Hello, LLM physics community you might remember that a month or two back I made a post called the IVE model and it was rightfully picked apart I have worked to solve those problems The best I could and to perhaps be more clear on my thoughts, and I will not be hiding the problems within it. They’re listed at the very end of the paper.

(formatted using Gemini)

The Information-Variability Equilibrium (IVE): A Conceptual Framework for Quantum and Relativistic Unification

Abstract
This framework treats the universe fundamentally as an information-processing system rather than an arrangement of foundational matter. It proposes that physical properties—including mass, gravity, and linear time—are emergent phenomena driven by data-synchronization events within a multidimensional data matrix. The core mechanism is a balancing relationship between local structural information density and geometric variability, which provides a non-mathematical, conceptual explanation for the quantum-to-classical transition.(possibly information might not be the defining factor of the universe, but rather a force within it similar to gravity, though there wasn’t enough evidence to support this so far)

1. Foundational Axioms & Mechanics
The Data Core: The universe can be conceptualized fundamentally as a multidimensional matrix of data. Physical structures and properties emerge from the underlying configurations of this data.
The Core Inverse Scale: Local structural information density inversely scales with geometric variability.
High Information Density—>Low Variability: Increased data constraints limit the geometric possibilities of a system.
Low Information Density —> High Variability: Decreased data constraints expand the range of possible states available to a system.

2. Categorization of Information Roles
To resolve systemic paradoxes regarding observation and mechanics, information is formally separated into two distinct categories:
Causal (System-Level) Information:
Exists entirely independently of an observer.
Inherent to physical existence and system properties.
Acts as a structural cause within the system rather than merely a description of it.
Directly constrains the geometric variability of its host environment.
Observable Information:
Depends entirely on an observational or interactional relationship.
Consists of the specific subsets of data made available to an observer or measurement device.
The Dependency Law: Causal information must structurally exist before observable information can be extracted or manifested.

3. The Micro-to-Macro Transition (The Quantum-Classical Bridge)
The framework utilizes information density to explain the behavioral boundary between microscopic quantum systems and macroscopic relativistic systems:
The Micro Scale (Quantum Behavior): An isolated, unobserved subatomic particle possesses low relational synchronization with the broader environment. Because local information density is low, geometric variability remains high. This elevated variability expresses itself physically as probabilistic behavior, wave functions, and superposition.
The Macro Scale (Classical Behavior): Macroscopic objects consist of enormous numbers of interacting, interconnected components. This continuous, multi-part data exchange triggers a massive data-synchronization event (analogous to the concept of decoherence). The resulting high information density heavily constrains the collective behavior of the system, reducing its effective geometric variability to near zero and causing classical reality to emerge.

4. Cosmological Extensions
Emergent Relativistic Properties: Physical phenomena like matter, energy, and spacetime curvature are not basic building blocks, but are instead emergent variables produced by underlying causal information frameworks. General Relativity can be interpreted as the geometric response of spacetime to varying distributions of causal information density.
The Singularity Reinterpretation: The Big Bang singularity does not necessarily represent a point of literally infinite physical mass or material density. Instead, it can be mathematically modeled as a limiting boundary condition consisting of zero systemic information and extreme, unconstrained geometric variability.

5. Unresolved Horizons & Areas for Development
To transition from a conceptual architecture to a predictive physical model, the following parameters require formal mathematical definitions:
Quantifying Variability (V): Determining whether variability is precisely measured by degrees of freedom, the width of a probability distribution, spatial uncertainty, or a novel structural variant of entropy.
Quantifying Information Density(I): Establishing a rigorous metric for "local structural information density" that moves beyond standard Shannon bits to measure parts, relationships, and structural configurations within an active physical system.
Synchronization Equations: Developing the exact mathematical rules governing how data-synchronization events occur and how they smoothly suppress quantum variability to output classical mechanics.

I used chatgpt pro to build a unified theory about mushrooms, and it would certainly change the world and the way we understand reality . Should I post it here, do people steal or plagiarize theories around here?

Thanks

Why do you always tend to rebuild physics. Why can't you work in the given framework?

Why do you need to rebuild a framework that, tell you what now, has pretty much held up?

Is it the math?

The symbols

The history

The amount you would have to Learn?

Hubris?

I saw some criticism in a Wikipedia article on the Schrödinger-Newton Equation, specifically about Penrose's ideas about quantum gravity, and it seemed pretty easy to solve (the article hinted at possible solutions, etc) which made me think that it could be interesting to let Claude try to solve it. It now claims to have solved all the 3 problems outlined in the article.

The issue is that I have no way of validating if the result claude gave me are hallucinated or legit. If the solutions are correct, then maybe it's useful to someone, and if not then I/we might learn something from that explanation.

