Last updated: 2026-07-06
Beryllium’s Concentration Shock: One US Company, One Ohio Plant
Materion Corporation’s Elmore, Ohio facility is the only primary beryllium metal production
plant in the Western world — and the United States supplies roughly
53% of global
beryllium production (230 of 430 metric tons in 2025), per
USGS Mineral
Commodity Summaries 2026.
Beryllium is unlike most critical minerals in that the United States is the dominant producer,
not the dominant importer. Materion is the world’s only mine-to-mill-to-metal integrated
beryllium producer, mining bertrandite ore at Spor Mountain, Utah, milling it into beryllium
hydroxide near Delta, Utah, and converting that hydroxide into metal, oxide, and beryllium-copper master
alloy at its Elmore, Ohio facility
(Materion, 2024).
Outside the United States, only Kazakhstan (Ulba Metallurgical Plant) and China process
beryllium ores and concentrates into metal products
(USGS Fact Sheet 2016–3081).
The vulnerability is structural rather than trade-driven: in 2000, Materion (then Brush Wellman)
decommissioned its only beryllium reduction facility in Elmore, Ohio, leaving the United
States without any domestic high-purity beryllium metal production capability
(Wright-Patterson AFB / AFRL).
The Department of Defense rebuilt that capability from scratch between 2005 and 2010 through a
Defense Production Act Title III program, but the result is a single point of failure:
one plant, one company, supplying the overwhelming majority of Western high-purity beryllium metal.
Why it matters: Beryllium is the only material the Department of Defense has designated
as both strategic and critical
(Materion Senate Energy Committee testimony, 2025).
It remains on the USGS Final 2025 List of Critical Minerals, one of 60 minerals designated
(Federal Register, 7 Nov 2025).
No substitute material matches beryllium’s combination of extreme stiffness-to-weight ratio,
dimensional stability at cryogenic temperatures, and transparency to X-rays.
Ulba Metallurgical Plant: Kazatomprom’s state-owned second source
Kazakhstan’s Ulba Metallurgical Plant (UMP JSC) is the only non-Western, non-Chinese beryllium
processor of scale, and it is state-controlled: UMP sits inside Kazatomprom, Kazakhstan’s
national uranium company, which is itself majority-owned by the Kazakh sovereign wealth fund Samruk-Kazyna
(UMP JSC, About Us).
Ulba draws on beryl concentrate imports (rather than a domestic bertrandite deposit like Spor Mountain) to
produce beryllium oxide, beryllium-aluminum master alloy, and beryllium metal products, making it
structurally different from Materion’s vertically integrated Utah-to-Ohio model
(USGS Fact Sheet 2016–3081).
China’s beryllium industry: concentrated in Fujian province
China’s beryllium-copper alloy fabrication is concentrated around Xiamen, Fujian province, home to
multiple beryllium-copper strip, rod, and wire producers that supply China’s domestic electronics and
connector industry
(Made-in-China supplier directory, Xiamen beryllium-copper manufacturers).
China’s own beryllium ore base is thin and dispersed — USGS estimates Chinese mine production at
roughly 77–78 metric tons per year, well below its processing and fabrication footprint — meaning
Chinese beryllium-copper fabricators depend partly on imported beryllium hydroxide, oxide, and master alloy
feedstock, including historically from Kazakhstan’s Ulba plant
(USGS MCS 2026;
NTI, Ulba Metallurgical Plant profile).
Beryllium plays a documented role in China’s own nuclear weapons, reactor, satellite, and missile
programs, mirroring the same defense-critical uses seen in the United States
(Jiangsu Beryllium Copper industry market overview).
Why the supply base stays this narrow
Only three countries — the United States, Kazakhstan, and China — convert beryllium ores and
concentrates into refined metal, oxide, or master alloy products at industrial scale
(USGS Fact Sheet 2016–3081).
The barrier to entry is not ore scarcity — beryl-bearing pegmatites exist in Brazil, Nigeria,
Mozambique, Madagascar, and elsewhere — but the extreme toxicity and capital cost of building a
beryllium reduction and machining facility capable of meeting OSHA’s 0.2 µg/m³ exposure
limit (see Section 6), which has deterred new entrants for over two decades
(OSHA, 82 FR 2470).
Current status (July 2026):
Materion remains the sole Western primary producer with no near-term domestic competitor.
A major U.S. defense prime committed
$65 million in Q4 2025 to expand Materion’s
beryllium capacity, signaling the Pentagon views current capacity as insufficient for replenishment
needs (
Materion Q4 2025 results, 12 Feb 2026).
Watch: capacity expansion timeline, further DPA Title III awards, Kazakh-Chinese beryllium
trade volumes.
Last updated: 2026-07-06
Ore Chemistry: Why Bertrandite, Not Beryl, Feeds the US Supply Chain
Two minerals supply nearly all world beryllium: bertrandite
(Be4Si2O7(OH)2), mined almost exclusively at Spor Mountain, Utah,
and beryl (Be3Al2Si6O18), sourced from pegmatite deposits in
Brazil, Nigeria, Mozambique, and elsewhere.
