TOTU, Maxwell, and The Electric Universe Theory

Q: Back on TOTU development, I want to make a statement about electromagnetism and Maxwell’s equations and original Heaviside quaternion  set of equations: all of what is scientifically known about electrodynamics and electromagnetism is assumed to be part of the TOTU. Like Prof Restemeyer (2) from the EE department of the University of Cinncinati said, "Maxwell is always lurking in the background."  This implies we include all of The Electric Universe Theory (Thunderbolts on youtube) where it is valid and correct.

A: TOTU statement: Electromagnetism is already inside the theory

TOTU does not replace Maxwell. It assumes the whole empirically successful structure of electrodynamics, then asks what that structure sits in.

What is included, without rewrite

All of the following is TOTU’s electromagnetic sector until a calculation shows a correction is required:

• Maxwell’s original formulation (the twenty quaternion / component equations, including the potentials).
• Heaviside–Gibbs vector reduction to the four equations used in every laboratory and antenna: $$ \nabla\cdot\mathbf{D}=\rho,\quad \nabla\cdot\mathbf{B}=0,\quad \nabla\times\mathbf{E}=-\partial_t\mathbf{B},\quad \nabla\times\mathbf{H}=\mathbf{J}+\partial_t\mathbf{D}. $$
• The Lorentz force, Poynting theorem, constitutive maps $(\mathbf{D}=\varepsilon\mathbf{E}), (\mathbf{B}=\mu\mathbf{H})$, and the wave equation in linear media.
• Gauge structure, retarded potentials, and the measured limits on photon mass and longitudinal modes.
• Circuit theory, transmission lines, waveguides, plasmas as Maxwell fluids, and MHD where the fluid closure is valid.

Prof. Restemeyer’s posture is the right one: Maxwell is always in the background. If a TOTU construction cannot recover ordinary EM in the appropriate limit, the construction is wrong.

Heaviside did not “delete Maxwell.” He discarded redundant components and wrote the theory in the language engineers could compute with. TOTU keeps both layers: the quaternion bookkeeping where it is useful (potentials, $(S^3)$ / Hopf packing), and the vector field equations where they have been tested.

How TOTU sits on that structure

EM in TOTU is the connection whose curvature and helicity are already in use:

• The proton current is a (U(1)) connection (A) on the Hopfion; charge is $(\int A\wedge dA)$.
• Light-like rim speed (v=c) is Maxwell’s causal speed in the vacuum of that medium.
• The φ-cascade is an impedance transformer for Maxwell fields, not a fifth Maxwell equation. Legal joins still obey the interface conditions of $(\mathbf{E},\mathbf{H})$. The new number is only the residual reflection $(\Gamma_1=\varphi^{-3})$ of a φ-step.
• The phonon ceiling $(v_u=\alpha c\sqrt{m_e/(2m_p)})$ is the elastic sector of the same medium. It does not replace (c).

Restored vacuum energy and the mass-radius identity are additions around Maxwell, not substitutions for $(\nabla\times\mathbf{E}=-\partial_t\mathbf{B})$.

Electric Universe / Thunderbolts — included only where it is Maxwell

Plasma physics that is laboratory fact is already Maxwell + kinetic theory. TOTU takes that part:

• Birkeland currents, double layers, plasma filaments, and circuit-like behaviour in space plasmas.
• Electromagnetic stresses that can rival or exceed gas pressure in dilute media.
• Laboratory plasma configurations that scale, with care, to planetary magnetospheres and stellar wind.

TOTU does not automatically take the full Thunderbolts package:

• denial of solar core fusion,
• replacement of gravitation by electricity at galactic mass scales,
• or a cosmology that ignores the measured CMB acoustic spectrum.

Those are extra hypotheses. They may be discussed where data force the issue. They are not axioms. The rule is the same as for QCD or Λ: keep what survives measurement; do not import a brand.

Where EU is simply reminding physicists that space is not an empty insulator, it is restating Maxwell. That reminder is already inside TOTU.