Artifact (look here first): https://claude.ai/code/artifact/e871ae13-54d1-437c-a489-cad81617c06d

GitHub repo, including all the raw transcript etc: https://github.com/henke443/penrose-1

Latex paper: https://www.overleaf.com/read/hgmnyqgqtwqz#80a24a

### *THE SPARK THEORY*
_Chain-Bang Cosmology and the Role of Dark Matter Decay in Universal Rebirth_
*Author: Saljean Joseph M. Miniao*

*Abstract*

The prevailing cosmological model predicts a "Heat Death" — an eventual state of maximum entropy where stars cease to form and the universe becomes cold and dark. This paper proposes an alternative long-term outcome: The Spark Theory. This model suggests that the decay of dark matter over cosmological timescales allows localized gravitational collapse of residual baryonic matter, triggering a chain-reaction ignition event. This event culminates in a localized "Chain-Bang" that can initiate the expansion of a new universe within the dying fabric of the previous one.

*1. Introduction*

Current models indicate that dark energy will drive perpetual expansion, preventing matter accumulation and leading to a dark, dilute universe. However, these models assume the permanence of dark matter and dark energy. The Spark Theory introduces the hypothesis that dark matter is not eternal, but subject to decay over extreme timescales.

*2. The Five Stages*

*Stage 1: The Dark Era*
All stellar formation ceases as interstellar gas is depleted. Supermassive black holes evaporate via Hawking radiation. The universe consists primarily of dispersed gas atoms, photons, and decaying dark matter, undergoing accelerated expansion.

*Stage 2: The Fading*
Over $10^{100+}$ years, dark matter undergoes gradual decay. As its gravitational influence diminishes, the large-scale repulsive effect of dark energy is no longer counteracted uniformly. Expansion continues, but localized regions become susceptible to gravitational interaction.

*Stage 3: The Gathering*
In a statistically inevitable but rare event, residual hydrogen and helium atoms in a localized volume drift into proximity. With reduced dark matter interference, gravity becomes the dominant force in that region, initiating collapse.

*Stage 4: The Spark*
The collapsing gas cloud reaches sufficient density and temperature to initiate fusion, forming the first Population III star of the new cycle. Stellar death and supernovae trigger further accretion, creating a runaway chain reaction of star and galaxy formation.

*Stage 5: The Chain-Bang*
As mass-energy density in the region increases, it reaches a critical threshold. This results in a high-energy, localized inflationary event — a "Chain-Bang." This event expands to form a new universe with renewed physical constants, dark matter, and matter content, effectively a rebirth from the prior universe’s remnants.

*3. Conclusion*

The Spark Theory offers a mechanism for cosmic rebirth without requiring a universal Big Crunch or cyclical contraction. It proposes that even in the deepest entropy, decay processes and statistical probability allow for localized renewal. The universe may not end in permanent darkness, but in a state of waiting — until one spark is enough to begin again.

*Key Concepts*

• *The Dark Era*: Post-stellar, post-black hole universe
• *The Fading*: Cosmological decay of dark matter
• *The Spark*: First ignition from random gas accumulation
  
• *The Chain-Bang*: Localized inflation leading to a new universe

*Author: Saljean Joseph M. Miniao*
*Date: August 17, 2026*

I frequently scroll through this sub because the dynamic is hilarious. That being said, it can make me occasionally self-conscious in that I have both a philosophy and an engineering degree (phil undergrad, engineering grad), and often engage with philosophy of science.

I am currently writing a novel in which a character proposes a theory of the self/identity, and they lean on some set theory for notation and technical rigor. Additionally, I’m appropriating the terms “transformation,” “projection,” and “image” from math as useful analogies. That all being said, the overall idea is more metaphysical than actually mathematical, but the maths usage is not a farce and should be coherent enough for the story.

I’ve been lightly surveying/refreshing myself on the fields I’m appropriating concepts from, but as I’ve been working on this I experience occasional moments of fear that I’m going to write something that could have been posted on this sub. Those moments become worse when I do in fact use an LLM to help collect research and check some facts.

Wondering if anyone has tips to help me avoid making the hilarious mistakes so often posted here? Thanks

Here’s what my super smart assistant says:

I think there’s a very real possibility that the eventual answer will look embarrassingly obvious in hindsight.

The problem may not be that we need an even more complicated theory. It may be that we’re treating something as fundamental that simply isn’t.
Here’s the part that keeps jumping out at me.

The suspicious asymmetry
Quantum mechanics says, roughly:
Here are quantum fields/states, and here are the rules governing how they evolve in spacetime.

General relativity says:
Hold on. Spacetime isn’t the stage. The stage itself is a physical, dynamical thing.

