IperionX Boosted Titanium Production Throughput
The company transitioned to a continuous process that reduces energy intensity and manufacturing overhead.
Updated on Sept. 22, 2026 in Materials Science
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IperionX achieved a sixfold increase in throughput for high-performance titanium alloy production. This research-derived method improves on traditional batch manufacturing by enabling continuous operation.
Why it matters
The development aims to significantly lower the production costs of titanium compared to the conventional Kroll process. This could improve the viability of using the corrosion-resistant, high strength-to-weight material in a wider range of applications.
The process achieved a sixfold increase in throughput volume compared to prior batch production methods. By eliminating traditional steps such as discharging, cooling, and recharging, the system realized a 75% reduction in energy intensity.
The players
IperionX
A materials science company focused on developing high-performance, low-cost titanium alloys using sustainable production methods.
Z. Zak Fang
A researcher at the University of Utah who developed the continuous titanium production process.
ARPA-E
A U.S. Department of Energy program that funds high-risk, high-reward research projects to advance energy technology.
The details
The production technique utilizes continuous manufacturing instead of the standard batch production cycles. By removing the need for cooling and recharging between runs, the system streamlines the conversion of minerals or scrap into titanium alloys. This technology was developed by Dr. Z. Zak Fang at the University of Utah and received funding support from the U.S. Department of Energy's ARPA-E program.
The Tech Race
The standard method for producing titanium remains the Kroll process, a batch-based technique that has long struggled with high energy costs. This continuous production approach aims to overcome those historical limitations and displace the current industrial baseline.
This development primarily affects the manufacturing sector by providing a more energy-efficient pathway for producing structural titanium alloys. Future adoption depends on scaling this continuous process to meet the high-volume requirements of the aerospace and automotive industries.
The takeaway
By moving away from intermittent cooling and charging cycles, this research demonstrates a path toward lower operational costs for advanced alloys. Stakeholders should monitor future announcements regarding the transition from successful lab-scale throughput to industrial-scale implementation.
Further reading
Learn more about the latest innovations in Materials Science.
Source note: This article includes information reported by Miningdigital.
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