-Design computer vision algorithms for humanoid robots, including model architecture, training, deployment, and fine-tuning.
-Organizing, analyzing, and mining data from related businesses to improve the model's accuracy and generalization.

-Developing a core machine learning system to support embodied intelligence.
-Developing a large-scale model training and inference system for robotics scenarios.
-Supporting the continuous evolution of core capabilities, such as multimodal perception, motion control, and task planning.
- Developing a new generation of toolchains for embodied intelligence systems that covers the entire life cycle of data acquisition, simulation training, physical deployment, and continuous optimization.

- Develop a machine learning platform for embodied intelligence to support VLA model training and evaluation.
- Design a cross-cloud-edge-end computing architecture to guarantee high performance and reliability in complex scenarios.
- Develop an intelligent data factory platform to effectively manage data collection tasks such as dispatching, personnel/equipment scheduling, data labeling, quality monitoring, and so on.
- Develop a unified resource scheduling engine to coordinate resource allocation for data collection, model training, and evaluation.
- Improving data storage and processing processes, and establishing a positive feedback mechanism between data quality and model performance.
- Research the application of MLOps in data factories and develop automation tools to increase efficiency.
- Collaborate with the robotics team and algorithm team to advance embodied intelligence from theory to practical implementation.

-Responsible for developing and optimizing the engineering of AI models.
-Design and implement post-processing fusion algorithms for embodied intelligence models, integrate sensor information such as cameras and motors, and detect anomalies, etc., to ensure the system's stability.
-Come up with the design of embodied intelligence fusion algorithms and tackle key technical issues.
-Complete the deployment and debugging of relevant algorithms, and promote the successful landing of the corresponding business applications.
-Continuously improve and iterate the performance of embodied intelligence algorithms.

-Responsible for designing, developing, and delivering the electrical and electronic architecture of the entire robot.
-Responsible for designing the hardware program, selecting and introducing key components, and developing the entire robot perception system.
-Responsible for electrical platforms and project-related tasks, including planning, designing, developing network hardware architecture, wiring harness arrangements, and electrical energy management.
- Responsible for reviewing electrical and electronic technical programs, identifying technical difficulties and risks in the system program, and providing technical support and inter-departmental cooperation.
-Responsible for the electrical and electronic direction of competitive research and development analysis of products.

-The development of wheeled humanoid robot perception algorithms, the architecture of perception algorithms, and the implementation of landing.
-Utilizing multi-sensor fusion technology such as LIDAR, IMU, vision, etc., to achieve spatial perception and obstacle avoidance, collaborate closely with SLAM and navigation modules to achieve autonomous movement and dynamic obstacle avoidance for omnidirectional wheeled chassis.
-Collaborate with AI, structural electrics, and other teams to advance the perception system to the next level.
- With body intelligence frontier technology and application, tracking, iterative cognition, and the development of perception algorithms in medium and long-term technology planning.

-Responsible for optimizing and validating the electrical components of body-intelligent robots, wiring harness wire, connectors, source search, program design, key device selection, EMC design, layout process, and reliability design.
-Responsible for product SOP preparation, electrical system debugging, and maintenance.
-The development of each supplier's standards, functions, and communication protocols.
-The system program involves technical difficulties and risk identification, inter-departmental cooperation, and technical support.

-Participate in humanoid robot software system development work, including function development, data processing, drive equipment, etc. Follow the software development process, independent software design and implementation.
-With algorithms, hardware, mechanical colleagues, and system integration, we aim to promote humanoid robot products and promote ecological development.
-Join the analysis and solution of robot performance and reliability issues.
-Collaborate with team members to develop a soft research system to enhance software development efficiency and quality.

-Participate in software development for robot controllers, including algorithm integration, communication middleware, bus driver, etc. and be able to independently design and implement software.
-Collaborate with your algorithm, hardware, and AI colleagues to promote the integration of humanoid robot products and ecological development.
-Participate in analyzing and solving problems related to robot control systems performance and reliability.
-Collaborate with team members to develop software systems and enhance software development efficiency and quality.

-Humanoid robot arm path generation, trajectory planning, modeling identification, compensation, dynamics, and control of algorithm research and implementation.
-Identify problems and propose technical solutions, as well as improvement suggestions for the co-design of ontology and algorithms for robot motion characteristics proactively.
-Participate in the construction and simulation of robot kinematics and dynamics models, and establish relevant standards for robot motion performance.
-Participate in the research and development of cutting-edge technologies, such as robot form and attitude control, multi-robot arm collaboration, structural reconfiguration, and other areas. A comprehensive review and summary of technical literature in related fields is also encouraged.

-Responsible for robot machine and chassis design, leading the development and validation of core technologies, including calibration selection, overall layout, module division, and other tasks.
-Responsible for mechanical team work standardization, skills improvement, technology pre-research and other work, leading the solution to key technical issues, and promoting the team's experience and technology to summarize and repeat the application.
-Responsible for improving the quality, cost, and schedule of product parts, and promoting product testability and manufacturability.
-The role entails creating detailed 3D and 2D drawings, leading the organization of the program, and reviewing drawings to ensure the use of product performance and good production processes.
-Responsible for the structural research, design, and innovation of new technology projects to drive technological innovation and leadership.