THE SINGLE MONAD MODEL · DUALITY OF TIME THEORY
Vacuum and cosmology
Vacuum states, cosmic expansion, dark sectors, horizons, and the origin of structure.
Read the agreements, the differences, the calculations, and the questions that move each comparison forward.
Worked examples
Related reading
Source references
Articles in this section
How to read the comparisons →- C061Vacuum and cosmology
Vacuum as generative substrate: SMM/DTT and quantum field theory vacuum
A physical vacuum already contains a state, observables and dynamical structure. Comparing SMM/DTT with quantum field theory vacuum, this article asks how one nonspatial source might generate those ingredients, uses a ground-state oscillator as a precise benchmark, and identifies the extra map required to turn source records into a spatial field vacuum.
Comparative article · 6 min read - C062Vacuum and cosmology
Vacuum as generative substrate: SMM/DTT and semiclassical gravity
A physical vacuum already contains a state, observables and dynamical structure. Comparing SMM/DTT with semiclassical gravity, this article asks how one nonspatial source might generate those ingredients, uses a ground-state oscillator as a precise benchmark, and identifies the extra map required to turn source records into a spatial field vacuum.
Comparative article · 6 min read - C063Vacuum and cosmology
Vacuum as generative substrate: SMM/DTT and ΛCDM cosmology
A physical vacuum already contains a state, observables and dynamical structure. Comparing SMM/DTT with ΛCDM cosmology, this article asks how one nonspatial source might generate those ingredients, uses a ground-state oscillator as a precise benchmark, and identifies the extra map required to turn source records into a spatial field vacuum.
Comparative article · 6 min read - C064Vacuum and cosmology
Vacuum as generative substrate: SMM/DTT and unimodular gravity
A physical vacuum already contains a state, observables and dynamical structure. Comparing SMM/DTT with unimodular gravity, this article asks how one nonspatial source might generate those ingredients, uses a ground-state oscillator as a precise benchmark, and identifies the extra map required to turn source records into a spatial field vacuum.
Comparative article · 6 min read - C065Vacuum and cosmology
Vacuum as generative substrate: SMM/DTT and inflationary cosmology
A physical vacuum already contains a state, observables and dynamical structure. Comparing SMM/DTT with inflationary cosmology, this article asks how one nonspatial source might generate those ingredients, uses a ground-state oscillator as a precise benchmark, and identifies the extra map required to turn source records into a spatial field vacuum.
Comparative article · 6 min read - C066Vacuum and cosmology
Vacuum as generative substrate: SMM/DTT and holographic cosmology
A physical vacuum already contains a state, observables and dynamical structure. Comparing SMM/DTT with holographic cosmology, this article asks how one nonspatial source might generate those ingredients, uses a ground-state oscillator as a precise benchmark, and identifies the extra map required to turn source records into a spatial field vacuum.
Comparative article · 6 min read - C067Vacuum and cosmology
Zero-point energy and vacuum fluctuations: SMM/DTT and quantum field theory vacuum
Vacuum fluctuations, boundary forces and absolute gravitational energy are related but distinct questions. This comparison with quantum field theory vacuum calculates the ideal Casimir pressure, explains what that force measures, and examines how a finite DTT source scale could acquire physical meaning without mistaking a regulator or an energy convention for a prediction.
Comparative article · 5 min read - C068Vacuum and cosmology
Zero-point energy and vacuum fluctuations: SMM/DTT and semiclassical gravity
Vacuum fluctuations, boundary forces and absolute gravitational energy are related but distinct questions. This comparison with semiclassical gravity calculates the ideal Casimir pressure, explains what that force measures, and examines how a finite DTT source scale could acquire physical meaning without mistaking a regulator or an energy convention for a prediction.
Comparative article · 6 min read - C069Vacuum and cosmology
Zero-point energy and vacuum fluctuations: SMM/DTT and ΛCDM cosmology
Vacuum fluctuations, boundary forces and absolute gravitational energy are related but distinct questions. This comparison with ΛCDM cosmology calculates the ideal Casimir pressure, explains what that force measures, and examines how a finite DTT source scale could acquire physical meaning without mistaking a regulator or an energy convention for a prediction.
Comparative article · 6 min read - C070Vacuum and cosmology
Zero-point energy and vacuum fluctuations: SMM/DTT and unimodular gravity
Vacuum fluctuations, boundary forces and absolute gravitational energy are related but distinct questions. This comparison with unimodular gravity calculates the ideal Casimir pressure, explains what that force measures, and examines how a finite DTT source scale could acquire physical meaning without mistaking a regulator or an energy convention for a prediction.
Comparative article · 6 min read - C071Vacuum and cosmology
Zero-point energy and vacuum fluctuations: SMM/DTT and inflationary cosmology
Vacuum fluctuations, boundary forces and absolute gravitational energy are related but distinct questions. This comparison with inflationary cosmology calculates the ideal Casimir pressure, explains what that force measures, and examines how a finite DTT source scale could acquire physical meaning without mistaking a regulator or an energy convention for a prediction.
