The Blind Spot Behind Every Bin

Waste collection is one of the few heavy vehicle operations where the truck and its crew are almost never still.

On a typical residential collection run , a rear loader or side loader stops, starts, reverses and turns dozens of times an hour, often with a loader working from the back step and crew moving on foot between the truck and the kerb. Bins are wheeled out at odd angles, cars are parked close to the road edge, and children, cyclists and pets move unpredictably around driveways and nature strips, however none of this is unusual. It is simply what a waste collection operation looks like, and it is a large part of why waste collection remains heavily represented in heavy vehicle incident data involving pedestrians and workers on foot.

It is also why waste collection sits inside one of the most significant categories of workplace harm in Australia. Vehicle incidents are the single largest cause of worker deaths nationally, accounting for 42 per cent of the 188 worker fatalities recorded in 2024, more than three times the next most common cause, falls from a height (Safe Work Australia, 2025). Waste collection, with its constant cycle of stopping, reversing and crew working on foot beside the vehicle, sits squarely inside that exposure.

Much of the safety conversation in waste transport has understandably focused on rollaway risk, driven by the same operating pattern of the driver getting in and out of the cab hundreds of times a shift. That risk is real, but it is not the only risk created by the same stop-start pattern. Every time a truck has to reverse in a cul-de-sac or manoeuvres past a parked car with a runner working close behind it, the driver is relying on mirrors, training, minimal or no DVR camera vision, and the runners own awareness to avoid a collision they may not see coming in time.

Where Mirrors and Training Reach Their Limit

Mirrors and driver awareness remain essential, but they can never manage every angle around a waste vehicle. Consider what a driver is doing during a typical stop:

• Watching the road ahead and behind while manoeuvring the vehicle
• Tracking a runner who will often be out of direct line of sight behind the vehicle
• Monitoring for pedestrians, cyclists or vehicles approaching from the street
• Judging clearance in a driveway or narrow residential road

Even an experienced, well-trained driver cannot process all of this at once, every time, for an entire shift. Fatigue, glare and simple task saturation all reduce what a person can reliably observe in the moment a hazard appears. This is not a criticism of drivers. It is a description of the limits of human attention and capabilities under repeated, high-frequency operating conditions.

Where the Risk Actually Sits

This is not a hypothetical risk. In December 2025, a worker at a Victorian waste facility was fatally struck and run over by a reversing rear loader garbage truck, one of several recent incidents investigated by WorkSafe Victoria involving waste crew working close to moving vehicles (WorkSafe Victoria, 2025). Nor is it confined to a single event. In May 2026, a Broadmeadows recycling operator was charged after a worker sorting materials was struck and fatally crushed by a reversing front-end loader. Among the allegations was that the business had failed to install reversing cameras, and had left a faulty reversing alarm and obstructed mirrors unrepaired (WorkSafe Victoria, 2026). Both point to the same conclusion. These are moments of proximity, where someone was simply closer to the vehicle than the driver realised, and where the regulator's expectation is increasingly that the vehicle technology helps close that gap.

This is precisely the kind of foreseeable harm that the NHVR's registered Waste and Recycling Industry Code of Practice asks operators to address. The Code does not stop at exclusion zones and driver training. Under its controls for injury to persons during vehicle operations, it directs operators to install electronic driver aids and train drivers in their use, naming reversing cameras, blind spot cameras and vulnerable road user detection systems as examples (NHVR, 2024). A foreseeable risk that recurs hundreds of times a day across a fleet is difficult to describe as unforeseeable after the fact.

Engineered Detection as the Next Layer

Radar and camera-based vulnerable road user detection systems are increasingly being fitted to heavy vehicles to close this gap. Rather than replacing mirrors or training, these systems add a layer of active monitoring that does not fatigue, does not lose line of sight, and does not depend on the driver happening to look in the right direction at the right moment. When a person or object enters a defined detection zone around the vehicle, the driver and the person in danger receive an immediate audible and visual alert, regardless of whether that hazard was visible in a mirror. How well these systems work depends heavily on how their detection zones are configured for the vehicle and the operational task. Zones set too wide for a residential street produce near-constant alerts, and drivers learn to tune them out, so zone design is part of the control rather than an installation detail.

For fleets running dozens of vehicles across hundreds of stops a day, this kind of engineered control turns a risk that depends on individual vigilance into one that is actively managed.

A Practical Next Step for Fleet and Safety Teams

For fleet officers and safety teams reviewing waste collection operations, the starting point is not necessarily new equipment. It is a holistic review at where crew and public proximity to the vehicle is highest, and whether current controls, mirrors, training and procedure, are matched to the risk. Where they are not, engineered detection controls is one of the more direct ways to close the gap between what a driver can reasonably be expected to see and what is happening around the vehicle.

Fleet and safety teams wanting to benchmark their current controls against common waste collection risks can refer to the Heavy Vehicle Safety Requirements Information Pack, which sets out example risk scenarios and control measures relevant to waste operations.

Download the Information Pack