Helium as Infrastructure: Australia's Missed Strategic Advantage

19 May 2026 Mark Pesce analysis FREE + PLUS + PRO
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Helium as Infrastructure: Australia's Missed Strategic Advantage

Mark Pesce | Noops Strategic Advisory - noops.au | May 2026

Prepared for discussion only. This document does not constitute financial advice.

Executive Summary

This paper argues that helium is foundational physical infrastructure for the post-Watershed economy — as essential to the AI compute stack as silicon, copper, or electricity — and that Australia is sitting on one of the world's largest untapped helium endowments while simultaneously importing 100% of its supply, venting recoverable helium from LNG plants into the atmosphere, and having just removed helium from its Critical Minerals List.

We further argue that the rare earths precedent demonstrates exactly what happens when a government gets strategic about a resource the world needs and can't substitute: Lynas Rare Earths now trades at a $15.67 billion market cap and 276x earnings, backed by bilateral security agreements with the US and Japan. Australia's helium position is directly comparable — and arguably stronger, given that helium's physical properties make it literally irreplaceable in ways that most rare earths are not.

The central thesis is this: in the post-Watershed world, the physical substrates of intelligence become the most strategically important resources on earth. Helium is one of those substrates. Australia has the reserves, the geological endowment, and the allied relationships to become a global helium superpower. It is currently doing nothing.

Core Claim: Australia possesses 3.6 billion cubic metres of helium reserves — enough to supply the entire world for 21 years — yet produces zero. The government removed helium from its Critical Minerals List in December 2023, the same month its only production facility closed. This is not an oversight. It is a strategic failure of the first order, occurring at precisely the moment when helium's role as irreplaceable infrastructure for semiconductors, quantum computing, medical imaging, and defence is becoming acute.

1. Why Helium Is Infrastructure

1.1 The Physics: Why "Irreplaceable" Is Not Hyperbole

Helium's strategic importance derives from physical properties that no other element shares. This is not a matter of cost or convenience — it is a matter of physics:

Property Detail Why It Matters
Boiling point 4.2 Kelvin (−269°C) — the lowest of any element The only practical coolant for temperatures near absolute zero. Hydrogen boils at 20K, nitrogen at 77K. Nothing else comes close.
Liquefaction Remains liquid at atmospheric pressure all the way to absolute zero No other substance does this. Essential for cryogenic systems that must operate continuously.
Chemical inertness Filled outer electron shell; reacts with nothing Safe in environments where any reactive gas would contaminate or explode — semiconductor fabs, welding, rocket fuel systems.
Thermal conductivity ~6x that of air Superior heat transfer in EUV lithography, fibre optic drawing, and nuclear reactor cooling.
EUV transparency Absorbs almost no extreme ultraviolet radiation The only gas that can fill the optical column of an EUV lithography machine without degrading the light. No alternative exists.
He-3/He-4 quantum behaviour Mixture exhibits quantum phase separation at millikelvin temperatures The operating principle of dilution refrigerators — the only technology capable of cooling superconducting qubits to the 10–15 millikelvin range required for quantum computing.

Brian Potter's essential essay in Construction Physics puts it precisely: "In many cases, it's very hard to substitute for helium." This is understatement. In the applications that matter most for the post-Watershed economy — EUV chip fabrication, quantum computing, superconducting systems — there is no substitute at all. The word is not "hard." The word is "impossible."

1.2 Where Helium Sits in the AI Compute Stack

The post-Watershed economy runs on compute. Compute runs on chips. Chips are made in fabs. Fabs cannot operate without helium.

Semiconductors (24% of global helium consumption, projected 30% by 2030):

Every advanced semiconductor on earth — every H100, every TPU, every chip powering every AI model — is manufactured using EUV lithography. ASML's EUV machines require helium in the optical column because helium is the only gas that does not absorb extreme ultraviolet radiation. It manages heat transfer, controlling wafer temperature within ±0.1°C during exposure. Required purity: 99.9999% (6N). At sub-2nm nodes, specifications tighten further.

An advanced EUV fab consumes approximately 500,000 cubic feet of helium annually. There is no substitute. The semiconductor industry's own assessment: helium "has no substitute" for many applications.

