A series of 20 headshots sit below the text “Congratulations to our 2026 Critical Mineral & Materials Recipients” and the Foundry and JGI logos

Pictured from left: [Top row]: Romy Chakraborty, Dawn Chiniquy, Anne Glaesener, Steven Hallam, Marc Hanikenne, Cheryl Kerfeld, Jeffrey Marlow; 
[Row 2]: N. Cecilia Martinez-Gomez, Sabeeha Merchant, Sergey Nuzhdin, Stephanie Porter, Claire Remacle, Christian Rinke; 
[Bottom row]: John Sedbrook, Viktoria Steck, Ning Sun, Olena Vatamaniuk, Setsuko Wakao, Meng Wang, and Allison Werner.

 

A total of 20 proposals were selected by the Joint Genome Institute (JGI) and the Molecular Foundry (TMF) for their collaborative user program. The portfolio of research proposals integrates genomics with nanoscale science, all aimed at accelerating discoveries and developing transformative bio-based technologies involving critical minerals and materials.

The Joint Genome Institute and Molecular Foundry are DOE Office of Science user facilities. They provide researchers leading approved proposals with free access to their resources and capabilities to advance their DOE mission-relevant science.  

Supported by the Biological and Environmental Research (BER) program, the JGI provides advanced genomic capabilities and access to large-scale data resources. Supported by the Basic Energy Sciences (BES) program, the Molecular Foundry provides researchers worldwide with access to state-of-the-art expertise and instrumentation in a collaborative, multidisciplinary environment. Users and members of their research teams work onsite at TMF alongside facility experts to conduct research beyond the capabilities of individual laboratories. 

The full list of 2026 Critical Minerals & Materials Call recipients follows.

Proposer NameProposer AffiliationProposal Title
Chakraborty, RomyLawrence Berkeley National LaboratoryPhyto-Microbial Critical Mineral Recovery: Moving from Isolate Genomic Potential to Rhizosphere Transcriptomic Realization
Chiniquy, DawnLawrence Berkeley National LaboratoryQuantifying Bacterial Rare-Earth Uptake To Enable Bio-Based Critical-Mineral Capture
Glaesener, AnneUniversity of California, BerkeleyExploring the Mechanisms of Copper Homeostasis in Acidophilic Algae
Hallam, StevenUniversity of British Columbia (Canada)Mechanistic Basis for Metallo–Biological Surface Interactions within Engineered Living Materials
Hanikenne, MarcUniversity of Liege (Belgium)Genomic and Metabolic Basis of Divergent Zinc Hyperaccumulation Strategies in Arabidopsis halleri
Kerfeld, CherylMichigan State UniversityBacterial Microcompartment-based Biomaterials for Capture of CMMs and REEs
Marlow, JeffreyBoston UniversityBioleaching of Critical Minerals from High Economic Interest Ore Sources by a Halophilic Consortia
Martinez-Gomez, N. CeciliaUniversity of California, BerkeleyDecoding Biogenic REE Mineralization in M. extorquens AM1 for Scalable Critical Metal Recovery
Merchant, SabeehaUniversity of California, BerkeleyStructural and Functional Properties of a Potential Cell Surface Metal-Binding Protein in the Green Alga Auxenochlorella UTEX 250-A
Nuzhdin, SergeyUniversity of Southern CaliforniaMechanisms of Selective Rare Earth Element Recovery in Giant Kelp
Porter, StephanieWashington State UniversityInvestigating Evolutionary Solutions to Nickel Transport and Accumulation in Serpentine Plant-Microbial Symbionts
Remacle, ClaireUniversity of Liege (Belgium)New Insights Into Plastocyanin Maturation
Rinke, ChristianUniversity of Innsbruck (Austria)Harnessing the Landfill Microbiome: Multi-Omics Detection and Nanoscale Exploration of Bioleaching targeting Rare Earth Elements
Sedbrook, JohnIllinois State UniversityAccelerating Discovery of Mechanisms Underlying Nickel Biorecovery Across Brassicaceae Species
Steck, ViktoriaGEOMAR Helmholtz Centre for Ocean Research (Germany)New Biological Controls on the Critical Mineral Manganese Through Marine Microbial Phosphorus Metabolism
Sun, NingLawrence Berkeley National LaboratoryMapping A Microbial System for Heavy Rare Earth Elements Recovery
Vatamaniuk, OlenaCornell UniversityNanoscale Control of Copper Uptake, Transport, and Sequestration in Plants for Phytomining Applications
Wakao, SetsukoLawrence Berkeley National LaboratoryToward Mechanistic Understanding of Rare Earth Elements and Critical Minerals Absorption: Exploring the Genetic Basis of Algal Response to Critical Minerals
Wang, MengUniversity of HoustonDeveloping a Cell-Based Fitness Assay for High-Throughput Assessment of Ferritin Metal-Selectivity and Engineering
Werner, AllisonNational Laboratory of the RockiesMicrobial REE Atlas: Discovery, Validation, and Functional Elucidation of Rare-Earth Element (REE) Binding Proteins Towards Critical Mineral Recovery
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