Statistics & Highlights

Market Snapshot

Market size in USD Million
$1,533.00M
2025
Base year
$1,865.05M
2026
CAGR illustration
  
$4,085.12M
2030
Forecast

Middle bar: base-year value × (1 + CAGR), rounded to two decimals. This is a calculated illustration, not a separately researched annual estimate.

Largest market
Asia-Pacific
Fastest growing
Buses and Trucks
Dominant segment
Critical
Concentration
Fragmented
CAGR
21.66%
2026 – 2030
GROWTH
+$2,552.12M
Absolute
STUDY PARAMETERS
Base year2025
Historical period2021 – 2025
Forecast period2026 – 2030
Units consideredValue (USD Million)
REPORT COVERAGE
Segments covered9
Regions covered4
Companies profiled16
Report pages270
DeliverablesPDF, Excel, PPT

The global damaged EV battery logistics market size is estimated at USD 1,533.00 million in 2025 and is projected to reach USD 4,085.12 million by 2030, growing at a CAGR of 21.66% over 2026 – 2030. The number of damaged, defective and recalled traction battery packs handled each year grows from about 420,000 to 1,045,000, a 20.00% annual rate, while the average cost of handling each pack rises from about USD 3,650 to USD 3,909.

Marqstats defines the market as spending on the triage, certified packaging, quarantine storage and dangerous goods transport of damaged, defective and recalled lithium-ion traction batteries from electric cars, commercial vehicles and light electric vehicles, and of rejected cells and modules from battery plants. Healthy end-of-life batteries moving through standard collection programmes, recycling and shredding fees, battery repair and second-life refurbishment are excluded.

Critical damaged batteries, which are liable to catch fire or react dangerously, account for an estimated 62.46% of 2025 spending. OEM recall and warranty logistics account for 37.00% and passenger vehicle batteries for 72.50%. Asia-Pacific accounts for 46.50% of 2025 spending and Europe for 31.00%. The study segments the market by damage severity, service type, vehicle type and region.

Executive Summary

Key Takeaways

The global damaged EV battery logistics market reaches USD 4,085.12 million by 2030 from USD 1,533.00 million in 2025, a 21.66% CAGR and an absolute gain of USD 2,552.12 million. The number of packs handled each year grows from about 420,000 to 1,045,000, a 20.00% annual rate, as more than 20 million electric cars sold in 2025 add to an ageing fleet, early battery warranties expire and recalls grow larger.
Critical batteries drive spending. Packs classed as liable to react dangerously make up about 43% of the batteries handled in 2025 but 62.46% of spending, because each one costs about USD 4,200 to 10,550 to move, against USD 410 to 870 for a healthy end-of-life pack. Certified fire-containment boxes, single-load trucks, high-voltage extraction and monitored quarantine make a critical pack ten to twelve times more expensive to move than a healthy one, and Marqstats estimates critical spending grows at 22.25% a year to USD 2,615.00 million and 64.01% of the market by 2030.
Recalls create sudden demand. Volkswagen recalled 43,881 ID.4 vehicles in the United States in January 2026 over battery modules that may overheat, and Stellantis recalled about 320,000 Jeep Wrangler 4xe and Grand Cherokee 4xe plug-in hybrids in October 2025 over battery fire risk. Each campaign requires dealers to test, isolate and return suspect modules under dangerous goods rules.
Commercial vehicle batteries grow fastest. Spending on damaged bus and truck batteries rises at 23.89% a year to USD 939.58 million by 2030, because packs of 200 kWh to more than 600 kWh need lifting equipment, multi-tonne containment frames and special route approvals.
Europe has the highest compliance costs. Spending in Europe grows at 22.05% a year to USD 1,286.81 million as the EU waste shipment regulation, applicable since 21 May 2026, requires prior consent and financial guarantees for cross-border shipments of hazardous battery waste.
Crash recovery grows fastest among services. Incident and crash recovery logistics grows at 22.48% a year to USD 1,225.54 million by 2030, as insurers and fire codes require damaged electric vehicles to be moved quickly from body shops, salvage yards and impound lots.
Container supply is a bottleneck. Certified fire-containment boxes for large traction packs sell for about EUR 6,600 to 22,000 each, and limited supply raises rental rates and slows the movement of critical batteries.
Market Insights

Market Overview & Analysis

Report Summary

Marqstats sizes the damaged EV battery logistics market as spending on handling, packaging, storing and transporting lithium-ion traction batteries that are damaged, defective or recalled. In 2025 the market was worth an estimated USD 1,533.00 million and handled about 420,000 packs and equivalent module assemblies. The market grew from USD 615.40 million in 2021, USD 785.20 million in 2022, USD 998.60 million in 2023 and USD 1,245.00 million in 2024.

