His research interests include string theory, quantum field theory, quantum statistical mechanics and quantum cosmology. Polchinski, J., Susskind, L., Toumbas, N. A note on discrete light cone quantization, Schwarzschild black holes from matrix theory. This was followed by another paper by Susskind which made a few comments about Smolin's theory of "cosmic natural selection". His research interests include string theory, quantum field theory, quantum statistical mechanics and quantum cosmology. Leonard Susskind is the Felix Bloch professor of Theoretical physics at Stanford University. [5] In an interview in the Los Angeles Times, Susskind recalls a discussion with his father that changed his career path: "When I told my father I wanted to be a physicist, he said, 'Hell no, you ain't going to work in a drug store.' Bousso, R., Freivogel, B., Sekino, Y., Shenker, S., Susskind, L., Yang, I., Yeh, C. The Black Hole War: My Battle with Stephen Hawking to Make the World Safe for Quantum Mechanics, Holographic framework for eternal inflation. As modern physics has developed a better . Brown, A. R., Gharibyan, H., Streicher, A., Susskind, L., Thorlacius, L., Zhao, Y. Quantum complexity and negative curvature, Copenhagen vs Everett, Teleportation, and ER=EPR. Updated on May 30, 2019. Not actually Russia; my grandfather on my mother's side came from Lithuania. What is the likelihood that they would come together to form a working automobile?I think we can all agree that it would be extremely unlikelyif you imagined all the possible ways that you could assemble the atoms, the overwhelming majority of the arrangements would look like rust heapsIf you shook up the atoms of a car, you would be much more likely to get a pile of rust because there are so many more rust pile arrangements than car arrangements., If one would take the hundred trillion or so atoms that make up the simplest bacterial cell and throw them together randomly what would be the likelihood that they would come together to form a living bacterium? Leonard Susskind (/ssknd/; born June 16, 1940)[1][3] is an American physicist, who is a professor of theoretical physics at Stanford University, and founding director of the Stanford Institute for Theoretical Physics. Currently he teaches Rabbinical Students and Jewish Educators at Ohr La'Golah and Ner L'elef in Jerusalem. The SmolinSusskind debate refers to the series of intense postings in 2004 between Lee Smolin and Susskind, concerning Smolin's argument that the "anthropic principle cannot yield any falsifiable predictions, and therefore cannot be a part of science. The series presently stands at three books (as of mid 2021) covering the first three of six core courses devoted to: classical mechanics, quantum mechanics, special relativity and classical field theory, general relativity, cosmology, and statistical mechanics. First he taught you classical mechanics. In an interview in the Los Angeles Times, Susskind recalls the moment he discussed with his father this change in career path: "When I told my father I wanted to be a physicist, he said, Hell no, you aint going to work in a drug store. I said no, not a pharmacist. Leonard Susskind Lectures on Black Holes and Complexity Addeddate 2020-08-03 07:45:29 Identifier leonard-susskind-Lectures Ocr ABBYY FineReader 11.0 (Extended OCR) Ppi 600 Scanner Internet Archive HTML5 Uploader 1.6.4. plus-circle Add Review. Best of 2022 Top 250 Movies Most Popular Movies Top 250 TV Shows Most Popular TV Shows Most Popular Video Games Most Popular Music Videos Most Popular Podcasts. In particular, the course focuses on string theory with regard to important issues in contemporary physics. Be the first one to, Leonard Susskind - All Stanford physics lectures, leonard-susskind-all-stanford-physics-lectures, Advanced embedding details, examples, and help, Leonard Susskind - All Stanford physics lectures in order, Advanced Quantum Mechanics Lecture 1-720p.mp4, Advanced Quantum Mechanics Lecture 10-720p.mp4, Advanced Quantum Mechanics Lecture 2-720p.mp4, Advanced Quantum Mechanics Lecture 3-720p.mp4, Advanced Quantum Mechanics Lecture 4-720p.mp4, Advanced Quantum Mechanics Lecture 5-720p.mp4, Advanced Quantum Mechanics Lecture 6-720p.mp4, Advanced Quantum Mechanics Lecture 7-720p.mp4, Advanced Quantum Mechanics Lecture 8-720p.mp4, Advanced Quantum Mechanics Lecture 9-720p.mp4, Demystifying the Higgs Boson with Leonard Susskind-720p.mp4, Einstein's General Theory of Relativity _ Lecture 1-240p.mp4, Einstein's General Theory of Relativity _ Lecture 10-360p.mp4, Einstein's General Theory of Relativity _ Lecture 11-360p.mp4, Einstein's General Theory of Relativity _ Lecture 12-360p.mp4, Einstein's General Theory of Relativity _ Lecture 2-240p.mp4, Einstein's General Theory of Relativity _ Lecture 3-240p.mp4, Einstein's General Theory of Relativity _ Lecture 4-360p.mp4, Einstein's General Theory of Relativity _ Lecture 5-240p.mp4, Einstein's General Theory of Relativity _ Lecture 6-240p.mp4, Einstein's General Theory of Relativity _ Lecture 7-240p.mp4, Einstein's General Theory of Relativity _ Lecture 8-240p.mp4, Einstein's General Theory of Relativity _ Lecture 9-240p.mp4, Lecture 1 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 1 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 1 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 1 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 1 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 1 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 1 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 1 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 1 _ String Theory and M-Theory-360p.mp4, Lecture 1 _ The Theoretical Minimum-720p.mp4, Lecture 1 _ Topics in String Theory-360p.mp4, Lecture 10 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 10 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 10 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 10 