Sensing mechanical signals is an important aspect for a range of applications of E-skins. Here, the authors report on the creation of deforming iontronic sensing structures which can use ionic transport through tissues to create a simple and sensitive E-skin for sensing touch, pulse and motion demonstrating application
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
Sensory feedback from touch is critical for many tasks carried out by robots and humans, such as gra...
AbstractElectrodermal devices that capture the physiological response of skin are crucial for monito...
Human skin perceives external mechanical stimuli by sensing the variation in the membrane potential ...
Flexible electronic skin (e-skin) has been successfully utilized in diverse applications, including ...
Flexible electronic skin (e-skin) has been successfully utilized in diverse applications, including ...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
Electronic skin (E-skin) imitates human skin by converting external stimuli into electrical signals....
© 2022Animal skin is deformable, yet capable of consistently sensing external stimuli (mechanical, t...
Electrical impedance tomography (EIT) is a promising technique for large area tactile sensing for ro...
Endowing appliances with the capability of sensing and processing touch enables tactile interaction ...
The first stretchable energy harvesting e-skin (EHES) that is able to detect, differentiate, and har...
Over the past few decades, tactile sensors have become an emerging field of research in both academi...
Human skin has different types of tactile receptors that can distinguish various mechanical stimuli ...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
Sensory feedback from touch is critical for many tasks carried out by robots and humans, such as gra...
AbstractElectrodermal devices that capture the physiological response of skin are crucial for monito...
Human skin perceives external mechanical stimuli by sensing the variation in the membrane potential ...
Flexible electronic skin (e-skin) has been successfully utilized in diverse applications, including ...
Flexible electronic skin (e-skin) has been successfully utilized in diverse applications, including ...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
Electronic skin (E-skin) imitates human skin by converting external stimuli into electrical signals....
© 2022Animal skin is deformable, yet capable of consistently sensing external stimuli (mechanical, t...
Electrical impedance tomography (EIT) is a promising technique for large area tactile sensing for ro...
Endowing appliances with the capability of sensing and processing touch enables tactile interaction ...
The first stretchable energy harvesting e-skin (EHES) that is able to detect, differentiate, and har...
Over the past few decades, tactile sensors have become an emerging field of research in both academi...
Human skin has different types of tactile receptors that can distinguish various mechanical stimuli ...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
This paper reviews current progress on flexible and stretchable transistors and sensors for the next...
Sensory feedback from touch is critical for many tasks carried out by robots and humans, such as gra...