Magnetic nanostructures are potentially useful medical instruments. They can be directed by external magnetic fields within the body to release medications or kill tumor cells once they have been incorporated into biological structures.
The new technology, devised by researchers from Imperial College London, has the potential to reduce the energy cost of artificial intelligence (AI), which is now doubling every 3.5 months globally.
Exploring the realm of the extraordinarily small is a huge favorite among physicists. Completely new and unanticipated phenomena are revealed at the nanometer scale where materials measuring as thin as 100 atoms are examined.
For the first time, PSI scientists have perceived how minute magnets in a distinct layout arrange themselves exclusively because of temperature variations.
A pre-proof paper demonstrates an innovative strategy to enhance the giant magnetoresistance effect of cobalt/copper multilayered nanowire arrays.
Using cellulose nanocrystals in a low-strength magnetic force can greatly aid in creating an oriented polymeric scaffold suitable for guided wound healing and 3D tissue engineering.
Researchers reported that when a platinum-plated atomic force microscope tip is pushed over a pristine doped silicon substrate, an extremely thin silicon oxide layer is formed.
A nanoparticle suspension could act as a simple model to investigate the formation of patterns and structures in highly complex non-equilibrium systems like cells.
A combination of advanced 3D printing and microscopy has enabled researchers to gain new insights into what happens while taking magnets to three dimensions on the nanoscale, which is 1000 times smaller compared to a strand of human hair.
A biodegradable electromagnetic shielding (EMS) material made of graphene/ silver nanocoating and aluminum film paper has been developed.