Understanding Black Holes: Quantum Physics and Hawking Radiation Explained

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Hey everyone,
I have some questions about quantum physics and black holes.

For starters, what happens to an entangled particle as it enters a super massive black hole? Would gravity just break the entangled state because of the extreme forces? The only issue i see with that is that entangled particles were made here on earth, which obviously has gravity, and those entangled particles weren't affected (to my knowledge). However, i realize that much stronger gravity could break the entangled state. Also, I am confused about the evaporation of black holes via hawkings radiation. As i understand it, a particle and anti particle pair are created on the Planck scale very close to the radius of a black hole; when the black hole absorbs the anti particle, it losses mass. However, why wouldn't the black hole also abosrb the regular particle, and emit the anti particle as radiation? Statistically, it seems that the black hole would absorb equal amounts of particle, and anti particles, which would result in a net energy difference of 0. My understanding could be completely wrong, so thank you in advance for spending the time to educate someone ignorant in physics.
 
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you might find it interesting to do a forum search on black holes. Your questions have been answered here numerous times and you'll see other interesting stuff as well.
 
Insights auto threads is broken atm, so I'm manually creating these for new Insight articles. Towards the end of the first lecture for the Qiskit Global Summer School 2025, Foundations of Quantum Mechanics, Olivia Lanes (Global Lead, Content and Education IBM) stated... Source: https://www.physicsforums.com/insights/quantum-entanglement-is-a-kinematic-fact-not-a-dynamical-effect/ by @RUTA
If we release an electron around a positively charged sphere, the initial state of electron is a linear combination of Hydrogen-like states. According to quantum mechanics, evolution of time would not change this initial state because the potential is time independent. However, classically we expect the electron to collide with the sphere. So, it seems that the quantum and classics predict different behaviours!
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