Clinically approved hydrogels can be structured across multiple length scales to generate materials with a variety of new physical properties.
![New Ways to Structure Clinically Approved Hydrogels [Video]](https://www.advancedsciencenews.com/wp-content/uploads/2018/03/adma201705013_ASN_image.jpg)
Clinically approved hydrogels can be structured across multiple length scales to generate materials with a variety of new physical properties.
High-density stretchable electrode grids based on a material that can resolve high spatiotemporal neural signals from the surface of the cortex in freely moving rats with stable recording quality during 3 months of implantation.
Graphene grown on Cu(111) foils is a step toward wrinkle-free graphene production for electronic devices application.
A scalable method for fabricating electronic whiskers (e-whiskers)—a class of electronic skin—for sensing a variety of external stimuli, including proximity, texture mapping, surface roughness, material stiffness, force, and temperature.
Replicating the hollow structure of polar bear hairs allows an insulating material to provide thermal management with stealth applications.
Researchers create soft robots that can sense touch, pressure, movement and temperature.
The many possibilties of hybrid organic/inorganic van der Waals heterostructure systems where highly-ordered (supra)molecular layers are interfaced with inorganic 2D materials are discussed.
Researchers from the University of Massachusetts and Hewlett Packard Labs present a memristor platform for analog computations and forecast a device performance at least 16 times greater than purely digital solutions.
Professor Peter Coveney and co-workers from University College London elucidate the process that drives the exfoliation of graphite into graphene sheets using molecular dynamic simulations.
Precision micromanufacturing of electrospun microfibers can create 3D scaffold structures which support the growth of tessellated microtissues.