Bursting dynamics that mimic the functions of the human brain pave the way for more efficient AI systems.
Researchers develop microrobots that can sense their external environments and adapt their motion, similar to living organisms.
A new and simple working principle for liquid manipulation and a complete exploration of the opportunities of a multipurpose platform guided by physical intelligence.
Kirigami transformations give rise to mechanical actuation of a soft robot upon light illumination.
Researchers from Taiwan and Japan have developed a low-cost, intelligent soft robotic finger using paper electronics.
Using a micro-3D-printing technique, researchers were able to print detailed robotic parts that are smaller than the diameter of a human hair and display color-expressing features for microrobot tracking and identification.
Controlling the probability of a series of seemingly random events is the key to mimicking the human brain to optimize neuromorphic learning.
A new, flexible, and self-powered sensor made by magnetoelectric materials can convert mechanical stimuli to electrical signals for robots with a “soft touch”.
To mimic the fluid and versatile movement of soft-bodied animals, soft robots require their own “muscles” to function.
Hello HAL, do you read me HAL?
Will artificial intelligence expand and enhance its teaching prowess to the point where it can replace the professor in his or her traditional role?
Masking heat signatures from prying eyes, researchers develop a new material that functions as a cloaking device.
Researchers at Dartmouth have developed a miniature robotic bug that has a flexible body, is easily maneuverable, and can be completely flattened without damaging its functionality.