Every major road in Melbourne has a tram network within it, a hook turn rule most delivery software has never heard of, and a metro area that stretches so far out that two different routes can look like two entirely different jobs.
Adiona's route optimization software factors in these constraints specific to the Melbourne metro area. For the national picture, read our breakdown of Australia's last-mile delivery challenges.
Melbourne's unique roads: Trams and hook turns
Melbourne runs the largest tram network in the world by track length, and that network dictates how vehicles are allowed to move through the CBD. At several inner-city intersections, right turns are made from the far-left lane, with the driver pulling across, waiting, and completing the turn once the cross-street's lights change. It's called a hook turn, and it exists purely to stop cars from blocking trams queued behind them.
A routing engine that doesn't know which intersections require a hook turn will send a driver into oncoming traffic expecting a normal right turn. Beyond hook turns, drivers also have to give way to trams pulling out, and can't legally overtake a stationary tram once its doors are open for passengers. These both cost real time on a route that treats every intersection as generic.
Montague Street Bridge and Melbourne's low-clearance problem
If Sydney's tunnels are the obstacle, Melbourne's is a single bridge. The Montague Street Bridge in South Melbourne has a clearance of just 3 metres, low enough that it's been struck by over-height trucks so often it has its own social media following. The bridge can't be raised or the road lowered, because the tram line running across it and the utilities running beneath it make either option prohibitively expensive.
It's not an isolated case. Melbourne's CityLink tunnels (the Burnley and Domain tunnels connecting the West Gate Freeway to the Monash Freeway) have a hard clearance of 4.65 metres, with an electronic detection system that halts all traffic and closes boom gates if an over-height vehicle approaches. A router that doesn't know a vehicle's real dimensions before it plans the trip isn't just inefficient here, it can shut down a tunnel for everyone else on the road too.
The CBD is losing lanes to trams, bikes, and pedestrians
Melbourne's CBD grid was built wide by nineteenth-century standards, but a lot of that width has been reallocated over the past decade. Sections of Swanston Street are restricted to trams, buses, cyclists, and pedestrians only, cutting straight through what used to be a through-route for general traffic. Protected bike lanes have expanded across streets like La Trobe and Albert, narrowing the space left for delivery vehicles and loading.
For a delivery fleet, this means a route that worked last year can lose a lane, or an entire street, without much warning. Dynamic routing that can absorb a lane closure or a new bike lane without a full manual replan is what keeps a CBD round workable as the city keeps reallocating road space away from cars.
Parking in the inner suburbs
Fitzroy, Collingwood, St Kilda, and Richmond were built well before delivery vans existed... and it shows. These suburbs are full of narrow streets, short clearways, and a real shortage of legal places to stop. Circling the block for a second park costs more time than most fleet managers budget for, especially on rounds with a lot of small, closely spaced stops.
Radius Routing optimises routes for parking
We built Radius Routing directly based on feedback like this. Instead of treating every stop as its own parking problem, it groups deliveries that can be walked from a single parking spot. In an inner Melbourne suburb where the drive between two addresses takes ninety seconds but finding a second legal park takes five minutes, that reshuffling saves more time than distance optimisation alone ever could.
StarTrack Courier, who route across metropolitan Melbourne as part of Australia Post's national network, put a number on what this kind of optimisation is worth. Chris Cano, their National Business Improvement and Implementation Manager, described the shift plainly in our case study on route optimisation at StarTrack Courier: "If a run was not sequenced and unoptimised, we would just give it to a driver and say 'do your best.' Now, we look at an old route that took eight hours, see how it could be optimised, and do it in seven." Across 16,000 drivers nationally, an hour saved per driver per day adds up to 16,000 hours of extra productivity in a single day. In Melbourne specifically, a substantial share of that gain comes from parking and tram-related delay, not raw distance.
Melbourne's growth corridors
Melbourne's outer growth areas (the western corridor around Tarneit, Truganina, and Point Cook, and the south-eastern corridor around Cranbourne and Officer) behave nothing like the inner city. Streets are wider, blocks are newer and larger, and parking is rarely the constraint it is closer to the CBD. What replaces it is distance and stop density. Drivers here cover far more kilometres between stops, so vehicle right-sizing and route density matter more than parking proximity.
