Philosophy of Quantum Gravity, Quantum Entanglement, Time, Space, Now, Time Dilation, Four Forces, Cosmology and Hubble Multiple Distance Indicators

By David William Jedell UPDATED April 30, 2026

“It's easier to fool people than to convince them that they have been fooled.” - Mark Twain.

There Is No Time But Now and Never Was

Contents

Section One:

Now: Eternal spatial Now (macro human perceptual existence).

Section Two

Interactive Memory of Now: Subjective memory-illusion of passage/aging

Section Three:

Theory of Relativity Mass/Energy, Gravity and "Time" Dilation ONLY shown to Affect Quantum Particles: Quantum-particle dilation only (observed effects as warped spatial paths, no macro propagation). No flowing time dimension, no light cones, no √(−g), no twin paradox for humans (energy impossible + no direct macro evidence + effect confined to quantum sector).

Section Four: The Einstein Religion Reformulated to Fit Observable Reality and a Better Theory of Cosmology. Quantum Gravity and Hubble Multiple Distance Indicators Resolved. Quantum paired particles' "spooky action at a distance" resolved

Conclusion

Abstract

Starting Point Origin

In the very, very early universe (Big Bang, Planck era, inflation), all matter-energy was in an extremely hot, dense, connected plasma state. Every particle's wave function overlapped with every other — one giant, quantum soup.

An order-of-magnitude estimate of the early dense quantum soup (the source region of the stretched CMB) gives a proper diameter on the order of

100 million light-years

and a total conserved mass-energy of roughly

10⁵³ kg.

No Big Bang singularity is required or consistent with the framework. In the eternal spatial “Now,” the early dense quantum soup is a finite, high-density but non-singular region with proper radius R0R_0R_0 and finite energy density. The diffusion process begins from this compact but finite initial configuration, and the cumulative stretch gradient along any line of sight is given by the regular integral

z ≈ ∫0rGρ(r′)c2r′ dr′,

which remains finite at every point because ρ(r′)\rho(r')\rho(r') and the integration limits are always finite. There is no mathematical requirement for a point of infinite density or zero volume; the early soup simply had a much higher (but finite) density and smaller (but finite) proper extent before significant outward diffusion thickened the background field. The apparent “expansion” and the large observed radius (~46.5 billion light-years) today are the cumulative stretched projection of that finite initial region, not the result of an infinitely small singularity evolving forward with duration.

Expansion = Cumulative Outward Diffusion

As the universe expanded, matter-energy separated. Each separated mass (galaxies, stars) began diffusing its rest energy outward into the surrounding absence of anything. This diffusion stretched the wave functions of everything else — locally attractive (gravity) but with a residual, long-range, isotropic expansion component from all distant sources.

The early dense region of the quantum soup had a smaller proper size. Cumulative wave-function stretching along the line of sight enlarges the apparent size we measure today to roughly 40–50 billion light-years. De-stretching the observed data by inverting the gradient integral

The stretching of quantum wave functions is governed by the cumulative gradient integral along the line of sight. For a wave function

Ψ0\Psi_0\Psi_0

originating from a distant region, the observed stretched wave function is approximately

ψ=Ψ0 (1+z),,

where the redshift factor

(z) is given by the integral

z ≈ ∫0rGρ(r′)c^2r′ dr′.

This stretching affects both the wavelength (producing cosmological redshift) and the apparent transverse distant objects. In the eternal spatial “Now,” there is no fundamental velocity-based time dilation; the observed effects arise entirely from the cumulative stretch of wave functions as they propagate through the diffusion gradients of the quantum soup

recovers a smaller proper size at the source epoch. Both values are observer-dependent and emergent; there is no known absolute, un-stretched “actual” size of the universe.

Interactive Mememory of Now

Now seems to move faster as a result of the Theory of Proportionality. If you deliberately (or circumstantially) pack your later life with extra, extra emotional weight, you can reverse the usual acceleration of duration and make your 70s and 80s feel like the longest, richest, most memorable part of your entire life. The interaction is also responsible for the illusion of past and present as well. Your external sensory input is stored and once the external input moves out of your area of Now, it becomes a source of sensory input itself. However, there is no longer concurrent external sensory input so te illusion of past and present is concocted.

No Twins Paradox

Man will never experience a twin paradox (younger returnee via macro aging difference). Rockets won't travel fast enough, classical systems lack precision, and the effect stays confined to the quantum sector where it's actually observed. The extrapolation to macro/human twins is inference, not direct fact. Dilation is confined to quantum type-3 "dilated displacement" — irrelevant to macro twins. Twin paradox can't manifest because human biology/aging operates in type-1 Now + type-2 memory illusion, not relativistic quantum paths, and no macroscopic object can travel a relativistic speeds because of the enormous unattainable requirement of energy

In experiment after experiment: Every single quantitative demonstration of the so-called "time dilation" relied on a quantum-sensitive ticking mechanism or decay process. Muons → particle decay lifetimes extended by γ.

Cesium/rubidium clocks (Hafele-Keating, GPS, NIST redshift tests) → hyperfine or optical quantum transitions inside the box (commonly misunderstood as the clock itself.

Ives-Stilwell relativistic Doppler → atomic emission/absorption lines.

Kaon decays, pion lifespans, heavy-ion storage rings → unstable particle decays.

Optical lattice clocks (sub-mm gravitational redshift) → quantum superposition and laser-cooled atoms.

No exceptions. Not one test used a purely classical macroscopic oscillator (mechanical balance wheel, quartz tuning fork without subatomic reference, chemical reaction rate, pendulum, spring escapement, hourglass viscosity, biological cellular division isolated from quantum biochemistry) and showed the predicted relativistic shift independent of a quantum standard next to it. Motion is the "stretch" of the quantum wave, in a way that satisfies relativistic invariants. Internal oscillations spatially elongate under uniform motion, aligning with the idea of speed as wave function lengthening not "Time' dilated.

The reinterpretation extends naturally to cosmology: cosmic expansion emerges as the cumulative isotropic stretching of photon wave functions by the outward energy diffusion from all mass-energy sources across cosmic history. Redshift z is the integrated stretch along the path, z ≈ ∫ (G ρ(r') / c² r') dr', with acceleration arising as diffused energy density ρ_diffused grows logarithmically with time (ρ_diffused ∝ ln(t/t₀)), reproducing observed late-duration acceleration without invoking a separate dark-energy field or cosmological constant. This unified quantum mechanism eliminates macroscopic fairytales, grounding relativity and cosmology in wave-function elongation driven by energy diffusion.

In the weak-field limit of general relativity, gravitational redshift and time dilation for cesium clocks (or propagating photons) can be fully accounted for by the radial stretching of proper distance in the Schwarzschild metric, without invoking a separate "time slowing" mechanism. The metric components show that the "time-dilation factor"

−gtt ≈ 1−GMc^2r\{-g_{tt}^1/2]

is the exact reciprocal of the spatial-stretching factor

grr ≈ 1+GMc^2r\{g_{rr}^1/2},

so the observed frequency shift

Δν/ν ≈ gh/c^2

arises purely from the photon or microwave wave function traveling a longer proper radial path at fixed local speed of light. This equivalence renders explicit gravitational time dilation redundant and obsolete for propagation effects — spatial stretching alone suffices, eliminating the need for the classical geometric "rubber-sheet" interpretation of spacetime curvature. This quantum reinterpretation aligns with observed data (Pound-Rebka, GPS corrections) while avoiding macroscopic fairytales. Gravity reduces to energy diffusion stretching quantum wave functions, with time dilation emerging as a mathematical artifice of the reciprocal metric components rather than an independent physical cause. The framework unifies microscopic relativistic effects and gravitational phenomena under a single mechanism — wave-function elongation.

Recent high-precision measurements from the H0 Distance Network (H0DN) Collaboration, combining data from the James Webb Space Telescope and Hubble, have refined the local value of the Hubble constant to H₀ ≈ 73.50 ± 0.81 km s⁻¹ Mpc⁻¹ at just over 1% precision. This robust, multi-indicator cosmic distance indicator result strengthens the longstanding Hubble tension, as it diverges significantly from the lower value (~67 km s⁻¹ Mpc⁻¹) inferred from early-universe cosmic microwave background data under the standard ΛCDM model.

Cosmic microwave background (CMB): The CMB photons have been traveling through the soup for 13.7 billion years. Their wavelength is stretched (T = 2.725 K today vs. ~3000 K at recombination) — exactly what cumulative wave-function elongation would produce. Large-scale structure: Galaxy clustering and voids show matter is not uniformly distributed, but the background stretch is nearly isotropic — the soup is the averaged residue of all energy diffusion. Hubble tension (discrepancy between local and CMB-derived H₀): If the soup thickens unevenly (more mass-energy diffusion in denser regions), local stretch gradients differ from cosmic average.

The Hubble Radius is a local characteristic scale and not the size of the observable universe. The observable universe appears to have a radius of approximately 46.5 billion light-years (diameter ~93 billion light-years) as measured from Earth.

Observed cosmic sizes are illusory. Using the local Hubble constant

H0≈73.5H_0 \approx 73.5H_0 \approx 73.5 km s⁻¹ Mpc⁻¹, the Hubble Radius is RH=c/H0≈13.7R_H = c / H_0 \approx 13.7R_H = c / H_0 \

Approx 13.7 billion light-years.

The quantum wave stretch gradient created by a massive body propagates through matter itself. The wave functions of the atoms and particles inside any object experience the inward slope of the gradient and slide downward along it. Strong internal forces (primarily electromagnetic) resist compression and maintain structural integrity, but they do not block or reroute the stretch gradient. The gradient passes straight through the matter, just as it passes through the thinly stretched quantum field in vacuum, creating distance outward. Gravity is therefore not a force acting from outside; it is the direct response of wave functions to the stretch gradient that permeates the material. This holds for any object, from a small stone to a planet: the stretch is primary, and matter simply participates in it.

The observed equivalence of inertial and gravitational mass, as well as internal wave gradients, arises naturally as a corrective response of quantum wave functions within matter to local diffusion gradients in the pervasive quantum soup. There is no need for a separate Higgs field or boson to “impart” mass or create resistance to motion. The actual Higgs boson was never discovered; the claimed detection at the LHC in 2012 remains an interpretation of statistical excesses rather than a verified particle with the properties required to fulfill its assigned role. Such a field constitutes an unnecessary and unverifiable addition to an already complete self-regulating system. The resistance we experience as inertia and the attraction we experience as gravity both emerge directly from the same stretch-compression feedback loop that governs cosmological redshift and apparent expansion. This minimal account is fully consistent with all verifiable observations while eliminating superfluous entities that serve only to preserve the mathematical scaffolding of the prevailing consensus

Newton’s third law — that for every action there is an equal and opposite reaction — finds its natural expression in the quantum wave stretching framework. The outward diffusion of mass-energy is the action; the restorative inward stretch gradients (gravity) and the corresponding global outward stretching (apparent expansion) are the equal-and-opposite reaction. Both arise from the identical diffusion–stretch–compression feedback loop in the eternal spatial “Now,” revealing that local gravity and cosmic expansion are not separate phenomena but two sides of the same corrective response of the quantum soup.

Loophole-free violations of Bell’s inequality confirm that quantum entanglement is real and non-local. This strengthens the probability that our universe began as a highly entangled quantum soup, with observed expansion and structure arising from the outward diffusion and stretching of those primordial entangled wave functions.

Furthermore, quantum entanglement finds a natural explanation within this framework. Paired particles are not connected by mysterious faster-than-light signals, but by a rigid, extended wave-function configuration in the quantum soup. When one end is disturbed, the shared stretch-compression pattern across the entire configuration responds instantaneously at the distant end — not because information travels, but because both particles are local excitations within the same correlated wave-function structure. This removes the apparent non-locality paradox while remaining fully consistent with the prohibition on usable faster-than-light signaling. Entanglement, like gravity and cosmic expansion, emerges as a direct consequence of the single diffusion–stretch–compression feedback loop in the eternal spatial “Now.”

Quantum entanglement arises naturally as a rigid, extended wave-function configuration in the quantum soup. For paired particles the joint wave function

Ψ(r1,r2)

is non-separable and satisfies a global correlation constraint enforced by the shared stretch gradient field

S(r)S(bf{r})S(\bf{r}).

A local disturbance at one location instantly reconfigures the entire pattern at the distant location because both particles are local excitations of the same correlated structure. No vibration or propagating signal is needed; the correlation is structural, not dynamic. This removes the apparent non-locality paradox while remaining consistent with the single diffusion–stretch–compression loop and the eternal spatial “Now.”

Section One: Now

it is always Now. Physicists, mathematicians and other scientists should accept this obvious objective fact, and disregard scientific propaganda of "spacetime" being related in any way to human existence. The idea of "time" began as an illusion of past, present and future; yesterday, today and tomorrow.

