Supply Chain Regulation Map
Explore how environmental regulations such as PFAS restrictions and the EU Battery Regulation reshape global supply chains and corporate risk exposure.
Legend & Map Guide
This map details compliance paths for the EU Battery Regulation, but global players are simultaneously impacted by US IRA FEOC exclusions. Battery packs containing China-processed anode/cathode minerals lose eligibility for US EV tax credits. Developing dual-compliant sourcing networks is a critical strategic priority.
Cobalt (Co)
An essential metal for EV lithium-ion battery cathodes (NCM/NCA). Over 70% of global mining is concentrated in the Democratic Republic of Congo (DRC), facing human rights and child labor scrutiny. High-priority target under EU Battery Regulation due diligence.
Lithium (Li)
Key mineral for active materials and electrolytes. While Chile, Argentina, and Australia hold the largest reserves, China controls over 50% of global refining capacity, triggering IRA FEOC exclusion criteria. Recycled lithium content targets are set by the EU.
Natural Graphite
The dominant anode material. China accounts for approximately 70% of natural graphite mining globally. China's export controls, coupled with USA IRA FEOC regulations, make establishing alternative supply lines a critical priority.
Nickel (Ni)
Crucial for high-energy density NCM/NCA cathodes. Indonesia, Australia, and the Philippines are major producers, but Chinese companies dominate Indonesian refining. Subject to EU DD audits and environmental scrutiny.
Manganese (Mn)
An component in LFP (lithium iron phosphate) and emerging LMFP formulations. Main sources are South Africa and Australia, but refining is concentrated in China.
Cathode (NCM/NCA/LFP)
The core material determining cell energy density and cost. Cathode synthesis is the most carbon-intensive step. Its carbon footprint (CFP) must be registered in the Battery Passport database.
Anode (Graphite/Silicon)
Mostly natural or synthetic graphite. The high reliance on Chinese raw materials directly triggers USA IRA FEOC exclusions, making this node a major bottleneck.
Electrolyte & Separators
Electrolyte comprises lithium salts (LiPF₆) in organic solvents. Separators are porous polymer sheets (e.g., Asahi Kasei, Toray). Sourcing low-carbon electricity for separator plants is a key competitive factor.
Battery Cell Manufacturing
The primary cell assembly process. Demands massive electrical energy. Sourcing renewable power is critical to achieving a competitive carbon footprint score.
Battery Pack Assembly
The physical hub for the Battery Passport. Packs must carry a physical QR code linking to the digital record of CFP, due diligence reports, recycled content, and state of health (SOH).
BMS (Battery Management System)
The electronic monitoring system. Collects battery state-of-health (SOH) and lifetime cycling data, acting as the primary data interface for the Battery Passport.
Japanese OEMs
Japanese brands (Toyota, Nissan, Honda) are building compliance systems for EU exports. Securing carbon footprint tracking tools and setting up recycling loops is critical.
Western & Korean OEMs
Tesla, VW, BMW, and Hyundai are expanding localized cell supply lines. European OEMs leverage the EU Battery Regulation as a competitive barrier. Tesla has declared early compliance objectives for Giga Berlin, though reliance on Chinese materials remains a shared challenge.
Spent Battery Reuse
Second-life battery applications, primarily stationary energy storage systems (BESS). The EU mandates a 51% recovery rate for traction batteries by 2028.
Recycling & Regeneration
Extracting cobalt, lithium, and nickel from spent cells (black mass) and re-introducing them into cathode precursors. Essential for meeting future EU recycled content mandates.
Raw Mineral Mining
Cobalt (Co)
Extreme RiskAn essential metal for EV lithium-ion battery cathodes (NCM/NCA). Over 70% of global mining is concentrated in the Democratic Republic of Congo (DRC), facing human rights and child labor scrutiny. High-priority target under EU Battery Regulation due diligence.
