As humanoid robotics moves from stage demonstrations to early industrial deployment, one technical bottleneck is becoming increasingly visible: the hand. Walking, balancing, and full-body motion still dominate public attention, but the commercial value of humanoid robots will ultimately depend on whether they can manipulate the physical world with reliability, precision, and adaptability.
This is why LinkerBot, also known through its Chinese company name Lingxin Qiaoshou (Beijing) Technology Co., Ltd., deserves closer attention. The company develops the Linker Hand series of dexterous robotic hands and positions itself around an embodied intelligence platform built on “dexterous hands + cloud-based intelligent brains.” According to 36Kr, Lingxin Qiaoshou completed a seed financing round of more than 100 million yuan in 2025, led by Sequoia China Seed Fund and Wankai New Materials. Separately, Reuters later reported that LinkerBot had completed a Series B+ round at a $3 billion valuation and was targeting a possible $6 billion valuation in its next financing round.
The important point is not only the size of the financing, but the strategic focus. LinkerBot is not trying to win the humanoid race by building a complete robot. It is trying to dominate one of the most difficult and valuable components of the humanoid stack: the hand.
For humanoid robots, dexterity is not a secondary feature. It is the difference between a robot that can move through a factory and a robot that can actually perform useful work inside it. A humanoid may walk well, recognize objects, and navigate safely, but if it cannot grasp, rotate, insert, tighten, sort, or handle fragile objects, its practical deployment remains limited. Many industrial tasks require more than simple gripping. They require force control, finger coordination, tactile response, object adaptation, and repeatable precision.
The technical specifications behind Linker Hand show why this area matters. According to 36Kr, the industrial version of the Linker Hand series reaches 25–30 degrees of freedom, while the research version reaches up to 42 degrees of freedom. Each finger can have up to 9 degrees of freedom and rotate 360 degrees. The full-drive design, combined with a force-position hybrid control algorithm, allows a maximum load of 5 kg. 36Kr compares this with the Shadow Hand at 24 degrees of freedom and the Tesla Optimus hand at 22 degrees of freedom.
Cost is another important part of the story. The Linker Hand is reported to cost around 50,000 yuan per unit, while the Shadow Hand is cited at around 1.5 million yuan. The Linker Hand O7 lowers the entry price further to 8,800 yuan. For research, education, industrial automation, and embodied AI development, this price difference is significant because it lowers the threshold for experimentation and large-scale deployment. 36Kr also states that Linker Hand durability is 10 times that of Shadow Hand according to official test data, and that the company offers a “replace instead of repair” service to reduce downtime for users.
From a market perspective, LinkerBot represents a different model from full-stack humanoid companies such as Tesla, Figure AI, Boston Dynamics, Agility Robotics, Unitree, AgiBot, UBTech, and Apptronik. Instead of building the whole robot, it focuses on component-level specialization. As the humanoid sector matures, some firms will compete through complete platforms, while others may dominate critical subsystems such as actuators, robotic hands, batteries, perception modules, control software, and embodied AI datasets.
This also reflects a broader trend in China’s robotics ecosystem: the shift from full robot competition to supply-chain depth. Chinese humanoid companies already compete strongly on hardware cost, manufacturing speed, and iteration cycles. The next stage may be less about which company builds the most impressive demo and more about which ecosystem can produce the necessary components at scale. Dexterous robotic hands are a strong example because they combine mechanical design, motors, reducers, joint modules, lightweight materials, sensors, control systems, and manipulation data.
The data layer is equally important. Dexterous manipulation is not only a hardware problem; it is also an AI and learning problem. Robotic hands do not become useful simply by having many degrees of freedom. They need control policies, task demonstrations, multimodal data, and reusable skill libraries that allow them to perform complex actions consistently. LinkerBot’s approach connects dexterous hands with embodied AI through platforms such as motion-capture teleoperation systems, digital twin platforms, and manipulation datasets.
The valuation discussion should therefore be interpreted carefully. The 100 million yuan figure refers to the earlier seed financing reported by 36Kr, not to the company’s valuation. The $3 billion and potential $6 billion figures come from later Reuters reporting on LinkerBot’s Series B+ and next financing target. Together, these figures show how quickly investor attention has moved toward dexterous manipulation as a strategic layer in robotics.
The industry implication is clear: the humanoid robotics race is no longer only a competition between complete robot makers. It is also a competition between component suppliers, data platforms, manufacturing ecosystems, and deployment strategies. If humanoid robots are to become useful in factories, logistics, services, and eventually homes, they will need hands that can perform real work. That makes dexterous manipulation one of the most important bottlenecks in the industry.

Linker Hand series of dexterous hands (Source/Enterprise)
From Full Humanoids to Component Specialization
The humanoid robotics industry is often discussed through the lens of full-stack companies such as Tesla, Figure AI, Boston Dynamics, Agility Robotics, Unitree, AgiBot, UBTech, and Apptronik. LinkerBot represents a different but increasingly important model: component-level specialization. As the sector matures, some firms will build complete platforms while others dominate critical subsystems. In humanoid robotics, these strategic categories may include actuators, hands, batteries, perception modules, control software, and embodied AI datasets.
China’s Component Advantage
LinkerBot also reflects a broader trend in China’s robotics ecosystem: the move from full robot competition to supply-chain depth. Chinese humanoid companies already compete aggressively on hardware cost, speed of iteration, and manufacturing scale. The next stage may be less about which company builds the most impressive demo and more about which ecosystem can manufacture the necessary components at scale. Dexterous robotic hands are a strong example because they combine mechanical design, motors, reducers, joint modules, lightweight materials, control systems, and manipulation data.
The Data Layer: Dexterity as an AI Problem
The hardware story is only one part of the picture. Dexterous manipulation is also a data and learning problem. Robotic hands do not become useful simply by having many degrees of freedom. They need control policies, task demonstrations, multimodal data, and reusable skill libraries that allow them to perform complex actions consistently. This is where dexterous hands connect directly to embodied AI; the next generation of humanoid robots will need models that understand contact, force, motion, object behavior, and task sequencing.
Why the Valuation Matters
A $6 billion valuation target is ambitious, especially for a market that remains early. Humanoid robots are not yet deployed at mass scale, and many pilot projects remain limited. However, LinkerBot’s model may reduce some of that risk because its products are not limited to complete humanoids. Dexterous hands can be used in research, industrial automation, robotic arms, teleoperation, embodied AI training, and specialized manufacturing tasks. The valuation therefore signals that the market is beginning to price dexterous manipulation as a strategic layer in robotics, not merely as a mechanical accessory.
Industry Implication
The LinkerBot story shows that the humanoid robotics race is becoming more complex. It is no longer only a competition between complete robot makers. It is also a competition between component suppliers, data platforms, manufacturing ecosystems, and deployment strategies. If humanoid robots are to become useful in factories, logistics, services, and eventually homes, they will need hands that can perform real work. That makes dexterous manipulation one of the most important bottlenecks in the industry.
Sources & Further Reading:
- https://www.reuters.com/world/china-robot-hand-building-unicorn-linkerbot-targets-6-billion-valuation-2026-05-04
- https://www.wired.com/story/made-in-china-the-dollar6-billion-chinese-startup-making-hands-for-humanoids
- https://eu.36kr.com/en/p/3239621788565507
- https://beststartup.asia/linkerbot-chinas-dexterous-robot-hands-unicorn
