Robots learn to perform tasks faster with less human input with smart framework
Robots learn to perform tasks faster with less human input with smart framework
UC Berkeley researchers have developed an AI-driven approach called agentic robotics that uses teams of AI agents to generate robot-control programs, test them in simulated environments using NVIDIA's Isaac framework, and refine their performance. This method addresses challenges in manual engineering and large training datasets by dividing tasks into reusable skills like object identification and grasping. Early trials demonstrated improvements in robotic task performance, with a warehouse robotics company reporting an increase in sorting capacity of more than 15,000 packages annually per robot after deploying the improvements across 30 percent of its U.S. fleet. The researchers are releasing open-source code built around NVIDIA's Isaac simulation framework alongside an industrial benchmark for evaluating robot performance.
Source: Robotics — Robot learning news discovery · Read original article ↗
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Publisher-reported claims, with original evidence. These results have not been independently verified by RoboSignal.
Reported numbers
packages annually per robot
>15,000
Reported trials
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imulations and refine subsequent attempts, potentially reducing manual engineering effort. The technology has also been tested in industrial logistics. A warehouse robotics company applied the methods to parcel sorting, analyzing production data and testing updates to robot behavior. The trials reportedly increased sorting capacity by more than 15,000 packages annually per robot. The company has since deployed the im
Open source S10Reported trials
1 trials
Reported trials
View original evidence
edly tested and refined the code before researchers transferred it to a physical robot. During one trial, the robot pushed over the metal bar because it had not accurately accounted for the object’s weight. The system used video of the failed attempt to update its simulation, revise the control program, and test a new approach. This feedback process allows AI agents to use failures during physical trials to improve s
Open source S9
- code: Reported pending Open source S11
- paper: not_reported
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provements across 30 percent of its U.S. fleet. The researchers are also releasing open-source code built around NVIDIA’s Isaac simulation framework, alongside an industrial benchmark for evaluating robot performance across different tasks. Initial applications are focused on industrial environments, where repetitive operations offer opportunities to test and refine robot behavior at scale. The approach could eventua
Open source S11
imulations and refine subsequent attempts, potentially reducing manual engineering effort. The technology has also been tested in industrial logistics. A warehouse robotics company applied the methods to parcel sorting, analyzing production data and testing updates to robot behavior. The trials reportedly increased sorting capacity by more than 15,000 packages annually per robot. The company has since deployed the im
Open source S10
on involved a robot using a sponge to wipe ink from a metal bar. Researchers supplied an AI system with a short video of the task and access to their simulation interface. Within an hour, the system generated and fine-tuned a physics simulation that reproduced the task, including realistic sponge deformations. The AI then used the simulation and Graph-as-Policy framework to generate a robot-control program. It repeat
Open source S8
edly tested and refined the code before researchers transferred it to a physical robot. During one trial, the robot pushed over the metal bar because it had not accurately accounted for the object’s weight. The system used video of the failed attempt to update its simulation, revise the control program, and test a new approach. This feedback process allows AI agents to use failures during physical trials to improve s
Open source S9
lly make robotic systems easier to adapt to changing requirements without manually programming every movement or collecting extensive demonstrations for each new task. However, it does not mean robots can independently master arbitrary real-world activities. Its immediate potential lies in making robot programming, testing, and improvement faster and more adaptable, particularly in structured industrial settings.
Open source S12
Source:Robotics — Robot learning news discovery · msn.com