Researchers have developed a nanocellulose-alginate hydrogel suitable for 3D printing. The composition of the hydrogel was optimized based on material characterization methods and 3D printing experiments.
Researchers report they have created a TI film just 25 atoms thick that adheres to an insulating magnetic film, creating a heterostructure. This heterostructure makes TI surfaces magnetic at room temperatures and higher, to above 400 Kelvin or more than 720 degrees Fahrenheit.
Scientists have found a way to make carbon both very hard and very stretchy by heating it under high pressure. This 'compressed glassy carbon' is also lightweight and could potentially be made in very large quantities.
Researchers report a new zinc oxide nanorods integrated microchip that captures avian influenza virus on immunologically functionalized ZnO nanorod surface and detect viruses by multiplexed sandwich immunoassay.
In a proof-of-concept study, engineers have designed a flexible thermoelectric energy harvester that has the potential to rival the effectiveness of existing power wearable electronic devices using body heat as the only source of energy.
Exosomes - biological nanoparticles which transfer information between cells - offer significant potential in detecting and treating disease, the most comprehensive overview so far of research in the field has concluded.
Researchers have introduced a new type of nanomechanical resonator, in which a pattern of holes localizes vibrations to a small region in a 30 nm thick membrane. The pattern dramatically suppresses coupling to random fluctuations in the environment, boosting the vibrations' coherence.
The team invented a generalized method of producing anode materials for lithium-ion batteries. The anodes are made from ultrathin metal oxide nanosheets, which are ultrathin, two-dimensional materials with excellent electrochemical and mechanical properties.
Researchers have built a setup for recording holograms of tiny objects like living cells with a femtosecond speed. The new method allows one to reconstruct phase topography of a studied sample according to deformations that emerge in a laser pulse when it passes through the specimen.