Semiconductor helium demand is projected to grow five-fold by 2035. This is not speculative — it is the direct consequence of the fab expansion already committed and under construction:

Fab Project Investment Status
TSMC Arizona $165 billion (3 advanced fabs + 2 packaging + R&D) First fab in high-volume N4 production Q4 2024
Intel Ohio $28 billion (two leading-edge fabs) $7.9B CHIPS Act funding secured
Samsung Taylor, TX $44 billion $6.4–6.6B CHIPS Act funding; 2nm mass production target
TSMC global $42 billion capex in 2025 alone 8–9 new fabs annually; ramping N2 production

Every one of these fabs will consume helium at industrial scale, continuously, for decades. The pipeline is committed. The helium to supply it is not.

Quantum Computing:

Superconducting quantum computers (IBM, Google) operate at 10–15 millikelvin — achieved exclusively through helium-3/helium-4 dilution refrigerators. IBM's GoldenEye cryostat is the world's largest quantum-ready cooling system. Fermilab's Colossus, the world's largest dilution refrigerator, is currently under construction. There is no alternative cooling technology for this temperature regime. As quantum computing scales from laboratory to industrial deployment, helium demand from this sector alone is growing at 37.6% per year.

Fibre Optics:

Helium is used as a coolant when depositing the outer glass sleeve onto fibre optic cores. Per Construction Physics: "There's no known alternative." Every metre of fibre optic cable connecting every data centre in the AI build-out requires helium in its manufacture.

MRI (30% of global helium consumption):

Approximately 50,000 helium-cooled MRI scanners operate globally, each requiring 1,700–2,000 litres of liquid helium. Zero-boil-off technology reduces consumption but does not eliminate it. Healthcare helium demand grows with aging populations and expanding neurological/oncological screening.

Aerospace and Defence (7% of US consumption):

Helium purges liquid hydrogen and oxygen tanks in rocket systems. NASA is the single largest helium consumer in the United States. Every launch of every rocket carrying every satellite in the Starlink/Kuiper/OneWeb constellation requires helium. There is no substitute for purging hydrogen tanks — you need an inert gas with a boiling point below hydrogen's 14K, and only helium qualifies.

1.3 The Infrastructure Test

At Noops, we define infrastructure as: a resource or system without which the post-Watershed economy cannot physically function, where substitution is either impossible or measured in decades, and where supply failure cascades through multiple critical sectors simultaneously.

Helium passes every element of this test:

Helium is not a commodity. It is infrastructure. The fact that it is priced and traded as a commodity is the market failure this paper identifies.

2. The Supply Crisis: Structural, Not Cyclical

2.1 The Current Shock: One-Third of Global Supply Is Offline

In March 2026, Iranian strikes damaged Qatar's Ras Laffan Industrial City — the world's single most important helium production node. QatarGas declared force majeure. One-third of global helium supply went offline overnight.

Spot prices surged 40–100% within days. Distributors implemented rationing. Phil Kornbluth of Kornbluth Helium Consulting reported prices doubling in some markets. The countries hit first: Japan, Singapore, South Korea, Taiwan — precisely the nations whose semiconductor fabs are building the physical substrate of the AI economy.

This is not a one-off. It is the predictable consequence of a supply structure that was always fragile and is now breaking.

2.2 The Structural Picture

Producer Share of Global Supply Status (April 2026)
United States 42.6% (81 MCM) Operational, but Federal Helium Reserve privatised (sold to Messer, June 2024). No strategic buffer remains.
Qatar 33.2% (63 MCM) Offline. Ras Laffan damaged. Force majeure declared. Strait of Hormuz effectively closed.
Algeria 13–16% (~25–30 MCM) Stable but limited expansion capacity.
Russia 13–16% (~25–30 MCM) Amur plant ramping (3 trains). Sanctions-vulnerable. Geopolitical risk premium.
Canada 1–2% Emerging. Multiple new facilities 2024–2025. Years from material scale.
South Africa <1% Renergen's Virginia Gas Project: commercial production began August 2024. Small scale.
Australia 0% Zero production since late 2023. 3.6 BCM in reserves. Venting helium from LNG plants.

