Physicist Enrico Rinaldi's team uses quantum computing and machine learning to map the quantum state of a complex matrix model, aiding in understanding black holes.
Their work is based on the holographic principle, linking gravity in three-dimensional space and particles on a two-dimensional surface to describe the same reality.
The holographic idea may extend to the entire universe, suggesting space could be a projection of more fundamental quantum laws.
Rinaldi's team used quantum computers and deep learning to study matrix models, aiming to find the ground state that reveals clues about space and time.
Their findings in PRX Quantum contribute to testing the holographic duality and advancing understanding of the universe's structure.
Quantum matrix models can offer insights into gravity-related phenomena through holographic duality, connecting particle theory with gravity.
Using quantum circuits and neural networks, Rinaldi's team determined ground states of matrix models to gain a comprehensive view of their wave functions.
The research opens doors for further exploration in quantum gravity and machine learning algorithms applied to holographic duality.
Components of black holes, including singularity, event horizon, photon sphere, accretion disk, Doppler beaming, ergosphere, and jets, shape their complex nature.
Understanding matrix arrangements can provide insights into black hole interiors, contributing to a quantum theory of gravity.