AGIBOT D1 Edu Quadruped Development Robot
AGIBOT D1 Edu Expandable Quadruped Development Robot AGIBOT D1 Edu combines a 12-degree-of-freedom quadruped platform with SDK-supported secondary development, standardized expansion I/O and simulation resources for robotics research, teaching and integration. Request a Canadian Project Quote View D1 Edu Specifications Articulation 12 DoF3 per leg Maximum speed 3.5 m/sLaboratory test value Effective payload 5 kgNot for passengers or riding Operating time 1–2 hoursVaries with use conditions Development SDKSecondary development supported What is AGIBOT D1 Edu? A mobile platform for robotics development. D1 Edu is designed for universities, laboratories, robotics teams and integrators that need a compact quadruped platform for motion-control study, external payload integration and application prototyping. Its SDK and expansion interfaces create a development starting point; they do not make autonomous navigation, following or inspection available out of the box. Those outcomes require compatible external hardware, software development, testing and a project-specific safety plan. Robotics education and coursework Motion-control research Sensor and payload integration Algorithm and simulation testing Manufacturer-published mobility values Dynamic movement for controlled testing. Reinforcement-learning gait control supports stable movement over varied ground surfaces. Published peak values are laboratory results, not guarantees for every surface, payload or programmed action. 3.5 m/s Maximum speed Manufacturer laboratory value; safe operating speed depends on the tested environment. 16 cm Continuous stair height Current listed continuous stair-climbing height under manufacturer test conditions. 35 cm Jump height Listed height off the ground under laboratory conditions and controlled operation. SDK-supported development Build, simulate and integrate. AGIBOT lists secondary development support and standardized interfaces for payload integration. Development access remains subject to the supplied SDK, documentation, licensing and project configuration. ROS 2 low-level control Supported according to the official quadruped robot FAQ; confirm the current software package and version. URDF model Manufacturer-listed model resource for development and simulation workflows. Isaac Sim Listed as a supported environment for simulation and testing. MuJoCo Listed as another supported simulation and testing environment. Functional expansion I/O Five interface types. Seven listed ports. The D1 Edu-specific specification lists the following physical expansion ports. Port use, power budget, simultaneous operation and module compatibility must be confirmed for the intended integration. ×1Ethernet ×2USB ×2Power ×1SBUS ×1UART Integration boundary: AGIBOT lists compatibility with external positioning modules, LiDAR, depth cameras, RTK, 4G/5G and image-transmission modules. These are integration examples, not a claim that the modules are built in or included with the standard robot. Development planning Define the full system before ordering. The robot platform, external computing, optional sensing and software stack must be planned as one system. External control computer The official FAQ states that development use requires an external control box. The built-in compute is not represented as open user-development compute. Optional sensors and networking Confirm the exact sensor model, interface, power requirement, mounting, software support and whether integration service is quoted. Software access and scope Confirm SDK access, ROS 2 package, documentation, examples, licensing, supported development environment and update policy in writing. Control-layer boundary: SDK support does not mean that the motor and control-layer drive protocol is publicly open. Autonomous following is also not a standard function; the manufacturer states that it requires secondary development. Project directions From research labs to creative robotics. Official application examples include scientific research, education and entertainment. Final capability depends on the developed software, integrated hardware and controlled operating environment. Scientific research and education Explore gait control, robotics coursework, simulation transfer, sensor integration and supervised application prototyping. Entertainment development Prototype choreographed or character-based concepts with project-specific software, accessories, supervision and safety controls. Joint and motion system Twelve precision motion units. D1 Edu uses 12 aluminum-alloy precision joint motors and high-power-density motion units. Torque and power figures below are manufacturer-listed maximum values, not continuous output guarantees. 48 N·m Maximum joint torque 12 motors Aluminum-alloy precision joint motors 3500 W Maximum operating power 0°C–40°C Manufacturer-listed operating temperature Official product imagery D1 Edu from every angle. Official views show the front camera, compact body, articulated legs and yellow high-grip feet. Verified D1 Edu configuration AGIBOT D1 Edu technical specifications Values below are limited to the current D1 Edu-specific official product table and official quadruped FAQ. Conflicting slope figures are intentionally withheld pending written confirmation. Swipe horizontally to view all specifications. Manufacturer specifications accessed July 31, 2026. Laboratory values vary with environment, surface, action, payload and operating method. Specification D1 Edu value Physical configuration Product type Quadruped robot Material Aluminum alloy and high-strength engineering plastic Standing dimensions Approximately 635 × 360 × 420 mm (L × W × H) Lying dimensions Approximately 675 × 435 × 145 mm (L × W × H) Weight 15.5 kg, including battery Protection rating IP32 Do not interpret this as waterproof. Operating temperature 0°C to 40°C Degrees of freedom 12 total; 3 per leg Performance Basic compute High-performance 8-core CPU Built-in compute is not represented as open user-development compute. Maximum operating power 3500 W Maximum speed 3.5 m/s Manufacturer laboratory value. Effective payload 5 kg For light items; not suitable for passengers or riding. Continuous stair-climb height 16 cm Jump height off ground 35 cm Manufacturer laboratory value. Joints and motion Actuator type High-power-density motion unit Maximum joint torque 48 N·m Precision joint motors 12, with aluminum-alloy housings Body joint range −28° to 28° Thigh joint range −170° to 66° Lower-leg joint range 35° to 156° Standard actions Standing; lying; damping mode; pitch adjustment; height adjustment; horizontal turning Special-action examples Forward jump; upward jump; biped standing; backflip; waving Vision and sensing Camera field of view DFOV 122°; HFOV 