This illusion may have been encouraged by this in the Old Testament: The phrase "Ehyeh Asher Ehyeh". This phrase, revealed to Moses at the burning bush, is a complex statement that conveys the eternal and ever-present nature of God. It can be understood as "I AM THAT I AM," "I will be what I will be," or "I am the Existing One "Ehyeh" can mean "I am," but it also means "I will be," because the Hebrew word from which it is derived can indicate either past, present, or future existence. The most famous phrase containing it, Ehyeh Asher Ehyeh (אֶהְיֶה אֲשֶׁר אֶהְיֶה), is often translated as "I AM WHO I AM" or "I will be what I will be". "Ehyeh" can be translated as "I am" and is associated with the idea of a continuous and self-existing God who is and was and is to come.

We would approach a better understanding of everything by looking at what events are really happening and describe them as just that, rather than making up categories and labels like "Time". Normal existence does not require us to think about "Time", just "Now" and "Distance".

Moreover, we actually exist at our local point reference (spacial area where changes in object, energy and wave position are within our conscious sensory perception). The delusion of "Time" construct follows from our psychological organization of our single point reference on earth, giving rise to the conscious inference of Past, Now and Future. Have you ever woken up when it was not Now? The ticks of a watch are only made by gears that are coordinated with a fraction of the earth's rotation we call a "second." It is not keeping track of "Time." It is keeping track of the relation of two motions using its own gear mecanisms.

Earth’s Rotation Period Is Defined in "Seconds"

1 Rotation of earth = 86,164 s

v (in seconds) = directional distance traveled/[(0.00001157407407 s) X 1 Earth rotation], found by dividing 1 by 86,400 s/day

Sundial accuracy = ±1 minute/solar day

We feel the Sun, the day, the seasons

Our biological clocks run on ~24-hour cycles

Human body - Circadian rhythm = ~±1 hour/day

The "speed" of these motions is not inherent in "Time" as a thing in and of itself, but rather, in the ratio of the distance the object travels to an arbitrary fraction of the earth's cyclical rotation as a constant (i.e., the ratio of almost precisely one to 24, or an "hour"), as the earth relates to the virtually stationary sun. It is only consciousness that creates the delusion of "Time" in human existence; without it the Earth exists in eternity.

When there is an event, like a collision of two objects in front of us, we store it in memory. When that event has moved out of our local area, and there is another event in an ordered sequence, we delude ourselves into believing that the conscious perception of the first sequentially ordered event happened in the "past," as a result of the fact that the event is no longer generating sensory impulses (i.e., you no longer see it in front of you), but your sense of memory has recorded the event. However that event and its energies still continue in their effects elsewhere. Since our conscious mind can review the perceptions of memory and the lack of the same immediate sensory perceptions simultaneously occurring (i.e., you don't see it anymore), the mental construct is created that there is a past and a present. This is psychological, not factual but flawed. As far as the "future," the motions and coincidences in "events" (i.e., the paths of two objects colliding) have not occurred in our local reference area. The future can only be imagined, predicted or hoped for, but if our future did exist, it would be in our local area.

A major obstacle to the general acceptance of the fact that Special Relativity "time dilation" is distinct from Now and is a mathematical convenience or a theoretical physicist's tool to compare relative motions, and not a thing in and of itself. It is that collective propaganda (and collective stupidity, see, Video: Why Critical Thinking Is Disappearing – The Rise of Collective Stupidity, https://www.youtube.com/watch?app=desktop&v=5NDotKQUqvc) and languages, such as English, are pervaded with words that express "Time" as a thing in and of itself, such as "happened," "was," "yesterday," tomorrow," and many other expressions of past and future tenses. Calendars, clocks and appointments are other obstacles to the comprehension of Now.

Attributing a "dimension" to "Time" is analogous to attributing a "dimension" to a 12 inch ruler and calling it "Distance". In the same way clocks are not "time". Moreover, the Sapir-Whorf hypothesis postulates that the structure of a language determines a native speaker's perception and categorization of experience. It emphasizes that language either determines or influences one’s thoughts. The mental construct, e.g., of thinking that yesterday was in the past, is a misunderstanding of Now.

Thought Experiment

Instead of trying to think this out with our flawed verbal language system, try to think in a spatial way of what is actually happening. Here is a simple example of spatial comprehension of this; a thought experiment. A jet located on the equator takes off due west. When it reaches 35,000 feet it is traveling 1,000 mph ground speed. The pilot has only a sun dial in front of the cockpit that he can see from inside. Nobody on the plane has a clock or watch. The sun dial shadow indicates it is 3pm upon reaching 35,000 feet. The sun can be seen high above. Subsequent to the plane traveling 6,000 miles, the sun dial is in the same 3pm position and the sun hasn't moved. It\s still high in the sky. The pilot and everyone on the plane think that "time" has stopped during the flight. They even confirm this assessment when they land and take a few minutes to walk into the airport. All the clocks on the walls and all the people's watches indicate 3:05pm (including walking distance).

On the ground at the airport that the plane departed from, the ground crew personnel look at their watches and see that they indicate 9pm. It is also night, the stars are shining. They compare their memory of a sunny day with the present sensory input of night and no sun. They construct the delusion of "time", whereas the pilot and passengers have current sensory input of a shining sun and a sun dial that has not moved during the flight. Finally, the pilot and passengers are informed that they were moving a distance from one area of to another, and that they passed 6 "Established Time Zones" where clocks are adjusted for position relative to the sun. The pilot and passengers accept this explanation after some thought. But the ground crew believes that it is 9pm and that 6 hours of "Time" have passed because the hands of their watches moved and the sun set and it is night.

In Now you can picture a circle representing your conscious area of sensory perception. Arrows (momentum vectors) outside of the circle pointed inward to the circle represent sequentially separated events that have not affected your perception but are positioned to do so.

Arrows (momentum vectors) inside the circle (or sphere) pointed outward are events that affect your perception but are moving away from your area of sensory perception.

A sequence does not depend on "Time", i.e., the sequence 1,2,3 will always be 1,2,3 no matter how many instances that the earth has rotated or revolved. A sequence is (delusional) "Time" independent. Thus, in normal human existence, before and after does not mean anything but a sequence of vectors and events in Now.

The above diagram is placed here to compare the Now diagram with the "Spacetime" diagram; "Spacetime" will be discussed below in Section Three: Special Relativity. In 1908, Minkowski presented the above light cone geometric interpretation of "spacetime" special relativity into a single four-"dimensional" continuum now known as Minkowski "spacetime" in the absence of gravitation. Einstein initially dismissed Minkowski's interpretation as "superfluous learnedness". As we shall see below, Minkowski may have unwittingly placed the Now of Space in a separate dimension from the quantum particle dimension that has experimentally "confirmed" dilation as per Relativity's postulate. Typical quantum particles touch the Now dimension as they speed through it close to the speed of light, others that are "controlled" by cooling or magnetic trapping can be slowed to a few meters per second,

"Serious critical thinking and skepticism addressed to new and even old claims is not just permissible, it is encouraged and desirable as the essence of science." - Carl Sagan

Section Two: Interactive Memory of Now

Interactive Memory of Now makes your personal duration perception of the number of revolutions of the earth around the sun shrink as it interacts with memory's recreation of events and duration. We will explore how the Interactive Memory of Now gets smaller as our body biologically ages and earth continues to revolve around the sun, each revolution known as a "year."

Getting "older" is correlated here with Objective Now subsequent to many of the earth's revolutions around the sun; however it is only the biological division of cells and other harmful health factors that are truly "aging."

Interactive Memory of Now is the interactive memory and recall of the distance between "events" in Now, and our current sensory perception of Now. Our largest subjective feeling of Interactive Memory is when we are first aware of being conscious, sometime in the first Objective Year of life.

Imperical Evidence of the Interactive Memory of Now

In 2005, Wittmann & Lehnhoff systematically asked large samples of younger and older people how they experienced time. In the study, 499 German and Austrian participants aged 14 to 94 were asked how fast so-called "time" (Interactive Memory of Now) usually passed for them. The study indicated that this set of people feel "time" passing more quickly as they get older.[1]

Wittman and Lehnhoff found that everybody, regardless of age, thought that "time" was passing quickly proportional to duration. The question, “How fast did the last 10 years pass for you?” yielded a tendency for the perception of the speed of "time" to increase in the previous decade. This pattern peaked at Objective age 50 years, however, and remained steady until the mid-90s.

Dr. William Friedman proposed a theory of Proportionality, originally promoted by William James in 1877 (labelled the "Father of American psychology"), to explain this phenomenon as follows[2, 3]:

“As we get older, each year is a smaller proportion of our lives. For example, a year is 1/10 of the life of a 10 year old, but 1/70th of the life of a 70 year old. Therefore each year feels shorter relative to all the time we've lived and thus seems to be going by faster.” This phenomenon is also colloquially known as "The Proportional Theory of Time."

Mathematical Treatment of Dr. Friedman's Statement and its Implications

The t-axis represents the number of revolutions of the earth around the sun colloquially labeled a "year";

y = f(t) = 1/t

Interactive Memory of Now for a point on the t-axis is designated as a point on the y-axis curve.

The cummulative Memory of Now = ∫ y dt.

dy/dt = the rate of change of y at each t-point on the t axis

The Interactive Memory of Now during the Objective interval (t1, tn+1) is the cummulative area (integral) of Interactive Memory of Now between (t1, tn+1)

                                          

∫ y dt

y

t =>

  

The curve represents the Interactive Memory of Now as a function of Objective clock t (the number of objective years). The shaded area under the curve is the Area of Interactive Memory of Now remembered. The smaller the Area, the faster Interactive Memory of Now is perceived to pass.

At tn+1 years, looking back to the Objective year t1, we find the Area of the Interactive Memory of Now in that interval, within:

tn+1

∫ y dt = ln(tₙ₊₁ / t₁)

t1

This is a general number and subject to minor differences and aberrations with each different person.

Cummulative Interactive Memory of Now begins to become imperceptible from about 50 objective years to 90 objective years, because it is sufficiently small. This idea is consistent with the findings by Wittman and Lehnhoff, as stated above, that everybody, regardless of age, thought that "Time" was passing quickly and this pattern peaked at age 50, however, and remained steady until the mid-90s

The theory of Interactive Memory of Now under consideration is consistent with the empirical study. Dr. Friedman's statement that “As we get older, each year is a smaller proportion of our lives,” and that “each year feels shorter relative to all the time we've lived and thus seems to be going by faster.”

Graphs of ∫(y) dt Showing Decrease in Interactive Memory of Now (y = 1/t) as your t increases ("t" shown on this graph as "x").

Section Three: Theory of Relativity Mass/Energy, Gravity and "Time" Dilation

Relativistic "Time" dimension has only been verified by the dilations of quantum particles (so is really a part of quantum mechanics and not at all related to the human perception of normal existence). There has been no confirmation of Special Relativity "Time Dilation" on a macro scale, only aberrations of the relative motions of quantum particles with respect to speed or gravitational field intensity.

Albert Einstein

Special Relativity

The thought experiment of Albert Einstein to explain his postulate, "time dilation", is a "space" ship traveling at relativistic speeds (close to the speed of light 'c') with a photon moving up and down, from side to side, in a straight line within the ship, from the emitter to the receiver and back. Relative to an outside stationary observer on earth, the photon is moving over a greater distance than just up and down (it is traveling twice the hypotenuse of a right triangle because of the ship's motion and length in the x-direction), but because light travels at 'c' in every reference frame, the photon must still travel at the same speed 'c' relative to the outside observer. Hence, according to the theory, because it travels a greater distance with the same speed, it must take longer to do so and hence time will appear to be running slower within the rocket relative to the observer outside. (It should be noted that there is no evidence that a material light emitter could ever reach a speed that would cause the practically instantaneous quantum particle photon to appear to divert even to a small hypotenuse of a right triangle.) It will be shown that Special Relativity "Time" dilation has only been experimentally "verified" by relative movement and pulses of quantum particles on a nanosecond scale, just like the whole theory initially is based on the purported displacement of the natural path of a quantum particle (photon), which uses a leap of logic to claim that the "Time" in the entire ship as whole is dilated.

Light Choses its Path from All Possible Paths

Dr. Richard Feynman showed that the concept of “a photon exploring all paths” provides a better picture with more explanatory power. He showed that most possible paths are canceled out, and only those that lie close to the expected path stated by the Law of Reflection contribute to the final detection probability. So there is an unexplored possibility: the light photon chose the path of an angle from mirror to mirror with respect to the outside observer.