The concentration is extreme: the US and Qatar together account for roughly 75% of global production. With Qatar offline, the world is functionally dependent on a single country — the United States — for the majority of its helium supply. And the US just privatised its strategic reserve.

The US Federal Helium Reserve — which had supplied up to 30% of American helium for decades — was sold to Messer (a German industrial gas company) for $460 million in June 2024. The Cliffside Field, the 423-mile crude helium pipeline, and all operational infrastructure are now privately controlled. There is no public-sector strategic buffer. The scientific and medical communities raised alarms. The government proceeded anyway.

2.3 Why Supply Cannot Easily Expand

Helium is a byproduct. It accumulates in natural gas deposits through the radioactive decay of uranium and thorium in surrounding rock — a process measured in geological time. It is extracted as a trace component of natural gas processing. You cannot "drill for helium" the way you drill for oil. You can only capture it when processing gas that happens to contain it — and most of the world's gas processing infrastructure is not configured to do so.

This creates a structural constraint: helium production is coupled to natural gas demand, not helium demand. When gas demand falls or LNG facilities close (as happened with Bayu-Undan in Australia), helium production disappears regardless of how desperately the market needs it.

New helium-specific extraction projects exist — Gold Hydrogen in South Australia, Renergen in South Africa, various Canadian juniors — but they are years from material production scale. The lead time from discovery to commercial output is 5–10 years minimum.

The demand side is not waiting.

2.4 Demand Is Exploding — And It's Structural

Global helium demand is projected to double by 2035, driven primarily by semiconductor manufacturing (5x growth), quantum computing (37.6% annual growth), and the ongoing global MRI installed base expansion.

The demand is locked in. When helium prices spike, semiconductor fabs cannot simply use less — they either run their EUV machines with helium or they don't run them at all. MRI facilities cannot switch to an alternative coolant — there isn't one. Price increases don't reduce consumption; they just increase costs. Buyers absorb the hit because the alternative is shutting down entirely.

This is the same dynamic we identified in the Blue Owl paper: when something gets cheaper and more efficient, people don't use less of it — they use vastly more. Applied here: AI efficiency improvements drive more compute demand (not less), more compute demand drives more fab construction, and more fabs means more helium. Every efficiency gain in AI that expands the market for compute is, downstream, an increase in helium consumption.

3. Australia's Position: Embarrassment of Riches, Embarrassment of Policy

3.1 The Resource Base

Australia holds an estimated 3.6 billion cubic metres of helium in its natural gas resources — enough to supply the entire world for 21 years at current consumption rates. The prospective basins span the continent: Bonaparte, Surat, Gunnedah, Carnarvon, Canning, Perth, Amadeus, and Officer.

This is not marginal. This is one of the largest helium endowments on earth, distributed across multiple geological provinces with varying extraction characteristics.

Some of the early exploration results are extraordinary:

3.2 The Policy Failure

In December 2023, the Australian government removed helium from its Critical Minerals List to "align with" the US, EU, Japan, and South Korea lists.

This is wrong on its own terms: the EU's Critical Raw Materials Act, which entered force in May 2024, explicitly classifies helium as a critical raw material, with eligibility for Strategic Project status, expedited permitting (24 months for extraction, 12 months for processing), and access to EU financial support. Australia removed helium from its list while the EU was adding it.

The timing makes it worse. In late 2023 — the same quarter the government delisted helium — Australia's only helium production facility in Darwin ceased operations after the depletion of the Bayu-Undan field. Australia went from a modest producer (3% of global supply, roughly self-sufficient) to 100% import-dependent in a matter of months. The government's response to losing all domestic helium production was to formally downgrade helium's strategic classification.

There is no official government policy document, strategy paper, or ministerial statement recognising helium as a strategic priority. No dedicated funding. No enhanced foreign investment screening for helium assets. No bilateral supply agreements. Nothing.