Damaged lithium-ion batteries are among the most tightly regulated dangerous goods. A damaged cell can short-circuit internally hours or days after a crash, reach temperatures above 1,000 °C, release toxic and flammable gases including hydrogen fluoride, and eject burning material. Every step from roadside recovery and dealer quarantine to road transport and recycling plant intake is covered by dangerous goods rules.

Four sources supply damaged batteries. Battery plants reject cells and modules with coating, winding or formation defects, with scrap rates of 6% to 12% during plant ramp-up and 3.5% to 5% on mature lines. Road crashes and flooding damage battery packs mounted under vehicles. OEM recalls pull back modules with manufacturing or software defects. Dealer warranty returns bring back packs with premature capacity loss or cell imbalance. Marqstats estimates plant scrap accounted for about 185,000 units in 2025, crashes and flooding for 118,500, recalls for 78,200 and warranty returns for 38,300.

Classification decides cost. Under the European road dangerous goods agreement ADR, special provision 376 requires damaged batteries to be assessed as either non-critical, which may move in packaging under packing instructions P908 or LP904, or critical, which must move in packaging under P911 or LP906 that keeps the outer surface below 100 °C during a full thermal runaway. In the United States, 49 CFR 173.185(f) governs damaged, defective and recalled batteries and bans them from aircraft, and large traction packs usually move under special permits issued by the Pipeline and Hazardous Materials Safety Administration. China sets packing and transport rules for used traction batteries under GB/T 38698.1-2020 and take-back network rules under GB/T 38698.2-2023.

Damaged batteries are handled by three groups. Dangerous goods logistics providers such as DHL Supply Chain, RPM and Bluewater Battery Logistics collect and transport batteries. Packaging makers such as ZARGES, Genius, BUNCKER, Bauer and Americase build certified fire-containment boxes. Recyclers and stewardship organisations such as Call2Recycle, Redwood Materials, Cirba Solutions, Umicore and Li-Cycle receive, discharge and recycle the batteries.

Triage happens before transport. Certified high-voltage technicians inspect each suspect battery visually, with thermal cameras and with electronic tests of insulation resistance and cell voltages, before deciding how it must be packed. Batteries showing self-heating or serious internal faults, or vehicles that have been flooded, burned or deformed in a crash, are held in outdoor quarantine yards with about 15 metres of separation from buildings and continuous infrared monitoring, at a cost of about USD 45 to 120 per day, until they are stable enough to move.

Global Damaged EV Battery Logistics Market Size and Forecast

The global damaged EV battery logistics market grows from USD 1,533.00 million in 2025 to USD 4,085.12 million in 2030, a CAGR of 21.66%. Marqstats expects USD 1,885.50 million in 2026, USD 2,310.20 million in 2027, USD 2,815.80 million in 2028 and USD 3,410.50 million in 2029. Annual growth slows gradually from about 23% in 2026 to about 20% in 2030 as the EV fleet grows from a larger base.

Volumes grow with the fleet. The number of packs handled rises from about 420,000 in 2025 to 510,000 in 2026, 615,000 in 2027, 735,000 in 2028, 880,000 in 2029 and 1,045,000 in 2030. Growth comes from the ageing of electric vehicles sold since 2018, the expiry of eight-year battery warranties on the first high-volume model years, new battery plants with high ramp-up scrap rates and larger recalls.

Unit costs rise rather than fall. Marqstats estimates the average cost of handling a damaged pack rises from about USD 3,326 in 2021 and USD 3,650 in 2025 to USD 3,909 in 2030. Larger bus and truck packs, longer routes to a small number of specialised recycling plants and wider use of P911-certified containers outweigh efficiency gains from better diagnostics.

