefied. ISO containers, tankers, tube trailers, dewars or cylinders then distribute the product.

The BLM analysis of crude-helium pricing illustrates this structure. Liquid containers serve large industrial applications and export markets, while gaseous deliveries in tube trailers or smaller vessels tend to serve regional and lower-volume demand. Containers, filling, return and service are often separate cost items. Along the chain, the product changes not only ownership but also its economic character.

Vertical integration links successive stages under common control. Consolidation, by contrast, initially means combining businesses at the same or different stages. The two may overlap, but they are not synonymous.

Access may matter more than ownership

Vertical integration does not require ownership of every stage. Tolling contracts, capacity rights, joint facilities and long-term logistics agreements may perform similar functions. The appropriate structure depends on the actual bottleneck.

A historical U.S. example is instructive. In its review of the 2014 crude-helium auction, the U.S. Government Accountability Office reported that two refinery operators acquired the entire volume sold. Their access to processing gave them an advantage over buyers facing additional tolling costs. The lesson is not that refinery ownership is always superior, but that the value of a resource depends on access to the next constrained stage.

For an early-stage project, contracted access to purification may be more commercial than a large dedicated plant. The balance may change as a cluster grows. Capital discipline therefore requires ownership and control to be considered separately.

Integration is not self-executing

Each additional stage increases capital requirements and broadens operating risk. Building a processing plant does not automatically give a producer the skills to operate it well. A logistics network ties up containers, maintenance capacity and working capital. Long-term contracts may create predictability, but unsuitable pricing provisions can also lock in rising costs.

Concentration risk must also be considered. U.S. Department of Justice merger guidelines note that vertical combinations may restrict competitors’ access to important products or services, particularly where alternatives are limited. The guideline on consolidation trends also identifies rising barriers to entry as relevant. For shareholders, these are not merely abstract legal issues: open access, the ability to secure permits and acceptance by industrial customers can affect the enduring value of a platform.

The appropriate unit of analysis

Individual project metrics often present an incomplete picture. A resource or well may report low production costs while purification and transport account for most delivered cost. Conversely, a capital-intensive plant may be more valuable than its standalone return suggests if it processes dependable third-party volumes and serves multiple routes to market.

An integrated but transparent model is therefore preferable. It should show costs and capital committed at each stage, internal transfer pricing, utilization thresholds, bottleneck capacity and alternative supply routes. This reveals whether genuine synergies exist or margins are simply moving between related entities.

What follows

Vertical integration can create value by removing a real bottleneck, improving utilization or increasing supply reliability. It can destroy value if ownership is mistaken for competence, infrastructure is built too early or market access is replaced by dependence. The strongest strategy is not to own the largest possible number of stages, but to control the interfaces where quality, availability and contractual value arise, while retaining dependable alternatives elsewhere.

Sources for this article (5)

August 2026

Insights · Price formation · 08

Helium prices: price formation in a contract market

Helium has no transparent global exchange price that standardizes quality, delivery form and location. Public price data are therefore reference points, not a complete basis for valuation. Assessing a contract or project requires the price to be separated into its components.

At a glance

Core thesis

Without an exchange benchmark, the complete supply contract—not a single number—is the most meaningful unit of price.

Key finding

For 2025, the USGS reported an estimated U.S. base price for Grade-A helium of approximately US$330 per MCF. Producer surcharges may apply.

Industrial relevance

Purity, product form, delivery point, volume, provision of containers and supply reliability change the economic value of the same quantity of helium.

Capital perspective

Valuation requires documented assumptions, contract scenarios and sensitivities, rather than a supposedly universal market-price series.

Key question

Are products and contracts compared only after specification, location, volume, duration and delivery obligation have been normalized?

One molecule, many commercial products

“The helium price” sounds unambiguous, but it is not. Crude helium at a pipeline connection, purified gaseous helium in a tube trailer and liquid Grade-A helium in a specialist container are technically related but commercially distinct. Purity, pressure, physical state, delivery point, offtake volume, provision of containers and security of supply all affect the service and its price.

Geography adds further variation. Liquid helium is transported at approximately −269°C. Specialist containers must be filled, moved and returned; idle time and long cycles constrain capacity. An ex-works price is therefore not comparable with a delivered price. Even at the same purity, helium from reserved contractual capacity may have a different value from product procured at short notice.

The absence of an exchange quotation is not merely a shortage of information. It reflects the fact that helium is traded as a combination of molecule, processing, logistics and delivery commitment.

