All Resources by Class Day

1: Two Ways to Represent Motion

• Kickoff

• Objectives

• L2.1: Motion Maps/Dot Diagrams

• W2.1: Motion Map Practice · P1

• W2.2: Ladybug Graph

• W2.3: Motion Detector Graphs

• Exit Ticket

2: Vectors vs. Scalars

• Kickoff

• Objectives

• L2.2: Vectors & Scalars

• L2.3: Labeling & Adding Vectors

• L2.4: Recording the Angle of a Vector

• L2.5: Finding the Angle of a Vector

• L2.6: X and Y Components of Vectors

• L2.7: Finding X and Y Components Using Trig

• W2.4: PhET Vector Lab

• W2.5: Vector Math · P1

• W2.6: Vectors in the Real World · P1

• Exit Ticket

3: Distance, Displacement, Speed, Velocity

• Kickoff

• Objectives

• L2.8: Distance & Displacement

• L2.9: Speed & Velocity

• W2.7: Distance and Displacement · P1

• W2.8: Speed and Velocity · P1

• Exit Ticket

4: Position-Time Graphs

• Kickoff

• Objectives

• L2.10: Position-Time Graphs

• L2.11: Average vs. Instantaneous

• W2.9: Interpreting Position-Time Graphs · P1

• HW2: Distance, Displacement, & Graphs

• HW3: Velocity & Graphs

• Exit Ticket

1: Ramp Lab

• Kickoff

• Objectives

• L3.1: Linearization

• L3.2: Creating the Linearized Graph

• L3.3: Error Analysis & Limits of the Model

• L3.4: Predictions

• W3.1: Linearization · P1

• W3.2: Ramp Lab · How to do motion capture on Logger Pro

• Exit Ticket

2: Acceleration & Graphs

• Kickoff

• Objectives

• Review acceleration section of L2.1: Motion Maps

• L3.5: The GUESS Method

• L3.6: Acceleration

• W3.3: Speeding Up & Slowing Down · P1

• Exit Ticket

3: Translating Graphs

• Kickoff

• Objectives

• L3.7: Acceleration-Time Graphs

• L3.8: Velocity-Time Graphs Part 2

• L3.9: Translating Graphs

• W3.4: Acceleration-Time Graphs

• W3.5: Stacked Graphs · P1

• Exit Ticket

4: Solving Problems With Graphs

• Kickoff

• Objectives

• W3.6: Problem Solving with Graphs · P1

• HW5: Acceleration & Graphs

• Exit Ticket

5: The Kinematic Equations

• Kickoff

• Objectives

• L3.10: Kinematic Equations

• Optional Lecture: Proof of Kinematic Equations

• W3.7: Same Sheet, But With Kinematics · P1

• W3.8: Kinematics Problem Solving

  • I solve all the odd problems in these videos: Level 1 · Level 2 · Level 3 · Level 4 · Level 5

