What Dark Matter Actually Is

An Introduction to Conscious Point Physics

by Thomas Lee Abshier, ND
6/11/2026

Joelle, this is the conversation we had, written down so you can read it at your own pace, go back over the parts that didn’t land the first time, and have something to hand to the next person who asks. I’m going to walk you through it the same way I did on the phone — from the ground up, no physics background assumed — and this time I’ll finish the part we didn’t get to before your call came in.

By the end, you’ll understand what dark matter is. Not “what we think it might be.” What it is. And you’ll understand why that matters in life beyond physics.

Why I’m telling you this

You know my story: I came to Jesus because of the physics. The conventional intelligent design arguments — fine-tuning, irreducible complexity, the improbability of it all — those are good arguments. I respect them. But they’re conventional, and they haven’t convinced the world’s masses. They argue that there must be a Designer, but they don’t show you the Designer’s hands actually doing the work, moment by moment. It’s a good enough story for believers to strengthen their faith. And some unbelievers, Lee Strobel comes to mind, are moved by this. Often, the committed materialists, the more science-oriented skeptics, and secular atheists believe the questions of existence and evolution can be answered by evolution and relativity.

Conscious Point Physics, CPP, is a theory of physics that came to me gradually over the years since a profound March 1987 high-dose oral cannabis altered state experience. The fundamental insight from the trip was the realization that the universe was composed of points of consciousness originating in the mind of God. These Conscious Points followed the rules He declared in their relationship with each other. The particles moved a certain amount depending on the type of particle and the distance between them. From this simple insight, we derive the behaviors and phenomena that physics observes: particles, forces, and gravity, and it predicts the composition of the spherical halos surrounding galaxies that we call dark matter.

Dark matter is a perfect entry point for being convinced that the universe we perceive as physical reality is composed of Conscious Points. It will be the perfect object lesson, illustrating that matter and energy are manifestations of consciousness’s ability to see itself. It is this insight that begs the question of where the Conscious Point comes from. It comes from the mind of God looking back at itself.

The current state of science is that nobody knows what dark matter is. You’re not a physicist, and you’ve heard of it. It’s a public debate, and it’s a scientific mystery. Scientists have many different ideas about what it might be, but all of them fail. One week it is this theory, and next week it will be another. There is no candidate that meets the criterion of how Dark Matter behaves. It’s all theoretical. It is one of the great open mysteries of physics: we can see its gravitational effects everywhere — galaxies spin too fast, light bends too much, the universe is structured like a giant web — but no one has ever caught a particle of it, and no one can say what it’s made of.

CPP says exactly what it’s made of. And the answer falls out of the theory that explains what particles are, what energy is, why light is both a particle and a wave, and why particles are both waves and particles. It explains what gravity and magnetism are. It explains how particles can turn into photons, and how photons can turn into matter. I didn’t go hunting for a dark matter explanation; it just became obvious when I was writing the intelligent design essay I prepared a couple of weeks ago. CPP explains the Big Bang, the expanding universe, the first few moments of the universe, and now, apparently, Dark Matter. It’s just a natural extension of how the universe formed. looked at what I’d just written about how quark Conscious Points interacted with each other and realized: that’s dark matter. Grok had suggested this a year earlier, but I had not pursued deriving it. When I realized how quark DPs interacted, I realized this could be the missing piece in terms of bringing scientists to believe that God exists, and a scientific discovery that would also change the world.

So here we go, from the beginning.

The two kinds of things that exist

In CPP, there are two foundational kinds of Conscious Points.

First: The movable Conscious Points (CPs). These are the “stuff” of the universe — the actors, the pieces on the board. There are four types:

a plus electron-type Conscious Point (+eCP)
a minus electron-type Conscious Point (−eCP)
a plus quark-type Conscious Point (+qCP)
a minus quark-type Conscious Point (−qCP)

Every particle you’ve ever heard of — electrons, quarks, protons, neutrons, neutrinos, photons — is built out of these four types and nothing else.

Second: Grid Points (GPs). These are stationary conscious points. These are the background of space itself. This is the chessboard that the pieces move on. Here’s a simple first picture: imagine stacking dice into a big block, and marking every corner where the dice meet. Now throw away the dice and keep only the marked corners. That array of points is something like the grid that underlies space. Each of those points is a GridPoint, a GP.