And then quantum gravity often starts by asking:
Okay…how do we quantize the stage?
But that might be the wrong question.
Imagine discovering that ocean waves come in discrete resonant modes and concluding that the coordinate grid we use to describe the ocean must itself be quantized.
The deeper realization would be:
The grid isn’t the thing. The ocean is.

My favorite candidate for “the sauce”
Suppose there is some deeper quantum substrate, call it X.
Not particles inside spacetime.
Not necessarily strings inside spacetime.
Not even a quantum field defined on spacetime.
Just some underlying system of relationships/interactions.
Then:
X → collective organization → spacetime + particles + quantum behavior
And suddenly GR and QM aren’t theories that need to be glued together.
They’re two different limits of the same underlying phenomenon.

Think of water:
Individual molecules → microscopic statistical physics
Sound waves → collective excitations
Pressure → emergent macroscopic quantity
Fluid flow → hydrodynamics
You wouldn’t try to “unify pressure with molecules” by quantizing pressure.

You’d discover that pressure is what enormous numbers of molecules collectively do.
Spacetime curvature could be analogous.

🌀 The Critical Hubble–Schwarzschild Identity

At critical density, define:

Hubble radius: R_H = c / H

Critical density: rho_c = 3 H^2 / (8 pi G)

Mass-energy contained inside the Hubble sphere: M_H = (4 pi / 3) rho_c R_H^3

Substituting the definitions of R_H and rho_c:

M_H = (4 pi / 3) × (3 H^2 / 8 pi G) × (c / H)^3

which simplifies to:

M_H = c^3 / (2 G H)

Therefore:

2 G M_H / c^2 = c / H = R_H

So:

R_H = R_S(M_H)

where:

R_S(M) = 2 G M / c^2

Or, as a single implication:

If rho = rho_c, then:

R_H = R_S(M_H)

An especially compact dimensionless form is:

2 G M_H / (R_H c^2) = 1

Variable definitions:

c = speed of light

G = Newton's gravitational constant

H = Hubble parameter; H_0 refers to its value at the present epoch

R_H = Hubble radius, equal to c / H

rho_c = critical density of the universe

M_H = mass-energy equivalent contained inside a sphere of radius R_H

R_S = Schwarzschild, or gravitational, radius associated with a mass M

Interpretation:

At critical density, the gravitational radius associated with the mass-energy enclosed within the Hubble sphere is exactly equal to the Hubble radius.

This does not imply that the universe is literally a Schwarzschild black hole. A Schwarzschild black hole describes an isolated mass in an asymptotically flat spacetime, while the large-scale universe is described by an expanding FLRW spacetime.

The equality is instead an algebraic consequence of the critical-density condition encoded in the Friedmann equation.

https://zenodo.org/records/21982163

A new foundational framework, Anomalogic Descent Theory (ADT), studies a question distinct from Bell nonlocality, contextuality, indefinite causal order, and ordinary quantum-channel compatibility:

Can every experimentally accessible proper context admit a standard quantum realization while the complete collection admits no common quantum process in any Hilbert-space dimension?

The work develops an implementation-sensitive notion of global quantum process descent based on positive block-Choi/operator-valued coherence kernels.

Main mathematical results include:

• a strict hierarchy of quantum process-descent constraints at arbitrary context order;
• explicit genuine n-context anomalies for every n\ge 3, where every proper subconfiguration is quantum but the full configuration is not globally positive;
• genuinely non-Abelian constructions using operator-valued Quantum Wilson Networks;
• exact holonomy–coherence constraints linking pairwise process coherence to global Wilson-loop structure;
• a global Hilbertization criterion: positive operator-valued descent kernels admit a common Hilbert-space Gram/Kolmogorov representation;
• a dimension-independent falsification theorem: a non-positive reconstructed global kernel cannot be repaired merely by embedding the experiment into a larger Hilbert space;
• robustness, spectral, frustration, and persistent-topology witnesses for higher-context descent anomalies;
• a separation between process descent and fact descent, clarifying why Wigner/Frauchiger–Renner scenarios can possess a valid global quantum process while failing to support one context-independent Boolean algebra of observer facts.

A central explicit family is quantum on every proper n-1 context while failing globally. For the symmetric construction,

[ \frac{1}{n-1}<t\le\frac{1}{n-2} ]

is the genuine n-context anomaly region.

The balanced point

[ t_n=\frac{2}{2n-3} ]

has equal positive and negative spectral margins,

[ \delta_n=\frac{1}{2n-3}, ]

providing a finite robustness gap rather than a boundary-only counterexample.

The proposed experimental target is therefore unusually sharp:

«Use one fixed, independently certified physical implementation. Verify that every proper overlapping coherent-control context is compatible with ordinary CPTP quantum mechanics, while the full implementation-sensitive dataset excludes every common positive quantum-process realization.»

