Last-Mile Delivery in Canadian Cities: The Hardest Problem in Logistics

Ask any logistics professional to identify the most challenging, most expensive, and most rapidly evolving segment of the supply chain, and the answer is almost always the same: last-mile delivery. The final leg of the freight journey — from a distribution centre or fulfilment hub to the end customer's door — accounts for a disproportionate share of total logistics cost, generates a disproportionate share of customer complaints, and is the segment most directly affected by the structural changes reshaping the economy.

In Canadian cities, the last-mile challenge is particularly acute. The combination of urban density, traffic congestion, aging infrastructure, extreme weather, and the explosive growth of e-commerce has created a last-mile environment that is more demanding than it has ever been — and the demands are still growing.

The cost structure of last-mile delivery is fundamentally different from the economics of long-haul freight. In long-haul trucking, a driver can cover 600 kilometres in a day, moving a full truckload of freight efficiently from origin to destination. In last-mile delivery, a driver might make 80 to 120 stops in a day, covering perhaps 150 kilometres — but spending the majority of their time navigating traffic, finding parking, walking to delivery locations, and managing the administrative tasks associated with each stop.

This stop-intensive model is inherently expensive. The labour cost per kilometre is much higher than in long-haul operations. The vehicle utilization is lower. The fuel efficiency is worse, because urban driving involves constant acceleration and deceleration. The administrative overhead — managing delivery exceptions, customer communications, proof of delivery — is substantial.

Industry estimates consistently find that last-mile delivery accounts for 40 to 55 percent of total supply chain cost, despite representing only the final few kilometres of a journey that may have covered thousands of kilometres. For e-commerce deliveries, where the average order value is often modest and the customer expectation is for free or low-cost delivery, the economics are particularly challenging.

The growth of e-commerce has been the dominant force reshaping last-mile delivery in Canada over the past decade, and the COVID-19 pandemic accelerated that growth dramatically. Canadians now buy a significant and growing share of their retail purchases online, and each of those purchases generates a last-mile delivery event.

The volume implications are staggering. A single large e-commerce retailer can generate millions of delivery events per day across Canada. The density of deliveries in urban areas — where most Canadians live — is high enough to make route optimization meaningful, but the diversity of delivery locations, the variability of customer availability, and the complexity of managing delivery exceptions create operational challenges that are difficult to solve at scale.

Consumer expectations have been shaped by the practices of the largest e-commerce operators. Same-day and next-day delivery, real-time tracking, flexible delivery windows, and easy returns have become baseline expectations for many consumers. Meeting these expectations requires logistics infrastructure and operational capabilities that are expensive to build and maintain.

Returns management is a significant and often underappreciated component of last-mile logistics. E-commerce return rates are substantially higher than in-store return rates — in some categories, 20 to 30 percent of purchases are returned. Managing the reverse logistics of returns — collecting packages from customers, sorting and processing them, and returning them to inventory or disposing of them — adds cost and complexity to the last-mile operation.

Canadian cities present specific physical challenges for last-mile delivery that compound the economic difficulties.

Traffic congestion in major Canadian cities — Toronto, Vancouver, Montreal, Calgary — is severe and worsening. The Greater Toronto Area consistently ranks among the most congested urban areas in North America. For delivery drivers, congestion means longer travel times between stops, higher fuel costs, and reduced daily stop counts — all of which increase the cost per delivery.

Parking and loading zone access is a persistent challenge in dense urban areas. Many Canadian cities have inadequate commercial loading zone infrastructure, forcing delivery drivers to double-park, park in bike lanes, or walk long distances from their vehicles to delivery locations. This adds time to each stop and creates safety and congestion problems.

Building access in high-rise residential and commercial buildings adds complexity. A delivery to a residential tower requires navigating building security, finding the correct unit, and managing the interaction with the recipient — or managing a failed delivery attempt if the recipient is not home. High-rise deliveries take significantly longer per stop than deliveries to single-family homes.

Seasonal weather creates operational challenges that are more severe in Canada than in most other markets. Winter conditions — snow, ice, extreme cold — slow delivery operations, increase accident risk, and create vehicle reliability challenges. Summer heat waves create working condition challenges for delivery personnel and can affect the integrity of temperature-sensitive deliveries.

One of the most significant inefficiencies in last-mile delivery is the failed delivery — an attempt to deliver a package when the recipient is not available to receive it. Failed deliveries require a second (or third) delivery attempt, which roughly doubles the cost of the delivery. They also generate customer dissatisfaction and, in some cases, package theft or loss.