But the real grid isn’t cubic like dice. The real geometry of space is built on a figure called the 600-cell — a four-dimensional hyper-icosahedron. An ordinary die (a cube) has 8 corners; an icosahedron has 12; the 600-cell has 120 vertices, and inside it you can find exactly 600 tetrahedra. The tetrahedron is a four-sided/four-cornered pyramid shape. My wife, Margo, named the book about all this Tetrahedra All the Way Down. There are 600-cells smaller than Planck’s constant (10^-35 meter) and 600-cells the size of the universe. All of them are composed of tetrahedra.

Two things about the 600-cell worth knowing even as a beginner:

It’s four-dimensional. Each grid point has coordinates not just in x, y, and z but also in a fourth spatial coordinate. This fourth dimension is not time — it’s a fourth direction of space. It can’t be visualized in 3D space where we live because we don’t know where to graph the fourth dimension.
Its proportions are governed by the golden ratio, φ (phi) ≈ 1.61803399 — the ratio you see in seashells, sunflowers, and classical architecture. The geometry of the 600-cell is filled with φ, and that single ratio, multiplied and combined in lawful ways, generates the predictable numerical relationships that show up throughout the theory’s results.

All of space is densely packed and nested with these 600-cells — small ones, larger ones, side by side and layered, from the center of the universe to its edge. And the Grid Points never move. They are the chessboard. The Conscious Points, the CPs, are the chess pieces. The board is fixed; the pieces move on it.

The rules of the game

The Conscious Points obey the rules God declared. There are nine axioms in the full theory, but for today, you need only three behaviors that are embedded within the 9 axioms.

Opposite charges attract, and like charges repel. A plus and a minus pull together; two pluses (or two minuses) push apart. This is the familiar electrical rule.
Quark-type points, qCPS, attract each other regardless of sign. A qCP and any other qCP, regardless of charge — plus-plus, plus-minus, minus-minus, doesn’t matter — always attract. This extra attraction is called the strong force in the context of the force between protons and neutrons inside the nucleus, and they call it the color force when talking about quarks attracting quarks. The color force has nothing to do with color; they just made up the name to give it a name. It’s neither; it’s just a rule that quarks move toward each other when they get the message of the qCPs near them. The strong force is the glue that holds atomic nuclei together. The color force is the glue that holds quarks together. The rules of qCP-qCP interaction reflect the underlying reality of this type of force.
Every Conscious Point moves by perceiving its surroundings, computing how to respond, and then displacing and moving to the next position the next Moment. This is the PCD cycle: Perceive, Compute, Displace. Every CP, every Moment, perceives the stress of the space around it, computes where the steepest gradient of stress lies (what I call the Space Stress Vector), and moves to a new GP/GridPoint in that direction. This happens about 10⁴⁴ times per second. Time itself is made of these Moments — reality is a succession of PCD cycles, like frames of a film.

Two technical terms you’ll hear me use:

SSV — Space Stress Vector. A measure of how much “stress” (concentration of charge, energy, activity) there is at a place in space, and in what direction it changes most steeply.
PSR — Planck Sphere Radius. How far the message from each GridPoint goes out in one Moment. Light travels at one PSR per Moment. Mass cannot go that fast; it can only go a portion of a PSR each Moment. The amount a CP moves in a Moment depends on the sum of the stress it is experiencing. Each stress comes from a different direction. If the stresses are equal from all directions, there is no movement, because the SSV_net is zero. If there is a high net stress at a GP → the CP on that GP takes long steps in the direction of that net stress. Likewise, low stress → movement/displacement is a small percentage of the PSR. When there is a high SSV_absolute in a location, the PSR is smaller, which is why there is space contraction, which produces time dilation. Gravity shows up because the PSR is smaller in the direction nearer another mass.

The movement rule, in plain language: things flow in the direction of where there is the greatest gradient/difference in stress. It is somewhat like moving from a crowded area toward an empty area. That is diffusion, like a drop of ink spreading through water. This is a little different; it’s like a ball rolling off the top of a mountain. It will roll down the steepest side. Each point computes the direction of the steepest change in its current stress.

“Let there be light”

Now, creation.