Public data are useful within limits

Official data are valuable when their limitations remain visible. The USGS Mineral Commodity Summaries 2026 gives an estimated U.S. base price of approximately US$330 per MCF, or thousand cubic feet, for Grade-A helium in 2025; producer surcharges may apply. This is an aggregate reference, not a universal transaction price for every delivery point and contract.

Auctions do not automatically create a benchmark. At the final public BLM auction for the 2019 fiscal year, 210 MMCF of crude helium was sold at successful bids ranging from US$233 to US$337 per MCF, with a weighted average of US$280. The Bureau of Land Management stated expressly in its official results that the weighted average should not be used as a benchmark for helium supply agreements.

Those historic figures do not indicate current price. Their value is methodological: they show that product specification, market structure and access rights matter more than one number. The sale of the Federal Helium System was also completed in June 2024, so the historic auction mechanism cannot simply be extrapolated.

The contract is part of the price

In a long-term agreement, the pricing formula allocates commercial risk. A fixed nominal price is simple but may become unsustainable for one party as energy, transport or operating costs change. Indexation can reflect cost movements, but requires an appropriate basket; a broad energy index does not capture liquefaction capacity or container scarcity in full.

Volume provisions are equally important. Minimum offtake or take-or-pay clauses may support plant utilization, while flexibility bands help the customer manage actual demand. Interruption provisions, force majeure, purity tolerances and prioritization rights determine the value of a nominal supply commitment.

Analysis should therefore distinguish at least six matters: product specification; delivery form; delivery point; volume and flexibility; duration and price adjustment; and the quality of the delivery obligation. Contracts become comparable only after these have been considered.

Valuation needs scenarios, not false precision

An opaque market invites two errors: applying one public reference to all future volumes, or deriving an apparently precise price series from a small number of confidential conversations. Both conceal uncertainty rather than measure it.

Transparent scenarios are more robust. They may include the contract price for committed volumes, conservative assumptions for uncontracted production, and separate premiums or costs for purification, liquefaction and logistics. Sensitivities should show how earnings and capital requirements respond to price, utilization, ramp-up and transport cycles. A high assumed price has little value if the required specification or delivery form cannot be achieved.

Accounting standards also make information quality visible. IFRS 13 distinguishes between quoted prices in active markets, other observable inputs and significant unobservable assumptions. Where no active market exists for an identical product, valuation models, documented assumptions and sensitivities become more important. This is not a weakness if the uncertainty is disclosed rather than presented as a market price.

Transparency can be organized

Corporate capital cannot create exchange transparency, but a company can improve its own information. Useful measures include a contract database with normalized units, separate identification of molecule and logistics costs, documented quality premiums, several independent market soundings and regular comparison with USGS trade and production data. The USGS historical statistics provide long-term data on production, imports, exports, stocks and unit values, but remain retrospective aggregates rather than live supply curves.

Transparency comes from comparability, not the search for a single definitive number. Normalizing units, specifications and delivery terms shows which part of a price relates to the molecule and which to the service chain.

What follows

Without an exchange benchmark, the contract is the most meaningful unit of price. Robust valuation begins with product, location, volume, term and delivery quality. Public data provide reasonableness checks; they do not replace contract review or scenario analysis. Disciplined analysis can convert opacity into measurable assumptions and negotiable risks.

Sources for this article (5)

August 2026

Insights · Demand risk · 09

Less helium per application: a structural demand risk

Scarcity can encourage industrial users to consume less helium. Recovery, closed-loop systems, more efficient processes and new equipment designs may reduce demand per application. For producers, this is not only a volume risk but a business-model question.

At a glance

Core thesis

Growth in end markets does not automatically produce proportionate growth in helium consumption.

Key finding

Recovery, process efficiency and new equipment designs can materially reduce the volume required per application.

Industrial relevance

Users are moving part of their supply security into closed loops, more efficient methods and smaller fills.

Capital perspective

Demand forecasts must consider consumption intensity, replacement cycles and recovery, as well as end-market growth.

Key question

How will helium consumption per device, process and operating hour change over the forecast period?

Demand does not move mechanically with the end market

Semiconductors, medical imaging, space flight and scientific research are structurally important uses of helium. It does not follow that consumption will grow at the same rate as the number of fabs, scanners or experiments. Technical systems respond to price, availability and interruption.

Four mechanisms should be distinguished. Recycling captures helium already used. Substitution replaces helium with another gas or technology. Efficiency reduces consumption within an existing process. Low-helium designs alter equipment sufficiently to perform the same function with a fraction of the previous fill. All four reduce demand per unit of use, but their relevance varies by application.

