Modern Physics - General Introduction

  • Definition of modern physics
  • Importance of modern physics in the 21st century
  • Overview of the topics covered in this module
  • Introduction to quantum mechanics
  • Introduction to relativity theory

Quantum Mechanics - Introduction

  • Historical background of quantum mechanics
  • Dual nature of matter and radiation
  • Wave-particle duality
  • Uncertainty principle
  • Electron diffraction experiments

Quantum Mechanics - Particle-Wave Duality

  • Concept of a particle
  • Concept of a wave
  • De Broglie hypothesis
  • Example: Electrons as both particles and waves
  • Applications of particle-wave duality

Quantum Mechanics - Wave Function

  • Definition of wave function
  • Probability interpretation of wave function
  • Normalization condition of wave function
  • Time-independent and time-dependent wave functions
  • Example: Particle in a box

Quantum Mechanics - Schrödinger Equation

  • Derivation of the time-independent Schrödinger equation
  • Interpretation of wave function solutions
  • Eigenfunctions and Eigenvalues
  • Particle in a box: Solving the Schrödinger equation
  • Example: Potential barrier

Relativity Theory - Introduction

  • Historical background of relativity theory
  • Problems with classical mechanics
  • Einstein’s postulates of special relativity
  • Effects of relativity theory at high speeds
  • Time dilation and length contraction

Relativity Theory - Lorentz Transformations

  • Derivation of Lorentz transformations
  • Time dilation equation
  • Length contraction equation
  • Relativistic addition of velocities
  • Example: Twin paradox

Relativity Theory - Mass-Energy Equivalence

  • Einstein’s mass-energy equivalence equation
  • Importance of the speed of light in the equation
  • Conversion between mass and energy
  • Units of energy and mass
  • Example: Calculating the energy released by nuclear reactions

Relativity Theory - Space-Time Diagrams

  • Introduction to space-time diagrams
  • Light cones and causality
  • World lines of objects undergoing different motions
  • Time-like, light-like, and space-like intervals
  • Example: Space-time diagram for a rocket accelerating in space

Conclusion

  • Recap of the topics covered in this module
  • Importance of understanding modern physics
  • Further applications of modern physics in technology and society
  • Importance of critical thinking and problem-solving skills in physics
  • Q&A session
  1. Modern Physics - General Introduction - Outline of this module (part 1)
  • Definition of modern physics
  • Importance of modern physics in the 21st century
  • Overview of the topics covered in this module
  • Introduction to quantum mechanics
  • Introduction to relativity theory
  1. Quantum Mechanics - Introduction
  • Historical background of quantum mechanics
  • Dual nature of matter and radiation
  • Wave-particle duality
  • Uncertainty principle
  • Electron diffraction experiments
  1. Quantum Mechanics - Particle-Wave Duality
  • Concept of a particle
  • Concept of a wave
  • De Broglie hypothesis
  • Example: Electrons as both particles and waves
  • Applications of particle-wave duality
  1. Quantum Mechanics - Wave Function
  • Definition of wave function
  • Probability interpretation of wave function
  • Normalization condition of wave function
  • Time-independent and time-dependent wave functions
  • Example: Particle in a box
  1. Quantum Mechanics - Schrödinger Equation
  • Derivation of the time-independent Schrödinger equation
  • Interpretation of wave function solutions
  • Eigenfunctions and Eigenvalues
  • Particle in a box: Solving the Schrödinger equation
  • Example: Potential barrier
  1. Relativity Theory - Introduction
  • Historical background of relativity theory
  • Problems with classical mechanics
  • Einstein’s postulates of special relativity
  • Effects of relativity theory at high speeds
  • Time dilation and length contraction
  1. Relativity Theory - Lorentz Transformations
  • Derivation of Lorentz transformations
  • Time dilation equation
  • Length contraction equation
  • Relativistic addition of velocities
  • Example: Twin paradox
  1. Relativity Theory - Mass-Energy Equivalence
  • Einstein’s mass-energy equivalence equation
  • Importance of the speed of light in the equation
  • Conversion between mass and energy
  • Units of energy and mass
  • Example: Calculating the energy released by nuclear reactions
  1. Relativity Theory - Space-Time Diagrams
  • Introduction to space-time diagrams
  • Light cones and causality
  • World lines of objects undergoing different motions
  • Time-like, light-like, and space-like intervals
  • Example: Space-time diagram for a rocket accelerating in space
  1. Conclusion
  • Recap of the topics covered in this module
  • Importance of understanding modern physics
  • Further applications of modern physics in technology and society
  • Importance of critical thinking and problem-solving skills in physics
  • Q&A session
  1. Quantum Mechanics - Wave-Particle Duality
  • Dual nature of matter and radiation
  • Experiment: Young’s double-slit experiment
  • Interference and diffraction patterns
  • Probability density and wave function
  • Example: Electron interference experiment
  1. Quantum Mechanics - Uncertainty Principle
  • Heisenberg’s uncertainty principle
  • Relationship between position and momentum uncertainties
  • Application of uncertainty principle in quantum mechanics
  • Example: Uncertainty principle in measuring energy and time
  • Significance of uncertainty principle in technology
  1. Quantum Mechanics - Quantum Tunneling
  • Definition and explanation of quantum tunneling
  • Tunneling through potential barriers and barriers
  • Tunneling probability and tunneling time
  • Example: Tunneling in scanning tunneling microscopy
  • Applications of quantum tunneling in technology
  1. Quantum Mechanics - Quantum Harmonic Oscillator
  • Introduction to the quantum harmonic oscillator
  • Energy levels and wave functions of the harmonic oscillator
  • Zero-point energy and ground state fluctuations
  • Example: Vibrational modes of molecules
  • Connection between quantum harmonic oscillator and classical oscillator
  1. Quantum Mechanics - Hydrogen Atom
  • Formation of the hydrogen atom
  • Bohr’s model of the hydrogen atom
  • Energy levels and transitions in the hydrogen atom
  • Quantum numbers and wave functions of the hydrogen atom
  • Example: Spectral lines in the hydrogen atom
  1. Relativity Theory - General Theory of Relativity
  • Introduction to the general theory of relativity
  • Curvature of spacetime and gravity
  • Einstein’s field equations
  • Gravitational redshift and time dilation
  • Example: GPS and relativistic corrections
  1. Relativity Theory - Black Holes
  • Definition and characteristics of black holes
  • Formation of black holes
  • Singularity and event horizon
  • Hawking radiation and black hole thermodynamics
  • Example: Supermassive black holes in galactic centers
  1. Relativity Theory - Cosmology
  • Introduction to cosmology
  • Expanding universe and the Big Bang theory
  • Cosmic microwave background radiation
  • Inflationary cosmology
  • Example: Hubble’s law and the age of the universe
  1. Relativity Theory - Time Travel
  • Time travel concepts in relativity theory
  • Causality violations and paradoxes
  • Tipler cylinders and wormholes
  • Time travel theories and their limitations
  • Example: The grandfather paradox
  1. Conclusion
  • Review of the topics covered in this module
  • Importance of modern physics in understanding the universe
  • Relevance of quantum mechanics and relativity in technology and research
  • Significance of critical thinking and problem-solving skills in physics
  • Q&A session