TeleAvatar Teleoperation Body and TeleDroid System

The TeleAvatar and TeleDroid system delivers extreme performance metrics designed to bridge the gap between human dexterity and robotic execution. The performance specifications are categorized into latency precision force control kinematics hardware reliability and visual immersion. Responsiveness: The system achieves industry-leading low latency crucial for true remote teleoperation. The end-to-end cross-city network latency is maintained under 100ms. The end-to-end cross-city network latency is maintained under 100ms. Under ideal network conditions this can be further optimized to below 150ms for video return ensuring real-time visual feedback. Under ideal network conditions this can be further optimised to below 150ms for video return ensuring real-time visual feedback. More critically the force/position hybrid control response time is less than 30ms. This millisecond-level response is vital for maintaining the "feel" of the operation allowing the operator to react instantly to environmental changes without the lag that typically causes operational errors This millisecond-level response is vital for maintaining the "feel" of the operation allowing the operator to react instantly to environmental changes without the lag that typically causes operational errors or motion sickness in remote scenarios. The repeat positioning accuracy reaches 0.1mm ensuring that the robot can return to the exact same spot consistently for repetitive tasks. The repeat positioning accuracy reaches 0.1mm ensuring that the robot can return to the exact same spot consistently for repetitive tasks. The absolute positioning accuracy is maintained at 1mm. algorithms that correct for mechanical tolerances in standard hardware allowing the robot to perform delicate assembly or manipulation tasks that This level of precision is enabled by high-precision calibration algorithms that correct for mechanical tolerances in standard hardware allowing the robot to perform delicate assembly or manipulation tasks that usually require expensive high-end industrial arms. Utilising advanced current loop algorithms the system enables ordinary motors to exhibit " flexible touch." This allows the robot to be used for mechanical tolerances in standard hardware allowing the robot to perform delicate assembly or manipulation tasks that usually require expensive high-end industrial arms. Utilising advanced current loop algorithms the system enables ordinary motors to exhibit " flexible touch." This allows the robot to handle fragile objects such as picking up an egg without breaking it or manipulating soft materials where force feedback is critical. This allows the robot to handle fragile objects such as picking up an egg without breaking it or manipulating soft materials where force feedback is critical. This software-defined force control significantly reduces hardware costs while maintaining high sensitivity to weight texture and hardness properties of interaction targets. The robot employs a 7-axis mechanical arm configuration that mimics the human arm's degrees of freedom (20+ DOF overall for the embodied system). Through a global inverse kinematics algorithm the system eliminates singular points that typically restrict robot movement. This grants the TeleAvatar flexibility that surpasses that of a human arm. TeleAvatar flexibility that surpasses human hands in certain ranges allowing it to reach around obstacles and operate in complex spatial configurations that would be awkward or difficult to achieve. This grants the TeleAvatar flexibility that surpasses human hands in certain ranges allowing it to reach around obstacles and operate in complex spatial configurations that would be awkward or impossible for standard 6-axis arms or human operators in constrained spaces. Hardware Reliability and Cost Efficiency: The hardware strategy focuses on "Algorithm-Defined Hardware " selecting mature mass-produced components verified by the industrial sector rather than custom laboratory-grade parts. The hardware strategy focuses on "Algorithm-Defined Hardware" selecting mature mass-produced components verified by the industrial sector rather than custom laboratory-grade parts. This results in a Bill of Materials (BOM) cost that is only 1/3 of similar competitors. The modular design ensures maintenance is simple akin to changing a light bulb supporting 7x24-hour continuous operation. The components are proven through millions of industrial cycles ensuring high reliability and durability in harsh environments. Visual Immersion and Synchronization: To ensure the Visual Immersion and Synchronisation: To ensure the operator feels truly present ("TeleAvatar") the system features binocular wide-angle hardware-level frame synchronization. This technology completely eliminates motion sickness a common issue. completely eliminates motion sickness a common issue in VR and remote operation. The stereo vision provides depth perception essential for 3D spatial tasks. The immersive return allows the operator to rely on binocular stereo vision rather than naked eyes achieving a "being there" experience even when controlling a robot 2 000 kilometres away. The immersive return allows the operator to rely on binocular stereo vision rather than naked eyes achieving a "being there" experience even when controlling a robot 2 000 kilometres away. In terms of data performance the system is capable of collecting high-entropy data from unstructured real-world scenarios. Unlike simulation data which lacks complex contact friction and flexible deformation details TeleAvatar captures full-modal data including vision force touch and full-body posture. This data is isomorphic mapped meaning how the human moves is exactly how the robot moves making the data available to the user. This data is isomorphic mapped meaning how the human moves is exactly how the robot moves making the data the "gold standard" for training world models and simulators. Scalability: The system supports a scaling model from 1:1 (one operator one robot) to 1:10 (one operator managing 5-10 terminals via backend management in L2 hybrid mode). This scalability is supported by the low-latency architecture and the semi-autonomous fallback mechanism where the machine runs autonomously 95% This scalability is supported by the low-latency architecture and the semi-autonomous fallback mechanism where the machine runs autonomously 95% of the time and switches to teleoperation only for corner cases ensuring uninterrupted service guarantees.