Small-scale magnetic soft-bodied robots can be designed to operate based on different
locomotion modes to navigate and function inside unstructured, confined and varying …

As a next-generation toolkit, microrobots can transform a wide range of fields, including
micromanufacturing, electronics, microfluidics, tissue engineering, and medicine. While still …

Scientists around the world have long aimed to produce miniature robots that can be
controlled inside the human body to aid doctors in identifying and treating diseases. Such …

In nature, some semiaquatic arthropods evolve biomechanics for jumping on the water
surface with the controlled burst of kinetic energy. Emulating these creatures, miniature …

Wireless millimeter-scale robots capable of navigating through fluid-flowing tubular
structures hold substantial potential for inspection, maintenance, or repair use in nuclear …

Soft robots offer a myriad of potential because of their intrinsically compliant bodies,
enabling safe interactions with humans and adaptability to unpredictable environments …

Creating micro/nanostructures containing multi-channel information within responsive
hydrogels presents exciting opportunities for dynamically changing functionalities. However …

Magnetic systems based on permanent magnets are receiving growing attention, in
particular for micro/millirobotics and biomedical applications. Their design landscape is …

Magnetically driven miniature soft robots exhibit fast and dexterous responses to an applied
external magnetic field. With remote manipulation, controlled navigation of robots can be …

Meso-or micro-scale (or insect-scale) robots that are capable of realizing flexible locomotion
and/or carrying on complex tasks in a remotely controllable manner hold great promise in …