In the beginning, God created all the Conscious Points that will ever exist — something on the order of 10⁹⁰ of them, an unimaginable number — sit stacked on just thirteen grid points at the center of the universe. All the CPs of the universe sit on one central point and its twelve nearest neighbors. This is one of the twelve vertices of one icosahedral cell around the center in a 600-cell. The CPs are literally superimposed, all sitting atop one another on the same GP. They are perfectly static before the creation began.

Then God said, Let there be light — and the PCD cycles began.

Each point perceived: inward, toward the center, the stress is unimaginably high — 10⁹⁰ points stacked on thirteen locations. Outward from the 12 points on the surface of the icosahedron, beyond the cluster, the stress is zero — there’s nothing out there. The outward-pointing gradient is overwhelmingly steeper than the stress moving toward the center of the icosahedron. So when God said, “let there be light,” and the CPs began to perceive the SSV, and SSV gradient on their GP, they each saw this enormous contrast in SSV coming from the direction where “everything was stacked on top of the local 12 neighbors” and “the nothing, the zero SSV coming from the volume outside the little patch” and the SSV gradient was extreme. The PSR is determined by the absolute SSV at each GP. The PSR changed each Moment, and so the speed of light was variable. The net effect is that the PSR increased exponentially during the first trillion seconds, creating what is called inflation.

This is the Big Bang. This is the period when the CPs took their first major steps after “let there be light.” It is this era that physicists call the inflation era. In CPP, it lasts roughly a trillion moments — about 10¹² PCD cycles, ending around 10⁻³² seconds after the beginning. After that, the superimposition of CPs had stopped, and the contrast relaxed enough that the points settled into ordinary motion: they kept their velocities, like shells fired from a gun, coasting outward ever after. The universe has been expanding ballistically since.

And through all of it, the grid never moved. The board stayed fixed; the pieces flew outward across it.

One more thing about the inflation era, that first trillion moments was a melee, and tiny imperfections — little unevennesses in how the points dispersed — got locked in during inflation. They were microscopic then. But every imperfection laid down in those first moments got stretched as the universe expanded, and stretched, and stretched. That is important for understanding how the universe created the filaments of galaxies and huge voids where there are no galaxies.

The universe freezes out, one bond at a time

Picture the young universe: a furiously hot swarm of plus and minus eCPs and qCPs, all attracting and repelling and colliding. CP pairs form constantly. The qCPs bond as plus and minus pairs to form quark Dipole Particles, qDPS. But the collisions are so violent in the early universe that most pair bonds get broken as fast as they form. Binding can’t stick until the universe cools below the binding energy. Each time the temperature drops past a threshold, a new kind of object “freezes out” and becomes permanent. It happens in sequence:

First freezing — the Quark Dipole (QDP). A +QCP and a −QCP bind. They’re held by both the electrical attraction (plus-minus) and the strong force (quark-quark) — double-glued. Once the universe cools below their breaking energy, QDPs are stable in low-temperature conditions. They break in colliders

Second freezing — the Electron Dipole (EDP). A +ECP and a −ECP bind. Electrical attraction only, so it’s a weaker bond and freezes out later, but once frozen, likewise stable.

Third freezing — the Hybrid Dipole (hDP). A quark-type CP and an electron-type CP bind across families: a +QCP with a −eCP (type A), or a −QCP with a +ECP (type B). Together, types A and B are the hDPs.

Then the hTetra. hDPs carry an exposed quark end, and quark ends attract every other quark end via the strong force. So hDPs lock together — a type A and type B hDP will interlock and arrange themselves into a tetrahedron: the hybrid tetrahedron, or hTetra. Visualize it by forming a U with your thumb and index finger on one hand. Do the same with the other, and interlock the U from your right and left hands. The 4 tips of your thumb and index fingers are the points of the tetrahedron. The key fact: an hTetra is more stable than the loose HDPs that formed it, so every HDP in the universe ends up incorporated into an hTetra. There are no free-floating HDPs anywhere — they are swept up and bound as hTetras.

So when the dust settles, space everywhere is filled with three kinds of stable, neutral, bound objects:

eDPs — electron dipoles
qDPs — quark dipoles
hTetras — hybrid tetrahedrons

This is the permanent furniture of space — what CPP calls the Dipole Sea, or DP Sea. It fills the universe, and it will stay this way forever.

