Components and Hardware Humanoids

China’s Dexterous Hand Industry, 2026 Part 1 — The Demand Picture

MIR Databank puts China dexterous hand shipments above 30,000 units in 2026, yet only 3.5% of 2025 demand came from factory production. Part 1 of 3.

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China’s Dexterous Hand Industry, 2026 Part 1 — The Demand Picture
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How large the market actually is, which platforms are buying, and how far today’s installed base still sits from production work — the demand half of MIR Databank’s 2026 white paper.

Briefing details

 

Source document

2026 China Dexterous Hand Industry White Paper, MIR Industry Research (MIR Databank), 40 pp.

Series

Part 1 — The Demand Picture  ·  Part 2 — The Technology  ·   Part 3 — The Players

In this part

Executive summary and headline figures · four-phase market trajectory to 2030 · what MIR actually labels on its charts · humanoid and industrial embodied-AI host platforms · application mix 2025 against 2030 · home service, wearable rehabilitation and special operations

Prepared for

RobotToday global readership — OEM strategy, component sourcing, investment and editorial teams

Note on figures

All quantitative forecasts are MIR Databank estimates as published; RobotToday has not independently verified them.

Executive Summary

The dexterous hand is the component on which the humanoid-robot investment thesis ultimately rests. A bipedal platform that can walk, balance and see is impressive; a platform that can pick up an unfamiliar object, reorient it in-hand and seat a connector is commercially useful. MIR Databank’s 2026 white paper is the most detailed public accounting RobotToday has seen of how far China’s supply base has closed that gap — and how far it has not.

Four conclusions matter most to an international reader. These four are RobotToday’s reading of the report rather than MIR’s own summary; figures attributed to MIR are the white paper’s, the framing around them is ours.

  • The category is real but pre-commercial. MIR estimates 2026 shipments will pass 30,000 units and that the total China market will exceed RMB 3 billion (roughly USD 420 million) by 2030. Against that, only 3.5% of 2025 demand came from industrial production use, while research, education and data collection together accounted for 74.4% (Figure 15; the body text rounds these to 4% and 74%). The installed base today is overwhelmingly a training and demonstration fleet, not a working one.

  • 2026 is the inflection year, not the breakout year. MIR frames 2026 as the first period in which small-batch, industry-grade orders — logistics sorting, automotive assembly, 3C electronics — replace research procurement as the marginal source of growth. The step change in volume is modelled for 2027 onward.

  • Hardware differentiation is closing; software differentiation is opening. Low-level motion control is treated by MIR as a commodity capability. The defensible layer is the upper model tier — multimodal perception, task decomposition and skill generalisation — and the proprietary interaction data required to train it. The report codifies this in a five-level dexterity scale (DL1–DL5) in which most shipping product sits at DL1–DL2.

  • Third-party supply will remain dominant. In the industry’s early development phase, more than 80% of humanoid OEMs sourced their hands externally rather than building them, and MIR expects third-party procurement to keep the leading share over the long term. MIR expects in-house programmes at leading OEMs to stay small-batch and differentiation-driven, because micro-motor, micro-reducer and tactile-sensor integration is too capital-intensive for any single OEM to cover across a full product range. Specialist hand suppliers therefore keep the volume.

Headline figures

Metric

Value

Basis

2026 dexterous hand shipments, China

> 30,000 units

MIR Databank estimate

2030 total China market value

> RMB 3.0 billion

MIR Databank forecast

2030 third-party hands, humanoid segment only

> 160,000 units

MIR Databank forecast (Ch. 5; not a whole-market figure)

Humanoid output growth, 2025 vs 2024

≈ 6.6×

MIR Databank

Humanoid output CAGR, 2025–2030

≈ 73%

MIR Databank forecast

Industrial share of hand demand, 2025

3.5%

MIR Databank, Figure 15 (body text rounds to 4%)

Research + data-collection share, 2025

74.4%

MIR Databank, Figure 15 (body text rounds to 74%)

Industrial share of hand demand, 2030

47.0% (sum of industrial verticals)

RobotToday sum of MIR Figure 15 slices

Humanoid OEMs sourcing hands externally

> 80% in the early phase

MIR Databank (Ch. 5; long-term third-party dominance expected)

Humanoid output, China, 2025

18,010 units

MIR Databank, Figure 11 data label

Industrial embodied-AI robot output, 2025

800 units

MIR Databank, Figure 13 data label

Dexterous hand market CAGR to 2030

+48% by value, +62% by units

MIR Databank, Figures 4 and 5 annotations

Humanoid-segment hand CAGR to 2030

+75% by units

MIR Databank, Figure 12 annotation

Currency conversion at approximately RMB 7.15 = USD 1.00 is RobotToday’s, for reader convenience only.

