QTT field notes · chronological archive
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A QTT field note on Media Made Science, Hawking radiation, Bekenstein entropy without a Hawking constructor, and why untestable fame is not physics.
A QTT field note on the observer, light, and why SR’s speed limit becomes a finite address-ledger question about ticking, records, and handshake.
Newton's second law and the thermodynamic Second Law share one finite-address ontology while reading distinct momentum, record, access, support, and source-volume ledgers.
QTT separates the A1/A7 completed-record arrow from A2 endurance support, A3 source-volume creation, and the clock/access map that controls local readout.
A field note on the smooth continuum as a human-invented universe, the patches it forces, and why QTT starts from finite capacity instead.
Maison Valmy, Zenodo, and a logo that quietly contains all seven axioms — five drawn directly into the geometry, two folded into the nature of the figure itself.
I asked an AI to put on a classical physicist’s glasses, land cold on my Kerr paper, and say how bizarre it looks. It found a cathedral built to house a doorknob — and it was right.
A pool in Mardavij, a pair of legs that looked too short, and the forty-year itch that turned into a Quantum Traction Theory derivation of the Kerr constant.
Why QTT’s cos(pi/8) clock-visibility factor is not a speed limit: accelerators test ordinary Lorentz kinematics, while the 7.6% factor appears only in true two-clock reference-switch readouts.
A tabletop QTT field note connecting the two-clock factor cos(pi/8), the pending Sagnac reference-switch, and Faraday/inverse-Faraday magneto-optic tests without overclaiming existing data.
The numbers in QTT aren’t chosen, they’re creases in one folded sheet – and here’s how I get my brilliant, lazy AI study partner to find every one in the book.
A flying silver screen, a PhD friend with a proper drill, and the muon g-2 result: the difference between a patch that holds 30 seconds and a structure that stands.
Assembling the QTT Hamiltonian from the pieces of the book: the laboratory operator as the access image of a deeper substrate ledger. Parameter-free.
Where does mass come from? The standard answer is a swimming pool. I think it is a clock, and the clock now gives numbers back.
QTT Legacy field note reviewed · 2026-05-05 · upgraded 2026-06-03 QTT recovers E = Mc² without Lorentz algebra, using c as a primitive carrier speed Reader map · Gravity and inertia Maps for this note Move from the note...
QTT Legacy field note reviewed · 2025-11-27 · upgraded 2026-06-03 How Quantum Traction Theory Shows Slowing Cosmic Acceleration and Explains the Hubble Tension Reader map · Creation ledger Maps for this note Route...
QTT Legacy field note reviewed · 2025-11-27 · upgraded 2026-06-03 Deriving E = mc² Without Relativity: The QTT Endurance Ledger Reader map · Gravity and inertia Maps for this note Move from the note into endurance...
QTT does not remove classical three-body chaos; it derives the Newtonian shadow from endurance current, fixes G from substrate units, and locates possible corrections.