Wednesday, May 10, 2006

How Particles Came to be?

The First Few Microseconds, by Michael Riordan and Willaim A. Zajc
For the past five years, hundreds of scientists have been using a powerful new atom smasher at Brookhaven National Laboratory on Long Island to mimic conditions that existed at the birth of the universe. Called the Relativistic Heavy Ion Collider (RHIC, pronounced "rick"), it clashes two opposing beams of gold nuclei traveling at nearly the speed of light. The resulting collisions between pairs of these atomic nuclei generate exceedingly hot, dense bursts of matter and energy to simulate what happened during the first few microseconds of the big bang. These brief "mini bangs" give physicists a ringside seat on some of the earliest moments of creation.
During those early moments, matter was an ultrahot, superdense brew of particles called quarks and gluons rushing hither and thither and crashing willy-nilly into one another. A sprinkling of electrons, photons and other light elementary particles seasoned the soup. This mixture had a temperature in the trillions of degrees, more than 100,000 times hotter than the sun's core.

What was the initial energy that distributed the particle natures to have "microstate blackholes" created, while the conditions for other experiments are considered?

There are some things we need to know and I will show this shortly. I know certain people believe I am "ad hocing," but how would you get to the source of the thoughts, if one did not consider the conditions in which thought forms were created? So while we lok at the high energy collision of cosmic particles what are some of the things to watch for?

Forbush Decrease

Scott E. Forbush discovered the surprising inverse relationship between solar activity and cosmic rays

How would you not know, while the timeline has been explained, and a place for such expression would reveal such conditions to have them displayed, that we could think of them from such a beginning?

Where is that? Maybe you had to know about RHIC to understand the full notion of such a superfluids created, to know that such a condition became counter-intutive because of the new physics that it could present?

What is dissapated and how did it get there as other particle conditions are realized? Remember, the initial energy of such a expression was in a more simplified state, before it became as complex as it did in entropic realizations.

New state of matter more remarkable than predicted -- raising many new questions

The four detector groups conducting research at the Relativistic Heavy Ion Collider (RHIC) -- a giant atom “smasher” located at the U.S. Department of Energy’s Brookhaven National Laboratory -- say they’ve created a new state of hot, dense matter out of the quarks and gluons that are the basic particles of atomic nuclei, but it is a state quite different and even more remarkable than had been predicted. In peer-reviewed papers summarizing the first three years of RHIC findings, the scientists say that instead of behaving like a gas of free quarks and gluons, as was expected, the matter created in RHIC’s heavy ion collisions appears to be more like a liquid.

“Once again, the physics research sponsored by the Department of Energy is producing historic results,” said Secretary of Energy Samuel Bodman, a trained chemical engineer. “The DOE is the principal federal funder of basic research in the physical sciences, including nuclear and high-energy physics. With today’s announcement we see that investment paying off.”

As a product of mind could it be reborn, or burn up, and we are only discussing the philosophical considerations. Phenix, or was that Phoenix, like the bird? Rising from the flames and a renewal, as part of the creation of new conditions?

Scientists May Soon Have Evidence for Exotic Predictions of String Theoryissued by Northeaster University

"String theory and other possibilities can distort the relative numbers of 'down' and 'up' neutrinos," said Jonathan Feng, associate professor in the Department of Physics and Astronomy at UC Irvine. "For example, extra dimensions may cause neutrinos to create microscopic black holes, which instantly evaporate and create spectacular showers of particles in the Earth's atmosphere and in the Antarctic ice cap. This increases the number of 'down' neutrinos detected. At the same time, the creation of black holes causes 'up' neutrinos to be caught in the Earth's crust, reducing the number of 'up' neutrinos. The relative 'up' and 'down' rates provide evidence for distortions in neutrino properties that are predicted by new theories."