1. Market Trajectory

MIR models the China market in four phases. The phase language matters more than the point estimates, because it identifies which buyer is setting the price and the specification at each stage.

Phase

Period

Demand character

1. Germination

2024 and earlier

Custom, small-batch delivery to universities and research institutes. Few entrants, no standardised solutions, no basis for volume growth.

2. Pre-inflection

2025

Demonstration and validation. Prototypes, laboratory algorithm training, single-site pilots. Buyers are research institutions and robot developers testing force control, tactile sensing and multi-DOF grasping. No repeatable standardised solutions in the field.

3. Inflection

2026

Small-batch industry-grade deployment begins. Shipments pass 30,000 units. Standardised packages appear for logistics sorting, automotive assembly and 3C assembly; suppliers begin offering production machines rated for continuous duty.

4. Scale-out

2027 onward

Standardised industry applications drive growth. Compliant control, tactile sensing and fine-manipulation maturity plus falling unit cost release volume procurement. Market structure is rebuilt around industrial automation and humanoid production supply.

Source: MIR Databank, Chapter 2. RobotToday summary.

Value against volume

MIR publishes the market twice — Figure 4 in RMB millions, Figure 5 in units — and annotates each with a compound growth rate to 2030. The two do not match.

MIR annotation

Value series (Figure 4)

Unit series (Figure 5)

Compound growth to 2030

+48%

+62%

Year-on-year, 2024

+47%

+193%

Year-on-year, 2025

+82%

+224%

Source: MIR Databank, Figures 4 and 5. These are the only numeric annotations on either chart; MIR publishes neither the underlying bar values nor an average selling price.

Everything MIR actually labels

The white paper charts eight years of history and forecast across six figures but publishes almost no bar values. To spare readers checking, this is the complete set of numbers legible on the charts themselves; every other figure in this briefing comes from the body text.

Figure

Series

Labelled values

Growth annotation

Figure 4

Dexterous hand market, RMB million

None

+48% CAGR to 2030; +47% (2024), +82% (2025) YoY

Figure 5

Dexterous hand market, units

None

+62% CAGR to 2030; +193% (2024), +224% (2025) YoY

Figure 11

Humanoid output, units

18,010 (2025)

None on chart; 73% CAGR stated in the text

Figure 12

Hands into humanoids, units

None

+75% CAGR to 2030; +900% (2024), +834% (2025) YoY

Figure 13

Industrial embodied-AI robots, units

800 (2025)

None

Figure 14

Hands into industrial embodied-AI robots, units

None

+98% CAGR to 2030; +1,500% (2025) YoY

Source: MIR Databank, Figures 4, 5 and 11–14. As an order-of-magnitude guide, the axis ceilings are 300,000 units on Figure 11, 200,000 on Figure 12, 30,000 on Figure 13 and 15,000 on Figure 14, and the 2030E bar approaches the ceiling in each case — but MIR labels none of those bars, so they are not quoted as figures here.

RobotToday reading: units growing materially faster than value, in the history as well as the forecast, implies sustained erosion in average selling price as micro-actuator supply localises. MIR does not publish an ASP series and does not state this conclusion, but the gap between the two annotations is difficult to read any other way, and suppliers whose margin depends on today’s price band should treat it as the working assumption. The second point worth flagging is scale: the 2030 value estimate of RMB 3 billion is modest relative to the attention the category receives — roughly a mid-tier industrial component segment, not a transformative market on its own. Its strategic weight comes from being the gating component for the far larger humanoid and embodied-AI markets above it.

