"Magnetic current is the same as electric current. Current is [actually] a wrong expression. Really it is not one current, they are two currents, one current is composed of North Pole individual magnets in concentrated streams and the other is composed of South Pole individual magnets in concentrated streams, and they are are running one stream against the other stream in whirling, screwlike fashion, and with high speed." -- Edward Leedskalnin, stone mason, 1945
Dirac and Leedskalnin confirmed again. Last month scientists confirmed what Leedskalnin already knew -- magnetic monopoles exist.
Other scientists are just now repeating the discovery: Large-Scale Cousin Of Elusive 'Magnetic Monopoles' Found At NIST.
ScienceDaily (Oct. 8, 2009) — Any child can tell you that a magnet has a “north” and a “south” pole, and that if you break it into two pieces, you invariably get two smaller magnets with two poles of their own. But scientists have spent the better part of the last eight decades trying to find, in essence, a magnet with only one pole. A team working at the National Institute of Standards and Technology (NIST) has found one.
In 1931, Paul Dirac, one of the rock stars of the physics world, made the somewhat startling prediction that “magnetic monopoles,” or particles possessing only a single pole—either north or south—should exist. His conclusion stemmed from examining a famous set of equations that explains the relationship between electricity and magnetism. Maxwell’s equations apply to long-known electric monopole particles, such as negatively charged electrons and positively charged protons; but despite Dirac’s prediction, no one [except Leedskalnin and the scientists last month] has found magnetic monopole particles.
Now, a research team working at NIST’s Center for Neutron Research (NCNR), led by Hiroaki Kadowaki of Tokyo Metropolitan University, has found the next best thing. By creating a compound that under certain conditions forms large, molecule-sized monopoles that behave exactly as the predicted particles should, the team has found a way to explore magnetic monopoles in the laboratory, not just on the chalkboard. (Another research team, working simultaneously, published similar findings in Science last month.)