Bertrandite: the low-grade volcanic ore that built Utah’s beryllium industry
Bertrandite occurs as submicroscopic crystals disseminated through altered rhyolitic volcanic tuff at
Spor Mountain, in the Thomas Range of Juab County, Utah — a deposit type described by USGS as
volcanogenic and essentially unique in scale worldwide
(USGS Open-File Report 98-0524, Spor Mountain).
Ore grades are low, typically well under 1% beryllium oxide equivalent, but the deposit’s size and
the maturity of Materion’s beneficiation circuit near Delta, Utah make it economic where higher-grade
beryl elsewhere is not
(Goldschmidt Abstracts, volcanogenic beryllium deposits at Spor Mountain).
Because bertrandite is a secondary mineral formed by hydrothermal alteration, it is finer-grained and more
amenable to Materion’s proprietary acid-leach beneficiation process than coarser beryl crystals
(Le Comptoir Géologique, bertrandite entry).
Beryl: the gemstone-family mineral that supplies the rest of the world
Beryl — the mineral family that also produces emerald and aquamarine gemstones — is the
principal beryllium ore everywhere outside Utah, typically recovered as a byproduct of lithium-cesium-
tantalum (LCT) pegmatite mining in Brazil, Nigeria, Mozambique, Madagascar, and Rwanda
(Goldschmidt Abstracts, 2016).
Beryl ore is higher grade than bertrandite but produced at much smaller volumes and generally exported as
concentrate to Kazakhstan, China, or historically the United States for further processing rather than
refined on-site
(The Elements Unearthed, refining beryllium ore).
Historically, the U.S. government stockpiled imported Brazilian beryl ore as a strategic reserve before
Spor Mountain bertrandite production came online at scale
(The Elements Unearthed).
From ore to metal: hydroxide, oxide, and master alloy intermediates
Both ores are converted through similar downstream chemistry: crushed and leached ore yields beryllium
hydroxide, which is then either (a) reduced to beryllium metal via a fluoride or chloride process, (b)
calcined into beryllium oxide (BeO) ceramic powder, or (c) alloyed directly with copper or aluminum to
produce master alloy ingot — the form in which most beryllium actually reaches end users
(EPA Archive, Identification and Description of Mineral Processing Wastes: Beryllium).
Materion is the only company in the world that performs all of these steps — mining, milling,
hydroxide conversion, and metal/alloy production — at its own facilities
(Materion, 2024).
Why it matters: because bertrandite and beryl require substantially different
beneficiation chemistry, a company optimized for one ore type cannot easily switch to the other, which is
part of why Materion’s Utah bertrandite operation and Ulba’s beryl-concentrate-based processing
in Kazakhstan have not converged into a globally fungible ore market the way, for example, bauxite or
copper concentrate have.
Current status (July 2026):
Spor Mountain remains the world’s only commercial bertrandite operation; junior explorers such as
Rockland Resources continue early-stage work on adjacent Spor Mountain-district beryllium prospects, but
none has reached production
(
Mining.com, Rockland Resources release, 11 Apr 2024).
Watch: junior exploration permitting at Spor Mountain-district claims, Brazilian/Nigerian
beryl export volumes.
Last updated: 2026-07-06
Price Movement: Beryllium-Copper Master Alloy Up 135% Since 2021
Beryllium-copper master alloy unit value rose from $680/kg contained beryllium (2021) to an
estimated $1,600/kg (2025) — a
135% increase over five years, per
USGS Mineral
Commodity Summaries 2026. Unlike antimony or gallium, beryllium has no transparent daily spot market
— USGS annual unit values and beryllium-copper alloy quotes are the primary public benchmarks.
| Year | CuBe master alloy unit value ($/kg contained Be) | YoY change |
|---|
| 2021 | $680 | baseline |
| 2022 | $660 | −3% |
| 2023 | $1,400 | +112% |
| 2024 | $1,500 | +7% |
| 2025 (est.) | $1,600 | +7% |
The 2022–2023 repricing coincided with tightening beryllium hydroxide feedstock supply and rising
defense and aerospace order volume. Beryllium metal itself does not trade on a public commodity
exchange; commercial pricing for finished beryllium-copper (CuBe) alloy products — strip, rod,
and wire — is negotiated bilaterally and typically runs from roughly $20–$60 per
pound for standard bar, sheet, and plate stock, and over $100 per pound for high-purity or precision
tempers, according to industry pricing guides
(CustomProc beryllium-copper price guide, 2025).
On its Q4 2025 earnings call, Materion management stated that contract pricing for defense
customers is generally not contingent on metals prices, meaning the company’s defense
revenue is comparatively insulated from short-term commodity volatility even as the underlying
beryllium-copper unit value has risen
(Materion Corporation — SEC Filings).