Costs vary sharply by condition. Marqstats estimates moving a healthy end-of-life pack costs USD 410 to 870 in total, including USD 60 to 120 for a standard steel rack and USD 250 to 550 for shared freight. A non-critical damaged pack costs USD 1,300 to 2,730, including a certified box rental of USD 350 to 700 and specialised regional freight of USD 550 to 1,100. A critical pack costs USD 4,200 to 10,550, including USD 1,200 to 2,800 for a heavy containment box, USD 350 to 850 for fire-suppressing granulate, USD 1,800 to 4,200 for a dedicated truck, USD 450 to 1,200 for high-voltage extraction and USD 400 to 1,500 for monitored quarantine.

The mix shifts slightly towards critical batteries and heavy vehicles. Critical batteries rise from 62.46% to 64.01% of spending, commercial vehicle batteries from 21.00% to 23.00%, and crash recovery from 29.00% to 30.00%. Asia-Pacific remains the largest region, while Europe and North America gain share as compliance costs rise.

Marqstats tracks four indicators to monitor the forecast: the number and size of battery-related recalls filed with safety regulators, electric vehicle crash and flood claims reported by insurers, scrap rates at new battery plants, and rental and purchase prices of certified containment boxes. Larger recalls or stricter rules requiring critical packaging for every crash-damaged battery would push spending above the base path, while better onboard diagnostics and battery passports that reduce misclassification of healthy batteries would slow it.

Market Dynamics

Key Drivers

Five forces are expanding spending on moving damaged and defective EV batteries.

  • The EV fleet is growing and ageing. More than 20 million electric cars were sold worldwide in 2025, and as vehicles sold since 2018 age, more batteries fail, are damaged in crashes or reach the end of their warranties.
  • Recalls are getting larger. Battery recalls such as Stellantis campaign 25V741 for about 320,000 plug-in hybrids and Volkswagen campaign 26V030 for 43,881 ID.4 vehicles require dealers to test, isolate and return large numbers of suspect modules.
  • Packaging rules are strict. ADR special provision 376 requires critical batteries to move in P911 or LP906 packaging that keeps the outer surface below 100 °C, and the transition period for the ADR 2025 amendments ended on 30 June 2025.
  • Battery plants generate scrap. New gigafactories in China, Europe and North America reject 6% to 12% of output during ramp-up, and rejected cells cannot be stored on factory floors because of fire risk.
  • Insurers and fire codes demand fast removal. Underwriters and fire authorities require damaged electric vehicles to be stored with physical separation and monitoring, pushing tow operators, salvage yards and body shops to move them out quickly with specialised carriers.

Key Restraints

Four constraints raise the cost and slow the movement of damaged EV batteries.

  • Certified containers are expensive and scarce. Heavy containment boxes for large packs cost about EUR 6,600 to 22,000 each and weigh 400 to 1,200 kg empty, reducing truck payloads and raising freight costs.
  • Transport options are limited. Damaged batteries cannot travel by air, many rail operators restrict them, and shared less-than-truckload networks usually refuse critical batteries, leaving dedicated trucks as the main option.
  • Cross-border shipments need approval. The EU waste shipment regulation requires prior written consent and financial guarantees for hazardous battery waste, slowing movements to recyclers in Germany, Belgium and the Nordic countries.
  • Skilled staff are scarce. High-voltage technicians for field triage and drivers with dangerous goods qualifications are in short supply in many markets.

Key Trends

Four shifts are changing how damaged EV batteries are classified, packed and moved.

  • Battery passports improve classification. The EU Battery Regulation requires digital battery passports for electric vehicle batteries placed on the EU market from February 2027, giving handlers access to state-of-health and fault data that help separate genuinely dangerous batteries from healthy ones.
  • Logistics providers build battery centres. DHL operates EV Centers of Excellence in Europe, the Americas and Asia-Pacific and offers a red-status service for accident-damaged batteries, and other carriers are building similar networks.
  • Special permits shape US packaging. The Pipeline and Hazardous Materials Safety Administration issued the sixth revision of special permit DOT-SP 21442 in July 2026 for alternative packaging of damaged, defective and recalled lithium-ion batteries by road and rail, and other permits cover larger containers.
  • Containers are getting smarter. New boxes combine fire-suppressing granulate, gas filters and temperature sensors, and products such as the Obexion AG Bin carry special permits for shared freight.

