Not sure if I am correct, I was reading an older text book.
Boson particles are the force carriers, and the particles we call fundamental are fermion or fermionic particles?
If so it would be nice to see a video mentioning the fermion class of particle within the standard model that make up the protons and electrons and neutrinos and so on.
If I remember right the main difference was that their spins did not allow their waves to combine like boson particles do,
@TehOwnerer999 The neutrino is a fundamental particle in its own right. It carries a weak charge which generates the weak force -- that is it generates the weak-force gauge bosons. The weak-bosons described in this video ARE the weak-force carrier -- gauge bosons for the weak-force.
I have a few questions, I hope you'll answer them:
1) The Z 0 Boson looks the same as a microscopic black hole as you showed in your Black Hole video. Is it the same?
2) Where do these W Bosons take part in interactions between quarks or electrons (both, quarks and electrons have weak force)? And what happens in Weak Force interaction?
3) And what does the Z Boson does? (I didn't understand that word you said...
Thank you. This is really helpful for someone like me, who learns well visually and doesn't know much science. I'd read about the different sort of particles before but it would blur together in my mind since I didn't know enough to really place the information within a context.
The gauge boson (carrier particle) for a force need not be an originator of the force. That is, it need not carry the "charge" that originates the force. In fact, if it does carry the "charge" then the situation gets very complicated (like the gluon field which does carry the color "charge".)
Is there anyone out there who can explain to me how a photon acts as the electromagnetic carrier particle when it itself has no electric charge? Been searching for an answer but I can't seem to find it.
Basically I've come to realize that the relationship is a purely mathematical one. I visualize it as a transference of momentum, the photon either has a "positive momentum value" or a "negative momentum value" the momentum of the photon is determined by the particle that releases it, but since it is a virtual photon, it doesn't actually exist until it transfers its' energy to another particle. Chances are I still have it completely wrong.
Not sure if I am correct, I was reading an older text book.
Boson particles are the force carriers, and the particles we call fundamental are fermion or fermionic particles?
If so it would be nice to see a video mentioning the fermion class of particle within the standard model that make up the protons and electrons and neutrinos and so on.
If I remember right the main difference was that their spins did not allow their waves to combine like boson particles do,
Silentsam7532 2 months ago
Do you have a video detailing neutral currents? I can't find any info that makes sense to me. Thanks for your amazing videos!
MikeRoePhonicsMusic 4 months ago
to be perfectly honest, guys, I didn't understand a damn thing!
GShock112 6 months ago
Why do people keep thinking they can quantify the universe.
Dogmaf2008 8 months ago
Whats the difference between a neutrino, these particles and the "weak charge"?
TehOwnerer999 1 year ago
@TehOwnerer999 The neutrino is a fundamental particle in its own right. It carries a weak charge which generates the weak force -- that is it generates the weak-force gauge bosons. The weak-bosons described in this video ARE the weak-force carrier -- gauge bosons for the weak-force.
cassiopeiaproject 1 year ago
@cassiopeiaproject 1=-1?
crazycagada 6 months ago
ok, this quantum stuff is really grabbing my interest.
theawesomone 2 years ago
I have a few questions, I hope you'll answer them:
1) The Z 0 Boson looks the same as a microscopic black hole as you showed in your Black Hole video. Is it the same?
2) Where do these W Bosons take part in interactions between quarks or electrons (both, quarks and electrons have weak force)? And what happens in Weak Force interaction?
3) And what does the Z Boson does? (I didn't understand that word you said...
yamjayamjabulba 2 years ago 3
@yamjayamjabulba The answer to question one is: No, it is not the same. It just looks the same in his videos because black holes are black.
deoxy999 2 years ago
Thank you. This is really helpful for someone like me, who learns well visually and doesn't know much science. I'd read about the different sort of particles before but it would blur together in my mind since I didn't know enough to really place the information within a context.
myriadmirrors 2 years ago
Congratulations! Your Quantum Physics videos are fantastic. In a more
perfect, intelligent, world you would be getting millions of hits. As a quantum physicist I must take my hat off to you.
Stuart Sims aka Master Quark
for Louise and Stuart's Amazing India Travels
portaltoindia 3 years ago
and i thought that the proton was a heavy "force" in the atom. I'm now proven wrong.
faerie130 3 years ago
The gauge boson (carrier particle) for a force need not be an originator of the force. That is, it need not carry the "charge" that originates the force. In fact, if it does carry the "charge" then the situation gets very complicated (like the gluon field which does carry the color "charge".)
cassiopeiaproject 3 years ago
@cassiopeiaproject Thanks for all the replies, you've clarified alot of things for me
TehOwnerer999 1 year ago
Is there anyone out there who can explain to me how a photon acts as the electromagnetic carrier particle when it itself has no electric charge? Been searching for an answer but I can't seem to find it.
lzepln 3 years ago
Thats a good question. Did you ever find the answer?
thatsandwich 2 years ago
Basically I've come to realize that the relationship is a purely mathematical one. I visualize it as a transference of momentum, the photon either has a "positive momentum value" or a "negative momentum value" the momentum of the photon is determined by the particle that releases it, but since it is a virtual photon, it doesn't actually exist until it transfers its' energy to another particle. Chances are I still have it completely wrong.
lzepln 2 years ago