AP Physics 2
Course Content
Fluids
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Density and Pressure
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Specific gravity
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Pressure and Pascal’s principle (part 1)
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Pressure and Pascal’s principle (part 2)
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Pressure at a depth in a fluid
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Finding height of fluid in a barometer
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Buoyant Force and Archimedes’ Principle
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Archimedes principle and buoyant force
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Buoyant force example problems
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Fluid Dynamics
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Volume flow rate and equation of continuity
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Bernoulli’s equation (part 1)
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Bernoulli’s equation (part 2)
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Bernoulli’s equation (part 3)
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Bernoulli’s equation (part 4)
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Bernoulli’s example problem
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Turbulence at high velocities and Reynold’s number
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Venturi effect and Pitot tubes
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Surface Tension and Adhesion
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Viscosity and Poiseuille flow
Thermodynamics
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Temperature, kinetic theory, and the ideal gas law
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Thermodynamics part 1: Molecular theory of gases
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Thermodynamics part 2: Ideal gas law
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Thermodynamics part 3: Kelvin scale and Ideal gas law example
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Thermodynamics part 4: Moles and the ideal gas law
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Thermodynamics part 5: Molar ideal gas law problem
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Maxwell-Boltzmann distribution
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Specific heat and heat transfer
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Specific heat and latent heat of fusion and vaporization
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Thermal conduction, convection, and radiation
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Thermal conduction
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Thermal conductivity of metal and wood
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Intuition behind formula for thermal conductivity
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Laws of thermodynamics
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Macrostates and microstates
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Quasistatic and reversible processes
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First law of thermodynamics / internal energy
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More on internal energy
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Work from expansion
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PV-diagrams and expansion work
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Proof: U = (3/2)PV or U = (3/2)nRT
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Work done by isothermic process
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Carnot cycle and Carnot engine
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Proof: Volume ratios in a Carnot cycle
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Proof: S (or entropy) is a valid state variable
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Thermodynamic entropy definition clarification
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Reconciling thermodynamic and state definitions of entropy
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Entropy intuition
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Maxwell’s demon
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More on entropy
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Efficiency of a Carnot engine
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Carnot efficiency 2: Reversing the cycle
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Carnot efficiency 3: Proving that it is the most efficient
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Charge and electric force (Coulomb’s law)
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Triboelectric effect and charge
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Coulomb’s Law
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Conductors and insulators
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Conservation of charge
Electric charge, field, and potential
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Electric field
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Electric field definition
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Electric field direction
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Magnitude of electric field created by a charge
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Net electric field from multiple charges in 1D
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Net electric field from multiple charges in 2D
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Electric field
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Proof: Field from infinite plate (part 1)
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Proof: Field from infinite plate (part 2)
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Electric potential energy, electric potential, and voltage
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Electric potential energy
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Electric potential energy (part 2– involves calculus)
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Voltage
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Electric potential energy of charges
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Electric potential at a point in space
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Electric potential charge configuration
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Magnets and Magnetic Force
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Introduction to magnetism
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Magnetic force on a charge
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Cross product 1
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Cross product 2
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Magnetic force on a proton example (part 1)
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Magnetic force on a proton example (part 2)
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Magnetic force on a current carrying wire
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Magnetic field created by a current
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Magnetic field created by a current carrying wire
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Magnetic force between two currents going in the same direction
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Magnetic force between two currents going in opposite directions
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Induced current in a wire
Magnetic forces, magnetic fields, and Faraday’s law
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Electric motors
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Electric motors (part 1)
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Electric motors (part 2)
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Electric motors (part 3)
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The dot product
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Dot vs. cross product
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Calculating dot and cross products with unit vector notation
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Magnetic flux and Faraday’s law
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Flux and magnetic flux
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Faraday’s Law Introduction
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Lenz’s Law
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Faraday’s Law example
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Emf induced in rod traveling through magnetic field
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Faraday’s Law for generating electricity
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Introduction to electromagnetic waves
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Electromagnetic waves and the electromagnetic spectrum
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Polarization of light, linear and circular (Opens a modal)
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Thin Film Interference part 2
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Interference of electromagnetic waves
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Constructive and Destructive interference
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Young’s double slit introduction
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Young’s double slit equation
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Young’s double slit problem solving
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Diffraction grating
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Single slit interference
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More on single slit interference
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Thin Film Interference part 1
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Reflection and refraction
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Specular and diffuse reflection
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Specular and diffuse reflection 2
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Refraction and Snell’s law
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Snell’s law example 1
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Total internal reflection
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Dispersion
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Refraction in water
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Snell’s law example 2
Electromagnetic waves and interference
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Mirrors
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Virtual image
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Parabolic mirrors and real images
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Parabolic mirrors 2
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Convex parabolic mirrors
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Derivation of the mirror equation
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Mirror equation example problems
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Lenses
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Convex lenses
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Convex lens examples
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Concave lenses
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Object image and focal distance relationship (proof of formula)
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Object image height and distance relationship
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Thin lens equation and problem solving
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Multiple lens systems
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Diopters, Aberration, and the Human Eye
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Photons
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Photon energy
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Photon momentum
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Photoelectric effect
Geometric optics
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Atoms and electrons
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De Broglie wavelength
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Quantum Wavefunction
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Atomic Energy Levels
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Bohr model radii (derivation using physics) (Opens a modal)
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Bohr model radii
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Bohr model energy levels (derivation using physics)
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Bohr model energy levels
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Absorption and emission
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Emission spectrum of hydrogen (Opens a modal)
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Quantum numbers and orbitals
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Heisenberg uncertainty principle
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Quantum numbers
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Quantum numbers for the first four shells
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More exponential decay examples
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Exponential decay and semi-log plots
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Nuclear physics
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Mass defect and binding energy
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Nuclear stability and nuclear equations (Opens a modal)
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Types of decay
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Writing nuclear equations for alpha, beta, and gamma decay (Opens a modal)
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Half-life and carbon dating (Opens a modal)
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Half-life plot
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Exponential decay formula proof (can skip, involves calculus)
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Introduction to exponential decay (Opens a modal)
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