Strategic Implications

  • For carmakers and battery makers, safe returns protect the brand. A battery fire during transport costs far more than certified packaging, so OEMs need pre-qualified carriers, container pools and dealer training before a recall begins.
  • For logistics providers, permits are the barrier to entry. Profit comes from dangerous goods authorisations, trained drivers, triage technicians and container fleets rather than freight volume, and providers that link dealers, salvage yards and battery plants directly with recyclers will win long-term contracts.
  • For packaging makers, rental models fit demand. Recalls create sudden demand peaks, so pooled rental of certified boxes can serve OEMs better than outright sale.
  • For recyclers, intake capacity matters. Recyclers that can receive critical batteries safely, with immersion tanks, inert-gas shredders and quarantine yards, can capture more feedstock and reduce transport distances.
  • For regulators, faster approvals cut risk. Electronic waste shipment notifications, clear triage criteria and faster special permit processing would reduce the time damaged batteries spend in storage.
  • For insurers and salvage operators, damaged electric vehicles need separate handling. Separate storage areas, fast triage and contracts with specialised carriers reduce fire risk and storage costs and help settle claims faster.
Global Damaged EV Battery Logistics Market Dynamics Segment Analysis Infographic 20261020071000
Segment Analysis

Market Segmentation

Critical
Leading

Critical damaged batteries, liable to catch fire or react dangerously after crashes, fires, flooding or internal short circuits, account for 62.46% of 2025 spending, USD 957.50 million and about 180,000 units, and grow at 22.25% a year to USD 2,615.00 million and 64.01% of the market by 2030. They require P911 or LP906 containment in Europe and special permit packaging in the United States.

Non-Critical

Non-critical damaged batteries, with capacity loss, battery management system faults or minor casing damage but no thermal instability, account for 37.54% of 2025 spending, USD 575.50 million and about 240,000 units, and grow at 20.63% a year to USD 1,470.12 million and 35.99% of the market by 2030.

OEM Recall and Warranty Logistics
Leading

Returning recalled and defective modules from dealers to testing hubs accounts for 37.00% of 2025 spending, USD 567.21 million and about 155,400 units, and grows at 21.33% a year to USD 1,491.07 million, 36.50% of 2030 spending.

Crash Recovery Logistics

Emergency recovery, towing and transport of crash-damaged and flooded vehicles and batteries accounts for 29.00% of 2025 spending, USD 444.57 million and about 121,800 units, and grows fastest, at 22.48% a year, to USD 1,225.54 million and 30.00% of the market by 2030.

Battery Plant Scrap Forwarding

Moving rejected cells and modules from battery plants to pre-treatment and shredding sites accounts for 21.00% of 2025 spending, USD 321.93 million and about 88,200 units, and grows at 21.07% a year to USD 837.45 million.

Recycling Shipments

Shipping damaged batteries to licensed recyclers under hazardous waste permits accounts for 13.00% of 2025 spending, USD 199.29 million and about 54,600 units, and grows at 21.66% a year to USD 531.06 million.

Passenger Vehicles
Leading

Battery electric and plug-in hybrid cars and light commercial vehicles account for 72.50% of 2025 spending, USD 1,111.43 million and about 304,500 units, and grow at 21.11% a year to USD 2,896.35 million, 70.90% of 2030 spending.

Buses and Trucks

Electric buses and medium and heavy trucks account for 21.00% of 2025 spending, USD 321.93 million and about 88,200 units, and grow fastest, at 23.89% a year, to USD 939.58 million and 23.00% of the market by 2030, because their large packs need heavy containment frames and special handling.

Two- and Three-Wheelers

Electric two- and three-wheelers and other light vehicles account for 6.50% of 2025 spending, USD 99.64 million and about 27,300 units, and grow at 20.12% a year to USD 249.19 million, using smaller certified containers with lower freight costs per unit.

Regional Analysis

By Geography

Asia-Pacific

Asia-Pacific is the largest market, with 46.50% of 2025 spending, USD 712.85 million, rising to USD 1,858.73 million by 2030, a 21.13% CAGR. China produced nearly 75% of the world's electric cars in 2025 and most lithium-ion cells, and national standards require traceability of traction batteries and certified take-back outlets. Battery plant clusters in Jiangsu, Guangdong and Sichuan create dense routes between factories and recyclers.

