Solving Shrodinger Equation for Hawking Radiation

In summary, the Schrodinger equation is a fundamental equation in quantum mechanics that describes the evolution of a quantum system's wave function over time. In the context of Hawking radiation, it is used to calculate the probability of particles escaping from a black hole's event horizon. Solving the Schrodinger equation for Hawking radiation is important for understanding black hole behavior and the principles of quantum mechanics. However, it poses challenges due to its complex mathematical calculations and varying equations in different contexts. If solved, it could have implications for our understanding of the universe and the development of a unified theory of quantum mechanics and gravity. Additionally, the Schrodinger equation can be used to solve for other phenomena in quantum mechanics, making it a versatile and widely
  • #1
Wishbone
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I hear this is a result of quantum tunneling, what I am wondering is, can one solve the shrodinger equation for black holes under the idea that it is just a really really really deep finite well?
 
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  • #2
Isn't Hawking radation a process in which a virtual particle (like virtual photon) traveling near the horizon creates particle-antiparticle pair, but before they get to annihilate, black hole pulls in one of them, and other one escapes ? (that creates some sort of a radiation)
 
  • #3


Yes, it is possible to solve the Schrodinger equation for black holes using the concept of a deep finite well. This approach is known as the "toy model" of black holes and has been used by physicists to gain insights into the behavior of black holes, particularly in relation to Hawking radiation.

In this model, the black hole is treated as a deep potential well with a finite depth, representing the strong gravitational pull of the black hole. The equations used to describe the behavior of particles near the event horizon are similar to those used to describe particles in a finite well. By solving the Schrodinger equation for this system, we can gain a better understanding of the quantum effects that occur near the event horizon of a black hole.

However, it is important to note that this toy model is a simplified representation of a black hole and does not fully capture the complexities of the real-world phenomenon. It is a useful tool for theoretical studies, but it should not be taken as a complete description of black holes. Further research and observations are needed to fully understand the nature of black holes and their interactions with quantum mechanics.
 

What is the Schrodinger equation and how does it relate to Hawking radiation?

The Schrodinger equation is a fundamental equation in quantum mechanics that describes how the wave function of a quantum system evolves over time. It is used to predict the behavior of particles at the subatomic level. In the context of Hawking radiation, the Schrodinger equation is used to calculate the probability of particles escaping from the event horizon of a black hole.

Why is solving the Schrodinger equation for Hawking radiation important?

Solving the Schrodinger equation for Hawking radiation is important because it helps us better understand the behavior of black holes and the principles of quantum mechanics. It also has implications for the study of gravity and the nature of space and time.

What are the challenges in solving the Schrodinger equation for Hawking radiation?

There are several challenges in solving the Schrodinger equation for Hawking radiation. One of the main challenges is that it involves complex mathematical calculations and requires a deep understanding of quantum mechanics. Additionally, the equations change in different contexts, such as for rotating black holes or those with electric charge.

What are some possible implications of solving the Schrodinger equation for Hawking radiation?

Solving the Schrodinger equation for Hawking radiation could have significant implications for our understanding of the universe. It could help us better understand the behavior of black holes and how they interact with their surroundings. It could also have implications for the development of a theory that unifies quantum mechanics and gravity.

Can the Schrodinger equation be solved for other phenomena besides Hawking radiation?

Yes, the Schrodinger equation can be used to solve for a wide range of phenomena in quantum mechanics, such as the behavior of atoms, molecules, and other subatomic particles. It is a versatile equation that has applications in many areas of physics and beyond.

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