Reducing U.S. Dependence on Foreign Sourced Critical Minerals by Using Domestically Produced, Readily Scalable LTDF Graphene
May 2026
A Platform Super Material
There are many types of graphene family materials, but …
to lessen dependence on foreign sourced critical minerals (CMs), SIZE MATTERS
LTDF’s vastly larger lateral size results in fewer gaps that impede electrical/thermal conductivity, protective coatings & mechanical strength
Platform Super Material (cont’d)
Overview
LTDF graphene can help reshape the U.S. CM landscape
LTDF graphene is a functional enabler to substantially lessen dependence on foreign sourced CMs
Replace
LTDF’s intrinsic properties can directly substitute for some CMs in conductors, coatings, transparent films & structural materials.
Reduce
Dramatically increases performance at very low loadings, requiring less CMs in batteries, motors, alloys & thermal systems.
Amplify
Boosts performance of certain CMs far beyond their natural limits, so each gram delivers greater performance & higher efficiencies while lasting longer.
Extensive Lab Validation
Overwhelming Evidence LTDF Graphene Can Reduce, Replace or Amplify CMs
Based on lab created, non-commercially scalable LTDF graphene. Avadain has overcome the barrier to commercial scaling.
Graphene EMI Films
Thinner Conductors
Graphene-Copper Hybrids
Graphene-Ni Coatings or Plating
Less Ni Content in Alloys
Longer Life Anti-
corrosion
Graphene Inks and Pastes
Lower Ag Loadings in Pastes
Ag-Graphene Hybrids
Enable Co-Free Batteries
Decrease Co cathode content
Graphene-Co Hybrid Catalysts
Graphene Conductive Systems
Less Graphite in Anodes
High-Purity Graphite Extender
Display Screens
Lower ITO Usage
Graphene Based Devices
Graphene Coatings
Lower Nb Alloy content
Nb-Graphene Composites
Graphene Coatings
Less Sc-Al Usage
Graphene Enhanced
Composites
Less Ti per Structure
Reduced Ti Alloying
Ti-Graphene Hybrids
Graphene Steels
Decrease V Loading
Graphene-V Flow Cells
Graphite
Targets: Conductive (super-capacitor & battery electrodes), EMI shielding & stealth composites
Est. U.S. addressable opportunity:
71,000 tons annually
Proposed demonstration: Battery anodes & cathodes, supercapacitor electrodes
Quantified critical mineral savings:
Up to 90% reduction & 10x amplification
Graphene’s conductivity FAR outpaces graphite’s using a fraction of the material
Material Content (wt %)
Conductivity (S/m)
Graphene Composite
Graphite Composite
H. Zhang, et al, Physics and Applications of Graphene - Experiments. InTech, 2011.
Silver
Targets: Conductive adhesives & inks, electrical interconnects, EMI shielding coatings, current collectors
Est. U.S. addressable opportunity:
4,000 tons annually
Proposed demonstration: Thermally and electrically conductive adhesives & coatings
Quantified critical mineral savings:
30-60% reduction & 3-5x amplification
Graphene’s thermal conductivity can enhance silver many fold at low loadings
Krishnamurthy, V., High-Efficiency Thermal Materials with Graphene and Metal Fillers, U.S. Patent 9,716,299, issued July 25, 2017
Nickel
Targets: Anti-corrosion coatings & plating, high-wear coatings, conductive surfaces
Est. U.S. addressable opportunity:
30,000 tons annually
Proposed demonstration: Thinner, lighter coatings, higher hardness, longer life
Quantified critical mineral savings:
30-60% reduction & 3-5x amplification
Low-carbon steel
Ni-Cu coated
Graphene-Ni-Cu coated
Time in salt water (hrs)
Corrosion Resistance (kΩ•cm2)
Nickel coating fights corrosion. Leveraging graphene exponentially improves protection
R. S.Raman, A.Sanjid, Small, 2024, 20, 2302498.
Copper
Targets: Conductive coatings & composites, EMI shielding, current collectors, thermal management
Est. U.S. addressable opportunity:
100,000 tons annually
Proposed demonstration: Lighter, conformal EMI shielding meshes, other conductive coatings & composites
Quantified critical mineral savings:
20-60% reduction & 1.5x-2.5x amplification
Thin graphene coatings on copper boost conductivity by up to 20%, reducing copper needed
Balandin, A. A. et al., Nano Letters, 2014, 14, 3.
