Uploaded November 2016 | Updated September 2026, 2 weeks ago
Thin-film electronics intimately laminated onto the skin imperceptibly equip the human body with electronic components for health-monitoring and information technologies.
When electronic devices are worn, the mechanical flexibility and/or stretchability of thin-film devices helps to minimize the stress and discomfort associated with wear because of their conformability and softness.
For industrial applications, it is important to fabricate wearable devices using processing methods that maximize throughput and minimize cost.
We demonstrate ultraflexible and conformable three-color, highly efficient polymer light-emitting diodes (PLEDs) and organic photodetectors (OPDs) to realize optoelectronic skins (oe-skins) that introduce multiple electronic functionalities such as sensing and displays on the surface of human skin.
The total thickness of the devices, including the substrate and encapsulation layer, is only 3 μm, which is one order of magnitude thinner than the epidermal layer of human skin.
By integrating green and red PLEDs with OPDs, we fabricate an ultraflexible reflective pulse oximeter.
The device unobtrusively measures the oxygen concentration of blood when laminated on a finger. On-skin seven-segment digital displays and color indicators can visualize data directly on the body.
thespeaker.co/category/science
Ultraflexible organic photonic skin. Tomoyuki Yokota et al (2016), Science Advances dx.doi.org/10.1126/sciadv.1501856
Thin-film electronics intimately laminated onto the skin imperceptibly equip the human body with electronic components for health-monitoring and information technologies.
When electronic devices are worn, the mechanical flexibility and/or stretchability of thin-film devices helps to minimize the stress and discomfort associated with wear because of their conformability and softness.
For industrial applications, it is important to fabricate wearable devices using processing methods that maximize throughput and minimize cost.
We demonstrate ultraflexible and conformable three-color, highly efficient polymer light-emitting diodes (PLEDs) and organic photodetectors (OPDs) to realize optoelectronic skins (oe-skins) that introduce multiple electronic functionalities such as sensing and displays on the surface of human skin.
The total thickness of the devices, including the substrate and encapsulation layer, is only 3 μm, which is one order of magnitude thinner than the epidermal layer of human skin.
By integrating green and red PLEDs with OPDs, we fabricate an ultraflexible reflective pulse oximeter.
The device unobtrusively measures the oxygen concentration of blood when laminated on a finger. On-skin seven-segment digital displays and color indicators can visualize data directly on the body.
thespeaker.co/category/science
Ultraflexible organic photonic skin. Tomoyuki Yokota et al (2016), Science Advances dx.doi.org/10.1126/sciadv.1501856