2. Host Platforms: Where the Hands Are Fitted

2.1 Humanoid robots

MIR defines a humanoid as a robot with a human-like torso, head, dual arms (with manipulation mechanisms and joints) and lower limbs (locomotion mechanism), using embodied intelligence for perception, cognition, decision-making and execution. Three form factors are tracked, and their attachment rates diverge sharply.

Form factor

Structure

Dexterous-hand attachment

Representative players

Wheeled

Humanoid upper body on a wheeled chassis; shoulder, elbow and wrist joints, two- or three-finger gripper or dexterous hand at the end

Low today — rigid grippers dominate on cost grounds; mid-to-high-end models now offer multi-finger hands as an option. Gradual climb expected.

Agibot, Unitree, Galbot, Galaxea AI

Small/mid biped (1.0 m to under 1.4 m)

Compact, highly integrated joints; simple grippers or small anthropomorphic hands

Lowest — production units generally ship without dexterous hands. Core demand is education and entertainment. Upside is entirely a component-cost story.

Unitree, Noetix Robotics

Full-size biped (≥ 1.4 m)

High-torque, highly integrated joints; near-human arm workspace; complete hip/knee/ankle biomimetic legs

Highest — fine manipulation is the product’s core competitive claim. This is the primary demand carrier for dexterous hands.

Agibot, UBTECH, Leju Robotics

Source: MIR Databank, Table 5 and Section 5(1)3. RobotToday condensation.

MIR’s 2025 pivot points: China humanoid output reached 18,010 units — the one absolute figure MIR labels on Figure 11 — growing roughly 6.6× year on year as leading manufacturers built production lines and supply chains, following 2024 as the prototype-validation year. The 2025–2030 CAGR is put at approximately 73%, which on RobotToday’s arithmetic implies output approaching 280,000 units by 2030; MIR does not label that bar. Wheeled platforms are expected to dominate near-term volume on cost and deployability; small/mid bipeds are the fastest-growing increment; full-size bipeds grow their share steadily and pull the dexterous-hand attachment rate with them.

2.2 Industrial embodied-AI robots

MIR’s second host category is defined as a robot with a manipulator structure and a vision system that uses embodied intelligence for perception, cognition, decision-making and execution. It splits into mobile units (mobile base plus collaborative arm plus end effector — essentially the intelligent evolution of the composite robot) and fixed units (fixed base plus multi-axis industrial or collaborative arm — the intelligent evolution of the industrial robot, covering intelligent welding, random depalletising and adaptive grinding).

  • Fixed units dominate current demand, concentrated in 3C electronics and automotive-component flexible assembly stations. Rigid grippers still serve heavy load/unload work; dexterous hands are appearing in micro-component assembly, flexible material lamination and precision connector insertion. Representative players: Weiyi Intelligent Manufacturing, ROKAE Robotics.

  • Mobile units are mostly still in on-site validation. Production configurations run low-cost two-finger rigid grippers; dexterous hands appear only in precision material transfer and laboratory automation. Battery life and BOM cost constrain penetration. Representative players: JAKA Robotics, Siasun (DUCO).

MIR labels one absolute figure on Figure 13: 800 industrial embodied-AI robots produced in China in 2025, against a chart axis running to 30,000 by 2030. That base is two orders of magnitude below the humanoid figure, which is the honest scale of this second demand block today. MIR’s judgement is that industrial embodied AI will nonetheless be the second durable growth block for dexterous hands alongside humanoids — lower-profile than the humanoid narrative, but with clearer near-term procurement logic because the buyer is an existing automation customer with a quantifiable line problem.

3. Application Mix: 2025 Against 2030

The single most useful table in the white paper is the application split. It quantifies precisely how far the category is from production duty today, and where MIR expects the weight to move.