• HW6: Kinematics

• Exit Tickets

6: Free Fall

• Kickoff

• Objectives

• L3.11: Free Fall

• W3.9: Free Fall Problem Solving · P1

• Exit Ticket

1: Vector Addition

• Kickoff

• Objectives

• L4.1: Adding Complex Vectors

• W4.1: Vector Passport · P1

• HW7: Vectors

• Exit Ticket

2: Common Forces

• Kickoff

• Objectives

• L4.2: Forces & Free Body Diagrams

• L4.3: Common Forces

• L4.4: Force Webs

• W4.2: Force Stations

• Exit Ticket

3: Free Body Diagrams

• Kickoff

• Objectives

• L4.5: Finding the Net Force

• L4.5: Finding the Net Force

• W4.3: Solving for Unknowns with FBD · P1

• HW8: Vectors & Forces

• Exit Ticket

4: Gravity and Friction

• Kickoff

• Objectives

• L4.6: Mass vs. Weight

• L4.7: Static vs. Kinetic Friction

• W4.4: Putting it all Together! · P1

• Exit Ticket

5: Newton’s First Law

• Kickoff

• Objectives

• L4.8: Newton’s First Law

• W4.5: N1L · P1

• HW9: Newton’s First Law, Weight, and Mass

• Exit Ticket

6: Newton’s Third Law

• Kickoff

• Objectives

• L4.9: Newton’s Third Law

• W4.6: N3L Pairs · P1

• HW10: Newton’s Third Law

• Exit Ticket

7: Inclined Planes

• Kickoff

• Objectives

• L4.10: Ramp Problems

• W4.7: IB Problems· P1

• Exit Ticket

1: Newton’s Second Law

• Kickoff

• Objectives

• L5.1: Newton’s Second Law

• Instructions on starting W5.1

• W5.1: Working with Data · P1

  • Sample data

• W5.2: Another Angle on F = ma · P1

• Exit Ticket

2: Free Fall & Elevators

• Kickoff

• Objectives

• Game for W5.3: Elevator Ride

• W5.3: Elevator Ride

• W5.4: Elevator Lab

• W5.5: Free Fall

  • Answers to falling ball question

• HW11: Newton’s Second Law & Elevator Problems

• HW12: Kinematics with Newton’s Second Law

• Exit Ticket

3: Unbalanced Forces on Free Body Diagrams Pt 1

• Kickoff

• Objectives

• W5.6: FBD Workshop

• W5.7: Unbalanced Forces Practice

  • Solution Videos: Mild · Medium · Spicy · Extra Spicy

4: Unbalanced Forces on Free Body Diagrams Pt 2

• Kickoff

• Objectives

• W5.8: Additional IB Problems

• Exit Ticket

1: Kinematics in 2 Dimensions

• Kickoff

• Objectives

• L6.1: 2D Projectile Motion Kinematics

• W6.1: Projectile Motion Problems

  • P1s for: Mild · Medium · Spicy · Extra Spicy

• HW13: Reviewing Free Fall

• HW14: 2D Projectiles

• Exit Ticket

2: IB Problems

• Kickoff

• Objectives

• W6.2: IB Projectile Problems · P1

• Exit Ticket

3: Air Resistance

• Kickoff

• Objectives

• L6.2: Air Resistance on Projectiles

• W6.3: Air Resistance Worksheet

• Exit Ticket

4: Graphs of 2D Motion

• Kickoff

• Objectives

• W6.4: More xt vt at Practice

• Exit Ticket

1: Describing Circular Motion

• Kickoff

• Objectives

• L7.1: Uniform Circular Motion

• W7.1: Circular Kinematics · P1

• Exit Ticket

2: Centripetal Force

• Kickoff

• Objectives

• L7.2: 5 Examples of Finding Centripetal Force

• Complete W7.1: Circular Kinematics · P1

• Start W7.2: Centripetal Force Problems · P1

• Exit Ticket

3: Challenge Centripetal Force Problems

• Kickoff

• Objectives

• Complete W7.2: Centripetal Force Problems

• W7.3: Spicy Centripetal Force Problems · P1

• Exit Ticket

4: Universal Gravitation

• Kickoff

• Objectives

• L7.3: Universal Gravitation

• W7.4: Gravitational Force Practice · P1

• W7.5: Gravitational Fields · P1

• Exit Ticket

1: Momentum & Impulse

• Kickoff

• Objectives

• L8.1: What is Momentum

• L8.2: Impulse & Ft Graphs

• W8.1: p = mv · P1

• W8.2: Impulse with Constant Force · P1

• Begin W8.3: Ft Graphs · P1

• Exit Ticket

2: Conservation

• Kickoff

• Objectives

• L8.3: Conservation of Momentum

• Complete W8.3: Ft Graphs · P1

• W8.4: Momentum Sim

  • Link to Simulation

• Exit Ticket

3: Open & Closed Systems

• Kickoff

• Objectives

• L8.4: Open vs. Closed Systems

