UBTECH

UBTECH Robotics is a Chinese robotics company developing humanoid robots, intelligent service robots, and AI-powered robotic solutions. Founded in Shenzhen in 2012, UBTECH has built its business around a full-stack robotics approach, covering robot hardware, servo actuators, motion control, perception, artificial intelligence, human-robot interaction, software, manufacturing, and commercial deployment.

The company is best known internationally for its Walker family of humanoid robots, particularly the Walker S series developed for industrial manufacturing. But UBTECH's robotics portfolio extends well beyond industrial humanoids — it covers six major segments:

UBTECH was established in March 2012 and was listed on the Main Board of the Hong Kong Stock Exchange on December 29, 2023, under stock code 9880.HK.

UBTECH develops robots designed to interact with people and operate in real-world environments. The company began with smaller humanoid and service robots before expanding into full-sized humanoids and industrial automation. Its long-term strategy is based on a full-stack robotics model.

Rather than focusing exclusively on robot bodies or AI software, UBTECH develops multiple layers of the technology stack, including:

This approach allows UBTECH to develop both the physical machines and the technologies required to control and deploy them.

UBTECH's core philosophy can be summarized as:

Hardware + AI + Software + Manufacturing + Applications

The company believes that useful humanoid robots require more than advanced mechanical design. A robot must also be able to:

UBTECH therefore develops technologies across the entire chain. This full-stack strategy has become particularly important as the company moves humanoid robots from demonstrations and research into manufacturing environments.

UBTECH's history is broader than its current humanoid focus. The company first gained attention through smaller humanoid and consumer-oriented robots. Over time, its technology expanded into:

This evolution eventually led to the development of the Walker family. The result is a company that approaches humanoid robotics as part of a much larger robotics ecosystem rather than as a single product category.

1. 2012

   UBTECH Is Founded

   Established in March 2012 in Shenzhen, China; began R&D and design work in robotics.
2. 2014

   Alpha Robot

   Successfully developed and produced the first small humanoid Alpha Robot, laying the foundation for the early robotics business.
3. 2015

   Robotics Competitions

   Became involved in robotics competitions and educational activities, including the National Robotics Championship and International Humanoid Robotics Olympiad.
4. 2016

   540 Alphas at Spring Festival Gala

   540 Alpha robots performed simultaneously during the nationally televised Spring Festival Gala, earning a Guinness World Record.
5. 2017

   Cruzr & Commercialization

   Launched and began large-scale commercialization of the Cruzr intelligent service robot platform; gained international recognition through consumer & educational products.
6. 2018

   First-Gen Walker & 1M Servos

   Developed the first-generation Walker humanoid robot; reached one million servo actuators in cumulative production.
7. 2023

   HKEX IPO · 9880.HK

   Listed on the Main Board of the Hong Kong Stock Exchange on December 29, 2023 under stock code 9880.HK.
8. 2024

   Walker S Enters Industrial Training

   Released the updated Walker S industrial humanoid and began training across multiple automotive factories.
9. 2025

   Walker S2 Mass Production

   Launched Walker S2 next-generation industrial humanoid and began mass production and delivery.
10. 2026

    Walker C1 + UWORLD U1

    Launched Walker C1 full-sized service humanoid and UWORLD U1 ultra-bionic humanoid; expanded the portfolio.

Walker is the center of UBTECH's humanoid robotics strategy. The family has evolved from a research-oriented bipedal platform into multiple specialized humanoid products. Today, the Walker family includes platforms aimed at different environments:

The Walker family illustrates UBTECH's broader approach: One humanoid technology foundation, multiple real-world applications.

Walker S is UBTECH's best-known industrial humanoid platform. Instead of positioning the robot primarily as a research demonstration, UBTECH designed Walker S around real manufacturing environments.

The robot is intended to perform tasks such as:

• ✓Material handling
• ✓Assembly assistance
• ✓Inspection
• ✓Component transportation
• ✓Sorting
• ✓Industrial logistics
• ✓Production-line operations

Automotive manufacturing has become one of the most important application areas. UBTECH says Walker S-series robots have entered the production lines of multiple vehicle manufacturers.