Application

2025 share

2030 share

Direction

Research and education

45.2%

8.6%

Sharply down as a share; still growing in absolute terms

Data collection

29.2%

6.1%

Sharply down as a share

Entertainment and performance

8.3%

7.4%

Broadly flat

Commercial — other

7.6%

5.5%

Down

Industrial — total

3.5%

47.0%

The structural shift

  Automotive

n/d

14.3%

Largest single 2030 vertical

  Warehousing and logistics

n/d

12.3%

Early leader, share compressing

  3C electronics

n/d

9.0%

Rising

  Lithium battery

n/d

4.9%

Rising

  Industrial — other

n/d

6.5%

Rising

Reception and guiding

n/d

8.2%

New commercial block

Retail

n/d

6.5%

New commercial block

Special operations

n/d

4.9%

New block

Hospitality

n/d

0.6%

Marginal

Other

6.2%

5.2%

Flat

Source: MIR Databank, Figure 15. 2025 industrial demand is charted as a single 3.5% block; the 2030 vertical breakdown is MIR’s, and the 47.0% total is RobotToday’s sum of MIR’s five industrial slices. Chapter 6 of the white paper rounds the 2025 figures to 4% industrial and 74% research-plus-data-collection; the chart values are used here. “n/d” means not disclosed at total-market level for 2025. MIR does publish 2025 splits inside the industrial and commercial blocks — they are in the two tables below — but those are shares of their own block, not of the whole market, and MIR does not restate them against the total.

Inside the industrial block

Industrial vertical

2025

2030

Note

Warehousing and logistics

40.0%

26.1%

Today’s volume anchor — mature, standardised demand for flexible sorting of irregular, soft-packed and fragile goods. Growth slows as the installed base shifts from new deployment to replacement.

Automotive (vehicle and components)

28.0%

30.4%

Becomes the largest vertical. Wire-harness insertion, sealing-strip application, trim installation, small irregular part load/unload, precision screw fastening. Driven by NEV capacity expansion and line flexibilisation.

3C electronics

12.0%

19.1%

Fastest relative gain. Component insertion, screen lamination, housing assembly, micro-screw fastening, wafer and thin-panel damage-free handling at micron precision.

Lithium battery

4.0%

10.4%

PACK-stage assembly and test in cleanroom, high-safety environments. Requires tight and uniform grip-force control that conventional grippers handle poorly.

Other

16.0%

13.9%

Broadening application boundary across discrete manufacturing.

Source: MIR Databank, Figure 16 and Table 7.

Inside the commercial block

Commercial application

2025

2030

Research and education

50.0%

20.0%

Data collection

32.3%

14.3%

Entertainment and performance

9.2%

17.1%

Reception and guiding

1.5%

19.0%

Retail

0.8%

15.2%

Hospitality

0.1%

1.4%

Other

6.1%

12.9%

Source: MIR Databank, Figure 17. Percentages are shares of the commercial segment, not of the total market.

Outside industry and commerce: three demand logics MIR treats separately

Chapter 6(3) of the white paper covers a third group that the percentage split largely hides, because only special operations appears in Figure 15 as a discrete 4.9% slice for 2030. For an international reader these matter disproportionately: prosthetics and special operations are demand logics that stand on their own rather than riding on humanoid volume, and two of the three have buyers who are neither factories nor laboratories.

Segment

What the hand does

Barrier

Direction of travel

Home service

Aimed at ageing-in-place and domestic companionship: folding and putting away clothes, kitchen preparation, tidying, cleaning, feeding and fetching for elderly users. Lightweight compliant grasping with gentle force control across the whole range of household objects.

Household objects are heterogeneous — soft textiles, fragile tableware, everyday clutter — which makes generalised grasping hard; the environment is dynamic, raising the bar on safety, quiet running and low mass

From single-function execution toward a general whole-home domestic assistant; compliant grasping fused with environment sensing and task understanding, with AI carrying autonomous household decisions

Wearable rehabilitation and bionics

Serves people with hand loss or impairment through rehabilitation clinics and direct daily use: upper-limb prostheses, hand rehabilitation training aids and post-operative recovery devices, using multi-DOF biomimetic motion under myoelectric co-control to grip cutlery, hold devices and pick up small objects.

Biomimetic DOF still falls short of natural human hand motion; myoelectric signal capture varies with the individual and with how the device is worn, so control robustness is limited; cost constrains broad access

Multi-DOF biomimetic design plus AI intent recognition for more natural interaction; lightweight materials and micro-actuation driving miniaturisation and lower cost

Extreme and special operations

Environments conventional automation cannot enter — aerospace, subsea, security, rescue, defence and polar work: on-orbit equipment maintenance, deep-sea pipeline survey and sampling, bomb disposal and nuclear or chemical handling, rubble rescue, polar sample collection and precision servicing of defence equipment.