The USGS outlook to 2029 identifies recycling and inventories as sources of flexibility. Closed systems can also improve users’ resilience, implying that some responsibility for supply security is moving from supplier to user.

Recovery is a technical and commercial decision

Helium can be recovered, but the starting point differs between applications. A concentrated, continuous exhaust stream from a laboratory or industrial facility can be collected, purified and compressed. In balloons or dispersed uses, by contrast, the gas escapes into the atmosphere and is impractical to recover.

The USGS Mineral Commodity Summaries 2026 describes this mixed picture: large-volume applications often do not yet recycle helium, while some low-volume applications or facilities handling liquid boil-off use recovery systems. Closed-loop systems are becoming more common.

The economics depend on recoverable volume, purity of the return stream, energy cost, utilization and the required grade. A recovery system requires capital and maintenance but may still be attractive where procurement risk or unplanned downtime costs more than the gas itself. For sensitive applications, greater autonomy may have commercial value in its own right.

Technical feasibility is therefore not the sole test. The balance of avoided purchases, risk cost and operating expenditure is decisive.

Step changes in efficiency are already visible

Some of the largest changes come from improved processes rather than full substitution. In 2024, NASA documented approximately 406 MCF of helium use for a new purging method at Kennedy Space Center, compared with an original plan of 2,000 MCF. The saving of about 1,600 MCF resulted from diffusion-limited purging, not removal of the safety-critical function. The NASA Technical Memorandum shows how process knowledge can reduce demand per operation.

Efficiency also changes cryogenic use. In 2024, NIST reported optimized valves for pulse-tube refrigerators. These systems use helium in a closed high-pressure loop; depending on configuration, the modification reduced cool-down time to approximately one-half or one-quarter. The change does not necessarily reduce fill volume alone, but lowers the effort required to provide cooling.

Low-helium designs change installed-base demand

The shift is particularly visible in MRI systems. Conventional superconducting systems require large liquid-helium fills and have historically depended on refill and service supply chains. Newer platforms permanently enclose much smaller volumes.

Siemens Healthineers provides one manufacturer example: it states that its 1.5-tesla Magnetom Flow system uses a 0.7-liter liquid-helium fill in a closed circuit, compared with more than 1,000 liters in conventional systems. The figures come from the manufacturer’s announcement of U.S. clearance and should be treated as a product example, not a market average.

The demand effect will emerge gradually because medical equipment has long replacement cycles. Each new generation may nevertheless reduce both initial fills and subsequent refill demand. Long-term analysis should distinguish between new installations, initial filling, operating consumption and service requirements.

From volume supplier to efficiency partner

These developments are not exclusively negative for producers. Recovery systems require purification, maintenance, buffer volumes and occasional top-up deliveries. Suppliers may combine gas supply with loop technology, monitoring or emergency reserves. Such a service model may reduce the quantity sold while strengthening customer retention and revenue quality.

The effect on margin is decisive. If users reduce consumption materially, suppliers must spread logistics and service costs over fewer molecules, and small deliveries may cost more per unit. More even demand and local recovery may also reduce peak logistics requirements. The relevant question is not only how many MCF are sold, but which continuing service the customer pays for.

What follows

Helium-demand forecasts should not translate end-market growth directly into gas volumes. Consumption per device, process and operating hour is what matters. Long-term capital should treat efficiency curves, replacement cycles and recovery rates as seriously as new applications. Durable value creation requires suppliers to remain commercial even as industrial users achieve more with each molecule.

Sources for this article (5)

August 2026

Insights · Region · 10

North America as a helium region: the value of regional density

North America combines geological resources, demanding applications, processing and specialized logistics. The location thesis is not based on general import dependence: the United States is a net exporter. The strategic advantage arises from regional density and remains dependent on infrastructure, rights and project execution.

At a glance

Core thesis

North America’s advantage lies in the proximity of production, demand, infrastructure and capital, not complete self-sufficiency.

Key finding

The United States and Canada together accounted for around 46% of estimated global production in 2025. The United States was also a substantial net exporter.

Industrial relevance

Regional proximity may shorten routes, but does not replace supply redundancy or international transport chains.

Capital perspective

The regional advantage is realized only at sites with clear rights, suitable processing, permits and robust access to market.

Key question

Can a specific site make technical and commercial use of North America’s regional density?

A strong, cross-border production base

According to the USGS Mineral Commodity Summaries 2026, the United States produced approximately 2.9 BCF of helium in 2025 and Canada approximately 210 MMCF. Against estimated global production of 6.7 BCF, their combined share was around 46%. Qatar contributed approximately 2.2 BCF, Russia 640 MMCF and Algeria 390 MMCF.

