Latest Ferrofluid Stories
Nanosatellites are smartphone-sized spacecraft that can perform simple, yet valuable, space missions. Dozens of these little vehicles are now tirelessly orbiting the earth performing valuable functions for NASA, the Department of Defense and even private companies.
Scientists are experimenting with non-dissapative droplet patterns to study reversible switching between static and dynamic self-assembly.
Microscopic particles are being coaxed by Duke University engineers to assemble themselves into larger crystalline structures by the use of varying concentrations of microscopic particles and magnetic fields.
Versatile liquid pistons developed at Rensselaer Polytechnic Institute have no solid moving parts, essentially eliminating wear.
Using a healthier hyperthermia, Virginia Tech engineering researchers and a colleague from India unveiled a new method to target and destroy cancerous cells without using chemotherapy.
Using hyperthermia, Virginia Tech engineering researchers and a colleague from India unveiled a new method to target and destroy cancerous cells.
A team led by Yale University scientists has developed a way to rapidly manipulate and sort different cells in the blood using magnetizable liquids.
As shapes, both possess certain symmetries that are easily recognizable in the natural world. Now, at an extremely small level, researchers from Duke University and the University of Massachusetts have created a unique set of conditions in which tiny particles within a solution will consistently assemble themselves into these and other complex shapes.
Magnetorheological (MR) fluids are smart materials whose flow/viscosity properties can be modified by applying an electric field. These changes in viscosity occur within a fraction of a millisecond â€“ far faster than conventional mechanical means â€“ and can be used to effectively control vibrations in applications dealing with actuation, damping, robotics and mechatronics.
- A serpent whose bite was fabled to produce intense thirst.