Cookies enable us to provide the best experience possible and help us understand how visitors use our website. By browsing Materials Today, you agree to our use of cookies.
Sulfur polymers that could replace carbon in plastics
A material comprising layers of graphene and magnetic metals like nickel can induce exotic behavior in electrons at the interface between the layers.
graphene can covert high frequency gigahertz signals into the terahertz range
A graphene superlattice consisting of two sheets rotated at slightly different orientations can display both insulating and superconducting properties.
bridging the gaps between aligned single-walled carbon nanotubes with metal atoms boosts electrical conductivity in a new direction
Twisting films of carbon nanotubes produces short lengths of strong, conductive fibers in about an hour, making this process much faster than spinning.
Nitrogen-doped carbon nanotubes or modified graphene nanoribbons could replace the platinum cathodes that currently reduce oxygen in fuel cells.
Applying pressure at the nanoscale to two layers of graphene transforms them into a super-hard, diamond-like material, termed diamene.
Rotating layers of boron nitride above and below a graphene layer introduces moiré superlattices that modify the graphene's electronic properties.
highly porous polymer foam that mimic bone marrow drives the differentiation of blood-forming stem cells
CNTs produced from CO2 using low-energy chemical processes drastically reduce emissions associated with construction materials
Continuing research in the field of nanomaterials for energy storage will be critical for the widespread adoption of sustainable energy sources.
Scientists have discovered two co-existing phases in a layered, copper-containing crystal that are connected through a quadruple energy well.
Scientists have found that multilayer graphene is stiff when bent a little, but becomes much softer when bent a lot, as the layers slide past each other.
Exposing the cathode in a lithium-ion battery to a beam of concentrated light can lower the charging time by a remarkable factor of two or more.
Scientists have found that a broad diffraction pattern can help determine whether graphene and other 2D materials are structurally perfect.
Interview with Dr David Simpson from the University of Melbourne about diamond quantum probes.
This webinar will explore the powerful capabilities of today’s atomic force microscopes (AFMs) for characterizing thin films.
We discuss the journal Sustainable Materials and Technologies with one of the Editors.
GET ACCESS TO OUR
MEMBERS' CONTENT
REGISTER NOW