These figures challenge two simplified assumptions. North America is neither a helium-poor consuming region nor a closed, self-sufficient system. The United States imported approximately 280 MMCF in 2025, but exported about 1.3 BCF; apparent consumption was 1.8 BCF. It was therefore a clear net exporter. International inflows, global customers and specialist transport chains nevertheless remain part of the market.

The defensible regional thesis is not self-sufficiency. It is that production, processing, demand and technical expertise exist in relatively close geographical and institutional proximity in North America.

Demand with exacting requirements

Helium’s strategic value arises from functions in which chemical inertness, heat transfer or extremely low temperatures are difficult to replace. The USGS attributed 22% of U.S. use in 2025 to analytical, engineering, scientific and specialty-gas applications; 17% to controlled atmospheres, including fiber-optic and semiconductor manufacturing; 15% to MRI; and 9% to aerospace.

North America therefore has not only substantial industrial demand, but also applications with demanding specification and continuity requirements. Proximity can reduce transport time, enable smaller gaseous-supply models and facilitate coordination between producer, processor and industrial customer. It does not remove the need for redundancy. Critical operations may still require multiple sources, buffer storage or recovery, even where primary production is regional.

Infrastructure exists, but does not fit every site

According to the USGS, the United States had nine crude-helium plants, 11 gaseous-helium plants, five Grade-A plants and three underground storage locations in Texas in 2025. The former Federal Helium System also connected the reserve and Cliffside Field with pipeline, storage, withdrawal and enrichment infrastructure. The Bureau of Land Management completed its sale to Messer in June 2024.

Existing capacity does not mean that every new resource can be connected commercially. Distance, raw-gas composition, pressure and product form determine whether a plant is usable. Gaseous helium can be transported regionally; for longer distances and export, liquefaction is often essential. A reservoir without a suitable processing route remains commercially isolated despite sound geology.

Canada illustrates this gap. Saskatchewan describes itself as the country’s largest helium-producing province and, through its 2021 Helium Action Plan, pursues ten measures covering exploration, production, processing and export infrastructure. In 2023, the province reported that local helium was transported to Colorado for liquefaction. A provincial study equated six truckloads of gaseous helium with one truckload of liquid helium. This site-specific government figure illustrates the possible logistics benefit of regional liquefaction; it does not establish a universal cost ratio.

Rights and permits remain local

“North America” is not a single legal jurisdiction. In the United States, mineral rights may be private, state, tribal or federal, and surface and subsurface ownership may differ. Drilling permits, environmental review, water, road access and pipeline rights fall under different authorities. In Canada, Crown rights, provincial rules, lease terms and royalty regimes also vary by location.

For investors, a map of rights is as important as a geological map. Who expressly owns the helium rights? Are they covered by a general gas lease? What terms, work commitments and royalties apply? May associated gas be flared, reinjected or sold? Which permit is required for a modular processing plant?

A regional thesis must not obscure these questions. The commercial advantage is realized at the level of a particular property, permit and infrastructure connection.

Saskatchewan is complementary, not a substitute thesis

Saskatchewan offers a geological and industrial configuration different from large helium-bearing natural-gas or LNG projects. The province highlights nitrogen-associated resources and decentralized processing. In April 2026, it stated that it supplied approximately 3% of global helium and that producers had invested around C$700 million to date. These are provincial-government statements, not an independent project assessment. The policy objective of supplying 10% of the world market by 2030 should be read as an ambition, not a forecast.

This distinction confines the North American thesis to what can be substantiated. New Canadian sources may complement existing U.S. infrastructure and regional demand. Whether they become competitive depends on field performance, modular purification, access to liquefaction, transport distance and contracts. The policy objective alone does not establish this.

What follows

North America’s strength lies in the combination of production, technology-led demand, processing experience, logistics and access to capital. The advantage is real but not universal. The United States is already a net exporter, so additional projects should not be justified by a general claim of import dependence. The relevant question is whether a particular site can use regional density through clear rights, short routes to suitable processing, robust permits and a market that values quality of supply. Proximity creates value only when it can be used operationally.

Sources for this article (7)

August 2026

We examine the forces changing helium supply.

Four countries, one global bottleneck

The Federal Helium System after its change of ownership

AI needs chips. Chip fabs need process gases.

The container makes a return journey

Helium in international raw-material strategies

Primary helium: when supply security begins in the reservoir

Vertical integration: value is created at the interfaces

Helium prices: price formation in a contract market

Less helium per application: a structural demand risk

North America as a helium region: the value of regional density

The helium market

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