Tactility in biological organisms is a faculty that relies on a variety of specialized receptors.
The bimodal sensorized skin, featured in this study, combines soft resistive composites that …

Electronic skins (e-skins) aim to replicate the capabilities of human skin by integrating
electronic components and advanced materials into a flexible, thin, and stretchable …

Combining functional soft materials with electrical impedance tomography is a promising
method for developing continuum sensorized soft robotic skins with high resolutions …

The human tactile system is composed of multi-functional mechanoreceptors distributed in
an optimized manner. Having the ability to design and optimize multi-modal soft sensory …

Two dynamic covalent networks based on the Diels–Alder reaction were blended to exploit
the properties of the dissimilar polymer backbones. Furan-functionalized polyether amines …

The addition of an organomodified nanoclay to a carbon-based electrically conductive self-
healing composite showed a synergistic improvement of the electrical conductivity and self …

To enable robots to perform precise operations, it is essential to equip them with extensive
electronic skin to enhance their perceptual capabilities for sensing external information …

Modeled after rodent whiskers, we fabricated magnetic tentacles sensing array that can
sense tiny force. The magnetic tentacles sensing array consists of three parts: magnetic …

We present a soft gelatin-based hydrogel e-skin capable of detecting up to six simultaneous
tactile stimuli, using electrical impedance tomography (EIT) measurements and …

The maximum number of damage and healing cycles that can be endured by a self-healing
(SH) actuator, that is, its repeatable healability, has never been assessed. One reason for …