- Calculus-Based Physics I
- Calculus-Based Physics II
- Mechanics
- The Adventure of Physics: Volume II: Relativity and Cosmology
- The Adventure of Physics: Volume IV: The Quantum of Change
- Physics
- An Introduction to Physics for Engineering and Physical Science Students
- University Physics: Volume 1
- University Physics: Volume 2
- University Physics: Volume 3
- Fundamentals of Physics I (Lectures)
- Fundamentals of Physics II (Lectures)
- Making, probing and understanding ultracold Fermi gases
- Introduction to String Field Theory
- SUPERSPACE or One thousand and one lessons in supersymmetry
- Natural Aerosols in the Climate System
- The Age of Einstein
- Classical Electromagnetism
- Essential Physics: Part I
- Introduction to Groups, Invariants and Particles
- The Physics of Waves
- Particle Size Distributions: Theory and Application to Aerosols, Clouds, and Soils
- Radiative Transfer in the Earth System
- Conceptual physics
- General Relativity
- Quantum Mechanics for Engineers
- Introduction to Statics and Dynamics
- The Fundamentals of Stellar Astrophysics
- Special Relativity
- Light and Matter
- The Adventure of Physics Volume III: Light, Charges and Brains
- The People's Physics Book
- Partial Solutions Manual: Introduction to Statics and Dynamics
- The Adventure of Physics: Volume VI: The StrandModel – A Speculation on Unification (PART I)
- The Adventure of Physics: Volume VI: The StrandModel – A Speculation on Unification (PART II)
- College Physics for AP Courses
- Body Physics: Motion to Metabolism
- Electromagnetics, volume 1
- Accessibility of Relativity Lite: A Pictorial Translation of Einstein's Theories of Motion and Gravity
- Applications of Maxwell's Equations
- Electromagnetics, volume 2
- University Physics I: Classical Mechanics
- Mechanics and Relativity
- Problems in Introductory Physics
- Fundamentals of Calculus
- Modern physics: With waves, thermodynamics, and optics
- Relativity for Poets
- Fields and Circuits
- Lab Manual for Physics 205/210
- Lab Manual for Physics 206/211
- Lab Manual for Physics 221
- Lab Manual for Physics 222
- Lab Manual for Physics 223
- Discover Physics
- Astronomy
- Nuclear Physics For Cultural Heritage
- Dynamics and Relativity
- What Would Newton Do?
- Relativity: The Special and General Theory
- Lecture Notes for Physics 110A
- Lecture Notes for Physics 110B
- Kvantfysik's Lecture Notes (Quantum Mechanics)
- Why Maxwell's theory is so hard to understand.
- Electromagnetism
- Applications of Quantum Mechanics
- Lecture Notes for Solid State Physics
- The Quantum Hall Effect: A Colloquium
- Quantum Hall Effects
- Three Lectures On Topological Phases Of Matter
- Aspects of Chern-Simons Theory
- The Quantum Hall Effect: Novel Excitations and Broken Symmetries
- Lecture Notes on Thermodynamics and Statistical Mechanics
- The Gibb's Paradox
- Applied Stochastic Processes in science and engineering
- Dirty tricks for statistical mechanics
- Physics 217: The Renormalization Group Winter 2016
- 6 Lectures on QFT, RG and SUSY
- Quantum Condensed Matter Field Theory
- Chiral Symmetry and Lattice Fermions
- Three Lectures On Topological Phases Of Matter
- A Chiral Perturbation Theory Primer
- Lectures on Anomalies
- LARGE N QCD
- Aspects of Chern-Simons Theory
- Bosonization: How to make it work for you in condensed matter
- Calculus of Many Instantons
- Introduction to Cosmic F- and D-Strings
- Vortices and Monopoles
- Magnetic Monopoles, Duality, and Supersymmetry
- Instantons Versus Supersymmetry: Fifteen Years Later
- Electromagnetic Duality for Children
- Part 3 General Relativity
- Part 3 Black Holes
- Black Holes
- Cosmology
- Astrophysical Cosmology
- Astronomy 275 Lecture Notes
- Sigma Models and String Theory
- Applied Conformal Field Theory
- What is String Theory?
