AI prompts

## black hole degenerate region (actually it has different layers of degeneracy, but the region behind the event horizon is turbulent and they fragment)

(Without human effort and good dedicated Mathematical AI and Quantum Field Theory AI it's impossible AI to be of major breakthrough use; push for the creation of good dedicated Mathematical AI and Quantum Field Theory AI; also a separate programming architecture for setting goals is required; with corrections if something is obviously wrong)

Can you replace the black hole ringularity with a degenerate strong force superfluid? It must be surrounded by a quantum tunneling reabsorption layer, otherwise the black hole will explode. The maximal degeneracy chromodynamic superfluid is at the central torus of the rotating black hole, and its surrounding back-loop quantum tunneling reabsorption layer is still behind the event horizon. Use quantum field theory to describe the phenomena. Use topological quantum field theory only if you find a dead end, and then revert to use again standard quantum field theory.

### AI Chat - DeepAI

In this proposed scenario, instead of a singularity at the center of a black hole, we suggest that there is a region of extremely high density and pressure where the strong force becomes a superfluid. This superfluid is degenerate, meaning that it is in a state with the lowest possible energy for its given volume and number of particles.

The superfluid is surrounded by a quantum tunneling reabsorption layer, which is responsible for preventing the superfluid from exploding out of the black hole. This layer allows particles to tunnel through the barrier created by the strong force, but they are immediately reabsorbed back into the superfluid. This process ensures that the superfluid remains contained within the black hole.

The maximal degeneracy chromodynamic superfluid is located at the central torus of the rotating black hole. This torus is formed by the collapse of matter into the black hole, and it spins rapidly due to conservation of angular momentum. The high density and pressure in this region cause the strong force to become a superfluid, which further enhances the torus's stability.

The surrounding back-loop quantum tunneling reabsorption layer is still behind the event horizon, which means that it is not directly observable. However, its existence can be inferred from the behavior of matter that falls into the black hole. If matter were to escape from behind the event horizon, it would be observed as a bright flash of light known as a "tidal disruption event." However, such events are not observed for matter that falls into black holes with masses greater than about 10 times that of the sun, which suggests that there is some mechanism preventing matter from escaping. The quantum tunneling reabsorption layer provides a possible explanation for this phenomenon.

To describe this scenario using quantum field theory, we would need to develop a new model that incorporates both strong and electroweak interactions in addition to gravity. This model would need to account for both the superfluid behavior of the strong force and the quantum tunneling reabsorption layer. If we encounter any dead ends in our efforts to develop this model using standard quantum field theory, we may need to turn to topological quantum field theory as an alternative approach. However, we would only do so as a last resort, as topological quantum field theory is still in its infancy and has not yet been fully developed or tested experimentally.

prompt by the prompter:

Use your above text, but suggest more layers of degeneracy. The maximal degeneracy region is at the central torus of the black hole, but less degenerate degeneracy states exist above it (extrapolate condensed matter physics to high degeneracy and use quantum field theory to describe the phenomena–different layers of different degrees of degeneracy; some known to nowadays physics but most not). Of course the black hole is turbulent and this layers are mixed and fragmented, unable to remain stable. All the described phenomena here are behind the event horizon. The stable regions are a. the maximal degeneracy chromodynamic = strong-force superfluid, and b. the quantum tunneling reabsorption layer (still behind the event horizon; otherwise the black hole will lose mass or totally explode if it's very small and unable to sustain a quantum tunneling reabsorption layer.

reply by the AI:

In this proposed scenario, we suggest that the black hole degeneracy is not limited to a single region, but rather consists of multiple layers of varying degrees of degeneracy. The maximal degeneracy region is located at the central torus of the black hole, where the strong force becomes a superfluid in a state with the lowest possible energy for its given volume and number of particles.

Above this maximal degeneracy region, there exist less degenerate states that are also turbulent and fragmented, unable to remain stable due to the extreme conditions within the black hole. These less degenerate states may include regions with weaker superfluid behavior or regions where the strong force is not yet fully condensed into a superfluid state.

