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Reverse Logistics of Electrified Products: Why Australia's Supply Chains Aren't Ready for What's Coming Back

Reverse Logistics of Electrified Products: Why Australia's Supply Chains Aren't Ready for What's Coming Back
Written by:
Trace Insights
Publish Date:
Feb 2026
Topic Tag:
Strategy & Design

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Walk through any Australian suburb on hard rubbish day and you'll see it: a dead e-scooter propped against a bin, a cordless vacuum with a swollen battery pack, a child's electric ride-on that stopped holding charge. None of these things should be sitting on the kerb. All of them contain lithium-ion batteries that, if crushed in the back of a compactor truck or punctured at a waste transfer station, can ignite a fire that's fast, toxic and extraordinarily difficult to extinguish.

This isn't a theoretical risk. It's happening every day across Australia.

The waste and recycling industry estimates that lithium-ion batteries are responsible for between 10,000 and 12,000 fires per year in Australia's waste and recycling streams. In the first half of 2025, the South Australian Metropolitan Fire Service responded to more than half of the previous year's total battery-related incidents in just six months — with roughly one in four linked to e-mobility devices. In New South Wales, about one in every 40 fires attended by Fire and Rescue NSW now involves a lithium-ion battery or battery-powered device. Queensland Fire Department reported more than 200 lithium-ion battery fires in the first eleven months of 2025 alone.

The Australian Capital Territory's main recycling facility was destroyed by a battery-related fire in 2022. The cost to replace a destroyed recycling facility runs to around $60 million. A single damaged waste collection truck costs between $250,000 and $500,000 to replace.

And yet, according to B-cycle's 2025 annual report, Australia is still only recycling around 18.5 per cent of available batteries. Half of all Australian households are still throwing batteries into general waste or recycling bins. Just three per cent of e-bike companies participate in battery stewardship schemes.

This is a supply chain problem. A big one. And it's getting bigger with every e-bike, e-scooter, cordless drill, robot vacuum and electric garden tool that rolls off a container ship and into Australian homes, workplaces and public hire fleets.

The electrification wave nobody planned the return journey for

The forward supply chain for electrified consumer products works well enough. Manufacturers design. Importers bring product in. Retailers sell. Consumers buy. Logistics networks deliver. The product reaches the customer with relative efficiency.

The reverse supply chain — what happens when that product reaches end of life, or when the battery degrades, swells, or fails — barely exists for most product categories.

This isn't because nobody cares. It's because the volume, diversity and hazard profile of electrified products has grown faster than the collection, transport, processing and recycling infrastructure needed to handle them safely. A decade ago, the battery challenge was largely confined to mobile phones, laptops and the occasional power tool. Today, lithium-ion batteries are embedded in everything from children's toys and Bluetooth speakers to ride-on mowers, electric wheelchairs, home energy storage systems, and — most visibly — the booming e-bike and e-scooter market.

The scale is striking. Global demand for batteries is expected to increase by 500 per cent by 2050. Lithium-ion battery waste in Australia could exceed 100,000 tonnes by 2036. Every one of those products will, at some point, need to come back through a reverse logistics system that currently can't cope with what's already in circulation.

For government and defence agencies, councils, waste management operators and the businesses that import and sell these products, this isn't a future problem. It's a now problem.

Why reverse logistics for electrified products is so different

Reverse logistics is never as simple as forward logistics in reverse. Products come back in unpredictable volumes, in variable condition, through fragmented channels, with inconsistent information about what's inside them. That's true for any product category.

But electrified products — specifically those containing lithium-ion batteries — add layers of complexity that make them fundamentally different from conventional reverse logistics flows.

They're hazardous goods. A lithium-ion battery that has been damaged, degraded, overcharged, improperly stored or exposed to heat or moisture can undergo thermal runaway — an uncontrollable self-heating reaction that produces toxic, flammable gases and can result in fire or explosion. This isn't a defect in the battery; it's a characteristic of the chemistry. It means that collection, transport, storage and processing all need to comply with dangerous goods regulations, including the Australian Dangerous Goods Code. That adds cost, requires specialist handling, limits which vehicles and facilities can be used, and creates liability for everyone in the chain.