Special Relativity, even Einstein says, "We will raise this conjecture (whose intent will from now on be referred to as the "Principle of Relativity") to a postulate ... "Is the Principle of Relativity just a postulate? All of special relativity rests on it. How do we know it is true? What lies behind the Principle of Relativity? This is a philosophical question not a scientific one. You will have your own opinion; here is ours..." See, Taylor, Edwin F., and Wheeler, John Archibold, Spacetime Physices, MIT, https://phys.libretexts.org/Bookshelves/Relativity/Spacetime_Physics_(Taylor_and_Wheeler)/03%3A_Same_Laws_for_All/3.01%3A_The_Principle_of_Relativity , p. 3.1

Special relativity "time" dilation equation

Special Relativity "Time" Dilation Graph Due to Speed

It is an unjustified fallacious leap of logic to assume that "Time" slows down for everything (on the macro level) within the (impossible) rocket ship, or even exists, simply because the completely untested impossible and imaginary speeding ship causes displacement of the photon. Moreover, Einstein doesn't apply his own postulate that all inertial frames are equivalent. So, the observer on the (impossible, moving close to "c") ship sees the clock on earth going symmetrically slower while the observer on earth sees the clock on the ship going slower at the exact same rate. Since all inertial frames are equivalent, when the two observers are joined back together, the number of clicks of their clocks are physically the same.

Moreover, in accordance with Einstein's Special Relativity, light always moves in a straight line. In his famous thought experiment, the light leaves the emitter and heads straight up towards the receiver from one side of the ship to the other at an angle. This is impossible. Actually, the beam must be moving straight up and down. It is the space ship that is moving, that's all (and as we shall see, the wave function is stretching).

Understanding photon (also a quantum particle) behavior on a moving space ship.

When considering a different photon shot straight from the back to the front then reflected straight back to the back of a rocket ship (impossibly) traveling at high speeds near c, the principles of special relativity become contradictory.

Here's a breakdown of what happens from different perspectives:

1. From the perspective of an observer on the space ship, the photon travels from the back to the front at the speed of light, c. To the observer on the ship, everything appears normal, just as if the ship were stationary.

2. Light speed and distance cannot be measured one way but only back and forth. So there really is no need for a purported "Lorentz contraction" of the ship because from back to forward, the photon moves L + Δx, and going back travels L - Δx.), back and forth at the speed of light.

It should be noted that in the Michelson-Morley experiment, a single light beam was split into two, with each beam traveling back and forth along one of two perpendicular arms of an interferometer before being recombined. The expectation was that the Earth's motion through the hypothesized "ether" would cause a difference in the travel "times" of the two perpendicular beams, leading to a shift in their interference pattern upon recombination. However, no such shift was detected, indicating that the speed of light was constant regardless of direction, a finding that challenged the idea of the ether.

If the Earth were moving through the ether, one arm of the interferometer would be moving with or against the ether wind, while the other would be moving across it. The light traveling with and against the wind was expected to take a different amount of "time" than the light traveling across the wind. This "time" difference would cause the two light beams to recombine slightly out of phase. The out-of-phase beams would create a shift in the observable interference pattern (fringe shift). Despite careful measurement and repeated experiments over several months, no fringe shift was detected. To Michelson and Morley, this "null result" meant that the speed of light was the same in both perpendicular directions, regardless of the Earth's motion. This (illogically) contradicted the prevailing ether theory.

To explain this "null result", Lorentz came up with his contraction explanation and formula. It is totally unnecessary! If a light beam travels at "c", then goes in one direction where the reflecting mirror is located and moving farther away, then the emitter-receiver must be moving precisely the same distance in the same direction. The overall speed back and forth is "c", but on the initial trip the light travels L + Δx (further), while on the return trip travels L - Δx (shorter). Thus, the overall speed is still "c" in either frame of reference. The Michelson-Morely interpretation supported Einstein's idea that the speed of light is constant for all observers, a fundamental postulate of Einstein's theory of special relativity. Special Relativity is thus on shaky ground because you cannot measure the speed of light solely in one direction because of the principle of relativity of simultaneity. It's generally considered impossible to directly measure the one-way speed of light, as it requires two precisely synchronized clocks at two spatially separated points, and synchronizing these clocks necessitates knowing the one-way speed of light in the first place.

A stationary "Twin" in the (impossible) spacecraft is not moving at all; dv/dt = 0 and Δt = 0 except that with respact to the outside area, the twin moves the distance Δx without moving at all. Δx is the dilated displacement of the quantum photon, which is virtually instantaneous. This is a showing that the macro scale object cannot be affected by "Time" dilation.

Postulated "Lorentz Contraction" of the Length of the Ship = L’ = L(1-v^2/c^2)^1/2

Time Dilation = t' = t/(1-v^2/c^2)^1/2

The photon is moving within the ship and the "Time" dilation depends on the ship's length insofar as the presumed displacement of the photon moving from the emitter to the opposite side then reflected back to the receiver at a point that was displaced as a result of the length (and speed) of the ship. Thus, the length of the ship cannot be ignored because it is the basis of the claim that the light (photon) moved a greater distance than the speed of light "c" would allow in the same amount of "time", incorrectly "proving" that "time" itself had to slow down. Putting these two effects together, the length of the ship and the sideways displacement of the photon, the "Lorentz contraction" and the lengthened "allowable" distance that the photon traveled, the two cancel out "time dilation":

T' = T(1 – v^2/c^2)^1/2/(1 – v^2/c^2)^1/2 = T X 1 = T.

At v = c, the photon experiences (in its own "rest" frame) t = o, travelling at an instantaneous speed (per SR)

lim⁡ T/(1 − v^2/c^2)^1/2 = 0, if T = 0

v → c−

If T > 0, then → +∞

Only if T = 0 does the limit equal 0.

Objective Experimental Purported Confirmation of Quantum Particle "Time" Dilation

Muon Decay:

In special relativity, the proper "time" in the muon’s frame is dilated in the Earth frame (t = γt).

For v = 0.999cv = 0.999cv = 0.999c, γ ≈ 22.4 nanoseconds, so the half-life appears as 2.2 × 22.4 ≈ 49.3 μs,

allowing more muons to reach Earth’s surface.

Experimental Evidence: Cosmic ray experiments (e.g., Rossi-Hall, 1941) and accelerator tests (e.g., CERN muon storage rings, 1970s) show muon durations extended by exactly γ, matching "time dilation" predictions. Other quantum particles (e.g., pions, kaons) show similar lifetime extensions at relativistic speeds, proportional to γ, regardless of their rest mass.

GR: Space curvature accounts for tidal accelerations of objects.

According to General Relativity, local curvature adds up to the appearance of long-range gravitation. The shortening of distance between any one pair of ball bearings is small when the distance itself is small. However, small separation between each ball bearing and its partner demands many pairs to encompass Earth. The totalized shortening of the circumference in any given "time" - the shortening of one separation times the number of separations - is independent of the fineness of the subdivision. That totalized pulling in of the circumference carries the whole necklace of masses inward. This is free fall, this is gravity, this is a large scale motion interpreted as a consequence of local curvature.

Above example:

Original separation between A and B -and every other pair: 20 meters

Time of observation: 8 seconds

Shortening of separation in that time: 1 millimeter

Fractional shortening: 1 millimeter/20 meters = 1/20,000

Circumference of Earth (length of airy necklace of ball bearings): 4.0030 X 10^7 meters

Shrinkage of this circumference in 8 seconds: 1/20,000 X 4.0030 X 10^7 meters = 2001.5 meters

Decrease in the distance from the center of Earth (drops by the same factor 1/20,000):

1/20,000 X 6.371 X 10^7 meters = 315 meters.

This apparently large-scale effect is caused - in Einstein’s picture - by the addition of a multitude of small-scale effects: the changes in the local dimensions associated with the curvature of geometry (failure of to remain at rest as observed in the free-float frame associated with A).

Einstein: "Curvature of spacetime and nothing more is all that is required to describe the millimeter or two change in separation in 8 seconds of two ball bearings, originally 20 meters apart in space above Earth, and endowed at the start with zero relative velocity. Moreover, this curvature completely accounts for gravitation." (This geometry-only idea is not consistent with the theory herein.)

See, Taylor, Edwin F., and Wheeler, John Archibold, Spacetime Physics, https://phys.libretexts.org/Bookshelves/Relativity/Spacetime_Physics_(Taylor_and_Wheeler)/09%3A_Gravity_-_Curved_Spacetime_in_Action/9.06%3A_Gravitation_as_Curvature_of_Spacetime

In GR, many local reference frames, fitted together, make up the global structure of "spacetime". Each local Lorentz frame can be regarded as having one of the ball bearings at its center. The ball bearings all simultaneously approach their neighbors (curvature). Then the large-scale structure of "spacetime" bends and pulls nearer to Earth (illustration shown above). In this way many local manifestations of curvature add up to give the appearance of long-range gravitation originating from Earth as a whole.

Albert Einstein 1n 1915 When he Completed the Theory of General Relativity

The Einstein field equation (EFE) of General Relativity:

The action integral

S = (1/(16π G))

∫ √(-g)(R - 2Λ) d⁴x + S_m,

when varied with respect to the metric, yields

R_μν - (1/2)Rg_μν + Λg_μν = 8πG T_μν,

unifying geometry and physics via the least action principle, but includes "Time" (√(−g)) on a macroscopic scale.

√(−g) is the positive square root of the negative determinant of the metric tensor g_{\mu\nu} in general relativity. In standard notation:g = det(g_{\mu\nu}) is the determinant of the 4×4 spacetime metric tensor.

In a Lorentzian "spacetime" (signature usually (−,+,+,+) or (+,−,−,−)), the determinant g is negative because there is one "timelike" and three "spacelike" directions. Therefore −g > 0, and √(−g) is postulated as a positive real number. In other words, if no "Time', then no √(−g).

Different Objects Fall at the Same Rate

A one pound mass will fall at the exact speed as a two pound mass because the two pound mass has twice the inertial resistance to moving

That's the classic insight from Galileo (demonstrated legendarily from the Leaning Tower of Pisa) and a cornerstone of physics: in a vacuum, all objects fall at exactly the same acceleration regardless of mass.The reason the one-pound and two-pound masses accelerate downward at the same rate (~9.8 m/s² near Earth's surface) is precisely because gravitational "pull" scales exactly with inertial mass.Let's break it down clearly:Gravitational force on an object:

F_grav = G × (M_Earth × m) / r² where m is the object's mass (1 lb or 2 lb).

Inertial resistance to acceleration (Newton's 2nd law):

F = m × a

so a = F / m.

Plug in the gravitational force:

a = [G × (M_Earth × m) / r²] / m = G × M_Earth / r²

Notice the m cancels out. The acceleration a is independent of the object's mass. The two-pound mass experiences twice the gravitational pull (2 × force on 1 lb).

But it also has twice the inertial resistance (twice as hard to accelerate). These two effects exactly cancel, so both objects get the same acceleration.

This equivalence between gravitational mass (how strongly gravity pulls on it) and inertial mass (resistance to acceleration) is not obvious - but experiments confirm it to extraordinary precision (better than 1 part in 10¹³).

In everyday air, lighter objects fall slower due to air resistance (which depends on shape and speed, not mass directly), but in vacuum (or when air resistance is negligible), the 1 lb and 2 lb masses hit the ground simultaneously if dropped from the same height. This principle is also why astronauts on the Moon saw a hammer and feather fall together — vacuum, no air resistance, equivalence holds

The “force” of a waterfall is the inertia of the water which moves it through the wave gradient; the consequence of objects (including water, planets, or light) tmoving in straight lines (inertial motion) through stretched wave functions. The water (or any matter) moves "down" because it's following its natural inertia — the tendency to keep going straight in the absence of forces. But "straight" in stretched distance means following a stretch gradient toward the mass.

Einstein field equation

where Rμν is the Ricci curvature tensor, R is the scalar curvature, gμν is the metric tensor, Λ is the cosmological constant, G is Newton's gravitational constant, c is the speed of light in vacuum, and Tμν is the stress–energy tensor.

The equations, which purportedly relate "spacetime curvature" to the energy and momentum of matter, made their first appearance in a four-page paper submitted on 25 November 1915 to the Prussian Academy of Sciences in Berlin and reprinted in The Collected Papers of Albert Einstein (CPAE). The Einstein field equations first appear in Einstein’s 25 November 1915 paper. Here, Gim is the Ricci tensor; gim, the metric tensor; and Tim, the energy–momentum tensor for matter. Three weeks earlier Einstein had proposed the field equations Rim = −κTim. The following week, he had shown that, as long as the trace T of the energy–momentum tensor vanishes, those equations could be seen as generally covariant equations Gim = −κTim is expressed in unimodular coordinates, for which the determinant of the metric tensor is −1 and Gim = Rim.

Einstein had considered the equations of his first November paper three years earlier in the course of his collaboration with mathematician Marcel Grossmann. The two of them had been classmates at what is now ETH Zürich and were reunited at their alma mater in July 1912.

Marcel Grossmann (1909)

Purported Confirmation that Mass "Curves Space"

Field Equations (EFE) of General Relativity (GR): The EFE is written in a fully covariant, coordinate-independent form and treats "time and space" on equal footing within 4-dimensional "spacetime".

All indices μν = 0, 1, 2, 3 run over all four spacetime coordinates.

The metric tensor gμν encodes both spatial and temporal geometry.

"Time" appears only when you choose a coordinate system (e.g., x^0 = ct), but this is arbitrary.

