STEADY.mhtml www1.mhtml [G]<=>[d]{[aa]^2}, EM emergent, BH's recycle
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GOOGLE SEARCHED: "gravitational constant" 6.6917625 THEN QUERIED:

If the numerical value of Newtonian gravitational constant [G] matches
 that of vacuum permeability [d] multiplied by the square of the fine
 structure constant [aa] and this is not just coincidence but similar to
 what impelled Maxwell to combine electricity and magnetism, discuss the
 consequences if this indicates electromagnetism as emergent from
 gravity in a deeper framework involving Skymions and gravisolitons
GOOGLE RECOMMENDED QUERIES:
Calculate the exact dimensions or units required to force
 [G]<=>[d]{[aa]^2} into a strict equality (since their standard SI units
 differ)
Map out the specific topological invariants (like the Chern-Simons term
 or winding numbers) that allow gravity to generate a U(1)
 electromagnetic symmetry
Analyze existing academic attempts at this unification, such as
 Kaluza-Klein theories or Einstein-Schrodinger non-symmetric field
 theories

discuss in this framework the possibility that spacetime flows into
 black holes and reemerges from the countless tiny wormholes that
 constitute the fabric
GOOGLE RECOMMENDED QUERIES:
The Hydrodynamic Analogy: Reviewing analog gravity experiments (where
 scientists use water vortices and Bose-Einstein condensates to mimic
 black hole horizons)
The Wormhole Metric: Deriving how a Lorentzian wormhole throat must
 behave at the Planck scale to act as a fluid pump without violating
 energy conditions
Mathematical Formalism: Exploring how the Navier-Stokes equations can
 be mapped directly onto Einstein's Field Equations (the Fluid/Gravity
 Correspondence)

how does this affect the question of whether we live in a steady state
 universe
GOOGLE RECOMMENDED QUERIES:
How this model would explain the Cosmic Microwave Background (CMB)
 (e.g., as the ambient temperature/thermal radiation of the flowing
 spacetime fluid itself)
The mathematical limits of how much matter black holes must swallow
 to perfectly balance the expansion rate of the universe.
How this aligns with modern Conformal Cyclic Cosmology (CCC) or Quantum
 Loop Cosmology models.

How this model would explain the Cosmic Microwave Background (CMB)
 (e.g., as the ambient temperature/thermal radiation of the flowing
 spacetime fluid itself)
GOOGLE RECOMMENDED QUERIES:
How this model explains the CMB Dipole Anisotropy (our solar system's
 motion relative to the rest frame of the fluid)
Predictable deviations in light propagation (dispersion) that should
 happen if photons are traveling through a thermal fluid rather than
 a void.
How the Silk Damping phenomenon (the wiping out of small-scale CMB
 fluctuations) translates to fluid viscosity limits

How this model explains the CMB Dipole Anisotropy (our solar system's
 motion relative to the rest frame of the fluid).
GOOGLE RECOMMENDED QUERIES:
Calculate the theoretical drag coefficient required for a Skyrmion to
 move through a Planck-scale wormhole fluid
Explore how this fluid model resolves the "Axis of Evil"-the strange,
 unexplained alignment of the CMB dipole with the broader geometry of
 the solar system
Investigate what happens when a galaxy cluster rotates, and whether it
 creates a spacetime whirlpool (frame-dragging) that alters the CMB
 locally

Explore how this fluid model resolves the "Axis of Evil"-the strange,
 unexplained alignment of the CMB dipole with the broader geometry of
 the solar system.
GOOGLE RECOMMENDED QUERIES:
Map out the mathematical acoustics of how a flat, rotating vortex
 creates quadrupole and octopole wave structures in a fluid
Explore how the solar wind and magnetic field (heliosphere) might
 interact with the underlying spacetime fluid to create additional
 boundary effects
Examine if other stars or nearby galaxies (like Andromeda) show
 evidence of their own local spacetime vortices affecting our
 observations