Automotive factories contain many tasks that are:

This makes automotive manufacturing an important testing ground for humanoid robots. A humanoid can potentially work within existing production environments without requiring every workstation to be completely redesigned around a specialized robot. UBTECH has therefore focused significant resources on automotive manufacturing as it develops its industrial humanoid technology.

Walker S2 represents the next phase of UBTECH's industrial humanoid strategy. UBTECH launched Walker S2 in 2025 and began mass production and delivery during the same year.

The platform is designed around the needs of large-scale industrial deployment. That means the focus extends beyond simply making the robot move. A commercially useful industrial humanoid must also be:

This shift from prototype development to production is one of the most important aspects of Walker S2.

UBTECH's industrial humanoid strategy follows a practical progression:

The company says that more than 80% of its full-sized embodied intelligent humanoid robot products sold in 2025 were deployed in sectors including automotive manufacturing, smart logistics, 3C electronics manufacturing, semiconductor fabrication, aircraft manufacturing, and industrial data collection.

UBTECH is also exploring collaborative humanoid operation. In 2025, the company reported conducting what it described as the world's first collaborative practical training program for humanoid robots, involving multiple robots working across different tasks and industrial scenarios.

This reflects an important direction for industrial humanoids. The future may not involve one robot performing one isolated task. Instead, factories could eventually use fleets of robots that:

This is where UBTECH's BrainNet and Co-Agent technologies become relevant.

UBTECH has developed BrainNet 2.0 as part of its humanoid intelligence architecture. The concept is to enable multiple humanoid robots to share knowledge and coordinate behavior. Rather than treating every robot as an isolated machine, a networked system can potentially allow experience gained by one robot to benefit others.

This approach could become particularly valuable for industrial robot fleets operating across multiple factories and production lines.

UBTECH has also introduced its proprietary Co-Agent technology. The company describes Co-Agent as an agent architecture designed for industrial humanoid robots. Its purpose is to move robots beyond isolated pre-programmed behaviors toward more intelligent task execution.

Understand tasks · Coordinate actions · Operate effectively in complex industrial environments.

The underlying goal is to allow robots to understand tasks, coordinate actions, and operate more effectively in complex industrial environments.

UBTECH's AI strategy includes a family of models collectively associated with its Thinker architecture. The company describes Thinker as a self-developed embodied AI large model intended to provide a foundation for physical AI. Related technologies include:

Together, these systems represent UBTECH's attempt to connect AI reasoning with the physical capabilities of humanoid robots.

Humanoid movement is one of the most difficult problems in robotics. UBTECH combines several approaches to control humanoid motion, including:

This hybrid approach allows UBTECH to combine traditional robotics control with newer AI-based learning techniques. The objective is to make humanoids:

• ✓More agile
• ✓More stable
• ✓More responsive
• ✓More adaptable
• ✓Better suited to complex environments

One of UBTECH's less visible but strategically important technologies is its servo actuator platform. Actuators are effectively the muscles of a robot. They determine how a robot:

UBTECH has developed servo actuators covering a wide range of torque requirements and has built manufacturing capabilities for both smaller and larger actuators. The company previously reported mass production across a range from 0.2 Nm to 200 Nm. This in-house actuator capability is an important part of UBTECH's full-stack strategy.

This gives UBTECH a different profile from companies that focus primarily on a single robot platform. The company is attempting to control a large part of the robotics technology chain itself.

Walker C1 is UBTECH's full-sized service humanoid robot introduced in 2026. While Walker S focuses on industrial manufacturing, Walker C1 is designed for more human-facing environments. Potential applications include:

This represents another direction for humanoid robotics: From factory automation to human interaction.

UBTECH has a long history in commercial service robotics. Its portfolio includes robots designed for:

The company's current commercial portfolio includes humanoid platforms as well as wheeled service robots such as the Cruzr family.

Cruzr represents UBTECH's experience with commercial service robots before the company's current emphasis on humanoids. The platform was designed for customer-facing environments and commercial services. Its applications include:

Cruzr is important to UBTECH's history because it demonstrates that the company did not begin its commercial strategy with humanoid manufacturing. It first developed experience deploying robots in real customer-facing environments.