Titanium
Targets: UAS structures, corrosion-resistant parts, marine hardware
Est. U.S. addressable opportunity:
40,000 tons annually
Proposed demonstration: High durability airframes, armor & corrosion-resistant hardware
Quantified critical mineral savings:
10%-30% reduction & 1.1x-1.3x amplification
Malhotra R. et al., Dent. Mater., 2021, 37, 10, 1553.
Cobalt
Targets: Battery cathodes & electrochemical formulations
Est. U.S. addressable opportunity:
4,000 tons annually
Proposed demonstration: Reduce cobalt content in cathode formulations & enable cobalt-free chemistries
Quantified critical mineral savings:
10%-30% reduction & 1.1x-1.3x amplification
Graphene content boosts batteries by 30% allowing less Cobalt use
Lung-Hao Hu. et al. Nat. Commun., 2013, 4:1687.
Indium
Targets: conductive transparent films, thermal interfaces, displays
Est. U.S. addressable opportunity:
300 tons annually
Proposed demonstration: Transparent conductive films and coatings towards flexible electronics
Quantified critical mineral savings:
25%-70% reduction & 1.5x-2.5x amplification
Graphene gives superior screen transparency, flexibility & conductivity compared to Indium, allowing complete replacement
Hernaez, M. et al. Sensors., 2017, 17(1), 155.
Ultra Low Use of Natural Flake Graphite
1 mt of LTDF Graphene Goes a Long Way
Net Saver of Natural Flake Graphite
1 mt of LTDF Graphene gives 3x to 10x amplification
Path to Scaling LTDF Production
Scalable Manufacturing
First Licensed Manufacturer
Industry Momentum
Conclusion
Conclusion (cont’d)
Partnering with Avadain is a low‑cost, high‑impact way to secure a domestic, scalable supply of a strategic material that reduces reliance on foreign CMs while enhancing the performance of next‑generation defense & energy systems
Appendix
Tables Delineating Functions that LTDF Graphene Can Reduce, Replace or Amplify Specific Critical Minerals
Mineral | |
Copper | Thinner current collectors and lighter conductors reduce Cu mass in EVs/electronics |
Nickel | Higher cathode utilization reduces Ni per kWh; graphene enables lower‑Ni chemistries |
Silver | Lower loading in conductive inks due to graphene’s conductivity and percolation efficiency |
Cobalt | Better electron/ion transport reduces Co intensity in NMC/NCA cathodes |
Graphite | Graphene‑enhanced anodes require less graphite per unit energy |
Indium | Graphene hybrid films reduce ITO thickness requirements |
Niobium | Stronger graphene composites reduce Nb alloying in high‑strength steels |
Scandium | Lightweighting reduces Sc‑Al alloy usage in aerospace structures |
Titanium | Graphene coatings reduce Ti needed for corrosion/thermal protection |
Vanadium | Graphene‑strengthened steels reduce V microalloying requirements |
REDUCE
Mineral | |
Copper | EMI shielding, antennas & some conductors can shift to graphene films/foils |
Nickel | Graphene current collectors reduce or eliminate Ni‑coated foils in some battery designs |
Silver | Printed electronics, antennas & conductive inks can move from Ag → graphene inks |
Cobalt | In select coatings and catalysts, graphene‑based alternatives can displace Co‑based materials |
Graphite | Graphene films replace graphite sheets in thermal spreaders and some anode architectures |
Indium | Transparent conductors (ITO) in displays, PV & sensors can shift to graphene films |
Niobium | Graphene‑reinforced coatings can replace Nb‑based hard coatings in some tooling |
Scandium | Graphene‑reinforced aluminum can replace Sc‑Al alloys in lightweighting applications |
Titanium | Graphene coatings can replace Ti‑based corrosion/wear layers in select industrial uses |
Vanadium | Graphene‑strengthened steels can replace V microalloying in some structural applications |
REPLACE
Mineral | |
Copper | Hybrid Cu–graphene foils enable next‑gen batteries and electronics |
Nickel | Graphene improves performance of Ni‑rich cathodes, extending their relevance |
Silver | Graphene–Ag hybrids enable ultra‑high‑performance RF and sensing applications |
Cobalt | Graphene‑supported Co catalysts increase catalytic efficiency per gram |
Graphite | LTDF graphene production increases demand for high‑purity graphite feedstock |
Indium | Graphene–In hybrid optoelectronics expand device performance envelopes |
Niobium | Nb‑graphene composites enable advanced superconducting and high‑strength applications |
Scandium | Sc‑Al‑graphene hybrids create ultra‑light, ultra‑strong aerospace materials |
Titanium | Ti‑graphene composites expand high‑temperature and corrosion‑resistant applications |
Vanadium | Graphene‑V redox flow battery components improve efficiency and lifespan |
AMPLIFY