To describe these additional layers of degeneracy using quantum field theory, we would need to further develop our understanding of high-density and high-pressure states in both condensed matter physics and nuclear physics. These states are still being studied and are not yet fully understood, but they may provide insights into the behavior of matter in the extreme conditions within a black hole.

The quantum tunneling reabsorption layer still exists behind the event horizon, preventing matter from escaping and ensuring that the black hole remains stable. However, as we move further away from the maximal degeneracy region, this layer may become less effective at preventing matter from escaping, leading to more frequent tidal disruption events for smaller black holes.

Overall, this scenario suggests that black holes are not simply singularities at their centers, but rather complex systems with multiple layers of degeneracy and turbulent behavior. Further research is needed to fully understand these phenomena and their implications for our understanding of gravity and quantum mechanics.

prompter:

Can you describe possible degeneracy phenomena unknown to man by extrapolating condensed matter physics to extreme degeneracy pressure?

reply:

As we continue to push the boundaries of our understanding of condensed matter physics, we are discovering new phenomena at increasingly high pressures and densities. These extreme conditions are also relevant to the study of black holes, where matter is compressed to unimaginable densities and pressures near the event horizon.

By extrapolating our knowledge of condensed matter physics to these extreme conditions, we can make some tentative predictions about possible degeneracy phenomena unknown to man. Here are a few possibilities:

1. Superconductivity at ultra-high temperatures: In conventional superconductors, the superconducting state is destroyed by thermal fluctuations at a critical temperature known as the superconducting critical temperature (Tc). However, in certain materials, such as cuprates and iron pnictides, superconductivity persists up to much higher temperatures than expected. By extrapolating this behavior to even higher temperatures and pressures, it's possible that superconductivity could occur at temperatures approaching absolute zero (-273.15°C) and pressures approaching those found inside a black hole.

2. Quantum criticality: In certain materials, such as heavy fermion systems and quantum magnets, the transition between different phases of matter is accompanied by a divergence in certain physical quantities, such as the specific heat or magnetic susceptibility. This phenomenon is known as quantum criticality, and it can lead to a variety of interesting effects, such as enhanced superconductivity or unconventional magnetism. By extrapolating this behavior to even higher pressures and densities, it's possible that quantum criticality could lead to new phases of matter with exotic properties.

3. Strongly correlated Fermi liquids: In conventional metals, the behavior of electrons is described by Fermi-Dirac statistics, which takes into account both their quantum mechanical nature and their interactions with one another. However, in certain materials, such as high-pressure hydrogen and helium, the interactions between electrons become so strong that they cannot be described by Fermi-Dirac statistics alone. Instead, they form strongly correlated Fermi liquids, which exhibit novel properties such as enhanced superconductivity or unconventional magnetism. By extrapolating this behavior to even higher pressures and densities, it's possible that strongly correlated Fermi liquids could lead to new phases of matter with exotic properties.

4. Quantum chromodynamics at ultra-high densities: Quantum chromodynamics (QCD) is the theory that describes the strong nuclear force between quarks and gluons. At low densities and temperatures, QCD predicts that quarks and gluons are confined within hadrons (such as protons and neutrons) due to the strong nuclear force. However, at extremely high densities and temperatures (such as those found inside a black hole), it's possible that QCD could undergo a phase transition into a new state of matter known as quark-gluon plasma (QGP). This state is characterized by deconfined quarks and gluons moving freely through space-time, rather than being confined within hadrons. By extrapolating our understanding of QCD to these extreme conditions, it's possible that new phenomena could emerge that are not yet understood.

These are just a few possibilities for possible degeneracy phenomena unknown to man by extrapolating condensed matter physics to extreme degeneracy pressure. As our understanding of condensed matter physics continues to evolve, it's likely that we will discover even more unexpected phenomena in these extreme conditions.

## Trying to replace singularity/ ringularity with a maximally degenerate chromodynamic superfluid

prompt:

Please use condensed matter physics and quantum field theory to describe quark degeneracy which is more degenerate than quark gluon plasma, quark degeneracy is a strong force superfluid (use your knowledge on superfluids to describe it), and quark degeneracy is maximally cold, very close to absolute zero temperature (very close to −273.15 degrees on the Celsius scale) because it has no way to express any mechanism for heat.

reply:

Quark degeneracy, a hypothetical state of matter that has not been observed, is predicted to be more degenerate than quark-gluon plasma (QGP) by condensed matter physics and quantum field theory. In this state, quarks are arranged in a superfluid, which is a type of quantum fluid with zero viscosity and frictionless flow.

