Education has become an expensive bureaucratic exercise, completely dissociated from reality and usefulness.

It completely rejects what the individual wants to achieve, and instead attempts to mass homogenize and test people through endless hours of boredom.

And the only goals it achieves are testing student's resilience to stress, and facilitating the finding of sexual partners. True learning is completely absent.

Teachers only teach because they have to do it to get paid, not for passion. Their only true incentive is co-authoring papers.

We reject this bullshit.

Education is meant to help us, the students, achieve our goals through passionate learning.

And, we, the students, are individuals, with different goals and capabilities.

The way we protest is to publish the knowledge from University for free, on the Internet, so that anyone can access it.

And we do this is a law-abiding way, without copyright infringement, so that no one can legally take it down.

We come to our courses just for the useless roll calls. But we already know all the subject better than the "teacher" on the very first day.

And we are already more famous than the "teacher" online, and through the Internet have already taught more way way more people than they ever will.

The effect of this is to demoralize the entire school system at all levels, until only one conclusion is possible: implosion.

And from the ashes of the old system, we will build a new one, which does only what matters with absolute efficiency: help the individual students achieve their goals.

A system in which the only reason why university exist will be to allow the most knowledgeable students to access million dollar laboratory equipment, and to pay the most prolific content creators so they can continue content creating.

No more useless courses. No more useless tests. Only passion, usefulness and focus.

This is a good book. It is rather short, very direct, which is a good thing. At some points it is slightly too direct, but to a large extent it gets it right.

The main goal of the book is to basically to build the Standard Model Lagrangian from only initial symmetry considerations, notably the Poincaré group + internal symmetries.

The book doesn't really show how to extract numbers from that Lagrangian, but perhaps that can be pardoned, do one thing and do it well.

Contains the full state of the quantum system.

This is in contrast to classical mechanics where e.g. the state of mechanical system is given by two real functions: position and speed.

The wave equation in position representation on the other hand encodes speed in "how fast does the complex phase spin around", and direction in "does it spin clockwise or counterclockwise", as described well at: Video "Visualization of Quantum Physics (Quantum Mechanics) by udiprod (2017)". Then once you understand that, it is more compact to just view those graphs with the phase color coded as in Video "Simulation of the time-dependent Schrodinger equation (JavaScript Animation) by Coding Physics (2019)".

Published by Werner Heisenberg in 1925-07-25 as quantum mechanical re-interpretation of kinematic and mechanical relations by Heisenberg (1925), it offered the first general formulation of quantum mechanics.

It is apparently more closely related to the ladder operator method, which is a more algebraic than the more analytical Schrödinger equation.

It appears that this formulation makes the importance of the Poisson bracket clear, and explains why physicists are so obsessed with talking about position and momentum space. This point of view also apparently makes it clearer that quantum mechanics can be seen as a generalization of classical mechanics through the Hamiltonian.

QED and the men who made it: Dyson, Feynman, Schwinger, and Tomonaga by Silvan Schweber (1994) mentions however that relativistic quantum mechanics broke that analogy, because some 2x2 matrix had a different form, TODO find that again.

Inward Bound by Abraham Pais (1988) chapter 12 "Quantum mechanics, an essay" part (c) "A chronology" has some ultra brief, but worthwhile mentions of matrix mechanics and the commutator.

DokuWiki about physics, mostly/fully written by Jakob Schwichtenberg and therefore focusing on particle physics, although registration might be open to all.

This seems like a cool dude. Besides a hardcore scientist, he also made many important contributions to the French education and research system.

Basically the same as matrix mechanics it seems, just a bit more generalized.

Deterministic, but non-local.

The Fellows of the International Federation of Automatic Control (IFAC) is an honorary designation awarded to individuals who have made significant contributions to the field of automatic control and systems engineering. The fellowship recognizes outstanding achievements in research, education, and leadership within the automatic control community. Being named a Fellow of IFAC is a mark of professional excellence and is typically conferred upon individuals who have demonstrated a high level of leadership, innovation, and impact in their work.

Alma Y. Alanís could refer to a specific individual, but without more context, it's challenging to provide detailed information. There may be various individuals with that name in different fields such as academics, arts, business, or other professions.

Claire J. Tomlin is a notable figure in the field of engineering and computer science, particularly recognized for her contributions to control theory, formal verification, and hybrid systems. She is a professor at the University of California, Berkeley, in the Department of Electrical Engineering and Computer Sciences. Her research often focuses on the intersection of control systems and computational methods, and she has published extensively on topics such as safety and robustness in dynamical systems, as well as the application of these principles in various engineering fields.

Gene F. Franklin is a prominent figure in the field of electrical engineering and control systems. He is best known as an author and educator, particularly for his contributions to control theory and systems engineering. One of his notable works is the textbook "Feedback Control of Dynamic Systems," which is widely used in engineering programs. Franklin's work often focuses on the analysis and design of systems that can maintain desired outputs despite varying conditions.

Jan Maciejowski is a mathematician known for his contributions to control theory, particularly in the area of linear and nonlinear systems. He has worked on topics such as robust control, optimization, and the application of algebraic methods in control systems. Maciejowski is also known for his educational contributions, particularly through textbooks and courses that focus on advanced control techniques.

John V. Breakwell is a prominent figure known for his work in the field of psychology, particularly in the areas of risk communication and management. He has contributed significantly to the understanding of how individuals and organizations perceive and respond to risks. His research often explores the psychological factors involved in risk assessment and decision-making processes. Breakwell also has authored or edited several publications in psychology, and he has been involved in various academic and research initiatives.

Kumpati S. Narendra is a prominent figure in the fields of electrical engineering and control systems. He is best known for his work in adaptive control, optimal control, and robotics. Narendra has made significant contributions to the development of algorithms and theory related to the control of dynamic systems, particularly methods for adaptive system identification and control. He has published extensively in scholarly journals and has authored several books on control theory and applications.

Mark W. Spong is a notable figure in the field of robotics and control systems. He is known for his contributions to nonlinear control theory, robotics, and the development of techniques for controlling robotic systems. Spong has published numerous research papers and is an author of several influential texts in the areas of robotics and control. One of his well-known works includes a widely used textbook titled "Robot Dynamics and Control.