Reading path
Every new physical framework should first be judged by its mathematical consistency, its agreement with established experiment, and its willingness to make testable predictions. This reading path is designed to help physicists evaluate PDT using those same principles.
A reading path for physicists
Phase Differential Theory proposes phase differential (ΔΦ) as the fundamental relational quantity from which geometry, matter, interactions, and observable physical behaviour emerge.
The research programme investigates whether established physics, including quantum mechanics, general relativity, thermodynamics, classical mechanics, and cosmology, can be recovered as effective descriptions while providing a common underlying physical interpretation.
The framework is presented as an open scientific research programme. Every major proposal is accompanied by mathematical development, experimental discussion where appropriate, explicit assumptions, and clearly identified opportunities for independent testing and falsification.
Begin with the proposed primitive, the foundational axioms, and the relational geometry on which the framework is built.
You'll come away withA clear understanding of the assumptions from which the rest of PDT is developed.
Review the mathematical construction of the theory, including phase dynamics, geometry, conservation principles, and emergent physical structure.
You'll come away withAn understanding of the mathematical framework and the assumptions that deserve the closest scrutiny.
Evaluate how PDT seeks to recover quantum mechanics, general relativity, thermodynamics, and classical physics as effective descriptions while proposing a different underlying interpretation.
You'll come away withA clear picture of where PDT agrees with established physics and where it proposes new explanatory ideas.
Review the published experimental programme, measurable predictions, and explicit falsifiability criteria.
You'll come away withAn understanding of how the framework can be tested, challenged, refined, or rejected.
Explore the wider research programme, including matter formation, gravity, cosmology, physical constants, Yang to Mills, Navier to Stokes, black holes, software, simulations, experiments, quantum computing, artificial intelligence, and applied technologies.
You'll come away withA complete overview of the current state of the PDT research programme together with its open questions and future directions.
Suggested areas for independent evaluation
Review the assumptions, derivations, and internal consistency of the mathematical framework.
Assess whether PDT successfully reproduces experimentally verified physics within the domains where existing theories have been tested.
Compare the published predictions with current and future experimental measurements.
Review the mathematical, computational, and experimental questions that remain under active investigation.
Research updates
Receive occasional updates when new research papers, mathematical developments, experimental proposals, software releases, simulations, or significant revisions to the Phase Differential Theory research programme are published. No marketing. No routine newsletters. Only substantive research updates.