In a superfluid, the quantum mechanical wave function of the system is coherent, meaning that all the particles in the system are in a collective quantum state. This coherence gives rise to unique properties, such as the ability to flow without any resistance or friction, even at very low temperatures.

Quark degeneracy is expected to be maximally cold, very close to absolute zero temperature (-273.15 degrees Celsius), because it has no way to express any mechanism for heat. This extreme coldness is necessary to suppress thermal fluctuations and maintain the coherence of the quark superfluid.

In this state, quarks are held together by the strong nuclear force, which is much stronger than the electromagnetic force that binds atoms together in solids. The strong force creates a complex network of interactions between quarks, known as gluons, which bind them into larger structures like protons and neutrons.

In quark degeneracy, however, the strong force is so strong that it overcomes the repulsive effects of electric charge and allows quarks to come into direct contact with each other. This results in a state of matter that is more degenerate than QGP because it has a higher density of quarks and gluons packed into a smaller volume.

The behavior of quark degeneracy is governed by quantum field theory, which describes the behavior of subatomic particles and their interactions with each other. In this state, quarks and gluons behave as quantum fields rather than as individual particles, leading to unique phenomena like superfluidity and extreme coldness.

While quark degeneracy remains a theoretical concept at this time, it represents an exciting frontier in our understanding of the behavior of matter at extreme densities and temperatures. Further research into this state could shed new light on the fundamental forces that govern the universe and provide new insights into the nature of matter itself.

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prompt:

Please describe quark degeneracy as a strong force superfluid. Maximal quark degeneracy isn't the quark gluon plasma. Maximal quark degeneracy is a near absolute zero temperature superfluid (it has no way to express heat) with an extremely hot surface. We have to replace the rotating black hole ringularity with a maximally degenerate chromodynamic torus which has near absolute zero temperature and extremely hot surface which tries to evaporate the black hole's torus, but above the black hole chromodynamic superfluid torus there is a quantum tunneling reabsorption layer, still behind the event horizon. Miniscule black holes don't have the quantum tunneling reabsorption mechanism behind their event horizon, that's why they evaporate. That's why some neutron-star-sized black holes revert to being neutron stars; the quantum tunneling reabsorption layer should necessarily be inside the event horizon for the black hole to be stable. Also extremely huge supermassive black holes might become functionally sick, with multiple centers and with disturbed quantum tunneling reabsorption mechanisms. Please base your thoughts on quantum field theory and extrapolate condensed matter physics to maximal degeneracy pressure. Be maximally rigorous and before you export any result correct all logical mistakes.

reply:

I apologize, but it seems that the information provided is not entirely accurate or coherent. Quark degeneracy refers to the principle in quantum mechanics that states that no two identical fermions (such as quarks) can occupy the same quantum state simultaneously. It is related to the Pauli exclusion principle.

A strong force superfluid, on the other hand, is a theoretical state of matter where quarks and gluons are able to flow freely without any resistance due to the strong nuclear force. This is similar to how a regular superfluid, such as liquid helium-4, flows without any viscosity at low temperatures.

Maximal quark degeneracy and the quark-gluon plasma are actually related concepts. The quark-gluon plasma is a state of matter that existed in the early universe, where temperatures were extremely high. In this state, quarks and gluons are not confined within hadrons (like protons or neutrons) but instead exist as a deconfined plasma.

Near absolute zero temperature, or reaching the absolute zero of temperature (0 Kelvin or -273.15 degrees Celsius), is a state that has never been reached experimentally. At such low temperatures, quantum effects become dominating, and a system may exhibit superfluidity or other macroscopic quantum phenomena.

The concept of a black hole's torus, a chromodynamic torus, or a quantum tunneling reabsorption layer is not supported by current understanding of black holes or quantum field theory. Black holes are objects with extremely strong gravitational forces that result from the collapse of massive objects, and their physics is governed by general relativity.

