AUTHOR
The author’s research programme: SMM and DTT
Follow the same question from its philosophical origin to a mathematical model.
From a common source to observable structure
The programme seeks to explain how a single generative source supports many distinguishable observations. The website organizes that task around models that make the source dynamics, retained records and physical measurements explicit.
Common source
States, update and retained memory.
Nested generation
Outer completion
An available record, with defined clock and measurement observables.
One source and memory
The starting point is an evolving source with retained information. The question is which records preserve enough structure to predict later observations.
Nested generation and spatial readout
Six nested generative roles can be organized into proposed spatial readouts. Their interpretation must be connected to distinguishable observations and stable relations.
Geometry and locality
A relation between records is not yet physical distance. A spatial model needs measurable comparisons and controlled propagation through its adjacency structure.
Complex phase and quantum structure
Compatible complex structures connect real dynamics with phase. The phase-selection papers supply mathematical results for specified representations and generators.
Clocks, cones and relativity
A physical clock, a distance readout and a limiting propagation rate need a common calibration if they are to support a relativistic interpretation.
Matter and hydrogen
A bound-state model provides a benchmark for connecting source response with observable energy, probability and speed. Hydrogen is a useful place to check those identifications.
Constants and the structural integer 137
Structural multiplicities, receiver modes and record counts motivate arithmetic constructions. A measured coupling also requires normalized dynamics and physical matching.
Temporal asymmetry and records
Eliminating inaccessible variables can produce memory in the retained dynamics. The temporal-asymmetry paper and its guide examine explicit examples of this relationship.
How to assess a proposed advance
- Identify the state space, update rule and retained memory.
- Define distance, clock readings, energy and other observables independently.
- Track which relations are proved and which are matching assumptions.
- Check stability, limiting behaviour and whether parameters are fixed or fitted.
- State an observable consequence and the conditions under which it holds.
Use the final course lesson as an evaluation guide · Consult the research claim map