Plasma Galaxies June 2, 2006Posted by jtintle in Spitzer Space Telescope (SST), Deep Space, JPL, NASA, Satellite, Space Agencies, Space Fotos, TPOD, Website.
Laboratory experiments, together with advanced simulation capabilities, have shown that electric forces can efficiently organize spiral galaxies, without resorting to the wild card of gravity-only cosmology–the Black Hole.
Many of astronomy's most fundamental mysteries find their resolution in plasma behavior. Why do cosmic bodies spin, asked the distinguished astronomer Fred Hoyle, in summarizing the unanswered questions. Plasma experiments show that rotation is a natural function of interacting electric currents in plasma. Currents can pinch matter together to form rotating stars and galaxies. A good example is the ubiquitous spiral galaxy, a predictable configuration of a cosmic-scale discharge. Computer models of two current filaments interacting in a plasma have, in fact, reproduced fine details of spiral galaxies, where the gravitational schools must rely on invisible matter arbitrarily placed wherever it is needed to make their models "work".
The photograph of spiral galaxy M81 above is one of the first images returned by NASA's new Spitzer space telescope, an instrument that can detect extremely faint waves of infrared radiation, or heat, through clouds of dust and plasma that have blocked the view of conventional telescopes. The result is the picture of striking clarity.
Beneath this photograph we have placed snapshots from a computer simulation by plasma scientist Anthony Peratt, illustrating the evolution of galactic structures under the influence of electric currents. Through the "pinch effect", parallel currents converge to produce spiraling structures.
To see the connection between plasma experiments and plasma formations in space, it is essential to understand the scalability of plasma phenomena. Under similar conditions, plasma discharge will produce the same formations irrespective of the size of the event. The same basic patterns will be seen at laboratory, planetary, stellar, and galactic levels. Duration is proportional to size as well. A spark that lasts for microseconds in the laboratory may continue for years at planetary or stellar scales, or for millions of years at galactic or intergalactic scales.
Plasma experiments, backed by computer simulations of plasma discharge, are changing the picture of space. Plasma scientists, for example, are able to replicate the evolution of galactic structures both experimentally and in computer simulations without recourse to a popular fiction of modern astrophysics –the black hole. Astronomers require invisible, super-compressed matter as the center of galaxies because without Black Holes gravitational equations cannot account for observed movement and compact energetic activity. But charged plasma achieves such effects routinely