Compare this to rare earths:

Dimension Rare Earths (Current Policy) Helium (Current Policy)
Strategic classification On Critical Minerals List (31 minerals) Removed December 2023
Government funding $13.9M ANSTO R&D + $100M+ equity (Arafura Nolans) + $533M committed debt Zero
Export/investment controls Foreign acquisitions classified "sensitive"; mandatory pre-notification for SOEs None
Allied partnerships US-Australia Framework Agreement; Japan JARE 2038 deal; German KfW investment None
Production status Lynas operational; Arafura Nolans targeting H2 2029 Zero production; most advanced project (Gold Hydrogen) still in exploration
Market valuation premium Lynas: $15.67B market cap, 276x P/E. Market prices "supply chain security" No strategic premium; ASX helium juniors priced as speculative exploration stories

The rare earths story is proof of concept: when government classifies a resource as strategic, funds it, screens foreign investment, and builds bilateral security agreements, the market responds with premium valuations that reflect sovereign importance rather than commodity spot pricing. Lynas trades at 276x earnings not because its rare earth output is 276x more valuable than a commodity producer's — but because the market recognises it as the only non-Chinese source of a strategically irreplaceable input, backed by government commitment.

Helium has the same structural characteristics — arguably stronger ones, given that helium's irreplaceability is grounded in physics rather than supply chain economics — but zero policy support.

3.3 The LNG Venting Scandal

This is the detail that should make policymakers' blood run cold.

Australia operates multiple LNG processing facilities across the country. Several of these plants process gas with helium concentrations comparable to or exceeding those that made the Darwin BOC plant commercially viable. The helium is present in the gas stream. It reaches the processing facility. And then it is vented into the atmosphere because no one has invested in recovery equipment.

Australia is not merely failing to develop its helium reserves. It is actively destroying recoverable helium — a finite, non-renewable resource generated by millions of years of radioactive decay — by releasing it into the sky, where it escapes earth's gravity and is lost to space forever.

Helium is the only commonly used industrial gas that, once released, leaves the planet. It does not accumulate in the atmosphere like CO₂. It does not cycle through ecosystems like nitrogen. It rises, reaches the exosphere, and is stripped away by solar wind. Every cubic metre vented from an Australian LNG plant is gone permanently.

At current spot prices of USD $69–128/m³ (depending on region), this is not merely an environmental oversight. It is the destruction of a strategic asset at the precise moment that asset is becoming one of the most supply-constrained inputs in the global technology supply chain.

4. The Rare Earths Playbook: What "Getting Strategic" Looks Like

4.1 How Australia Built a Rare Earths Moat

The rare earths story demonstrates the policy-to-market multiplier effect — the mechanism by which government strategic classification transforms a commodity into a sovereign asset:

Step 1 — Classification: Rare earths placed on Australia's Critical Minerals List with dedicated policy framework.

Step 2 — Funding: $13.9 million to ANSTO for extraction and processing R&D. $100 million equity investment in Arafura Nolans via Export Finance Australia. $533 million in committed government agency debt. $200 million from the National Reconstruction Fund Corporation.

Step 3 — Foreign investment screening: Rare earth businesses classified as "sensitive" under Foreign Acquisitions and Takeovers Regulations. Lower monetary thresholds for Treasury review. Mandatory pre-notification for state-owned enterprises, regardless of deal value. This prevents strategic assets from being quietly acquired by geopolitical competitors.

Step 4 — Allied partnerships: The US-Australia Critical Minerals Framework Agreement combined "billions of dollars in joint investments with expanded defense cooperation." Japan's JARE extended its offtake agreement with Lynas through 2038 — 5,000 metric tons/year of NdPr oxide at a USD $110/kg floor price, with 75% of Lynas heavy rare earth output going to Japan. Germany's KfW invested $84 million in Arafura. In October 2025, Sojitz Corporation began importing dysprosium and terbium from Lynas — "the world's only operational heavy rare earth supply chain outside Chinese control."

Step 5 — Market premium: Lynas trades at $15.67 billion market cap and 276x earnings. Its stock surged 16% on the Japan deal announcement alone. The market is not pricing rare earth output. It is pricing sovereign supply chain security.

