Okay, thanks. analogies work for a while but then something more definite ne3eds to be established.
Dear Seeker,
The question of spin and gravity seems to me resolvable at the quarklet level. Neutrinos coupled to leptons and "sub-quarks" (the lepton-like parts of quarks) generate spin. Matter is made up of particles with two quarklets
(electrons and positrons) and those with three (neutrinos). Neutrinos' odd quarklet number give them spin and their coupling to leptons makes those "complex" and they share their spin with those, as well. Gravity must be the surplus spin of neutrino quarklets which I call "valence". More later...
You realize that taking a few scientific terms and adding a madeup term or 2 and then dumping those terms into a sentence is not science. It is not anything except a waste of bandwidth.
By the way.
Electrons do not orbit the nucleus like planets.
Subatomic particles do not spin like little tops.
One thing is for sure we were all born ignorant and what happens after that is up to each of us.
To origin and brucep:
Sub-particles spin and orbit in atomic nuclei.
quraklet8 said:To origin and brucep:
Sub-particles spin and orbit in atomic nuclei.
They don't. Electrons are described as standing waves around the nucleus, paramaterized by three quantum numbers, n, m and l. For example, the ground state of hydrogen has n = 1, m = l = 1. The wavefunction has this form, from solving the Schrodinger equation:
$$\psi = \frac{1}{\sqrt{\pi}}\left (\frac{1}{a_{0}} \right )^{\frac{3}{2}}e^{-\frac{1}{a_{0}}r}$$
Since a₀ = 0.0529 nanometers, the above function can be plotted (See here). It yields a radial distribution around the nucleus. There is no "orbiting particle", just a wavefunction describing the probability that a particle may be found at a particular location.
...
Nuclei, atoms' centers, have combined spins and so axies. Electrons, normally paired, have combined axes and so spins. These must match their orbits. They then generate various forms of magnetism within orbiiti mostly mutually neutralized (like charge).
I have presented this in simple terms to allow readers to follow me but if I'm wrong and "ignorant", please show me (and our readers why) but leave out my mother...
Hi MarkM125.
I note your esponse to quarklet8's post re 'spin' etc. Thanks. I would also be very interested to hear your take on something else which quarklet8 touched upon in the second part of his relevant post. I have it quoted below.
My bolding and underlining of the bit I would be very interested in your comments about.
That is, I would like to hear your explanation of how do abstract things 'wave functions' and 'probabilities' and 'standing waves' generate the detected magnetic fields associated with the atoms in bar magnets etc?
Thanks, MarkM125 and quarklet8 for your polite and very interesting discussion.
Spin is an intrinsic form of angular momentum carried by particles. As any form of angular momentum will generate a magnetic dipole, so will spin. However, don't think of spin in terms of classical spin - the name is merely coincidental, due to the perceived similarity with classical spin. It's a quantum number that behaves like angular momentum.
Specifically, the solution to the Dirac equation, the equation describing fermionic fields, contains four components. Two can be readily identified - the particle and its anti-particle. The other two are then the opposite spin states.
In summary: the quantum mechanical description of spin is that it is an observable that can be described by a quantum number s, and that behaves like angular momentum. Why does it exist? Well, why do particles have charge, baryon number, color charge, weak hypercharge, etc.? The question doesn't have any physical answer (as of now) other than we simply know they exist because of experiment. The descriptions of them provided by current theory are accepted then because of the fact that predictions made by said theories agree with experimental data.
MarkM,
Thanks for insights. Yes, of course electrons are waves. This is because an electron wave is a particle and its" anti". But sub-particles have dual natures which include being particles. For magetism to occur, electrons must have "particle moments". But because of their usual mutual neutralization, their particle traits don't show...
While the original topic of this thread was "quarklets", or "quarks" within quarks", it has become a debate about whether or not particles even exist within the electron orbitus. This still goes on in physics. I think part of the problem is their reluctance to admit not only that quarklets exist but that they can. Once again, they seem to me real because colliders smashing electrons into each other have shown them to be made of two small, hard points. These must be the charges at their centers.