They come in wildly different form factors. A button battery from a hearing aid, a removable battery pack from an e-bike, and an embedded battery in a cordless vacuum are all "lithium-ion batteries," but they require completely different collection containers, handling procedures, transport packaging and processing methods. A reverse logistics system that handles one category well may be entirely unsuitable for another.

Many batteries are embedded and non-removable. This is one of the most significant practical barriers. A growing proportion of consumer electronics and appliances have batteries that are glued, soldered or structurally integrated into the product — deliberately designed to be non-removable by the consumer. That means the entire product needs to enter the reverse logistics stream, not just the battery. Collection points, transport systems and processing facilities all need to accommodate whole products, which are bulkier, heavier and more complex to sort than standalone batteries.

Condition on return is unknown and variable. A battery that arrives at a collection point might be fully charged, partially discharged, physically damaged, water-affected, or already in the early stages of thermal instability. There's no reliable way to assess condition remotely. This uncertainty drives conservative handling requirements and creates genuine safety risks for workers at every point in the chain — from the council worker emptying a community recycling bin to the operator at a processing facility.

The economics are challenging. Unlike some material streams where the recovered commodity value offsets collection and processing costs, battery recycling is expensive. Transport of hazardous goods is costly. Processing requires specialist equipment. The value of recovered materials — lithium, cobalt, nickel — fluctuates with commodity markets and doesn't always cover the cost of safe handling and processing. Without stewardship levies, government subsidies or regulatory mandates, the commercial incentive to invest in reverse logistics infrastructure is marginal at best.

These characteristics mean that the reverse supply chain for electrified products can't simply be bolted onto existing waste management systems. It requires purpose-designed collection networks, specialist transport, dedicated storage and processing facilities, trained workforce, regulatory compliance frameworks and — critically — supply chain coordination across multiple parties who don't traditionally work together.

This is exactly the kind of challenge that benefits from rigorous strategy and network design thinking.

The e-bike and e-scooter headache

No product category illustrates the reverse logistics gap quite like e-bikes and e-scooters.

Sales have surged in Australia. E-bikes are now one of the fastest-growing segments of the cycling market, and shared e-scooter schemes operate in multiple capital cities. The batteries in these devices are large — typically 36V to 52V packs weighing several kilograms — and store enough energy to power a vehicle at speed for 40 to 80 kilometres. When they fail, they fail dramatically.

The fire risk is well documented. South Australia's Premier launched a joint emergency services campaign in mid-2025 specifically targeting lithium-ion battery fires from e-mobility devices, following a spike in residential fires linked to e-scooters and e-bikes being charged on incompatible chargers or modified by users to boost performance. NSW introduced mandatory safety standards for e-micromobility devices from February 2025, with testing, certification and marking requirements taking effect from February 2026 — including requirements for safe disposal information at point of sale. Victoria's Energy Safe regulator published a consultation paper in August 2025 proposing to declare e-transport devices as controlled electrical equipment, driven by the growing number of fire incidents.

But regulation at point of sale only addresses part of the problem. What happens when a three-year-old e-bike battery reaches end of life and the owner wants to get rid of it?

Right now, the answer is messy. Some users drop batteries at B-cycle collection points, which accept removable batteries up to 5 kilograms — but most e-bike batteries exceed that threshold. Some take them to council hazardous waste events, which happen periodically rather than continuously. Some leave them in garages, sheds or on balconies indefinitely. And some — too many — put them in the general waste bin or leave them on the kerb, where they enter a waste stream that's not designed to handle them.

For councils and government agencies managing waste services, this creates a compounding problem: rising fire risk in collection vehicles and transfer stations, growing volumes of hazardous material at facilities not rated for dangerous goods storage, increasing insurance costs and liability exposure, community expectation for convenient disposal options, and no clear funding mechanism to pay for purpose-built collection and processing infrastructure.

South Australia's government established four dedicated collection points in late 2025 specifically for embedded battery products — a welcome step, but one that highlights how far behind infrastructure has fallen relative to the products already in circulation.

The broader electrified product challenge

E-bikes and e-scooters are the most visible part of the problem, but they're far from the only one. Cordless power tools — drills, angle grinders, lawn mowers — run on substantial lithium-ion packs, and just 65 per cent of power tool companies participate in the B-cycle stewardship scheme. Electric mobility devices serve vulnerable users who may struggle to transport heavy batteries to collection points. Home energy storage systems will create a future wave of large-format battery returns that current residential waste systems are entirely unequipped for. And then there's the long tail: vapes, electric toys, robotic vacuums, portable speakers, fitness devices — each with different battery configurations, different disassembly requirements, and different end-of-life pathways, all converging on the same constrained recycling infrastructure.