Why it matters: Net U.S. import reliance for beryllium has fallen from 11% (2021) to an
estimated near-zero/net-exporter position by 2024–2025, reflecting Materion’s Elmore capacity
expansion — but the corollary is that Kazakhstan supplied 31% of the beryllium the US did
import between 2021 and 2024, more than any other single country
(USGS MCS 2026).
No exchange, no futures: how beryllium is actually priced
Beryllium has never traded on the LME, CME, or any other public metals exchange, and no price-reporting
agency such as Fastmarkets or Argus publishes a daily beryllium assessment comparable to its antimony or
bismuth benchmarks. Instead, USGS Mineral Commodity Summaries derive an annual unit value from U.S.
Census Bureau trade data on imported and exported beryllium-copper master alloy, which by convention is
expressed as dollars per kilogram of contained beryllium rather than per kilogram of alloy
(USGS MCS 2026).
Because the two entities that actually convert ore to metal — Materion and Ulba — each sell
under bilaterally negotiated, often multi-year contracts, list prices for pure beryllium metal are not
publicly quoted at all.
Finished-alloy price guides fill the gap for buyers
Downstream fabricators and distributors publish indicative price ranges for finished copper-beryllium mill
products, which function as the closest thing the market has to a retail benchmark. Industry pricing
guides put standard-temper CuBe bar, sheet, and plate stock at roughly $20–$60 per
pound, with high-purity or precision-temper CuBe exceeding $100 per pound,
reflecting both the embedded metal value and the cost of the specialized rolling, heat-treating, and age-
hardening processes unique to beryllium-copper metallurgy
(CustomProc beryllium-copper price guide, 2025).
In China, domestic trade sources have quoted metallic beryllium (≥98% purity) around
¥6,000–6,500/kg, high-purity beryllium oxide around ¥1,200/kg, and beryllium-copper alloy
around ¥125,000/tonne — separate, domestically quoted reference points that do not converge with
Western contract pricing
(Jiangsu Beryllium Copper market overview).
Current status (July 2026):
Beryllium-copper alloy values remain at multi-year highs ($1,500–$1,600/kg contained Be).
Defense contract structures largely shield near-term demand from price swings.
Watch: USGS MCS 2027 (Feb 2027) annual unit value update, Materion Q1–Q3 2026
earnings commentary on beryllium hydroxide feedstock costs.
Last updated: 2026-07-06
The US Response: Rebuilding the “Pebble Plant” and the DLA Stockpile
DoD has now funded beryllium capacity at Elmore, Ohio twice — once via Defense
Production Act Title III (2005–2010, ~$80–85 million) to rebuild primary metal production
after the original plant closed in 2000, and again via a $65 million defense-prime customer
investment announced in February 2026 to expand capacity further.
2000 — Materion (then Brush Wellman) decommissions its beryllium reduction facility
in Elmore, Ohio, eliminating the only U.S. source of high-purity beryllium metal
(Wright-Patterson AFB / AFRL).
October 2005 — A DPA Title III determination is signed initiating a multi-year
project to re-establish domestic high-purity beryllium metal production, citing four defense-critical
use areas: sensors (FLIR), missile and satellite applications, avionics, and DoE nuclear weapons
(DoD Determination under DPA Section 303(a)(5)).
The government authorized up to $85 million in Title III funding, with industry cost-share
of at least 20% (OSD DPA Title III submission, 29 May 2009).
May 2010 — Ribbon-cutting ceremony marks completion of the new primary beryllium
reduction plant at Elmore — commonly called the “Pebble Plant” for the
pebble-shaped beryllium metal it produces — with a demonstrated capacity of
160,000 pounds per year
(AFRL / Wright-Patterson AFB).
November 2023 — U.S. Air Force Research Laboratory awards Materion a
$5 million, two-year contract to expand additive manufacturing (3D printing) capability
for beryllium and aluminum-beryllium powders, supporting optics, guidance systems, and thermal
management applications (3DPrint.com, 2 Nov 2023).
February 2026 — Materion announces a $65 million investment from a major
U.S. defense prime specifically to expand beryllium capacity, explicitly framed as supporting
“US initiatives to replenish inventory and increase capabilities”
(Materion Q4 2025 results release, 12 Feb 2026).
Materion also reported defense sales surpassing $100 million for a second consecutive
year, with new defense bookings of nearly $140 million and a defense pipeline of
$200 million in pending RFQs
(Materion Corporation — SEC Filings).
DLA National Defense Stockpile — drawdown, not build-up:
Unlike antimony or germanium, the beryllium stockpile has been in
net disposal mode for
years. The Defense Logistics Agency has repeatedly solicited sales of National Defense Stockpile
beryllium metal — approximately 17,078 lb offered in FY2022 and 7,983.5 lb in FY2023, held at the
Hammond Depot, Indiana —
(
DLA FY2022 solicitation,
DLA FY2023 solicitation).
