The drought-browned plains of southeastern Colorado don’t look like the center of a geopolitical supply crisis. But thousands of miles from the Strait of Hormuz, a quiet industrial plant outside Cheyenne Wells has been loading liquid helium onto specially designed trailers bound for China, France, Japan, and Germany.
A war just rewrote who controls the flow of a resource most people associate with party balloons—and Colorado, almost by accident, is sitting on some of the most valuable reserves left.
Why helium became a critical industrial resource
Helium is the second most abundant element in the universe, yet commercially viable concentrations on Earth are surprisingly rare. Most deposits fall below the 2% threshold that makes extraction profitable. Southeastern Colorado is an exception—its reserves reach up to 7%, placing it among the richest known deposits anywhere on the planet.
That scarcity matters because helium is genuinely irreplaceable. MRI machines rely on it for cooling, fiber optic cable production requires a pure helium environment, and semiconductor manufacturing, rocket pressurization, arc welding, and particle accelerators all depend on properties no other element can replicate: extreme lightness, chemical inertness, and the ability to reach temperatures approaching absolute zero.
Demand was already outpacing supply before any geopolitical shock arrived. According to the American Chemical Society, helium prices rose 250% over five years. Most helium trades through undisclosed long-term contracts, with only about 5% changing hands on the spot market—an opacity that slows price signals and makes disruptions especially hard to absorb.
How the Iran war choked off nearly a third of global supply
When the Strait of Hormuz closed, Qatar’s helium exports—roughly 30% of the world’s supply—stopped moving. Major industrial gas companies, including France’s Air Liquide and Ireland-based Linde, declared force majeure and began rationing helium to customers.
Before the war, spot prices hovered around $300 per thousand cubic feet. Once the strait closed, that figure more than doubled. Buyers protected by long-term contracts were still hit with surcharges, according to industry consultant Phil Kornbluth. The specially designed liquid helium trailers used to transport the product—each worth roughly $1.5 million—were also caught up in the Gulf crisis. “The war has even affected shipments outside the Gulf,” said one Ladder Creek official.
Colorado steps into the gap: Inside the Ladder Creek plant
The United States produces approximately 44% of the world’s helium, with the richest reserves running from the Texas Panhandle through Colorado and Wyoming into Canada.
The Ladder Creek Helium Plant outside Cheyenne Wells is one of only 14 helium liquefaction plants in the world and one of seven operating in the United States. It processes helium to 99.999% purity—scientific grade—drawing from a 750-mile network of gathering lines connected to gas wells in Kansas and Colorado. Plant supervisor Matt Randel explains that each gas constituent liquefies at a different temperature: methane at -250°F, nitrogen at -321°F, and helium at -454°F. Despite surging demand, Ladder Creek runs at only about 30% of its 1.5 million-cubic-feet-per-day capacity. Permitting constraints—not geology—are the limiting factor.
New players drilling deeper into Colorado’s helium belt
Las Animas County, east of Trinidad, is drawing new operators. Blue Star Helium, headquartered in Perth, Australia, is developing two fields—Galactica and Pegasus—targeting the Lyons sandstone formation at depths of roughly 1,000 feet. As Blue Star’s U.S. president Shane Gillespie notes, that’s far shallower than conventional gas wells, more comparable to a deep commercial water well than to anything in the traditional oil patch. These wells contain no natural gas—helium is mixed with carbon dioxide, and Blue Star plans to sell both gases commercially. Initial helium output will be balloon grade, intended for further refining by buyers. Dallas-based Desert Eagle is also operating in the same county, with nine producing wells already online.
Regulatory friction and the limits of a potential boom
Colorado’s Energy and Carbon Management Commission applies the same permitting framework to shallow helium wells as to deep, hydraulically fractured oil-and-gas operations. That process can take more than a year; in Kansas, comparable permits take weeks. Helium operators argue their wells are vertical, shallow, and unstimulated—yet they must file identical documentation to multi-mile horizontal drilling projects. The ECMC acknowledges helium wells “may look different” but notes they still involve drilling, surface disturbance, waste handling, and reclamation within its mandate.
Even setting aside permitting, Kornbluth urges caution. Qatar’s helium infrastructure suffered less damage than its LNG processing. “If there’s no more damage, we will go back to a surplus situation,” he said. Building a new liquefaction plant today would cost an estimated $500 million—five times the 1997 price—and of roughly 60 helium startups currently operating worldwide, Kornbluth expects most to fail.
Colorado’s reserves are real, and their value has unquestionably risen. But whether that translates into sustained production growth depends on how much Qatar recovers, how quickly Colorado streamlines permitting, and whether new entrants like Blue Star can move from balloon-grade output to the industrial-grade supply global markets need.
Kelly is an experienced writer with 15 years of experience exploring the big stories that shape our world, from tech breakthroughs and space exploration to climate, energy, and the fascinating quirks of science. She has a talent for turning complex ideas into sharp, memorable insights that stay with readers long after they’ve finished reading.