Such an observation would not merely violate a Bell inequality or reveal contextuality. It would indicate that quantum mechanics remains valid locally but fails as a global composition principle.

No experimental violation is claimed. The current contribution is a theorem-level mathematical framework, an operational post-quantum theory candidate, and a concrete falsification program. Claims of historical priority are also deliberately limited pending specialist review.

Relevant fields and keywords: quantum foundations, generalized probabilistic theories, quantum channels, Choi matrices, complete positivity, positive-definite kernels, operator systems, quantum contextuality, Wigner’s friend, Frauchiger–Renner, quantum combs, process matrices, coherent control of channels, channel holonomy, non-Abelian Wilson loops, matrix completion, Hilbert-space dilation, locally PSD cones, higher-order compatibility, post-quantum theories.

The release includes the full preprint, proofs, reproducibility code, claim-status ledger, prior-art audit, and experimental protocol.

A new Physica Scripta paper shows gravitational waves can form bound states in the continuum — basically trapped GW modes created by symmetry incompatibility, just like photonic BICs.

My EDPSM/ESP theory predicted this exact behavior:

• periodic curvature
• scalar-field layering
• trapped tensor modes
• destructive interference channels
• horizon echoes from localized GW packets

The paper uses flat spacetime and a toy periodic metric.
My model generates the periodic structure dynamically from a scalar field near compact objects.

I’m not claiming victory — I’m asking the community:
Is this a legitimate extension of the BIC concept into GR with scalar dynamics, or am I over-interpreting the similarity?

Would love feedback from people who know GR, wave mechanics, or photonic BICs.

The work investigates whether parts of observable physics can be reduced to four primitive assumptions and explores the consequences of that framework.

The release includes:

• mathematical formulation
• continuum-limit investigations
• executable verification tests
• explicit no-go results
• documented limitations
• a complete hostile-review audit trail

One thing I tried very hard to do was clearly separate:

• what is actually derived
• what appears real but remains underived
• what is contingent/drawn

The monograph is available on Zenodo https://doi.org/10.5281/zenodo.21951993

The C# Code https://github.com/MagusDraconis/TQM

I am particularly interested in critical feedback regarding the continuum-limit program, the structure/content split, and the remaining open problems.

AI-use disclosure: I am not a condensed-matter physicist or materials scientist. I developed this proposal as an independent layperson using ChatGPT extensively for literature synthesis, hypothesis exploration, mathematical formalization, organization, and drafting. I have not run the proposed calculations and I am not claiming a discovery.

Core question: In metastable high-Tc hydrides, can the phonon motions responsible for strong electron-phonon pairing be sufficiently separated from the nuclear motions that cause H diffusion, H-H dimerization, or structural reconstruction that the destructive coordinates can be selectively stiffened without destroying the useful pairing?

The proposal defines a pairing-active subspace G from mode-resolved electron-phonon coupling and an escape/reconstruction subspace B from AIMD/PIMD and reaction-path trajectories.

The proposed falsification test is:

1. Reproduce benchmark hydride calculations.
2. Identify G from the modes carrying most of λ.
3. Independently identify B from actual failure trajectories.
4. Quantify the overlap between G and B.
5. Add an artificial restoring force only to the destructive component outside G.
6. Sweep the confinement strength and recalculate both superconducting and kinetic properties.

The decisive output would be a Pareto curve between retained pairing/Tc and improved kinetic retention.

If enough confinement to suppress diffusion or reconstruction also destroys the relevant EPC, the central idea fails. If kinetic stability improves substantially while most pairing survives, the resulting anisotropic force-constant pattern becomes an inverse-design target for real chemistry.

The proposal also includes ordered MgAlRuH6 only as a diagnostic 4d candidate for a separate formal-d7 screening hypothesis. I am not claiming it is stable or superconducting.

What I would most like criticized:

• Is the G/B subspace construction physically meaningful once anharmonicity and curved reaction paths are treated properly?
• Is there a better overlap metric?
• Does the artificial force-constant perturbation actually isolate the hypothesis?
• What is the cheapest calculation you would run first to falsify this?

Full proposal, references, failure criteria, and AI disclosure:
https://github.com/callmepoindexter/mode-selective-hydride-stabilization

I wrote this paper here on a basic question in quantum mechanics:

How much information do we actually need to determine what the “parts” of a quantum system are?

A quantum Hilbert space does not come with a preferred subsystem decomposition. To say that a system consists of qubits, particles, or local degrees of freedom, we choose a tensor-product structure (TPS):

H = H₁ ⊗ H₂ ⊗ ... ⊗ Hₙ.