Buyers must certify at least ten years of experience handling high-content beryllium metal and be
incorporated in the U.S. or Canada. As of the 2026 USGS report, potential FY2025 disposals stood at
7 short tons with FY2026 figures not yet available
(
USGS MCS 2026).
Why it matters: Because Materion already supplies the majority of world production, the
U.S. policy problem for beryllium is less about diversifying imports (as with antimony or
gallium) and more about expanding a single domestic bottleneck fast enough to meet resurgent
defense, space, and now fusion-energy demand — while the stockpile that once served as a buffer
continues to be sold down.
Current status (July 2026):
Materion Elmore capacity expansion underway, funded by a defense-prime customer rather than a fresh
DPA Title III award. DLA National Defense Stockpile remains a net seller. Watch:
Materion Q1/Q2 2026 earnings for capacity-expansion milestones; any FY2026 DLA beryllium solicitation.
Beryllium’s defense value comes from a physical profile: about one-third the density of
aluminum, roughly six times the specific stiffness of steel, dimensionally stable across extreme
temperature swings, and transparent to X-rays. Per
USGS MCS 2026,
aerospace and defense applications account for roughly 24% of US beryllium end-use by
sales revenue, with consumer electronics (29%), industrial components (17%), and energy applications (8%)
making up most of the remainder — but the defense fraction concentrates in mission-critical,
non-substitutable systems.
1. James Webb Space Telescope: 18 beryllium mirror segments
NASA’s James Webb Space Telescope, launched 25 December 2021 on an Ariane 5 rocket
from French Guiana, carries a 6.5-meter primary mirror built from
18 hexagonal, gold-plated beryllium segments, each about 1.32 meters across and
weighing roughly 20 kilograms (46 pounds)
(NASA Science, Webb’s Mirrors;
ESA, launch coverage).
Engineers selected beryllium because it is low density (1.845 g/cm³), exceptionally stiff,
and holds a stable shape at cryogenic operating temperatures near 30 K (−406°F)
(per NASA-sourced technical specifications;
NASA Science, “Digging Beryllium for James Webb”).
The raw beryllium was mined at Spor Mountain, Utah and purified at Materion’s (then Brush Wellman)
Elmore, Ohio facility before being machined into the mirror blanks
(NASA Science).
2. Copper-beryllium (CuBe) alloys: aerospace fasteners, connectors, springs
Beryllium-copper master alloy — produced by Materion at Elmore — is used downstream to make
high-strength, non-sparking, corrosion-resistant fasteners, electrical connectors, springs, and bushings
for aircraft, spacecraft, and munitions. CuBe combines copper’s conductivity with steel-like
strength, making it standard for landing-gear bushings, avionics connectors, and undersea cable
connectors. Per USGS, beryllium-copper alloy is the dominant commercial form in which beryllium reaches
end users, and its unit value (rather than pure metal price) is the primary public price signal for the
market (USGS MCS 2026).
3. Gyroscope and inertial-guidance components
High-purity beryllium’s combination of low density and high stiffness makes it the material of
choice for gyroscope gimbals and inertial-navigation platform components in strategic missile guidance
systems, where dimensional stability under vibration and thermal cycling is mission-critical. DoD’s
founding determination for the Title III beryllium program explicitly named
“guidance systems on existing strategic missiles” as one of the core
defense-critical uses justifying government investment
(DoD DPA Section 303(a)(5) Determination).
4. Nuclear reactor neutron reflectors, moderators, and fusion salts
Beryllium and beryllium oxide are used as neutron reflectors and moderators in research and naval
reactor designs because beryllium has one of the highest neutron-scattering cross sections combined
with a low neutron-absorption cross section. Materion has been delivering beryllium and beryllium oxide
to Idaho National Laboratory under the Department of Energy’s Microreactor Applications Research
Validation and Evaluation project
(ExecutiveBiz, 30 Oct 2023).
In October 2025, Materion signed a supply agreement with Commonwealth Fusion Systems to
provide beryllium fluoride for FLiBE molten-salt coolant used in CFS’s planned ARC fusion power
plants, with shipments from Elmore beginning in late 2025
(Materion press release, 28 Oct 2025).
5. FLIR, satellite structures, and ballistic missile defense
Beryllium and AlBeMet aluminum-beryllium composite are used in airborne forward-looking infrared (FLIR)
systems for fighter aircraft and attack helicopters, structures and components for surveillance
satellites, and components for ballistic missile defense systems — applications for which DoD has
stated no suitable substitute material exists
(AFRL / Wright-Patterson AFB).
DoD’s Title III determination lists the Ground-Based Interceptor, Aegis Ballistic Missile
Defense Standard Missile-3, Patriot Advanced Capability-3, Theater High-Altitude Area Defense (THAAD), and
the Airborne Laser’s Infrared Search and Track Sensor as missile-defense systems for which
high-purity beryllium is essential
(DoD DPA Section 303(a)(5) Determination).
