Einstein Hubble on White Holes

The Einstein-Hubble steering comittee worked very late last night on this center of the SUN White Hole investigations. After dinner at our favorite Provencal Decor style restaurant, the Olive Oil Cruet, in Geneva, Einstein, Hubble and Planck went back at the CERN LHC labs to proceed with some experiments related to the While Hole we suspected existed in the center of the SUN, right at the heart of our solar system.

For those not familiar with the topic, in astrophysics, a white hole is the time reversal of a black hole. While a black hole acts as an absorber for any matter that crosses the event horizon, a white hole acts as a source that ejects matter from its event horizon. The sign of the acceleration is invariant under time reversal, so both black and white holes attract matter. The potential difference between them is in the behavior at the horizon and the inversed polarization of the Higgs Field inside the White Hole.

Sometimes, it has been heard that Hawking argued that white holes are the same as black holes, once quantum mechanics is taken into account. We all three, Einstein, Hubble and Planck have emitted doubts that it could be not that simple.

However many scientists used to consider that Black hole horizons can only absorb matter, while white hole horizons ostensibly recede from any incoming matter at the local speed of light, so that the infalling matter never crosses. The infalling matter is then scattered and reemitted at the death of the white hole, receding to infinity after having come very very close to the final singular point where the white hole is destroyed. The total proper time until an infalling object encounters the singular endpoint is the same as the proper time to be swallowed by a black hole, so the white hole picture does not say what happens to the infalling matter. Ignoring the classically unpredictable emissions of the white hole, the white hole and black hole are indistinguishable for external observers.

In quantum mechanics, the black hole emits Hawking radiation, and so can come to thermal equilibrium with a gas of radiation. Since a thermal equilibrium state is time reversal invariant, Hawking argued that the time reverse of a black hole in thermal equilibrium is again a black hole in thermal equilibrium.^[1] This implies that black holes and white holes are the same object. The Hawking radiation from an ordinary black hole is then identified with the white hole emission. Hawking's semi-classical argument is reproduced in a quantum mechanical AdS/CFT treatment^[2], where a black hole in Anti De Sitter space is described by a thermal gas in a gauge theory, whose time reversal is the same as itself.

What we have experimented last night is that the White Hole, sitting at the center of the Sun, not only emit anti-matter, mainly anti-protons, as would be normally expected, but also rejects a form of, so far unknown, gravitational radiation which seem to be directly derived from quantic fluctuations in the inversed Higgs Field. Hubble is currently performing additional verifications on the results and will get back to us with more details soon.

Einstein for the Einstein-Hubble association.