Compact postulate (usable on the blog)

Electromagnetic postulate. TOTU includes the whole of experimentally established electrodynamics: Maxwell’s original quaternion system, the Heaviside–Gibbs field equations, the Lorentz force, and the plasma / circuit limits of those equations. Heaviside is treated as a reduction, not a censorship. Electric-Universe plasma results are included only insofar as they are Maxwellian and measured. Gravity, inertia, and the proton scale are not obtained by discarding Maxwell; they are obtained by restoring the vacuum terms and the (Q=4) texture on which Maxwell’s connection lives.

That is the statement. Maxwell stays. The new work is what the fields thread through.

The Q = 4 Proton: Proton Radius, Proton–Electron Mass Ratio, and the Phonon Speed Limit - Version 2

One of the most compact algebraic structures in the Super Golden / TOTU framework begins with a quantized circulation condition and ends by connecting the proton length scale, the proton-to-electron mass ratio, the Rydberg constant, the fine-structure constant, the Bohr radius, and the proposed phonon speed limit.

The central relations are

$$\boxed{r_p=\frac{4\hbar}{m_pc}}$$ $$\boxed{\frac{m_p}{m_e} =\frac{\alpha^2}{\pi r_pR_\infty}}$$

and

$$\boxed{ v_u = c\sqrt{\frac{\pi}{2}r_pR_\infty} }.$$

What is especially useful is that these equations can be reduced into a closed family of equivalent algebraic relations. This post develops that chain explicitly and also separates what is assumed, what is derived, and what still requires physical justification.

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1. Start with quantized circulation

For a superfluid-like phase field,

$$\Psi=\sqrt{\rho}\,e^{i\theta},$$

the velocity is

$$\mathbf v=\frac{\hbar}{m}\nabla\theta.$$

Single-valued phase closure requires

$$\oint\nabla\theta\cdot d\mathbf l=2\pi Q,$$

where $Q$ is an integer winding number.

Therefore

$$\oint\mathbf v\cdot d\mathbf l = Q\frac{h}{m}.$$

For a circular vortex of radius $r$,

$$2\pi rv=Q\frac{h}{m}.$$

Since $h=2\pi\hbar$,

$$\boxed{mvr=Q\hbar}.$$

For the proton, take

$$m=m_p, \qquad v=c.$$

Then

$$\boxed{ r(Q)=Q\frac{\hbar}{m_pc}. }$$

If the proton occupies the $Q=4$ circulation sector,

$$\boxed{ r_p=\frac{4\hbar}{m_pc}. }$$

Using the CODATA proton reduced Compton wavelength,

$$\bar\lambda_p = \frac{\hbar}{m_pc} = 2.10308910051\times10^{-16}\ {\rm m},$$

gives

$$\boxed{ r_p = 4\bar\lambda_p = 8.41235640204\times10^{-16}\ {\rm m} }$$

or

$$\boxed{ r_p=0.8412356402\ {\rm fm}. }$$

The numerical constants used here are consistent with the current published 2022 CODATA set maintained by NIST.

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2. Equivalent proton-radius relations