FLIR systems alone account for roughly 25% of defense-related high-purity beryllium demand
and are installed on every U.S. fighter type, including the F-35 Joint Strike Fighter,
F/A-22, F/A-18E/F, F-15E, and F-16C/D, plus the AH-64D Apache, Predator, and Global Hawk
(DoD Title III Determination).
6. F-35 stealth targeting: Materion and IBC beryllium-aluminum castings
On the F-35 Lightning II, Materion supplies proprietary AlBeCast aluminum-beryllium investment
castings for Lockheed Martin’s Electro-Optical Targeting System (EOTS), the stealthy,
sapphire-windowed sensor faired into the F-35’s fuselage that provides precision air-to-air and
air-to-surface targeting
(ExecutiveBiz, 25 Nov 2022;
Skies Mag, Materion-Lockheed F-35 EOTS supply contract).
A second beryllium-aluminum fabricator, IBC Advanced Alloys, separately supplies the EOTS azimuth
gimbal housing using its Beralcast alloy, chosen because beryllium-aluminum dampens vibration and
signal noise to extend the EOTS’s effective target-acquisition range compared with conventional
aluminum housings
(IBC Advanced Alloys, Beralcast on the F-35).
Beryllium’s low density and high stiffness are what let EOTS hold the dimensional precision needed
for its stealthy, low-drag, conformal fuselage integration.
7. Copper-beryllium connectors: aerospace, subsea, and oil & gas
Outside pure defense electronics, copper-beryllium’s combination of high strength, non-sparking
behavior, corrosion resistance, and non-magnetic properties makes it the standard alloy for downhole oil
and gas connectors, drilling tool housings, and centralizers used in measurement-while-drilling assemblies,
where non-magnetic components are required so nearby magnetometers and directional sensors are not
distorted (AMETEK Specialty Metals, downhole housings and connectors).
The same non-magnetic, non-sparking profile makes CuBe standard for MRI machines, gyroscopes, and
inertial-navigation instrumentation, and for connectors and springs in commercial and military
aerospace assemblies
(Canyon Components, beryllium-copper applications).
Beryllium-copper is also widely used in undersea cable connectors and subsea energy infrastructure,
applications where its corrosion resistance under sustained saltwater exposure and electrical conductivity
combine with the mechanical strength of a spring alloy
(NGK Berylco, Beryllium Copper in the Energy Sector).
8. Nuclear weapons: beryllium as pit liner, tamper, and neutron multiplier
Beryllium’s role in nuclear weapons is one of the metal’s oldest and most sensitive defense
uses: it serves as the reflector material, or “pit liner,” in most contemporary American
nuclear weapons primaries, surrounding the plutonium pit and acting simultaneously as a neutron reflector
that directs neutrons back into the pit, a tamper that helps contain and increase the explosive force, and
a generator of additional neutrons through an (n,2n) reaction
(GlobalSecurity.org, Weapons of Mass Destruction: Beryllium;
OSTI, Beryllium (Be) Handbook).
The Department of Energy’s National Nuclear Security Administration (NNSA) manages beryllium
component fabrication for the U.S. nuclear stockpile and has reviewed current beryllium inventories
against forecasted plutonium pit production needs at Los Alamos and Savannah River, concluding existing
stocks and commercial domestic suppliers are adequate to support planned production rather than requiring
new dedicated beryllium production capability
(DOE Draft Environmental Impact Statement, Plutonium Pit Production, Apr 2026).
Beryllium is also used as a neutron reflector and moderator in test and research reactors: the Idaho
National Laboratory’s Advanced Test Reactor, the world’s largest test reactor, has used five
successive beryllium neutron reflectors, with a sixth scheduled
(OSTI, Beryllium — A Unique Material in Nuclear Applications).
The toxicity trade-off: Beryllium and beryllium compounds are classified as human
carcinogens by the U.S. Department of Health and Human Services and the International Agency for
Research on Cancer, and inhalation exposure can cause chronic beryllium disease, an incurable
granulomatous lung condition
(
ATSDR Public Health Statement: Beryllium).
OSHA’s current 8-hour permissible exposure limit is
0.2 µg/m³, set in
2017 — see Section 6 for the full regulatory history
(
OSHA, 82 FR 2470).
This toxicity is a persistent barrier to expanding the number of qualified fabrication sites, reinforcing
Materion’s position as the dominant Western processor.
Current status (July 2026):
Demand is broadening beyond legacy defense and space uses into fusion energy and microreactors even as
the supplier base stays effectively single-sourced in the West. Watch: Commonwealth
Fusion Systems delivery cadence, additional DoE microreactor beryllium contracts, further defense-prime
capacity investments at Elmore.
