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Get in touchEV battery logistics is evolving rapidly. Here's how to stay ahead.
From raw material concentration to hazmat compliance, automotive OEMs face a new tier of supply chain risk. The brands that plan now will be better positioned for success.
Key Takeaways
EV batteries are Class 9 dangerous goods, subject to overlapping regulatory frameworks across air, sea and road—each with its own compliance requirements.
Raw material concentration is the most acute structural risk: cobalt, lithium and graphite supply is geographically concentrated, with regional undersupply gaps widening.
Resilience requires four actions: regionalized sourcing, tier supplier visibility, real-time shipment tracking, and compliance-led carrier selection.
Choosing the right logistics partner—one with multimodal dangerous goods capability across jurisdictions—is a baseline requirement, not a premium.
EV production has moved from niche to mainstream faster than most automotive supply chains were designed to handle. Global demand for lithium-ion (Li-ion) batteries crossed 1.0 terawatt-hour (TWh) in 2024 and likely reached nearly 1.6 TWh in 2025, according to McKinsey. To keep pace, OEMs need to reevaluate the infrastructure required to source, move and deliver those batteries.
Building resilience into an EV battery supply chain goes beyond simply eliminating risk. It's about understanding exactly where the vulnerabilities are and having the logistics infrastructure to absorb shocks without losing production continuity.
For automotive original equipment manufacturers (OEMs), the battery supply chain is now one of the most vulnerable parts of the business. The Democratic Republic of Congo supplies 64% of global cobalt; lithium is concentrated in Argentina, Bolivia and Chile; and China handles a dominant share of refinement for all three critical materials. A disruption anywhere in this chain puts production at risk of delays or complete stoppage.
The IEA's Global EV Outlook 2026 confirms that battery demand growth is outpacing the build-out of processing and logistics capacity. For OEMs, the implications are structural, not cyclical.
At least 120 to 150 new battery factories will need to be built between now and 2030 globally.
McKinsey, Battery 2030
What makes EV battery logistics different from traditional auto parts?
Shipping a lithium-ion battery requires an extra level of care compared to most auto parts. EV batteries are classified as Class 9 dangerous goods, hazardous materials subject to strict regulatory controls across every mode of transport.
Each framework has its own classification, packaging, documentation and training requirements. The consequences of non-compliance—fines, seizure of shipments, criminal prosecution and loss of operator licenses—are significant and apply per violation across all applicable jurisdictions.
By air, the IATA Dangerous Goods Regulations (DGR) require batteries to pass UN 38.3 testing and maintain a state of charge (SOC) of 30% or below. The 2025–2026 DGR cycle also introduced tightened inner packaging and marking requirements. Electronic documentation submission has been mandatory since January 2025. By sea, the International Maritime Dangerous Goods (IMDG) Code applies. On European roads, ADR governs transport. In the US, DOT and PHMSA set the rules.
Compliance requirements also differ by shipment type. Shipments such as cell-level, module-level and full battery pack each carry different classification rules, packaging specifications and documentation obligations. A carrier that handles cells correctly may not be equipped to handle packs.
For OEMs managing battery supply across multiple tiers and geographies, compliance with these regulations is key to logistics success.
The sourcing risks every automotive OEM needs to understand
European OEMs are moving toward LFP as a cost-reduction lever, but Chinese government export restrictions on battery technologies could limit that option, adding further pressure on both cost and supply security.
For procurement and supply chain teams, these restrictions and supply gaps make cost control and de-risking simultaneous priorities, and ones that frequently pull in opposite directions.
The WEF's 2025 Powering the Future report identifies critical mineral supply concentration as one of the primary systemic risks to energy transition timelines.
Raw material concentration is the most structurally acute risk in the EV battery supply chain.
McKinsey projects North America faces a 50 gigawatt-hour (GWh) undersupply of lithium-ion batteries against the current trajectory; Europe faces a gap of around 70 GWh even if all announced production projects come online. Both regions will depend on imports drawn from the same geographically concentrated supply base that makes those imports vulnerable.
The structural reality is this: demand is regionalizing while supply isn't. That gap is the sourcing risk.
Geopolitical pressure is already reshaping the market. US tariffs on Chinese imports caused the share of lithium iron phosphate (LFP) batteries in the US to fall sharply in 2025, leading to higher landed costs and tighter domestic sourcing requirements.