4.2 Why Helium Is a Stronger Case

The rare earths argument for strategic classification rests on supply chain concentration (China: 60% mining, 91% processing, 94% permanent magnets) and defence/technology criticality. These are real. But rare earths can, in principle, be sourced from multiple geological environments worldwide, and substitution research (though difficult) is active across several applications.

Helium's case is stronger on every dimension:

4.3 What "Getting Strategic" Would Look Like for Helium

Applying the rare earths playbook to helium:

  1. Reinstate helium on the Critical Minerals List. The EU already classifies it as critical. Australia's removal was a harmonisation error, not a strategic assessment. Reverse it.
  2. Fund helium extraction R&D and pilot facilities. Gold Hydrogen's Ramsay Project, Central Petroleum's Amadeus Basin work, and Georgina Energy's Officer Basin program are all at stages where targeted government co-investment would accelerate timelines by years.
  3. Screen foreign investment in helium assets. Apply the same "sensitive" classification used for rare earths. Prevent strategic helium deposits from being acquired by entities that would not align extraction with Australian sovereign interests.
  4. Build allied helium security agreements. Japan, South Korea, and Taiwan are the most helium-import-dependent semiconductor manufacturing nations on earth — and they are all Australian defence and trade allies. The JARE model (long-term offtake with floor pricing) is directly transferable to helium.
  5. Mandate helium recovery from LNG operations. Stop venting. Every LNG plant with helium-bearing gas streams should be required to capture and store helium, or explain to Parliament why it is acceptable to permanently destroy a finite strategic resource.
  6. Establish a national helium reserve. The United States maintained one for decades (before privatising it in 2024). Australia should learn from both the wisdom of creating the reserve and the folly of selling it.

5. The Geopolitical Landscape: Helium in the New Resource Order

5.1 The China Parallel

China controls approximately 60% of global rare earth mining, 91% of processing, and 94% of permanent magnet manufacturing. In 2025, Beijing imposed export licensing requirements on rare earth mining and processing technologies — weaponising supply chain dominance as an instrument of geopolitical leverage.

The rare earth lesson: concentrated supply in the hands of a strategic competitor creates an exploitable vulnerability. The Western response — diversification through Australian production (Lynas), US onshoring, and allied partnerships — took over a decade to build and remains incomplete.

Helium's concentration risk is different in form but comparable in severity. There is no single "China" dominating helium. Instead, the risk is distributed across multiple fragile nodes:

The strategic implication: there is no "safe" helium supplier at scale. Every major source carries geopolitical, transit, or counterparty risk. This is precisely the environment in which a new, allied, geopolitically stable producer with massive reserves would command a sovereign premium — as Lynas does in rare earths.

Australia is that producer, if it chooses to be.

5.2 The EU Gets It

The European Union's Critical Raw Materials Act (entered force May 2024) classifies helium as a critical raw material. Helium projects can receive "Strategic Project" status with:

The first call for Strategic Project classification closed in August 2024. The EU is actively building helium supply chain resilience. Australia's government has done nothing equivalent.

As one industry analyst noted: the EU is "recognising the importance of helium, whereas quite a few countries have disregarded it and excluded it from their critical mineral lists, including the US."

5.3 The ASPI Warning

The Australian Strategic Policy Institute published a piece titled "No helium, no chips: why Australia needs to make the gas again" — a direct warning from the country's most prominent strategic think tank that the helium policy gap is a national security issue.

The argument is simple and correct: Australia's semiconductor supply chain security depends on helium. Australia produces no helium. Australia has enormous helium reserves. The gap between those three facts is a policy failure.