Now we watch what happens to the qDPs and hTetras in that list. They aggregate around the imperfections formed during the Big Bang inflation era, eventually forming galactic-sized halos that attract protons and neutrons, which congeal into stars and galactic cores. You have just met dark matter.

Chains, woolly bears, and the cosmic web

Now we build a structure.

A qDP has a plus end and a minus end. So when another qDP drifts by, its minus end can latch onto the first one’s plus end. This process continues, forming a plus-minus, plus-minus, plus-minus chain. And these chains aren’t held by mere electrostatic attraction — every link is also strong-force-bonded, qCP to qCP, double-glued. QDP chains are tough.

Now the eDPs floating everywhere look at this chain and see exposed pluses and minuses all along the qDP chain. An eDP swings its minus end to weakly bind to a plus qCP on the qDP chain. The plus end of the eDPs weakly bonds to the minus qCP. More than one eDP end can bind around the circumference of each qCP in the qDP chain. This creates a coating around the entire qDP chain, preventing clumping and forming what is called a glueball. The chain grows a thick, fuzzy coat of EDPs, like the caterpillar we call a woolly bear. It’s also like the bar magnet bristling with iron filings. The qDP chain is a long, wiggly, fuzzy strand.

And remember those imperfections locked in during inflation? These chains are the imperfections that have grown up. As the universe expands, the strands get stretched — and more EDPs keep settling into the coat as it stretches — and stretched again, until structures that began at a subatomic scale, 10⁻²⁰ meters, have been drawn out to 10²⁰ meters: tens of thousands of light-years. They kept their shape from when they were small. The thread-like pattern laid down in the first trillion moments is now written across the sky.

Have you seen those pictures of the universe at the largest scale — galaxies arranged not randomly but along filaments, like a vast spiderweb? Astronomers call it the cosmic web, and nobody in conventional physics can tell you why the universe is webbed rather than smooth. In CPP, it’s obvious: the web is the stretched-out qDP chain network. The filaments are woolly bears writ large, with galaxies forming around those qCPs in the qDP chain that attracted other smaller qDP chains, developing what became the spherical galactic halos that attracted mass that congealed into stars and galactic cores.

The gathering: nucleation points

Here’s the next move, and it’s the heart of the dark matter story.

Not every qDP got woven into a chain. And remember, there are hTetras out there too, drifting free, probably as chains, depending on the environment’s temperature. But every one of them carries strong-force attraction points. The qCPs embedded in those chains are powerful strong-force attractors. So the free qDPs and hTetras migrate. But they don’t turn into a single round dense all-qDP mass ecause they are prevented from getting too close by the woolly-bear coat of eDPs surrounding the qDP chains. The qDPs crowd in as close as they can, up to a maximum density at the center, but fairly uniform in density across the galactic diameter. They gather around the knots/nodes form in the early universe, and form a chain network of globs of qDPs and hTetras that become the galactic halos.

Over cosmic time, this sorts the universe into two kinds of regions:

Around the chain knots: dense gatherings of QDPs and hTetras — every quark-bearing object in the neighborhood has been drawn in. These are the nucleation points.
Everywhere else: In the interstellar space, only eDPs exist. The empty stretches between filaments hold no quark-type matter at all — it has all migrated to where the attraction is.

What gravity is

Now it is time to talk more about what gravity is in CPP. This is important because the qDP chains and hTetra chains are drawn toward the galactic DM halos.

Remember the PSR — the distance a Conscious Point moves each moment, shorter where stress is high, longer where stress is low. Now, picture a particle sitting near a dense region. On its dense side (the side closer to a mass), space is stressed more: short steps. On its empty side, space is relaxed: CPs take long steps in their thermal random walk in the outer region. Therefore, Moment after Moment, each CP in the DP Sea (or inside the mass) takes long steps in one way and short steps the other — and the net effect is a steady drift toward the dense region.

That drift is gravity. Gravity isn’t a separate force that has to be added to the theory; it’s the automatic consequence of the PCD cycle operating in a stress gradient. Mass concentrations create stress; stress shortens steps on the near side; everything nearby drifts in.