• W8.5: Open vs. Closed · P1

• HW18: Momentum, Systems, & Conservation

• HW19: Collisions

• HW20: Impulse

• Exit Ticket

4: Collisions & IB Problems

• Kickoff

• Objectives

• L8.5: Collisions

• W8.6: Collision Practice

• W8.7: IB Questions

• Exit Ticket

1: Work & Energy

• Kickoff

• Objectives

• L9.1: Work

• L9.2: Energy & Work

• W9.1: Work

• W9.2: Energy

• Exit Ticket

2: Types of Energy

• Kickoff

• Objectives

• L9.3: Kinetic Energy

• L9.4: Gravitational Potential Energy

• L9.5: Elastic Potential Energy

• L9.6: Thermal Energy

• L9.7: Other Types of Energy

• W9.3: Calculating Energy

• HW21: Intro to Energy

• HW22: Energy Equations

• Exit Ticket

3: Conservation of Energy

• Kickoff

• Objectives

• L9.8: Conservation of Energy

• L9.9: LOL Diagrams

• W9.4: Quantitative LOL Diagrams

• W9.5: Conservation Practice

• Exit Ticket

4: More Energy Conservation

• Kickoff

• Objectives

• L9.10: Force-Distance Graphs

• W9.6: Qualitative LOL Diagrams

• W9.7: Open LOL Systems

• W9.8: Revisiting Work

• Exit Ticket

1: Power, Efficiency, and Sankey Diagrams

• Kickoff

• Objectives

• L10.1: Power

• L10.2: Efficiency

• L10.3: Sankey Diagrams

• Optional review video on unit conversion

• W10.1: Sankey Diagrams, Power, IB Questions

• HW24: Work, Power, Efficiency

• Exit Ticket

2: Fossil Fuels

• Kickoff

• Objectives

• L10.4: Why Climate Change Happens

  • Link to simulation in video

• L10.5: Fossil Fuels

• L10.6: Primary vs. Secondary Energy Sources

• W10.2: Fossil Fuels IB Problems ᐧ P1

• Exit Ticket

3: Nuclear Power

• Kickoff

• Objectives

• Only watch Lecture 10.7 if you do not remember atomic notation like U-235, what an isotope is, or using Avogadro’s number to find the mass of a number of atoms.

• L10.7: The Atom

• L10.8: Nuclear Power

• W10.3: Nuclear Power IB Problems ᐧ P1

• Exit Ticket

4: Wind & Hydroelectric Power

• Kickoff

• Objectives

• L10.9: Wind Power

• L10.10: Hydroelectric Power

• W10.4: Wind & Hydro IB Problems ᐧ P1

• Exit Ticket

1: Specific Heat and Temperature Change

• Kickoff

• Objectives

• L11.1: Temperature, Internal or Thermal Energy, and Heat

• L11.2: Q = mcΔT and Specific Heat

• W11.1: Calorimetry Lab · P1

• W11.2: Heat Transfer Problems · P1

• Exit Ticket

2: Latent Heat and Phase Change

• Kickoff

• Objectives

• L11.3: Phase Changes

• L11.4: Q = mL and Latent Heat

• L11.5: Using Power in Heat Equations

• L11.6: How to Draw and Read Temperature vs. Heat Graphs

• L11.7: Thermal Equilibrium

• W11.3: Q = mL Problems mms · P1

• Exit Ticket

3: The Ideal Gas Law

• Kickoff

• Objectives

• L11.8: Pressure

• L11.9: The Kinetic Model of an Ideal Gas

• L11.10: The Ideal Gas Law pV = nRT

• L11.11: The Average Kinetic Energy per Molecule Equation for an Ideal Gas

• W11.4: Gas Law Lab

• W11.5: Gas Law Problems · P1

• Exit Ticket

1: Electrostatics

• Kickoff

• Objectives

• L1.1: Electric Charge

• L1.2: Coulomb’s Law

• W1.1: Electrostatics Stations

• W1.2: Coulomb’s Law Practice • P1

• Exit Ticket

2: Electric Fields

• Kickoff

• Objectives

• L1.3: Electric Fields

• W1.3: Electric Fields • P1

• HW1: Electric Fields & Forces

• Exit Ticket

3: Magnetic Fields & Forces

• Kickoff

• Objectives

• L1.4: Magnetic Fields

• L1.5: 3D Vectors

• L1.6: The Corner Right Hand Rule

• L1.7: The Curl Right Hand Rule

• W1.4: Magnetic Fields • P1

• HW2: RHR, qvB, F = qE, ILB

• Exit Ticket

4: Moving Charges

• Kickoff

• Objectives

• L1.8: Current and Drift Velocity

• W1.5: POGIL: Moving Charges and Energy • P1

• Exit Ticket

5: Voltage

• Kickoff

• Objectives

• L1.9: Voltage

• L1.10: Combining Right Hand Rules

• L1.11: Electron-Volts vs. Joules

• W1.6: Voltage • P1

• W1.7: Where Does B Come From?

