Volt Carbon Technologies Inc · TSXV:VCT

Volt Carbon Technologies — Shareholder Meeting (June 2026)

23 slides from Volt Carbon Technologies's shareholder meeting presentation, June 2026

  1. Slide 1: Critical Minerals to Energy Storage

    Critical Minerals to Energy Storage TSX-V: VCT, OTCQB: TORVF Jun 2026

  2. Slide 2: Disclaimer

    DISCLAIMER This Investor Presentation is not to be considered an offer to sell, or a solicitation of an offer to buy, securities, as such offerings may only be made by way of exemptions from prospectus requirements and only in those jurisdictions where such securities may be lawfully offered for sal

  3. Slide 3: Novel Graphite Separation

    Novel Graphite Separation Pioneering sustainable graphite purification +20M Flake Graphite using dry separation technology Lowest carbon footprint with no water usage, outperforming traditional mining methods Mineral Processing Agreements in place for supply of graphite - lowers risk Expanding into

  4. Slide 4: Forward looking information advisory

    1 These statements are “forward looking information”. Please refer to the Forward Information Advisory on page two of this Presentation.

  5. Slide 5: Sustainable Graphite Advantage

    Sustainable Graphite Advantage Volt Carbon Process: y Electricity Graphite Concentrate Quarry Extraction Saleable tailing Byproducts Be + Iron a * Caco, & & + Silica’ Portable Processing Equipment Electricity wenn i & A ry laste Mgm’ Traditional Process: mer al Reagents | Fossil Fuels j = = = os pes

  6. Slide 6: The Volt Carbon Graphite Advantage

    The Volt Carbon Graphite Advantage Low Oxidation = Superior Stability Preserves Natural Flake Structure – Avoids mechanical damage from flotation. +30 Mesh Screen Slower Oxidation Rates – Enhances performance in high-temperature applications. (Berkwood) High Thermal Stability – Ideal for lithium-ion

  7. Slide 7: Volt's Dry Separation Method: Differentiators

    Volt’s Dry Separation Method: Differentiators Volt's Dry Separation is: Volt's Advantage 92%-98% Carbon purity Equal to current flotation methods $80-$150 Cost Per Ton Lower vs. $560-$2049 from Competition Highly Sought Low Oxidation graphite Better battery performance & stability Quarry: 0.5 - 2 ye

  8. Slide 8: Large Flake Graphite

    Large Flake Graphite Percentage of Total (%) Mesh Size Distribution & Pricing 40 $3,000 35 $2,500 30 $2,000 25 20 $1,500 +30M Flake Graphite 15 $1,000 10 $500 5 0 $0 10-20 Super Jumbo 20-30 Jumbo 30-40 XX-Large 40-48 X-Large 48-80 Large 80-150 Medium-Small Graphite Mesh Size Volts Dry Separation rec

  9. Slide 9: Preliminary Carbon Credit Feasibility Study

    Preliminary Carbon Credit Feasibility Study Category Traditional Process Volt's Dry Separation 75KTons/Year example Greenhouse 99% reduction Up to 1.0M tons of CO₂e Gas Up to 13.7 kg CO₂e/kg 0.123–0.15 kg CO₂e/kg reduction per year 100% reduction Up to 5.625 Billion Litre Water Usage Up to 75L/kg 0

  10. Slide 10: Graphite - Potential Cost Models

    +30M Flake Graphite (Berkwood) Graphite - Potential Cost Models  Management estimates that a 50/50% profit arrangement can gross $1000 to $1200 per ton of Graphite for Volt based on the quality and size of the flake graphite.1  By way of example, taking the existing GEM agreement into consideratio

  11. Slide 11: Expandable Graphite Thermal Protection for Battery Systems

    Expandable Graphite Thermal Protection for Battery Systems Expandable graphite provides a passive, self-activating thermal barrier that protects battery packs during thermal runaway events. When exposed to elevated temperatures (typically 150 to 300°C), expandable graphite expands up to 200 to 300 t