So those nucleation-point gatherings of qDPs and hTetras that form the galactic halos are regions of high mass density and high SSV (compared to the low density of the intergalactic space). Therefore, the galactic halos of DM are gravitational wells. The massive qDP and hTetra chains are not buffeted by collisions with comparable-mass objects in the thermal soup of the DP Sea; thus, their migration toward the galactic halos is unimpaired. The eDPs cannot migrate toward the galactic halos very quickly because they are high in number, small, and are dispersed by thermal collision.

Quarks, in brief — and why it matters here

To finish the picture, I need to tell you what ordinary matter is, because ordinary matter is the stuff that falls into those wells. I’ll keep this short — it’s a whole conversation of its own. It involves mass, spin, Zitterbewegung oscillations, and the origin of neutrinos.

A quark is what you get when a free, unpaired qCP gathers a cloud around itself. Take a lone +qCP: every nearby qDP orients its minus end toward that central plus qDP. The presence of the unpaired +qCP forms a polarized cloud. In addition, a passing qDP gets captured into orbit around this central qDP and polarized cloud assembly. That captured tangential velocity qDP begins to orbit, which gives the quark its characteristic spin that all fermions have (objects with 1/2 Planck’s constant of spin). That object — central +QCP, polarized QDP cloud, orbital QDP — is an up quark. This is the simplest quark.

A down quark is an up quark that has captured an electron. The electron’s central −eCP dives to the heart of the quark and sets up a perpetual in-and-out radial oscillation (called Zitterbewegung — “trembling motion” — ZBW for short). And the electron’s now-surplus orbital EDP spins away free: that spinning EDP is an electron neutrino, which is why neutrinos fly off whenever a proton captures an electron. The conversion of the up quark to a down quark converts the proton (Up UP Down quark) into a neutron (Down Down Up quarks). Nobody in conventional physics can tell you what a neutrino is. In CPP the electron neutrino is simply a spinning eDP. A spinning qDP is a muon neutrino, and a spinning hTetra is a tau neutrino.

One of the principles of fermionic mass formation is that all charged fermionic masses form around free, unpaired charges. A lone plus or minus will polarize the DP sea around it. The free qCP or free eCP will polarize DP clouds around it, drawing them closer and thereby creating a condensed region of ordered eDPs and qDP chains. This condensation and ordering of the DP Sea is what energy is. That condensed order of qDPs and eDP and h Tetras compose the mass of a particle. The bound, paired-up Sea objects — eDPs, qDPs, hTetras — have no exposed/naked/unpaired CPs that will polarize and condense to form a mass. This is why the qDPs and eDPs stay in the quiet background.

Baryons: three quarks on an hTetra

Here’s the part we didn’t get to before your call arrived.

A baryon is a particle made of three quarks. The two baryons that matter are the ones you’re made of:

a proton = two up quarks + one down quark
a neutron = two down quarks + one up quark

And here’s how the three quarks hold together: they assemble on an hTetra. The hTetra — that little tetrahedron of interlocked hybrid DPs — serves as the structural scaffold, its two strong-force vertices and two electric-only charged vertices anchor the three quarks into a single bound particle. The quarks have an open eCP vertex. The proton is a +eCP at its open vertex, and the neutron has a -eCP at its open vertex. The hTetra and qDP chains are the background Sea of DM composing galaxies. The hTetra is also the skeleton inside every proton and neutron in your body. (Here we see another example of the fact that the universe is composed of tetrahedra all the way down.)

Baryons form by accidental collisions between the open vertex of quarks and hTetras. As the universe cools, quarks and hTetras collide and bond when properly oriented. If the energy of the thermal bath of the DP Sea is lower than the bonding energy of the quark-hTetra bond, then the quark-Tetra bonds remain stable. In the right orientation, a proton forms. The two up quarks and one down quark bind to the vertices of an hTetra to form a proton. Two down quarks and one up quark bind on the open vertices of the hTetra to form a neutron. This depends on the open vertex of the charged quark and its ability to bond to the charges on the vertices of the hTetras. The point of all this is to justify that protons and neutrons are massive objects – concentrations of CPs that will not be hindered in their migration by collisions toward the massive objects, such as planets, stars, galaxies, and halos of Dark Matter. The baryons (protons and neutrons) formed in the early universe and were scattered somewhat uniformly through vast expanses of space when they were formed, but the baryons were attracted to the Dark Matter halos, which accumulated sufficient baryonic mass to form stars and eventually galaxies.

