Is Gravity the Pure-Vacuum SINGULAR state?

In summary: It may be that Blackholes absorb Photon-Energy, but actually Emit Light at a reduced frequency, so much so that it becomes Invisible at close quarters, Dark.
  • #1
Olias
257
0
May be absorbing 3-D information, but they can only emit 2-D information.

According to Hawking recent expose on 'Information Paradox', the result conforms to the reality that Blackholes at all Galactic cores are really Nature's Parametric Low Energy Dimensional Down-Converters.

For every 3-D bit (three 'lengths' of anything: E = mc^2 ) of infalling information absorbed into the Horizon of a BH, only 'two-bits/lengths' are returned away from the Horizon.

The 2-D vacuum of space consists of expanding 'Lengths/bits'.

The initial state of Quantum Origin, 'pure state', has a definate paramiter and evolves along a path integral that maintains its state, ie remains forever a pure state, according to accepted Quantum Theory.

But Hawking Radiation equates to the Pure state 'flipping' from a pure state to a mixed state, what I term as a Quantum Flip! as opposed to a Quantum Jump?

The difference being the Photon-Electron interaction occurs in Spacetime 3+1 Dimensions, a photon of hv energy remains so before and after interactions.

But a photon of hv energy falling into a BH does not retain its hv value, at least 1/3 of its energy remains behind (enclosed) within the Blackhole, thus the photon is re-scaled to a low-energy/lesser-dimensional physical quantity.

One can almost state that photons are 'entangled' to the Electromagnetic Vacuum, by the slowed down environment of Blackhole Horizons, which would make Blackholes High-energy thermal absorbers, and Low-energy thermal Emmiters, simply because of the 3-D directional rate known as Entropy :rolleyes:

Next question is can Gravitational Waves be 'fixed' into the location of a 1-D background, or conversely is Gravity the Pure-Vacuum SINGULAR state?
 
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  • #2
Olias said:
Next question is can Gravitational Waves be 'fixed' into the location of a 1-D background, or conversely is Gravity the Pure-Vacuum SINGULAR state?

Can we stretch our imagination both sides of the 3D domain?

Between 0D and 1D the force is gravity. Between 1D and 2D the force is the nuclear strong force. Between 2D and 3D the force is electromagnetic. Between 3D and 4D the force is the weak nuclear force.

The 1D universe is ruled by quanta of spacetime. The 2D universe is ruled by a continuous field of 2D space. The 3D universe is ruled by quanta of energy. The 4D universe is ruled by quanta of mass.
 
  • #3
Antonio Lao said:
Can we stretch our imagination both sides of the 3D domain?

Between 0D and 1D the force is gravity. Between 1D and 2D the force is the nuclear strong force. Between 2D and 3D the force is electromagnetic. Between 3D and 4D the force is the weak nuclear force.

The 1D universe is ruled by quanta of spacetime. The 2D universe is ruled by a continuous field of 2D space. The 3D universe is ruled by quanta of energy. The 4D universe is ruled by quanta of mass.

It may be that Blackholes absorb Photon-Energy, but actually Emit Light at a reduced frequency, so much so that it becomes Invisible at close quarters, Dark.

The Luminocity function for observing far away Galaxies shows that all Galaxies have a Halo of invisible Matter, this should not be detectable at close range, for instance we cannot detect the Dark Matter within the Milky way because of our Proximity.
 

What is the Blackhole Information Paradox?

The Blackhole Information Paradox is a theoretical problem in physics that revolves around the idea that information cannot be destroyed, but according to the laws of physics, it should be destroyed when it enters a black hole.

How did the Blackhole Information Paradox arise?

The Blackhole Information Paradox was first proposed by physicist Stephen Hawking in the 1970s. He theorized that black holes emit radiation, known as Hawking radiation, which suggests that information may be able to escape a black hole. This created a paradox because it contradicted the previous belief that all information was destroyed in a black hole.

Why is the Blackhole Information Paradox important?

The Blackhole Information Paradox is important because it challenges our understanding of the laws of physics, particularly the principles of general relativity and quantum mechanics. It also has implications for our understanding of the nature of black holes and the fate of information in the universe.

What are some proposed solutions to the Blackhole Information Paradox?

There have been several proposed solutions to the Blackhole Information Paradox, including the holographic principle, which suggests that all information in a black hole is encoded on its surface, and the firewall hypothesis, which suggests that any object falling into a black hole would encounter a firewall of high-energy particles that would destroy it. However, there is no consensus on which solution is correct.

Why is it difficult to study the Blackhole Information Paradox?

The Blackhole Information Paradox is difficult to study because it involves the interaction of two of the most complex and enigmatic concepts in physics: black holes and information. Additionally, our current understanding of physics is not yet complete, so it is challenging to apply our existing theories to this paradox. Furthermore, black holes are notoriously difficult to observe and study, making it challenging to test any proposed solutions to the paradox.

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