Earlier quoted context omitted.
[Standard disclaimer that Physic is an experimental science and everything can change in the future.] Spin is more complicated! That the reason that force the sum of the four 1/2 spin particles to have spin 0, 1 or 2. It has a nice mathematical reason that is the SU(2) group representations. All the experiments so far agree with this rules. The rule for four 1/2 particles can be tested with electron in small molecule…
From this link https://sci-hub.se/10.1007/978-1-4614-3936-3 Neutrinos are fermions with spin 1/2 [10] and thus one may anticipate spin of 1/2 or 3/2 for composite states formed by three neutrinos. Indeed most baryons have spin 1/2 and some, as shown in Table 4.4, have spin 3/2 [10]. Several baryons are charged, e.g. the proton or the Ξ+. The differences in mass, m, from their neutral brethren (i.e. the n or the Ξo) i…
I think it's an old theory from the same people, where they used three neutrinos instead of four. The old version does not break the spin rules. It's even more weird that now they added a fourth particle.
The combination of the Newtonian Gravity, with special and general relativity is weird. Those gammas are in the wrong places. I'm 99% sure it is wrong, but I should read the details carefully.
I think there is a problem with the uncertain principle because the neutrinos must be too close, and other with the Pauli exclusion principle (perhaps they solve it with the "resonance"). I'm 99% sure it is wrong, but I should read the details carefully.
There are more problems with exchange symmetry, and partiles that these theory predict nut don't appear experimentally.
The way they break the rules of spin is straightforward. As I said in a comment in other thread, it's almost ass bad as if they break the charge conservation rules. (Almost, because breaking the charge conservation rules is even worst.)