The failed delivery rate in residential last-mile delivery is substantial — industry estimates suggest that 5 to 15 percent of residential delivery attempts fail on the first attempt. In dense urban areas with high-rise buildings and security-controlled access, the rate can be higher.

Addressing the failed delivery problem requires a combination of technology, operational design, and customer communication. Real-time delivery notifications that allow customers to redirect deliveries, flexible delivery windows that accommodate customer schedules, secure parcel lockers in residential buildings and public locations, and delivery to alternative locations (neighbours, building management offices) are all approaches that reduce failed delivery rates.

Technology is playing an increasingly important role in improving last-mile delivery efficiency, and the pace of innovation in this space is rapid.

Route optimization software has become sophisticated enough to generate delivery routes that are meaningfully more efficient than human-planned routes. Modern route optimization systems incorporate real-time traffic data, delivery time windows, vehicle capacity constraints, and historical delivery performance data to generate routes that minimize total delivery time and cost.

Real-time tracking and communication platforms allow customers to follow their deliveries in real time and to communicate with delivery personnel. This reduces failed deliveries by allowing customers to make themselves available when their delivery is approaching, and it improves customer satisfaction by providing visibility into the delivery process.

Delivery management systems provide dispatchers and operations managers with real-time visibility into delivery operations, allowing them to identify and respond to problems — a driver running behind schedule, a vehicle breakdown, a delivery exception — before they cascade into larger service failures.

Autonomous delivery vehicles and robots are being piloted in several Canadian cities. Sidewalk delivery robots — small autonomous vehicles that navigate pedestrian infrastructure to deliver packages — have been tested in Toronto and other urban centres. Autonomous delivery vans are being piloted in controlled environments. These technologies are not yet ready for widespread commercial deployment, but they represent a potential future solution to the labour cost challenge in last-mile delivery.

Drone delivery has attracted significant investment and attention, but its commercial viability in dense Canadian urban environments remains limited by regulatory constraints, weather challenges, and the practical difficulties of delivering to high-rise buildings.

Last-mile delivery is a significant contributor to urban air pollution and greenhouse gas emissions. The concentration of delivery vehicles in urban areas — many of them diesel-powered — contributes to air quality problems that affect urban residents disproportionately.

Several Canadian cities have begun exploring policies to reduce the environmental impact of urban freight delivery. Low-emission zones that restrict access for high-polluting vehicles, incentives for electric delivery vehicles, and requirements for sustainable delivery practices in new commercial developments are among the policy tools being considered.

For logistics operators, the sustainability imperative is creating both regulatory pressure and competitive opportunity. Companies that invest in electric delivery vehicles, optimize routes to reduce emissions, and develop sustainable last-mile delivery models are positioning themselves for a regulatory environment that is likely to become more demanding over time.

Electric delivery vans are already commercially available and are being deployed by several major logistics operators in Canadian cities. The economics of electric delivery vehicles are improving as battery costs decline and as electricity prices remain more stable than diesel. For urban last-mile operations — where vehicles return to a depot nightly and daily ranges are predictable — electric vehicles are already economically competitive in many applications.

For shippers who are managing last-mile delivery as part of their logistics programs, several strategies can improve performance and reduce cost.

Distribution network design is the most fundamental lever. The location of distribution centres relative to the customer base directly determines the average distance of last-mile deliveries. Shippers who position distribution centres close to their customer concentrations can reduce last-mile distances, improve delivery speed, and reduce cost.

Carrier selection and management for last-mile delivery requires the same attention as carrier management for long-haul freight. Last-mile carriers vary significantly in their capabilities, their technology, and their performance. Evaluating carriers on delivery success rates, customer satisfaction scores, and technology capabilities — not just price — produces better outcomes.

Packaging optimization affects last-mile efficiency in ways that are often overlooked. Packages that are right-sized for their contents are easier to handle, take up less space in delivery vehicles, and are less likely to be damaged in transit. Reducing packaging waste also has sustainability benefits that are increasingly valued by customers.

Customer communication is a powerful tool for reducing failed deliveries and improving customer satisfaction. Proactive delivery notifications, flexible delivery options, and easy-to-use delivery management tools reduce the friction of the delivery experience and improve the probability of successful first-attempt delivery.

The last-mile delivery challenge is not going to get easier. The growth of e-commerce, the increasing expectations of consumers, and the physical constraints of urban environments are structural forces that will continue to make last-mile delivery more demanding. But companies that invest in the technology, the operational capabilities, and the carrier relationships needed to excel at last-mile delivery will have a meaningful competitive advantage in an economy where delivery performance is increasingly a differentiator.