Two Universes
Artian’s Universe is the universe we live in. The Human-Invented Universe lives in the equations of modern physics, where it describes laboratory shadows of Artian’s Universe, with a lot of duct-tape, very well. This page keeps the two ontologies side by side: source side beside laboratory readout, so the universe itself is not confused with the continuum model used to measure it.
Linked terms jump to exact Lexicon entries, so this page can be read as a high-level ontology map and as a reference index.
The universe humans invented and forgot they did
A narrative companion to this comparison ledger: why the smooth-continuum world is useful as laboratory readout, why QTT refuses to mistake it for source ontology, and where the duct-tape language belongs.
How to read this ledger
This page is not anti-math
Same equations, different physics
Source to readout
The no-relabeling test
Derived inside the QTT source ledger.
Closed at source-equation level, with readout routes declared separately.
The laboratory projection relation is closed.
Checked against data without retuning.
Depends on a declared upstream rail.
A named gate remains open.
Plausible but not yet closed.
A live observational divergence is named.
A theorem, exact identity, or mandatory divergence carries structural weight.
An ontology/readout distinction, not a closure claim.
The Stage
What each universe stands on.
Dimensions
What space is
A point
Existence
The vacuum
The observer
“Now”
Substrate honesty
Geometry — Artian vs Euclidean / Riemannian / Hilbert / Minkowski
Dividing, packing, metric curvature, state space, and spacetime readout.
Dividing a line
A line segment
LOAD-BEARINGFilling space with perfect spheres
The number 24
Smallest length
Smallest area / volume
Angles
Curvature
Infinity
LOAD-BEARINGLegal circle patch
LOAD-BEARINGLegal sphere member
The comparison is not only Artian versus Euclidean. The human-invented side also uses Riemannian geometry for gravity, Hilbert geometry for quantum states, and Minkowski geometry for relativistic spacetime. QTT keeps each as a valid readout language only after the source address ledger, access map, and finite capacity window have been named.
Geometry status
Euclidean readout
Riemannian readout
Hilbert readout
Minkowski readout
Time and Clocks
A spine with declared projections vs one coordinate.
Time
Clock disagreement
Age of the universe
LOAD-BEARINGThe Hubble tension
Simultaneity
Wick rotation
LOAD-BEARINGArrow of time
LOAD-BEARINGArtian Time Framework
LOAD-BEARINGQuantized Now
Now_R(T_n) = {X in R : X in M(w_n)}, T_w(X)=T_a(X), and dT_w = t_tilde dn. It is a completed reality-address tick, not an infinitely thin smooth slice.LOAD-BEARINGNo-past-rewrite boundary
Delta t_A - Delta t_B = int_gammaA C_T[gamma_A] dT - int_gammaB C_T[gamma_B] dT.LOAD-BEARINGHigh-regime twin theorem
gamma=infinity, v=c, and infinitely smooth paths as non-source objects.LOAD-BEARINGLocal clock slowing
LOAD-BEARINGProper-time metric shadow
d tau_QTT = exp(-E_A2) sqrt(1-v^2/c^2) dT, with d tau_QTT^2 = -(1/c^2) g_mu_nu^QTT dx^mu dx^nu as the metric shadow. Full field dynamics still belong to the G/endurance sector.Quantum Mechanics
Theorems vs postulates.
LOAD-BEARINGThe imaginary unit i
ℏ
h = 2πℏ
Superposition
Entanglement
A pure particle
Quantization rules
Uncertainty
Wigner's friend
LOAD-BEARINGWave equation as shadow
[theta_J(n+1,m)-2theta_J(n,m)+theta_J(n-1,m)]/t_tilde^2 = (c_QTT^2/ell_tilde^2) Delta_ell theta_J(n,m), with c_QTT = ell_tilde/t_tilde. The wave is what this finite address tick looks like after a smooth access window reads it.partial_T^2 theta_J - c_QTT^2 nabla^2 theta_J = 0 on a smooth field. QTT keeps that equation only in its legal access regime k ell_tilde << 1 and omega t_tilde << 1; the exact source stencil is even in k and omega, so a robust linear Planck-scale vacuum-dispersion term would falsify this rail.Forces and the Standard Model
Rails vs knobs.
Free parameters
Fermion masses
Top mass
Higgs vev 246 GeV
The Higgs
CKM mixing
Neutrino masses
Confinement
Renormalization
Landau pole
Hierarchy problem
Gauge symmetry
Gravity
Bookkeeping of a ledger vs curvature of an arena.
G
What gravity is
Singularities
Quantum gravity
The graviton
Black-hole information
LOAD-BEARINGEinstein field equation
G_mu_nu + Lambda_A3 g_mu_nu = (8*pi G_A/c^4) T_mu_nu^A2, with G_A = ell_tilde^2 c^3/hbar. The source object is finite support current, not primitive smooth curvature.LOAD-BEARINGFinite-address gravity correction
lambda=(M/m_tilde)(Delta T/t_tilde)A/(4*pi r^2) and Var(g_hat)/|E g_hat|^2 = 1/lambda, plus causal shell turn-on Theta(k-n).LOAD-BEARINGBlack-hole core
LOAD-BEARINGNo infinite singularity
The Dark Sector and Cosmology
One renewal budget vs two unrelated patches.
Dark matter
LOAD-BEARINGa₀ ≈ 1.2×10−10
Why a₀ ~ cH₀
The Bullet Cluster
Cluster lensing
Dark energy
LOAD-BEARINGTwo dark mysteries
Expansion
LOAD-BEARINGTully–Fisher zero point
The cosmic dipole
Anomalies
Heat, Entropy, Information
Counting vs interpretation.
kB
Second law
Information
LOAD-BEARINGSecond-law source
Measurement records
LOAD-BEARINGModular charge
h as minting fee
LOAD-BEARINGInformation grammar
The Mathematical Machinery
The continuum demoted, not deleted.