The reveal

Now all the pieces are in place. We can see what Dark Matter is, how it nucleated, how it accumulated, how it attracted baryonic mass, and how it became the womb of the galaxy.

Dark matter is the aggregation of qDPs and hTetras in the region of the galactic halo.

That’s it. That’s the answer to one of the biggest open mysteries in physics. The qDPs and hTetras froze out in the early universe, formed chains, and other qDPs and hTetras, and toward these points of strong-force concentration. The chains spread, and each of the qCPs along the qDP and hTetra chains became knots of qDP and hTetra accumulation along the stretched chain network. The knots eventually became the halos of dark matter, which are the wombs of galaxies.

This checks out against the criteria that astronomers actually observe:

Why does it gravitate? Because qCPs on the chain of early forming qDP and hTetra chains are nucleation points that attract more qDP and hTetra chains from their local environment. The first chains formed during the inflationary epoch serve as nucleation points for qDPs and hTetras. As the DM volume increases, its gravitation increases. The increase in gravitational force attracts mass more strongly, resulting in a more rapid accumulation of DM. The Dark Matter underlying galaxies is simply concentrated regions of qDP chains and hTetras. Again, the tiny regions of qDP chain asymmetry in the early universe, formed during the inflation era, attract qDP chains and hTetras from the surrounding space. The regions of high qDP concentration become regions of higher qDP concentration. Regions of high qDP concentration create SSV gradients relative to regions with lower qDP, hTetras, and eDP concentrations, resulting in a greater gravitational gradient. The qDPs and hTetras drift toward the DM concentrations faster than the eDPs due to a high thermal-collision differential. The qDPs and hTetras migrate downward; the eDPs are slowed by thermal collisions and do not migrate. This creates a region of space with a depleted population of qDPs and hTetras. This results in the two distinct regions: the intergalactic region with high eDPs, and the intragalactic/DM halo regions with high qDPs and a high Tetra chain population.

Why is DM dark? The qDPs and hTetras fill and contribute as the medium of light conduction through space. It does not interact with light because it is the light-conducting medium. It is denser than intergalactic space, being qDPs and hDPs, so it refracts light, but it does not glow, and you cannot bounce photons off of it. A QDP or hTetra has every plus matched to a minus, every quark end locked to another quark end; there is no energetic release or absorption that makes it glow or block light. It is homogeneous, so it does not scatter. DM has no property that allows it to shine, nothing to absorb, nothing to scatter. It gravitates, and it does nothing else you could see. That’s the exact observed signature of dark matter. Conventional physics has no particle that behaves that way. The qDP and hTetra are not in the conventional physics glossary.

Why does every galaxy sit inside a dark matter halo? Because the order of events of its formation is as follows: dark matter gathers first, and gathers mass around the nucleation points under the influence of the strong force as the universe expands. Then the baryons formed throughout the universe as the temperature dropped, and they were attracted to the DM gravitational wells. Protons and neutrons rained into the QDP/hTetra clouds, gas pooled, stars lit, galaxies grew — each one cradled inside the dark-matter gathering. The visible galaxy is the bright sediment at the bottom of an invisible well.

Why do galaxies line up along a cosmic web? Because the nucleation points sit on the stretched QDP chain network, the inflated remnant of imperfections from the first trillion moments. The web in the sky is the fossil of the universe’s first instants.

Four mysteries are answered by the theory’s already-contained structure. Dark matter arises as simply another natural configuration of the 4 CPs that form mass, energy, gravity, photons, and quantum mechanical phenomena. Conventional cosmology has had to resort to inventing undiscovered particles to fill the gap. The qDPs and hTetras were already there, demanded by the freezing sequence. I just hadn’t thought about the fact that the qDPs and hDPs will not remain independent because of their strong charge, and had not thought about the fact that they would be covered with eDPs to prevent them from compressing into a galactic-sized glueball until I was writing the Intelligent Design paper a couple of weeks ago. When I saw that, I immediately recognized this as the bridge between conventional physics and the metaphysics of the Conscious Points, and that the Mind of God is the origin of the Conscious Points, DM, and the rest of the visible/physical universe.

Why you can trust this — and why it matters

Lots of people have theories. Why take this one seriously?

