The global helium market has entered another period of severe disruption, placing laboratories under renewed pressure to control costs and protect critical operations. The current crisis, sometimes called Helium Shortage 5.0, began after attacks in March 2026 halted liquefied natural gas and associated helium production at Qatar’s Ras Laffan complex. Qatar produced approximately 63 million cubic meters of helium in 2025, nearly one-third of estimated global production, according to the US Geological Survey’s 2026 Mineral Commodity Summaries.
Reuters reported that helium spot prices doubled within two weeks of the Qatari shutdown. Phil Kornbluth, president of the independent consultancy Kornbluth Helium Consulting and a longtime industrial-gas executive, told Reuters that prices could rise further if the disruption continued. The market tightened again on July 10, when China temporarily banned helium exports. China is not a major helium producer, but the move added uncertainty to a market already constrained by the loss of Qatari output and limits on Russian supply.
For lab managers, the shortage is not simply a purchasing problem. Helium supports gas chromatography (GC), nuclear magnetic resonance (NMR), mass spectrometry, cryogenic research, and other applications in which an interruption can delay testing, compromise contractual obligations, or threaten expensive instrumentation.
The most effective response begins with separating essential uses from those that can be reduced, modified, or replaced.
Assess where helium is truly essential
Lab managers should begin by mapping helium use across instruments, methods, and research groups. The review should identify monthly consumption, delivery lead times, cylinder or Dewar losses, method requirements, and the operational consequences of an interruption. Uses tied to superconducting magnets or methods that cannot be readily changed should receive priority.
This process also gives managers a stronger basis for discussions with suppliers and internal stakeholders. Rather than responding to shortages by applying the same reduction target across the laboratory, managers can establish priority tiers, reorder points, and contingency plans based on the consequences of lost access. They should also ask principal investigators and department leaders for forward-looking demand estimates. ETH Zurich uses consumption forecasts from researchers to identify potential shortfalls and guide procurement before supply becomes critical.
Evaluate alternatives for GC methods
GC laboratories have more options than facilities that rely on liquid helium for cryogenic cooling. In a Separation Science Q&A, Agilent experts James Gearing and Eric Phillips identified hydrogen and nitrogen as the most common alternative carrier gases, but stressed that the appropriate choice depends on the application.
Hydrogen can support faster linear velocities, narrower peaks, and shorter run times than helium. It can be particularly useful when laboratories need high-efficiency chromatography or want to increase throughput. Nitrogen is nonreactive and affordable, but it generally produces slower separations and wider peaks. It can work well for relatively simple chromatograms in which baseline separation of critical pairs is not required, but it is generally not recommended for low-concentration mass spectrometry.
A carrier-gas change should not be treated as a simple cylinder substitution. Switching gases can affect retention times, elution order, column efficiency, detector response, signal-to-noise ratio, and spectral performance. Laboratories may need to replace tubing, filters, columns, and other consumables, adjust flow rates and instrument parameters, and revalidate regulated or accredited methods. Method translation software can help establish starting parameters, but the laboratory still needs to verify performance against its own acceptance criteria.
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Build safety into a hydrogen transition
Hydrogen’s flammability requires a formal risk assessment before implementation. Labs should review ventilation, gas-line materials, fittings, leak-testing procedures, instrument compatibility, emergency shutdown functions, and staff training. GC systems used with hydrogen should be able to detect abnormal gas flow or an oven leak and shut down before hydrogen accumulates.
Vendors including Peak Scientific and Organomation recommend on-site hydrogen generators rather than high-pressure cylinders. Generators produce relatively small volumes on demand, reducing the amount of hydrogen stored in the laboratory and providing a more controllable supply. However, they do not remove the need for leak detection, ventilation, preventive maintenance, and documented safety procedures. Lab managers should involve environmental health and safety personnel, facilities teams, instrument vendors, and method owners before approving a transition.
Reduce consumption before replacing helium
Labs that cannot immediately change validated methods can still reduce consumption. Instrument manufacturers now offer technologies that switch to nitrogen during standby, reserve helium for column flow, or reduce purge and split-flow demand. Managers should ask vendors which conservation features are compatible with their installed instruments and whether retrofits are available.
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Basic controls also matter. Leak checks, preventive maintenance, optimized standby settings, scheduled shutdowns, and closer tracking of cylinder changeouts can reveal avoidable losses. Managers should compare consumption by instrument and investigate sudden increases rather than treating helium as an unallocated facility expense.
Consider recovery for liquid helium operations
For NMR and other cryogenic applications, recovery and reliquefaction can substantially reduce dependence on new helium. ETH Zurich reports that its closed-loop system captures, purifies, and reliquefies about 85 percent of the helium used across participating facilities. More than 90 percent of the helium used by its biomolecular NMR spectroscopy platform is recycled.
A dedicated system may not be economical for every laboratory, but institutions with multiple helium-intensive instruments can evaluate centralized recovery, shared infrastructure, or regional partnerships. The business case should account for installation costs, maintenance, staffing, current losses, projected helium prices, and the financial risk associated with an instrument shutdown.
Plan for a constrained market
The latest shortage reinforces a broader lesson: helium supply can change faster than laboratories can redevelop methods or install new infrastructure. Lab managers should not wait for allocation notices to begin planning. By documenting critical uses, testing alternatives, investing in conservation where appropriate, and strengthening demand forecasts and supplier communication, laboratories can reduce their exposure to the next disruption—even when helium remains indispensable.