Because

$$\bar\lambda_p=\frac{\hbar}{m_pc},$$

the $Q=4$ proton immediately satisfies

$$\boxed{r_p=4\bar\lambda_p}.$$

Using the ordinary proton Compton wavelength

$$\lambda_{C,p} = \frac{h}{m_pc} = 2\pi\bar\lambda_p,$$

we also obtain

$$\boxed{ r_p=\frac{2}{\pi}\lambda_{C,p}. }$$

The proton circumference therefore has the particularly simple form

$$2\pi r_p = 8\pi\bar\lambda_p = 4\lambda_{C,p},$$

so

$$\boxed{ 2\pi r_p=4\lambda_{C,p}. }$$

The circulation relation itself becomes

$$\boxed{ m_pc\,r_p=4\hbar. }$$

Multiplying by $c$,

$$\boxed{ m_pc^2r_p=4\hbar c. }$$

This suggests a natural proton energy scale

$$E_0\equiv\frac{\hbar c}{r_p}.$$

Using $r_p=4\hbar/(m_pc)$,

$$\boxed{ E_0=\frac{m_pc^2}{4}. }$$

Numerically,

$$E_0\approx234.568\ {\rm MeV}.$$

Thus another equivalent form is

$$\boxed{ r_pE_0=\hbar c. }$$

The associated angular-frequency scale is

$$\omega_0=\frac{c}{r_p} =\frac{m_pc^2}{4\hbar}.$$

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3. Introduce the corresponding electron $Q=4$ length

Apply the same $Q=4$ Compton scaling to the electron:

$$r_e^* = \frac{4\hbar}{m_ec}.$$

I use $r_e^*$ deliberately. This is a derived $Q=4$ electron length scale, not a claim that the electron has a measured classical geometric radius.

Thus

$$\boxed{ r_e^*=4\bar\lambda_e. }$$

Because

$$m_pr_p=4\frac{\hbar}{c}$$

and

$$m_er_e^*=4\frac{\hbar}{c},$$

we have

$$\boxed{ m_pr_p=m_er_e^*. }$$

Therefore

$$\frac{m_p}{m_e} = \frac{r_e^*}{r_p}.$$

Define

$$\mu\equiv\frac{m_p}{m_e}.$$

Then

$$\boxed{ \mu=\frac{r_e^*}{r_p}. }$$

This is the mass-radius inverse scaling of the $Q=4$ construction.

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4. Bring in the Bohr radius

The Bohr radius is

$$a_0 = \frac{\hbar}{m_ec\alpha}.$$

Therefore

$$\frac{\hbar}{m_ec} = \alpha a_0.$$

So the electron $Q=4$ length becomes

$$r_e^* = 4\frac{\hbar}{m_ec} = 4\alpha a_0.$$

Hence

$$\boxed{ r_e^*=4\alpha a_0. }$$

Using the CODATA Bohr radius,

$$a_0 = 5.29177210544\times10^{-11}\ {\rm m},$$

gives approximately

$$\boxed{ r_e^* = 1.5446371\times10^{-12}\ {\rm m}. }$$

The proton-to-electron mass ratio can therefore already be written as

$$\boxed{ \mu = \frac{4\alpha a_0}{r_p}. }$$

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5. Connect the Bohr radius to the Rydberg constant

For the infinite-mass Rydberg constant,

$$R_\infty = \frac{\alpha^2m_ec}{4\pi\hbar}.$$

Rearranging,

$$\frac{\hbar}{m_ec} = \frac{\alpha^2}{4\pi R_\infty}.$$

But

$$\frac{\hbar}{m_ec} = \alpha a_0,$$

so

$$\boxed{ a_0=\frac{\alpha}{4\pi R_\infty}. }$$

Now substitute this into

$$r_e^*=4\alpha a_0.$$

Then

$$r_e^* = 4\alpha \left( \frac{\alpha}{4\pi R_\infty} \right),$$

which reduces to

$$\boxed{ r_e^* = \frac{\alpha^2}{\pi R_\infty}. }$$

This is the key bridge between the electron scale and the Rydberg constant.

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6. Derive the proton-to-electron mass ratio

Since

$$\mu=\frac{r_e^*}{r_p},$$

and

$$r_e^* = \frac{\alpha^2}{\pi R_\infty},$$

we obtain

$$\boxed{ \mu = \frac{\alpha^2} {\pi r_pR_\infty}. }$$

Therefore

$$\boxed{ \frac{m_p}{m_e} = \frac{\alpha^2} {\pi r_pR_\infty}. }$$

Using

$$\alpha = 7.2973525643\times10^{-3},$$ $$R_\infty = 10\,973\,731.568157\ {\rm m^{-1}},$$

and

$$r_p=0.8412356402\ {\rm fm},$$

gives

$$\boxed{ \frac{m_p}{m_e} \approx1836.1526734, }$$

matching the CODATA proton-electron mass ratio

$$1836.152673426(32).$$

The numerical values of $\alpha$, $R_\infty$, $a_0$, and $m_p/m_e$ are from CODATA 2022.

