The Dobot ATOM Max is the current top model among Dobot's humanoid robots, combining high-precision mechanics with state-of-the-art AI and comprehensive 3D sensor technology. With 41 degrees of freedom, dexterous 6-DOF hands, and a height of approximately 1.65 m, the humanoid robot moves at eye level with human employees and is perfectly suited as a platform for Embodied AI, robotics research, and future-oriented industrial automation.
Technical Highlights of the Dobot ATOM Max
The technical specifications of the Dobot ATOM Max are consistently geared toward demanding research and AI projects. The humanoid robot features 29 degrees of freedom in the body, two degrees of freedom in the head, seven degrees of freedom per arm, and two 6-DOF hands – for a total of 41 DoF.
This high degree of mobility is complemented by a repeatability of ±0.05 mm at the arm, making it significantly more precise than many classic industrial robots in the same segment. The maximum end speed of the arms is 1.5 m/s, and the walking speed is also up to 1.5 m/s, allowing for dynamic motion sequences, bipedal walking, and fast grasping processes to be realized.
Inside, a powerful edge computing platform is at work: an Intel i5 base module, a 1500 TOPS AI computing module, an Intel i9 processor with 24 cores, and a GPU with 16 GB GDDR6 provide sufficient computing power for complex AI models, image processing, and simulation.
Building upon this is the Robot Operator Model-1 (ROM-1) developed by Dobot, which enables precise motion planning and AI-supported adaptation in unstructured environments. This architecture is supplemented by VR/MR teleoperation, an Embodied AI toolkit, URDF models, and comprehensive SDK support.
360° Sensor Technology and Safety for Human-Robot Collaboration
A special feature of the Dobot ATOM Max is the dense sensor network around the head, arms, and torso. The robot possesses a full HD binocular camera, an additional RGB-D camera in the head, two RGB-D cameras each on the waist and wrists, and a 3D LiDAR at head height.
This creates a seamless image of the environment that can be used for visual servoing strategies, collision avoidance, person detection, and quality inspections.
Application Areas: From Smart Factory to Service & Logistics
The Dobot ATOM Max bridges the gap between humanoid automation and real production and service processes. In smart factory environments, the humanoid robot can perform tasks such as operating machinery, handling variable product variants, sorting containers, or visual end-of-line inspections. Due to its human-like kinematics, it can operate ergonomic elements like doors, switches, drawers, or customer-specific fixtures without the need for complex special mechanics.
In logistics & intralogistics, the ATOM Max is suitable as an AI-supported assistant robot along conveyor lines, picking stations, or order-picking workstations. Thanks to edge AI, strategies for grasp planning, packing, and sequencing can be trained directly on the robot and later used in scaled systems. In service and showroom scenarios, the humanoid robot acts as a technical demonstrator, guide, or brand ambassador, impressively showcasing the potential of humanoid industrial automation.
Dobot ATOM Max in Research, Universities, and AI Labs
A central field of application for the Dobot ATOM Max is robotics and AI research institutions. Through its open toolchain with SDK, URDF models, Embodied AI toolkit, and teleoperation kits, the humanoid robot can be deeply integrated into existing research environments. Universities can develop their own algorithms for locomotion, grasp planning, HRI, reinforcement learning, or multimodal perception and test them directly on the physical system.
Integration, Services, and Complementary Robotics Solutions from Terra Robotics
For the Dobot ATOM Max to fully realize its potential, a well-thought-out integration into processes, the IT landscape, and the safety concept is required. Terra Robotics handles planning, simulation, setup, and commissioning here – from the first proof of concept and pilot cells to scalable automation. This includes the selection of grippers and peripherals, connection to MES/ERP systems, integration with other robots (e.g., cobots, mobile robots, service robots), as well as training for development, operation, and maintenance teams.