Posted in Stanford University
In this lecture, Professor Susskind retouches on particle actions through the lagrangian, quantum field theory and path integral formulation.
Posted in Stanford University
In this lecture Leonard Susskind tackles the motion of fields containing particles and quantum field theory. He also shows how basic processes are coded by a Lagrangian.
Posted in Stanford University
This lecture breaks down the theory and mathematics behind particle & isotopic spin (and half spin) in addition to the Dirac equation.
Posted in Stanford University
Wrapping up the coverage of the quantum field theory, Professor Leonard Susskind discusses the theory behind angular momentum and the relevant mathematics.
Posted in Stanford University
Leonard Susskind continues elaborating the subject of quantum field theory, including, the diary equation and the hypothetical Higgs Bosons  the particle responsible for mass.
Posted in Stanford University
This lecture continues the discussion of the quantum field theory, focusing on fermions, waves and energy conservation.
Posted in Stanford University
This Stanford University lecture shows how quantum fields can be used to begin to describe various particle processes.
Posted in Stanford University
This lecture discusses the properties and structures of quantum fields and describes their relation to particles.
Posted in Stanford University
In this lecture Susskind discusses the quantum field theory (QFT), a theoretical framework for constructing quantum mechanical models of systems classically parametrized (represented) by an infinite number of fields.
Posted in Stanford University
Leonard Susskind gives the introductory lecture of a course that will explore the newest revolutions in particle physics. This class explores the properties of light, particles and the quantum field theory.

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1. Lecture 5: Evolution
1. Lecture 5: Evolution
(Professor Lynn Rothschild discusses evolution in the context of space and time, focusing on the emergence of life in the context of planetary formation on Earth and possibly elsewhere, and the evolution of intelligence in here and beyond.)
Hits: 5106
Category: Stanford University
2. Lecture 1: Introduction To Particle Physics
2. Lecture 1: Introduction To Particle Physics
(Leonard Susskind gives the introductory lecture of a course that will explore the newest revolutions in particle physics. This class explores the properties of light, particles and the quantum field theory.)
Hits: 4781
Category: Stanford University
3. Lecture 6: Diary Equation & Higgs Particles
3. Lecture 6: Diary Equation & Higgs Particles
(Leonard Susskind continues elaborating the subject of quantum field theory, including, the diary equation and the hypothetical Higgs Bosons  the particle responsible for mass.)
Hits: 3987
Category: Stanford University
4. Lecture 7: Angular Momentum
4. Lecture 7: Angular Momentum
(Wrapping up the coverage of the quantum field theory, Professor Leonard Susskind discusses the theory behind angular momentum and the relevant mathematics. )
Hits: 3794
Category: Stanford University
5. Lecture 10: Darwin's Birthday
5. Lecture 10: Darwin's Birthday
(Professor Lynn Rothschild and Stephen Palumbi, Director of the Hopkins Marine Station, discuss Charles Darwin's career, from his childhood to the end of his life. Naturally, the theory of evolution is also addressed.)
Hits: 3783
Category: Stanford University
6. Lecture 1: Introduction to Astrobiology
6. Lecture 1: Introduction to Astrobiology
(In this introductory lecture of Professor Lynn Rothschild's Astrobiology and Space Exploration course, professor Seth Shostak of the SETI institute gives a witty and engaging presentation on the overall status of the field of astrobiology.)
Hits: 3773
Category: Stanford University
7. Lecture 10: Path Integral Formulation
7. Lecture 10: Path Integral Formulation
(In this lecture, Professor Susskind retouches on particle actions through the lagrangian, quantum field theory and path integral formulation.)
Hits: 3195
Category: Stanford University
8. Lecture 2: Quantum Field Theory
8. Lecture 2: Quantum Field Theory
(In this lecture Susskind discusses the quantum field theory (QFT), a theoretical framework for constructing quantum mechanical models of systems classically parametrized (represented) by an infinite number of fields.)
Hits: 2995
Category: Stanford University
9. Lecture 14: A Human Place in Outer Space
9. Lecture 14: A Human Place in Outer Space
(Dr. Yvonne Clearwater, Past Principle Investigator for NASA Habitability Research Program, explains the complexity of creating a habitable space station that both promotes research productivity and maintains astronaut health and morale. )
Hits: 2692
Category: Stanford University
10. Lecture 4: Quantum Fields & Particle Processes
10. Lecture 4: Quantum Fields & Particle Processes
(This Stanford University lecture shows how quantum fields can be used to begin to describe various particle processes.)
Hits: 2438
Category: Stanford University
Top Rated
1. Lecture 6: Diary Equation & Higgs Particles
1. Lecture 6: Diary Equation & Higgs Particles
(Leonard Susskind continues elaborating the subject of quantum field theory, including, the diary equation and the hypothetical Higgs Bosons  the particle responsible for mass.)
Rating:
2.94
Category: Stanford University
2. Lecture 7: Angular Momentum
2. Lecture 7: Angular Momentum
(Wrapping up the coverage of the quantum field theory, Professor Leonard Susskind discusses the theory behind angular momentum and the relevant mathematics. )
Rating:
2.91
Category: Stanford University
3. Lecture 2: Realism & Formalism
3. Lecture 2: Realism & Formalism
(This lecture shows the importance and relevance of studying film. It presents mathematics as a form of abstract art, breaks down the style and method of realism and formalism, outlines the differences and similarities between film and photography.)
Rating:
2.9
Category: M.I.T.
4. Lecture 24: Development Of The Nervous System
4. Lecture 24: Development Of The Nervous System
(This lecture goes over the classification of neurons and the terminology of neuron clusters before shifting into the development of the nervous system. It then discusses the development and divisions of neural tubes. )
Rating:
2.89
Category: Berkeley
5. Lecture 30: The Human Eye
5. Lecture 30: The Human Eye
(This segment begins with the histology of the cerebral cortex before moving onto the eye. This class shows the development of the eye, the structure of the retina, and an overview of accessory systems.)
Rating:
2.89
Category: Berkeley
6. Lecture 12: Hematology I
6. Lecture 12: Hematology I
(Hematology is the branch of medicine that deals with blood, the bloodforming organs, and blood diseases. This discusses topics including plasma, multiple sclerosis, and erythropoiesis (the process by which red blood cells are formed).)
Rating:
2.89
Category: Berkeley
7. Lecture 9: Equations of Quantum Field Theory
7. Lecture 9: Equations of Quantum Field Theory
(In this lecture Leonard Susskind tackles the motion of fields containing particles and quantum field theory. He also shows how basic processes are coded by a Lagrangian.)
Rating:
2.88
Category: Stanford University
8. Lecture 03: Skeletal System II
8. Lecture 03: Skeletal System II
(This Berkeley lecture starts with an overview of cells involved in the skeletal system, from the overall structure of various cells to their shape, function, and identification. Then goes into the structure of the skull.)
Rating:
2.88
Category: Berkeley
9. Lecture 9: The Search for Life on Mars
9. Lecture 9: The Search for Life on Mars
(Dr. Janice Bishop (of the Carl Sagan Center at the SETI Institute and the NASA Ames Research Center) discusses the mineralogy and geology of Mars and the active search for life on the red planet.)
Rating:
2.87
Category: Stanford University
10. Lecture 3: The Search for Other Earths and Life in the Universe
10. Lecture 3: The Search for Other Earths and Life in the Universe
(Geoff Marcy, CoInvestigator on Kepler Team and UC Berkeley Professor of Astronomy, discusses the efforts of the Keplar Teams to locate earthlike planets by observing orbit, doppler shift, and the dimming of Upsilon Andromedae.)
Rating:
2.87
Category: Stanford University
