Stephen Hawking’s discoveries of black hole radiation, entropy, and the information-loss problem have both taught us an enormous amount about the relationship between quantum mechanics and gravity, and also left us with some knotty puzzles. One major insight is the holographic principle: the information describing a black hole can be thought of as living on the event horizon (the two-dimensional boundary of the hole), rather than distributed throughout its volume, as normal physics would lead us to expect. Raphael Bousso has made important contributions to our understanding of holography and its implications. We talk about the modern point of view of how gravity relates to quantum mechanics.Support Mindscape on Patreon.Raphael Bousso received his Ph.D. in physics from Cambridge University, where his advisor was Stephen Hawking. He is currently a professor of physics at UC Berkeley. He has made pioneering contributions to our understanding of black hole information, the holographic principle, the string theory landscape, and multiverse cosmology.Web pageInspire publicationsWikipedia TwitterSee Privacy Policy at https://art19.com/privacy and California Privacy Notice at https://art19.com/privacy#do-not-sell-my-info.

Raphael Bousso, a prominent physicist at the Berkeley Center for Theoretical Physics, shares captivating insights into quantum mechanics. He discusses whether the theory holds unexplained mysteries, exploring interpretations and the nature of reality. Bousso debates the relevance of concepts like Schrödinger's cat, the multiverse, and how quantum theories may lead to a final understanding of the universe. Additionally, he examines the connections between quantum mechanics, gravity, and cosmology, urging listeners to embrace the complexities of this fundamental science.

Renowned physicist Raphael Bousso discusses the black hole information paradox, quantum gravity, and the holographic principle. Topics include the groundbreaking work of influential scientists, the implications of the holographic principle, and the interplay between classical gravity and quantum states.