Honda demonstrated its Avatar Robot at CEATEC 2026 in Japan, showing a human-scale robotic hand that combines AI-assisted manipulation with remote teleoperation1,2. The system lets a human operator control a robot at a distant location, using cameras and a multi-fingered hand to interact with physical objects.
How the hand works
The robotic hand features 16 actuated joints, each capable of continuous speeds up to 180 degrees per second. Each fingertip can apply up to 50 newtons of force continuously, and six-axis force sensors measure forces and torques at the fingertips. The hand incorporates 288 tactile-sensor channels distributed across its fingers and palm.
Honda says the mechanism has been tested through more than 450,000 durability cycles, including 24,000 cycles involving the lifting of an 11-pound weight. The company says the design can handle tasks ranging from threading a needle to tightening screws, as well as manipulating scissors and lifting heavier objects.
AI bridges the teleoperation gap
The AI layer is designed to address a core difficulty of remote manipulation: operators working through camera feeds lose depth perception and tactile feedback. Honda describes an assistance system that estimates the intended object and grasp from the operator's eye and hand movements, then uses 3D measurements to correct the robotic hand's position and angle. Vibration feedback through the operator's gloves provides additional contact information.
At the CEATEC exhibit, a Honda staff member operated the R&D prototype live from a small control room within the booth. The robot on display was stationary, with no legs or locomotion capability.
Honda envisions applications in equipment maintenance, medical support, disaster response, and space operations. The company publicly introduced the Avatar Robot initiative in 2021 and has said it envisions practical use in the 2030s.
ANALYSIS The technical specifications, particularly the 288-channel tactile array and 50-newton fingertip force, position the hand toward tasks that require both sensitivity and grip strength, a combination that has limited most prior teleoperation systems to either delicate or forceful work but rarely both. The stationary form factor and R&D-stage status, however, place commercial deployment well ahead of the current demonstration.