Key Takeaways
- Lawrence Livermore National Laboratory (LLNL) earned its 45th Federal Laboratory Consortium (FLC) technology transfer award since 1985, receiving the 2026 Excellence in Tech Transfer Award for the Lanmodulin‑Based Rare Earth Purification (LanPure) technology.
- LanPure, developed in partnership with Penn State and exclusively licensed to Alta Resource Technologies, uses natural lanmodulin proteins to selectively extract and separate rare‑earth elements (REEs) from complex feedstocks such as mine tailings and electronic waste.
- The technology promises a resilient, domestically sourced supply chain for critical minerals, reducing reliance on Chinese processing and enhancing national security while avoiding toxic solvents and high‑energy steps used in conventional methods.
- LLNL’s monolithic telescope technology received an honorable mention in the same FLC award category, recognizing its rapid‑iteration, cost‑effective design for space‑domain awareness and multiple on‑orbit missions.
- Commercialization of the monolithic telescopes is pursued through a Cooperative Research and Development Agreement (CRADA) with Starris: Optimax Space Systems, enabling agile payload development and production for government and private customers.
- Both awards highlight the importance of interdisciplinary partnerships—between national labs, universities, industry, and federal agencies—to translate breakthrough science into market‑ready solutions that address critical national challenges.
Overview of the 2026 FLC Recognition
The Federal Laboratory Consortium (FLC) announced its 2026 awards, honoring Lawrence Livermore National Laboratory (LLNL) for outstanding technology transfer achievements. LLNL’s Innovation and Partnerships Office (IPO) and its researchers were recognized with the Excellence in Tech Transfer Award for the LanPure rare‑earth purification platform and received an honorable mention for the monolithic telescope technology. This marks LLNL’s 45th FLC award since 1985, underscoring a long‑standing commitment to moving federally funded innovations into the marketplace. The awardees will be celebrated at the FLC national meeting in Seattle on May 13, 2026.
LanPure: Biomining Breakthrough for Rare‑Earth Elements
LanPure leverages lanmodulin, a naturally occurring protein that exhibits extraordinary selectivity for rare‑earth elements (REEs). By exploiting this biological affinity, the technology can extract and separate REEs from diverse sources—including primary ores, mining waste, coal byproducts, and discarded electronics—without the harsh chemicals or energy‑intensive steps typical of conventional solvent‑based processes. The approach offers high reusability, speed, and environmental sustainability, positioning it as a disruptive alternative to existing REE supply chains.
Partnerships Driving Commercialization
The LanPure project originated from a collaboration between LLNL and Pennsylvania State University, with key contributions from LLNL scientists Yongqin Jiao, Dan Park, and the IPO team led by Business Development Executives Yash Vaishnav and Samantha Madru. Alta Resource Technologies, a Boulder‑based company, secured an exclusive license to deploy LanPure at scale. To date, Alta has attracted more than $35 million in venture‑capital funding and received support from DARPA, the U.S. Department of Energy’s Critical Materials Innovation Hub, and the State of Colorado, reflecting strong confidence in the technology’s commercial viability.
National Security and Supply‑Chain Implications
A robust domestic supply chain for REEs is vital for electronics, clean‑energy technologies, and defense systems. Historically, the most challenging and costly link in that chain has been the separation and refinement of REEs after mining. LanPure addresses this bottleneck by enabling cost‑effective, environmentally friendly processing of low‑grade or waste feedstocks, thereby reducing dependence on overseas—particularly Chinese—processing facilities. LLNL’s IPO BDE Yash Vaishnav emphasized that the award validates the lab’s role in strengthening national security through innovative, industry‑aligned solutions.
Technical Advantages Over Conventional Methods
Unlike traditional REE purification, which relies on multiple extraction stages using hazardous acids and organic solvents, LanPure operates under mild aqueous conditions. The lanmodulin proteins bind REEs with high specificity, allowing near‑complete recovery in a single step. The protein can be regenerated and reused many times, lowering operating costs and minimizing waste generation. These attributes make LanPure especially suited for processing complex, low‑concentration streams such as electronic waste and coal ash, where conventional methods are economically unfeasible.
Scaling Efforts and Ongoing Collaboration
LLNL researchers, including Ziye Dong, Jeremy Seidel, Patrick Diep, Christina Kang‑Yun, and Gauthier Deblonde, continue to work with Alta to adapt LanPure for various feedstocks and to pilot scale‑up processes. External collaborator Joseph Cotruvo Jr. and his Penn State group provide essential biochemical expertise. Funding from the Critical Materials Innovation Hub and DARPA’s Environmental Microbes as a BioEngineering Resource (EMBER) program supports these scaling activities, aiming to transition LanPure from laboratory proof‑of‑concept to commercial production lines.
Monolithic Telescopes: Honorable Mention Achievement
LLNL’s monolithic telescope technology received an honorable mention in the same FLC award category. The design features a single‑piece optical assembly with fixed alignment set during manufacturing, resulting in exceptional reliability, compactness, and ease of storage and transport—critical attributes for space‑borne payloads. Unlike traditional telescopes that require precise on‑orbit alignment, the monolithic approach eliminates this complexity, reducing risk and mission cost.
Flight Heritage and Mission Impact
At least three missions have already flown monolithic telescopes: Terran Orbital’s GEOStare1 and GEOStare2, plus the Pathfinder Technology Demonstrator. GEOStare2 has logged over four years on orbit, delivering hundreds of thousands of images for space‑domain awareness. The recently launched Pandora mission showcases a low‑cost, high‑impact space‑science model using the same compact telescope architecture. Upcoming flights include the U.S. Space Force Victus Haze mission and Firefly’s Blue Ghost 2 Lunar Mission, further demonstrating the technology’s versatility across government and commercial applications.
Commercial Pathway via Starris Partnership
To bring the monolithic telescope to market, LLNL’s IPO entered a Cooperative Research and Development Agreement (CRADA) with Starris: Optimax Space Systems. This collaboration aims to create an agile, industry‑based payload development and production capability, leveraging Starris’s manufacturing expertise and LLNL’s optical innovations. Key IPO contributors acknowledged in the honorable mention include Associate Agreements Officer Anne Knapp, BDE Clarence Cannon, and former Deputy Director Elsie Quaite‑Randall, alongside a broad team of scientific experts such as Alex Pertica, Wim De Vries, Brian Bauman, and many others.
Conclusion: Translating Lab Innovation to Real‑World Impact
The 2026 FLC awards underscore LLNL’s success in converting cutting‑edge research into commercially viable technologies that serve national interests. LanPure offers a sustainable pathway to secure domestic supplies of critical rare‑earth elements, bolstering both economic resilience and national security. The monolithic telescope provides a reliable, cost‑effective optical solution for a new generation of space missions, enhancing situational awareness and scientific exploration. Both achievements illustrate the power of strategic partnerships—spanning academia, industry, and federal agencies—to accelerate technology transfer and deliver tangible benefits to society.