General Syllabus and Course Overview

 

COURSE CLARIFICATION: There are two separate AP Physics courses, the APB course and the APC course which differ principally in the mathematics utilized to explain concepts and solve problems. This AP course is APB Physics which is algebra/trig based; the APC Physics course is calculus based.

What should you expect to get from this class?

First, an appreciation of the world and universe in which you live. Physics will forever change the way you view your world!

Secondly, an understanding that God truly is an awesome Creator and has designed our universe such that His nature is revealed in all the things we study.
 
Thirdly, you will significantly develop your problem solving skills. We follow a rigorous in depth mathematical approach to problem solving.

AP physics is  a college level course. Our text is the same book currently used by Xavier University and U.C. for algebra/trig based general physics classes. The course pace is rapid and requires a significant investment of time outside of the classroom. However, the course is extremely rewarding for those who are willing to put forth the effort.

Lastly, you are strongly encouraged to take the APB Physics exam at the end of the school year. To help you properly prepare, I highly recommend the purchase of The Princeton Review AP Physics Guide. We will use the Princeton Review Guide, the Joseph Boyle's Study Guide, and Giancoli Physics (6th edition) as our basis of preparation for the exam.

Welcome to AP Physics!

 

AP 1st Quarter Syllabus Student Objectives

 

Chapter 1, pg.1
Introduction
  • Brief history of physics
  • Scientific method
  • Mini Lab: Scientific Method
  • Measurement and uncertainty
  • Units, standards and the SI system
  • Converting units
  • Mathematics in physics: App. A

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 1
On-line Textbook - CHAPTER 1
Homework - PROBLEM SET
 
Chapter 1 Objectives
You should be able to...
  1. Define physics

  2. Identify the historic people (the ones covered in class) involved in developing the very first ideas concerning our world and universe

  3. Demonstrate an understanding of the scientific method

  4. List each of the SI units of measurement

  5. Use the common metric prefixes from Table 1-4 from memory (from giga to femto)

  6. Perform arithmetic operations using scientific notation

  7. Distinguish between precision and accuracy

  8. Perform arithmetic operations using significant figures

  9. Graph relationships between dependent and independent variables

  10. Recognize linear, quadratic, and inverse relationships and interpret slopes of curves

  11. NOTE: You must be comfortable with all the mathematical relationships listed in appendix A

 

 

Chapter 2, pg.19
Motion: Kinematics in 1 Dimension
  • Reference frames and displacement
  • Average velocity
  • Instantaneous velocity
  • Acceleration
  • Motion at constant acceleration
  • Solving problems
  • COMPREHENSIVE MOTION LAB
  • Falling objects
  • Mini Lab: Calculating human reaction time
  • Graphical analysis of linear motion
  • Mini Lab: Graphic interpretation of motion

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 2
On-line Textbook- CHAPTER 2
Homework - PROBLEM SET

 

 
Chapter 2 Objectives
You should be able to...
  1. Define (and be able to explain the differences between) speed, velocity, and acceleration

  2. Interpret motion (both constant velocity and acceleration) from particle model diagrams

  3. Create and interpret graphic representations of motion and relate the data to the motion of objects

  4. Write equations that describe the motion of a system

  5. Calculate the average and instantaneous velocity of an object

  6. Calculate the displacement or velocity of an object undergoing constant acceleration

  7. Determine the acceleration due to gravity of an object

  8. Calculate the instantaneous and average velocity of an object accelerating due to gravity

  9. Solve complex motion problems

COMPREHENSIVE MOTION LAB:
Lab Details
You must be able to
  1. Measure the motion of an object moving with constant velocity

  2. Measure the motion of an accelerating object

  3. Prove Galileo's prediction that distance is proportional to time squared for accelerating objects

 

 

TEST Chapter 1-2

Practice Test Questions Chapter 2

 

 
Material covered: chapters 1, 2, motion lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 3, pg.45
Kinematics in 2 Dimensions; Vectors 
  • Vectors and scalars
  • Addition of vectors
  • Subtraction of vectors
  • Adding vectors by components
  • Projectile motion
  • Mini Lab: Projectile motion

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 3
On-line Textbook - CHAPTER 3
Homework - PROBLEM SET

 

 
Chapter 3 Objectives
You should be able to...
  1. Recognize vector quantities

  2. Determine graphically the sum of two or more vectors

  3. Solve motion or displacement problems using vectors

  4. Subtract two vectors

  5. Calculate the x and y component of a vector

  6. Find the resultant vector using the x and y components of a vector

  7. Calculate the max height, initial vertical velocity, initial horizontal velocity and range of a projectile

  8. Solve complex projectile motion problems

  9. Describe relative motion

 

 

TEST Chapter 3

Practice Test Questions Chapter 3

 

 
Material covered: chapter 3

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 4, pg.72
Motion and Force: Dynamics    
  • Force
  • Newton's 1st law of motion
  • Mass
  • Newton's 2nd law of motion
  • Newton's 3rd law of motion
  • Weight and the normal force
  • Solving problems: vectors
  • Atwood machines
  • Friction
  • COEFFICIENT OF FRICTION LAB

 

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 4
On-line Textbook - CHAPTER 4
Homework - PROBLEM SET
 
Chapter 4 Objectives
You should be able to...
  1. Explain the law of inertia

  2. Draw free body diagrams accounting for all forces acting on an object including any net force

  3. Determine the force that produces equilibrium when multiple forces act on an object

  4. Analyze an object on an inclined plane with and without friction

  5. Solve for the acceleration of complex systems such as Atwood machines

 
COEFFICIENT OF FRICTION LAB:
You must be able to
  1. Set up an inclined plane apparatus to measure the friction of a sliding wood block