• HW3: RHR, W=qEd, V=W/q, V = Ed

• Exit Ticket

6: Putting it all Together

• Kickoff

• Objectives

• W1.8: IB Problems • P1

• Exit Ticket

7: Catch-up Day

• Kickoff

• Objectives

• Exit Ticket

1: Resistance & Resistivity

• Kickoff

• Objectives

• L2.1: Resistance and Resistivity

• W2.1: Lighting a Light Bulb • Phet Circuit Lab

• W2.2: Investigating Resistance • Phet Resistivity Lab

• W2.3: Resistivity Problems

• Exit Ticket

2: Series & Parallel Circuits

• Kickoff

• Objectives

• L2.2: Circuits

• L2.3: Series vs. Parallel & Equivalent Resistance

• L2.4: Ohm’s Law

• L2.5: Power in Circuits

• W2.4: Power, Current, and Voltage

• W2.5: Resistance in Series and Parallel

• HW4: Voltage, Current, Resistance

• Exit Ticket

3: Kirchhoff’s Laws

• Kickoff

• Objectives

• L2.6: Kirchhoff’s Laws

• W2.6: Mild, Medium, Spicy Problems

• W2.7: Kirchhoff’s Laws Practice

• HW5: Kirchhoff’s Rules

• Exit Ticket

4: Potential Dividers

• Kickoff

• Objectives

• L2.7: Potential Dividers

• L2.8: Real vs. Ideal Ammeters and Voltmeters

• L2.9: Ohmic vs. Non-Ohmic Resistors

• W2.8: Potential Dividers Lab

• Exit Ticket

5: Real vs. Ideal Meters

• Kickoff

• Objectives

• W2.9: Real vs. Ideal Meters

• Exit Ticket

6: Internal Resistance

• Kickoff

• Objectives

• L2.10: Internal Resistance

• W2.10: Internal Resistance Lab

• HW6: Emf & Power

• Exit Ticket

7: IB Problems

• Kickoff

• Objectives

• L2.11: Primary vs. Secondary Cells

• W2.11: IB Problems

• Exit Ticket

1: Simple Harmonic Motion

• Kickoff

• Objectives

• L3.1: Simple Harmonic Motion

• W3.1: Review of Stacked Graphs

• W3.2: Stacked Graphs with Energy Review

• W3.3: Energy in Simple Harmonic Motion

• W3.4: Simple Harmonic Motion IB Questions

• HW7: Hooke’s Law & Energy Conservation

• Exit Ticket

2: Waves Intro

• Kickoff

• Objectives

• L3.2: Waves: Basic Definition, Transverse vs. Longitudinal, Mechanical vs. Electromagnetic

• L3.3: Waves: Amplitude, Period, Frequency, Wavelength, Crests & Troughs, Wavelength of a Longitudinal Wave

• L3.4: Waves: Velocity of a Wave, Wave Graphs: Displacement-Distance and Displacement-Time

