Home/News/North Masters 30-Step Windmill Assembly at CES 2026

North Masters 30-Step Windmill Assembly at CES 2026

Robot Details

NorthSharpa

Published

February 18, 2026

Reading Time

3 min read

Author

Origin Of Bots Editorial Team

North Masters 30-Step Windmill Assembly at CES 2026

Sharpa's Dexterous Debut

Sharpa unveiled North at CES 2026, a humanoid robot that completed a 30-step autonomous windmill assembly—one of the longest continuous manipulation sequences publicly demonstrated to date. The Singapore-based startup's breakthrough centers on contact-rich dexterity: North executed ping-pong rallies with 0.02-second reaction times, captured photographs with 2-millimeter accuracy, and dealt playing cards using multimodal vision-language reasoning. These demonstrations signal a fundamental shift in what humanoid robots can accomplish beyond scripted movements, positioning manipulation as the frontier that separates capable machines from truly versatile assistants.

Where Hands Meet Intelligence

North's capabilities emerge from SharpaWave hands, engineered with 22 active degrees of freedom and over 1,000 tactile sensors per fingertip that enable adaptive grip control. Unlike robots that rely on vision alone, North's ultra-sensitive touch feedback allows it to adjust force and pressure mid-task—critical for handling fragile objects or performing delicate assembly work. The robot's multimodal reasoning system integrates visual perception with language understanding, enabling it to interpret complex instructions and recover from unexpected situations. This combination of tactile intelligence and cognitive flexibility represents a departure from traditional industrial arms, which excel at repetitive tasks but struggle with variability and novel contexts.

North - Image 1

Engineering Precision at Scale

Sharpa's CraftNet VTLA model powers North's self-learning control architecture, allowing the robot to refine manipulation strategies through interaction rather than extensive pre-programming. The system processes real-time feedback from force sensors, tactile arrays, and stereo vision to execute sub-millimeter precision tasks. This approach mirrors how humans learn motor skills—through practice and sensory feedback—rather than treating each task as an isolated problem to solve. The architecture's compatibility with ROS2 and Python APIs signals Sharpa's commitment to enabling developers and researchers to extend North's capabilities rather than locking functionality behind proprietary walls.

From Factory Floor to Human Spaces

North's skill set opens deployment possibilities across manufacturing, logistics, hospitality, and healthcare. Assembly lines benefit from its ability to handle precision components and adapt to design variations without reprogramming. Hotels and hospitals gain a robot capable of interacting naturally with guests and patients—North's anthropomorphic upper-body design and reactive capabilities create less unsettling encounters than rigid industrial machines. Sharpa's focus on human-robot collaboration suggests a future where North works alongside workers rather than replacing them, handling dangerous or repetitive tasks while humans oversee quality and make judgment calls.

North - Image 2

Skill Architecture & Capability Summary

North's physical form supports sustained, nuanced interaction: standing 173 centimeters with a 60-kilogram frame that folds to 69x45x30 centimeters for transport. Its bipedal locomotion operates at 5 kilometers per hour, sufficient for navigating human environments without appearing rushed or clumsy. The sensor suite—RGB cameras, stereo depth, LiDAR, IMU, and force sensors—creates a rich perceptual model that enables both navigation and fine manipulation. A 4-6 hour continuous runtime supports full workdays in assisted-living facilities or manufacturing cells, while the 5-year operational battery cycle reflects engineering durability. Force-limiting compliance, collision detection, and emergency-stop capabilities embed safety into the hardware itself rather than relying solely on software safeguards, critical for robots working near humans.

Versus Rivals Breakdown

RobotStrengths over NorthNorth AdvantagesWeaknesses vs. North
AgiBot A2 UltraHigher payload capacity for heavy industrial tasksSuperior tactile feedback (1,000+ sensors per finger vs. standard arrays); proven 30+ step assembly demonstrationsLimited bipedal locomotion; less human-centric design philosophy
VR-H3Established production timeline and market availabilityAdvanced multimodal reasoning; integrated vision-language capabilities for adaptive task interpretationNewer to market; less field-tested in real-world deployments
VR-H1Faster walking speed for large warehouse environmentsSignificantly better hand dexterity with 22 active DoF; superior reaction time (0.02s vs. competitors' 0.05-0.1s range)Lower carrying capacity; specialized for precision over payload
MartianBroader industrial ecosystem and existing integrationsHumanoid form factor enables human-space deployment; contact-rich manipulation for fragile objects; self-learning architectureSmaller established user base; fewer long-term reliability metrics available

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