- Introduction to String Theory
- Introduction to Many Body physics
- Notes from Sidney Coleman's Physics 253a
-
Course Overview (Lecture 1)
-
Classical NMR (Lecture 2)
-
Introduction to QM (Lecture 3)
-
QM Mathematics (Lecture 4)
-
Postulates of QM (Lecture 5)
-
NMR in Hilbert Space (Lecture 6)
-
NMR in Liouville Space (Lecture 7)
-
The Nuclear Spin Hamiltonian (Lecture 8)
-
The Density Operator, Populations, and Coherences (Lecture 9)
-
Product-operator Formulism I (Lecture 10)
-
Product-operator Formulism II (Lecture 11)
-
Polarization Transfer (Lecture 12)
-
Spectral Editing (Lecture 13)
-
In vivo MRS-detectable Metabolites (Lecture 14)
-
1H MRS methods and applications (Lecture 15)
-
Clinical and Research Applicaitons of 1H MRS (Lecture 16)
-
Research Topics for 13C MRS (Lecture 17)
-
Hot topics (Lecture 18)
-
J-coupling, CPMG, and Fast Spin Echo (Lecture 19)
- 1: The Basics of Physics
- 2: Kinematics
- 3: Two-Dimensional Kinematics
- 4: The Laws of Motion
- 5: Uniform Circular Motion and Gravitation
- 6: Work and Energy
- 7: Linear Momentum and Collisions
- 8: Static Equilibrium, Elasticity, and Torque
- 9: Rotational Kinematics, Angular Momentum, and Energy
- 10: Fluids
- 11: Fluid Dynamics and Its Applications
- 12: Temperature and Kinetic Theory
- 13: Heat and Heat Transfer
- 14: Thermodynamics
- 15: Waves and Vibrations
- 16: Sound
- 17: Electric Charge and Field
- 18: Electric Potential and Electric Field
- 19: Electric Current and Resistance
- 20: Circuits and Direct Currents
- 21: Magnetism
- 22: Induction, AC Circuits, and Electrical Technologies
- 23: Electromagnetic Waves
- 24: Geometric Optics
- 25: Vision and Optical Instruments
- 26: Wave Optics
- 27: Special Relativity
- 28: Introduction to Quantum Physics
- 29: Atomic Physics
- 30: Nuclear Physics and Radioactivity
- intro slides.pdf
- lecture 1 slides.pdf
- lecture 1.pdf
- lecture 2 slides.pdf
- lecture 2.pdf
- lecture 3.pdf
- lecture 4 part 1.pdf
- lecture 4 part 2.pdf
- lecture 5.pdf
- lecture 6 slides.pdf
- lecture 6_corrected_v2.pdf
- lecture 7.pdf
- lecture 8.pdf
- PS1_Solution.pdf
- Lecture 1: Probability
- Lecture 2: Diffusion
- Lecture 3: Equilibrium
- Lecture 4: Tempreature
- Lecture 5: Thermodynamics
- Lecture 6: Entropy
- Lecture 7: Ensembles
- Lecture 8: Free Energy
- Lecture 9: Phase Transitions
- Lecture 10: Quantum Statistical Mechanics
- Lecture 11: Phonons and Photons
- Lecture 12: Bose-Einstein Condensation
- Lecture 13: Metals
- Lecture 14: Semiconductors
- Lecture 15: Stars
- Lecture 1: Oscillators and linearity
- Lecture 2: Driven oscillators
- Lecture 3: Coupled oscillators
- Lecture 4: From oscillators to waves
- Lecture 5: Fourier series
- Lecture 6: Waves
- Lecture 7: Music
- Lecture 8: Fourier transforms
- Lecture 9: Reflection, Transmission and Impedance
- Lecture 10: Power
- Lecture 11: Wavepackets
- Lecture 12: Waves chapter from Muller's book (taken from here )
- Lecture 13: Light
- Lecture 14: Polarization
- Lecture 15: Refraction
- Lecture 16: Prisms
- Lecture 17: Color
- Lecture 18: Antennas
- Lecture 19: Diffraction
- Lecture 20: Quantum mechanics
- Lecture 21: The Doppler effect
David Tong: Lectures on Dynamics and Relativity
- Newtonian Mechanics: PDF
- Forces: PDF
- Interlude: Dimensional Analysis: PDF
- Central Forces: PDF
- Systems of Particles: PDF
- Non-Inertial Frames: PDF
- Special Relativity: PDF
Problem Sheets
- Problem Sheet 1: PDF Single Particle Mechanics
- Problem Sheet 2: PDF Central Forces and Orbits
- Problem Sheet 3: PDF Systems of Particles and Spinning Things
- Problem Sheet 4: PDF Special Relativity
Joseph Minahan's Lecture Notes
- Lecture notes in mathematical physics
- Joe's relatively small book on special relativity