Comparative article · 6 min read - C072Vacuum and cosmology
Zero-point energy and vacuum fluctuations: SMM/DTT and holographic cosmology
Vacuum fluctuations, boundary forces and absolute gravitational energy are related but distinct questions. This comparison with holographic cosmology calculates the ideal Casimir pressure, explains what that force measures, and examines how a finite DTT source scale could acquire physical meaning without mistaking a regulator or an energy convention for a prediction.
Comparative article · 6 min read - C073Vacuum and cosmology
Cosmological constant and vacuum offset: SMM/DTT and quantum field theory vacuum
Removing a common energy offset from normalized probabilities does not yet determine its gravitational effect. Comparing DTT with quantum field theory vacuum, this article derives the effective cosmological-constant combination, identifies the finite parameter that remains free, and shows what a source mechanism would need to fix for a stable physical explanation.
Comparative article · 5 min read - C074Vacuum and cosmology
Cosmological constant and vacuum offset: SMM/DTT and semiclassical gravity
Removing a common energy offset from normalized probabilities does not yet determine its gravitational effect. Comparing DTT with semiclassical gravity, this article derives the effective cosmological-constant combination, identifies the finite parameter that remains free, and shows what a source mechanism would need to fix for a stable physical explanation.
Comparative article · 5 min read - C075Vacuum and cosmology
Cosmological constant and vacuum offset: SMM/DTT and ΛCDM cosmology
Removing a common energy offset from normalized probabilities does not yet determine its gravitational effect. Comparing DTT with ΛCDM cosmology, this article derives the effective cosmological-constant combination, identifies the finite parameter that remains free, and shows what a source mechanism would need to fix for a stable physical explanation.
Comparative article · 5 min read - C076Vacuum and cosmology
Cosmological constant and vacuum offset: SMM/DTT and unimodular gravity
Removing a common energy offset from normalized probabilities does not yet determine its gravitational effect. Comparing DTT with unimodular gravity, this article derives the effective cosmological-constant combination, identifies the finite parameter that remains free, and shows what a source mechanism would need to fix for a stable physical explanation.
Comparative article · 5 min read - C077Vacuum and cosmology
Cosmological constant and vacuum offset: SMM/DTT and inflationary cosmology
Removing a common energy offset from normalized probabilities does not yet determine its gravitational effect. Comparing DTT with inflationary cosmology, this article derives the effective cosmological-constant combination, identifies the finite parameter that remains free, and shows what a source mechanism would need to fix for a stable physical explanation.
Comparative article · 6 min read - C078Vacuum and cosmology
Cosmological constant and vacuum offset: SMM/DTT and holographic cosmology
Removing a common energy offset from normalized probabilities does not yet determine its gravitational effect. Comparing DTT with holographic cosmology, this article derives the effective cosmological-constant combination, identifies the finite parameter that remains free, and shows what a source mechanism would need to fix for a stable physical explanation.
Comparative article · 6 min read - C079Vacuum and cosmology
Dark energy and accelerated expansion: SMM/DTT and quantum field theory vacuum
Continual generation does not by itself select the negative pressure that accelerates an expanding universe. This comparison with quantum field theory vacuum calculates an illustrative acceleration threshold and fluid evolution, then asks how a DTT source action could determine a conserved equation of state and connect it to independently observable cosmological structure.
Comparative article · 5 min read - C080Vacuum and cosmology
Dark energy and accelerated expansion: SMM/DTT and semiclassical gravity
Continual generation does not by itself select the negative pressure that accelerates an expanding universe. This comparison with semiclassical gravity calculates an illustrative acceleration threshold and fluid evolution, then asks how a DTT source action could determine a conserved equation of state and connect it to independently observable cosmological structure.
Comparative article · 5 min read - C081Vacuum and cosmology
Dark energy and accelerated expansion: SMM/DTT and ΛCDM cosmology
Continual generation does not by itself select the negative pressure that accelerates an expanding universe. This comparison with ΛCDM cosmology calculates an illustrative acceleration threshold and fluid evolution, then asks how a DTT source action could determine a conserved equation of state and connect it to independently observable cosmological structure.
Comparative article · 6 min read - C082Vacuum and cosmology
Dark energy and accelerated expansion: SMM/DTT and unimodular gravity
Continual generation does not by itself select the negative pressure that accelerates an expanding universe. This comparison with unimodular gravity calculates an illustrative acceleration threshold and fluid evolution, then asks how a DTT source action could determine a conserved equation of state and connect it to independently observable cosmological structure.
Comparative article · 5 min read - C083Vacuum and cosmology
Dark energy and accelerated expansion: SMM/DTT and inflationary cosmology
Continual generation does not by itself select the negative pressure that accelerates an expanding universe. This comparison with inflationary cosmology calculates an illustrative acceleration threshold and fluid evolution, then asks how a DTT source action could determine a conserved equation of state and connect it to independently observable cosmological structure.
Comparative article · 5 min read - C084Vacuum and cosmology
Dark energy and accelerated expansion: SMM/DTT and holographic cosmology
Continual generation does not by itself select the negative pressure that accelerates an expanding universe. This comparison with holographic cosmology calculates an illustrative acceleration threshold and fluid evolution, then asks how a DTT source action could determine a conserved equation of state and connect it to independently observable cosmological structure.
Comparative article · 6 min read
THE LARGER RESEARCH PROGRAMME
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Continue into the books, published papers, worked derivations, and articles that develop the SMM/DTT framework.