Magnetic Soft Robotics, Liquid Crystal Elastomers, and Micro-Nanorobotics
This community develops programmable soft materials and micro-scale robotic systems that actuate in response to magnetic fields, light, or chemical stimuli.
The work centers on the design and fabrication of magnetorheological elastomers, liquid crystal elastomers, and shape memory polymers. These materials are engineered into soft actuators, artificial muscles, and micro-nanomotors for applications in drug delivery, targeted therapy, and wearable devices. Key fabrication methods include additive manufacturing, two-photon polymerization, and laser writing, often combined with finite element modeling to predict mechanical behavior. The research also explores the fundamental mechanics of active composites, including anomalous diffusion and magneto-sensitive metamaterials, to enable precise control of movement and force in complex environments.
The community is most heavily represented in research tracked for Neodymium, accounting for 0.5% of that element’s total output, and Iron, contributing 427 papers. It also appears in research for Gold, Silicon, and Carbon, where it constitutes a smaller share of the respective element’s literature.
The community comprises 5,116 papers, published primarily in Smart Materials and Structures, Advanced Functional Materials, and Advanced Materials.
Recent work focuses on modular magnetic microrobot systems for endoluminal navigation, AI-integrated micro-nanorobots for biomedical applications, and magneto-sensitive metamaterials with programmable actuation.