Scientists have developed smart robotic materials inspired by living tissues, capable of reshaping themselves and changing properties on demand.
These materials mimic biological processes, allowing structures to transform without external force, impacting sectors like manufacturing and medicine.
The robotic system developed by researchers at the University of California and TU Dresden can switch between rigid and fluid-like states, similar to living cells.
Designing such materials involves internal power and active control to enable self-reconfiguration.
Inspired by embryonic development, the robotic materials use active forces, signaling, and adhesion to achieve shape transformation.
Robots with motorized gears and light sensors mimic cellular motion and direction. Magnets enable adhesion and fluid rearrangement.
By encoding signal fluctuations, the robots can transition between solid and fluid states, enhancing efficiency and adaptability.
The method of using fluctuations for movement reduces power consumption and allows for real-time modulation of material properties.
Scalability of the robotic system to miniaturized units could open possibilities for reconfigurable architecture and adaptable prosthetics.
Future applications may include self-repairing bridges, shape-shifting clothing, and dynamic medical implants, offering a glimpse into a technologically advanced future.