Posted on 03/12/2017 6:55:15 PM PDT by MtnClimber
A joint Fermilab/SLAC publication
New research could tell us about particle interactions in the early universe and even hint at new physics.
Much of the matter in the universe is made up of tiny particles called quarks. Normally it’s impossible to see a quark on its own because they are always bound tightly together in groups. Quarks only separate in extreme conditions, such as immediately after the Big Bang or in the center of stars or during high-energy particle collisions generated in particle colliders.
Scientists at Louisiana Tech University are working on a study of quarks and the force that binds them by analyzing data from the ATLAS experiment at the LHC. Their measurements could tell us more about the conditions of the early universe and could even hint at new, undiscovered principles of physics.
The particles that stick quarks together are aptly named “gluons.” Gluons carry the strong force, one of four fundamental forces in the universe that govern how particles interact and behave. The strong force binds quarks into particles such as protons, neutrons and atomic nuclei.
As its name suggests, the strong force is the strongest—it’s 100 times stronger than the electromagnetic force (which binds electrons into atoms), 10,000 times stronger than the weak force (which governs radioactive decay), and a hundred million million million million million million (10^39) times stronger than gravity (which attracts you to the Earth and the Earth to the sun).
But this ratio shifts when the particles are pumped full of energy. Just as real glue loses its stickiness when overheated, the strong force carried by gluons becomes weaker at higher energies.
(Excerpt) Read more at symmetrymagazine.org ...
I think there is more we don’t know about these forces than what we do know.
“it’s 100 times stronger than the electromagnetic force (which binds electrons into atoms)”
Tells me all I need to know about this article... Electromagnetic force is not what does the binding. It’s electrostatic force, which BTW, is much stronger than electromagnetic force.
I’m waiting for the weakness test for the weak force.
Will the strong force turn out to actually be a 97 pound weakling in disguise ? Picture goes here :
“You don’t know the power of the force!”
Weak force
Strong force
Air force
Da force
Please don’t write stuff like this.
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