- Lecture notes in general relativity
- Lecture notes in quantum field theory (taught at MIT, spring 2011)
- Lecture notes in QFT
David Tong: Lectures on Classical Dynamics
- Newtonian Mechanics: PDF
- The Lagrangian Formulation: PDF
- The Motion of Rigid Bodies: PDF
- The Hamiltonian Formulation: PDF
Problem Sheets
- Problem Sheet 1: PDF Lagrangian Formulation
- Problem Sheet 2: PDF Normal Modes, Inertia Tensors and Rotations
- Problem Sheet 3: PDF Euler's Equations and Euler Angles
- Problem Sheet 4: PDF Hamiltonian Formulation
David Tong: Lectures on Electromagnetism
- Div, Grad and Curl: PDF
- Introduction and Electrostatics: PDF
- Magnetostatics: PDF
- Electrodynamics: PDF
- Electromagnetism and Relativity: PDF
- Electromagnetic Radiation: PDF
- Electromagnetism in Matter: PDF
Problem Sheets
- Problem Sheet 1: PDF Electric Fields
- Problem Sheet 2: PDF Magnetic Fields
- Problem Sheet 3: PDF Electromagnetic Waves and Relativity
David Tong: Lectures on Topics in Quantum Mechanics
- Discrete Symmetries: PDF
- Approximation Methods: PDF
- Atoms: PDF
- Atoms in Electromagnetic Fields: PDF
- Quantum Foundations: PDF
- Scattering Theory: PDF
Problem Sheets
- Problem Sheet 1: PDF Scattering
- Problem Sheet 2: PDF Variational Method, 1d Band Structure
- Problem Sheet 3: PDF 3d Band Structure; Fermi Surfaces
- Problem Sheet 4: PDF Phonons; Particles in a Magnetic Field
- Notes on Spherical Bessel Functions: PDF
| Lecture | Description | Problem sets |
| Preface | ||
| Lec 1 | Foundations of quantum physics | |
| Lec 2 | Quantum mechanics in one dimension | |
| Lec 3 | Operator methods in quantum mechanics | |
| Lec 4 | Quantum mechanics in more than one dimension | |
| Lec 5-6 | Motion of a charged particle in a magnetic field | |
| Lec 6-7 | Quantum mechanical spin and addition of angular momenta | Problem set I Answers |
| Lec 8-10 | Approximation methods for stationary states (perturbation theory, variational method and WKB) | |
| Lec 11 | Identical particles | Problem set II Answers |
| Lec 12-14 | Atomic structure | |
| Lec 15 | From molecules to solids | Problem set III Answers |
| Lec 16-17 | Quantum field theory: from phonons to photons | |
| Lec 18 | Time-dependent perturbation theory | |
| Lec 19 | Radiative transitions and quantum optics | |
| Lec 20-21 | Scattering theory | |
| Lec 22-24 | Relativistic quantum mechanics | Problem set IV Answers |
- Notes 1: The Mathematical Formalism of Quantum Mechanics, pdf format (complete).
- Notes 2: The Postulates of Quantum Mechanics, pdf format (complete).
- Notes 3: The Density Operator, pdf format (complete).
- Notes 4: Spatial Degrees of Freedom, pdf format (complete).
- Notes 5: Time Evolution in Quantum Mechanics, pdf format (complete).
- Notes 6: Topics in One-Dimensional Wave Mechanics, pdf format (complete).
- Notes 7: The WKB Method, pdf format (complete).
- Notes 8: Harmonic Oscillators and Coherent States, pdf format (complete).
- Notes 9: The Propagator and the Path Integral, pdf format (complete).
- Notes 10: Charged Particles in Magnetic Fields, pdf format (complete).
- Notes 11: Rotations in Ordinary Space, pdf format (complete).
- Notes 12: Rotations in Quantum Mechanics, and Rotations of Spin 1/2 Systems, pdf format (complete).
- Notes 13: Representations of the Angular Momentum Operators and Rotations, pdf format (complete).
- Notes 14: Spins in Magnetic Fields, pdf format (complete).
- Notes 15: Orbital Angular Momentum and Spherical Harmonics, pdf format (complete).
- Notes 16: Central Force Motion, pdf format (complete).
- Notes 17: Coupling of Angular Momenta, pdf format (complete).
- Notes 18: Irreducible Tensor Operators and the Wigner-Eckart Theorem, pdf format (complete).