6. Market Signals and What They Actually Mean

Signal Conventional Reading Alternative Reading
Australia removes helium from Critical Minerals List (Dec 2023) Routine harmonisation with allied lists Strategic misread. The EU added helium to its list five months later. Australia delisted helium the same quarter it lost all domestic production.
Strait of Hormuz closure takes Qatar helium offline (Mar 2026) Temporary disruption; prices will return to normal Structural exposure of a fragile supply chain. 33% of global supply transiting a single chokepoint. This will happen again.
Helium spot prices surge 40–100% Short-term spike; prices will settle back down 85% of helium trades on long-term contracts. Spot spikes are the leading indicator. Contract repricing follows with 1–2 year lag. The structural price shift hasn't hit yet.
US privatises Federal Helium Reserve (Jun 2024) Efficient asset management; private sector will allocate better Removal of the world's only strategic helium buffer. No government on earth now maintains a helium reserve. The floor has been removed.
Semiconductor helium demand growing 5x by 2035 Demand growth creates opportunity for new suppliers Demand growth against a supply base that is concentrated, geopolitically fragile, and unable to expand quickly is a recipe for chronic shortage. This is not an opportunity for incremental producers. It is a call for sovereign-scale intervention.
Gold Hydrogen reports 36.9% helium purity Interesting exploration result; early stage Potentially world-class deposit. The highest helium concentration ever recorded in a geological sample. If confirmed at scale, this changes the global helium map.
Australian LNG plants venting helium Standard practice; recovery not economically justified at historical prices Permanent destruction of a finite strategic resource. At current crisis pricing, the economics of recovery have shifted decisively. The policy question is why this is still permitted.

7. Where This Thesis Can Fail

7.1 Recycling and Demand Reduction

Advanced semiconductor fabs can achieve 90–95% helium recapture rates. If recycling is universally adopted across all fabs, MRI facilities, and industrial users, effective demand growth could be significantly lower than the headline 5x figure.

However: fewer than 50% of Singapore's fabs have recycling systems installed. Adoption is patchy globally. Even at 95% recovery, the 5% loss per cycle accumulates across global production volumes, and the absolute growth in fab count (not just per-fab consumption) drives total demand regardless. Recycling slows the crisis. It does not solve it.

7.2 MRI Technology Shift

Zero-boil-off MRI systems and emerging high-temperature superconductor designs could eventually reduce medical helium demand. Philips' BlueSeal technology reduces helium inventory from ~1,700 litres to single digits per machine. If the entire installed base transitions, healthcare helium demand shrinks dramatically.

But the installed base is 50,000 machines, each with a 15–20 year operational life. Transition is generational, not immediate. And the machines still require helium — just less of it.

7.3 Alternative Quantum Computing Architectures

IonQ's trapped-ion approach uses laser cooling rather than helium-based dilution refrigeration. If trapped-ion or other non-superconducting architectures win the quantum race, helium demand from quantum computing may not reach the rates projected.

However: IBM and Google — the two largest quantum computing programs — are committed to superconducting architectures. The installed base of dilution refrigerators exceeds 700 systems globally and is growing. The quantum helium thesis does not require trapped-ion to fail; it requires superconducting to continue succeeding alongside it.

7.4 Geopolitical De-escalation

If the Strait of Hormuz reopens and Qatar's production resumes, the immediate supply crisis eases. This is the most likely near-term scenario.

But the vulnerability remains. The crisis demonstrated that one-third of global helium supply can disappear overnight due to events entirely outside the control of consuming nations. The structural case for supply diversification does not depend on the current crisis being permanent — it depends on the recognition that the current supply structure is inherently fragile.

8. Discussion Questions for the Group

  1. The policy lever: What is the realistic pathway to getting helium reinstated on Australia's Critical Minerals List? Who are the decision-makers, and what evidence would they need? Is there a role for Noops in catalysing this conversation?

  2. The Lynas analogy: Lynas took over a decade from government support to its current $15.67B valuation. Is the helium timeline faster or slower? What are the key differences in scaling helium production versus rare earth processing?

  3. The LNG recovery opportunity: Several Australian LNG plants are venting helium-bearing gas streams. What would the capital cost of retrofit recovery equipment be, versus the value of captured helium at current crisis pricing? Is there a commercial case even without government mandates?

  4. Allied demand: Japan, South Korea, and Taiwan are the most helium-vulnerable semiconductor producers. Would they be receptive to a JARE-style helium offtake agreement with Australian producers? What is their current helium sourcing strategy post-Qatar?