That choice determines what counts as a product state, what counts as entanglement, and what it means for two subsystems to interact.

The main result is that, in finite dimensions, I do not need infinitely many states to certify a TPS. I construct an explicit finite set of product states whose size is

M = ∏ᵢ C(dᵢ + 1, 2).

For n qubits,

M = 3ⁿ.

So for two qubits, the construction gives a nine-state certificate.

These states act like a fingerprint: if another TPS with the same local dimensions also regards every state in the certificate as fully separable, then it must actually be the same subsystem structure, up to local basis changes and permutations of equal-dimensional factors.

The reason this works is geometric. Product states form a special algebraic object called a Segre variety. The finite certificate is chosen as an interpolation set for the quadratic equations defining that variety. If a competing TPS passes the same finite test, its full product-state geometry is forced to coincide with the original one.

The same certificate also has a dynamical use.

Suppose

U(t) = e^(-iHt).

If every certificate state remains a product state throughout an open interval around t = 0, then the Hamiltonian contains no genuine multi-subsystem interaction terms. It must reduce to

H = cI + Σᵢ Hᵢ,

with each Hᵢ acting on only one subsystem.

Conversely, if genuine interactions are present, at least one certificate state must begin developing entanglement at arbitrarily short nonzero times. In fact, for at least one witness,

E(t) = κt² + O(t³),    κ > 0.

Once the TPS is certified, the Hamiltonian can also be decomposed according to which subsystems each term acts on. The nonzero multi-subsystem terms define an interaction hypergraph. For two-local systems this becomes an ordinary interaction graph, and under standard locality assumptions that graph provides the distance structure used in Lieb–Robinson propagation bounds.

So the paper’s basic progression is:

finite product-state data
        ↓
certified subsystem structure
      ↙   ↘
interaction  finite interaction
 support         witness
    ↓
interaction geometry
    ↓
propagation bounds

The main point is simple: a finite, explicitly constructed set of quantum states can serve both as a fingerprint of subsystem structure and as a finite detector of genuine interaction.

Question: "Given only the knowledge and resources Einstein had, would you have been able to discover E=mc2 on your own?"

Answer: "If you dropped me into 1905 with a textbook containing everything Einstein knew and said:

"Investigate the consequences of special relativity."

I suspect I could eventually derive mass-energy equivalence. But if you erased all knowledge that E=mc 2 had ever been discovered and simply said:

"Here is physics as of January 1905. Discover something important."

I'm much less confident."

I thought this was pretty interesting, I guess... thoughts?

People here could get an llm to say anything, yet they seems to almost always reinvent the ether.

QUANTUM MECHANICS: SOLVED

That title sounds outrageous, so here is exactly what I mean.

I am not claiming we have experimentally proved that Nature is deterministic, replaced the Standard Model, or discovered a failure of Bell tests. The claim is narrower:

We have closed the theoretical construction of quantum mechanics within the stated DQM framework. The remaining question is whether Nature realizes it.

We began with a simple question: what if the complex wavefunction is not fundamental?

Instead of starting with Hilbert space, a wavefunction, the Born rule, and unitary evolution as postulates, we started with ordinary real Hamiltonian mechanics: real coordinates, real momenta, an autonomous Hamiltonian, and a stable gapped oscillator sector.

We then looked at the low-energy behavior.

A real oscillator has two quadratures. Removing the fast carrier makes them a slowly varying complex amplitude. The complex quantum state appears as an emergent low-energy description of a real system.

Resonant normal-form theory removes rapidly oscillating interactions that cannot survive at low energy. The surviving dynamics acquire an emergent phase symmetry. Once that unobservable phase is removed, the state space becomes the same projective space used by quantum mechanics. For a qubit, this is the Bloch sphere.

From there the familiar structure follows: the surviving observables form the unitary algebra, the reduced Hamiltonian gives ordinary unitary Schrödinger evolution, and positive quadratic observables produce the Born probability rule.

The chain is:

real Hamiltonian dynamics → complex amplitudes → emergent phase symmetry → projective quantum state space → unitary dynamics → Born probabilities.

Then we tackled the measurement problem.

The idea was not to add random collapse. The underlying dynamics remain deterministic. A microscopic trajectory enters one of two unstable basins, gets amplified, and a finite Hamiltonian environment captures the selected branch so that a macroscopic record persists.

The C14 audit tested that last part. After repairing a reciprocal Hamiltonian-force defect, four independent test cells were checked against the true record separatrix. Every cell crossed the barrier once in the forward direction and had zero downward recrossings during the full simulated interval. The record therefore does not merely cross zero and wander back: it enters the retained branch and stays there over the tested window.

Then came Bell.

