AI that moves

Physical AI

Collaborative R&D with commercial robotics and humanoid teams in Korea and China — low-power perception for machines that sense and act in the real world.

  • A robot is a battery-powered embedded platform; perception must fit a strict power budget
  • Near-sensor vision cuts the latency and bandwidth between camera and control loop
  • MOU signed with Everybot (Korea, Jul 2026); discussions opening with robot builders in China
Physical AI — solution overview

What we keep being asked

Robot and humanoid builders need perception inside a battery budget, without a cloud round trip. Once you write down the latency and the milliwatts, the compute question stops being a software question and becomes a silicon one.

cloud: training, fleet learning seconds+, offline OK edge: task planning, coordination ~100 ms on-robot: perception + motion control 1 - 10 ms, battery-bound sensors near-sensor perception actuation UXF plays here
Fig. 1A robot's compute is tiered. The tight loop at the bottom cannot wait for a network, which makes it a silicon problem.
A robotic arm working on a line with a glowing chip embedded at the machine and clouds far above
Fig. 2The intelligence sits at the machine; the cloud stays in the background.

What it is

Physical AI is AI that acts through a body: humanoids, mobile robots, and automated machines. Every one of them is an embedded computing platform juggling visual perception, speech, and real-time motion control, with the compute split across robot, edge, and cloud tiers[6][15]. The perception front end — cameras and depth sensors feeding detection, tracking, and pose — is where power, latency, and cost concentrate, and it is the part that maps directly onto near-sensor silicon.

Why now

China’s humanoid output is projected to grow 94% in 2026, led by Unitree and AgiBot[7], and Beijing treats embodied AI as an industrial priority[8]. Korea is mobilizing in response: Samsung raised its Rainbow Robotics stake to 35% and created a robotics office[9][10], the major groups plan factory deployments from late 2026, and a 1-trillion-KRW government program funds on-device AI chips for robots, vehicles, and drones[5]. Both ecosystems need exactly what a near-sensor chip company sells: perception within a power budget, without a cloud round trip.

What UXF brings

We are not building a robot. We co-design the perception subsystem — sensor, silicon, and model tuned together for the robot builder’s constraint, whether that is battery life, joint-loop latency, or unit cost. Measured energy per inference on the builder’s own model is the deliverable.

In July 2026 we signed an MOU with Everybot, the KOSDAQ-listed service-robot maker, covering joint development of humanoid AI semiconductors, robot vision and sensor-fusion edge AI, and commercialization of AI-semiconductor-based robot systems[16]. Discussions with robot builders in China are opening.

MOU signed: Everybot (Korea) / China discussions opening

How we engage

Bring us the robot’s power envelope, its control-loop deadline, and the perception model you already run. We return a co-designed sensing front end with measured numbers against those three constraints. Request a briefing to start.

Sources
  1. DIGITIMES, "South Korea charges into the humanoid robot race as conglomerates mobilize", Aug 2026.
  2. EE Times, "Humanoid Robots Exit Labs: Mapping the Technical Path to Embodied AI at AW 2026".
  3. KraneShares, "Humanoid Robotics in 2026: The Race From Pilot to Platform".
  4. MERICS, "Embodied AI: China's ambitious path to transform its robotics industry".
  5. Samsung Newsroom, "Samsung Electronics to become largest shareholder in Rainbow Robotics".
  6. The Robot Report, "Samsung increases stake in Rainbow Robotics, establishes Future Robotics Office".
  1. EE Times Asia, "Humanoids & Robotics in 2026: Early Reality of the Physical AI Era".
  2. Edaily, "에브리봇, 유엑스팩토리와 맞손... 휴머노이드 AI 반도체 협력 확대", Jul 8, 2026. Also listed in our newsroom.