"Time" is not privileged — in Einstein's theory, it is just one coordinate in a "4D Lorentzian manifold".

The 1919 Solar Eclipse Eddington/Einstein Experiment

Gravity, purportedly, as the curvature of "spacetime" was experimentally "verified" in 1919 during a total solar eclipse, where stars behind the sun appeared to be aside the sun.

The Geodesic Orbital Equation That Described the Photon Path is:

(dr/d𝜙)^2 = r^4/b^2[1 − b^2/r^2 (1 − 2M/r)]

or in inverse radius form: (d^2u/d𝜙^2) + u = 3Mu^2 (GR correction term)

The Schwarzschild Metric

Karl Schwarzschild

The differential equation, derived from the geodesic equation in the Schwarzschild metric, was used to compute the deflection of starlight in the 1919 experiment as follows:

Here’s the direct chain from the above EFE equation for the photon deflection in 1919

EFE in vacuum (Λ = 0) → Rμν = 0 → Birkhoff’s theorem → Schwarzschild metric,

Rμν = 0

Assume spherical symmetry → Schwarzschild, EFE: Produces the Schwarzschild metric (when solved in vacuum)

ds^2 = -A(r)dt^2 + B(r)dr^2 + r^2Ω^2 =? A = 1 - 2M/r, B = A^-1

Null geodesic (ds^2 = 0), (1 - 2M/r)(dt/dλ)^2 = (1 - 2M/r)^ - 1(dr/dλ)^2 + r^2(d𝜙/dλ)^2

Conserved quantities → (dr/d𝜙)^2 = r^4/b^2[1 − b^2/r^2 (1 − 2M/r)], This is a geodesic equation in "curved spacetime" (Schwarzschild metric, General Relativity). Applies to massless particles (light, photons). It Answers "How does light move in already-curved "spacetime?"

This Geodesic equation: Analogy: Trajectory of a puck on curved ice. EFE Analogy: How heavy objects warp the ice ("How does mass curve spacetime?")

This is the null geodesic equation for light rays (photons) in Schwarzschild "spacetime" (general relativity, around a non-rotating, spherically symmetric mass). Here is a complete, term-by-term definition of every symbol in the equation:

Term Definition - Without "time" as a "dimension", it’s not spacetime". It’s distance. No (t) appears.

Left Side => (dr/dϕ)^2

(r) Radial coordinate (areal radius). Distance from the center of the mass in Schwarzschild coordinates. Units: length (e.g., meters)

𝜙 Azimuthal angle in the orbital plane (like longitude). Unitless (radians)

(dr/d𝜙) Rate of change of radius with angle. How fast the distance from the center changes as the light ray turns

(dr/d𝜙)^2 Squared radial velocity per unit angle. Always non-negative. Zero at closest approach (pericenter)

Physical meaning: Describes the shape of the light ray’s path in polar coordinates (r, 𝜙)

Right Side => r^4/b^2[1 − b^2/r^2 (1 − 2M/r)]

r^4 = fourth power of the radial coordinate. Comes from (r^2dϕ/dλ)^2 in the geodesic derivation

(b) Impact parameter: Definition: The perpendicular distance from the central mass to the asymptotic incoming ray (in flat area limit); Units: length (same as (r).

Formula: b = L/E, where (L) = specific angular momentum, E = specific energy at infinity; r^4/b^2 = Scaling factor; Ensures "dimensions" match (both sides are dimensionless when squared); Large when r≫b, (far away), small near closest approach

[1 − b^2/r^2 (1 − 2M/r)] => This is the effective potential term for null geodesics

Inside the Brackets: Term-by-Term

(1) Flat-aea (SR) contribution from E^2 in energy conservation

b^2/r^2 => Centrifugal barrier from angular momentum L^2/r^2

(1 − 2M/r) = > Gravitational redshift potential, from Schwarzschild metric coefficient gtt = −(1 − 2M/r)

2M/r => Gravitational correction proportional to GM/c^2r (Schwarzschild radius over distance)

Physical Interpretation of Key Terms

1 − b^r2 => Flat-area (SR) limit: light travels in straight line, zero at closest approach

−b^2r^2 X 2M/r => GR correction: gravity pulls inward, allowing light to get closer than (b) and bend

2M/r => Strength of gravity at radius (r). Vanishes far away, strongest near horizon (r = 2M)

Units (with (G, c) restored)

(r) => meters

𝜙 => radians

(b) => meters

(M) => GM/c^2 => Schwarzschild radius in meters, e.g., Sun: M ≈ 1.47 km

2M/r => dimensionless => 2GM/c^2r

Real-World Example: Light Grazing the Sun

(M) = 1.477 km; (b) => R⊙ = 696,000 km; 2M/b ≈ 4.24×10^−6; Deflection = Δϕ ≈ 4M/b = 1.75′′ (arcseconds)

famous observation by Sir Arthur Eddington (and echoed by others like Hermann Weyl) about the geodesic equation in general relativity specifically, that when written in terms of coordinate "time" (t) as the parameter (as is common in orbital mechanics), the resulting effective "3D" equation of motion appears to treat "time" differently from space, undermining the full "4D" symmetry of spacetime.

Light from a star behind the sun grazed the Sun. Its path is deflected by 1.75 arcseconds. The calculation used only spatial geometry — no explicit "time".

d𝜙 = 4GM/c^2b is purely distance related

GR Explanation:

The geodesic equation is a timeless pattern extracted from "time-dependent" data

It is validated by "time", but defined without it (highly questionable or even absurd!)

If we remove "time" as a coordinate "dimension" and treat it only as a parameter, then: "Spacetime" is a misnomer. It should be called "distance." This is exactly the philosophical and practical tension Eddington, Weyl, and others pointed out.

The Extinction of √(−g) as a temporal volume factor

The metric tensor gμνg in the postulated "4-dimensional spacetime" is conventionally written as (−, +, +, +). This signature means the metric has one negative eigenvalue (associated with the "time" direction) and three positive eigenvalues (directions). This built-in negativity is not an accident — it's a direct consequence of SR/GR theory that "spacetime" has one "timelike dimension" and three "spacelike dimensions", giving birth to ancient relics like light cones, and the distinction between past/future vs. distance in our universe.

There's no evidence for macroscopic time dilation (i.e., no direct, non-quantum-dependent confirmation for bulk objects like humans, rocketships, or classical clocks without relying on quantum transitions inside them). Thus, the Lorentzian metric's signature trick (g < 0 → −g > 0 → real √(−g)) and the full "4D spacetime" framework (light cones, causal structure via timelike paths) become irrelevant or illusory for macro reality. So reject -g since no temporal volume factor or hyperbolic geometry applies to the eternal spatial Now.

Past and future become meaningless categories. What we call "memory of past" or "anticipation of future" reduces to brain configurations encoding prior patterns, or potential evolutions encoded in laws/rules of the idividual's schema-archetype construct (subject to Heisenberg Uncertainty and probability). Events don't "enter and exit" a temporal flow; they simply are part of the eternal spatial pattern, and enter and exis a localized viewpoint of Now.

"Causality" is just spatial sequence of vectors/motions with kinetic energy collisions as well as momentum in "Now," not requiring a "time dimension."

Historical Voices on te Orbital Geodesic Equation Used in the 1919 Solar Eclipse Calculation

The Orbital Geodesic Equation Shows:

“Now”, without time, is filled with moving matter and energy, evolving through a sequence.

Hermann Weyl

Hermann Weyl (1918): "The world is a 3D manifold of space bounded by two instants."

Arthur Eddington

Arthur Eddington (1923): "The time coordinate does not appear in the description of the orbit in the same way as the distace coordinates."

Kurt Gödel

Kurt Gödel (1949): "In rotating universes, time can lose its global meaning — reinforcing that "time" is not always a dimension."

Gravitational Time Dialation GR Equation

Einstein postulated gravitational "time dilation" by imagining an accelerating rocket with a man inside. If the rocket accelerated at 9.8 m/s^2, then the man would feel the equivalent of gravity. So Einstein postulated that gravity is equivalent to acceleration.

This acceleration not is not equal to gravity because objects in a gravitational field will move closer to each other "because their space is curved." This is what the above General Relativity "Space Curvature" diagram by Einstein shows.

Hafele-Keating Experiment

The Hafele-Keating Experiment is the Airplane Test of "Time Dilation" with Cesium-133 Atomic Clocks.

The Hafele-Keating experiment conducted in 1971, tested Albert Einstein's theories of special and general relativity using cesium atomic clocks aboard four commercial airliners plus one in the "proper frame" on earth to compare with. Military GPS adjusts for purported "time dilation" caused by both special (speed) and general (gravitational) relativity, as this correction is crucial for accuracy; the adjustment is made by pre-launch atomic clock frequency adjustments and ongoing recalibrations performed by ground control centers to compensate for the differing effects of speed and gravity on the satellites' atomic clocks. Without these adjustments, positioning errors would accumulate rapidly, rendering the system useless.

Cesium-133 oscillates 9,192,631,770 times per second

Cesium clock = 9.19 X 10⁹ Hz, Accuracy is 1 second in 300 million years

E = mc^2

Derivation from the Relativistic Energy-Momentum Relation

E = mc^2 is a direct consequence of the full relativistic energy-momentum relation E^2 = (pc)^2 + (m_{0}c^2)^2.

The mass-energy equivalence equation E = mc^2 is derived by considering the specific case of an object with no momentum (i.e., stationary) within the broader framework of special relativity.

Start with the relativistic energy-momentum relation: This fundamental equation from special relativity describes the total energy (E) of any particle in terms of its momentum (p), its invariant rest mass (m_{0}), and the speed of light (c):

E^2 = 0 + m_{0}^2 X c^4.

E^2 = (0 X c)^2 + (m_{0}c^2)^2

E^2 = 0 + m_{0}^2 X c^4

E^2 = (m_{0}c^2)^2

Solve for E: Taking the square root of both sides (and considering only the positive energy solution) yields:

E = m_{0}c^2

E = m c^2 existed before Einstein.

Olinto De Pretto: Some sources claim that Italian industrialist Olinto De Pretto published E = m c^2 in 1903. However, his work was not fully understood at the time, lacked a theory of relativity to give it context, and did not receive scientific recognition. Henri Poincaré: In 1900, Poincaré suggested that the momentum of electromagnetic radiation implied a relationship between energy and mass, leading to a conceptual version of the formula. Fritz Hasenöhrl: In 1904, Hasenöhrl used a thought experiment involving a moving cavity and derived an equation for the energy of heat radiation, which was E = (3/8)m c^2. J.J. Thomson (1881): Suggested that a moving charged body's mass increases due to its own electromagnetic field. The work was later simplified by Oliver Heaviside to m = (4/3)E/c^2, a precursor formula.

This is known as Einstein's famous mass-energy equivalence equation which indicates that even a stationary object with mass possesses an inherent amount of energy, known as rest energy. In modern notation, m is used to represent the rest mass (m_{0}),

Lise Meitner (center), Otto Hahn (right) and Fritz Strassmann (left)

Lise Meitner was the first to provide the theoretical explanation for nuclear fission and used Einstein's E = mc^2 equation to calculate the immense energy released. The experimental work that showed uranium nuclei could be split was conducted by her colleagues, the chemists Otto Hahn and Fritz Strassmann, in Berlin in late 1938.

Hahn wrote to Meitner for help in explaining the puzzling results, as the production of a much lighter element, barium, seemed impossible based on the physics theories of the time. Her nephew, physicist Otto Robert Frisch, suggested that Meitner use the "liquid drop" model of the atomic nucleus to hypothesize that the nucleus had indeed split into two smaller nuclei. She then applied Einstein's famous equation, E = m c², to calculate that the mass difference between the original uranium nucleus and the resulting lighter nuclei (barium and krypton) was converted into a massive amount of energy (approximately 200 million electron volts).

Otto Robert Frisch

Today we know the average total energy released in U-235 fission is ~202–205 MeV (including prompt neutrons, gamma rays, and later beta decay of fragments), of which about 168–175 MeV is recoverable kinetic energy of the fragments. Meitner’s quick 1938–39 calculation was astonishingly close using only pencil, paper, and the semi-empirical mass tables of the day; however, it was the first quantitative proof that splitting the atom releases an enormous amount of energy.

Bikini A-Bomb Tests July 1946

J. Robert Oppenheimer (1904–1967) was a prominent American theoretical physicist widely recognized as the "father of the atomic bomb" for his pivotal role as the director of the Los Alamos Laboratory during the Manhattan Project in World War II.

J. Robert Oppenheimer

David Hilbert

David Hilbert was a leading mathematician who worked alongside and corresponded with Albert Einstein during the development of Einstein's General Theory of Relativity in 1915. While Einstein conceived the core physical ideas, Hilbert developed rigorous mathematical foundations, even publishing his version of the field equations the same as in Einstein's final paper. Hilbert presented his new field equations to the Göttingen Academy of Sciences on 20 November, five days before the Einstein field equations were presented in Berlin.