111°; VFOV 70° IMU Standard Real-time image transmission Supported; official FAQ lists 720p Development and expansion Secondary development / SDK Supported Functional expansion ports Ethernet ×1; USB ×2; Power ×2; SBUS ×1; UART ×1 ROS 2 low-level control Supported Confirm the current package, version and access terms. Control mode Speed-control mode Simulation resources URDF model; support for simulation and testing in Isaac Sim and MuJoCo Compatible external module examples Positioning modules; LiDAR; depth cameras; RTK; 4G/5G; image-transmission modules Compatibility examples only; not represented as included equipment. Development computer External control box required for development use External computer or GPU is not represented as included. Motor/control-layer drive protocol Not publicly open according to the official FAQ Energy system Battery Rated capacity 4.6 Ah; voltage 43.2 V Charging time Approximately 1 hour, from 10% to 90% Operating time 1–2 hours Varies with environment, action, payload and operating method. Manufacturer-listed range 6 km ± 1 km This is not a remote-control-distance specification. The maximum climbing-slope figure is not published here because current official AGIBOT sources disagree. Confirm the current rated value, exact supplied configuration, SDK scope and commercial terms in the written quotation. AGIBOT D1 Edu in Canada Plan your robotics development project with SpeedyDrone Canada. SpeedyDrone Canada is a Toronto-based technology retailer serving organizations across Canada. Contact the team with your research or teaching objective, external computing plan, sensors, payload, interface and power requirements, operating environment, safety zone, software needs and delivery region. Toronto showroom: 991B Bay Street, Toronto, ON M5S 3C4 . Product display, demonstration, pickup and meeting availability must be confirmed before visiting. Contact SpeedyDrone Canada About SpeedyDrone Canada D1 Edu and Canadian purchasing FAQ Evaluating the AGIBOT D1 Edu Direct answers based on current official D1 Edu information and a quotation-led Canadian purchasing process. What is the AGIBOT D1 Edu? AGIBOT D1 Edu is a 12-degree-of-freedom quadruped development robot with SDK-supported secondary development, functional expansion interfaces, real-time image transmission and simulation resources. Who is D1 Edu designed for? It is designed for universities, research laboratories, robotics teams and integrators working on education, motion control, sensor integration and supervised application prototyping. What are the D1 Edu dimensions, weight and degrees of freedom? Standing dimensions are approximately 635 × 360 × 420 mm (L × W × H); lying dimensions are approximately 675 × 435 × 145 mm. Weight is 15.5 kg including the battery, and the robot has 12 total degrees of freedom. What mobility values are manufacturer-listed? AGIBOT lists a 3.5 m/s maximum speed, 16 cm continuous stair-climb height and 35 cm jump height under laboratory conditions. The current official slope figures conflict, so the rated slope should be confirmed in writing. What is the effective payload, and can D1 Edu be ridden? The listed effective payload is 5 kg for moving light items. The manufacturer states that the robot is not suitable for passengers, riding or use as transportation. What are the operating time, range and charging time? Operating time is listed as 1–2 hours and range as 6 km ± 1 km. Charging is approximately one hour from 10% to 90%. These figures vary with conditions, and the 6 km value is not remote-control distance. Does D1 Edu support SDK secondary development? Yes. The D1 Edu-specific official table lists secondary development as supported. Confirm SDK access, documentation, licensing, software version and included support in the written quotation. Which functional expansion ports are provided? The official D1 Edu specification lists Ethernet ×1, USB ×2, Power ×2, SBUS ×1 and UART ×1. Are LiDAR, depth cameras, RTK or 4G/5G modules included? No inclusion is implied. AGIBOT lists these as compatible external integration examples. Confirm the module model, mount, interface, power, driver, software and integration scope before ordering. Is the built-in computing power open to developers? No. The official FAQ states that the built-in compute is not open for user secondary development and that an external control box is required for development use. External computing is not represented as included. Does D1 Edu support ROS 2? The official quadruped FAQ says ROS 2 low-level control is supported. Confirm the current package, compatible ROS distribution, API scope, licensing and documentation before defining the development stack. Which simulation resources are listed? AGIBOT lists a URDF model and support for simulation and testing in Isaac Sim and MuJoCo. Exact files, examples, versions and support scope should be confirmed with the project quotation. Is the motor and control-layer drive protocol open? No. The official FAQ states that the motor and control-layer drive protocol is not publicly open. SDK support should not be interpreted as unrestricted access to the underlying servo protocol. Does autonomous following work out of the box? No. The official FAQ says autonomous following requires secondary development. It also requires suitable sensing, external computing, software, testing and a controlled operating environment. What camera and image-transmission specifications are listed? The camera field of view is listed as DFOV 122°, HFOV 111° and VFOV 70°. Real-time image transmission is supported, and the official FAQ lists 720p transmission. What is the AGIBOT D1 Edu price in Canada? Canadian pricing depends on the exact robot configuration, external computing, optional hardware, software scope, freight, taxes, delivery region and commercial terms. Request a written CAD quotation. Where can Canadian organizations request a D1 Edu quote? Canadian universities, laboratories and organizations can contact SpeedyDrone Canada to discuss the development requirements and request a quotation. Are warranty, training, integration and delivery services included? No universal inclusion is implied. Final warranty, training, software access, documentation, integration, delivery and support terms are governed by the written quotation. The purchaser remains responsible for safety planning, supervision and applicable compliance. Sources: AGIBOT official store D1 Edu page and AGIBOT official quadruped robot information and FAQ, accessed July 31, 2026; SpeedyDrone Canada company information and Toronto showroom and contact details. Manufacturer values are based on laboratory testing and may change. Final configuration, included items, software access, suitability and commercial terms are governed by the written quotation.