Potentially, observations about the material may help scientists understand other phenomenon such as superconductivity, a state where electrical resistance disappears and electricity flows without dissipating, or the dense matter found in neutron stars.
While scientists are still trying to characterize these phenomena, these experiments could one day lead to new types of magnets or different ways to transport electricity. The work was headed up by Nobel prize winner and MIT professor. Wolfgang Ketterle.
Like superconductivity, superfluidity occurs at extremely low temperatures. The matter created by MIT existed at 50 nanokelvin degrees above absolute zero, or 50 billionths of a degree about--273 Celsius. Nonetheless, that is high for these experiments.
A superfluid gas can be clearly distinguished from a normal gas when it is rotated, according to MIT. A normal gas rotates like an ordinary object, but a superfluid can only rotate when it forms vortices similar to mini-tornadoes. This gives a rotating superfluid the appearance of swiss cheese or a wiffle golf ball.