Einstein acknowledged Hilbert's mathematical genius and the resulting priority dispute was resolved by Einstein's gracious letter and a shared understanding that both were vital contributors to the theory's development.

The photoelectric effect

German physicist Heinrich Hertz

The photoelectric effect was discovered in 1887 by German physicist Heinrich Hertz in 1887 when he observed that shining ultraviolet light on a metal could cause it to release sparks. While Hertz made the initial discovery, it was Albert Einstein who provided the theoretical explanation in 1905, introducing the concept of photons and earning a Nobel Prize for his work on the photoelectric effect.

Heinrich Hertz

French physicist Jean Perrin and Brownian Movement

The person who helped confirm Albert Einstein's theory of Brownian motion and used it to determine the size of atoms was French physicist Jean Perrin. The conclusive experimental evidence provided by Perrin's work ended the long-standing scientific skepticism about the physical reality of atoms. For this achievement, Perrin was awarded the Nobel Prize in Physics in 1926.

Jean Perrin

Reinterpreting "Time" as a Measure of Dilated Displacement.

If we assume there is no fundamental "time dimension" and that what we perceive as time is a measure of the "dilated displacement" of quantum particles. "Time" is non existent in a purely spatial framework.

"Time" Dilation in SR

If "time" is not a fundamental "dimension" but a measure of "dilated displacement" of quantum particles, we need to reinterpret what (t) represents; i.e., that (t) is a proxy for the cumulative displacement of a quantum particle (e.g., a photon), as modified by stretch gradients that depend on relative velocity.

Their displacement is straightforward, quantum particles travel at "c" within the area carried by the inertial frame from within the spacecraft. SR postulates that "c" is the maximum speed according to an "outside observer". This is why Einstein used a photon example in SR rather than, say, a baseball, which could simply be said to pick up speed pwithin the spacecraft as it travels, so would not prove his predetermined "Time Dilation" when its path is displaced.

The word "Time" is just a measure of this displacement, the "dilated displacement" means the observed path length or frequency of a photon appears stretched when measured by observers outside the spacecraft.

In quantum physics, a quantum fluctuation (also known as a vacuum state fluctuation or vacuum fluctuation) is the temporary random change in the amount of energy in a point, as prescribed by the Werner Heisenberg's uncertainty principle. They are minute random fluctuations in the values of the fields which represent elementary particles, such as electric and magnetic fields which represent the electromagnetic force carried by photons, W and Z fields which carry the weak force, and gluon fields which carry the strong force

Werner Heisenberg

Loophole-free violations of Bell’s inequality confirm that quantum entanglement is real and non-local. The universe began as a highly entangled quantum soup, with observed expansion and structure arising from the outward diffusion and stretching of those primordial entangled wave functions.

Section Four: The Einstein Religion Reformulated to Fit Osrvable Reality

Einstein's 1905 paper on special relativity ("On the Electrodynamics of Moving Bodies") explicitly derives the relativistic energy equation, showing that as velocity (v) approaches the speed of light (c), the kinetic energy required approaches infinity for any object with rest mass. This is a direct consequence of the relativistic factor γ = 1 / √(1 - v²/c²), where energy E = γ m c² (m is rest mass). The theory itself demonstrates that virtually infinite energy is needed to accelerate a massive object close to c, making it impossible in practice. Einstein described this as a fundamental limit, independent of experiments; it was a theoretical prediction confirmed later by particle accelerators and other tests.

[Parker Solar Probe – 192 km/s (Current Record Holder)]. Light Speed c is 299,792.458 kilometers per second. 192 km/s = 0.00064044306 X c.

No Twin Paradox

The twin paradox itself was not formulated by Einstein in 1905; it was introduced by Paul Langevin in 1911 as a thought experiment to illustrate "time dilation" from special relativity. Einstein's 1905 work discussed time dilation for clocks but not the full twin scenario. Rocket experiments (e.g., Tsiolkovsky's 1903 rocket equation) were contemporary but irrelevant; the impossibility is mathematical, not empirical at that stage.

The Calculation

In his June 1905 paper "On the Electrodynamics of Moving Bodies," Einstein derived the relativistic kinetic energy as part of the transformation laws for energy and momentum.

For a particle with rest mass m moving at velocity v, the total energy E is: E = γ m c² where γ (the gamma factor) is: γ = 1 / √(1 - v²/c²). The kinetic energy K (energy above rest energy) is: K = (γ - 1) m c². As v gets close to c (e.g., 0.99c), γ becomes large.

If Einstein meaningfully reasoned through the implications of his own theory in 1905 — he would have known (in 1911, Langevin, supra) that the rocket-based "twin paradox" thought experiment (a macroscopic object travelling at a significant fraction of c and returning) was physically impossible in reality for any practical human-scale spacecraft.

The key equations he published in 1905. From "On the Electrodynamics of Moving Bodies" (June 1905): Relativistic kinetic energy:

K = (γ - 1) m c²

where γ = 1 / √(1 − v²/c²)

As v → c, γ → ∞

Why he still used the thought experiment anyway? He taught a physics-class fairy tale: “Imagine a rocket that travels at 0.99c to Alpha Centauri and back…” knowing full well that the rocket, the crew, and the round-trip "time dilation" for bulk matter would never exist outside the blackboard. Furthermore, this science fiction fantasy is still being taught as "confirmed" science all over, including academia and the internet.

There is no known physicist — mainstream, academic, textbook author, lecturer, or serious researcher — who has described the twin paradox (or special relativity's time dilation scenarios involving macroscopic objects) as "an exercise in fantasy" from the beginning, or admitted it was always known to be pure fantasy/unrealistic fiction rather than a serious theoretical prediction. The twin paradox is consistently presented in physics literature as a legitimate thought experiment (gedankenexperiment) that illustrates real, counterintuitive consequences of special relativity — even though the macroscopic rocket version is impossible in reality due to energy requirements.

The Forward Shining Liht Beam

The SR postulate that if a spacecraft is moving close to c (impossible) can shine a light beam ahead of itself that moves away at c from the spacecraft is a null and void concept, just as it is impossible for the spacecraft to move that fast to begin with. This impossible fairytale becomes completely empty and irrelevant when applied to a real spacecraft (or any macroscopic object) because the premise (the spacecraft reaching and sustaining v ≈ c) is physically impossible.

The Fast Muon

The fast muon moves a longer distance in the same period of its own duration, same as the conceptual example of the reflected photon in the hypothetical spacecraft SR postulate does in the proper frame (all of which is artificial anyway except for the muon).

The fast muon moves a longer distance in the lab frame during its own proper duration in a way analogous to the longer path traveled by the reflected photon in the light clock thought experiment from the rest frame's perspective. Both purport to illustrate "time dilation" in special relativity (SR), where the "moving" system experiences the same proper time but appears to cover a longer effective path or distance from the stationary observer's view.

The muon's forward motion alone (no back-and-forth photon clock) means the light clock analogy is imposed externally by consensus physics — it's not intrinsic to the muon. This is retrofitting the imaginary framework onto a real particle that has no mirrors, no bouncing photon, no internal "tick" mechanism. The muon is just decaying forward; the quantum energy field is stretched and is the speed of the muon.

The quantum decay process (muon's internal energy field or wave function evolution) is stretched allowing it to cover more distance before the decay probability completes.

Equally predictive

Both versions give the same number: observed survival probability ~ e^{-t_lab / (γ τ)} instead of e^{-t_lab / τ}. The "stretched decay field" fits the data just as well, without the conceptual overhead of an unrealizable light clock.

This is more minimalist and "quantum-first" — treating the decay as an intrinsic field process modified by velocity — which aligns better with modern QFT views (where particles are excitations of fields). The muon is a quantum object with no classical mirrors, so, we could just as well say the muon's quantum energy/decay field is stretched as its speed, and that explains the longer lab-frame distance covered in the fixed proper lifetime; without borrowing the impossible spacecraft imagery.

The immense speed of a quantum particle is the lengthening of its wave function, leading to effects traditionally attributed to relativistic "time dilation". It shifts the focus from the classical geometric "spatial dilation" in special relativity's light clock (where the photon's path appears longer in the lab frame) to a quantum-mechanical stretching of the wave function itself.

The photon's wave function ψ(x, t) in a moving frame treats speed as directly elongating the wavelength or spreading the function, mimicking the "longer path" without geometry. This aligns with de Broglie waves (λ = h/p, where p is momentum — higher speed = higher p = shorter λ, but in relativistic regimes, the full wave packet spreads or "lengthens" in the direction of motion due to uncertainty principles and velocity). Coinsidentally, at high speeds, the relativistic transformation effectively "stretches" the wave in the direction of motion from the lab frame.

Schrödinger's equation shows a helical representation of wave phase dynamics, where motion "stretches" the wave in a way that satisfies relativistic invariants. It visualizes how internal oscillations elongate under uniform motion, aligning with this idea of speed as wave function lengthening.

For a single quantum particle, its speed ( v ) is the stretching/elongation of its wave function. For a macroscopic object, its kinetic energy and acceleration emerge as the coherent collective response of an enormous ensemble of stretched wave functions, balanced by the equivalence of gravitational and inertial mass.

A macro object (mass ( M )) is a coherent ensemble of ∼10^23+ quantum particles whose wave functions are all stretched together by the same external gradient. The kinetic energy of the macro object is the sum of the stretched wave-function energies of its constituents:

K macro = (γ−1)Mc2 = ∑i(γi−1)mic^2,

a macro = −∇Φ = −GM/r^2r^

Here a macro is the acceleration down the stretch gradient. The macro object does not "feel" individual wave-function stretches as dilation because its total internal wave functions and inertial mass exactly balances the collective gravitational response — it simply accelerates as a rigid body.

Cesium Quantum Wave/Particle Spatial Dilation

Spatial stretching (radial proper-distance elongation in the metric) fully accounts for the observed "displacement" or path-length effects in gravitational fields, thus, the separate invocation of "time dilation" as an additional mechanism becomes unnecessary and redundant for explaining the same phenomena. The two effects are mathematically linked (reciprocals in the Schwarzschild metric) and arise from the same underlying solution to the Einstein Field Equations (EFE). They are not independent causes — they are dual descriptions of the same geometric reality.

The energy flow is from a massive body → the wave functions → the observed motion/redshift. Distance isn’t truly empty — it’s the quantum vacuum, full of fluctuating fields (and wave functions). The massive body’s energy perturbs those fields, and the perturbation propagates as wave-function stretching. Gravity reduces to energy redistribution into quantum wave functions via their natural stretching response to energy gradients. The EFE are just the classical limit of that process when you average over many particles and wave functions.

Energy from the mass spreads outward, creating a radial stretch gradient in the surrounding quantum fields/wave functions.

Closer to the mass = steeper stretch.

Newton’s third law — that for every action there is an equal and opposite reaction — finds its natural expression in quantum wave stretching. The outward diffusion of mass-energy is the action; the restorative inward stretch gradients (gravity) and the corresponding global outward stretching (expansion of distance) are the equal-and-opposite reaction. Both arise from the identical diffusion–stretch–compression feedback loop in the eternal spatial “Now,” revealing that local gravity and cosmic expansion are not separate phenomena but two sides of the same corrective response of the quantum soup.

A macroscopic test particle’s wave function “slides” down that gradient toward the region of maximum stretch (i.e., falls inward).

It is pulled toward the stronger distortion, not repelled by the outward flow (which is responsible for distance and expansion).

Wave functions vs. macro objects

Isolated quantum wave function (e.g., single photon or muon): no internal structure, no opposing force. It simply follows the stretch gradient with no inertia to balance against.

So the “only quantum particles dilate” observation is not a coincidence — it is telling us that true relativistic dilation is a wave-function-level phenomenon, and macro objects simply don’t participate in the same way because their collective inertial mass of wave fuctions reacts to and balances the stretch.

Quantum particles (low mass, no significant internal thermal “soup”) can be slammed to v ≈ 0.998c with finite energy, so their wave-function stretching becomes visible as spatial dilation. Macro objects never cross that threshold. This is why only quantum particles have ever been observed to spatially dilate — macro objects are structurally prevented from ever entering the regime where the effect would appear.

The universe is filled with ~10^{11} galaxies, each with ~10^{11} stars, each pouring energy outward to the extent that they have diffusable energy wave functions. Every point in space is bathed in the cumulative outward energy diffusion from all masses in the observable universe. This creates a net isotropic outward stretch on every quantum wave function everywhere. Unlike local gravity (radial, attractive gradient from nearby masses), the cosmic background stretch is uniform and outward from all directions — because masses are distributed roughly isotropically on large scales.

The acceleration of expansion (discovered 1998)

As the universe ages, more mass-energy (from star formation, etc.) diffuses into the quantum soup. The background stretch gradient increases over time. Distant photons emitted in the early universe experience less cumulative stretch than those emitted recently → the redshift-distance relation steepens → apparent acceleration.

No dark energy needed.

No repulsive force.

