IN Brief:
- GXO and Apptronik signed a letter of intent on 12 November 2026 to expand testing of Apollo humanoid robots in live logistics facilities.
- Planned tests include goods-to-person and person-to-goods picking, tote movement, packing, and sortation, using agreed safety and productivity measures.
- A potential global rollout of up to 1,000 robots over four years depends on successful evaluation, with a Robotics-as-a-Service commercial structure envisaged.
GXO Logistics and robotics developer Apptronik have signed a letter of intent to expand live warehouse testing of Apollo humanoid robots, with a potential deployment programme reaching up to 1,000 units over the next four years. The agreement, announced on 12 November 2026, establishes a framework for further trials and a possible commercial rollout. The figure is a conditional rollout ceiling, not an order for 1,000 machines: progression depends on jointly agreed safety, security, productivity, and operational measures.
The two companies plan to assess Apollo across a wider range of warehouse activities, including goods-to-person and person-to-goods picking, movement of cases and totes, packing, and sortation. Those tasks differ in the objects handled, the precision required, and the time available to complete each movement. Performance in one process does not establish that the robot can reliably undertake other tasks with different loads, presentations, or cycle times. GXO and Apptronik intend to select and sequence use cases using jointly agreed operational measures rather than treating general-purpose movement as proof of production readiness.
Trials scheduled to expand from 2027 will take place in live logistics operations where robots must work alongside existing automation and employees. In a goods-to-person process, items are brought towards a picking point, whereas person-to-goods workflows normally involve travel to storage locations to retrieve items. The work required from a humanoid robot changes depending on which part of the movement it performs. Physical access, reach, item presentation, and handover to conveyors or containers all have to match the facility’s established operating design.
Case and tote handling introduce variable loads and gripping conditions. A load may have predictable dimensions but vary in weight, surface friction, or centre of gravity, while a tote may be full, partially filled, or empty. Robots must reliably identify the target, position their hands, maintain a secure grip, and place it without interrupting the surrounding flow. The announcement does not publish Apollo’s task-specific success rates, cycle times, payload figures, or operating uptime during GXO trials, so no quantified throughput improvement can yet be attributed to the expanded project.
GXO and Apptronik began collaborating in 2024 through a proof-of-concept programme directed at warehouse applications. During 2026, Apollo completed a US pilot focused on autonomous picking of small consumer goods, according to the companies. They also undertook data collection and live autonomous evaluations covering more than 50 logistics tasks at Apptronik’s Robot Park training facility. The partners have not identified which of those tasks have passed their thresholds for sustained commercial operation.
Robot Park evaluations provide controlled conditions, while live warehouses introduce moving colleagues, less consistent item presentation, machine stoppages, and changing order priorities during shifts. The machine must operate safely within those constraints, including responding correctly to people, obstacles, and faults. GXO says the next phase will explicitly validate the requirements for scaled deployment rather than relying only on controlled demonstrations.
Safety evaluation will cover physical interaction with staff and equipment, while security assessment will address connected systems and operational data. Physical safety covers issues such as collision prevention, safe stopping, load retention, and predictable interactions with workers. Security also concerns the protection of systems and data used to control machines, particularly when a robot communicates with warehouse applications or remote services. The letter of intent does not disclose the precise control architecture, external connectivity, operating safety certification, or cybersecurity measures that will be applied to the proposed commercial programme.
Warehouse productivity depends on the material-handling system around the robot as well as the speed of individual manipulations. The number of completed picks per hour is influenced by product presentation, the distance between work positions, congestion, and the availability of containers or downstream equipment. A robot can achieve a high success rate for an isolated manipulation while still falling short of a facility’s required overall cycle time. Joint performance measures can establish whether the technology contributes reliable capacity under routine warehouse conditions, but the companies have not published threshold values for those measures.
Subject to successful evaluations, GXO and Apptronik intend to begin commercial deployment in North America in late 2027 and potentially extend the programme globally. The four-year ceiling of 1,000 robots does not establish a contracted fleet or immediate delivery schedule. Site selection, customer approval, installation requirements, and final commercial terms remain unspecified. The partners have not disclosed a price per unit, a total contract value, or a target number of robots for the initial wave.
The partners envisage a Robotics-as-a-Service structure, under which customers access robotic capability through a service agreement rather than buying every machine outright. The particular allocation of maintenance, software support, performance risk, and replacement obligations depends on the contract. GXO and Apptronik have described their intended structure but have not published binding service levels, payment terms, or the circumstances in which a deployed robot could be withdrawn.
Service contracts could be agreed for individual warehouse sites and workflows as operating results become available, although GXO and Apptronik have not disclosed how rollout decisions would be structured. A building with predictable case movement may present different requirements from a site handling mixed parcels or consumer goods in variable packaging. Establishing a repeatable technical and commercial method would be necessary before equipment tested at one GXO site could be deployed across many warehouse layouts. The agreement provides a route for exploring that scale without establishing its achievement.
After the completed small-goods picking pilot and evaluations of more than 50 tasks, the partners plan wider live-site tests from 2027. Published safety results, sustained throughput figures, and confirmation of the first North American commercial installation will establish whether the programme can move beyond trials. The letter of intent contains no guaranteed deployment count or disclosed contract value.
