One hand stabilizes the bottle. The other holds the cup. What should this dual-arm robot test next?
One hand stabilizes the bottle. The other holds the cup. OpenArm 2.0 × Aero Hand completes a dual-arm pouring task with no visible spill. #Robotics#RobotArm#BimanualManipulation
How far can open-source robotics go? 🦆
Our latest #OpenDuckMini V2 demo focuses on real-world testing and validation.
From motion control to bipedal locomotion, every test brings new insights into robot stability, control strategies, and sim-to-real development.
#Robotics
Exploring open-source robotics, robot learning, and Physical AI?
Discover more robotics projects, hardware, and development resources from Cereboto:
https://t.co/BpBJaeLwk6
#OpenSourceRobotics#EmbodiedAI
OpenArm 2.0 Waist Version in motion.
This demo shows how the added waist joint expands the robot’s workspace with bending and rotational movement—useful for teleoperation, manipulation, and Physical AI research.
#OpenArm#PhysicalAI#EmbodiedAI#Robotics#ROS2#Teleoperation
Testing force feedback on the OpenArm V1.1.
The demo shows how physical interaction can be reflected through the control loop, giving the operator a more intuitive sense of contact during teleoperation.
#OpenArm#ForceFeedback#Teleoperation#Robotics#EmbodiedAI#PhysicalAI
Cereboto OpenArm V2.0 Ultra — built for the next stage of Physical AI research.
A dual-arm robotics platform designed for manipulation, teleoperation, embodied AI and real-world data collection, with an open ecosystem for ROS2-based development.
#PhysicalAI#EmbodiedAI
We’re continuing to test OpenArm platforms across teleoperation, real-world manipulation, and robotics data collection workflows.
More OpenArm projects, hardware details, and demos:
https://t.co/2GsW6iZBMR
For technical discussions:
[email protected]#PhysicalAI#EmbodiedAI
From human motion to robot manipulation.
Testing the OpenArm KER teleoperation setup with OpenArm 2.0 inside the OpenArm Cell — exploring an intuitive workflow for real-world robot control, manipulation testing, and embodied AI data collection.
#OpenArmKER#OpenArm2#OpenArmCell
More dexterous-hand and open robotics projects from Cereboto:
🌐 https://t.co/H9pMhSTXv5
📩 [email protected]
Building hardware for Physical AI, robot learning, teleoperation, and real-world data collection.
What does a robot need to move from simple grasping to real-world manipulation?
Different tasks need different hands. From compact 4-finger control to lightweight 5-finger designs and 20-DOF human-like motion, we’re exploring dexterous hands for teleoperation.
#DexterousHand
A closer look at how we’re iterating on OpenArm V1.1 — from mechanical structure to real-world motion validation.
More open-source robotics platforms and demos:
https://t.co/H9pMhSTXv5
More real-world OpenArm experiments are coming from research teams and robotics labs.
For anyone exploring Physical AI, VLA research, teleoperation, or real-world robot data collection, more platform details and demos can be found at Cereboto.
A real-world robotics demo from Hetao College: bimanual manipulation, teleoperation, and vision working together in a practical tabletop task.
These experiments are where Physical AI moves from simulation into repeatable real-world interaction.
#PhysicalAI#EmbodiedAI#Robotics
A real-world robotics demo from Hetao College: bimanual manipulation, teleoperation, and object interaction in a lab environment.
These hands-on experiments are where embodied AI meets physical hardware—turning human demonstrations into useful robot learning data.
#EmbodiedAI