Electric vehicle (EV) adoption is accelerating globally. Here in Australia, EV sales jumped 38% year-on-year in 2025 before surging again in early 2026 on the back of fuel price shocks.
EVs are changing lanes from niche to mainstream faster than most industry forecasters predicted. That shift is creating an entirely new EV recycling challenge, which could spur one of the most significant new waste and value streams of the coming decades.
From a recycler’s perspective, EVs aren’t just “cars with batteries”. They are an entirely different category from traditional internal combustion engine (ICE) vehicles.
What Makes EV Recycling Different From Traditional Vehicles?
Conventional vehicles are built around combustion engines. Strip one back, and you find steel-heavy components and a lead-acid battery.
The recycling industry has processed all of this reliably for decades, including recycling up to 99% of lead-acid batteries.
EVs are built differently. There is no combustion engine, no complex multi-speed gearbox, and no exhaust system. In their place is a large battery pack – usually lithium-ion – powering an electric motor and a dense network of high-voltage electrical systems.
As well as fewer mechanical parts, EVs typically contain higher quantities of minerals like:
- Lithium
- Cobalt
- Nickel
- Copper
- Rare earth elements
These carry significantly higher market value than the steel and aluminium that dominate conventional vehicle recycling. However, they are inherently harder to separate and recycle, as the electrical and electronic components are more complex than steel mechanical parts.
The Key Components in EV Recycling: What We Are Actually Dealing With
- Battery pack: The highest-value and highest-risk component. Lithium, cobalt, nickel, and copper all command strong market returns. Thermal runaway risk makes specialist handling, discharge protocols, and compliant transport non-negotiable.
- Electric motor: Good copper yield from the windings. Rare earth magnets (neodymium, dysprosium) are valuable but technically difficult to separate.
- Power electronics: High-grade copper plus trace precious metals: gold, silver, and palladium. E-waste obligations apply.
- High-voltage cabling: Excellent copper yield. The heavy insulation requires separate disposal and cannot enter the general shred stream.
- Drivetrain: Simpler than ICE equivalents. Lower steel volumes, but lightweight materials require correct sorting.
- Battery cooling system: Aluminium plates and pipes are recoverable. Coolants must be captured and disposed of under environmental regulations.
- Body panels and frame: Aluminium-heavy construction delivers higher scrap value per vehicle than a comparable ICE vehicle.
- Interior components: Low recovery value overall. Plastics and composites are difficult to separate economically. Electronics attract e-waste classification and must be sorted accordingly.
How EV Recycling Works
Safe and responsible EV recycling is about more than battery recycling. Each step in the process has unique handling and compliance requirements, as well as distinct commercial opportunities.
Step 1: High-Voltage Isolation
Before we touch anything, the battery pack must be fully discharged. Lock-out/tag-out procedures are enforced throughout the entire dismantling process.
With high-voltage cabling carrying hundreds of volts, there is no tolerance for shortcuts.
Step 2: Battery Pack Removal
The pack is extracted using specialist lifting equipment and transferred into compliant transport packaging. Fire risk mitigation protocols are important, as a damaged cell may combust. The pack is then either assessed for repurposing or directed to material recovery.
Step 3: Component Separation
With the battery pack removed, dismantling proceeds systematically. Precious metal-rich power electronics (inverters, converters, and onboard chargers) are extracted first. The electric motor is then removed and separated for copper winding recovery and magnet processing. High-voltage cabling is stripped out and kept separate from the general metal stream, as the copper core and insulation must be processed independently.
Step 4: Structural and Body Processing
The aluminium-heavy body panels, frame, and battery cooling system are sorted by material. Coolant fluids are captured before any cutting begins, as they pose an environmental risk and cannot enter the general waste stream. The drivetrain and remaining structural steel are sorted for shredding or smelting.
Step 5: Waste Stream Management
Interior plastics, composites, and electronics are processed last. E-waste components such as infotainment systems, sensors, and control units are handled separately. Contaminated materials are isolated and handled under hazardous waste protocols.
Key Challenges and The Road Ahead
According to the Association for the Battery Recycling Industry (ABRI) and Battery Stewardship Council data, lithium-ion end-of-life volume will more than double from 16,560 tonnes in 2024 to 46,830 tonnes in 2030, before surging to an estimated 607,010 tonnes by 2050.
The battery materials recovery industry is already responding. Australia’s recovery ecosystem spans 45+ facilities nationally, with recyclers investing nearly $260 million since 2020.
Did you know: As of March 2026, the battery materials recovery industry contributes an estimated $2.1 billion to Australia’s economy and supports more than 19,000 jobs.
The sector already achieves a collection rate of over 90% for lead-acid batteries. Unfortunately, several challenges are making the transition from lead-acid to lithium-ion recycling capability more complicated than anticipated:
- No industry standardisation: There is no standardisation among EV manufacturers for things like battery size or chemistry, unlike ICEs, which use standard lead-acid batteries and familiar materials.
- Rapidly evolving designs: New EV models can render existing dismantling processes obsolete almost immediately and make automation extremely challenging.
- Complex materials: EV components are often made with composites and alloys, which are difficult or dangerous to separate.
- Limited processing infrastructure: Recycling facilities in Australia with the capabilities to process lithium-ion batteries as well as vehicle bodies and e-waste separation are few and far between.
- Compliance pressure: E-waste disposal rules and hazardous material handling obligations add complexity that low-maturity recyclers are not equipped to manage.
The operators and recyclers who invest in capability, training, and infrastructure now will be the ones positioned to capture the value when lithium-ion volumes surge in the coming years.
The Role of Specialist Recyclers Like C.D. Dodd in EV Recycling
As Australia’s transition to renewable energy and circular economy principles accelerates, EV recycling will play an increasingly critical role in safe and sustainable material recovery, and in supplying critical minerals needed to manufacture the next generation of batteries.
This will not be a job for generalists.
The combination of high-voltage hazards, complex material streams, strict compliance obligations, and rapidly changing processes requires a recycler with the expertise to match.
C.D. Dodd has spent 50 years building exactly that capability. As part of our full-service, large-scale recycling capabilities, we handle hazardous materials. That includes lithium-ion batteries, high-voltage components, and contaminated waste streams.
Our advanced metal recovery capability means we extract maximum value from every component, and our global certifications and unwavering commitment to compliance ensure we do it safely.
Proper dismantling and EV recycling are crucial for a safe and sustainable transition away from fossil fuels. Contact C.D. Dodd for safe, compliant recycling of EV batteries, metals, and end-of-life vehicle components.