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 10 _ String Theory and M-Theory-360p.mp4, Lecture 10 _ The Theoretical Minimum-720p.mp4, Lecture 2 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 2 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 2 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 2 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 2 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 2 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 2 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 2 _ String Theory and M-Theory-360p.mp4, Lecture 2 _ The Theoretical Minimum-720p.mp4, Lecture 2 _ Topics in String Theory-360p.mp4, Lecture 3 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 3 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 3 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 3 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 3 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 3 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 3 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 3 _ String Theory and M-Theory-360p.mp4, Lecture 3 _ The Theoretical Minimum-720p.mp4, Lecture 3 _ Topics in String Theory-360p.mp4, Lecture 4 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 4 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 4 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 4 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 4 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 4 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 4 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 4 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 4 _ String Theory and M-Theory-360p.mp4, Lecture 4 _ The Theoretical Minimum-720p.mp4, Lecture 4 _ Topics in String Theory-360p.mp4, Lecture 5 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 5 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 5 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 5 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 5 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 5 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 5 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 5 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 5 _ String Theory and M-Theory-360p.mp4, Lecture 5 _ The Theoretical Minimum-720p.mp4, Lecture 5 _ Topics in String Theory-360p.mp4, Lecture 6 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 6 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 6 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 6 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 6 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 6 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 6 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 6 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 6 _ String Theory and M-Theory-360p.mp4, Lecture 6 _ The Theoretical Minimum-720p.mp4, Lecture 6 _ Topics in String Theory-360p.mp4, Lecture 7 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 7 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 7 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 7 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 7 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 7 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 7 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 7 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 7 _ String Theory and M-Theory-360p.mp4, Lecture 7 _ The Theoretical Minimum-720p.mp4, Lecture 7 _ Topics in String Theory-360p.mp4, Lecture 8 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 8 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 8 _ Modern Physics - Special Relativity (Stanford)-240p.mp4, Lecture 8 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 8 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 8 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 8 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 8 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 8 _ String Theory and M-Theory-360p.mp4, Lecture 8 _ The Theoretical Minimum-720p.mp4, Lecture 8 _ Topics in String Theory-360p.mp4, Lecture 9 _ Modern Physics - Classical Mechanics (Stanford)-240p.mp4, Lecture 9 _ Modern Physics - Quantum Mechanics (Stanford)-240p.mp4, Lecture 9 _ Modern Physics - Statistical Mechanics-360p.mp4, Lecture 9 _ New Revolutions in Particle Physics - Basic Concepts-360p.mp4, Lecture 9 _ New Revolutions in Particle Physics - Standard Model-360p.mp4, Lecture 9 _ Quantum Entanglements, Part 1 (Stanford)-240p.mp4, Lecture 9 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Lecture 9 _ String Theory and M-Theory-360p.mp4, Lecture 9 _ The Theoretical Minimum-720p.mp4, Lecture 9 _ Topics in String Theory-360p.mp4, Lectures 2 & 3 _ Quantum Entanglements, Part 3 (Stanford)-240p.mp4, Terms of Service (last updated 12/31/2014). Susskind has also made important contributions in the following areas of physics: Susskind is the author of several popular science books. His research interests include string theory, quantum field theory, quantum statistical mechanics and quantum cosmology. We argue that stable, maximally symmetric compactifications of string theory to 1+1 dimensions are in conflict with holography. Leonard Susskind: 'Sleeping during a lecture is a good thing'. The book was initially published on January 29, 2013 by Basic Books.. These courses are available on The Theoretical Minimum website, on iTunes, and on YouTube. He is also a distinguished professor at Korea Institute for Advanced Study.[15]. The book is his most famous work and explains what he thinks would happen to the information and matter stored in a black hole when it evaporates. Dynamical Electroweak Symmetry Breaking section cites two 1979 publications, one by Steven Weinberg, the other by L. Susskind to represent the earliest models with technicolor and technifermions.
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