- Notes 19: Parity, pdf format (complete).
- Notes 20: Time Reversal, pdf format (complete).
- Notes 21: Bound-State Perturbation Theory, pdf format (complete).
- Notes 22: The Stark Effect in Hydrogen and Alkali Atoms, pdf format (complete).
- Notes 23: Fine Structure in Hydrogen and Alkali Atoms, pdf format (complete).
- Notes 24: The Zeeman Effect in Hydrogen and Alkali Atoms, pdf format (complete).
- Notes 25: Hyperfine Structure in Atoms, pdf format (complete).
- Notes 26: The Variational Method, pdf format (complete).
- Notes 27: Identical Particles, pdf format (complete).
- Notes 28: Helium and Helium-like Atoms, pdf format (complete).
- Notes 29: The Thomas-Fermi Model, pdf format (complete).
- Notes 30: The Hartree-Fock Method in Atoms, pdf format (complete).
- Notes 31: Elements of Atomic Structure in Multi-Electron Atoms, pdf format (complete).
- Notes 32: Time-Dependent Perturbation Theory, pdf format (complete).
- Notes 33: The Photoelectric Effect, pdf format (complete).
- Notes 34: Introduction to Scattering Theory and Scattering from Central Force Potentials, pdf format (complete).
- Notes 35: Green's Functions in Quantum Mechanics, pdf format (complete).
- Notes 36: The Lippmann-Schwinger Equation, pdf format (complete).
- Notes 37: Adiabatic Invariance, the Geometric Phase, and the Born-Oppenheimer Approximation, pdf format (complete).
- Notes 38: The Classical Electromagnetic Field Hamiltonian, pdf format (complete).
- Notes 39: Lagrangian and Hamiltonian Formulation of the Classical Electromagnetic Field, pdf format (complete).
- Notes 40: The Quantized Electromagnetic Field, pdf format (complete).
- Notes 41: Interaction of Radiation with Matter, pdf format (complete).
- Notes 42: Scattering of Radiation, pdf format (incomplete).
- Notes 43: The Klein-Gordon Equation , pdf format (complete).
- Notes 44: Introduction to the Dirac Equation, pdf format (incomplete).
- Notes 45: Lorentz Transformations in Special Relativity, pdf format (incomplete).
- Notes 46: Covariance of the Dirac Equation, pdf format (incomplete).
- Appendix A: Gaussian, SI and Other Systems of Units in Electromagnetic Theory, pdf format.
- Appendix B: Classical Mechanics, pdf format.
- Appendix C: Gaussian Integrals, pdf format.
- Appendix D: Vector Calculus , pdf format.
- Appendix E: Tensor Analysis , pdf format.
David Tong: Lectures on Solid State Physics
Problem Sheets
- Problem Sheet 1: PDF Scattering
- Problem Sheet 2: PDF Variational Method, 1d Band Structure
- Problem Sheet 3: PDF 3d Band Structure; Fermi Surfaces
- Problem Sheet 4: PDF Phonons; Particles in a Magnetic Field
- Exercise 1
- Exercise 2
- Exercise 3
- Exercise 4
- Exercise 5
- Exercise 6
- Exercise 7
- Exercise 8
- Exercise 9
- Exercise 10
- Exercise 11
- Exercise 12
David Tong: Lectures on the Quantum Hall Effect
- The Basics: PDF
- The Integer Quantum Hall Effect: PDF
- The Fractional Quantum Hall Effect: PDF
- Non-Abelian Quantum Hall States: PDF
- Chern-Simons Theories: PDF
- Edge Modes: PDF
David Tong: Lectures on Statistical Physics
- Fundamentals of Statistical Mechanics: PDF
- Classical Gases: PDF
- Quantum Gases: PDF
- Classical Thermodynamics: PDF
- Phase Transitions: PDF
Problem Sheets
- Problem Sheet 1: PDF Ensembles
- Problem Sheet 2: PDF Classical and Quantum Gases
- Problem Sheet 3: PDF Bosons and Fermions
- Problem Sheet 4: PDF Thermodynamics and Phase Transitions
- Lecture 1: The Fundamental Postulate
- Lecture 2: A Simple Probability Example
- Lecture 3: Motivation for Fundamental Postulate (Classical)
- Lecture 4: Entropy
- Lecture 5: Energy, Heat and the Carnot Cycle
- Lecture 6: Canonical Ensemble
- Lecture 7: Canonical Ensemble - Simple Examples
- Lecture 8: Polymers (Review paper by Michel Peyrard on the statistical physics of DNA)
- Lecture 9: Grand Canonical Ensemble
- Lecture 10: Other Ensembles/Thermodynamic Potentials (Handout on Thermodynamic Potentials)
- Lecture 11: Entropy, Information and Maxwell's Demon
- Lecture 12: Quantum Statistical Mechanics
- Lecture 13: Ideal Quantum Gases
- Lecture 14: Bose Condensation
- Lecture 15: Statistical Mechanics of Superfluidity
- Lecture 16: Photons and Phonons
- Lecture 17: Ideal Fermi Gas (Handout on diamagnetism of an electron gas.)
