As a typical two-dimensional (2D) atomic thin material, the massless Dirac Fermions in
graphene promise many unique physical properties, such as high carrier mobility and high …

Inspired by the epidermal–dermal and outer microstructures of the human fingerprint, a
novel flexible sensor device is designed to improve haptic perception and surface texture …

Finger skin electronics are essential for realizing humanoid soft robots and/or medical
applications that are very similar to human appendages. A selective sensitivity to pressure …

High adhesion and water resistance on skin surfaces are highly demanded properties for
wearable and skin‐attachable electronics in various medical applications. Here, stretchable …

We propose a transparent and stretchable all-graphene strain sensor that can detect various
types of strain induced via stretching, bending, and torsion. The sensor is fabricated by …

Strain sensors with excellent flexibility, stretchability, and sensitivity have attracted
increasing interests. In this paper, a highly stretchable and ultrasensitive strain sensor based …

We developed a low-cost flexible pressure sensor based on an elastomer film with uniformly
distributed micro-pores as a dielectric layer. The dispersion of the micro-pores in the …

This paper presents the design, fabrication, and characterization of a wearable capacitive
pressure sensor for respiration-monitoring systems. For the dielectric layer of the proposed …

Wearable sensors are believed to be the most important part of the Internet of Things. In
order to meet the application requirements, low-dimensional materials such as graphene …

The development of sensitive, flexible, and transparent tactile sensors is of great interest for
next‐generation flexible displays and human–machine interfaces. Although a few materials …