  5. Gold Hydrogen's He-3: Traces of helium-3 at Ramsay are potentially transformative — He-3 is essential for fusion research and quantum computing, and global supply is vanishingly small (primarily from US nuclear weapons maintenance). If Gold Hydrogen can produce He-3 at scale, does this change the entire valuation framework?

  6. The venting question: Is there a public interest case — or even a legal case — for compelling LNG operators to capture helium? What precedent exists in Australia for mandating recovery of byproducts from resource extraction?

  7. Timing: The Strait of Hormuz crisis has made helium supply security front-page news. Is this the moment to push the policy argument, or does the crisis need to deepen further before policymakers act?

9. Key Data Points at a Glance

Data Point Detail
Australia's helium reserves 3.6 billion cubic metres — 21 years of global supply. Basins: Bonaparte, Surat, Gunnedah, Carnarvon, Canning, Perth, Amadeus, Officer.
Australia's helium production Zero since late 2023 (Darwin BOC facility closed). 100% import-dependent.
Critical Minerals List status Removed December 2023. No government helium strategy, funding, or investment screening.
Global supply (pre-crisis) ~190 MCM/year. US 42.6%, Qatar 33.2%, Algeria ~14%, Russia ~14%.
Qatar supply (April 2026) Offline. Ras Laffan damaged. Force majeure declared. Strait of Hormuz effectively closed.
US Federal Helium Reserve Privatised June 2024. Sold to Messer for $460M. No public strategic buffer remains.
Helium pricing Pre-crisis: ~$14/m³ (Grade-A). Current spot: $69–128/m³ depending on region. Crisis surge: 40–100% in days.
Semiconductor helium demand 24% of global consumption. Projected 5x growth by 2035. No substitute in EUV lithography.
Quantum computing demand He-3 market growing at 37.6% per year. Dilution refrigerators: only technology for millikelvin cooling.
Global MRI installed base ~50,000 machines, each requiring 1,700–2,000 litres liquid helium. 30% of global consumption.
Demand sensitivity to price Virtually none. Users cannot reduce consumption without shutting down operations. Price doubles, demand barely moves.
Gold Hydrogen (ASX: GHY) Ramsay Project, SA. 36.9% helium purity (highest recorded). He-3 traces detected. Mitsubishi Gas Chemical invested. Flow testing Q1 2026.
Georgina Energy Officer/Amadeus Basins. 430 BCF prospective resource. Offtake EOI received.
Central Petroleum (ASX: CTP) Amadeus Basin. Helium grades up to 9% in subsalt zones.
Lynas Rare Earths (comparison) $15.67B market cap. 276x P/E. 82% YTD gain. Japan JARE 2038 offtake. The template for what "getting strategic" produces.
EU Critical Raw Materials Act Helium classified as critical (May 2024). Strategic Project status available: 24-month expedited permitting.
Investment needed for supply resilience $28–42 billion cumulative through 2035 (extraction, purification, storage, recycling).

Closing Note

The post-Watershed economy is built on physical substrates. The discourse focuses on models, algorithms, tokens, and intelligence — but intelligence runs on chips, chips run on fabs, and fabs run on helium. Sever the helium supply and the entire stack stops.

Australia is one of the few nations on earth with the geological endowment to become a global helium superpower. It has the reserves. It has the allied relationships. It has the geopolitical positioning. It has a proven playbook in rare earths that demonstrates exactly how to convert a resource endowment into a sovereign strategic advantage.

What it does not have is a policy. What it does not have is urgency. What it does not have is the recognition — at any level of government — that the gas its LNG plants are venting into the sky is one of the most strategically important substances on earth.

The rare earths story took a decade to play out. The helium story is moving faster because the demand drivers — AI compute, quantum computing, semiconductor expansion — are moving faster than anything in industrial history. The window for Australia to position itself is open now. It will not stay open indefinitely. Canada is building. South Africa is producing. The EU is classifying and funding. Every month Australia delays is a month another country moves to fill the gap that Australian policy created.

This is not a speculative opportunity. It is a strategic imperative that happens to also be an extraordinary investment opportunity — if the policy settings change. And the first step is the simplest: put helium back on the list.

Noops | noops.au Strategic Advisory — Post-Watershed Infrastructure Series