Because CPP doesn’t ask you to take it on my say-so. The discipline of the program is zero-parameter prediction: we derive numbers from the axioms — no knobs, no fitting, no adjusting constants to match the data — and we check them against what’s measured. As of this writing, the program has made over a hundred such predictions, which are publicly registered. Every paper goes through adversarial review by a panel of independent AIs before release — ChatGPT is the toughest of them, and nothing ships until it signs off — and then gets posted to the Open Science Framework (OSF), the public registry conventional science uses, where each paper receives a DOI: a permanent, timestamped record. The line goes in the sand in public. The public-facing versions live at hyperphysics.com.

No single prediction proves a theory. But every independent, successful prediction multiplies the implausibility of the axioms being wrong. One hit could be luck. A hundred hits from nine axioms and no free parameters is not luck — it’s a fingerprint.

And whose fingerprint? That’s the real point: the fundamental entities of this physics are conscious points — perceiving, computing, obeying declared rules with perfect fidelity, 10⁴⁴ times a second, everywhere, forever. The universe runs on something that perceives and obeys. Matter is, at bottom, mind under authority. When this physics succeeds — when it explains what Dark Matter is, where the cosmic web came from, what a neutrino is, things conventional physics openly admits it cannot explain — it isn’t just winning a scientific argument. It’s evidence of the kind the modern world says it wants. The problem is that it goes in a different direction from the fundamental stance of Conventional Physics, which holds that the universe is only material. There is no pathway for adjudicating metaphysical claims. In fact, such offerings are usually ignored as being unscientific. This is different because it bridges the physical and the metaphysical and makes the plausibility of the universe being non-conscious an increasingly untenable proposition. As this theory goes mainstream, the proposition that God exists, that matter is composed of Consciousness, that the origin of consciousness is consciousness, and that there is a mind that encompasses the universe and from which it arises will become common knowledge. This will change people, society, and culture. It is the sea change that must happen before the world fractures in its ego/animal-obsessed passion to satisfy the desires of the flesh. With that new paradigm, that the God of the Bible is the origin of the consciousness that underlies the substance of the world, men will regulate themselves according to the rules of divine pleasure, and society will organize around these principles, and the earth will migrate/purify toward a society that is on earth as it is in heaven. Eventually, everyone will know that the foundation of the physical reality is the mind of God, sustaining every moment by His word.

I came to Jesus because I saw in a moment the implications of the metaphysics and the mature development of the physics that is now here, 39 years later. My prayer is that this work opens that same door for many. The work ahead of us is first to win the scientific community’s careful eyes, and then to tell the world.

We’ll keep going from here. Next conversation: spin, the ZBW dance, and the neutrino story. Call anytime.

— Thomas

Quick reference — the cast of characters:

Term	What it is
CP	Conscious Point — fundamental entity; four types: ±ECP, ±QCP
GP	Grid Point — fixed point of space’s background lattice (the chessboard)
600-cell	The 4D hyper-icosahedron (120 vertices, 600 internal tetrahedra) whose nested copies form space; proportioned by φ ≈ 1.618
PCD cycle	Perceive, Compute, Displace — one moment of time; ~10⁴⁴ per second
SSV	Space Stress Vector — local stress of space and its gradient
PSR	Planck Sphere Radius — distance a CP moves in one moment (shorter where stress is higher)
eDP	Electron Dipole: +ECP bound to −ECP
qDP	Quark Dipole: +QCP bound to −QCP (electrical + strong force)
hDP	Hybrid Dipole: QCP bound to opposite-sign ECP (types A and B); all end up in hTetras
hTetra	Hybrid tetrahedron — four-point tetrahedral lock of hybrid dipoles; Sea constituent and the scaffold of every baryon
Up quark	Free +QCP + polarized QDP cloud + orbital QDP (spin)
Down quark	Up quark that captured an electron (radially oscillating −ECP added)
Baryon	Three quarks on an hTetra: proton (uud), neutron (udd)
Neutrino	A spinning dipole: eDP → electron neutrino; qDP → muon neutrino; hTetra → tau neutrino
Dark matter	The free QDPs and hTetras gathered at chain nucleation points: massive (they gravitate) but fully paired (nothing to shine)

260611 – CPP and Dark Matter Primer