A fleet running both an inner-Melbourne round and a western-corridor round is really running two different optimisation problems under one banner. A routing platform needs to treat them that way, with territory design as much a factor as stop sequencing, rather than applying a single set of assumptions across a metro area that spans this much variation.
EV routing in Melbourne
Melbourne's EV charging network follows the same inner-dense, outer-sparse pattern as its road network generally, which makes outer growth corridor rounds the harder case for electric delivery vehicles today. The trade-off runs the other way in the inner city, EVs are quiet enough to operate during hours that noise restrictions would otherwise block, which matters in residential pockets of the Inner North and Bayside where a diesel van simply can't run early or late. We cover this trade-off in more detail in how adding EVs to your fleet changes your route optimisation options, and if you're planning a pilot, our six-step guide to testing electric delivery vans walks through how to avoid the most common reason EV pilots stall before they scale.
Delivering to Melbourne businesses
B2B delivery around Melbourne's industrial precincts (Laverton North, Dandenong South, Somerton, and the Port of Melbourne itself) often runs on booked loading dock slots, site inductions, and specific vehicle requirements, where missing a slot means hours of waiting rather than a quick drop-off. Combined with concentrated business hours and increasingly tight customer-imposed delivery windows, a Melbourne B2B round has far less slack in it than the same round in a smaller city. Getting this right depends on tracking the right operational metrics in the first place. Our guide to the top KPIs B2B delivery fleets should cover includes the on-time and dock-utilisation metrics that matter most here.
Ongoing Construction
The Metro Tunnel project, the West Gate Tunnel, and ongoing level crossing removals mean Melbourne's road network changes more often than most fleet managers plan for. A route that was optimal in one quarter can be wrong the next because of a lane closure, a new tram diversion, or a road that's simply gone. Static routes go stale fast in a city under this much construction, and fleets that can't adjust quickly either absorb the delay or lean on driver experience to route around it in real time, which doesn't scale past a handful of drivers.
Melbourne last-mile delivery: Frequently asked questions
What is a hook turn and why does it matter for delivery routing?
A hook turn is a right turn made from the far-left lane rather than the right-hand lane, used at select Melbourne CBD intersections to keep trams moving freely. A routing engine that doesn't know which intersections require a hook turn will route a driver into an illegal or dangerous turn.
Why can't Montague Street Bridge in Melbourne just be raised or lowered to fix the clearance problem?
Raising the bridge would require relocating an adjacent tram maintenance depot, an expense authorities have judged isn't worth it. Lowering the road isn't possible either, because major gas and electricity infrastructure runs beneath Montague Street, and the road sits above tidal flood levels that would otherwise flood the area. The constraint isn't going away, which is why routing around it correctly matters more than hoping it gets fixed.
Does a route plan built for inner Melbourne also work in outer corridors like Tarneit or Cranbourne?
Not without adjustment. Inner Melbourne routing is shaped by trams, hook turns, and parking scarcity, while outer growth corridors are shaped by distance and vehicle right-sizing. A fleet running both needs a routing platform that treats them as separate problems, not one set of assumptions stretched across the whole metro area.
Do Melbourne's trams actually slow down delivery routes, or is it a minor inconvenience?
It adds up. Giving way to trams pulling out, waiting behind a stationary tram with its doors open, and navigating hook turns all cost real time at a stop-by-stop level. On a round with dozens of stops through the inner city, that time compounds across a full day in a way a routing engine built for a non-tram city won't anticipate.
What this means for fleet managers routing through Melbourne
None of these constraints are edge cases you can plan around once and forget. Trams run every day, Montague Street Bridge isn't being raised, and the gap between an inner-Melbourne round and a Tarneit or Cranbourne round isn't closing any time soon. A routing platform that treats Melbourne as a generic Australian city — or worse, as a right-hand-drive city without hook turns — will hand drivers routes that look efficient on paper and fall apart the first time a tram pulls out ahead of them.
Try your Sydney route plans through our sandbox environment and see where the gains are.