Recent efforts in stimuli-responsive soft materials have enabled wirelessly controlled actuation with increasing degrees of freedom, yielding miniature robots capable of various locomotion in open environments such as on a plane or inside fluids. However, grand challenges remain in harnessing photomechanical deformation to induce locomotion and control of friction during the movement, especially for robotic actuations within constrained spaces. Here, the authors report a centimeter-long polymer strip made of a liquid crystal network that is capable of versatile light-fueled motions along a human hair. The soft polymer robot can translocate directionally upon temporally modulated excitation and climb vertically through friction control with ...
\u3cp\u3eA strategy based on doped liquid crystalline networks is described to create mechanical sel...
Powering and communication with micro robots to enable complex functions is a long-standing challeng...
\u3cp\u3eLiquid crystal polymer networks (LCNs) lead the research geared toward macroscopic motion o...
For decades, roboticists have focused their efforts on rigid systems that enable programmable, autom...
Liquid crystal elastomers are among the best candidates for artificial muscles, and the materials of...
Stimuli-responsive polymers provide unmatched opportunities for remotely controlled soft robots navi...
Nature is a constant source of inspiration for materials scientists, fueling the dream of mimicking ...
Bioinspired material research aims at learning from the sophisticated design principles of nature, i...
AbstractFor decades, roboticists have focused their efforts on rigid systems that enable programmabl...
Mobile microscale devices and microrobots can be powered by catalytic reactions (chemical micromotor...
Here, a remotely controlled dual magneto- and photoresponsive soft robotic gripper is reported, capa...
International audienceA strip of a liquid crystal elastomer doped with a near-infrared dye with one ...
The miniaturization of robots and actuators down to the micrometer length scale constitutes a fascin...
In the biological realm, light can act as a powerful stimulus, promoting both positive and negative ...
Non-reciprocal motions are a sequence of movements exhibiting time-reversal asymmetry. Such movement...
\u3cp\u3eA strategy based on doped liquid crystalline networks is described to create mechanical sel...
Powering and communication with micro robots to enable complex functions is a long-standing challeng...
\u3cp\u3eLiquid crystal polymer networks (LCNs) lead the research geared toward macroscopic motion o...
For decades, roboticists have focused their efforts on rigid systems that enable programmable, autom...
Liquid crystal elastomers are among the best candidates for artificial muscles, and the materials of...
Stimuli-responsive polymers provide unmatched opportunities for remotely controlled soft robots navi...
Nature is a constant source of inspiration for materials scientists, fueling the dream of mimicking ...
Bioinspired material research aims at learning from the sophisticated design principles of nature, i...
AbstractFor decades, roboticists have focused their efforts on rigid systems that enable programmabl...
Mobile microscale devices and microrobots can be powered by catalytic reactions (chemical micromotor...
Here, a remotely controlled dual magneto- and photoresponsive soft robotic gripper is reported, capa...
International audienceA strip of a liquid crystal elastomer doped with a near-infrared dye with one ...
The miniaturization of robots and actuators down to the micrometer length scale constitutes a fascin...
In the biological realm, light can act as a powerful stimulus, promoting both positive and negative ...
Non-reciprocal motions are a sequence of movements exhibiting time-reversal asymmetry. Such movement...
\u3cp\u3eA strategy based on doped liquid crystalline networks is described to create mechanical sel...
Powering and communication with micro robots to enable complex functions is a long-standing challeng...
\u3cp\u3eLiquid crystal polymer networks (LCNs) lead the research geared toward macroscopic motion o...