The common thread: the forward supply chain works smoothly while the reverse supply chain ranges from inadequate to non-existent.

What a functioning reverse logistics system actually needs

Solving the reverse logistics challenge for electrified products requires thinking about it as a supply chain — with all the design, planning, infrastructure and governance disciplines that implies.

Collection network design. The most fundamental requirement is getting products and batteries out of homes, workplaces and public spaces and into a controlled stream. This means permanent, accessible collection points — not just periodic hazardous waste events. It means collection infrastructure that's designed for the actual products being returned (including large, heavy items like e-bike batteries and power tool packs, not just AA cells). It means geographic coverage that reflects where the products are sold and used, including regional and remote areas. And it means collection systems that are safe for the people operating them, with proper containment, labelling and handling procedures.

The network design challenge here is analogous to designing any distribution network — but in reverse. Where should collection points be located? How many are needed? What capacity do they require? How frequently do they need to be serviced? What's the catchment area for each point? These are strategy and network design questions that need to be answered with the same analytical rigour that would be applied to a retail distribution network or a warehousing and distribution strategy.

Transport, consolidation and storage. Moving collected batteries from dispersed collection points to processing facilities is a dangerous goods logistics challenge — vehicles need to be rated, packaging must comply with the Australian Dangerous Goods Code, drivers need to be trained, and the economics of collection transport (particularly in regional areas) need to work or the system won't scale. Between collection and processing, there's typically a consolidation step at transfer facilities that need to be purpose-designed for hazardous materials, with fire suppression, ventilation, spill containment and appropriate separation distances. Many existing waste transfer stations don't meet these requirements, which is why battery fires at these facilities are so common.

Processing and recycling infrastructure. Australia's domestic battery recycling capacity is growing but remains limited relative to the volume of batteries entering the market. B-cycle recycled over 3.3 million kilograms of batteries in its most recent reporting year through partners like Ecobatt, but this represents less than a fifth of available batteries. Scaling processing capacity requires capital investment, skilled workforce, environmental approvals and — critically — a stable feedstock supply that justifies the investment. That feedstock supply depends on the collection and transport systems upstream being effective.

Data and traceability. A functioning reverse logistics system needs visibility across the chain — what's been collected, where, in what condition, and where it's going. Without data, you can't optimise collection routes, manage inventory at consolidation points, forecast processing demand, or report on diversion rates and compliance. Technology systems that provide chain-of-custody tracking, condition assessment and performance reporting are essential infrastructure, not optional extras.

Governance and stakeholder coordination. A reverse logistics system for electrified products involves manufacturers, importers, retailers, consumers, councils, state and federal agencies, waste collectors, dangerous goods operators, storage facilities, recyclers and stewardship bodies. No single party controls the whole chain. Making it work requires governance structures that define roles, responsibilities, funding mechanisms and performance standards.

This is where procurement frameworks, organisational design and multi-stakeholder governance become essential. The supply chain won't self-organise.

The regulatory landscape is shifting — fast

Australian governments are moving on this, though not always in a coordinated way. NSW passed the Product Lifecycle Responsibility Bill in March 2025 — the first mandatory product stewardship legislation for batteries in Australia, requiring battery brand owners to participate in approved stewardship schemes. Victoria's Energy Safe regulator is consulting on declaring e-transport devices as controlled electrical equipment. Queensland, NSW and Victoria have been tasked by environment ministers to lead national reform on battery product stewardship. South Australia has introduced dedicated collection infrastructure. And the federal government has committed to national battery stewardship reform as part of its circular economy agenda.

For businesses importing and selling electrified products, these regulatory shifts create new compliance obligations around disposal information, stewardship participation and potentially design-for-disassembly requirements. For councils and government agencies, they create both obligations and opportunities to redesign collection systems and access stewardship funding. For waste operators, they create market signals about future volumes that may justify infrastructure investment.

But regulation alone doesn't build a supply chain. Legislation sets the rules. Someone still has to design, build and operate the physical network — the collection points, the transport routes, the consolidation facilities, the processing infrastructure — that actually moves material safely from consumer to recycler.

