The arrow of time
Develop the DTT account of temporal direction through nested generation, completed records, an exact relaxation example and an explicit entropy-production target.
Read the article →Single Monad Model · Duality of Time Theory
Major problems in physics and cosmology
Explore how the Single Monad Model and Duality of Time Theory approach the arrow of time, quantum phenomena, the formation of matter and the structure of the cosmos through a common generative origin.
A shared starting point: space and matter through temporal generation
The Duality of Time postulate proposes that each observable configuration results from chronological inner generation. What appears outwardly as an extended world is the completed relation among these operations; ordinary evolution compares successive completed configurations.
The six nested inner roles describe dependent stages of formation. A seventh outward completion makes their result available to physical observers. This gives the problems below a common starting point while allowing each to ask a different physical question.
The articles develop the programme introduced in Chapter III of Duality of Time, with its postulate developed in Chapter V. They connect the original proposals to worked examples, modern physical questions and the mathematical results that could make their consequences more precise.
Time, quantum physics and information
How chronological formation, coherent inner states and completed observations relate to time, causality and quantum correlations.
Causality
Develop causality as a consequence of SMM/DTT source dependencies, with a finite propagation example, a distinction between correlation and intervention, and a concrete locality target.
Read the article →Quantum interpretation and wave–particle duality
Develop the SMM/DTT interpretation of waves, particles and observation through coherent inner generation, an explicit interference calculation and physical detector records.
Read the article →Physical information
Expand the SMM/DTT information problem through retained memory, unitary correlations, finite-capacity reset costs and a precise black-hole information target.
Read the article →EPR and quantum nonlocality
Develop the SMM/DTT common-source account of entanglement through singlet correlations, an exact no-signalling calculation and an explicit Bell-test target.
Read the article →Space, relativity and unification
How a generated geometry could connect small-scale structure, gravity and the relative strengths of interactions.
The Planck scale
Develop the DTT proposal of scale-relative granularity through Planck units, a refinement example, operational dimension and the resource cost of increasingly fine records.
Read the article →Quantum gravity
Develop SMM/DTT quantum gravity through generated relations, discrete curvature, an effective gravitational action and common clock–matter response.
Read the article →The hierarchy problem
A source-sector approach to the separation of gravitational and electroweak scales, with an explicit calculation of protected weak coupling.
Read the article →Unification of fundamental interactions
How one source can generate several interaction channels, and how a local transport calculation gives that proposal a precise gauge-theory form.
Read the article →Matter and fundamental interactions
How the proposed formation of particles connects to masses, charges, confinement, hidden sectors and matter–antimatter imbalance.
Magnetic monopoles
Developing the SMM/DTT proposal that magnetic structure originates in temporal generation, with charge quantization, flux tests, and a precise distinction between source structure and a detectable monopole.
Read the article →Mass generation
An expanded SMM/DTT account of mass as a response of coherently generated structures, with an explicit two-channel dispersion model and connections to Higgs physics and composite mass.
Read the article →Neutrino masses
Developing the original SMM/DTT open-chain proposal into a spectral model of neutrino masses, mixing and coherence, with an explicit path-graph example and experimental targets.
Read the article →Color confinement
The SMM/DTT account of confined lower-dimensional constituents, developed through gauge-neutral completion, flux energy and Wilson-loop tests.
Read the article →Yang–Mills theory and the mass gap
How the SMM/DTT intuition of minimum coupled formation can be developed into a gauge-invariant spectral problem, with finite-size tests and a clear continuum construction target.
Read the article →Baryon asymmetry
A quantitative development of the SMM/DTT dual-sector interpretation of matter and antimatter, with visible baryon number, coherent selection, production and washout.
Read the article →Supersymmetry
Developing the SMM/DTT proposal of complementary bosonic and fermionic sectors through a precise graded Hamiltonian, physical spin requirements and observable partner couplings.
Read the article →Cosmology and the structured vacuum
How a common generative origin and the properties of the vacuum could shape homogeneity, expansion and the cosmic matter–energy budget.
Homogeneity and the horizon problem
How common inner generation can coordinate an outward universe, and how to calculate the resulting cosmic correlations.
Read the article →Cosmic inflation
Connecting repeated inner formation with a measurable expansion history, primordial fluctuations and the end of an early accelerated phase.
Read the article →Dark matter
The original (c,0) proposal developed through a concrete collective-mode example that can cluster and carry nearly pressureless energy.
Read the article →Dark energy
Developing the original (0,c) proposal into a conserved smooth component, with a worked negative-pressure mechanism and observable expansion history.
Read the article →The cosmological constant
The Single Monad proposal to average source states, developed through an explicit energy normalization and the distinction between vacuum shifts and observable excitation energy.
Read the article →Further investigations
Extend the central questions into the emergence of definite records, black-hole information, relativistic symmetry, dimensionality and experimentally distinguishable predictions.
Quantum measurement
Develop an operational DTT measurement programme using completion flags, quantum instruments, pointer stability, outcome probabilities and a measurable memory-dependent test.
Read the article →Black-hole information
A new SMM/DTT research route to black-hole information, separating coarse-grained loss from quantum unitarity and giving an explicit isometric completion model with a Page-shaped entropy example.
Read the article →Lorentz symmetry
An explicit split-complex boost, a common propagation cone and a worked discrete-mode calculation connect inner generation with relativistic observations.
Read the article →Why three spatial dimensions?
Connect the six nested generative roles of SMM/DTT to three observable directions, stable locality and independently measurable dimensional scaling.
Read the article →Testable predictions
Develop SMM/DTT experiments through independently calibrated clocks, complete quantum records, reserved spectroscopy data and a common source model.
Read the article →Eight connected mathematical research targets
These longer guides develop the source mechanisms and quantitative relations shared by several physical problems. Each states a target, examines exact examples and proposes a calculation that would advance the programme.
See how the physical questions connect to these targets →
One source for geometry, clocks and matter
Define the central SMM/DTT source problem: one autonomous update that constrains independently measured geometry, clock readings and propagation.
Read the article →Selecting and preserving spatial locality
Stable locality requires a dynamical propagation bound, a persistent neighbourhood structure, and a justified connection to physical distance.
Read the article →Why material clocks should share one law
Use the protected-clock theorem and its countermodel to define a source-derived, stable and operationally universal DTT clock law.
Read the article →Phase, composition and quantum completion
Extend real-dynamical phase selection into a source-derived rule for composing systems, retaining joint coherence and producing completed records.
Read the article →Deriving a normalized physical coupling
Specify the missing response-normalization theorem between the structural 137 receiver and a physically identified SMM/DTT electromagnetic coupling.
Read the article →A source-derived spectrum of matter
Define a common SMM/DTT spectral problem for stable carriers, mass, spin, charge and dispersion, with an exact finite-walk diagnostic.
Read the article →A gravitational limit of temporal generation
Formulate the source-to-gravity problem through geometric response, universal matter coupling, a weak-field example and controlled limiting equations.
Read the article →Selecting the gravitating vacuum contribution
Identify what a DTT vacuum mechanism must calculate beyond normalized response, with exact offset, averaging and relaxation tests.
Read the article →Choose your next step
Follow a reading path
Routes for first-time readers, physicists, mathematicians, philosophers and experimental researchers.
Find the connecting calculation
Trace each physical problem to a source mechanism, a mathematical target and an observable consequence.
Read the books and papers
Connect the original book programme to published mathematical papers, preprints and subject-specific primary research.
Help develop the next result.
I welcome collaboration with experts in physics, mathematics and philosophy, including joint research, mathematical review, constructive criticism and proposed experiments.