Next-Generation Battery Technology

Capitalizing on global research and development efforts in sodium-ion battery technology to fuel our vehicles.

Strategy Foundation

Our strategy is built on the latest research in battery technology. Sodium-ion batteries represent a complete shift in energy storage, offering unique advantages for cold-climate applications.

Alkaline-based aqueous sodium-ion batteries for large-scale energy storage

Groundbreaking research demonstrating sodium-ion batteries achieving 13,000 cycles at 10C with superior cold-weather performance from -40°C to +60°C.

Nature Communications, volume 15, Article 575 (2024)

High-performance Na₃V₂(PO₄)₃/C cathode for efficient low-temperature lithium-ion batteries

Research showing 84.33% capacity retention at -20°C, demonstrating exceptional cold-weather performance critical for Canadian applications.

NPG Asia Materials, volume 17, Article 10 (2025)

Extending the low-temperature operation of sodium metal batteries

Comprehensive study on sodium battery operation down to -80°C using specialized electrolyte formulations, proving viability in extreme cold conditions.

Nature Communications, volume 13, Article 4934 (2022)

Why Sodium-Ion Now?

For decades, sodium-ion batteries remained a laboratory curiosity due to low energy density. Recent breakthroughs have changed everything, making commercial viability possible for the first time.

Breakthrough new material brings affordable, sustainable future within grasp

University of Houston researchers achieved a game-changing 458 Wh/kg energy density with sodium vanadium phosphate (NaxV2(PO4)3), representing a 15% improvement over previous sodium-ion materials and bringing the technology within striking distance of lithium-ion performance.

Nature Materials, volume 24, pages 234–242 (2025)

Interfacial engineering to achieve an energy density of over 200 Wh kg⁻¹ in sodium batteries

Chinese Academy of Sciences demonstrates sodium-ion batteries achieving over 200 Wh/kg - higher than commercial LiFePO4 batteries - through advanced interfacial engineering and anode-free configurations.

Nature Energy, volume 7, pages 511–519 (2022)

Critically assessing sodium-ion technology roadmaps and scenarios for techno-economic competitiveness

Stanford University's comprehensive 2025 analysis of 6,000+ scenarios shows sodium-ion batteries can achieve cost competitiveness with lithium-ion by the 2030s, driven by recent energy density improvements and supply chain advantages.

Nature Energy, volume 10, pages 404–416 (2025)

The Tipping Point

Energy density improvements from ~150 Wh/kg to 200+ Wh/kg have made sodium-ion commercially viable for the first time.

Cost Breakthrough

Recent materials advances enable sodium-ion to approach $10/kWh compared to $75-100/kWh for lithium batteries.

Perfect Timing

Supply chain disruptions and lithium price volatility create the ideal market conditions for sodium-ion adoption.

Industrial Development & Commercial Progress

Leading manufacturers are rapidly scaling sodium-ion battery production, validating the technology's commercial viability.

Technology Comparison

How sodium-ion technology compares to traditional lithium-ion batteries.

Feature Sodium-Ion Lithium-Ion Source
Cold Weather Performance Superior (-40°C operation) Limited (degrades below -20°C) Nature Comm. 2022
Safety Enhanced thermal stability Fire risk when damaged NPG Asia 2025
Cost $10/kWh (projected) $75-100/kWh Yahoo News 2025
Resource Availability Abundant (seawater, salt deposits) Limited (specific mineral deposits) Nature Comm. 2024
Cycle Life 13,000+ cycles demonstrated 1,500-3,000 cycles typical Nature Comm. 2024

Technology Roadmap

The rapid advancement of sodium-ion battery technology positions it as the ideal solution for Canadian electric vehicles in the immediate future. Looking further, we will collaborate with Canadian research groups and universities to advance our own battery technologies and infrastructure.

Commercial Viability Timeline

CATL's mass production begins Q4 2025, with second-generation batteries achieving 200+ Wh/kg energy density and 500km vehicle range capability.