Beryllium trade is far smaller in volume than antimony, gallium, or germanium — global mine
production totaled only about 430 metric tons in 2025
(USGS MCS 2026)
— but the trade map is unusually concentrated among three processors: the United States,
Kazakhstan, and China.
| Country | 2024 mine production (metric tons, Be content) | 2025e | Role |
|---|
| United States | 230 | 230 | Sole Western primary producer; Materion mine-to-metal |
| Brazil | ~80 (est.) | 80 (est.) | Beryl ore export source |
| China | ~78 (est.) | 77 (est.) | Domestic processing + downstream alloys |
| Nigeria | ~40 (est.) | 40 (est.) | Beryl ore export source |
| Mozambique | 3 | 3 | Beryl ore export source |
| Madagascar / Rwanda | ~1 each (est.) | ~1 each (est.) | Minor beryl ore |
Figures per USGS Mineral Commodity Summaries 2026. Kazakhstan’s beryllium processing (via Ulba) draws partly on imported concentrate and is not separately reported as mine production, but Kazakhstan is the leading source of US beryllium imports.
US import sources, 2021–2024
| Source | Share of US beryllium imports |
|---|
| Kazakhstan | 31% |
| Latvia | 25% |
| Japan | 19% |
| Germany | 5% |
| Other | 20% |
US beryllium imports for consumption have fallen sharply as Materion’s Elmore capacity has grown
— from 49 metric tons in 2021 to an estimated 10 metric tons in 2025, while US
exports have moved from 30 to an estimated 15 metric tons over the same period, reflecting both
substitution of domestic supply and softer intermediate-product trade
(USGS MCS 2026).
Kazakhstan’s Ulba Metallurgical Plant: Rosatom-adjacent, exporting to China
Ulba Metallurgical Plant (UMP JSC), based in Ust-Kamenogorsk, Kazakhstan, is one of the world’s few
producers of beryllium, tantalum, and niobium products alongside its larger uranium fuel-fabrication
business (UMP JSC, About Us).
Ulba is majority owned through Kazatomprom, Kazakhstan’s state uranium company, which in the early
2000s exchanged a 34% stake in Ulba with Russia’s TVEL (a Rosatom subsidiary) for
shares in three Russian nuclear-fuel-cycle companies; TVEL also holds “golden share” veto
rights over major Ulba policy changes
(Nuclear Threat Initiative, Ulba Metallurgical Plant profile).
This gives Russia’s state nuclear conglomerate structural influence over a plant that is also one
of only three global beryllium processors.
Ulba has a documented history of large beryllium shipments to Chinese industry: the plant completed its
first of several “extremely large deliveries” of beryllium to Chinese companies as early as
March 2003
(NTI, citing Kazatomprom).
Kazakhstan and China have continued to deepen nuclear-fuel-cycle cooperation in the years since,
including Kazakhstan beginning nuclear fuel assembly deliveries to China in 2024
(Nuclear Engineering International, 23 Feb 2024),
underscoring the broader Kazakh-Chinese-Russian nuclear materials axis in which Ulba’s beryllium
output sits.
The strategic asymmetry: The United States exports beryllium-containing materials
primarily to allied aerospace and defense supply chains, while Kazakhstan’s Ulba plant —
partly Russian-influenced through TVEL’s equity stake and golden-share rights — has a
two-decade track record of large beryllium shipments to China. No public data confirms current-year
Ulba-to-China or Ulba-to-Russia beryllium volumes; the plant does not publish product-level export
statistics.
Current status (July 2026):
US import reliance on Kazakhstan (31% of a shrinking import base) persists even as Materion approaches
self-sufficiency for defense-grade material. Ulba continues normal operations under Kazatomprom/TVEL
joint governance with no public indication of new export restrictions in either direction.
Watch: USGS MCS 2027 import-source breakdown, any Kazakhstan-Russia-China nuclear/beryllium
cooperation announcements, US Commerce Department scrutiny of dual-use beryllium exports.
No other metal in this critical-minerals series has an occupational safety rule that is as central to its
industrial structure as beryllium’s. Beryllium’s toxicity profile — and the decades-long
regulatory response to it — is a first-order reason the supply chain stayed as concentrated as it is.
Chronic beryllium disease and beryllium sensitization
Beryllium and beryllium compounds are classified as human carcinogens, and inhalation of beryllium dust,
fume, or mist can trigger an immune response called beryllium sensitization, in which the body's immune
system reacts to beryllium without necessarily producing symptoms
(OSHA, Beryllium Health Effects).
A sensitized worker can go on to develop chronic beryllium disease (CBD), an incurable, sometimes fatal
granulomatous lung disease with no cure — treatment can only slow disease progression and manage
symptoms
(Cleveland Clinic, Chronic Beryllium Disease).
Critically, epidemiological studies have repeatedly found CBD and sensitization occurring in workers whose
measured lifetime average exposures were below both the pre-2017 OSHA PEL of 2.0 µg/m³
and even the Department of Energy’s stricter 1999 guideline of 0.2 µg/m³, showing that
peak, short-duration exposures — not just time-weighted averages — can trigger disease
(Environmental Health Perspectives, Chronic Beryllium Disease and Sensitization at a Beryllium Processing Facility, 2005).