The role of product stewardship in funding reverse logistics

B-cycle, administered by the Battery Stewardship Council, is Australia's primary battery stewardship scheme. It operates over 5,400 collection points, has recycled millions of kilograms of batteries since launch, and is preparing its next phase — B-cycle 2.0 — to address current limitations and prepare for mandatory regulation.

Stewardship schemes work by placing a levy on products at point of import or sale, then using that revenue to fund collection, transport, processing and education. In principle, this closes the economic gap that makes reverse logistics commercially unviable without intervention. In practice, effectiveness depends on participation rates, levy levels being sufficient to fund safe collection and processing, collection infrastructure being convenient enough to achieve meaningful diversion rates, and processing capacity being available domestically at scale.

For organisations involved in the electrified product supply chain — whether as importers, retailers, councils or waste operators — understanding stewardship obligations and designing operational systems to meet them is becoming a core business requirement, not a peripheral compliance exercise.

The workforce dimension

Collecting, handling, transporting and processing lithium-ion batteries safely requires training that most waste and recycling workers don't currently have. Dangerous goods handling, thermal runaway recognition, emergency response procedures, high-voltage safety protocols — these are specialist skills that need structured training programs, not just toolbox talks. At the processing end, battery recycling is a technical discipline requiring mechanical, chemical and electrical engineering knowledge that's in short supply. And at the governance level, councils and government agencies need people who understand both supply chain management and hazardous materials regulation — a combination that's rare in the current workforce.

This is a strategic workforce planning challenge that intersects with training policy, industry development and organisational capability building.

How Trace Consultants can help

At Trace Consultants, we work with government agencies, councils and industry on supply chain challenges that sit at the intersection of infrastructure, logistics, procurement and operations — exactly where the reverse logistics challenge for electrified products lives.

We don't sell batteries, collection bins or recycling equipment. We bring independent supply chain expertise to the strategic and operational decisions that determine whether reverse logistics systems actually work.

Reverse logistics network design. We help organisations design collection, consolidation and processing networks optimised for coverage, cost and safety — including location analysis, capacity modelling, transport route optimisation and facility design. Our strategy and network design approach ensures infrastructure investment is directed where it will have the greatest impact.

Procurement strategy for stewardship and waste services. As mandatory stewardship obligations expand, councils and agencies need to procure collection, transport and processing services that comply with new requirements while managing cost. We design procurement strategies with clear service specifications, appropriate risk allocation and built-in performance measurement.

Warehouse and facility design. Consolidation facilities for returned electrified products need to meet dangerous goods requirements while operating efficiently. We bring warehousing and distribution and back-of-house logistics expertise to facility design — including layout, workflow, inventory management and safety systems.

Operating model and organisational design. For councils and agencies standing up new collection programs, we design the organisational structures, governance frameworks and planning and operations processes needed to manage a service line involving hazardous materials and multi-stakeholder coordination.

Workforce planning and change management. We support workforce planning and change management programs that build the skills, procedures and safety culture needed to operate reverse logistics systems safely.

Technology, data and resilience. Visibility across the reverse supply chain is essential for optimisation and compliance. We help organisations select technology solutions for traceability and performance monitoring, and design resilience frameworks that ensure continuity of service for safety-critical operations.

The window for planning is now

The electrification of consumer products isn't slowing down. Battery volumes entering Australia are growing year on year. Mandatory stewardship obligations are being legislated. Fire risk in waste systems is escalating. And the infrastructure gap between what's needed and what exists is widening.

Organisations that start designing their reverse logistics capability now — whether they're councils redesigning waste services, government agencies developing policy, importers preparing for stewardship obligations, or waste operators investing in infrastructure — will be far better positioned than those that wait for the next waste facility fire or the next regulatory deadline to force their hand.

Because the products are already out there. Millions of them. And every single one of them is eventually coming back.

The question is whether there's a supply chain ready to receive them safely — or whether they end up on the kerb, in the bin, or in the back of a truck that catches fire on a Tuesday morning.

If your organisation is grappling with the reverse logistics challenge for electrified products, batteries or hazardous end-of-life materials, we'd welcome the conversation.

Ready to turn insight into action?

We help organisations transform ideas into measurable results with strategies that work in the real world. Let’s talk about how we can solve your most complex supply chain challenges.

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