Education has been another major part of UBTECH's business. The company provides robotics and AI education platforms for:

Its educational ecosystem includes products such as:

UBTECH describes its education strategy around developing AI literacy and practical robotics skills among young people.

Alpha Mini represents UBTECH's consumer and educational robotics heritage. The compact humanoid robot features:

Its small size and programming capabilities make it suitable for education, experimentation, and interactive applications.

UBTECH is also developing robotic solutions for healthcare and elderly-care applications. The company's broader strategy recognizes that robotics may become increasingly important as societies face:

Rather than positioning robots simply as replacements for caregivers, the opportunity is to use robots to support:

UBTECH identifies smart elderly care as one of its major solution areas.

UBTECH also develops robotic solutions for logistics. The company's logistics strategy covers applications such as:

Portfolio includes CADEBOT L100, alongside broader logistics automation solutions.

The logistics sector is also becoming an important application area for humanoid robots, particularly where flexibility is more important than specialized fixed automation.

These applications reflect the company's belief that robotics will gradually become part of everyday infrastructure.

UBTECH's evolution can be understood in several stages.

Industrial environments are particularly important to UBTECH because they provide structured but demanding conditions for humanoid development. A factory can provide:

At the same time, factories are complex enough to test whether a robot can operate reliably outside a laboratory. UBTECH's automotive deployments are therefore more than demonstrations. They are part of the company's strategy to turn humanoid robotics into a scalable industrial technology.

A single humanoid can demonstrate what is technically possible. A fleet determines whether the technology can become commercially meaningful. UBTECH is therefore exploring technologies for:

BrainNet 2.0 and Co-Agent form part of this broader effort. The long-term vision is a factory where multiple humanoids can work together rather than operate as isolated machines.

Humanoid robotics faces a major manufacturing challenge. A prototype can be built in a laboratory. A commercial robot must be:

UBTECH's experience producing servo actuators, service robots, and humanoid platforms gives it an existing manufacturing foundation. The company's 2025 mass production and delivery of Walker S2 represents an important milestone in this transition.

UBTECH has also participated in robotics and AI standardization. The company says it has led the drafting of 53 industrial standards in smart robots and AI, including six national standards related to humanoid robots.

Standardization is important as humanoid robotics moves toward commercial deployment. Industrial customers need common expectations around:

UBTECH's stated mission is:

“Bringing intelligent robots into every family, and making everyday life more convenient and intelligent.”

This mission explains why the company's portfolio extends beyond industrial automation. UBTECH sees robotics as a technology that can eventually support:

UBTECH's vision is to build an intelligent ecosystem in which hardware, software, services, and content work together around intelligent robots.

This is a broader vision than simply selling robots. The company is effectively trying to build a robotics ecosystem in which robots become platforms for applications and services.

These values reflect the company's emphasis on long-term robotics development and industrial execution.

Traditional industrial robotics typically focuses on specialized machines. A robotic arm may be extremely good at welding. Another may specialize in painting. Another may move components. Humanoids take a different approach.

A humanoid is intended to be flexible enough to perform multiple tasks using a human-compatible body. UBTECH is pursuing this flexibility while retaining the industrial engineering and manufacturing discipline required for commercial robotics.

Artificial intelligence can understand language and images. But physical environments require another capability: Action.

A robot must convert intelligence into movement. That means connecting:

UBTECH's Thinker models, motion-control technologies, and humanoid platforms are being developed around this problem. This is the company's interpretation of embodied intelligence.

The next stage of UBTECH's development is increasingly focused on AI. The goal is to move away from robots that simply execute predefined commands toward robots that can:

This transition could make humanoid robots much more flexible than traditional industrial automation.

UBTECH's long-term vision is based on the idea that humans and robots will increasingly work alongside each other.

The common element is not one particular robot. It is the integration of intelligent machines into everyday environments.

UBTECH's current portfolio demonstrates how the company is building a broad robotics ecosystem rather than relying on a single flagship machine.