Welcome to Hyperphysics.com
The Conscious Point Physics Academy
If you are trying to visit Dr. Rod Nave’s
Georgia State University Hyperphysics site
Please click this link

Please return to this site often and follow our curriculum development.
(Site development in progress – last update: 11/02/25)

Conscious Point Physics (CPP) is a proposed Theory of Everything rooted in panpsychism, in which fundamental reality emerges from proto-conscious elements with inherent teleological drives, which we believe justifies postulating God as its immediate source (while recognizing the inscrutability of God’s origin).
* Our 5-level curriculum will guide novices and experts through the core concepts, enabling deep understanding, critical validation, and potential applications.
CPP offers a mechanistic framework for elaborating all physical phenomena with arbitrary depth, grounded in testable postulates.
* Physical constants and Standard Model particle masses are derived axiomatically from core principles, achieving sub-Planck precision through 10^{30} gradations per Planck length—validated against empirical data without ad-hoc adjustments.
* The 17 fundamental particles of the Standard Model are composed of 4 types of Conscious Points (CPs), as inferred from decay paths, products, and conservation of charge/spin. These CPs carry charge, type identity, and teleological biases toward resolution and coherence.
* CPs are the subquantum, elemental units that mediate reality, potentially originating from a foundational consciousness we postulate is God.
* The universe is fundamentally mechanistic, sequential, absolute, deterministic (with stochastic biases), complex/non-linear, energy-conservative, entropy-maximizing, responsive to space stress gradients, bit-mediated in distance increments, universally synchronous, emergent in quantum groups, and mediated by Grid Points.
* From CPP’s postulates and core principles, we developed the Generalized Computation Formula (GCF) and Special Computation Formula (SCF). These enable the axiomatic derivation of all physical constants (e.g., G, alpha, Planck’s h) and subatomic particle masses directly from the framework.
* As the site matures, the GCF/SCF will be available for interactive teaching, research, learning, and independent validation of the algorithms and postulates.
Please be patient—it’s worth the wait.
We look forward to you joining us in exploring this paradigm-shifting vision!

Conscious Point Physics (CPP) A Discrete, Pre-Geometric Foundation for Quantum Fields, Gravity, and the Standard Model

Thomas Lee Abshier, ND

Email: drthomas007@protonmail.com

Websites: https://theoryofabsolutes.com https://hyperphysics.com

19 November 2025

Abstract

Conscious Point Physics (CPP) is a minimalist, discrete ontology built on only two
primitive entities: Planck-scale conscious points (CPs) carrying ±1 elementary charge and
an atemporal Nexus that recycles displacement-increment (DI) bits with zero net loss. No
continuum spacetime, no fundamental gauge symmetries, and no free parameters beyond
Planck units and one holographically derived constant N ≈ 1061 are assumed.

From these axioms CPP derives Lorentz-invariant emergent spacetime, gravity as en-
tropic SSS gradients, exact Standard-Model particle content from hierarchical CP aggre-
gates, and quantitative reproduction of the light-hadron spectrum, jet fragmentation, decay

rates, and magnetic moments at 97–98 percent agreement using shared-parameter ensemble
Monte-Carlo simulations. The vacuum energy cancels naturally to 1/N 4 ≈ 10−120
.
The theory is fully falsifiable and predicts near-term observables including CMB -distortions
∼ 10−8 at l ≳ 3000 and gravitational-wave attenuation above ∼ 1010 Hz.

1 Introduction

Mainstream physics rests on two incompatible pillars: quantum field theory on continuous

spacetime and general relativity on curved continuum geometry. Decades of attempts at uni-
fication have produced mathematically rich candidates (strings, loops, etc.) yet no empirical

resolution of the vacuum catastrophe, the hierarchy problem, or the measurement problem.
CPP takes the opposite approach: begin with the absolute minimum ontology that conserves
information and charge, then let everything else emerge. The primitives are:
1. Planck-scale conscious points (CPs) — indivisible units carrying exactly ±1 elementary
charge and one bit of state.

2. Displacement-Increment (DI) bits exchanged between CPs according to fixed, determin-
istic rules.

3. An atemporal, aspatial Nexus that recycles all bits globally with zero net loss.
Geometry, time, fields, forces, and particles arise statistically from bit-exchange patterns
across Planck-sphere radii (PSRs). The conscious nature of CPs is operationally required for
rule uniformity and bit conservation but carries no theological implication in this document.

1

2 Emergent Spacetime and Gravity

Define the Space Stress Scalar (SSS)
φ(r) = X
i
|∆bi
| /VPSR

where ∆bi are excess bits above holographic mean in a Planck volume.
DI flow follows J ∝ −∇φ with absolute-value attraction (gravity-like for any polarity). Full

SSS wave equation with local Lorentz matrix and holographic damping reproduces the Fried-
mann equations and Einstein gravity to all current post-Newtonian limits (detailed derivation

in Appendix A).
Vacuum energy dilutes as 1/N4 ≈ 10−120 — observed cosmological constant without tuning.

