Uncertanty principal and repulsion forces of quark & gluons 2 question

In summary, the uncertainty principle can disrupt the nucleus and potentially cause it to rip apart if one tries to locate a quark/gluon triangle using a wavelength. However, the strong force does not cause any repulsion within systems that are color-neutral, but the weak force can cause hadrons to decay into more stable hadrons. This is demonstrated by the decay of a neutron into a proton, electron, and neutrino, where a down quark changes flavor into an up quark and emits a W- boson that quickly decays into an electron and neutrino.
  • #1
taylordnz
39
0
in the atom if you try to look into a neutron for example you would see the quark/gluon triangle but if you use a wave length to spot it won't the uncertainty princable make the particles change there location and so disrupt the nucleus and rips it apart. is that possible?

Question 2

is there any repulsion forces between the quark/gluon triangle that makes a proton apart from electrons and neutrons?
 
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  • #2
The only way to effectively study the internal structure of hadrons is to study the scattering that results from collisions of hadrons.

The strong force does not cause any repulsion within systems that are color-neutral. The weak force, however, causes decay of hadrons into more stable hadrons. This is the reason behind the neutron decaying into a proton, electron, and neutrino. There was no repulsion; a down quark simply changed flavor into an up quark, resulting in the emmission of a W- boson that then decayed rapidly into an electron and a neutrino.
 

1. What is the uncertainty principle?

The uncertainty principle is a fundamental principle in quantum mechanics that states that it is impossible to know both the position and the momentum of a particle at the same time with absolute precision.

2. How does the uncertainty principle relate to quarks and gluons?

In the context of quarks and gluons, the uncertainty principle manifests as the limitation on our ability to know the exact position and momentum of these subatomic particles. This is due to the fact that quarks and gluons are constantly interacting and exchanging energy, making it impossible to measure their exact properties at any given moment.

3. What are repulsion forces between quarks and gluons?

The repulsion forces between quarks and gluons are a result of the strong nuclear force, which is responsible for binding quarks together to form protons and neutrons. These forces act as a sort of "glue" that holds the quarks together despite their mutual repulsion due to their electric charges.

4. How do the repulsion forces between quarks and gluons affect the behavior of particles?

The repulsion forces between quarks and gluons play a crucial role in determining the behavior and properties of particles. They help to determine the mass, spin, and other characteristics of particles, and also dictate how they interact with each other.

5. Are there any exceptions to the uncertainty principle and repulsion forces of quarks and gluons?

While the uncertainty principle and repulsion forces are fundamental principles in quantum mechanics, there are some situations where they may not apply. For example, in extreme conditions such as in the early universe or in the cores of neutron stars, these principles may break down and new behaviors may emerge.

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