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7. The closed algebraic identity

The mass-ratio equation can be written especially compactly as

$$\boxed{ \alpha^2 = \pi r_pR_\infty\mu. }$$

This single dimensionless identity can be inverted in several useful ways:

Quantity	Equivalent expression
Proton-electron mass ratio	$\displaystyle \mu=\frac{\alpha^2}{\pi r_pR_\infty}$
Proton radius	$\displaystyle r_p=\frac{\alpha^2}{\pi R_\infty\mu}$
Rydberg constant	$\displaystyle R_\infty=\frac{\alpha^2}{\pi r_p\mu}$
Fine-structure constant	$\displaystyle \alpha=\sqrt{\pi r_pR_\infty\mu}$

This makes the internal structure of the relation transparent.

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8. Closing the loop back to $Q=4$

Now substitute the standard Rydberg relation

$$R_\infty = \frac{\alpha^2m_ec}{4\pi\hbar}$$

into

$$r_p = \frac{\alpha^2} {\pi R_\infty\mu}.$$

Since

$$\mu=\frac{m_p}{m_e},$$

we obtain

$$r_p = \frac{\alpha^2} { \pi \left( \frac{\alpha^2m_ec}{4\pi\hbar} \right) \left( \frac{m_p}{m_e} \right) }.$$

Canceling $\alpha^2$, $\pi$, and $m_e$,

$$\boxed{ r_p=\frac{4\hbar}{m_pc}. }$$

Thus the mass-ratio equation and the $Q=4$ radius equation close exactly.

Equivalently,

$$\boxed{ \frac{m_pc\,r_p}{\hbar}=4. }$$

Define the observational or geometric circulation index

$$Q_{\rm eff} \equiv \frac{m_pc\,r}{\hbar}.$$

Then the predicted proton radius gives exactly

$$\boxed{Q_{\rm eff}=4}.$$

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9. The phonon speed-limit equation

The related phonon/sound-speed relation is

$$\boxed{ v_u = c \sqrt{ \frac{\pi}{2}r_pR_\infty }. }$$

The combination under the square root is dimensionless because

$$[r_p]={\rm length}, \qquad [R_\infty]={\rm length}^{-1}.$$

Now use

$$\pi r_pR_\infty = \frac{\alpha^2}{\mu}.$$

Then

$$\frac{\pi}{2}r_pR_\infty = \frac{\alpha^2}{2\mu}.$$

Therefore

$$\boxed{ \frac{v_u}{c} = \frac{\alpha}{\sqrt{2\mu}}. }$$

Since

$$\mu=\frac{m_p}{m_e},$$

this becomes

$$\boxed{ \frac{v_u}{c} = \alpha \sqrt{ \frac{m_e}{2m_p} }. }$$

Thus

$$\boxed{ v_u = \alpha c \sqrt{ \frac{m_e}{2m_p} }. }$$

Numerically,

$$\boxed{ \frac{v_u}{c} \approx1.20419\times10^{-4} }$$

and

$$\boxed{ v_u\approx3.6101\times10^4\ {\rm m/s} }$$

or

$$\boxed{ v_u\approx36.10\ {\rm km/s}. }$$

This is the same fundamental-constant form reported in the published condensed-matter analysis Speed of sound from fundamental physical constants, where it appears as an approximate upper scale for sound speed in condensed phases.