- Lecture 18: Gases with Internal Degrees of Freedom
- Lecture 19: Molecular Gases
- Lecture 1: Classical Nonideal Gas
- Lecture 2: Dense Gases and the Liquid State
- Lecture 3: First Order Phase Transitions
- Lecture 4: Phase Transitions in Multicomponent Systems
- Lecture 5: Second Order Phase Transitions
- Lecture 6: Landau Theory
- Lecture 7: Fluctuations
- Lecture 8: Scaling
- Lecture 9: RNG: 1D Ising Model
- Lecture 10: RNG: General Case
- Lecture 11: RNG: Advanced Topics
- Lecture 12: Kinetic Theory
- Lecture 13: Boltzmann Equation I: Scattering off Impurities
- Lecture 14: Boltzmann Equation II: Binary Scattering
- Lecture 15: Brownian Motion
- Lecture 16: Langevin Equation
- Lecture 17: Fokker-Planck Equation
- Lecture 18: Linear Response Theory, etc.
- Lecture 1: Second Quantization
- Lecture 2: Feynman Diagrams
- Lecture 3: Weakly Interacting Bose Gas
- Lecture 4: Superfluidity
- Lecture 5: Vortex Lines
- Lecture 6: Kosterlitz-Thouless Transition
- Lecture 7: Bose-Einstein Condensation in Atomic Traps
- Lecture 8: Weakly Interacting Fermions
- Lecture 9: Fermi Liquid Theory: Principles
- Lecture 10: Fermi Liquid Theory: Thermodynamics
- Lecture 11: Collective Modes in Fermi Liquid
- Lecture 12: Superconductivity: Microscopics
- Lecture 13: Superconductivity: Thermodynamics and Superflow
- Lecture 14: Superconductivity: Ginzburg-Landau Theory
- Lecture 15: Monte Carlo Method
- Lecture 16: Quantum Monte Carlo
- Lecture 17: Path Integral Method
- Lecture 18: Applications of Path Integrals to Superfluidity
David Tong: Lectures on Kinetic Theory
- Things Bumping Into Other Things: PDF
- Kinetic Theory: PDF
- Stochastic Processes: PDF
- Linear Response: PDF
David Tong: Lectures on Statistical Field Theory
- From Spins to Fields: PDF
- My First Path Integral: PDF
- The Renormalisation Group: PDF
- Continuous Symmetry: PDF
Problem Sheets
Nat. Sci. Maths III (Part IA):
linear algebra : PDF.
PDE and series : PDF.
(These notes are from the course in 2006).
Quantum Physics (Part IIA) : PDF.
(These notes are from the course in 2004).
Statistical Physics (Part IIB) : PDF
(These notes are from the course in 2005).
Applications of Quantum Mechanics (Part II, D course) : PDF
(These notes are for the course in Lent 2012 and may be updated from time to time).