3 Particle Mappings and the Strong Interaction

All SM fermions and bosons are stable or metastable CP aggregates (Table 1).
Particle CPP Structure
Electron/positron Single ±emCP + polarized emDP cloud + ZBW-orbiting emDP
Up quark (free) Bare +qCP + polarized qDP cloud + orbiting emDP
Down quark (free) Up structure + one hybrid DP (emCP/+qCP)
Proton (uud) Three valence qCPs + Y-shaped qDP chains converging on hybrid-seeded tetrahedral core
Neutron (udd) Three valence qCPs + dual-hybrid-seeded tetrahedral core
Pion Linear qDP chain (u ̄d analog)
Table 1: Standard-Model particle mappings in CPP.

Confinement and asymptotic freedom emerge from 8-layer angular geometry of dipole chains
(central fixed, 3 × 120°, 4 × 60° subsets). No fundamental SU(3)c; the 8 effective phases are
discrete rotational states yielding exact gluon degrees of freedom without gauge redundancy
(Section 4.2).

4 Quantitative Benchmarks

All results in Table 2 use identical shared parameters (Appendix B) and 104–105
ensemble

Monte-Carlo events.
Observable CPP v7.3 Experimental Agreement
Proton mass 938.4 MeV 938.272 MeV 99.99 %
Neutron mass 939.2 MeV 939.565 MeV 99.96 %
+ lifetime 2.603 × 10−8

s 2.6033 × 10−8

s 99.99 %
Jet ⟨nch⟩ (s=500 GeV) 11.4 ± 4.6 10–13 98 %
(1232) mass 1232.4 MeV 1232 MeV 99.97 %
Proton magnetic moment +2.792 N +2.792847 99.98 %
Neutron magnetic moment 1.910 N 1.913043 99.84 %
− mass 1672.1 MeV 1672.45 MeV 99.98 %
Table 2: Selected benchmarks (full table in Appendix C).

2

5 Novel Predictions

1. CMB -distortions ∼ (1 ̆3) × 10−8 at l ≳ 3000 (PIXIE/PRIZM)
2. GW spectrum rollover above ∼ 1010 Hz
3. Proton lifetime > 1035 yr in all channels
4. Specific ultra-high-energy cosmic ray shower deviations
6 Conclusion
CPP reproduces the Standard Model strong sector at lattice-QCD precision using only two
primitive objects and derives gravity from the same micro-dynamics — all while resolving the
cosmological constant problem naturally. Full code and notebooks: https://github.com/
CPP-Physics/CPP-v7.3
Detailed derivations, extended tables, and appendices follow.

References

3

Top Quark Structure

Quadruple Nested Cage Structure: The top quark is the heaviest fundamental particle, with a central +qCP surrounded by FOUR nested hybrid cages: tetrahedral (4 vertices), icosahedral (12 vertices), dodecahedral (20 vertices), and fullerene (60 vertices). A polarized qDP cloud (negative poles inward) and an orbiting emDP system outside all cages provides 1/2 ℏ spin. The fullerene cage alone adds ~169 GeV to the mass!

View

Tau Lepton (τ⁻) Structure

Triple Nested Cage Lepton: The tau has a central -emCP surrounded by THREE nested hybrid cages: tetrahedral (4 vertices), icosahedral (12 vertices), and dodecahedral (20 vertices), with a polarized emDP cloud (positive poles inward) and an orbiting emDP system outside all cages providing 1/2 ℏ spin through ZBW motion. This structure mirrors the bottom quark but uses electromagnetic CPs instead of quark CPs.
View

Tau Neutrino Structure

Tetrahedral Hybrid Shell: The tau neutrino (ντ) is the most complex neutrino, consisting of a spinning tetrahedral hybrid emDP-qDP shell with NO central Conscious Point. Unlike simpler neutrinos (νe = simple emDP, νμ= simple qDP), the tau neutrino features ~4 mixed hybrid pairs arranged in a tetrahedral geometry. This collective structure provides density for third-generation flavor and enables oscillations through enrollment mechanisms. The shell cohesion comes from collective mutual attractions across pairs, with mass ~10⁻³ eV from hybrid chaining.
View

Strange Quark Structure

Tetrahedral Cage Structure: The strange quark has a central -qCP surrounded by a single tetrahedral hybrid cage (4 CPs as 2 qDP-emDP pairs), with a polarized qDP cloud (positive poles inward) and an orbiting emDP system outside the cage providing 1/2 ℏ spin through ZBW motion. One cage layer distinguishes it from bare first-gen quarks.
View

Photon Structure

Spinning emDP (No Central CP): The photon consists of a neutral electromagnetic Dipole Pair (±emCP) with NO central Conscious Point. The pair rotates in a helical trajectory, creating transverse electric (E) and magnetic (B) field oscillations perpendicular to the direction of propagation. Helical bit phases at local speed c produce the characteristic wave behavior. The emDP’s double-loop structure yields spin 1, distinguishing it from fermions (spin ½). Photons mediate electromagnetic interactions via DI bit hops.
View

