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= Modern Physics =
= Modern Physics =


This is a medley of four big topics:
'''''Modern Physics''''' is, technically, all that follows the discovery of the two main pillars of contemporary physics:


# [[Relativity]] (spacetime physics)
* [[Quantum Mechanics]]
# (relativistic kinematics, particle physics)
* [[Relativity]] (or spacetime physics).
# QIP
 
# cosmology.
This is also the title of a [[textbook]] which {{I}} wrote in the period [[2019]]‒[[2026]] from my [[Wolverhampton Lectures of Physics]].
 
== Table of Contents ==
 
* Lecture 1. Information in the pre-quantum era.
* Lecture 2. The qubit.
* Lecture 3. Multiple qubits.
* Lecture 4. Quantum circuits.
* Lecture 5. Quantum Correlations.
* Lecture 6. Quantum hacking.
* Lecture 7. Quantum Parallelism.
* Lecture 8. Simon & Shor's algorithms.
* Lecture 9. Quantum Complexity & Interpretation of Quantum Mechanics.
* Lecture 10. Galilean relativity.
* Lecture 11. Lorentz transformations.
* Lecture 12. Einsteinian relativity.
* Lecture 13. Spacetime.
* Lecture 14. The Twin Paradox.
* Lecture 15. Relativistic invariants.
* Lecture 16. Elementary particles.
* Lecture 17. Relativistic dynamics.
* Lecture 18. The Dirac equation.
* Lecture 19. The Standard Model.
* Lecture 20. Cosmology.
* Lecture 21. The Equivalence Principle.
* Lecture 22. Curved spacetime.
* Lecture 23. Black holes.
* Lecture 24. Einstein’s field equations.
* Lecture 25. Theory of Everything.

Revision as of 15:22, 26 December 2025

Modern Physics

Modern Physics is, technically, all that follows the discovery of the two main pillars of contemporary physics:

This is also the title of a textbook which I wrote in the period 2019‒2026 from my Wolverhampton Lectures of Physics.

Table of Contents

  • Lecture 1. Information in the pre-quantum era.
  • Lecture 2. The qubit.
  • Lecture 3. Multiple qubits.
  • Lecture 4. Quantum circuits.
  • Lecture 5. Quantum Correlations.
  • Lecture 6. Quantum hacking.
  • Lecture 7. Quantum Parallelism.
  • Lecture 8. Simon & Shor's algorithms.
  • Lecture 9. Quantum Complexity & Interpretation of Quantum Mechanics.
  • Lecture 10. Galilean relativity.
  • Lecture 11. Lorentz transformations.
  • Lecture 12. Einsteinian relativity.
  • Lecture 13. Spacetime.
  • Lecture 14. The Twin Paradox.
  • Lecture 15. Relativistic invariants.
  • Lecture 16. Elementary particles.
  • Lecture 17. Relativistic dynamics.
  • Lecture 18. The Dirac equation.
  • Lecture 19. The Standard Model.
  • Lecture 20. Cosmology.
  • Lecture 21. The Equivalence Principle.
  • Lecture 22. Curved spacetime.
  • Lecture 23. Black holes.
  • Lecture 24. Einstein’s field equations.
  • Lecture 25. Theory of Everything.