A metamaterial superabsorber structure with sub-5-nanometer gaps boosts the sensitivity of bio/chemical sensing.
A metamaterial superabsorber structure with sub-5-nanometer gaps boosts the sensitivity of bio/chemical sensing.
Protein Science has published a Special Issue on Molecular Machines guest edited by Carlos Bustamante from the Laboratory of Single Molecule Biophysics at UC Berkeley. Each living cell, whether prokaryotic or eukaryotic, is a microscopic but complex structure. Its...
Researchers develop a liquid crystalline elastomer robot fueled completely by visible light. The robot is capable of biomimetic locomotion resembling a caterpillar and can be operated directly on human skin.
Researchers added low-cost touch sensing to objects of almost any shape.
In an important step forward for wearable electronics, researchers design and build a set of “solar glasses”, which integrate transparent solar cells into the lenses and electronics into the frames, to measure and display the instantaneous light intensity and ambient temperature.
Prof. Korley and co-workers explore the design principles used to develop environmentally-responsive materials that serve as release agents, sensors, switches, and actuators.
A high-performance, flexible piezoelectric nanogenerator is fabricated to convert mechanical energy into electricity that can power a variety of devices.
Time-gated FRET-based biosensors allow the quantification of multiple nucleic acids at low nanomolar concentrations using just a single donor–acceptor pair.
A Special Issue that reports on the latest technical developments in QPI used to study the mechanisms of cancer and neurodegenerative disorders, to develop multispecific pharmaceutical formulations, and as a robust segmentation technology for microbial cells.
The human skin is an organ with amazing sensory properties. It can pick up a variety of sensations from its environment. Mimicking those properties in wearable electronics skins would offer a variety of applications for human–machine communication— imagine if you...