Take charge of end-to-end planning and technical roadmap formulation for multi-fingered dexterous hands from scratch; build and lead cross-disciplinary hardware and software teams, and define product forms, performance indicator systems as well as technical evolution paths.
Lead the R&D of the hardware system for dexterous hands, covering design of miniature transmission and driving solutions (tendon-driven actuation, linkage mechanisms, miniature lead screws, etc.), structural layout within confined spaces, material selection, thermal design, and integration of tactile force sensing.
Develop embedded software and underlying real-time control systems for dexterous hands to realize high-precision motion control of multiple degrees of freedom, hybrid force-position control, impedance/admittance control and grasping sequence planning, guaranteeing millisecond-level closed-loop response and compliant manipulation performance.
Establish the sensing system of dexterous hands; integrate and develop multi-modal sensors including fingertip tactile sensors, array pressure sensors, joint torque sensors and temperature sensors, so as to build a closed sensing loop for delicate object identification, slip detection and dexterous manipulation.
Construct a performance testing and reliability verification system for dexterous hands; formulate testing specifications for core metrics such as dexterity, grasping success rate, load capacity, service life and consistency, and drive full-process engineering implementation from prototypes to pilot batches and mass production.
Collaborate closely with teams responsible for robot main body hardware, motion control, brain models and embodied software; achieve seamless integration and systematic joint debugging of dexterous hands on robot platforms to support the deployment of high-level tasks including delicate manipulation and tool usage in real-world scenarios.
Continuously track cutting-edge technologies in dexterous manipulation, including but not limited to bionic design, innovative driving and sensing technologies, learning-based efficient grasping algorithms, and facilitate the transformation of technical research outcomes into product iterations.
Take charge of end-to-end planning and technical roadmap formulation for multi-fingered dexterous hands from scratch; build and lead cross-disciplinary hardware and software teams, and define product forms, performance indicator systems as well as technical evolution paths.
Lead the R&D of the hardware system for dexterous hands, covering design of miniature transmission and driving solutions (tendon-driven actuation, linkage mechanisms, miniature lead screws, etc.), structural layout within confined spaces, material selection, thermal design, and integration of tactile force sensing.
Develop embedded software and underlying real-time control systems for dexterous hands to realize high-precision motion control of multiple degrees of freedom, hybrid force-position control, impedance/admittance control and grasping sequence planning, guaranteeing millisecond-level closed-loop response and compliant manipulation performance.
Establish the sensing system of dexterous hands; integrate and develop multi-modal sensors including fingertip tactile sensors, array pressure sensors, joint torque sensors and temperature sensors, so as to build a closed sensing loop for delicate object identification, slip detection and dexterous manipulation.
Construct a performance testing and reliability verification system for dexterous hands; formulate testing specifications for core metrics such as dexterity, grasping success rate, load capacity, service life and consistency, and drive full-process engineering implementation from prototypes to pilot batches and mass production.
Collaborate closely with teams responsible for robot main body hardware, motion control, brain models and embodied software; achieve seamless integration and systematic joint debugging of dexterous hands on robot platforms to support the deployment of high-level tasks including delicate manipulation and tool usage in real-world scenarios.
Continuously track cutting-edge technologies in dexterous manipulation, including but not limited to bionic design, innovative driving and sensing technologies, learning-based efficient grasping algorithms, and facilitate the transformation of technical research outcomes into product iterations.
Job Requirements
Master’s degree or above, majoring in Mechanical Engineering, Mechatronics Engineering, Robotics, Automation or other relevant disciplines.
Over 8 years of R&D experience in precision mechatronics or robotic end-effectors, with no less than 3 years of technical team management experience. Proven track record of independently leading the design, development and successful delivery of multi-fingered dexterous hands or comparable complex manipulative end-effectors from zero to one.
Proficient in mechanical and driving system design for dexterous hands; familiar with underactuated/full actuated tendon-driven systems, linkage transmission, miniature reducers and other solutions; capable of layout design and optimization for multi-degree-of-freedom mechanisms in compact spaces.
In-depth understanding of embedded control systems; skilled in C/C++ programming; hands-on experience in servo control via fieldbuses such as EtherCAT/CAN, FOC motor control and real-time operating systems (e.g., FreeRTOS), capable of developing high-frequency force control and motion planning modules.
Expertise in tactile and force sensing technologies; practical experience in model selection, integration and signal processing of tactile sensor arrays, 6-axis force/torque sensors, joint torque sensors and equivalent sensing devices.
Familiar with kinematic and dynamic modeling of dexterous hands, grasping quality evaluation and simulation; knowledgeable about grasping planning based on traditional algorithms or machine learning approaches.
Strong product-oriented engineering mindset with solid knowledge of DFM (Design for Manufacturability) and DFA (Design for Assembly); acquainted with injection molding, CNC machining, micro-assembly and other manufacturing processes; competent in supply chain management and cost control.
Exceptional entrepreneurial spirit and leadership; capable of making efficient technical decisions across highly interdisciplinary fields; outstanding in cross-team communication and driving the implementation of system integration projects.