Ben M, lets change the subject.
Why? Did you learn anything from the previous subject?
Ben M, lets change the subject.
I can answer this: Nuclei have no binding energy so the answer is no.Ben M, lets change the subject.
Is there a theory which calculates the binding energy of lightest nuclei ?
Hmm. I'm not so sure there's such a clear-cut difference.I can answer this: Nuclei have no binding energy so the answer is no.
Nucleons have binding energy.
I'd say it is mostly approximately correct.Theoretical nuclear physics is mostly correct.
Theoretical nuclear physics is mostly correct.
Since I'm not a physicist, Pedrone will probably ignore me. However, based on what I read from the physicists, the spin interaction modifies the first 4 (well known) forces quoted above.
The quote above, at least to me, seems intellectually dishonest. Isn't this like saying "the force of gravity is modified or determined by the mass of 2 bodies, therefore mass is a force"??????
Why? Did you learn anything from the previous subject?
As has already been pointed out, it is no more a mechanism than distance is a mechanism.First of all, it's very strange that the same mechanism (the spin) can be able to create two forces of different magnitude: 1 and 1/137.
Simply not true. The nucleon-nucleon strong force is repulsive at short distances. Otherwise nucelons would completely overlap spatially and the nucleus would, presumably, have the same size as an individual nucleon.Besides, the strong force is attractive. There no exist repulsive strong force.
pedrone, one more time: the spin-orbit interaction is a detail of the existing force. It is not a separate force.Slyjoe,
Only a force can oppose to another force.
No it does not - it is the existing force.When the spin interacts through the electromagnetism, such spin-interaction must create a force.
No it does not. There is no force. The magnitude has nothing to do with the coupling constants.So, in the case of the magnetism, such spin-interaction must create a force with the magnitude of the magnetism=1/137
No it is not strange.First of all, it's very strange that the same mechanism (the spin) can be able to create two forces of different magnitude: 1 and 1/137.
I can answer this: Nuclei have no binding energy so the answer is no.
Nucleons have binding energy.
Lets not derail the thread pedrone.So, let's speak now about the binding energy of nuclei.
This is not due to strong force.Simply not true. The nucleon-nucleon strong force is repulsive at short distances. Otherwise nucelons would completely overlap spatially and the nucleus would, presumably, have the same size as an individual nucleon.
Actually the nuclear binding energy of a nucleus is the energy needed to remove all of the nucleons from that nucleus. It is equavalent to the reverse process though.Reality Check,
in Nuclear Physics we call binding energy of a nucleus the total energy necessary to pack the nucleons into that nucleus.
No,This thread is about your assertion that the nuclear spin-orbit interaction is electromagnetic.
Actually the nuclear binding energy of a nucleus is the energy needed to remove all of the nucleons from that nucleus. It is equavalent to the reverse process though.
But this is still a derail of the thread.
Slyjoe,
when two particle have interaction through a force of attraction, only a force of repulsion can cancell (or decrease) the intensity of the attraction force.
Only a force can oppose to another force.
Besides, the strong force is attractive. There no exist repulsive strong force.
Why? Did you learn anything from the previous subject?
There are lots of questions that are not answered by nuclear physics, e.g. the forward-backward asymmetry of the top-quark pair production.No,
the name of this thread is why Nuclear Physics cannot be entirelly correct , and so it's about several questions not satisfactorilly answered by Nuclear Physics
I have to laugh...
the energy to pack is the same energy necessary to remove them...
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!Ben M,
I will be waiting your response: