The Higgs boson is analogous to other bosons (photon, muon, gluon, graviton, etc.) which couple forces.
Atoms are composed of fermions bound together by exchanging various virtual bosons (e.g. electrons are bound to the nucleus by exchanging virtual photons, the protons and neutrons in the nucleus are bound together by exchanging virtual muons, the quarks are bound inside protons and neutrons by exchanging virtual gluons), no real bosons of any type exist in an atom (although some atoms are themselves bosons even though they are entirely composed of fermions).
No. The periodic table contains the elements, which are made of atoms. The Higgs boson is a much smaller particle than an atom. Yes, but it was a theoretical element until recently when its presence was proved. The Higgs Boson is a subatomic particle that apparently weighs 130 times as much as an atom of hydrogen, the lightest gas.
No, the Higgs boson is a fundamental particle that exists within the framework of the standard model of particle physics. It is not a physical object that can exist in astronomical structures like nebulae.
There is no god atom. You may be confused with the god particle, a sometimes-used name for the Higg's boson, but no atom bears any relationship to any god whatsoever.
Q 3. How did the scientists explain the relationship between the colors observed and the structure of the atom?
The most recent addition to the accepted model of the atom is the concept of quantum mechanics, particularly the incorporation of quantum field theory and the understanding of particles as excitations in underlying fields. This development has expanded the traditional atomic model beyond fixed orbits of electrons to a probabilistic approach where electron positions are described by wave functions. Additionally, discoveries related to the Higgs boson and the role of various fundamental forces have refined the understanding of atomic structure and interactions.
About 2% of an atom's mass is caused by the Higgs boson. The rest is due to the effect of the Strong Nuclear Force.
A Higgs-Boson particle.
No. The periodic table contains the elements, which are made of atoms. The Higgs boson is a much smaller particle than an atom. Yes, but it was a theoretical element until recently when its presence was proved. The Higgs Boson is a subatomic particle that apparently weighs 130 times as much as an atom of hydrogen, the lightest gas.
No, the Higgs boson is a fundamental particle that exists within the framework of the standard model of particle physics. It is not a physical object that can exist in astronomical structures like nebulae.
Examples: proton, muon, boson Higgs, positron, antineutron, tau neutrino etc.
the relationship between solar and atom is a extreme sexual relationship
There is no god atom. You may be confused with the god particle, a sometimes-used name for the Higg's boson, but no atom bears any relationship to any god whatsoever.
For a neutral atom, the relationship between the number of protons and the number of neutrons is the same.
I'm thinking 13 after the Higgs was proven.
Q 3. How did the scientists explain the relationship between the colors observed and the structure of the atom?
The Higgs boson is a big deal because it helps physicists better understand what happened just after the big bang. It helps them know how mass originated and it's what gives mass to most of the sub-atomic fundamental particles. They(fundamental particles) are all there was back after the first moments of the big bang, and if there wasn't anything to give these smaller particles mass, then they never could have gained energy and become anything more massive. Elementary particles are not very massive(approx. 2% of an atom), so when you hear people say the Higgs gives everything all it's mass, or even most, it is incorrect. It is a very complicated subject, but even when the higgs field is zero, some particles have a non-zero mass(1/1000th of normal). Only about 2% of your mass is from interactions with the Higgs field; the rest(about 98%) is from quark/anti-quark interactions with the gluon field indirectly related to the strong force.
There is a relationship of attraction.