Kenneth Snelson

A ring-shaped current-loop magnet has a magnetic field like that of a single electron in a circular orbit.

Two current-loop magnetic fields will attract one another by their edges if they are antiparallel, i.e., with poles facing in opposite directions. If made to hinge, as a book is folded, they will still cling together even to the point of contact when they are face to face in parallel.

Simple experiments can be performed with circular permanent magnets to simulate current-loops. Two, three, four or five can attach to a central one in antiparallel. Six can fit around one, but they are not stable because this brings parallel fields into contact. One magnet is immediately expelled. These simple groupings can be used to find the spherical forms on the following page.

Snelson’s explanation for his magnetic structures: “In regard to the magnetic aspects of my model, it is often pointed out that the orbital magnetic field of the electron is puny — about 1/100th the strength of the electrostatic force, which would tend to push electrons away from one another. How, then, can such small magnetic fields urge them into proximity? What this over-looks is the atomic condition of electrons.

Yes, they repel one another, and would perhaps prefer not to be so close together within the atom. But it is their lot to be confined by the nuclear electrical field which, electrically, they ‘balance out’. They make the otherwise positive nuclear sphere an electrical `gray’; that is, neutral. Now, this in no way diminishes nor abates the magnetic forces.

These are no longer in a contest of strength with the repelling electrostatic forces. The nucleus has already forced the electrons to exist together. In this state, therefore, they must make the best of the situation and arrange their magnetic fields as economically as possible to conserve energy.”

The small arrows near the circles on the previous page indicate the directions the electrons would move in order to give rise to adjacent antiparallel magnetic fields they operate in counter-rotating directions like gears

Because these spherical forms have symmetry properties like polyhedra, with the planes of cubes and other geometrical shapes, they can form larger forms by joining at common magnetic faces. three such patterns are shown here.