Extreme requirements for tolerance of temperature, pressure, radiation and corrosion; volumes are small and customisation heavy, so unit cost is hard to bring down

Deep customisation for aerospace, subsea, security and nuclear work; the hand replaces people in hazardous environments, upgrading from a tool to an operator

Source: MIR Databank, Chapter 6(3) and Table 9. Condensed by RobotToday. Only special operations is separately quantified in Figure 15 (4.9% of the 2030 market); home service and wearable rehabilitation fall inside the residual “other” slice.

Named pain points by vertical

Vertical

Barrier

Direction of travel

Automotive

Weak generalisation across part variety forces frequent manual re-teaching; harness insertion and sealing-strip work demand high force-control precision

AI part recognition generating grasp poses autonomously; high-resolution tactile plus compliant force control

3C electronics

Component miniaturisation pushes precision beyond what rigid gripping can achieve without damage; line takt time conflicts with precision

High-resolution tactile plus high-speed force-control algorithms for sub-millimetre accuracy; dual vision–force closed loop

Lithium battery

Severe grip-force precision and uniformity requirements that conventional grippers do not meet

Compliant conformal grasping with full-surface tactile sensing at millisecond force regulation; vision–force fusion

Warehousing and logistics

SKU variety defeats generalised grasping of irregular, soft-packed and fragile items; no end-to-end link to WMS and vision systems

Full-stack integration of WMS, vision and control; 3D vision plus AI grasp planning for autonomous handling of unseen objects

Retail

SKU variety, high breakage risk on fragile goods

AI vision plus tactile fusion for full-category adaptive grasping; integrated recognition–grasp–restock chain

Data collection

No unified collection standard; formats not interoperable across vendors; real-data capture slow and expensive

Industry-wide multimodal collection standards; real-machine deployment scaling the data closed loop

Research and education

Immature open-source toolchains raise secondary development cost; fragmented hardware and non-uniform interface protocols

Standardised SDKs and open algorithm libraries forming a common embodied-AI research platform

Source: MIR Databank, Tables 7–9. Condensed by RobotToday.

4. What This Means

The judgements in this section are RobotToday’s reading of the white paper, not MIR conclusions. Figures remain MIR’s and are attributed where used.

For international vendors assessing China

Two asymmetries are worth noting. First, China’s advantage in this category is described by MIR as supply-chain and iteration velocity, not as architectural novelty — the research lineage still runs through DLR, NASA, Shadow Robot and the Japanese and American university programmes. Second, the Chinese market’s 2025 demand base is research and demonstration, which means Chinese suppliers have accumulated far more hardware-hours than production-hours. The gap between a hand that performs on a demonstration stand and one that runs three shifts is the gap the entire industry is now trying to close, and it is not yet closed by anyone.

For anyone sizing the opportunity

The 2030 value estimate of RMB 3 billion is modest against the attention the category attracts; its strategic weight comes from being the gating component for far larger humanoid and embodied-AI markets rather than from its own scale. The forecast also grows in units faster than in value, which encodes an explicit assumption of sustained price erosion. Read together, those two facts argue against treating the dexterous hand as a standalone market and in favour of treating it as the constraint that determines how quickly the markets above it can open.

Prepared by RobotToday. Source: MIR Industry Research / MIR Databank, 2026 China Dexterous Hand Industry White Paper. Translation, condensation, structuring and supplier-directory mapping are RobotToday’s. Forecast figures are MIR estimates as published and have not been independently verified. Company names link to profiles in the RobotToday Supplier Directory at robottoday.com/suppliers-discovery.

China’s Dexterous Hand Industry, 2026 Part 1 — The Demand Picture

China’s Dexterous Hand Industry, 2026 Part 2 — The Technology

China’s Dexterous Hand Industry, 2026 Part 3 — The Players

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Written by
Thomas Siew - Associtae Editor

Thomas Siew is an Editor specializing in manufacturing and supply chain analysis. He brings a global perspective and a sharp sensitivity to international business developments, examining how shifts across borders impact industry dynamics.

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