A team of physicists has demonstrated a reversible method for altering the electronic properties of a nanoscopic material, pointing the way toward merging several hallmark functions of modern electronics into a single component.
Scientists have created a nanoparticle that carries two different antibodies capable of simultaneously switching off cancer cells' defensive properties while switching on a robust anticancer immune response in mice.
Researchers have developed piezoresistive electronic skins based on a composite of polymer and arrays of aligned few-walled carbon nanotubes that, enabled by the aligned carbon nanotubes, exhibited multiple advantages, such as simple device structure, high precision, fast response, excellent stability, and low power consumption.
Scientists aim to develop new areas for black phosphorus' application, for instance in the fields of electrical energy storage and solar cells. It could make batteries last longer or enable solar cells to produce more electrical energy.
A general rule in optics is that light is insensitive to features which are much smaller than the optical wavelength. However, a new experiment shows that even features that are more than 100 times smaller than the wavelength can still be sensed by light.
Researchers propose a new way of performing in vitro tests on nanoparticles that could enhance a correlation to in vivo results. This involves reproducing in the lab the dynamic and fluidic variations that these particles experience in the human body.
Scientists have fabricated antibody-coated porous silicon nanoparticles that can actively target cells through binding to specific cell-surface
receptors. These nanoparticles were demonstrated to selectively deliver multiple therapeutics to human B cells in vitro.