This news article discusses the development of a unique robot named Argus by Professor Boyuan Chen and his team at Duke University. Argus has no front, back, top, or bottom and can move in any direction instantly, thanks to its depth-sensing cameras and telescoping legs. The robot's design principle, dynamic isotropy, rates robots on a scale of 0 to 1 based on how uniformly they can accelerate in every direction. Argus scores 0.91, which is higher than most robots in use today. Professor Chen hopes the same principle could guide the development of robots that can manipulate objects in any direction, leading to a more profound understanding of robotics and its applications.
Jiaxun Liu, a Ph. D. student, works on a robot named Argus at Duke University 's General Robotics Lab in Durham, N.C. , on May 26, 2026.
The robot has depth-sensing cameras attached to 20 telescoping legs that radiate from a central core, enabling it to see and move in any direction instantly. Professor Boyuan Chen and his team focused on uniformity in action, or dynamic symmetry, resulting in Argus, a unique robot with no front, back, top, or bottom.
Argus can navigate sandy beaches, forest undergrowth, and climb between parallel brick walls, and it continues to function even if one or more motors die or a leg breaks. The robot's design principle, dynamic isotropy, rates robots on a scale of 0 to 1 based on how uniformly they can accelerate in every direction. Argus scores 0.91, which is higher than most robots in use today.
Professor Chen hopes the same principle could guide the development of robots that can manipulate objects in any direction. The study about Argus was published online in the journal Science Robotics
Duke University General Robotics Lab Robot Argus Dynamic Symmetry Depth-Sensing Cameras Telescoping Legs Uniformity In Action Dynamic Isotropy Acceleration In Every Direction Navigating Sandy Beaches Forest Undergrowth Climbing Between Parallel Brick Walls Dynamic Symmetry Dynamic Isotropy Acceleration In Every Direction Navigating Sandy Beaches Forest Undergrowth Climbing Between Parallel Brick Walls Dynamic Symmetry Dynamic Isotropy Acceleration In Every Direction Navigating Sandy Beaches Forest Undergrowth Climbing Between Parallel Brick Walls
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