IDSS hosts inaugural Learning for Dynamics and Control conference
L4DC explored an emerging scientific area at the intersection of real-time physical data, machine learning, control theory, and optimization.
L4DC explored an emerging scientific area at the intersection of real-time physical data, machine learning, control theory, and optimization.
Mobile motor could pave the way for robots to assemble complex structures — including other robots.
Laboratory staff teamed up with the Timothy Smith Network to offer a four-week coding course for middle school students.
Interacting with a robotic teddy bear invented at MIT boosted young patients’ positive emotions, engagement, and activity level.
New approach quickly finds hidden objects in dense point clouds, for use in driverless cars or work spaces with robotic assistants.
MIT CSAIL system can learn to see by touching and feel by seeing, suggesting future where robots can more easily grasp and recognize objects.
A new tool for predicting a person’s movement trajectory may help humans and robots work together in close proximity.
Fleet of “roboats” could collect garbage or self-assemble into floating structures in Amsterdam’s many canals.
Signals help neural network identify objects by touch; system could aid robotics and prosthetics design.
Autonomous control system “learns” to use simple maps and image data to navigate new, complex routes.
CSAIL system can mirror a user's motions and follow nonverbal commands by monitoring arm muscles.
Robotic sweepers, flappers, and telescoping arms face off for a shot at coveted engineering prize.
Tiny robots powered by magnetic fields could help drug-delivery nanoparticles reach their targets.
Model improves a robot’s ability to mold materials into shapes and interact with liquids and solid objects.
CSAIL’s "RoCycle" system uses in-hand sensors to detect if an object is paper, metal or plastic.