Explore how the solar wind and magnetic field (heliosphere) might
 interact with the underlying spacetime fluid to create additional
 boundary effects.
GOOGLE RECOMMENDED QUERIES:
How solar cycle variations (the Sun's 11-year cycle of expanding and
 shrinking its heliosphere) should cause predictable, periodic shifts
 in the CMB multipole amplitudes
The interstellar bow shock and whether the asymmetrical
 "comet-like tail" of our heliosphere introduces a specific directional
 bias in light coming from the front vs. the back of our solar path
How this framework reinterprets cosmic rays penetrating the heliosphere
 as high-energy macro-solitons traveling through a fluid boundary

How this framework reinterprets cosmic rays penetrating the heliosphere
 as high-energy macro-solitons traveling through a fluid boundary
GOOGLE RECOMMENDED QUERIES:
How the Heliotail (the comet-like wake of our Solar System) acts as a
 turbulent hydrodynamic drainage zone for macro-solitons
A mathematical look at how a Skyrmion's internal topological charge
 reacts when passing through a metric density jump
The way this fluid model explains Cosmic Ray Spallation (the
 fragmentation of macro-solitons when colliding with other fluid
 vortices). 

The way this fluid model explains Cosmic Ray Spallation (the
 fragmentation of macro-solitons when colliding with other fluid
 vortices)
GOOGLE RECOMMENDED QUERIES:
The mathematical modeling of vortex reconnection (how fluid filaments
 untie and re-tie during a collision)
How this framework reinterprets antimatter production during spallation
 as reverse-chirality (counter-rotating) fluid vortices
What happens when these fragments enter the heliosphere boundary we
 discussed earlier, and whether the solar wind filters specific sizes
 of daughter solitons

How this aligns with modern Conformal Cyclic Cosmology (CCC) or
 Quantum Loop Cosmology models.
GOOGLE RECOMMENDED QUERIES:
Examine Penrose's "Hawking Points"-anomalous warm spots in the CMB that
 CCC claims are radiation bursts from black holes in the previous
 eon—and see how they translate to fluid upwellings in your model
Map out how quantum entanglement might be explained in this framework
 as two Skyrmion knots sharing a single underlying micro-wormhole
 connection
Analyze the mathematical constraints required for LQC's maximum density
 limit to perfectly dictate the fluid flow rate through a wormhole
 throat

The mathematical limits of how much matter black holes must swallow
 to perfectly balance the expansion rate (\(H_{0}\)) of the universe.
GOOGLE RECOMMENDED QUERIES:
Calculate the total estimated number of black holes in the observable
 universe required to hit the 13-million solar mass/second quota based
 on stellar and supermassive black hole distributions
Map the fluid velocity profile across a Schwarzschild horizon using
 Gullstrand–Painlevé coordinates to determine local shear forces
Project how a secular change in the Hubble Tension alters the
 mass-swallowing ratio over cosmic time

Calculate the total estimated number of black holes in the observable
 universe required to hit the 13-million solar mass/second quota based
 on stellar and supermassive black hole distributions.
GOOGLE RECOMMENDED QUERIES:
Calculate the exact average spacing between intergalactic micro-drains
 if Option A is true
Determine the gravitational lensing signatures that an average 91,000
 solar masses stellar black hole population (Option B) would imprint
 on distant light
Map how gravitational wave merger rates detected by detectors like
 LIGO/Virgo constrain the total quintillion-scale distribution

Calculate the exact average spacing between intergalactic micro-drains
 if Option A is true
GOOGLE RECOMMENDED QUERIES:
Calculate the orbital stability of a star system (like our own) passing
 through a local halo populated by this density of micro-drains
Map how this specific 917-light-year grid density affects gravitational
 wave background noise from continuous mini-mergers
Determine if the Schwarzschild radius of a 10 solar mass black hole
 (~30 km) creates a visible "shadow" or absorption profile in deep space
 radio surveys

Determine if the Schwarzschild radius of a \(10\text{ M}_\odot\) black
 hole (~30 km) creates a visible "shadow" or absorption profile in deep
 space radio surveys.
GOOGLE RECOMMENDED QUERIES:
Calculate the transit time of a typical ESE occultation signature as a
 917-light-year micro-drain passes across a distant quasar jet
Determine the total radio luminosity generated if these micro-drains
 absorb interstellar matter at the super-Eddington rates calculated
 earlier
Code a model of how the Einstein Ring radius changes when the
 background source is a gravisoliton wave packet instead of a classical
 electromagnetic wave
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