What are the recommended information paradox solutions for the table?

The black hole information paradox presents a fundamental conflict between quantum mechanics and general relativity. At its core, the paradox questions whether information about matter swallowed by a black hole is permanently lost, violating quantum unitarity, or if it is somehow preserved. Several compelling solutions have been proposed by theoretical physicists. One prominent approach involves the refinement of Hawking radiation. Stephen Hawking initially suggested radiation is thermal and carries no information. However, later advancements propose subtle correlations within the radiation could encode the ingested information, allowing for its eventual release as the black hole evaporates. The holographic principle offers another profound solution. It posits that all information within a volume of space can be represented as a hologram on its boundary. For a black hole, the information is not lost inside but is encoded on its event horizon, later emitted via radiation. A more radical theory is the firewall paradox. It suggests that instead of a smooth event horizon, a high-energy "firewall" destroys incoming information, but this itself creates new conflicts with relativity. Other hypotheses include the idea of remnants—stable, microscopic leftovers containing the information—or modifications to spacetime geometry like wormholes. While no single theory is universally accepted, these solutions drive research in quantum gravity, pushing our understanding of spacetime, information, and the universe's most fundamental laws. The quest to solve this paradox remains a central challenge in theoretical physics.