  12. Slide 12: Graphite Wet Flotation vs Dry Separation

    Graphite Wet Flotation (Current) $560-$2000/Ton Up to 75L Water/kg Lower Crystallinity, Smaller Flakes Patented Graphite Dry Separation (State of the Art) Finer Particles ee Settle Downstream Flake Graphite Settles _ Flake Graphite into Collection System a -20m Collector -40m | -60m | $75-$150/Ton O

  13. Slide 13: Bending Strength of the Epoxy-RGO composites

    Bending Strength of the Epoxy-RGO composites ▪ The incorporation of reduced graphene oxide (RGO) into the epoxy matrix enhances the bending mechanical strength by approximately 60%. Sample Max. Load (N) Pure Epoxy Epoxy-RGO Pure Epoxy 74.1 Epoxy-0.5wt% RGO 119.5 (↑61.3%) 13 This slide contains “forw

  14. Slide 14: Solid UltraBattery – Guelph, Ontario

    Solid UltraBattery – Guelph, Ontario Commissioned in 2021, Advancing next- generation solid-state battery technology for commercialization Proprietary lithium-metal battery solutions tailored for automotive, aerospace, and energy storage Strategic partnerships with leading research institutions & in

  15. Slide 15: Next Step - Battery Plant Expansion to Megawatt Factory

    Next Step - Battery Plant Expansion to Megawatt Factory  Buildout of Phase 1 Completed in 2021  Future Fund Raise to transform Guelph plant into a Mega factory. 1 The plant will produce battery products that generate revenue.  Solid UltraBattery is actively pursuing partnerships and licensing opp

  16. Slide 16: Lithium Metal Pouch Cell

    Lithium Metal Pouch Cell ▪ Capacity: 5 Ah Target Cell ▪ Voltage: 2.8V – 4.2V Operating ▪ Size: 10cm x 10cm x 0.5cm ▪ Energy Density, 2 Versions: ▪ 260 Wh/kg ▪ 400 Wh/kg ▪ Mass Est: 75 g (260 Wh/kg) ▪ Mass Est: 50 g (400 Wh/kg) 16

  17. Slide 17: BMLMP Results – In Partnership with C4V

    1 BMLMP Results – (In Partnership with C4V) 1) BMLMP, Bio-Mineralized Lithium Mixed Metal Phosphate 2) Per Volt Carbon News Release Feb 4, 2025 17 This slide contains “forward looking information”. Please refer to the Forward Information Advisory on page two of this Presentation.

  18. Slide 18: Cycle Life Performance of Lithium Metal Pouch Cell

    Cycle Life Performance of Lithium Metal Pouch Cell 18 This slide contains “forward looking information”. Please refer to the Forward Information Advisory on page two of this Presentation.

  19. Slide 19: Battery Cold Performance

    Battery Cold Performance ▪ Development of a liquid electrolyte to Cold Temperature Capacity Retention improve low-temperature performance. 100.0% 90.0% 80.0% ▪ Low-temperature performance targets 70.0% Capacity Retention ≥70% retention capacity @-60° C 60.0% 50.0% ▪ Room-temperature and cycle life 4

  20. Slide 20: Battery cell structure

    — Anode ~< Separator Electrolyte

  21. Slide 21: Mount Copeland

    5 VOLT comer MOUNT COPELAND REE, MOLYBDENUM & RHENIUM ADVANCEMENT Mount Copeland is a multi-commodity critical minerals asset with exposure to rare earth elements, molybdenum, niobium, and rhenium in the heart of British Columbia, RARE EARTH RHENIUM >ROCESSIN STRATE POTENTIAL TENTIAL ADVANTAGE POSMO

  22. Slide 22: Board of Directors, Management Team, Advisory Board

    Board of Directors Management Team Advisory Board 22 TSX-V: VCT, OTCQB: TORVF

  23. Slide 23: Thank You

    Thank You 23 TSX-V: VCT, OTCQB: TORVF

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