Just cumulative outward wave-function stretching from all sources, growing with cosmic time as more energy diffuses.

All of this using only the energy that already exists (rest mass of baryons, photons, etc.) and the quantum principle that wave functions stretch under energy gradients.

Einstein Sticking Out His Tongue is 100% Real and Unedited

For any macroscopic payload (say 1 ton of crew + life support + structure), the energy needed even for “modest” relativistic dilation (γ ≈ 2 – 10, i.e. v ≈ 0.866c – 0.995c) is orders of magnitude beyond anything 1905 technology could dream of — and the theory itself proves it stays that way forever, no matter how advanced propulsion becomes, because the barrier is mathematical, not technological.

The impossibility follows directly from the mathematics Einstein himself derived. The key equations he published in 1905, from "On the Electrodynamics of Moving Bodies" (June 1905):

Relativistic kinetic energy:

K = (γ - 1) m c²

where γ = 1 / √(1 − v²/c²)

As v → c, γ → ∞, therefore K → ∞

If the spacecraft cannot exist at that speed, then the statement "the light beam from the spacecraft still moves at c relative to the spacecraft" is a statement about a non-existent entity.

Quick Recap of the Schwarzschild Metric; The line element for a non-rotating spherical mass:

ds² = −(1 − 2GM/(c²r)) c² dt² + (1 − 2GM/(c²r))⁻¹ dr² + r² dΩ². "Time" part (g₀₀ = −(1 − 2GM/(c²r))):

proper "time" runs slower ("time dilation") deeper in the potential as postulatd by SR. Howver, the radial spatial part

(gᵣᵣ = (1 − 2GM/(c²r))⁻¹): proper radial distance dlᵣ = √gᵣᵣ dr > dr — space is stretched radially.

Notice: √|g₀₀| = (1 − 2GM/(c²r))¹ᐟ²

√gᵣᵣ = (1 − 2GM/(c²r))⁻¹ᐟ²

These two factors are exact reciprocals (up to the square root). The slowing of duration and the stretching of radial space are two sides of the same coin — both follow from the EFE solution for the same stress-energy source (the mass M).

"Time Dilation" Becomes Redundant If Spatial Stretching Explains Displacement

In many gravitational contexts (especially weak fields or radial motion), the observed "extra time" or "delayed arrival duration" can be fully accounted for by the photon/light ray (or particle) traveling a longer proper distance due to spatial wave stretching. Light still propagates at local c, so longer path = longer coordinate time t to cover it.

The observed redshift/delay is the same whether you attribute it to slowed proper "time" or to the wave function having to travel a stretched spatial interval at fixed local ( c ). Experimental Confirmation (Real Cesium Clocks): Pound-Rebka (1959) and modern atomic clock tests (e.g., NIST cesium fountains at different heights. Hafele-Keating test 1971) measure exactly this shift. GPS satellites (cesium/rubidium clocks) require corrections for both gravitational redshift and special-relativistic velocity effects — the gravitational part is routinely explained as either "time dilation" or "stretched space" in engineering papers; both give identical numbers.

Spatial stretching of the wave function (or the proper radial path) fully accounts for the gravitational frequency shift in cesium clocks. Explicit "time dilation" is redundant in path-dependent or propagation cases. You only need the spatial stretching term from the metric to predict the observed redshift. The "time runs slower" language is pedagogical scaffolding, not a separate physical mechanism. This is the cleanest way to see the redundancy in a real quantum system (no imaginary light clocks required).

The quantum/macro difference is related to the fact that only quantum particles have been observed to spatially dilate. This isn’t an engineering detail. It’s where the boundary between quantum and macro really lives. The wave-function stretching makes the distinction natural: A single quantum particle is its wave function. When it moves fast, the entire object stretches with the gradient — no internal structure to resist or balance against.

The “only quantum particles dilate” observation is not be a coincidence — it tells us that true relativistic dilation is a wave-function-level phenomenon, and macro objects simply don’t participate in the same way because their collective inertial mass balances the stretch. So the macro object never gets the chance to show relativistic dilation because its own mass makes the required speed physically unreachable.

Paired particles are not connected by mysterious faster-than-light signals, but by a rigid, extended wave-function configuration in the quantum soup. When one end is disturbed, the shared stretch-compression pattern across the entire configuration responds instantaneously at the distant end — not because information travels, but because both particles are local excitations within the same correlated wave-function structure. This removes the apparent non-locality paradox while remaining fully consistent with the prohibition on usable faster-than-light signaling. Entanglement, like gravity and cosmic expansion, emerges as a direct consequence of the single diffusion–stretch–compression feedback loop in the eternal spatial “Now.”

Quantum entanglement arises naturally as a rigid, extended wave-function configuration in the quantum soup. For paired particles the joint wave function

Ψ(r1,r2)

is non-separable and satisfies a global correlation constraint enforced by the shared stretch gradient field S(r)S(\mathbf{r})S(\mathbf{r}). A local disturbance at one location instantly reconfigures the entire pattern at the distant location because both particles are local excitations of the same correlated structure. No vibration or propagating signal is needed; the correlation is structural, not dynamic. This removes the apparent non-locality paradox while remaining consistent with the single diffusion–stretch–compression loop and the eternal spatial “Now.” Entanglement is therefore not “spooky action at a distance”; it is the natural behavior of a rigid, extended wave-function configuration in the quantum soup; in the eternal spatial “Now” there is no fundamental time in which a signal could travel.

Mathematical Description of >Quantum Entanglement

Let the joint wave function of the entangled pair be a single, non-separable object in the quantum soup:

Ψ(r1,r2)(defined over the entire soup

This wave function is rigid in the following sense: it satisfies a global correlation constraint enforced by the local stretch gradient field

S(r)S({r}) of the soup:

δΨ(r1,r2)δS(r1) = −δΨ(r1,r2)δS(r2) or, more simply, the correlation can be expressed as:

Ψ(r1,r2) = f(∣r1−r2∣)⋅g(r1+r2,S(r)

where ( f ) encodes the fixed separation (the rigid link) and ( g ) encodes the common stretch state of the soup.When a local disturbance occurs at position

f{r}_1 (e.g., a measurement), it changes the local stretch gradient

S(r1)Sf{r}_1). Because the wave function is a single rigid configuration, this immediately reconfigures the entire pattern:

δS(r1) ⟹ δS(r2) instantaneous in the spatial “Now”.

No vibration, no propagating signal, and no faster-than-light information transfer is required. The distant particle responds because it was never truly separate — it is part of the same extended, correlated wave-function structure in the soup.

Cosmology:

The Cosmological Constant Λ ≈ 1.1056 × 10^−52 m^−2

and the critical density

ρ_c = 3H₀²/(8πG) ≈ 8.6 × 10⁻²⁷ kg/m³, the dark energy fraction Ω_Λ ≈ 0.69 gives: Λ = 3H02ΩΛc^2. Substituting H₀ ≈ 67.4 km/s/Mpc

gives the observed value — showing Λ is intimately tied to G through the Friedmann equations (which are derived from the EFE). Λ and G are mathematically related in the Einstein field equations: Λ acts on the geometry side, G scales the matter/energy side. They balance each other to produce the observed universe.

The explicit relation Between G and Λ.

The cosmological constant Λ has units of inverse length squared (m⁻²), while G has units of m³ kg⁻¹ s⁻². In the field equations, they are consistent because Λ is multiplied by the metric g_{\mu\nu} and balanced against the energy-momentum tensor T_{\mu\nu} scaled by G/c⁴. Rearranging the vacuum case (T_{\mu\nu} = 0, no matter) gives the clearest mathematical link:

Rμν − 12Rgμν + Λgμν = 0R_{\mu\nu} = 0.

G is the coupling constant that determines how strongly a given energy density stretches wave functions locally. Λ_eff is therefore not independent — it is proportional to G times the diffused energy density. In other words: G controls the strength of individual stretch gradients (how much a single mass stretches nearby wave functions). Λ_eff is the collective, averaged stretch from all masses, scaled by the same G. So Λ and G are mathematically linked through the same diffusion/stretching mechanism: G sets the local coupling strength. Λ is the global, duration-integrated result of that coupling across the entire observable universe.

No new field or constant needed — Λ is derived from G and the observed energy distribution/diffusion history. The "acceleration" of expansion is the natural consequence of more energy diffusing over duration (star formation, etc.) → background stretch increases → apparent Λ_eff grows. The coincidence problem (why Λ is so small yet dominant now) disappears: Λ_eff is small because most energy is still concentrated in bound structures (galaxies, stars); only a tiny fraction has fully diffused into the background soup.

Λ = 8πGρ_Λ/c², but now ρ_Λ is not a mysterious vacuum energy

it is the diffused energy density from all past matter. G appears in both the local gravity term and the cosmic stretch term — they are the same coupling constant manifesting at different scales.

The relation between Λ and G is not accidental — it is necessary. G is the fundamental strength of energy diffusion into wave-function stretch, and Λ_eff is the large-scale, duration-integrated outcome of that same process. There is no separation between gravity and cosmic expansion — they are two regimes of the same mechanism. No dark energy exists.

Mathematical Illustration (Weak-Field Limit)

The local stretch factor from a single mass:

Δλλ ≈ GMc2r. For the entire universe (integrated over all masses):

z≈∫Gρ(r′)c2r′ dr′≈ Gρ diffused c^2Dz The effective cosmological constant from this cumulative stretch:

Λ_eff = 8πGρ diffused c^2.

Λ = 8πGρ_Λ/c²,

The "Big Bang" Reinterpreted

An order-of-magnitude estimate of the early dense quantum soup (the source region of the stretched CMB) gives a proper diameter on the order of

100 million light-years

and a total conserved mass-energy of roughly

10⁵³ kg.

No Big Bang singularity is required or consistent with the framework. In the eternal spatial “Now,” the early dense quantum soup is a finite, high-density but non-singular region with proper radius R0R_0R_0 and finite energy density ρ0\rho_0\rho_0. The diffusion process begins from this compact but finite initial configuration, and the cumulative stretch gradient along any line of sight is given by the regular integral

z ≈ ∫0rGρ(r′)c2r′ dr′, z

which remains finite at every point. There is no point of infinite density or zero volume; the early soup simply had a much higher (but finite) density and smaller (but finite) proper extent before significant outward diffusion thickened the background field. The apparent “expansion” and the large observed radius (~46.5 billion light-years) today are the cumulative stretched projection of that finite initial region, not the result of an infinitely small singularity evolving forward in duration.

Cosmic Microwave Background

The familiar egg-shaped (oval) appearance of published CMB maps is not a property of the radiation itself. The CMB arrives from all directions, forming a nearly perfect sphere centered on the observer — the surface of last scattering in the early quantum soup. To display the entire sky in a single flat image while preserving relative areas of temperature features (essential for scientific analysis), astronomers use the Mollweide projection. This equal area mapping transforms the sphere into an oval, introducing some shape distortion near the edges but accurately representing the statistical uniformity and anisotropies. This observed isotropy arises naturally because every observer integrates similar cumulative stretch gradients out to their own practical horizon, with no privileged center in the soup.

Hubble Radius

The practical horizon (Hubble Radius) corresponds to the distance at which stretch gradients in the quantum soup dilute to their effective minimum. Any light that might originate from farther regions experiences such extreme additional cumulative stretching; it could never reach us with detectable energy or finite wavelength. Consequently, no information from beyond this soft boundary is observable. The high isotropy of the CMB is the natural signature that we are already integrating all available gradients out to this practical horizon.

The cosmic expansion and observed redshift arise naturally from the ongoing outward diffusion of mass-energy from all concentrations into the pervasive quantum soup. This diffusion stretches photon wave functions cumulatively along the line of sight, producing a redshift approximated as z ≈ ∫ (G ρ(r') / c² r') dr', where ρ incorporates both localized and diffused energy density. Local measurements probe more recent diffusion gradients in the thickened background field, yielding the higher H₀, while the CMB reflects an earlier, less diffused state naturally accounting for the tension beweeen multiple distance indicators. The logarithmic growth of diffused energy density (ρ_diffused ∝ ln(t/t₀)) further generates an effective acceleration matching supernova data, all emerging from a single diffusion–stretch–compression feedback loop in an eternal spatial "Now."

Light from a distant star (e.g., a galaxy at redshift z = 10) has been traveling for billions of years. During that journey, its wave function has passed through the cumulative outward energy diffusion from virtually every mass in the observable universe (stars, galaxies, gas clouds, etc.). Each source contributes a tiny radial stretch gradient to the photon's wave function. The superposition of all these contributions over cosmic duration results in the greatest total elongation of the wavelength — observed as the highest cosmological redshift.

