If we understand the mechanism of the repulsion between particles may we can find smarter way to overcome. About two years ago I observed a rotating magnet, dipole revolving on the rotation plane repels another dipole magnet regardless its orientation. Despite being a simple phenomenon, it doesn't take place in textbooks, even in the literature, at least in a way that I can understand. Bound states that I obtained between magnets are based on this effect. On the other hand the mechanical version of the stability case (is known as Inverted Pendulum and is based to Mathieu/Hill's equation. In 1974, van der Heide discovered a magnetic counterpart of the inverted pendulum "Stabilization by oscillation", Philips tech. Rev. 34, 61-72, 1974, No. 2/3, although the demonstation involves quadrupolar magnet and can not be interpreted as bound state (article do not mentions too). Here is the video of the experiment https://youtu.be/ZofshixkMg4 , which I first observed the non-polar repulsion and gave the sign of possibility of levtation / bound state.
As the bound state obtained this way is mainly kinetic (rather than static), there are many way to disturb it, resulting in breaking it apart or collapse. Interestingly, kinetic energy of the system can be higher than the total kinetic energy of the unbounded components, a case expressed as positive binding energy. This condition arose when a resonance build up in some parts, and mostly destroy the stability but they are cases the bound state kept alive. In, now the abandoned idea of neutron as composite of p and e, its mass exceeds the total of p and e, suggests positive binding energy. May the instability/beta decay can be explained this way. Barut had theoreticized nuclear forces by magnetic/electromagnetic interactions, bound state of permanent magnets may fit in this if presence of rotational/oscillatory magnetic fields can be proved within nucleons. Looking to elastic p - e- and p - e+ scatterings, they are similar (by a brief examination), which can be expected if the interaction is in magnetic nature. From point of view of my scattering experiment, polarization of protons may have importance rather than electron (positron) polarization. It would be interesting to observe the difference of unpolarized and polarized electrons in different energies of the electron beam on scattering experiments. Enough speculations for now.