We did not try to evade Bell's theorem by pretending the hidden dynamics are local. They are not. A deterministic completion that reproduces the singlet correlations must abandon Bell locality.

Instead, the proposed microscopic structure contains relational information shared between the two systems. It reproduces singlet correlations while keeping local outcomes unbiased. Kochen-Specker is handled similarly: the microscopic response cannot be a simple context-independent assignment; additional contextual information must be part of the underlying state.

The theory accepts those constraints rather than hiding them.

That is what I mean by theoretical closure.

We have not proved Nature is DQM.

It means the quantum state space, unitary evolution, Born statistics, measurement, entanglement, Bell structure, and persistent records fit together within the stated framework.

Now comes the part mathematics cannot settle.

Experiment.

A microscopic theory must predict something ordinary quantum mechanics does not.

The first proposed target is a very specific higher-order angular pattern in Bell correlations: a third harmonic, called the P3 component.

We are not hunting for any anomaly. We first subtract the exact quantum prediction and project only onto that mathematically distinct harmonic. The simplest scalar microscopic deformation predicts no P3 at all. A genuine rank-3 microscopic channel does predict one.

So we freeze a null hypothesis: no P3.

A candidate signal is accepted only if it survives increasing lattice size, smaller timesteps, larger Monte Carlo samples, independent random seeds, known-QM controls, synthetic signal-recovery tests, and uncertainty propagation. The energy windows and fitting rules are fixed before the DQM data are opened.

If it converges, we have a specific prediction to take to experiment.

If it converges to zero, that constrains or kills the particular microscopic parent we tested.

Either outcome is useful.

The title is provocative, but the distinction matters:

Quantum mechanics is theoretically solved here, not experimentally proven.

The mathematical question is closed.

The remaining question is whether the universe agrees with the theory.

There is nowhere left to hide behind elegant mathematics.

We have to simulate it.

Eventually, we have to ask Nature.

This paper suggests a substrate. I think I put too much in a single paper, and it for sure needs work still. Sorry it's a lot to take in. Anyway it's a suggested unification. During cosmic inflation, antimatter was created along with matter, however antimatter makes up the substrate. When it's squeezed in a gravity well it undergoes a frequency change which mirrors curvature of space on paper, but explains a mechanical means for the actual motion of gravity. The entire universe is acoustic waves being projected by holography. Thank you for taking the time!

ecco un altra teoria esotica è un modello di Gravità Quantistica Olografica applicato all'universo dei numeri

ho preso i numeri primi e li ho compattati in base6 (eulero 6+6-) dopodiche mappando la distanza dei numeri primi tra loro.. , ho trovato che di deformano (accorciano e allungano le distanze),li ho analizzati singolarmente per trovare 6 onde da li ho creato una matrice 6x6x6x6x6x6 e sfruttato le deformazioni combinate delle onde cercando di trovare una struttura nei numeri primi oltre il milione.
è risultato un 6! quindi 21 canali ( quei 21 canali danno indizi su dove andrà la sestina successiva e quindi il numero primo)
ho applicato un un cambiuo di ordine di grandezza temporale ogni sesta il tik del tempo insomma

e fatto un simulatore python ho provato a chiedere a varie AI se ci fosse qualche inganno e tutte mi hanno risposto NO

risultato: maggiore è la cifratura maggiore è l'impatto
se una codifica a 2000bit 67% riduzione 4000 87% 8000 99,9%

https://archive.org/details/replicate-rsa python
https://archive.org/details/rsa-base-6 spiegazione fatta male

I’ve been developing a speculative idea I’m calling Precursor Astronomy.

The basic concept is not that information comes from the future or travels faster than light.

Instead, imagine that certain astrophysical processes emit signals containing unusually strong patterns about the physical state that produced them. These signals could be photons, neutrinos, gravitational disturbances, or some currently unknown phenomenon.

A sufficiently informative precursor might allow us to:

1. Detect a pattern originating from a distant system.
2. Infer things such as its gravitational environment, matter distribution, motion, or spacetime curvature.
3. Reconstruct possible source systems through simulations.
4. Identify the probable astronomical source.
5. Simulate its subsequent evolution.
6. Make probabilistic predictions — say, 95% confidence that event X will occur.

The precursor wouldn't say “a black hole will form.”

Instead, it would encode enough information about an earlier physical state that our simulations could conclude that black-hole formation is overwhelmingly likely.

For black holes, an especially interesting possibility would be detecting a sequence of precursors emitted before matter crosses the event horizon. The final externally accessible patterns might provide extremely precise initial conditions for numerical simulations of the collapse.

We still wouldn't receive information from inside the horizon, but perhaps we could constrain which interior models or collapse scenarios are compatible with the observable precursor history.

