Classical to Quantum | Quantization and Lie group Representation Theory | Wild Egg Maths
This is an overview video where I briefly sketch one of the general aims and direction of this series (Classical to Quantum for Members of the Channel) to investigate mathematical aspects of quantum mechanics (QM), special relativity (SR) and related aspects of the standard model (SM). In particular I want to delve into the role of representation theory of Lie groups in modern physics, and the remarkable parallels between the rise of QM in the 1930's and developments in harmonic analysis on Lie groups around the same time, leading to a curious role for notions of quantization which was clarified in the 1960's by Kirillov and became the topic called "geometric quantization", pushed along also by Kostant and Souriau and others. This theory features the symplectic geometry of coadjoint orbits of Lie groups, which play the role of classical mechanical systems, with the associated representations playing the role of their quantum analogs. So the purely abstract theory of representations of Lie groups, such as S^1, SU(2) and SU(3) which figure prominently in the SM, forms a natural laboratory to investigate the wider meaning and significance of QM, and perhaps sheds some light on which interpretations of that subject are likely to be the most fruitful. Video Contents: 0:01 Introduction: Integration on Circles and Physics 4:00 Quantization: Connecting Classical and Quantum Mechanics 8:14 Harmonic Analysis and Peter-Weyl Theorem 10:25 Coadjoint Orbits and Classical Mechanical Systems 14:51 Invitation to Join the Mathematical-Physical Exploration My research papers can be found at my Research Gate page, at https://www.researchgate.net/profile/... My blog is at http://njwildberger.com/, where I will discuss lots of foundational issues, along with other things. Online courses will be developed at openlearning.com. The first one, already underway is Algebraic Calculus One at https://www.openlearning.com/courses/... If you would like to support these new initiatives for mathematics education and research, you could also consider become a Patreon supporter. Thank you.

Classical versus Quantum | An introduction to QM and the two slit experiment | N J Wildberger

How Close Are We To Understanding the Universe? | Nobel Laureate Saul Perlmutter

Classical to Quantum | Complex numbers in Fourier Series and Quantum Mechanics | Wild Egg Maths

How Light Travels Without Moving: The Feynman Reality Check

Lie groups and their Lie algebras - Lec 13 - Frederic Schuller
![Yann LeCun's $1B Bet Against LLMs [Part 1]](https://i.ytimg.com/vi/kYkIdXwW2AE/hqdefault.jpg?sqp=-oaymwEjCNACELwBSFryq4qpAxUIARUAAAAAGAElAADIQj0AgKJDeAE=&rs=AOn4CLDbV4izF3i-wxevCVIn7FJjoy1vlA)
Yann LeCun's $1B Bet Against LLMs [Part 1]

Simple groups, Lie groups, and the search for symmetry I | Math History | NJ Wildberger

Can We Test Quantum Gravity? ft. Vlatko Vedral | World Science Festival

Classical to Quantum | A critique of Einstein's Simultaneity (1905 paper Section 1.1) | Wild Egg

Spinors for Beginners 16: Lie Groups and Lie Algebras

Quantum Consciousness and the Origin of Life

What Is Quantum Mechanics Really Telling Us? | World Science Festival

The problem with pretending quantum mechanics makes sense | Sean Carroll

The Most Misunderstood Concept in Physics

What is Lie theory? Here is the big picture. | Lie groups, algebras, brackets #3

The Simplest Math Problem No One Can Solve - Collatz Conjecture

Quantum Information Panpsychism Explained | Federico Faggin

The Terrifying Quantum Entanglement Theory That Breaks Reality

Quantum Mechanics Still Doesn't Make Sense | Sean Carroll

