# Simulating the Evolution of von Neumann Entropy in Black Hole Hawking Radiation Using Biphoton Entanglement

## TL;DR

This paper explores how quantum entanglement might help resolve the black hole information paradox by simulating Hawking radiation with entangled photons.

## Contribution

A simplified model using biphoton entanglement is proposed to simulate von Neumann entropy evolution in black hole radiation.

## Key findings

- Quantum entanglement may provide a plausible resolution to the black hole information paradox.
- The model supports Page's hypothesis by simulating entropy evolution through entangled photon pairs.
- The results suggest a new approach for exploring theoretical physics' unresolved questions.

## Abstract

Addressing the black hole information paradox necessitates the exploration of various hypotheses and theoretical frameworks. Among these, the proposition to utilize quantum entanglement, as introduced by Don N. Page, shows great promise. This study builds upon Page’s theoretical foundation and proposes a simplified model for elucidating the evolution of black hole von Neumann entropy. This model simulates the process of Hawking radiation using entangled photon pairs. Our experiment suggests that quantum entanglement may offer a plausible avenue for resolving the paradox, thereby lending support to Page’s proposal. The results suggest that this model may contribution to the exploration of one of the most profound puzzles in theoretical physics.