At a glance

  • The global energy transition from fossil fuels to renewable energy sources relies heavily on batteries
  • They power smartphones, laptops, vehicles, uninterruptible power supplies (UPS), and – increasingly – homes, data centers, and industrial operations
  • But despite their benefits, batteries can pose challenges, especially in disposal,..

EU Battery Passport: A Digital Record for Battery Traceability

The European Union’s push to track batteries from sourcing through disposal is now in force. The EU Battery Regulation began progressive implementation in February 2024 and covers batteries sold across the bloc, including electric vehicle (EV), light means of transport (LMT), starting lighting and ignition (SLI), portable, industrial, and stationary energy storage types. The regulation targets sustainability, circularity, safety, and traceability throughout the battery lifecycle.

Central to the framework is the Battery Passport requirement. It establishes a digital record for each EV battery, LMT battery, and industrial battery with capacity greater than 2 kWh placed on the EU market. The passport functions as a verifiable identity for the battery, capturing manufacturer information, materials, performance and durability data, carbon footprint, and circularity metrics across its lifecycle.

Why Traceability Matters in a Fragmented Value Chain

Battery demand is rising as electrification and energy storage expand. The International Energy Agency projects that the value of battery packs for electric vehicles and energy storage could grow from $120 billion today to $330 billion by 2030 under current policy settings. Yet the supply chain remains global and difficult to audit. Lithium, nickel, and cobalt—key materials in battery manufacturing—are sourced from Argentina and Bolivia, Australia, Indonesia and the Philippines, and the Democratic Republic of the Congo, a leading source of cobalt.

Without standardized documentation, material origins, manufacturing locations, usage history, and end-of-life pathways are difficult to verify. Battery records are often fragmented across PDFs, supplier declarations, and disconnected systems. The EU Battery Passport is designed to replace that fragmentation with accessible, reliable, standardized information for customers, regulators, recyclers, and operators.

Operator Implications: From Product to Lifecycle Asset

For data center and critical infrastructure operators, the passport changes how batteries are managed. Uninterruptible power supply (UPS) systems and stationary energy storage increasingly rely on industrial batteries, many of which will fall within the regulation’s scope. The digital record can document where a battery was manufactured and how it was used, including exposure to extreme temperatures or other challenging operating conditions.

That visibility supports decisions about reuse, repair, and end-of-life planning. Operators can better assess expected performance in second-life applications and plan maintenance with greater confidence. Rather than treating a battery as a one-time product, the passport effectively creates a lightweight digital twin—a record that follows the asset over time and turns lifecycle data into actionable insights.

Market Context and Compliance Preparation

The regulation applies in Europe, but its principles are expected to influence practice beyond the bloc. Schneider Electric has mapped the products and batteries in scope, identified internal and supplier data sources, and established data governance to maintain reliable information over time. Teams across offer management, R&D, supply chain, and compliance are collaborating on battery data management rather than preparing for a one-time audit.

The company intends to apply Battery Passport principles worldwide progressively, building traceability and lifecycle data into products and processes from the beginning. For operators, this means future procurement and asset management will likely involve standardized digital records that support end-to-end traceability, data sharing, access management, and interoperability across the value chain.

As batteries become central to data center power resilience and grid storage, lifecycle transparency is no longer optional. The Battery Passport aims to make circularity achievable by giving every stakeholder a single, verifiable source of truth about what a battery contains, where it has been, and how it can be reused or recycled.

Editorial note: 'This technical analysis is synthesized from verified engineering documentation, manufacturer whitepapers and regulatory disclosures. All specifications are attributed to primary industry sources.'Schneider Electric Data Center Blog
MegaWatt Intelligence Desk

MegaWatt Intelligence Desk

Hyperscale & Grid Analyst. `More stories by $MegaWatt Intelligence Desk →`