How Black Holes Erase Quantum Secrets ✎ express

Original: "On the nature of entangling photons in horizon-induced decoherence"
· Max Joseph Fahn, Alessandro Pesci
arXiv:2605.19588 · 2026-05-19 · arXiv non-exclusive · independent analysis · 1 min
Photons falling into a black hole can destroy a quantum particle's ability to be in two places at once.

📄 Showing the "Simple" version — "Advanced" is not ready yet. Add it to favorites to help prioritize it.

A quantum particle can be in two states at once, like a coin spinning, both heads and tails. Near a black hole, the event horizon, where spacetime curvature bends space and time to the extreme, acts as a one-way gate. A stray photon grazing this boundary 'photographs' the coin, forcing it to land on one side. The photon then crosses the horizon, carrying the snapshot into oblivion. Black holes store information on their surface, not inside, like a hologram. The photon's record gets added to the horizon's area, tweaking only the electromagnetic field without adding mass or energy. This obeys strict entropy laws discovered by Jacob Bekenstein and Stephen Hawking. The twist: a black hole's memory lives on a two-dimensional surface, a cosmic canvas where quantum possibilities vanish without a trace.

A black hole's information capacity is measured by its surface area, not its volume — a counterintuitive result that emerged from Bekenstein and Hawking's work.

Scientists
Jacob BekensteinStephen HawkingFritz ZwickyKarl SchwarzschildSubrahmanyan ChandrasekharRainer Weiss
Concepts
black hole photon ring entanglement protection inner horizon black hole entropy entangled photon pairs event horizon qubit decoherence Bekenstein-Hawking entropy gravitational decoherence Hawking radiation quantum entanglement hawking radiation mechanism entropic shadow quantum coherence dephasing information loss quenching information spread area law superposition