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Booster T1 humanoid robot
Booster Robotics | A-000000-07535
Price upon request
The Booster T1 is a lightweight, high-performance, open-source humanoid robot designed for developers and researchers, featuring a complete API, ROS2 compatibility, and advanced simulation and AI capabilities.
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Booster T1 humanoid robot: key points
- An open-source humanoid robot oriented toward research and education.
- Software and development: API, ROS2, simulation environments. Full support
- for the communication protocol, including low-level APIs (joints/sensors) and advanced motion-control interfaces.
- Three versions: standard, with grippers, and with robotic hands (the choice mainly depends on your grasping needs).
- Degrees of freedom: 23 (Standard), 31 (with grippers), 41 (with dexterous hands).
- Compute power: NVIDIA AGX Orin (200 TOPS).
- Onboard sensors: depth camera, 9-axis IMU, microphones, speaker.
- Battery life: 2 h walking / 4 h standing
- Indicative lead time: 4 to 6 weeks; price on request.
Applications and project types (locomotion, control, perception, interaction, manipulation)
The Booster T1 is designed for teams that need a large (~1.20 m) programmable humanoid robot working on applications such as: humanoid walking (balance, transitions, recovery), multimodal perception, human-machine interaction, and—depending on the version—grasping (grippers or robotic hands).
Concrete examples: RoboCup (humanoid soccer: vision, decision-making, control and strategy), warehouse automation, assistance for elderly people, or educational demonstrations.
The Booster T1 humanoid robot is an excellent robotics platform to develop PoCs in applied research before industrialization.
Choosing the right Booster T1 version: Standard, with grippers, or dexterous hands
- The standard version is suitable if your priority is locomotion, perception and interaction, without advanced manipulation goals.
- The version with grippers targets utilitarian grasping (pick/place).
- The version with dexterous hands is suitable for finer manipulation, typically requiring more tuning (calibration, scenarios, control).
Gripper EG2-4C2
The EG2-4C electric gripper incorporates a controller and features a wide stroke, precise force and position control, as well as an automatic locking system in the event of a power cut.
- Communication interface: RS485
- Total stroke (both sides): 70 mm
- Weight: 231 g
- Grip force: 0 to 20 N
- Grip force accuracy: ±1 N
- Operating voltage: 24 V DC ±10%
- Maximum speed: 70 mm/s
- Full stroke closing time: 1.3 s
- Protection level: IP40
- Recommended operating temperature: 0 to 40 °C
Dexterous Hands RH56DFX
The RH56DFX dextrous hand series features moderate speed, high gripping force and an integrated force sensor.
Compatible with ROS, it also has ready-to-use ROS plug-ins.
- Active gripping force of fingertip: ≥ 3 kg
- Tactile sensors: ≥ 17
- Tactile data refresh rate: ≥ 30 Hz
- Single-hand weight: 800 g
- Power supply: DC 24V ±10%
- Communication interface: RS485 or CAN
- Degrees of freedom: 6
- Number of joints: 12
What to consider before choosing
To select the most suitable version, it helps to define: the tasks your project needs to perform (locomotion, interaction, manipulation, perception, data collection, etc.), your test environment (floor type, space, access, supervision, connectivity, etc.), your software requirements (ROS2, low-level control, SDK, vision, GPU power), and your timeline.
Software ecosystem (API, ROS2, simulation)
Official resources indicate an API to control the robot and access status information, compatibility with ROS2, and simulation environments (Isaac Sim, MuJoCo, Webots) to prepare and test behaviors.
What information should you prepare for a quotation request?
Please specify: your budget (even if it’s an estimate), your project timeline (short term, awaiting funding, early study phase before the project, etc.), your address, and one sentence describing your project.
Technical specifications of the Booster T1 humanoid robot
| Dimensions | 118 x 47 x 23 cm |
| Lower leg + thigh length | 57 cm |
| Arm reach | 45 cm |
| Weight | 30 kg |
| Degrees of freedom | 23 (standard version) / 31 (version with gripper) / 41 (version with hands) |
| Max. knee joint torque | 130 N.m |
| Joint encoder | Dual encoder |
| CPU | High-performance 14-core processor |
| GPU | Nvidia AGX Orin, for 200 TOPS AI performance |
| Vision module | Depth camera |
| IMU | 9-axis IMU |
| Voice module | Microphone array, speaker |
| Battery | 10.5Ah |
| Battery life | 2h (walking), 4h (standing) |
| Wi-Fi 6 | yes |
| Bluetooth 5.2 | yes |
| 5G | optional |
| Interface | USB, Ethernet |
| Firmware update | yes |
| Edge LLM | MiniCPM (optional) |
| Secondary development | yes |
Booster T1 robot resources
FAQ – Booster T1 humanoid robot
What level of “realistic” autonomy can I aim for right from the start?
On a research humanoid, it is generally more effective to start with constrained scenarios (motions, simple trajectories, repeatable actions), then progressively increase complexity (perception, interaction, manipulation). The right level mainly depends on your software resources, your test environment, and the time you can allocate to integration.
Which interfaces are available to control the robot (PC, smartphone, remote control)?
The Booster T1 is presented with a mobile control app via Bluetooth for certain functions (startup, basic control depending on available resources). For “project” control (tests, scenarios, automation), the most common approach is controlling from a computer over the network (Wi-Fi/Ethernet), relying on the available software interfaces.
And regarding software integration (API, ROS 2), what is planned?
Resources indicate an API (command and status feedback) as well as ROS 2 compatibility. Official repositories illustrate control via low-level exchanges (command and status feedback), and a ROS 2 SDK provides dedicated messages/services for control.
Which sensors are accessible and in what form (streams, rate, synchronization)?
For perception/AI projects, ask which outputs are exposed (depth camera, IMU, audio), at what rates, and how synchronization is handled. These details determine the feasibility of a vision/control pipeline or data collection for learning.
What workstation / network prerequisites should be anticipated?
Check the connection mode (Ethernet/Wi-Fi), the ports used, and whether your network imposes constraints (VPN, VLAN, proxy). In university or industrial environments, these can be blocking if not anticipated.
Can simulation be used for a “simulation → robot” workflow?
Yes, simulation environments are mentioned. For a project, clarify the availability of models (assets), the gap between simulation and robot (parameters, controllers), and the examples provided to accelerate setup.
What workload should be expected for manipulation (grippers or dexterous hands)?
Grasping is often the most costly part to tune: calibration, control, contact detection, repeatability. Before choosing an option, clarify your objective (pick/place vs fine gestures), target objects, and the expected level of precision.
What should be checked for real-world use (floors, space, safety)?
In practice, locomotion and stability are sensitive to the floor (friction, irregularities), available space, and supervision procedures. It is recommended to plan a safe test area and a progressive protocol (simple motions → full scenarios).
What is included in delivery (and what is optional)?
To avoid surprises, have confirmed what is included (robot, battery(ies), charger, transport elements, accessories) and what depends on the version (grippers/hands, communication options, additional parts). This is a classic pre-order checkpoint.
What support is available (documentation, examples, assistance)?
For a research/teaching team, documentation and examples often have more impact than the “spec list”. Before purchase, ask what is provided (manuals, tutorials, code samples, supervision tools) and how support is delivered (channel, response times, onboarding).
Download our brochure on the Booster T1
The Booster T1 is a lightweight, high-performance, open-source humanoid robot designed for developers and researchers, featuring a complete API, ROS2 compatibility, and advanced simulation and AI capabilities.
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