In progress
3.1 · GAM Rebuilt
The governor atom on composite particles rather than indivisible spheres. What changes, what survives, and the assumptions the original paper carried that this series has overturned.
In progressTOE — Part 3
The Governor Atom Model, rebuilt on the lattice rather than standing alone.
All memos in this series are working drafts. Part 3 is GAM, reconstructed on Parts 1 and 2. The original paper assumed particles were indivisible spheres; here they are structures in the medium, which changes what the governor is made of without changing what it does. The memos divide into mechanisms — how the machine works — and properties, meaning what comes out of it and can be checked against measurement. Spectra depend on electromagnetism and so point forward to Part 4.
The governor atom on composite particles rather than indivisible spheres. What changes, what survives, and the assumptions the original paper carried that this series has overturned.
In progressThe regulating mechanism itself — what opens the orbit when energy goes in and closes it when energy comes out, and why the atom is a machine with a feedback loop rather than a static arrangement.
In progressWhy the proton count sets the geometry, how the planes incline, and the rule that gives orbit number from atomic number — including where that rule currently contradicts itself.
Open problemWhy the shell expands as the square of the level, why binding falls the same way, and why a hydrogen atom at level 100 is half a micron across. Rydberg states are the measured case.
Ready to writeThe objection that killed every classical atom: an orbiting point charge radiates its energy away in 10−11 seconds. A steady current ring does not radiate at all, and that is what makes the atom a lossless machine.
Ready to writeWhere the atom’s magnetism comes from — circulating charge, bulk rotation, and the precession that removes what should not appear.
In progressAn excited atom cannot be larger than the room it has. The Inglis–Teller limit sets a maximum level that falls with pressure, and it is why Rydberg work needs ultra-high vacuum.
Ready to writeKey and lock. Bond angles from geometry, the dynamic opening when a second atom arrives, and the measured angles the mechanism has to reproduce.
In progressThe weak attraction between neutral atoms, as envelope distortion rather than as a separate force.
In progressWhat the model predicts for atomic size, where it underestimates measured radii, and why the discrepancy is stated rather than absorbed.
In progressValence, shell filling and periodicity from orbit count. The strongest structural claim available, and the one most easily checked against the first twenty elements.
Open problemOdd atomic number gives an unpaired orbit and a net moment; even gives cancellation. The result follows from geometry rather than being fitted.
Ready to writeEmission and absorption lines, and the open question of how a continuous medium delivers energy in discrete lumps.
Open problemWhy some neutron counts hold and others do not, the even–odd preference, and the stability rules the model must reproduce.
In progressA like-for-like comparison: what each account explains, what each assumes, and where they make different predictions.
In progressEvery memo carries a ledger at its foot — what is derived, what is measured, what is assumed, what remains open, and who reached it first. Claims can be audited where they are made.