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10. An unexpected Rydberg-energy form

Define the Rydberg energy

$$E_R=hcR_\infty.$$

Using

$$R_\infty = \frac{\alpha^2m_ec}{4\pi\hbar}$$

and $h=2\pi\hbar$,

$$\boxed{ E_R = \frac{\alpha^2m_ec^2}{2}. }$$

Now start from the phonon relation,

$$\left(\frac{v_u}{c}\right)^2 = \frac{\pi}{2}r_pR_\infty.$$

Insert

$$r_p=\frac{4\hbar}{m_pc}.$$

Then

$$\left(\frac{v_u}{c}\right)^2 = \frac{\pi}{2} \frac{4\hbar}{m_pc} R_\infty = \frac{2\pi\hbar cR_\infty} {m_pc^2}.$$

Since

$$2\pi\hbar=h,$$

we obtain

$$\boxed{ \left(\frac{v_u}{c}\right)^2 = \frac{hcR_\infty}{m_pc^2}. }$$

Therefore

$$\boxed{ \left(\frac{v_u}{c}\right)^2 = \frac{E_R}{m_pc^2}. }$$

Or, equivalently,

$$\boxed{ v_u^2=\frac{E_R}{m_p}. }$$

Hence

$$\boxed{ E_R=m_pv_u^2. }$$

This is an algebraic identity within the combined relations; it should not be confused with the ordinary Newtonian kinetic-energy expression $\tfrac12mv^2$.

Using

$$E_0=\frac{m_pc^2}{4},$$

we can also write

$$\boxed{ \left(\frac{v_u}{c}\right)^2 = \frac{E_R}{4E_0}. }$$

This links the proton $Q=4$ energy scale directly to the atomic Rydberg scale.

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11. More useful inverse relations

The phonon equation also allows the proton radius to be recovered from the sound-speed ratio:

$$\boxed{ r_p = \frac{2}{\pi R_\infty} \left(\frac{v_u}{c}\right)^2. }$$

The proton-electron mass ratio can be written

$$\boxed{ \mu = \frac{\alpha^2} {2(v_u/c)^2}. }$$

The fine-structure constant can be written

$$\boxed{ \alpha = \sqrt{2\mu}\, \frac{v_u}{c}. }$$

And the Rydberg constant becomes

$$\boxed{ R_\infty = \frac{2}{\pi r_p} \left(\frac{v_u}{c}\right)^2. }$$

So the same algebra can be entered from several different directions.

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12. A compact relation map

The entire chain can be summarized as

$$\boxed{ Q=4 }$$ $$\Downarrow$$ $$\boxed{ r_p = 4\frac{\hbar}{m_pc} = 4\bar\lambda_p = \frac{2}{\pi}\lambda_{C,p} }$$ $$\Downarrow$$ $$\boxed{ m_pc\,r_p=4\hbar }$$

while for the electron

$$\boxed{ r_e^* = 4\frac{\hbar}{m_ec} = 4\alpha a_0 = \frac{\alpha^2}{\pi R_\infty}. }$$

Therefore

$$\boxed{ \mu = \frac{m_p}{m_e} = \frac{r_e^*}{r_p} = \frac{\alpha^2}{\pi r_pR_\infty}. }$$

And consequently

$$\boxed{ \frac{v_u}{c} = \sqrt{\frac{\pi}{2}r_pR_\infty} = \frac{\alpha}{\sqrt{2\mu}} = \alpha\sqrt{\frac{m_e}{2m_p}} = \sqrt{\frac{E_R}{m_pc^2}}. }$$

That is the algebraic core of the construction.

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13. Comparison with the measured proton charge radius

The $Q=4$ circulation radius is

$$r_{Q=4}=0.84123564\ {\rm fm}.$$

A 2026 precision atomic-hydrogen determination reported the proton rms electric charge radius as

$$r_{E}=0.8406(15)\ {\rm fm},$$

while the cited muonic-hydrogen value is

$$0.84060(39)\ {\rm fm}.$$

The new atomic-hydrogen result is therefore in the same narrow $0.84\ {\rm fm}$ region as the $Q=4$ length.

If we simply form

$$Q_{\rm obs} = \frac{m_pc\,r_E}{\hbar},$$

using $r_E=0.8406(15)$ fm gives approximately

$$\boxed{ Q_{\rm obs}=3.9970\pm0.0071. }$$

This is numerically consistent with $Q=4$.