OSHA’s 2017 rule: PEL cut 90%, from 2.0 to 0.2 µg/m³
On 9 January 2017, OSHA published its final rule on Occupational Exposure to Beryllium,
codified at 82 FR 2470, which cut the 8-hour time-weighted-average permissible exposure
limit by 90%, from 2.0 µg/m³ to 0.2 µg/m³, and added a new 15-minute
short-term exposure limit of 2.0 µg/m³ and an “action level” of 0.1 µg/m³
(OSHA Final Rule, 82 FR 2470, 9 Jan 2017).
OSHA concluded that workers exposed at the prior PEL faced a significant risk of material health
impairment, specifically CBD and lung cancer, and that 0.2 µg/m³ was the lowest level
“technologically and economically feasible”
(OSHA, 82 FR 2470).
The rule created three parallel standards — for general industry (29 CFR 1910.1024), construction
(29 CFR 1926.1124), and shipyards (29 CFR 1915.1024) — each with ancillary requirements covering
exposure assessment, engineering controls, respiratory protection, protective clothing, housekeeping,
medical surveillance, and recordkeeping
(OSHA, Federal Register notice, 31 Aug 2020).
The rule took effect 10 March 2017, with compliance dates staggered through 2020 for
engineering controls and through 2019 for change rooms and showers
(Red-on-line, OSHA beryllium rule summary).
NIOSH’s own recommended exposure limit remains even lower, at 0.5 µg/m³,
underscoring that even OSHA’s tightened standard is viewed by health researchers as a floor rather
than a fully protective ceiling
(NIOSH, Preventing Sensitization and Disease from Beryllium Exposure).
EU Critical Raw Materials Act: beryllium as both Strategic and Critical
The European Union's Critical Raw Materials Act, proposed 16 March 2023 as COM(2023) 160 final and
finalized in June 2024, lists beryllium among its raw materials on both the Strategic
Raw Materials list and the broader Critical Raw Materials list — the same dual designation the U.S.
Department of Defense uses domestically
(European Commission, COM(2023) 160 final, Annexes;
EASE Briefing, The Critical Raw Materials Act).
The European Parliament's own CRMA briefing confirms beryllium's inclusion, and defense-industry analysis
of the Act specifically flags beryllium, alongside aluminum, copper, graphite, nickel, and titanium, as a
raw material “widely used by the aerospace and defence industry”
(European Parliament, EPRS Briefing on the CRMA;
IPIS, The EU Critical Raw Materials Act and the Defence Industry).
The EU has no domestic beryllium mining or refining capacity of its own, making the bloc entirely reliant
on Materion, Ulba, or Chinese fabricators for any beryllium-containing defense or aerospace component.
Recycling: minimal, and mostly limited to in-process scrap
Beryllium recycling is exceptionally low compared with other industrial metals. USGS's own historical
analysis found that “little beryllium metal old scrap is recycled,” noting that a significant
share of beryllium ever produced is locked inside nuclear reactors and nuclear weapons components, which
are difficult to recycle and may be radioactively contaminated
(USGS Circular 1196-P, Beryllium Recycling in the United States in 2000).
What recycling does occur is overwhelmingly new (in-process) scrap — machining
turnings, casting sprues, and off-spec material generated during fabrication and returned directly to the
producer's own melt shop — rather than old scrap recovered from end-of-life
products. This pattern is starkest in the defense and nuclear sector: NNSA's beryllium weapons-component
machining process converts large beryllium blocks into finished parts with only about
4% of the feed material ending up in the final product, meaning 96% becomes scrap, some
of which is recycled in-house but which is not captured in any public old-scrap recycling statistic
(GlobalSecurity.org, Beryllium).
The EU's own critical raw materials factsheet on beryllium similarly flags negligible end-of-life
recycling input rates for the metal, consistent with USGS's assessment
(SCRREEN, Beryllium Critical Raw Material Factsheet).
Why recycling stays low: beryllium's toxicity itself is part of the barrier —
collecting, sorting, and reprocessing old beryllium-containing scrap (electronics, aerospace parts, spent
nuclear components) requires the same specialized, OSHA 0.2 µg/m³-compliant handling
infrastructure as primary production, and few facilities besides Materion's own operations are equipped
or licensed for it. This reinforces, rather than diversifies, the single-company Western supply
structure described in Section 1.
Current status (July 2026):
OSHA's 0.2 µg/m³ PEL and 2.0 µg/m³ STEL remain in force under 82 FR 2470, with
ancillary construction/shipyard provisions still subject to a pending rulemaking to streamline (not
weaken) the general-industry-equivalent PEL/STEL. The EU CRMA's Strategic and Critical dual listing for
beryllium remains unchanged since the June 2024 final regulation. Watch: OSHA's pending
beryllium ancillary-provisions rulemaking, EU CRMA delegated-act updates, any new USGS old-scrap
recycling-rate estimate for beryllium.