Europe

Europe accounts for 31.00% of 2025 spending, USD 475.23 million, rising to USD 1,286.81 million by 2030, a 22.05% CAGR, and has the highest cost per pack. ADR P911 packaging rules, extended producer responsibility under the EU Battery Regulation and the EU waste shipment regulation, applicable since 21 May 2026, raise compliance costs, while recycling capacity is concentrated in Germany, Belgium and the Nordic countries, lengthening cross-border routes.

North America

North America accounts for 18.50% of 2025 spending, USD 283.60 million, rising to USD 776.17 million by 2030, a 22.31% CAGR. Large recalls such as Stellantis 25V741 and Volkswagen 26V030 drive volumes. Air transport is banned and rail is often restricted, so damaged packs move by road under special permits from dealers on both coasts to recyclers in Nevada, Tennessee and the Southeast.

Rest of World

The Middle East, Latin America and Africa account for 4.00% of 2025 spending, USD 61.32 million, rising to USD 163.41 million by 2030, a 21.66% CAGR. Many countries lack certified container production and battery recycling plants, so damaged batteries are stored locally until sea transport is approved.

Global Damaged EV Battery Logistics Market Regional Analysis Infographic 20261020071000
Competitive Landscape

How Competition Is Evolving

The damaged EV battery logistics market is fragmented across three groups of companies. Dangerous goods logistics providers collect, triage and transport batteries. Packaging makers design and certify fire-containment boxes. Recyclers and stewardship organisations receive and process the batteries and often organise collection.

Large logistics groups are building dedicated battery networks. DHL Supply Chain operates EV Centers of Excellence in Europe, the Americas and Asia-Pacific and offers a red-status service for accident-damaged batteries. RPM and Bluewater Battery Logistics manage dealer returns, impound recoveries and energy storage decommissioning in the United States under special permits.

Packaging makers are concentrated in Germany and the United States. ZARGES, Genius, Bauer, BUNCKER, ENVAION and Americase supply boxes and cabinets for damaged batteries, with heavy containers for large traction packs costing about EUR 6,600 to 22,000 each, and DGeo's Obexion AG Bin holds special permit DOT-SP 21619 for shared freight.

Recyclers and stewardship programmes anchor demand. Call2Recycle coordinates collection of recalled and damaged batteries in North America, and Redwood Materials, Cirba Solutions, Umicore and Li-Cycle operate intake facilities able to receive damaged batteries.

Competition will be decided by permits, container fleets and network reach. Providers that combine dangerous goods authorisations in several countries, pools of certified containers, trained triage technicians and contracts with recyclers will win OEM recall and warranty programmes.

Container rental and pooling are emerging. Because recalls create sudden peaks in demand for certified boxes, OEMs and logistics providers increasingly rent containers or share pools of them rather than buying fleets that stand idle between campaigns. Distributors such as LionCare in Europe list boxes from several manufacturers, from small boxes for modules to heavy containers rated for packs of about 94 kWh to 111 kWh.

Global Damaged EV Battery Logistics Market Competitive Landscape Infographic 20261020071000
Major Players

Companies Covered

Companies covered in the report include:

DHL Supply Chain (DHL Group)
RPM Freight Systems LLC
Bluewater Battery Logistics LLC
Call2Recycle, Inc.
ZARGES GmbH
Genius Technologie GmbH
BUNCKER Safety Systems
Bauer GmbH
ENVAION GmbH
Americase, Inc.
DGeo
CellBlock FCS, LLC
Redwood Materials, Inc.
Cirba Solutions
Umicore SA
Li-Cycle Holdings Corp.
Note: Full company profiles include revenue analysis, product portfolio, SWOT, and recent strategic developments.
Latest Developments

Recent Market Activity

Oct 2026
Volkswagen announced a recall of several thousand ID.4, ID.3, ID.7, ID. Buzz and Cupra Born vehicles built from 2023 to 2026 over battery cells that may overheat above 80% charge.
Jul 2026
The Pipeline and Hazardous Materials Safety Administration issued the sixth revision of special permit DOT-SP 21442 for alternative packaging of damaged, defective and recalled lithium-ion batteries by road and rail.
May 2026
Regulation (EU) 2024/1157 on shipments of waste became applicable, requiring prior consent and financial guarantees for cross-border shipments of hazardous battery waste.
Mar 2026
DGeo showed its Obexion AG Bin, holding special permit DOT-SP 21619 for shared freight of damaged batteries, at the International Battery Seminar.
Jan 2026
Volkswagen Group of America filed recall 26V030 covering 43,881 ID.4 vehicles whose battery modules may overheat.
Oct 2025
Stellantis filed recall 25V741 covering about 320,000 Jeep Wrangler 4xe and Grand Cherokee 4xe plug-in hybrids over high-voltage battery fire risk.
Report Structure

