First yeast biohybrid system using an adaptable light-harvesting semiconductor approach opens the door to more efficient and versatile biomanufacturing.
An official website of the United States government.
First yeast biohybrid system using an adaptable light-harvesting semiconductor approach opens the door to more efficient and versatile biomanufacturing.
Researchers have demonstrated that they can control the magnetic properties of a thin-film material by applying a small voltage and by using hydrogen ions. This new approach could open the doors to memory, computing, and sensing devices that consume drastically less power than existing versions.
Researchers have demonstrated that they can control the magnetic properties of a thin-film material by applying a small voltage and by using hydrogen ions. This new approach could open the doors to memory, computing, and sensing devices that consume drastically less power than existing versions.
Researchers have provided new results on a microscopic nanotube-sensing film called a “smart skin,” which promises to reveal whether structures like bridges or aircraft have been deformed by stress-inducing events or regular wear and tear.
Researchers have provided new results on a microscopic nanotube-sensing film called a “smart skin,” which promises to reveal whether structures like bridges or aircraft have been deformed by stress-inducing events or regular wear and tear.
Researchers have combined epoxy with a tough graphene foam and carbon nanotube scaffold to build a resilient composite that is tougher and as conductive as other compounds but as light as pure epoxy.
Researchers have combined epoxy with a tough graphene foam and carbon nanotube scaffold to build a resilient composite that is tougher and as conductive as other compounds but as light as pure epoxy.
A research team says it has developed a promising building block for the next generation of nonvolatile random-access memory, artificial neural networks, and bio-inspired computing systems.
A research team says it has developed a promising building block for the next generation of nonvolatile random-access memory, artificial neural networks, and bio-inspired computing systems.
Scientists have paired drug-delivering nanoparticles like dance partners to reveal that molecules attach to targets on cells differently based upon their position in time. The discovery could improve methods for screening drugs for therapeutic effectiveness.