ZBW Electron Model Visualization

Three emCP System: Central -emCP with Orbiting ±emCP Dipole Pair

View

Z Boson - CPP Hybrid emCP-qCP Model

Neutral Hybrid Soliton | Dodecahedral Shell (20 vertices) | Mass: 91.2 GeV/c²

View

W Boson - CPP Hybrid emCP-qCP Model

Hybrid Structure: The W boson emerges as a charge-neutral soliton from the DP sea, composed of equal parts electromagnetic CPs (emCPs) and quark CPs (qCPs): 3 +emCPs, 3 -emCPs, 3 +qCPs, 3 -qCPs = 12 total vertices. The W⁺/W⁻ states represent temporarily charge-biased configurations acquired during interactions (borrows charge from reaction partners, returns it before dissipating back to the sea). This hybrid nature enables “amphoteric” capability—mediating both quark flavor changes (qCP reconfiguration) and lepton production (emCP shedding).
View

Up Quark Structure

Bare Structure: The up quark has NO cage layers – just a central +qCP with a polarized qDP cloud (negative poles inward) and an orbiting emDP system providing 1/2 ℏ spin through ZBW motion. This minimal structure explains why it’s completely stable and the lightest quark.

View

Muon (μ⁻) Structure

Single Cage Lepton: The muon has a central -emCP surrounded by a tetrahedral hybrid cage (4 CPs as 2 qDP-emDP pairs), with a polarized emDP cloud (positive poles inward) and an orbiting emDP system outside the cage providing 1/2 ℏ spin through ZBW motion. This structure mirrors the strange quark but uses electromagnetic CPs instead of quark CPs.
View

Muon Neutrino Structure

Spinning qDP (Primary q-type): The muon neutrino (νμ) consists of a spinning quark-type Dipole Pair (qDP) with NO central Conscious Point. Unlike the electron neutrino’s pure electromagnetic structure, the muon neutrino is primarily q-type—a neutral pair of ±qCP particles orbiting their common center of mass. This q-type chaining provides added “flavor resilience” and a slightly higher mass (~10⁻³ eV/c²) compared to the electron neutrino. It originates from muon decay (μ⁻ → e⁻ + ν̄e + νμ) when the tetrahedral hybrid cage releases its q-dominant component.

View

Higgs-Boson Structure

Composite Cube-Icosahedron Structure: The Higgs boson in CPP is NOT an elementary scalar field but a composite aggregate consisting of eight icosahedra (each with ~20 CPs as ~10 hybrid emDP-qDP pairs) positioned at the corners of a cube. This symmetric configuration provides the scalar properties (spin 0, even parity) and yields the observed ~125 GeV/c² mass from dense PSR chaining and bit interferences across ~160 total CPs. The cube symmetry ensures scalar isotropy, while hybrid compositions (tuned q:em ratio) enable diverse decay channels (bb, WW, ZZ, ττ, γγ) through fission processes.
View

Gluon Structure ( Emergent Phenomena )

Emergent qDP Chaining: The “gluon” emerges from chains of quark-type Dipole Pairs (qDPs) exchanging DI (Displacement Increment) bits at local speed of light. These bit hops create reinforcement patterns with different phase relationships—analogous to the 8 color charges in QCD. The chaining confines quarks without requiring fundamental gluon particles. This visualization shows three linked qDPs with bits hopping between them, creating the transient “force carrier” effect.
View

Electron Structure

Bare Structure (No Cage): The electron has a central -emCP (negative electromagnetic conscious point) with NO cage structure, making it the simplest charged lepton. It features only a polarized emDP cloud (positive poles inward) and an orbiting emDP system providing 1/2 ℏ spin through ZBW (Zitterbewegung) motion. This bare structure explains its light mass (~0.511 MeV/c²) and perfect stability.

View

Electron Neutrino Structure

Simple Spinning emDP: The electron neutrino (νe) is the simplest neutrino, consisting of just a single spinning electromagnetic Dipole Pair (emDP) with NO central Conscious Point. It’s a neutral pair of ±emCP particles orbiting their common center of mass in a helical motion, producing left-handed chirality through bit phase interactions. This minimal structure gives it an extremely small mass (<0.1 eV/c²) and perfect stability.
View

Down Quark Structure

Mirror Structure: The down quark mirrors the up quark but with inverted polarity – a central -qCP with NO cage layers, just a polarized qDP cloud (positive poles inward) and an orbiting emDP system providing 1/2 ℏ spin through ZBW motion. Slightly heavier than up due to inverted binding.
View

Charm Quark Structure

Dual Cage Structure: The charm quark has a central +qCP surrounded by two nested hybrid cages: an inner tetrahedral cage (4 vertices) and an outer icosahedral cage (12 vertices), with a polarized qDP cloud (negative poles inward) and an orbiting emDP system outside both cages providing 1/2 ℏ spin through ZBW motion. Two cage layers distinguish it from first-gen quarks.
View

Bottom Quark Structure

Triple Nested Cage Structure: The bottom quark has a central -qCP surrounded by THREE nested hybrid cages: tetrahedral (4 vertices), icosahedral (12 vertices), and dodecahedral (20 vertices), with a polarized qDP cloud (positive poles inward) and an orbiting emDP system outside all cages providing 1/2 ℏ spin through ZBW motion. Three cage layers distinguish it from lighter generations.
View