Deriving detector capture, definite outcomes, Born weighting, entangled correlations, and stable records from physical dynamics.
Programme Overview
This program treats measurement as a real interaction between a coherent physical process, detector boundary conditions, the surrounding Graviton Mesh, and competing outcome basins. The objective is to recover exclusive outcomes and quantum statistics without inserting collapse as an independent law.
Immediate Milestone
Demonstrate complete winner-take-all localization in a field-level detector model without persistent fractional capture.
Active Objectives
Construct a complete detector interaction model.
Derive the preferred measurement basis.
Produce winner-take-all localization.
Derive Born-rule outcome frequencies.
Model entangled detector outcomes.
Recover Bell correlations without signaling.
Derive corridor fracture and causal relaxation.
Explain stable macroscopic records.
Evidence Trail
This ledger records the mathematical, computational, conceptual, and numerical work already completed within this programme.
Detector boundary conditions and outcome basins have been formulated.
A candidate Born-density route exists through the complex field and U(1) current.
Two-site localization has been numerically explored.
Shared-capture behavior has been documented.
A Bell-corridor architecture has been developed.
Post-measurement fracture and causal relaxation have been conceptually specified.
A sixteen-panel measurement and Bell evidence sequence has been designed.
Shared Mathematical Foundation
The master Lagrangian and baseline displacement, phase, interaction, and conservation equations are already established. The work on this page concerns solving, validating, extending, and testing their consequences in this specific physical sector.
Active Research
Successful derivations, failed simulations, replications, corrections, and falsifying evidence all belong in the evidence trail.