But one distinction is essential.

The experimental proton radius is the electromagnetic rms charge radius defined by the slope of the electric form factor,

$$r_E^2 = -6 \left. \frac{dG_E(Q^2)}{dQ^2} \right|_{Q^2=0}.$$

The circulation calculation derives a geometric or dynamical vortex radius.

Therefore

$$\boxed{ r_{\rm vortex}=r_E }$$

is not yet a theorem.

A complete theory would need to derive the proton electromagnetic current

$$J^\mu_{\rm EM}$$

and show that its form factor produces the same rms radius.

That remains an important falsifiable step.

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14. What is independent and what is algebraically equivalent?

This distinction matters.

Once

$$Q=4$$

and

$$v=c$$

are supplied, the circulation equation gives

$$r_p=\frac{4\hbar}{m_pc}.$$

Once the standard definitions of $R_\infty$, $a_0$, $\alpha$, and $m_p/m_e$ are then used, the relation

$$\frac{m_p}{m_e} = \frac{\alpha^2}{\pi r_pR_\infty}$$

follows algebraically.

Conversely, if that mass-ratio equation is taken as the starting relation and the standard Rydberg formula is inserted, it returns

$$r_p=\frac{4\hbar}{m_pc}.$$

So these two expressions form an exact consistency loop:

$$\boxed{ r_p=\frac{4\hbar}{m_pc} \quad\Longleftrightarrow\quad \frac{m_p}{m_e} = \frac{\alpha^2}{\pi r_pR_\infty} }$$

given the standard Rydberg identity.

That is mathematically powerful, but it also means they should not be counted as two statistically independent predictions.

Likewise, the phonon relation

$$v_u = c\sqrt{\frac{\pi}{2}r_pR_\infty}$$

reduces to

$$v_u = \alpha c \sqrt{\frac{m_e}{2m_p}},$$

the known fundamental-constant sound-speed expression.

The value of the construction is therefore in the unification of the algebraic structure, while the deeper dynamical challenge remains explaining why the proton occupies the $Q=4$ sector and why the geometric circulation radius should equal its electromagnetic charge radius.

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Conclusion

The $Q=4$ proton construction produces the compact radius

$$\boxed{ r_p=\frac{4\hbar}{m_pc} =0.8412356402\ {\rm fm}. }$$

The corresponding electron $Q=4$ length is

$$\boxed{ r_e^* = \frac{4\hbar}{m_ec} = 4\alpha a_0 = \frac{\alpha^2}{\pi R_\infty}. }$$

Their ratio gives

$$\boxed{ \frac{m_p}{m_e} = \frac{r_e^*}{r_p} = \frac{\alpha^2}{\pi r_pR_\infty}. }$$

The same dimensionless combination then generates the phonon speed limit,

$$\boxed{ v_u = c\sqrt{\frac{\pi}{2}r_pR_\infty} = \frac{\alpha c}{\sqrt{2(m_p/m_e)}} }$$

with

$$\boxed{ v_u\approx36.10\ {\rm km/s}. }$$

Finally,

$$\boxed{ \left(\frac{v_u}{c}\right)^2 = \frac{E_R}{m_pc^2} }$$

connects the atomic Rydberg energy directly to the proton mass-energy scale.

The resulting algebraic network is remarkably compact:

$$\boxed{ Q=4 \;\longrightarrow\; r_p \;\longleftrightarrow\; \frac{m_p}{m_e} \;\longleftrightarrow\; \alpha,R_\infty,a_0 \;\longrightarrow\; v_u. }$$

The outstanding physics question is no longer whether these equations are mutually consistent—they are. The sharper question is whether a microscopic proton theory can derive the $Q=4$ sector, the electromagnetic form factor, and the phonon dynamics independently rather than assuming them. That is the point at which this algebraic closure becomes a genuine physical derivation rather than a highly constrained consistency relation.