Table of Contents

1. Introduction
1.1 Study Assumptions & Market Definition
1.1.1 Scope Inclusions — Damaged, Defective and Recalled Traction Batteries
1.1.2 Scope Exclusions — Healthy End-of-Life Batteries and Recycling Fees
1.1.3 Currency Basis — US Dollar
1.2 Research Scope and Segmentation Framework
1.3 Executive Summary
1.3.1 Headline Findings
1.3.2 Market Snapshot, 2025 and 2030
1.3.3 Signature Finding — Critical Batteries Drive Spending
1.4 Data Reconciliation and Caliber Notes
1.4.1 Regulatory, Recall and Fleet Anchors
1.4.2 Volume, Cost and Split Assumptions — Marqstats Constructions
2. Market Dynamics
2.1 Key Drivers
2.1.1 Growing and Ageing EV Fleet
2.1.2 Larger Battery Recalls
2.1.3 Strict Packaging Rules
2.1.4 Battery Plant Scrap
2.1.5 Insurer and Fire Code Requirements
2.2 Key Restraints
2.2.1 Expensive and Scarce Certified Containers
2.2.2 Limited Transport Options
2.2.3 Cross-Border Shipment Approvals
2.2.4 Shortage of Skilled Staff
2.3 Key Trends
2.3.1 Battery Passports
2.3.2 Dedicated Battery Logistics Centres
2.3.3 US Special Permits
2.3.4 Smarter Containers
2.4 Industry Value Chain Analysis
2.4.1 Upstream Suppliers and Technology Inputs
2.4.2 Manufacturers, Integrators and Service Providers
2.4.3 Distribution, End Users and Aftermarket
2.5 Porter's Five Forces Analysis
2.5.1 Bargaining Power of Suppliers
2.5.2 Bargaining Power of Buyers
2.5.3 Threat of New Entrants
2.5.4 Threat of Substitutes
2.5.5 Intensity of Competitive Rivalry
2.6 Regulatory and Policy Framework
2.6.1 ADR Special Provision 376 and Packing Instructions P908, P911, LP904 and LP906
2.6.2 US 49 CFR 173.185(f) and PHMSA Special Permits
2.6.3 Regulation (EU) 2024/1157 and Regulation (EU) 2023/1542
2.6.4 China GB/T 38698.1-2020 and GB/T 38698.2-2023
2.7 Cost Economics
2.7.1 Handling Cost per Pack by Condition
2.7.2 Container Prices and Specifications
2.8 Inflow Sources
2.8.1 Battery Plant Scrap Rates
2.8.2 Crash, Recall and Warranty Volumes
3. Market Size and Forecast By Damage Severity
3.1 Market Size and Forecast, 2021–2030
3.2 Segment Share Analysis and Growth Comparison
3.3 Critical
3.3.1 Market Size and Forecast
3.3.2 Demand Drivers and Constraints
3.4 Non-Critical
3.4.1 Market Size and Forecast
3.4.2 Demand Drivers and Constraints
4. Market Size and Forecast By Service Type
4.1 Market Size and Forecast, 2021–2030
4.2 Segment Share Analysis and Growth Comparison
4.3 OEM Recall and Warranty Logistics
4.3.1 Market Size and Forecast
4.3.2 Demand Drivers and Constraints
4.4 Crash Recovery Logistics
4.4.1 Market Size and Forecast
4.4.2 Demand Drivers and Constraints
4.5 Battery Plant Scrap Forwarding
4.5.1 Market Size and Forecast
4.5.2 Demand Drivers and Constraints
4.6 Recycling Shipments
4.6.1 Market Size and Forecast
4.6.2 Demand Drivers and Constraints
5. Market Size and Forecast By Vehicle Type
5.1 Market Size and Forecast, 2021–2030
5.2 Segment Share Analysis and Growth Comparison
5.3 Passenger Vehicles
5.3.1 Market Size and Forecast
5.3.2 Demand Drivers and Constraints
5.4 Buses and Trucks
5.4.1 Market Size and Forecast
5.4.2 Demand Drivers and Constraints
5.5 Two- and Three-Wheelers
5.5.1 Market Size and Forecast
5.5.2 Demand Drivers and Constraints
6. Regional Analysis
6.1 Market Size by Region, 2025
6.2 Asia-Pacific
6.2.1 Market Size, Share and Growth Outlook
6.2.2 Fleet, Dealer Network and Registration Dynamics
6.3 Europe
6.3.1 Market Size, Share and Growth Outlook
6.3.2 Fleet, Dealer Network and Registration Dynamics
6.4 North America
6.4.1 Market Size, Share and Growth Outlook
6.4.2 Fleet, Dealer Network and Registration Dynamics
6.5 Rest of World
6.5.1 Market Size, Share and Growth Outlook
6.5.2 Fleet, Dealer Network and Registration Dynamics
7. Competitive Landscape
7.1 Market Structure and Channel Shares
7.2 Competitive Strategies and Positioning
7.3 Platforms, Financing Partners and Recent Developments
7.4 Company Profiles
7.4.1 DHL Supply Chain (DHL Group)
7.4.2 RPM Freight Systems LLC
7.4.3 Bluewater Battery Logistics LLC
7.4.4 Call2Recycle, Inc.
7.4.5 ZARGES GmbH
7.4.6 Genius Technologie GmbH
7.4.7 BUNCKER Safety Systems
7.4.8 Bauer GmbH
7.4.9 ENVAION GmbH
7.4.10 Americase, Inc.
7.4.11 DGeo
7.4.12 CellBlock FCS, LLC
7.4.13 Redwood Materials, Inc.
7.4.14 Cirba Solutions
7.4.15 Umicore SA
7.4.16 Li-Cycle Holdings Corp.
8. Appendix
8.1 Research Methodology
8.1.1 Primary Research Programme
8.1.2 Secondary Sources and Data Triangulation
8.1.3 Market Sizing and Forecasting Model
8.2 Reference Tables — Transfers, Imports and Average Prices
8.3 List of Tables and Figures
8.4 Abbreviations and Glossary
8.5 Disclaimer
Study Scope & Focus