Four ways to build a more resilient EV battery supply chain
Automotive OEMs can build resilience through deliberate structural decisions. Here are four areas to focus on:
1. Regionalize and diversify your sourcing
Single-region dependency on cell supply is the highest-concentration risk in most OEM battery strategies. McKinsey recommends that each region cover more than 90% of local cell demand and more than 80% of active material demand.
2. Map beyond tier one
Most OEM visibility stops at tier 1 suppliers. Battery supply chains require a line of sight into raw material suppliers, refiners and cell manufacturers.
3. Invest in real-time shipment visibility
For hazmat shipments, delays carry both operational and compliance consequences. Real-time visibility allows your team to identify exceptions early and act before they escalate.
4. Build compliance capability into carrier selection
For your EV logistics, dangerous goods certification across all relevant modes is a baseline qualification for any carrier.
The four actions are interdependent. Regionalized sourcing without tier supplier visibility creates a blind spot: you've diversified the geography but not the risk. Real-time tracking without compliance-led carrier selection solves one problem while creating another.
The common thread is logistics execution. An OEM can have the right sourcing strategy, the right supplier map and the right contingency plans, and still face a production stoppage if its logistics provider cannot move batteries across the required modes, jurisdictions and regulatory frameworks without incident.
That's why carrier selection is the fourth action. It's the capability that makes the other three work in tandem.
What your EV battery logistics partner needs to get right
Dangerous goods certification across all modes
Your partner needs IATA certification for air, IMDG compliance for sea, ADR qualification for European road and DOT/PHMSA compliance for US operations. Certification at one mode does not transfer to another.
Multimodal flexibility
The ability to shift between air, sea and road when one mode faces capacity constraints or regulatory holds. For time-sensitive battery components, a single-mode provider creates unnecessary exposure.
Hazmat documentation workflows
UN 38.3 test summary management and electronic submission capability are operational requirements. Confirm your provider has them built into the standard process, not handled ad hoc.
Customs and trade compliance expertise
Local regulatory knowledge in key battery-producing and battery-consuming markets—particularly China, South Korea, Germany and the United States—where requirements are most demanding and change most frequently.
End-to-end visibility
Real-time tracking with automated exception alerts, so your team knows where shipments are and can act when something deviates from expected parameters.
How Kuehne+Nagel supports EV battery supply chains for automotive OEMs
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Risks such as regulatory complexity, raw material concentration, multi-jurisdiction compliance are where logistics execution becomes a competitive differentiator.
Kuehne+Nagel has the dangerous goods capability to move EV batteries across all relevant modes. Our teams are IATA-certified for air, IMDG-compliant for sea, and ADR and DOT/PHMSA-qualified for road operations in Europe and the US.
Our multimodal network—air, sea, road and rail, with Sea-Air as a hybrid option where regulation and timing permit—means your battery supply chain is not dependent on a single mode. Kuehne+Nagel teams have local compliance knowledge in the markets that matter most to automotive OEMs: China, South Korea, Germany and the United States.
FAQs
1. How do I reduce raw material concentration risk in my EV battery supply chain?
Start below tier one. Most concentration risk sits at the raw material and refining level, not at the cell manufacturer. Build procurement relationships across multiple geographies before a disruption forces the issue. Reactive re-sourcing under pressure is slower and more expensive than pre-positioned alternatives.
2. What is Sea-Air freight, and is it suitable for EV battery components?
Sea-Air combines ocean and air legs to cut transit time by around 50% versus full sea freight, at significantly lower cost than full air. It can also reduce CO₂ emissions by up to 50% compared to air. Suitability depends on battery configuration and the dangerous goods rules applicable to each leg. Confirm classification requirements before you book by speaking to a Kuehne+Nagel logistics expert.
3. How does real-time visibility help with hazmat compliance?
For Class 9 shipments, a delay doesn't just cost time. Extended port holds can trigger documentation re-submission, re-inspection and re-certification. Visibility lets you act on an exception—a hold, a routing change, a documentation query—before it compounds. The earlier the intervention, the lower the cost.
4. What should I look for in a logistics provider for EV battery shipments?
Five things: dangerous goods certification for each mode separately (IATA, IMDG, ADR, DOT/PHMSA don't transfer between modes); multimodal re-routing capability; hazmat documentation workflows built into standard process; in-market compliance expertise in China, South Korea, Germany and the US; and end-to-end digital visibility with automated exception alerts as a default, not an add-on.
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