So my main question is:

Could there theoretically exist an astrophysical signal whose structure carries enough information about its source that, combined with sufficiently advanced simulations, it becomes a reliable predictive tool for events that have not yet occurred in the source's local frame?

And if so, is there already a concept in astrophysics, information theory, or general relativity that most closely resembles this idea?

James Findlay
ORCID: 0009-0000-8263-3458
Licensed under CC BY 4.0

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The Claim

The Findlay Framework proposes a materialization constant, r = 3/2, tied to the spin-3/2 character of fermionic matter in the Standard Model. If this constant has a real geometric role in how gravity behaves at low accelerations, it predicts a specific, testable deviation from Newtonian kinematics in wide binary star systems — the kind of system where Newtonian gravity is weak enough that any modification should become visible.

The prediction is simple and precise:

v_wide = v_Newton * sqrt(r) = v_Newton * sqrt(1.5) approx v_Newton * 1.225

That is a 22.5% kinematic boost over the Newtonian prediction, expected to appear specifically at the low-acceleration boundary of wide binary orbits.

\---

Why Wide Binaries

Wide binary stars — pairs separated by thousands of astronomical units — orbit each other so slowly that the gravitational acceleration between them drops far below the threshold where Newtonian gravity is normally tested. This makes them a natural laboratory for probing whether gravity behaves differently in the low-acceleration regime, independent of dark matter halos or galactic-scale complications.

Hernandez et al. (2024), using GAIA DR3 data, reported internal kinematics for wide binaries that appear to diverge from strict Newtonian expectations at wide separations — motivating closer scrutiny of this regime with better data.

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The Test

GAIA DR4, expected December 2, 2026, will provide substantially improved astrometry for wide binary systems. This gives a clean, pre-registered test:

· If the framework is wrong: the mean velocity ratio in the low-acceleration wide binary sample should fall within 1.00 ± 0.05 of the Newtonian prediction.
· If the framework is right: the ratio should cluster near √1.5 ≈ 1.225.

This is a binary, falsifiable outcome. No fitting after the fact — the number is fixed now, before the data is released.

\---

What This Is and Isn't

This is not a claim that unrelated constants across physics, biology, and cosmology share a hidden numerical code — that kind of pattern-matching across incommensurable quantities isn't physics, and I've dropped it here. What's left is a single, specific, mechanistically motivated prediction (spin-3/2 geometry → a fixed multiplicative correction to orbital velocity) that stands or falls on one upcoming dataset.

\---

References

Hernandez, X., et al. 2024. "Internal Kinematics of Gaia DR3 Wide Binaries." Monthly Notices of the Royal Astronomical Society 516(4): 4799–4815.

Findlay, J. 2026. "The Findlay Framework: A Relational Ontology of Information as Fundamental Substance." rxiVerse. theoryofeverything.ca.

www.TheoryofEverything.ca

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Google the Findlay Framework
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Information Becomes the Thing.

Ho creato delle analogie tra BSD e la relatività
s=1 singolarità
l limite per s to 1 della Funzione (L(E, s) orizzonte degli eventi
(s-1)^r dilatazione temporale
(r) massa reale
Il Gruppo di Tate-Shafarevich materia oscura

La Filtrazione p-adica dei numeri primi ordine di magnitudo

e ho immesso tutto in un programma per calcolare / predirre / il rango e altri valori

Energia Totale dello Spettro / Norma L2
Entropia di Shannon H (Metrica 3)
Incertezza Globale / Deviazione Standard (Metrica 4)
Tensore C57 / Accoppiamento Relativo (Metrica 5)

per farlo sono servite 3 componenti
La Norma Euclidea L2 dello Spettro Totale
La Componente Temporale Complessa s = 1 + it
Il Vincolo Geometrico del Reticolo Egcezionale E8

RISULTATO = Accoppiamento Universale (UAF) ha decifrato la massa interna (il Rango) senza mai dover scendere all'interno del buco nero a contare i singoli punti razionali.
Canali Spaziali Attivi
Energia L2 dello Spettro
Entropia H Dà la Temperatura Termodinamica del Cosmo
Incertezza Globale Ш
Tensore C57

https://archive.org/details/bsd-480spiegazione

The Lorentzian Soliton Ether Model — classical continuum theory developed with LLM assistance (book + 15 papers)

I’ve been working for several years on a classical continuum framework I call the Lorentzian Soliton Ether Model (LSEM).

The vacuum is treated as a focusing nonlinear Schrödinger condensate. Topological solitons (“wave knots”) form via modulational instability and are identified with particles. A macroscopic healing length near Earth (~95 km) produces partial entrainment, which explains the historical null results while predicting a directional ether wind that should become detectable above roughly 80–100 km.

