How small can you make a black hole?
How small can you make a blackhole in resonance model?
Matter is composed of two sizelss particles +ve and -ve, one force, electric, electric propagates at infinity, there is no mass, no speed of light, no momentum, no inertia, no meaningful sense of time.... that resulted in a numerical simulation called peasoup, which made a resonant oscillating frequency F, which made a speed of light (1W per 1F), velocity in the range 0 to 1W (a component of F oscillation pushed into a direction across the F field), a sense of time (how many F ticks), ribbons in motion (photons?), hoops/donuts of multiples of W (quarks?), momentum (conservation of energy in that velocity oscillation), anti-particles (single axis mirror particle shoved W/2 along the axis), electrons with orientation and spin (F2, two wavelength donut, -ve monopole, two wavelength anti-donut), magnetism (F/2 oscillation inphase or out of phase depending on which donut is up and which is down in the field), gravity (shorter W near mass, means resonance point is nearer mass side), and a bunch of other stuff covered in slashdot and some discussed here, like the effect of velocity on atomic clocks.
In resonance model, a black hole is a 2F universe (relative to the outer blackhole) and we're in one. The edge of our observable universe is the inner edge of an event horizon. Since everything depends on F, including time, speed of light and propagation of forces, to us, it makes no difference if we're 2 deep in black holes or 2 billion deep in blackholes, we couldn't tell the difference).
Velocity inwards and outwards is spin on the outer blackhole.
If we're accelerating it likely means our black hole is spinning faster or shrinking as it ejects matter.
Blackholes are common, 2F oscillations, the organization of matter compresses W (light in a vacuum travels 1W per oscillation, light in glass travels 1W per oscillation too, it's resonant so it cannot change frequency, so W must be shorter in glass). As W gets to W/2 in all directions if the 2F matter is sufficient in relation to surrounding 1F matter, it can form a 2F black hole. F can double to 2F for that matter forming an event horizon where the transition happens.
2F decouples the blackhole from the surrounding matter, except for magnetism (F/2 magnetic becomes the electric field outside at right angles), and more complex oscillations would also interact. Simply put, every pull in 1F is met with a push/pull in 2F. The blackhole decouples except for some minor stuff.
Matter enters a 2F blackhole, heads to the center, crosses the center, and exits the black hole. Blackholes are simply a measure of the concentration of oscillating matter.
As matter concentrates, it forms 2F blackholes which grow as more matter enters, as it exits, the blackhole shrinks, ejecting its contents via rotation.
Blackholes within blackholes within blackholes, each twice the frequency, time running twice as fast, half the wavelength....
My point in the context to this article was made above... that the universe acceleration is driven by spin or shrinkage in the outer black hole around our universe. But I wanted to point out a another point...
A blackhole ejects its contents as spin as it shrinks. You see your spiral galaxy? The one with the blackhole in the center. You think the stars are being sucked into the black hole? Maybe, but MORE LIKELY IT WAS EJECTED BY THE SHRINKING BLACK HOLE. The spirals being ejected matter as the blackhole shrinks spinning faster.
Inside those black holes, their universe is expanding faster too. The outer black hole spinning faster, their inner universe shrinking, stars disappearing at the fringes of their universe.
If our universe is expanding, then we're likely in expansion phase of our blackhole, with matter exiting this black hole, and the blackholes within ours are also more likely to also be in expansion phase, ejecting their matter into our universe.
i.e. SPIRAL GALAXIES ARE BLACK HOLE EJECTS