SynapX focuses on developing 'brain and hand' for creating silicon labor
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SynapX focuses on developing 'brain and hand' for creating silicon labor

At the World Robotics Conference in 2026, SynapX moved away from the idea of creating a competitor to Tesla's Optimus. This startup, founded just seven months ago, has attracted about 1 billion yuan and boasts unicorn valuation. Instead of focusing on the robot's appearance, SynapX presented three product lines covering the brain, the hand, and the data collection stack, thereby redirecting the discussion toward how silicon-based production is defined.

Founder and CEO Du Dalong, who previously worked as the sixth employee at Horizon Robotics and was an early member of Baidu's deep learning lab, asserts that the two key elements of embodied AI are not the body, but a universally capable brain and a hand capable of causal action in the physical world. He emphasizes that a brain without a hand remains limited to a screen, while a hand without a brain merely repeats industrial movements.

The presented products fully align with this concept. SYNWorld is an embodied native world model presented with a billion parameters, with plans to release the next version this year and transition to a trillion-parameter range next year. OctoH-Hand is a bionic dexterous hand with a high degree of freedom. And OctoSense combines a fish-eye lens headset, an EMG wrist sensor, and an exoskeleton glove to capture first-person vision, posture, and force data from naturally working people.

The model is built on the principle of a 'data flywheel': human activity generates pressure, touch, and torque signals that video recording cannot capture. Collecting this data during normal operation enables the scaling of embodied learning. SynapX does not create complete robots or model end scenarios. The company positions itself as the foundational layer, selling the brain, the hand, and the development platform to companies creating embodied products, describing its offering as 'high school graduate level silicon workforce' that can be trained on the job based on scenarios.

Du Dalong predicts a 'ChatGPT moment' in embodied AI when a robot can prepare a hamburger better than a human. This task requires force control, multi-finger coordination, and fine sensory contact. He expects this moment to arrive within one to two years, noting that Tesla spends about half of its hardware research budget on the hand for Optimus. Once a robot learns to make hamburgers, food service scenarios—sandwiches, rolls, and much more—will open up, and physical skills will become a scalable and inexpensive service.

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Despite 90 data factories, China lacks sufficient data to train a single embodied intelligence
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pandaily.com

Despite 90 data factories, China lacks sufficient data to train a single embodied intelligence

At the World Robotics Conference held in Beijing's Yizhuang district, the focus shifted from robot operational speed to data collection efficiency. Research conducted by Interact Analysis showed that China already has or is building at least 90 centers for collecting and training humanoid robots. This indicates how quickly investment logic is transforming from creating physical bodies to extracting data.

Exhibitors presented various data collection devices. Lightwheel AI demonstrated its largest open embodied dataset to date, EgoSuite-Open100k, which covers over 100,000 hours across more than 15,000 scenarios. ORBBEC presented a bodyless hardware matrix including first-person capture and manual mounting, while BrainCo showcased gloves for data collection combined with full-palm tactile dexterous hands. GigaDevice exhibited a product line including microcontrollers, memory, and analog components for embodied intelligence.

Researcher Tian Feng from the SenseTime Institute of Intelligent Industries described six parallel data collection paradigms: from teleoperation and motion capture to synthetic data and collection on real production lines. The fastest-growing is bodyless assembly, which sellers say can reduce costs by approximately one-fifth compared to collection on a physical robot. However, Tian warned that this method leads to the loss of dynamic information, such as joint torque and contact force, which can cause errors in delicate assembly tasks, and that samples biased towards collectors rather than actual workers carry systematic bias.

A deeper question is whether the scaling laws that worked for large language models apply to robots. An experiment conducted by Generalist AI in November 2025 showed that smaller models struggled to assimilate complex sensorimotor arrays, establishing a threshold of about seven billion parameters, which the authors termed 'model ossification.' Meanwhile, the fragmentation of robotic equipment hinders the reuse of data collected on one chassis on another, leading to the dilution of the overall volume into 'island data.'

Analysts also warn that many centers operate on an accounting cycle based on state funding, mass robot procurement, and data buyback, which artificially inflates overall figures without verifying real demand. IDC data shows that performance, research, and data collection scenarios still account for 78.4 percent of humanoid robot shipments in 2025, while production line work occupies a negligible share. According to Tian, the bottleneck is not so much the lack of data as the ability to converge data, standardize equipment, and generate commercial revenue.

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