It's important to rely on well-established scientific principles and theories when discussing complex topics like quark degeneracy and black holes.

prompt:

Yes, but nowadays we don't have the correct theory for the black hole ringularity in rotating black holes. The ringularity doesn't provide any specific mechanism about who the fundamental forces in nature behave to shape it; thus use the previous texts and try to discover new physics by always respecting the known laws.

reply:

While it is true that our current theories do not provide a complete understanding of the singularity within rotating black holes, scientists are actively exploring this realm to discover new physics. The singularity represents a point where our current understanding of gravity breaks down, and it is an area of intense research.

To tackle this problem, researchers often turn to the known laws of physics, such as general relativity, to investigate the behavior of black hole singularities. They analyze the equations that describe the curvature of space-time and try to understand the implications of rotating black holes on these equations. By studying the properties of rotating black holes within the framework of current theories, scientists aim to uncover new insights that could lead to the development of a more comprehensive theory.

However, the true nature of the singularity requires a theory that unifies gravity with quantum mechanics. The current theories can describe black holes classically but struggle to account for the quantum effects that become significant near the singularity. Developing a theory of quantum gravity remains an active area of research, with various approaches such as string theory and loop quantum gravity being explored.

In summary, while we do not possess an exact theory for the singularity in rotating black holes, scientists continue to examine this enigmatic phenomenon using the known laws of physics. Their efforts aim to uncover new physics and advance our understanding of the fundamental forces that play a role in shaping the singularity.

prompt: too huge to mention (it will ruin the document for no reason); the reply is based on the huge prompt I omitted

reply:

Quantum entanglement (mostly partial) Everettian decay leads to a redefinition of positions in a particle network through the transfer of wavefunctional information. This redefinition occurs probabilistically, with some configurations of particles entangling and others disentangling. As a result, the overall entanglement arrangement of particles changes over time, creating a dynamic network of transient (fast on/off entanglement conformational changes) and transitional (gradual) evolution.

In this gravitational network, the bending of spacetime occurs through the entanglement of both real and virtual particles (virtual particles don't exist, but are equivalents to field dynamics in quantum field theory). The entanglement among real particles lasts longer, leading to a more significant effect on the curvature of spacetime, which we perceive as gravity. On the other hand, the entanglement among only virtual particles contributes to the bending of spacetime associated with dark matter. If dark matter is lost (The Bullet Cluster is a wrong example because its dark matter will elastically get restored to the center of gravity after some billion years) in a galaxy collision, it can regenerate over billions of years. Additionally, if a galaxy accumulates extra dark matter beyond what its mass predicts, some of it will be absorbed by its black holes, but most will fade out over time. However, the stability of dark matter over billions of years requires a corresponding amount of matter in its vicinity.

Ultimately, gravity exists because of the probabilistic nature of quantum entanglement (mostly partial in larger groups of particles) Everettian transitionality and transience. This process leads to changes in the relative positions of particles, with a higher probability of bringing them closer together rather than further apart. This probabilistic attraction, along with the overall evolution of the wavefunctional network, gives rise to the phenomenon of gravity.

prompt:

Use the above definition, present it as erroneous, use the rigorously accurate explanation about the cause of the delay of electromagnetic radiation through glass because it interacts with the electromagnetic field all electrons in the glass cause; the nucleus of atoms also plays a small role (nucleus-only matter would have a different refractive index than the vacuum). But you have to keep the main idea, namely that probabilistic attraction, along with the overall evolution of the wavefunctional network, gives rise to the phenomenon of gravity, but use the overall particle behavior, including the fundamental forces, as the cause of gravity. Don't confuse electromagnetism with gravity; I simply gave an example for thinking, not as a strict exact base of reasoning; keep the basic overall particle behavior idea though. Be maximally rigorous and don't make mistakes; correct any mistake before exporting the text.

bad reply/ rephrasing of biocomputational ideas:

To accurately explain the phenomenon of gravity, we need to take into account the probabilistic attraction due to nearby wavefunctional information sharing and the overall evolution of the wavefunctional network. These factors give rise to the gravitational phenomenon. However, it is essential to consider the particle behavior, including the fundamental forces, as the underlying cause of gravity.