• W3.5: Waves POGIL

• HW8: Wave Types & v = λf

• Exit Ticket

3: Superposition

• Kickoff

• Objectives

• L3.5: Superposition

• L3.6: Phase Difference

• W3.6: Superposition of Waves

• Exit Ticket

4: Standing Waves

• Kickoff

• Objectives

• L3.7: Wave Reflections

• L3.8: Standing Waves

• L3.9: Harmonics of Standing Waves

• L3.10: Sound as a Standing Wave

• W3.7: IB Standing Wave Questions

• HW9: Standing Waves

• Exit Ticket

5: Electromagnetic Waves

• Kickoff

• Objectives

• L3.11: Electromagnetic Waves

• W3.8: PhET EM Waves

• W3.9: IB EM Wave Questions

• Exit Ticket

1: Reflection & Refraction

• Kickoff

• Objectives

• L4.1: Reflection

• L4.2: Wavefronts

• L4.3: Refraction and Snell’s Law

• W4.1: Snell’s Law Investigation

• Exit Ticket

2: Total Internal Reflection & Diffraction

• Kickoff

• Objectives

• L4.4: The Critical Angle and Total Internal Reflection

• L4.5: Diffraction & Huygens’s Principle

  • Optional Minecraft Demo

• W4.2: Wave Diffraction and Interference

• Exit Ticket

3: Double Slit Experiment

• Kickoff

• Objectives

• L4.6: Proving the Double Slit Diffraction Equation

• L4.7: Solving Problems with the Double Slit Diffraction Equation

• W4.3: Investigating Double Slit Relationships Experimentally

• W4.4: Double Slit IB Problems

• Exit Ticket

4: Intensity & Polarization

• Kickoff

• Objectives

• L4.8: Light Intensity

• L4.9: Polarization

• W4.5: Wave Intensity

• W4.6: Polarization

• Exit Ticket

1: Background

• Kickoff

• Objectives

• L5.1: Photons and the Planck Constant

• L5.2: Electron Energy Levels and Photons

• L5.3: Absorption and Emission Spectra

• W5.1: IB Spectra Problems

• Exit Ticket

2: Nuclear Reactions

• Kickoff

• Objectives

• W5.2: Nuclear Reactions

• Exit Ticket

4: Mass Defect & Binding Energy

• Kickoff

• Objectives

• L5.4: Mass Defect & Binding Energy

• W5.3: Mass Defect & Binding Energy

• Exit Ticket

5: Binding Energy Per Nucleon

• Kickoff

• Objectives

• L5.5: Binding Energy Per Nucleon and Stability

• L5.6: Fusion, Fission, and Energy in Nuclear Equations

• W5.4: Binding Energy per Nucleon

• Exit Ticket

6: Radioactivity

• Kickoff

• Objectives

• L5.7: Nuclear Radiation and Decay

• L5.8: Alpha, Beta, and Gamma Decay

• W5.5: Radioactivity

• Exit Ticket

7: Half-Life

• Kickoff

• Objectives

• L5.9: Half-Life

• W5.6: IB Spectra Problems

• Exit Ticket

8: Wrap-Up

• Kickoff

• Objectives

• W5.7: Nuclear IB Problem Set

• Exit Ticket
  

1: Intro to Particles

• Kickoff

• Objectives

• L6.1: The Four Fundamental Forces

• L6.2: Fundamental vs. Composite Particles and the Standard Model

• Exit Ticket

2: Conservation Laws

• Kickoff

• Objectives

• L6.3: Conservation Laws in Particle Physics

• Exit Ticket

3: Feynman Diagrams

• Kickoff

• Objectives

• L6.4: Feynman Diagrams

• Exit Ticket

1: Scale

• Kickoff

• Objectives

• Exit Ticket

2: Parallax

• Kickoff

• Objectives

• L7.1: Parallax

• Exit Ticket

3: Cepheids

• Kickoff

• Objectives

• L7.2: Brightness and Luminosity of Stars

• L7.3: Cepheid Variables

• Exit Ticket

4: Blackbody Radiation

• Kickoff

• Objectives

• Exit Ticket

5: Spectra

• Kickoff

• Objectives

• L7.4: Photons and the Planck Constant

• L7.5: Electron Energy Levels and Photons

• L7.6: Absorption and Emission Spectra

• Exit Ticket

6: Hertzsprung-Russell Diagrams

• Kickoff

• Objectives

• L7.7: Hertzsprung-Russell Diagrams

• Exit Ticket

9: The Cosmic Microwave Background

• Kickoff

• Objectives

• Exit Ticket

10: Type Ia (“one-A”) Supernovae

• Kickoff

• Objectives

• Exit Ticket

1: Solar Intensity

• Kickoff

• Objectives

• Exit Ticket

2: The Greenhouse Effect

• Kickoff

• Objectives

• Exit Ticket

3: IB Climate Problems

• Kickoff

• Objectives

• Exit Ticket