Recently, I have proposed a theory about Black Holes:
Black hole basically stretches any object headed right into the singularity of the Black Hole, making it smaller and smaller (Spaghettification). So once the object reaches at the size, reaching a Quantum Level Size (smaller than an atom), the gravity of the black hole will get flipped and will work in the Reverse Direction; gravity at the quantum level is “repulsive” instead of being attractive. So due to this “repulsive” gravity, this Black Hole will throw out that object, it maybe in the form of Hawking Radiations, or the Black Hole will be in a Superposition State, Black and White Hole simultaneously, and will work as a white hole, and this “superposition” state of the Black Hole would be Wormhole.
That means, a Black Hole is existing as a White Hole simultaneously, it is just that an object has to be infinitely small to escape a Black Hole.
Siddharth Rana,
As I have explained in my books the cores (SMBH:s) of the galaxies are constructed by deeply bound pairs of particle-antiparticle. The strong binding prevents them from annihilating.
However debris falling into the core can break the bindings and particles being ejected. The particle ejected will in the case of protons have a kinetic energy of order 1Gev which is enough to escape to infinity from say a core of size 10^37 kg.
The interesting thing is that new observations now show that younger galaxies have larger cores. Thus, the cores will shrink with time. Just according to my predictions. It is all in my last book (V).
``Spaghettification'' doesn't have any size limit-there's no such limit as a ``quantum level size'' in general relativity.
What does exist is a spacetime singularity.
Gravity-where it makes sense-is, always, attractive: A white hole isn't a counterexample, just another manifestation. A spacetime geometry, that looks like a junction between a black hole and a white hole is, in fact, a totally different solution to Einstein's equations and is called a wormhole. It turns out that classical matter can't ``traverse'' it; recently it was discovered that, under certain conditions, quantum matter could: Preprint Humanly traversable wormholes
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