Lithium (Li)
Extreme RiskKey mineral for active materials and electrolytes. While Chile, Argentina, and Australia hold the largest reserves, China controls over 50% of global refining capacity, triggering IRA FEOC exclusion criteria. Recycled lithium content targets are set by the EU.
Natural Graphite
Extreme RiskThe dominant anode material. China accounts for approximately 70% of natural graphite mining globally. China's export controls, coupled with USA IRA FEOC regulations, make establishing alternative supply lines a critical priority.
Nickel (Ni)
High RiskCrucial for high-energy density NCM/NCA cathodes. Indonesia, Australia, and the Philippines are major producers, but Chinese companies dominate Indonesian refining. Subject to EU DD audits and environmental scrutiny.
Manganese (Mn)
High RiskAn component in LFP (lithium iron phosphate) and emerging LMFP formulations. Main sources are South Africa and Australia, but refining is concentrated in China.
Refining & Materials
Cathode (NCM/NCA/LFP)
Extreme RiskThe core material determining cell energy density and cost. Cathode synthesis is the most carbon-intensive step. Its carbon footprint (CFP) must be registered in the Battery Passport database.
Anode (Graphite/Silicon)
Extreme RiskMostly natural or synthetic graphite. The high reliance on Chinese raw materials directly triggers USA IRA FEOC exclusions, making this node a major bottleneck.
Electrolyte & Separators
High RiskElectrolyte comprises lithium salts (LiPF₆) in organic solvents. Separators are porous polymer sheets (e.g., Asahi Kasei, Toray). Sourcing low-carbon electricity for separator plants is a key competitive factor.
Cell & Pack Assembly
Battery Cell Manufacturing
Extreme RiskThe primary cell assembly process. Demands massive electrical energy. Sourcing renewable power is critical to achieving a competitive carbon footprint score.
Battery Pack Assembly
Extreme RiskThe physical hub for the Battery Passport. Packs must carry a physical QR code linking to the digital record of CFP, due diligence reports, recycled content, and state of health (SOH).
BMS (Battery Management System)
High RiskThe electronic monitoring system. Collects battery state-of-health (SOH) and lifetime cycling data, acting as the primary data interface for the Battery Passport.
EV Manufacturing & Distribution
Japanese OEMs
Extreme RiskJapanese brands (Toyota, Nissan, Honda) are building compliance systems for EU exports. Securing carbon footprint tracking tools and setting up recycling loops is critical.
Western & Korean OEMs
High RiskTesla, VW, BMW, and Hyundai are expanding localized cell supply lines. European OEMs leverage the EU Battery Regulation as a competitive barrier. Tesla has declared early compliance objectives for Giga Berlin, though reliance on Chinese materials remains a shared challenge.
Second Life & Recycling
Spent Battery Reuse
Medium Risk / OpportunitySecond-life battery applications, primarily stationary energy storage systems (BESS). The EU mandates a 51% recovery rate for traction batteries by 2028.
Recycling & Regeneration
Medium Risk / OpportunityExtracting cobalt, lithium, and nickel from spent cells (black mass) and re-introducing them into cathode precursors. Essential for meeting future EU recycled content mandates.
⚠️Critical Battery Regulations & Bottlenecks
Hover over any bottleneck to highlight the affected supply chain nodes above.
CFP Cap & Limits (Carbon Footprint Limits)
The EU Battery Regulation will implement maximum carbon footprint limits starting in 2028. Battery models exceeding these limits will be barred from the EU market. Transitioning cathode synthesis and cell manufacturing to renewable power is the primary challenge.
Supply Chain Due Diligence (Human Rights & Environmental DD)
Mandatory supply chain due diligence starts August 18, 2027. Operators placing batteries on the EU market must prove that cobalt, lithium, nickel, and natural graphite are sourced without human rights violations or ecological damage. Third-party audits are required.
Digital Battery Passport
Effective February 18, 2027, all EV traction batteries must carry a physical QR code linking to a Digital Battery Passport. This records CFP data, due diligence reports, recycled material shares, and SOH. Interoperability with frameworks like Catena-X is key.