Coverage & Segmentation

The study covers the global damaged EV battery logistics market, with 2025 as the base year, 2021 – 2025 as the historical period and 2026 – 2030 as the forecast period. Values are in US dollars and volumes are packs and equivalent module assemblies handled each year. The market covers triage, certified packaging, quarantine storage and dangerous goods transport of damaged, defective and recalled traction batteries and battery plant scrap, segmented by damage severity, service type, vehicle type and region.

Healthy end-of-life batteries moving through standard collection programmes, recycling, shredding and refining fees, battery repair and second-life refurbishment are excluded. Segment, volume and regional splits are Marqstats estimates built on dangerous goods rules, recall filings, fleet and battery production data, container prices and freight rate benchmarks.

Frequently Asked Questions

FAQs About the Global Damaged EV Battery Logistics Market

The global market is USD 1,533.00 million in 2025 and reaches USD 4,085.12 million by 2030, a 21.66% CAGR.

Marqstats estimates USD 4,200 to 10,550 for a critical pack and USD 1,300 to 2,730 for a non-critical pack, against USD 410 to 870 for a healthy one.

Under ADR special provision 376, critical batteries need P911 or LP906 packaging; critical batteries account for 62.46% of 2025 spending.

No. US rule 49 CFR 173.185(f) bans damaged, defective and recalled lithium batteries from aircraft, so most move by dedicated truck.

DHL Supply Chain, RPM, Bluewater, Call2Recycle, ZARGES, Genius and BUNCKER lead, profiled across 16 companies.

Asia-Pacific leads with 46.50% of 2025 spending; North America grows fastest at 22.31% a year.

About 420,000 packs in 2025, rising to 1,045,000 by 2030, a 20.00% annual rate.

Yes. Marqstats offers 20% complimentary customization on this report. Additional scope is quoted separately. v4 SS6.3A - never state a third figure.

The report is delivered as a PDF document and an Excel data workbook, with a PPT summary where the scope includes one.