01
Lecture 1· 10:37
De Broglie's Proposal: Wave-Particle Duality
Explore the foundational concept of wave-particle duality through Louis de Broglie's revolutionary hypothesis, a cornerstone of quantum mechanics.
10:37
Quantum Physics I
This course introduces the fundamental principles of quantum mechanics, covering wave-particle duality, the photoelectric effect, Compton scattering, and entanglement. Topics include the mathematical formalism of quantum systems and their application to phenomena such as interaction-free measurement and interferometry.
12lectures3htotal runtime
Syllabus progress0 of 12 watched
Course textbook & companion reading
2Amazon Associate
By the LecturerMIT Press · 1st Edition (2022)
Mastering Quantum Mechanics: Essentials, Theory, and Applications
By Barton Zwiebach
Written directly by MIT physicist Barton Zwiebach from his decade teaching the complete MIT 8.04, 8.05, and 8.06 Quantum Physics sequence.
Published monograph by instructor Barton ZwiebachISBN 978-0262046138
View on AmazonBy the LecturerCambridge University Press · 2nd Edition (2009)
A First Course in String Theory
By Barton Zwiebach
Barton Zwiebach's pedagogical masterpiece making relativistic strings, quantization, and D-brane dynamics accessible to advanced undergraduates and graduate students.
Published monograph by instructor Barton ZwiebachISBN 978-0521880329
View on AmazonSyllabus
12Session
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02
Lecture 2· 22:37
Quantum Information Theory, Entanglement & Entropy Inequalities
Nilanjana Datta explores quantum information theory, entanglement measures, and quantum entropy inequalities in mathematical physics.
22:37
03
Lecture 3· 12:41
Units of Planck's Constant and Compton Wavelength
A detailed examination of the units associated with Planck's constant and the Compton wavelength, crucial for quantitative understanding in quantum physics.
12:41
04
Lecture 4· 22:55
AI Is Doing Mathematics: Implications for Mathematical Education and Research
Explore the photoelectric effect, a seminal phenomenon that provided crucial evidence for the quantization of light and the existence of photons.
22:55
05
Lecture 5· 10:30
Elitzur-Vaidman Bombs and Interaction-Free Measurement
Investigate the intriguing Elitzur-Vaidman bomb tester, a thought experiment illustrating the counterintuitive nature of interaction-free quantum measurements.
10:30
06
Lecture 6· 12:25
Interferometers and Wave Interference
An introduction to interferometers and the principles of wave interference, fundamental concepts for understanding quantum phenomena and experimental setups.
12:25
07
Lecture 7· 15:32
Important Trends in AI: How Did We Get Here, What Can We Do Now, and Where Are We Headed?
An examination of Mach-Zehnder interferometers and beam splitters, fundamental components in quantum optics experiments and foundational to understanding quantum superposition.
15:32
08
Lecture 8· 17:11
Superposition: Photon and Spin States
Further exploration of quantum superposition, detailing the general state of a photon and the representation of spin states in quantum mechanics.
17:11
09
Lecture 9· 14:31
Talagrand Almost Everywhere: Concentration of Measure and Metric Geometry
An analysis of quantum superposition, elucidated through the experimental setup and implications of the Mach-Zehnder interferometer.
14:31
10
Lecture 10· 17:21
Photons and the Loss of Determinism
An examination of how photon behavior challenges classical determinism, introducing fundamental concepts of quantum indeterminacy.
17:21
11
Lecture 11· 10:03
Linearity, Nonlinear Theories, and Schrödinger's Equation
A discussion on the linearity of quantum mechanics, contrasting it with nonlinear theories, and introducing the foundational Schrödinger's equation.
10:03
12
Lecture 12· 17:49
Quantum Mechanics as a Framework: Defining Linearity
An introduction to the foundational principles of quantum mechanics, focusing on the concept of linearity as a core framework for understanding quantum phenomena.
17:49