Humanoid robots in 2026: what's commercially ready for New Zealand organisations

Humanoid robots attract more attention than any other category of automation, and more confusion. Video of robots dancing, boxing and folding laundry sits alongside real commercial deployments doing dull work in factories and warehouses overseas. An operations director in Auckland, Hamilton or Christchurch needs to know which tasks a humanoid can do reliably on their site this year, and what it would take to find out.

What are humanoid robots doing in 2026?

Counterpoint Research, as reported by Robotics & Automation News, counts more than 22,000 humanoid robots shipped globally in the first half of 2026, up nearly 300% on the same period in 2025, with AgiBot the largest supplier. Another analyst, Smart Analytics Global, puts the half-year figure at about 19,100 and also ranks AgiBot first. The figures differ because the market is young and definitions vary, so treat them as indicative.

What those robots do is more modest than the headlines suggest:

• Tote and material handling: Agility Robotics reported in November 2025 that its Digit robot had moved more than 100,000 totes in a commercial deployment at a GXO logistics facility, moving items between mobile robots and conveyors and stacking totes.
• Factory work: UBTECH announced mass production and delivery of its full-size industrial humanoid in November 2025, citing work in automotive manufacturing, smart factories, logistics and data collection centres. Robotics & Automation News reports that AgiBot’s G2 industrial robot is working on a consumer electronics production line.
• Service and reception: smaller and wheeled humanoids are used for greeting, guided tours and retail promotion, where the task is conversational and physical contact is minimal.
• Research and education: research, education and performance still account for a meaningful share of some makers’ deployments. In New Zealand, AUT announced in September 2025 that it had two humanoid robots for teaching and research, including work on safety when robots and people work together.

Wheeled or bipedal?

The word “humanoid” covers very different machines. For most commercial buyers, whether the robot rolls or walks matters more than how human it looks.

Consideration	Wheeled humanoid	Full-size bipedal	Half-size bipedal
Best-fit floors	Flat, level commercial floors	Mixed terrain, steps, cluttered areas	Flat floors, events, education
Behaviour on power loss or fault	Usually statically stable, so stays upright	Can collapse or fall	Can fall, with lower energy
Working near people	Easier to manage	Needs the most separation	Moderate
Typical tasks in 2026	Line-side handling, retail picking, reception	Tote handling, factory pilots	Reception, research, promotion
Maturity for commercial work	Most practical today	Early, narrow deployments	Mostly research and engagement

Robotics pioneer Rodney Brooks advised in 2025 that people should not come closer than three metres to a full-size walking robot, because a larger robot’s falling limbs carry far more energy. He also expects humanoid robots to get wheels for feet, and several manufacturers already offer wheeled variants.

Who makes them?

The manufacturers shipping the most units include UBTECH, focused on industrial and service humanoids; AgiBot, with full-size, half-size and wheeled platforms; Galbot, which builds wheeled humanoids for commercial and industrial settings; Leju Robotics, with bipedal and wheeled platforms; and Unitree, whose sales include a meaningful research, education and performance share. Agility Robotics, Figure, Apptronik, Boston Dynamics and Tesla are also among the better-known developers, and Agility has publicly reported commercial work.

The market is young and crowded, and not every maker will survive. For a New Zealand buyer, parts, software updates and local support over the life of the robot should weigh as heavily as the robot itself.

What is hype and what is deployable?

Claim you will hear	What is realistic in 2026
A general-purpose worker that can learn any job	Narrow, trained tasks in structured, predictable areas
Works shoulder to shoulder with staff	Mostly separated or supervised zones
Human-like hands and dexterity	Grippers and simple hands for known objects; fine manipulation remains hard
Replaces a shift	Supplements staff on repetitive tasks, often at a slower pace
Fully autonomous	Autonomy within a defined task, with human help for exceptions

Where could a humanoid fit in a New Zealand operation?

Start from the task, not the robot. The candidates that match what humanoids do well elsewhere are repetitive, bounded and easy to measure:

• Distribution centres: moving totes between a conveyor, a mobile robot and a fixed station, ideally on a back shift where the task is hard to staff.
• Manufacturing and food and beverage processing: line-side loading and unloading at a fixed point. Check hygiene, wash-down, temperature and humidity requirements against the platform before anything else.
• Horticulture packhouses: handling at fixed stations during the packing season, where volumes swing. Confirm the platform copes with cool temperatures, noise and line speed.
• Hotels, airports and shopping centres: greeting and wayfinding in a lobby or concourse, where the robot talks to people and touches nothing.

In each case, compare the humanoid against simpler automation. An autonomous mobile robot, a conveyor or a collaborative arm may do the same job more cheaply and reliably. A humanoid earns its place where the site is built for people and cannot easily change.

How should you run a sensible pilot?

1. Choose one task that is repetitive, bounded and low-consequence if the robot pauses. Moving totes between two fixed points is a good candidate. Anything involving vulnerable people, such as residents in aged care or patients on a ward, is not.
2. Record a baseline of throughput, cycle time and staff hours for the task today.
3. Define success in advance, including throughput, interventions per hour, uptime and safety events, plus the result that would end the pilot.
4. Run it long enough to see normal variation, including quiet weeks and seasonal peaks.
5. Confirm how parts, servicing and software updates reach your sites, and where camera and sensor data is stored and processed.

What does HSWA mean for a humanoid pilot?

A humanoid is plant under the Health and Safety at Work Act 2015. The PCBU that manages or controls it must ensure, so far as is reasonably practicable, that it is without risks to anyone’s health and safety. Importers and suppliers carry upstream duties, including providing information on the robot’s intended use, the results of any testing and the conditions for using it safely. Ask for that information before you buy.

WorkSafe’s machinery guidance lists the hazards robots bring: impact from unexpected movement, trapping points, control errors and failures. Humanoids add one more. Interact Analysis notes that dynamically stable machines such as humanoids collapse when power is cut, leaving a residual fall hazard. ISO 25785-1, a standard for industrial mobile robots whose stability is actively controlled, is still in development, and the revised ISO 10218 standards assess collaborative safety by application, not by the robot alone.

In practice, define a working zone and fall clearance, keep people out of it or supervise it closely, engage the workers affected and your health and safety representatives, train operators on stops and recovery, and review the assessment after every software update or task change. From 1 April 2027, amendments to HSWA will require businesses to prioritise critical risks, so check whether a fall or collision on your site could meet that test. Our guide to robot safety under HSWA in New Zealand covers the general process.

Robotx can help you pick a suitable first task and scope a humanoid pilot around it.