Pictures of Brillouin zones: (PDF)
Principles of Quantum Mechanics (2014 Part II, D course) : PDF
Statistical Field Theory (Part III) : PDF
Book list for this course as separate document: PDF
Examples-1: (PDF) Draft answers: (PDF)
Examples-2: (PDF) Draft answers: (PDF)
Examples-3: (PDF) Draft answers: (PDF)
David Tong: Lectures on Quantum Field Theory
- Preliminaries: PDF
- Classical Field Theory: PDF
- Canonical Quantization: PDF
- Interacting Fields: PDF
- The Dirac Equation: PDF
- Quantizing the Dirac Field: PDF
- Quantum Electrodynamics: PDF
Problem Sheets
- Problem Sheet 1: PDF Classical Field Theory
- Problem Sheet 2: PDF Quantizing the Scalar Field
- Problem Sheet 3: PDF The Dirac Equation
- Problem Sheet 4: PDF Scattering Amplitudes
David Tong: Lectures on Gauge Theory
- Topics in Electromagnetism: PDF
- Yang-Mills Theory: PDF
- Anomalies: PDF
- Lattice Gauge Theory: PDF
- Chiral Symmetry Breaking: PDF
- Large N: PDF
- Quantum Field Theory in Two Dimensions: PDF
- Quantum Field Theory in Three Dimensions: PDF
David Tong: TASI Lectures on Solitons
David Tong: Lectures on General Relativity
- Geodesics: PDF
- Introducing Differential Geometry: PDF
- Introducing Riemannian Geometry: PDF
- The Einstein Equations: PDF
- When Gravity is Weak: PDF
- Black Holes: PDF
Problem Sheets
- Problem Sheet 1: PDF Differential Geometry
- Problem Sheet 2: PDF Riemannian Geometry
- Problem Sheet 3: PDF Gravity
- Problem Sheet 4: PDF Linearised Gravity
David Tong: Lectures on Cosmology
Problem Sheets
- Problem Sheet 1: PDF The Expanding Universe
- Problem Sheet 2: PDF The Accelerating Universe
- Problem Sheet 3: PDF The Hot Universe
- Problem Sheet 4: PDF More Hotness, and Structure Formation
- Lecture 1: Introduction; Galaxy Formation in a Nutshell (including one-slide overview)
- Lecture 2: Cosmology (Riemannian geometry, FRW metric)
- Lecture 3: Cosmology (General Relativity, Friedmann equations)
- Lecture 4: Structure Formation in the Linear Regime I: Foreplay
- Lecture 5: Structure Formation in the Linear Regime II: Baryons
- Lecture 6: Structure Formation in the Linear Regime III: Dark Matter
- Lecture 7: Transfer Function & Cosmic Microwave Background
- Lecture 8: Non-Linear Collapse & Relaxation
- Lecture 9: Press-Schechter Theory & Halo Mass Functions
- Lecture 10: Merger Trees & Halo Bias
- Lecture 11: Structure of Dark Matter Haloes
- Lecture 12: Large Scale Structure
- Lecture 13: The Halo Model & Halo Occupation Statistics
- Lecture 14: Galaxy Interactions & Transformations
- Lecture 15: Cooling & Photo-Ionization Heating
- Lecture 16: Star Formation
- Lecture 17: Supernova Feedback
- Lecture 18: Structure & Formation of Disk Galaxies
- Lecture 19: Structure & Formation of Elliptical Galaxies
- Lecture 20: Numerical Simulations
- Summary: a summary of lecture 1-14
- Problem Set 1 [solutions]
- Problem Set 2 [solutions]
- Problem Set 3 [solutions]
David Tong: Concepts in Theoretical Physics
- Principle of Least Action: PDF File
- Quantum Mechanics PDF File
- Particle Physics PDF File
- General Relativity: PDF File
- Cosmology: PDF File
David Tong: Lectures on String Theory
- Introduction: PDF
- The Classical String: PDF
- The Quantum String: PDF
- Open Strings and D-Branes: PDF
- Introducing Conformal Field Theory: PDF
- Path Integrals and Ghosts: PDF
- Scattering Amplitudes: PDF
- Low Energy Effective Actions: PDF
- Compactification and T-Duality: PDF
Problem Sheets
- Problem Sheet 1: PDF Classical and Quantum Strings
- Problem Sheet 2: PDF Conformal Field Theory
- Problem Sheet 3: PDF Mostly Scattering Amplitudes
- Problem Sheet 4: PDF Background Fields
Richard Louie's Physics lectures notes
Displacement and Average Velocity Physics Lecture Notes #1
Position - Time Graphs Physics Lecture Notes #2
Velocity - Time Graphs & Acceleration Physics Lecture Notes #3
Calculating Distance from Initial & Final Velocity Physics Lecture Notes #4
Calculation of Distance from Acceleration Physics Lecture Notes #5
Falling Objects Physics Lecture Notes #6
Drawing Vector Diagrams Physics Lecture Notes #7
Adding Perpendicular Vectors Physics Lecture Notes #8
Adding Diagonal Vectors Physics Lecture Notes #9
Horizontal Projectile Motion Physics Lecture Notes #10
Projectiles Launched at an Angle, Part 1 Physics Lecture Notes #11
Projectiles Launched at an Angle, Part 2 Physics Lecture Notes #12