According to tracking data compiled by the International Federation of Robotics, roughly 250,000 professional service robots were shipped worldwide across 2025 — a 24% rise from the previous year — with transport and logistics accounting for the largest share of deployments. According to the World Robotics 2026 Service Robots report, the transportation and logistics segment delivered 117,500 units — a 21% gain on the prior year's total — and accounted for nearly half, at 47%, of all professional service robot shipments tallied by the federation.
Robots that move goods — handling transport, material flow, and delivery tasks — fall within this grouping, setting them apart from stationary manipulator arms installed inside traditional production cells. That dividing line still carries practical meaning, though the distinction has become harder to draw as the daily rhythms of factory floors and warehouse operations converge.
On a typical factory floor, stationary robots handle tasks such as welding, component assembly, and machine tending, while a separate fleet of autonomous mobile units ferries parts from one workstation to the next. While both technologies fall under the automation umbrella, each one addresses a distinct set of operational constraints and gets tracked within separate IFR dataset categories.
A gap persisted between the high automation found in production equipment and the comparatively lower automation applied to moving materials around facilities — and robotics designed for transport and logistics tasks stepped into that space. Where throughput is predictable and paths stay fixed, traditional belt systems hold up well; mobile robotic units, by contrast, can be introduced and repositioned without any permanent alterations to the facility layout. Whenever facility layouts, product assortments, or throughput demands shift, both manufacturers and distribution operators retain the room to adapt without disruption.
On the factory floor, the pressing design challenge has shifted to how wheeled and tracked robotic units coordinate with stationary production machinery. Where parts land and in what sequence matters, but so does keeping pathways and machinery clear of congestion — meaning a fleet's ability to mesh its software with the wider plant ecosystem can carry as much weight in evaluating performance as the precision of the vehicles' own navigation.
According to the IFR, outright purchase arrangements hold their position as the dominant commercial model worldwide, even as subscription-based robotic deployment options have been gaining ground. Subscription-based and pay-per-use arrangements have taken hold as the prevailing way professional service robots reach their customers across the American market. For operators, the arithmetic behind required capital levels shifts as a result.
Under a fleet ownership arrangement, the organisation absorbs both the upfront cost of equipment and the ongoing risk tied to how well that equipment gets used, whereas a service-based structure can transfer those hardware, upkeep, and capacity-growth responsibilities onto the provider's side of the relationship. Where fluctuating demand makes fixed fleets impractical, or where an operation needs to scale up before its processes have been tested at volume, the case for flexible capacity tends to be at its most persuasive.
Among the professional service robot categories tracked in 2025, hospitality held the runner-up position, with professional cleaning accounting for the third-largest share. While those sectors operate under conditions quite unlike industrial logistics, the volume they bring to navigation, fleet management, sensing, and human-machine interaction builds a technology base that factory and warehouse equipment can draw upon.
The document also addresses the broader conversation about humanoid robots, adding a perspective that draws attention toward other areas of the field. Roughly 7,000 full-sized humanoid robots standing above 140 centimetres found buyers in professional and commercial markets worldwide over the course of that year, a count that excluded units built purely for research, development, or entertainment purposes.
That number carries weight partly because humanoid robots are seen by some as a potential means of adapting labour-intensive environments built for human use to automated operation. A humanoid robot's proportions — sized and shaped to match a person — mean it can navigate standard doorways, pick up everyday tools, slide into existing workstations, and move through ordinary aisles without requiring any redesign of the surrounding space.
Units of this type, once put into commercial operation, represent only a modest portion of the broader installed base when measured against robots designed from the outset for service-oriented work. According to the IFR, adoption remains hampered by a cluster of unresolved challenges — among them safety standards, the cost of training and upkeep, the ability to handle manipulation tasks, programming requirements, and a business case that has yet to justify the investment.
A good number of today's humanoid robots are built around narrow functions, and some still rely on human operators guiding them remotely rather than acting as independent, all-purpose machines. When weighing up these platforms, those operating them in industrial settings run assessments across cycle time, uptime, maintenance demands, safety performance, and the full cost picture against what rival options offer. Where a humanoid robot can handle multiple functions, the engineering overhead tied to balancing, sensory processing, manipulation, and control carries implications for whether that versatility is justified against competing platforms.
Where application and economics align, robotic platforms built for medical use have demonstrated a capacity for broad deployment across the sector. Throughout 2025, the IFR logged sales of 8,400 surgical robots, a figure that represents a 57% rise over the prior year's total. Where service robots slot into a clearly defined workflow, adoption rates have shown they can climb fast — even though the regulatory and commercial landscape in that sector looks nothing like industrial logistics.
Those numbers build on a separate IFR dataset recording the worldwide fleet of industrial robots crossing the five-million-unit threshold. Where the two datasets diverge when examined in isolation, placing them side by side reveals a broader pattern: robotic and automated systems are taking hold not only inside dedicated production cells but also across the logistics, service, and support operations built around them.
Surveys of factory operators indicate that logistics networks and delivery infrastructure tend to rank higher on their priority lists than humanoid robotics does at present. Shipments of transport and logistics robots across a single twelve-month period reached roughly 118,000 units, a volume that places autonomous material-handling equipment on a firmly established commercial footing. Robotics built around repetitive, well-defined operations forms the backbone of today's automation industry, even as humanoid machines point toward a broader set of potential applications down the line.
