Scientists have made exotic new materials by creating laser-induced micro-explosions in silicon, the common computer chip material.
Engineers have developed a nanogenerator that harvests energy from a car’s rolling tire friction.
Scientists have described how glasses form at the molecular level and provided a possible solution to a problem that has stumped scientists for decades.
A new study of hydrogen storage material magnesium hydride reveals path to better performance, possibly paving way toward better future fuel tanks.
If you suffer from chronic muscle pain a doctor will likely recommend for you to apply heat to the injury. But how do you effectively wrap that heat around a joint? Now scientists have come up with an ingenious way of creating therapeutic heat in a light, flexible design.
Using computational modeling, researchers have come up with a design for a sturdier liposome. Their findings, while theoretical, could provide the basis for efficiently constructing new vehicles for nanodrug delivery.
The efficiency of solar cells depends on precise engineering of polymers that assemble into films 1,000 times thinner than a human hair. Today, formation of that polymer assembly requires solvents that can harm the environment, but scientists have found a ‘greener’ way to control the assembly of photovoltaic polymers in water using a surfactant — a detergent-like molecule — as a template.
Researchers have created tiny pores in single sheets of graphene that have an array of preferences and characteristics similar to those of ion channels in living cells.
Researchers have developed a method for measuring soft, structured surfaces using optical forces. Surfaces separate outside from inside, control chemical reactions, and regulate the exchange of light, heat, and moisture. They thus play a special role in nature and technology. Researchers have presented an ultra-soft surface scanning method based on an optical trap and optical forces. Microscopy methods like these make it possible to measure particularly sensitive and minuscule structures without destroying them.
A team of Korean scientists has discovered a new class of solitons, which they named chiral solitons.