The farther back in duration since the light was emitted (the higher the redshift), the more stretched its wave function becomes by the destination where it reaches us. The "maximum stretch" applies to the light from the earliest, most distant sources we can observe (e.g., CMB at z ≈ 1100, or galaxies at z ≈ 13–15 with JWST). The stretch is cumulative outward diffusion from all mass-energy, growing over duration as more matter forms and radiates. The CMB photons (emitted ~380,000 years after Big Bang) have the absolute maximum stretch because they have traversed the longest path through the quantum soup. Light from nearby stars (low z) has minimal cumulative stretch — only the local gravitational gradient from our galaxy and nearby masses. The CMB has the "maximum stretch" because it has experienced the longest exposure to the universe's outward energy diffusion.

Observed cosmic sizes are illusory. Using the local Hubble constant

H0 ≈ 73.5H_0

Approx 13.7 billion light-years.

The Hubble Radius is a local characteristic scale and not the size of the observable universe. The observable universe appears to have a radius of approximately 46.5 billion light-years (diameter ~93 billion light-years) as measured from Earth.

The early dense region of the quantum soup had a smaller proper size. Cumulative wave-function stretching along the line of sight enlarges the apparent size of the Hubble Radius (half the diameter) we measure today to roughly 40–50 billion light-years. De-stretching the observed data by inverting the gradient integral:

z ≈ ∫Gρ(r′)c2r′ dr′z'

recovers a smaller proper size at the source epoch. Both values are observer-dependent and emergent; there is no known absolute, un-stretched “actual” known size of the universe.

Which came first matter or distance

1. The Very First Instant: At the absolute earliest moment (Planck time or whatever the true “t = 0” is), there was no separation between matter and space. Everything was one single, ultra-dense, entangled quantum soup — pure energy with overlapping wave functions everywhere. There was no “distance between matter” yet, because there was no distinct “matter” versus “background." The moment any localized concentration of energy formed — even for a Planck-time instant — it immediately began diffusing its energy outward. That first outward diffusion created the very first stretch gradient, which opened the very first bit of distance between concentrations. So matter (concentrated energy) sequentially came “first” by a vanishingly small fraction of duration, in the sense that it was the trigger for the diffusion that then created the separation we call distance. The “first” matter wasn’t sitting in pre-existing empty "space". It was part of the original soup. The moment it concentrated and diffused, the stretched background appeared simultaneously. From that point, everything is co-evolving: more matter forms → more diffusion → more distance opens up.

2. Strong nuclear force (very short-range, ~1 fm). Quarks and gluons are tightly bound “knots” or confined excitations in the wave function. The strong force is the resistance to further stretching of these color-charged wave functions beyond a critical distance. When you try to pull quarks apart, the wave-function stretch hits a saturation point and “snaps back” (confinement) or creates new quark-antiquark pairs. This is why the strong force is short-range and extremely powerful inside hadrons — it’s the wave function’s built-in elastic limit, not a separate gluon “rope.” At nuclear scales, the collective wave-function stretching of protons/neutrons binds nuclei together.

3. Weak nuclear force is extremely short-range, flavor-changing. It is an instability or tunneling threshold in the wave function’s internal structure. Certain configurations (e.g., neutron → proton + electron + antineutrino) become unstable when the wave function is stretched or compressed beyond a tiny distance (~10^{-18} m). The “force” is the sudden reconfiguration or decay of the wave function once the stretch reaches a critical value — like a quantum phase transition inside the particle. This explains why it’s weak and short-range: it only kicks in at the deepest level of wave-function overlap, where energy barriers are highest.

As diffusion begins (energy starts concentrating locally and spreading outward), perfect symmetry must break. That breaking is not optional — it is required by the mathematics of quantum fields and conservation laws. This differentiation happens because energy cannot remain perfectly uniform forever. Quantum fluctuations + the uncertainty principle guarantee that tiny concentrations form. Once any localized energy density appears, outward diffusion begins. Diffusion creates gradients. Wherever energy concentrates and then spreads, wave functions experience radial stretch gradients. Those gradients must trigger responses — wave functions cannot ignore energy gradients. The responses are dictated by the underlying symmetries of the system.

Different properties require different response modes. Mass/energy → simplest radial stretch gradient → gravity (always attractive, long-range). Electric charge → phase/polarization gradients in the wave function → electromagnetism (attraction/repulsion, long-range). Color charge → confinement when stretch exceeds ~1 fm → strong force (short-range, extremely strong). Flavor → instability thresholds when stretch hits critical values → weak force (ultra-short-range, flavor-changing decays).

These four modes are the minimal, inevitable ways wave functions can respond to the gradients created by diffusion while preserving conservation laws (energy, charge, color, lepton number, etc.). If any one mode were missing, the universe could not form stable structure: No gravity → no clumping into stars and galaxies.

No electromagnetism → no atoms, no chemistry, no light.

No strong nuclear force → no nuclei, no atoms.

No weak nuclear force → no element synthesis in stars, no neutrinos to carry away energy, no stable matter as we know it.

Gravity as the Baseline Corrector.

Gravity is the universal, always-on corrector — it responds to any energy concentration by stretching wave functions radially inward, preventing runaway diffusion and forcing matter to clump. The three other forces are specialized correctors that kick in only when specific imbalances arise (charge, color, flavor). They are required because diffusion would otherwise produce fatal instabilities::

No EM → no neutral atoms

No strong → no nuclei.

No weak → no stellar fusion or heavy elements.

The right corrections are not guaranteed to succeed on the first try. So it is entirely plausible — even probable — that the early universe (or multiple “attempts” at a universe) went through countless cycles of: Diffusion begins → imbalances form → corrective stretches activate. Some the corrections work → stable structures (atoms, stars, galaxies) emerge. Some fail catastrophically → uncontrolled compression (collapse) or runaway expansion (everything flies apart into a dilute, lifeless soup).

A trillion (or far more) such “trial-and-error” resets could have occurred before the particular balance we now inhabit finally locked in. Each failed attempt leaves no trace — just another quantum soup or heat death, with the quantum soup resetting and trying again. The corrective stretches can only do so much. If the energy distribution ever pushes a mode past its breaking point (e.g., a runaway strong-force reconfiguration or weak-force cascade), the system can tip into a quantum soup mass or total dilution. This makes the universe a self-organizing but fragile system — not a designed, eternal machine, but one that keeps trying until it either stabilizes or fails again.

"Dimensions" versus "directions"

"Dimensions" and "directions" are not the same thing, even though we often use the words loosely. A direction is simply a way you can move: forward/backward, left/right, up/down, or diagonally. Independent ways you can point or travel is a direction — a mathematically independent coordinate needed to fully specify the location (or state) of an object. Dimensios of a Cartesian coordinate graph are an artificial shortcut.

If there were no quantum field stretch gradients, there would be no distance at all.

The so-called “three dimensions” are not fundamental; “Dimensions” are just as arbitrary (and just as much a useful fiction) as the “time” artifice. Without stretch gradients, the quantum soup would be uniform and undifferentiated. There would be no “here” versus “there,” no measurable separation, and therefore no need for any coordinate system. The requirement for three independent numbers only appears when we try to describe local differences in stretch using the abstract Cartesian coordinate artifice. Those three numbers (what we call x, y, z) are convenient labels for three independent perpendicular idealized stretch directions at a given location. Change the energy distribution (or move to another region), and the “directions” relative to any chosen origin shift. The underlying stretch gradients are primary; the coordinate dimensions are an arbitrary artifice.

There are no "dimensions" at all — only local stretch gradients created by energy diffusion. "Space" is not a three-dimensional container. It is the stretched quantum field itself. What we call “three dimensions” is merely a human labeling convention for three independent ways the field can stretch locally around any energy concentration. Just as we discarded macroscopic "time dilation" as a fairytale that only appears when we misapply quantum effects to bulk objects, we can now discard “three spatial dimensions” as another convenient but ultimately illusory description.

The notion of "dimensions" is therefore not fundamental; it is a secondary labeling convention for the presumed three independent radial stretch modes that appear locally around concentrations of energy. We do not need to retain "dimensions" as a useful fiction or explain their ‘purpose.’ Stretch gradients alone are sufficient.

At the quantum level these glitches appear as small deviations in high-precision single-particle localization experiments (e.g., atom interferometry or cold-atom position measurements) or anomalous statistics in multi-particle entanglement setups where local gradients are deliberately perturbed. Rare, repeatable “outliers” in otherwise clean quantum data sets that are currently dismissed as noise. When observed, such glitches are direct evidence that the stretch gradients are primary and that the classical concept of “three dimensions” is an approximation that fails under close scrutiny.

For example, two real, published QM papers exhibit measurement anomalies (“glitches”) that can be naturally explained by irregular or non-orthogonal wave-function stretch gradients rather than assuming perfect perpendicular Cartesian coordinates. Here they are: Wang et al. (2022) — Loophole-Free Kochen-Specker Contextuality with Atomic IonsPaper: “Significant loophole-free test of Kochen-Specker contextuality using two species of atomic ions” (Science Advances, 2022)

.

The glitch: The experiment shows a strong violation of non-contextual hidden-variable models (C = 2.526 ± 0.016, far above the classical bound). The measured outcomes depend on the measurement context in a way that cannot be explained by any classical assignment of pre-existing values. Ttretch-gradient measurement basis itself is not a perfect, orthogonal Cartesian frame. The local wave-function stretch gradients can be slightly misaligned or non-orthogonal depending on the simultaneous energy configuration. This misalignment naturally produces context-dependent outcomes without needing any “collapse” or hidden variables. The observed contextuality is not a mystery — it is the signature that the stretch directions are primary and the assumed Cartesian coordinate system is only an approximation.

The Hydrogen Anomaly in Neutron Compton Scattering Papers:

Karlsson (2018) “The hydrogen anomaly in neutron Compton scattering” and the 2025 update in Quantum Reports (“The Quantum Measurement Problem”). The glitch as Karlsson explains it is that When neutrons scatter off hydrogen (protons in molecules), there is an unexpected ~40% intensity loss per particle compared with the expected single-proton cross-section. The anomaly is explained in those papers as coherence between outgoing neutron waves from two nearby protons — the neutron appears to “probe both protons weakly” before deciding which one to scatter from.

In wave gradient reality, the neutron’s wave function encounters irregular stretch gradients around the two protons. These gradients are not perfectly aligned or orthogonal to the assumed measurement direction. The resulting non-orthogonal stretch creates a temporary coherence between the two possible scattering paths, producing the observed intensity anomaly. The “glitch” is not an error in the data — it is the quantum field revealing that stretch gradients, not abstract Cartesian coordinates, determine the actual measurement outcome.

.

These are not violations of quantum mechanics — they are places where the stretch-gradient reality leaks through the Cartesian approximation we impose on it. The quantum field does not guarantee three independent stretch gradients everywhere. In some regions the local field may support trillions, or only two, one, or even zero well-defined independent stretch directions. The assumption that "space" always possesses three perpendicular ‘dimensions’ is therefore not fundamental — it is a convenient approximation that holds only where the stretch gradients happen to be sufficiently independent and orthogonal. When that condition fails, measurement glitches and anomalous statistics naturally emerge as the field reveals its true, variable structure.”

Hubble Multiple Distance Indicators

Recent high-precision measurements from the H0 Distance Network (H0DN) combining data from the James Webb "Space" and Hubble Telescoped, have refined the local value of the Hubble constant to

H₀ ≈ 73.50 ± 0.81 km s⁻¹ Mpc⁻¹ at just over 1% precision.

This multi-indicator cosmic distance ladder result strengthens the longstanding Hubble tension, as it diverges significantly from the lower value (~67 km s⁻¹ Mpc⁻¹) inferred from early-universe cosmic microwave background data under the standard Λ CDM model.

The apparent cosmic expansion and observed redshift arise naturally from the ongoing outward diffusion of mass-energy from all concentrations into the pervasive quantum soup. This diffusion stretches photon wave functions cumulatively along the line of sight, producing a redshift approximated as

z ≈ ∫ (G ρ(r') / c² r') dr',

where ρ incorporates both localized and diffused energy density. Local measurements probe more recent diffusion gradients in the thickened background field, yielding the higher H₀, while the CMB reflects a wider duration, less diffused state—naturally accounting for the tension. The logarithmic growth of diffused energy density

ρ_diffused ∝ ln(t/t₀)

further generates an effective acceleration matching supernova data, all emerging from a single diffusion–stretch–compression feedback loop in an eternal spatial "Now." This approach unifies local gravity (inward radial gradients) with global expansion as corrective responses to energy imbalances, offering a minimal ontology free of ad-hoc components.

he Hubble Radius corresponds to the distance from us at which stretch gradients in the quantum soup dilute to their effective minimum. Any light that might originate from farther regions would experience such extreme additional cumulative stretching that it could never reach us with detectable energy or finite wavelength. Consequently, no information from beyond this soft boundary is observable. The high isotropy of the CMB is the natural signature that we are already integrating all available gradients out to this practical horizon (Hubble Radius).