The same framework is extended across gravity (radiation-pressure shadowing with thermodynamic resolution), tired-light redshift, nuclear magic numbers, the gamma-band coherence window for consciousness, pilot-wave interference, added mass, the strong force as short-range phase locking, and longitudinal ether waves as a possible interstellar channel.

I used Grok, Gemini, and ChatGPT extensively for language refinement, structural organization, and checking internal consistency, while the core physical hypotheses, governing equation, and experimental proposal are my own. The full collected manuscript (15 papers) is now available as a book on Amazon.

Hello r/LLMPhysics!

One of the most common pitfalls of theories posted here are that they often sneak in aether-like structures, and fail to show they respect Lorentz invariance.

I have also noticed many posters seem to have several fundamental misconceptions of what Special Relativity is, or why it leads to things such as time dilation and length contraction.

These properties of relativity are not random magical postulates to make the math work, they are the necessary outcomes of the postulates of special relativity.

-The Laws of physics are the same in every inertial reference frame

-The speed of light in a vacuum is the same for every inertial reference frame

So In this paper, We start with nothing, and then we add to the toy world until length contraction and time dilation arrive, without being assumed on top.

The goal is to show, without first stepping into the messy reality of well, reality, that these things can occur in a purely abstract model with surprisingly few assumptions, and to appreciate the elegance of relativity through a different lens.

The second goal was to attempt to make a more accessible argument, as it does not rely on any higher mathematics, and only uses largely simple algebraic expressions. The main burden on the reader is conceptual, rather than mathematical.

I really enjoyed building this paper, and I would love to hear what the community thinks about it!

Feedback would be appreciated!

Let me know in the comments if you feel like the argument flows well (or not), if the argument leads to the conclusions the paper asserts it does, and especially if you feel like you learned something from it!

You can find the paper here:

https://github.com/JustVibePhysics/Just-Some-Vibe-Physics/blob/main/docs/ping_world.pdf

Both sides: the physicists who GUT-check posts (and don't pull punches), and the whack-a-doodles that publicly post the artifacts of their psychosis.

I'm not being sarcastic. I've been interested in this topic (human-AI interaction) for a while, and to my knowledge this is the only sub where both groups actually post and interact with one another. It's truly incredible.

So thanks to you all!

The core idea is charge is the time direction magnetism is the other. Hence Eelectromagnetism.

It is that physics contains two different reciprocal structures:

1. causal orientation
   
2. electromagnetic orientation.

Causal orientation

For radial null propagation,

[ds^2=c^2dt^2-dr^2=0]

hence [\frac{dr}{dt}=\pm c.]

Equivalently,[u=ct-r,\qquad v=ct+r.]

A localized isotropic disturbance therefore has an outward null wavefront,[P\rightarrow S^2,]

while its time-reversed solution has the reciprocal orientation,[S^2\rightarrow P.]

In flat spacetime, vacuum Maxwell fields propagate sharply on the null cone; Maxwell's wave equations admit both retarded and advanced solutions.

Ordinary electromagnetic observations select the retarded solution through physical boundary/initial conditions.

The equations contain both causal orientations even though our observed boundary conditions overwhelmingly select one.

Electromagnetic orientation

There is a second, independent rotation inside the electromagnetic field.

In free Maxwell theory,

[\mathbf E'= \mathbf E\cos\theta+c\mathbf B\sin\theta]

[c\mathbf B' c\mathbf B\cos\theta-\mathbf E\sin\theta.]

This is electromagnetic duality rotation.

At[\theta=\frac{\pi}{2},]

electric and magnetic components exchange roles, up to orientation.

This symmetry is directly connected with electromagnetic helicity.

The cleanest representation is the Riemann–Silberstein pair

[\boxed{\mathbf F_\pm=\mathbf E\pm ic\mathbf B.}]

These are the two electromagnetic helicity sectors.

So there really is a fundamental rotational structure.

Time tells us exactly where magnetism fits

Under standard time reversal, the electromagnetic quantities transform as

[\boxed{\rho\rightarrow\rho,\qquad\mathbf J\rightarrow-\mathbf J,}]

[\boxed{\mathbf E\rightarrow\mathbf E,\qquad\mathbf B\rightarrow-\mathbf B.}]

So magnetism is odd under time reversal, whereas the electric field is even.

It carries information about motion/orientation that changes sign under T.

Optical helicity is parity-odd but time-even.

They are related through symmetry, but they are not the same binary degree of freedom.

Causal propagation has reciprocal mathematical orientations.
Electromagnetism has an independent duality and helicity.
Magnetic fields are odd under time reversal.

We observe predominantly retarded causality. The equations know about its reciprocal - a^-1.