Beryllium’s 2020–2026 story is less about a single shock and more about a slow-building
capacity squeeze: legacy stockpile drawdown, a single-source Western supply chain, a landmark space
mission proving out beryllium’s unique properties, and a sudden new demand vector from commercial
fusion energy.
| Date | Event | Primary source |
|---|
| 2020 |
Beryllium appears on the USGS 2022 Final List of Critical Minerals cycle preparation (list finalized 2022) as one of the original 50 designated minerals, cementing its critical-mineral status heading into the decade. |
Congressional Research Service, R47982 |
| 9 Sep 2021 |
Federal Register notice on National Defense Stockpile potential disposals lists 8 short tons of beryllium metal among planned conversions/disposals, confirming the stockpile's continued drawdown trajectory. |
Federal Register, 9 Sep 2021 |
| 25 Dec 2021 |
NASA's James Webb Space Telescope launches on an Ariane 5 rocket from French Guiana, carrying 18 hexagonal beryllium primary mirror segments — the highest-profile demonstration of beryllium's aerospace value in a generation. |
NASA Science, Webb Mission Timeline |
| Jul 2022 |
JWST releases its first full-color science images, validating the beryllium mirror's cryogenic dimensional stability in operational conditions. |
Live Science, Webb launch retrospective |
| FY2022 |
DLA Strategic Materials solicits sale of approximately 17,078 pounds of National Defense Stockpile beryllium metal (hot-pressed powder, Grade A, produced by Brush Wellman) from the Hammond Depot, Indiana. |
DLA FY2022 solicitation |
| FY2023 |
DLA solicits an additional ~7,983.5 pounds of National Defense Stockpile beryllium metal for sale, continuing the multi-year stockpile drawdown even as defense demand signals strengthen. |
DLA FY2023 solicitation |
| 30 Oct 2023 |
US Air Force Research Laboratory awards Materion a $5 million, two-year contract to expand beryllium and aluminum-beryllium additive manufacturing (3D printing) capability for optics, guidance systems, and thermal management. |
ExecutiveBiz, 30 Oct 2023 |
| 2024 |
Materion completes expansion of proprietary AlBeCast aluminum-beryllium investment casting capability at Elmore, Ohio, following a multi-year expansion of primary beryllium production capacity under the original DoD-Materion public-private partnership. |
Materion news release, 2024 |
| 18 Apr 2025 |
White House orders a Section 232 investigation into processed critical minerals and derivative products, a review process that includes beryllium among the covered strategic materials. |
Federal Register, 18 Apr 2025 |
| 1 Jul 2025 |
Materion's natural-resources leadership testifies to the Senate Energy Committee that beryllium is "the only material deemed both strategic and critical to the United States" by DoD, and that Materion is the only fully integrated mine-to-market beryllium supplier "Made in America." |
Senate Energy Committee submission, 1 Jul 2025 |
| 24 Aug 2025 |
Materion's Q2 2025 results show defense segment bookings surging to $75 million with a backlog more than doubling year-over-year, alongside continued AlBeCast production expansion in Ohio. |
AInvest, 24 Aug 2025 |
| 28 Oct 2025 |
Materion signs a multi-year supply agreement with Commonwealth Fusion Systems to provide beryllium fluoride from Elmore, Ohio for FLiBE molten-salt coolant in CFS's planned ARC commercial fusion power plants, opening a new demand channel beyond defense and aerospace. |
Materion press release, 28 Oct 2025 |
| 7 Nov 2025 |
USGS publishes the Final 2025 List of Critical Minerals in the Federal Register, retaining beryllium among 60 designated critical minerals. |
Federal Register, 7 Nov 2025 |
| 12 Feb 2026 |
Materion reports full-year 2025 results, announcing a $65 million investment from a major US defense prime specifically to expand beryllium capacity, plus defense sales surpassing $100 million for a second consecutive year and a $200 million defense RFQ pipeline. |
Materion Q4 2025 results, 12 Feb 2026 |
| 2026 (current) |
USGS MCS 2026 reports US beryllium production climbing to 230 metric tons (2024–2025), roughly 53% of estimated world production of 430 metric tons, with US net import reliance near zero and Kazakhstan supplying 31% of remaining US beryllium imports (2021–2024 average). |
USGS Mineral Commodity Summaries 2026 |
What the timeline shows: beryllium’s critical-minerals story runs opposite to
most others in this series. Rather than a foreign export-control shock forcing a reactive Western
build-out, the United States already holds the dominant production position through Materion’s
integrated Utah-to-Ohio supply chain — a position rebuilt deliberately after a self-inflicted 2000
shutdown. The open questions for 2026 and beyond are whether Elmore’s single-site capacity can
keep pace with converging defense, space, and fusion-energy demand, and how much continuing reliance on
Kazakhstan’s Rosatom-linked Ulba plant matters as that plant's historical ties to Chinese
beryllium buyers persist.
Structural — single-source, multi-year