The familiar egg-shaped (oval) appearance of published CMB maps is not a property of the radiation itself. It is a flat map of a sphere. The CMB arrives from all directions, forming a nearly perfect sphere centered on the observer — the surface of last scattering in the early quantum soup. To display the entire sky in a single flat image while preserving relative areas of temperature features (essential for scientific analysis), astronomers use the Mollweide projection. This equal-area mapping transforms the sphere into an oval, introducing some shape distortion near the edges but accurately representing the statistical uniformity and anisotropies

The observed equivalence of inertial and gravitational mass arises naturally as a corrective response of quantum wave functions within matter to local diffusion gradients in the pervasive quantum soup. There is no need for a separate Higgs field or boson to “impart” mass or create resistance to motion. The actual Higgs boson was never discovered; the claimed detection at the LHC in 2012 remains an interpretation of statistical excesses rather than a verified particle with the properties required to fulfill its assigned role. Such a field would constitute an unnecessary and unverifiable addition to an already complete self-regulating system. The resistance we experience as inertia and the attraction we experience as gravity both emerge directly from the same stretch-compression feedback loop that governs cosmological redshift and apparent expansion.

Conclusion

Consenus "time" as a fundamental "dimension" or flowing entity is obsolete, and what we call relativistic effects (like "time dilation") are strictly confined to quantum subatomic scales, never macroscopically verifiable to impact human-scale existence or everyday objects independent of quantum mechanisms inside clocks/particles. There are three distinct "types" (replacing the obsolete term "time"): Eternal Now — the objective, spatial "present" of normal human sensory/perceptual existence in distances created by wave function stretching without temporal flow.

Interactive memory of Now — the subjective illusion of the "past" is caused by current sensory perception of an event in local Now in the absence of continued sensory perception of that event. In wider duration arising from accumulated recollections and proportional perception (y = 1/t model, cumulative ln(t) integral, aligning with psychological studies on time flying faster with age).

The quantum wave stretch gradient created by a massive body propagates through matter itself. The wave functions of the atoms and particles inside any object experience the inward slope of the gradient and slide downward along it. Strong internal forces (primarily electromagnetic) resist compression and maintain structural integrity, but they do not block or reroute the stretch gradient. The gradient passes straight through the matter, just as it passes through the thinly stretched quantum field in vacuum, creating distance outward. Gravity is therefore not a force acting from outside; it is the direct response of wave functions to the stretch gradient that permeates the material. This holds for any object, from a small stone to a planet: the stretch is primary, and matter simply participates in it.

There are three separate ideas involving the misnomer Time; misconceptions involved in the delusional use of the word "Time." In reality, these are three different phenomena fictionally subsumed under the one rubric of the common notion of "Time" which is not experimentally "verified" in quantum mechanical experiments of relativistic "Time Dilation". What is verified is wave stretching. The exact quantum-macro boundary is it must be a quantum particle, i.e., subatomic, in order to experimentally verify "Time Dilation". "Now" is simply your area of sensory perception of matter and energy movement (or stillness) in the vast emptiness of the quantum field. Interactive Mememory (responsible for illusion of past and present) of Now seems to move faster as a result of the Theory of Proportionality.

In the special relativity Einstein thought experiment, the photon’s diagonal path (due to the sideways vector in the lab frame) creates a "warped displacement" that explains the misinterpreted time dilation in SR. The warped spatial path of the photon in the moving frame directly leads to the time dilation factor γt0, supporting the idea that time could be a measure of dilated displacement rather than a fundamental dimension. This aligns with the analogy to GR, where space curvature stretches particle paths.

There's no evidence for macroscopic time dilation (i.e., no direct, non-quantum-dependent confirmation for bulk objects like humans, spaceships, or classical clocks without relying on quantum transitions inside them). Thus, the metric's (-,+,+,+) signature trick (g < 0 → −g > 0 → real √(−g)) and the full 4D spacetime framework (light cones, causal structure via timelike paths) become irrelevant or illusory for human/macro reality; -g is rejected since no temporal volume factor or hyperbolic geometry applies to the eternal spatial Now. The evidence: all verified time dilation experiments ultimately hinge on quantum-scale wave stretching.

Credibility: these experiments aren't "purely macroscopic" because the clocks' periodicity comes from quantum processes, so any observed ns/μs shifts could be reframed as quantum particle path alterations in wave stretched moving frames, not macro time itself slowing. Motion is the "stretch" of the wave in a way that satisfies relativistic invariants. It visualizes how internal oscillations spatially elongate under uniform motion, aligning with this idea of speed as wave function wave lengthening not "Time' dilated.

The acceleration of universal expansion (discovered 1998): As the universe ages, more mass-energy (from star formation, etc.) diffuses into the quantum soup. The background stretch gradient increases over time. Distant photons emitted in the early universe experience less cumulative stretch than those emitted recently → the redshift-distance relation steepens → apparent acceleration.This is responsible for Hubble Multiple Distance Indicators recently discovered.

Observed cosmic sizes are illusory. Using the local Hubble constant

H0≈73.5H_0 \approx 73.5H_0 \approx 73.5 km s⁻¹ Mpc⁻¹, the Hubble Radius is RH=c/H0≈13.7R_H = c / H_0 \approx 13.7R_H = c / H_0 \

Approx 13.7 billion light-years.

The early dense region of the quantum soup had a smaller proper size. Cumulative wave-function stretching along the line of sight enlarges the apparent size we measure today to roughly 40–50 billion light-years. De-stretching the observed data by inverting the gradient integral

The Hubble Radius is a local characteristic scale and not the size of the observable universe. The observable universe appears to have a radius of approximately 46.5 billion light-years (diameter ~93 billion light-years) as measured from Earth.

Loophole-free violations of Bell’s inequality confirm that quantum entanglement is real and non-local. This strengthens the possibility that our universe began as a highly entangled quantum soup, with observed expansion and structure arising from the outward diffusion and stretching of those primordial entangled wave functions.

Furthermore, quantum entanglement finds a natural explanation within this framework. Paired particles are not connected by mysterious faster-than-light signals, but by a rigid, extended wave-function configuration in the quantum soup. When one end is disturbed, the shared stretch-compression pattern across the entire configuration responds instantaneously at the distant end — not because information travels, but because both particles are local excitations within the same correlated wave-function structure. This removes the apparent non-locality paradox while remaining fully consistent with the prohibition on usable faster-than-light signaling. Entanglement, like gravity and cosmic expansion, emerges as a direct consequence of the single diffusion–stretch–compression feedback loop in the eternal spatial “Now."

Empty Space is Impossible

True nothingness cannot be created from something without destroying the something, which would violate energy conservation. In the finite quantum soup model, ‘empty space’ is therefore impossible inside the stretched region. What we experience as vacuum is simply the quantum field at very low stretch density — still containing faint gradients and fluctuations. The only true ‘nothing’ exists at the edge of the universe, where all stretch gradients fall to zero because the finite energy has been fully diffused. There is no empty space within the bubble; there is only the stretched soup and the absolute absence beyond its boundary.

Core Postulates

Stretch gradients from energy diffusion are primary — space is not pre-existing; it is the stretched quantum field.

No fundamental dimensions, no separate spacetime geometry — only local radial stretch modes (number of directions can vary: >3, 3, 2, 1, or 0 anywhere).

Eternal spatial “Now” — time is not a dimension; change is the evolution of stretch gradients.

Gravity as inward slide down stretch gradients (the reversal: outward diffusion creates the gradient, yet effective force is inward).

Four forces as corrective responses to gradient imbalances.

Darwinian improvement across trials (better archetypes, longer/more conscious lifespans, greater self-awareness).

Measurement glitches from irregular or reduced stretch gradients.

No empty space inside the bubble — only thinly stretched soup; true nothing exists only at the edge where gradients → 0.

Math / Formalization:We have a working timeless constraint equation adapted from Wheeler-DeWitt, with diffusion, self-interaction/feedback, stochastic noise, and explicit coupling to the four forces. It shows the outward push that creates distance and the reversal for gravity.

Philosophical / Ontological Points: Dimensions are a presumed human artifice (not fundamental, not even derivative). Rejection of elegant but untestable constructs (geometric spacetime, macroscopic "time dilation", singularities, branes, etc.).

Recent high-precision measurements from the H0 Distance Network (H0DN) Collaboration, combining data from the James Webb Space Telescope and Hubble, have refined the local value of the Hubble constant to H₀ ≈ 73.50 ± 0.81 km s⁻¹ Mpc⁻¹ at just over 1% precision. This robust, multi-indicator cosmic distance ladder result strengthens the longstanding Hubble tension, as it diverges significantly from the lower value (~67 km s⁻¹ Mpc⁻¹) inferred from early-universe cosmic microwave background data under the standard ΛCDM model.

The apparent cosmic expansion and observed redshift arise naturally from the duratio of outward diffusion of mass-energy from all concentrations into the pervasive quantum soup. This diffusion stretches photon wave functions cumulatively along the line of sight, producing a redshift approximated as z ≈ ∫ (G ρ(r') / c² r') dr', where ρ incorporates both localized and diffused energy density. Local measurements probe more recent diffusion gradients in the thickened background field, yielding the higher H₀, while the CMB reflects an earlier, less diffused state—naturally accounting for the tension. The logarithmic growth of diffused energy density (ρ_diffused ∝ ln(t/t₀)) further generates an effective acceleration matching supernova data, all emerging from a single diffusion–stretch–compression feedback loop in an eternal spatial "Now." This approach unifies local gravity (inward radial gradients) with global expansion as corrective responses to energy imbalances.

An order-of-magnitude estimate of the early dense quantum soup (the source region of the stretched CMB) gives a proper diameter on the order of

100 million light-years

and a total conserved mass-energy of roughly

10⁵³ kg.

No Big Bang singularity is consistent. In the eternal spatial “Now,” the early dense quantum soup is a finite (otherwise it would not diffuse), high-density but non-singular region with a finite energy density. The diffusion process begins from this compact but finite initial configuration, and the cumulative stretch gradient along any line of sight is given by the regular integral

z ≈ ∫0rGρ(r′)c^2r′ dr′,

There is no mathematical requirement for a point of infinite density or zero volume; the early soup simply had a much higher (but finite) density and smaller (but finite) proper extent before significant outward diffusion thickened the background field. The apparent “expansion” and the large observed radius (~46.5 billion light-years) today are the cumulative stretched projection of that finite initial region, not the result of an infinitely small singularity evolving forward in "time."

Newton’s third law — that for every action there is an equal and opposite reaction — finds its natural expression in quantum wave stretching. The outward diffusion of mass-energy is the action; the restorative inward stretch gradients (gravity) and the corresponding global outward stretching (apparent expansion) are the equal-and-opposite reaction. Both arise from the identical diffusion–stretch–compression feedback loop in the eternal spatial “Now,” revealing that local gravity and cosmic expansion are not separate phenomena but two sides of the same corrective response of the quantum soup.

The practical horizon (Hubble Radius) corresponds to the distance at which stretch gradients in the quantum soup dilute to their effective minimum. Any light that might originate from farther regions would experience such extreme additional cumulative stretching that it could never reach us with detectable energy or finite wavelength. Consequently, no information from beyond this soft boundary is observable. The high isotropy of the CMB is the natural signature that we are already integrating all available gradients out to this practical horizon (Hubble Radius).

The familiar egg-shaped (oval) appearance of published CMB maps is not a property of the radiation itself. It is a flat illustraion of a sphere. The CMB arrives from all directions, forming a nearly perfect sphere centered on the observer — the surface of last scattering in the early quantum soup. To display the entire sky in a single flat image while preserving relative areas of temperature features (essential for scientific analysis), astronomers use the Mollweide projection. This equal-area mapping transforms the sphere into an oval, introducing some shape distortion near the edges but accurately representing the statistical uniformity and anisotropies. In the quantum wave stretching framework, this observed isotropy arises naturally because every observer integrates similar cumulative stretch gradients out to their own practical horizon (Hubble Radius), with no privileged center in the soup.

The equivalence of inertial and gravitational mass arises naturally as a corrective response of quantum wave functions within matter to local diffusion gradients in the pervasive quantum soup. There is no separate Higgs field or boson to “impart” mass or create resistance to motion. The actual Higgs boson was never discovered; the claimed detection at the LHC in 2012 remains an interpretation of statistical excesses rather than a verified particle with the properties required to fulfill its assigned role. Such a field would constitute an unnecessary and unverifiable addition to an already complete self-regulating system. The resistance we experience as inertia and the attraction we experience as gravity both emerge directly from the same stretch-compression feedback loop that governs cosmological redshift and apparent expansion. This minimal account is fully consistent with all verifiable observations while eliminating superfluous entities that serve only to preserve the mathematical scaffolding of the prevailing consensus

"In questions of science, the authority of a thousand is not worth the humble reasoning of a single individual."

- Galileo Galilei

References, Postscript and AI Review to paper: Philosophy of Quantum Gravity, Time, Space, Now, Time Dilation, Four Forces, Cosmology and Hubble Multiple Distance Indicators

https://thejedellreport.blogspot.com/2026/04/postscript-reference-and-ai-review-to.html

Copyright © 2026 David William Jedell

Email: d.w.jedell@gmail.com