Inspired by the human skin, electronic skins (e‐skins) composed of various flexible sensors,
such as strain sensor, pressure sensor, shear force sensor, temperature sensor, and humility …

The skin is the largest organ of the human body and can sense pressure, temperature, and
other complex environmental stimuli or conditions. The mimicry of human skin's sensory …

Human skin perceives physical stimuli applied to the body and mitigates the risk of physical
interaction through its soft and resilient mechanical properties. Social robots would benefit …

As an indispensable and prevailing kind of flexible sensors, pressure sensors have been
extensively used in the field of flexible electronics. To enhance the performance and …

Advances in stretchable and flexible sensors are responding to the emerging demand of
wearable and portable smart electronics. A core component of these electronics are tactile …

Electrical impedance tomography (EIT) uses electrical stimulation and measurement at the
body surface to image the electrical properties of internal tissues. It has the advantage of …

The ability to directly print compliant biomedical devices on live human organs could benefit
patient monitoring and wound treatment, which requires the 3D printer to adapt to the …

Tactile sensors that can mechanically decouple, and therefore differentiate, various tactile
inputs are highly important to properly mimic the sensing capabilities of human skin. Herein …

Much recent work has been devoted to utilizing changes in either the inherent or imparted
electrical conductivity of self-sensing materials as an indicator of damage, deformation or …

Current touch input technologies are best suited for small and flat applications, such as
smartphones, tablets and kiosks. In general, they are too expensive to scale to large …