  2. Calculate the kinetic coefficient of friction of the wood block sliding down an inclined plane

  3. Calculate the kinetic coefficient of friction of the wood block sliding up an inclined plane; the upward motion is caused by a weight accelerated by gravity and tied to the block over a frictionless pulley

 

 

TEST Chapter 4

Practice Test Questions Chapter 4

 

 
Material covered: chapter 4 and friction lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 5, pg.106
Circular Motion and Gravitation
  • Kinematics and uniform circular motion
  • Dynamics of uniform circular motion
  • A car rounding a curve
  • Newton's law of universal gravitation
  • Gravity near the Earth's surface
  • Einstein's theory of gravity
  • CENTRIPETAL FORCE LAB
  • Ocean tides
  • Satellites and weightlessness
  • Kepler's Laws
  • Types of forces in nature: Grand Unification Theories

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 5
On-line Textbook - CHAPTER 5
Homework - PROBLEM SET
 
Chapter 5 Objectives
You should be able to...
  1. Calculate centripetal acceleration and force

  2. Solve complex circular motion problems

  3. State Newton's general law of gravitation and apply the law to problem solving

  4. Describe the Cavendish experiment and its significance/purpose

  5. Calculate the velocity of objects in orbit

  6. Calculate orbital radii given orbital velocities

  7. Define "gravitational field"

  8. Compare and contrast Einstein's theory of gravity with Newton's general law of gravity

  9. Define Kepler's Law and be able to calculate the periods of orbiting objects

  10. Describe the 4 types of forces

CENTRIPETAL FORCE LAB:
You must be able to
  1. Calculate the centripetal acceleration of a rubber stopper in circular motion

  2. Calculate the centripetal force of a rubber stopper in circular motion

  3. Vary the parameters that effect the centripetal force of an object moving in unified circular motion and calculate the impact of the change

 

 

 

TEST Chapter 5

Practice Test Questions Chapter 5

 

 
Material covered: chapter 5, centripetal force lab and Kepler's lab

Format: 6 free response problems

 

 

Chapter 6, pg.136
Work and Energy
  • Work done by a constant force
  • Work done by a varying force
  • Kinetic energy - the work-energy principle
  • Potential energy
  • Conservative and non-conservative forces
  • Mechanical energy and its conservation
  • Problem solving
  • Other forms of energy
  • Energy conservation with dissipative forces
  • Power

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 6
On-line Textbook - CHAPTER 6
Homework - PROBLEM SET

 

 

 
Chapter 6 Objectives
You should be able to...
  1. Create models to relate work and energy

  2. Calculate the kinetic energy of a moving object

  3. Calculate gravitational potential energy of a system

  4. Relate conservation of energy to spring systems

  5. Calculate elastic potential energy

  6. Explain conservation of energy with dissipative forces

  7. Calculate power

 

CONSERVATION OF ENERGY LAB:
You must be able to
  1. Design an experiment using the conservation of energy law.

 

TEST Chapter 6

Practice Test Questions Chapter 6

 

 
Material covered: chapter 6

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

1st QUARTER PROJECT

 

 

ROCKET PROJECT

Your rocket will first be checked for proper aerodynamic construction.  Rockets will be launched individually and judged on flight performance. You will then be given a group problem (entire class works as a team) related to rocket flight; the problem must be solved in a pre-designated amount of time (typically 20-30 minutes dependant on the degree of difficulty). Finally, time permitting, power points will be presented. Consult the rocket project page for complete details.

AP 2nd Quarter Syllabus

Student Objectives

 

Chapter 7, pg.167
Linear Momentum
  • Momentum and its relation to force
  • Conservation and momentum
  • Collisions and impulse
  • Elastic collisions in 1 dimension
  • Inelastic collisions
  • CONSERVATION OF MOMENTUM LAB
  • Collisions in 2 dimensions

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 7
On-line Textbook - CHAPTER 7
Homework - PROBLEM SET

 

 
Chapter 7 Objectives
You should be able to...
  1. Define momentum and impulse

  2. Apply the laws of conservation of momentum to solve collision problems in 1 or more dimensions

  3. Differentiate between elastic, inelastic and explosive collisions

  4. Demonstrate and calculate the conservation or non-conservation of kinetic energy in various types of collisions

CONSERVATION OF MOMENTUM LAB:
You must be able to
  1. Use the CBL Sonic Ranger to determine momentum using two lab carts moving in opposing directions (i.e. explosion)

  2. Apply the conservation of momentum principle to a system

  3. Demonstrate conservation of momentum for an "explosive interaction" (i.e. pi system = 0)

 

 

 

TEST Chapter 7

Practice Test Questions Chapter 7

 

 
Material covered: chapter 7 and momentum lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 
Chapter 8, pg.194
Rotational Motion
  • Angular quantities and motion
  • Torque
  • TORQUE LAB
  • Rotational inertia
  • Angular momentum and its conservation
  • Mini Lab: Angular Momentum Conservation

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 8
On-line Textbook - CHAPTER 8
Homework - PROBLEM SET
 
Chapter 8 Objectives
You should be able to...
  1. Explain angular velocity and acceleration

  2. Define and calculate torque

  3. Explain rotational inertia

  4. Explain angular momentum for a rotating system

TORQUE LAB:
You must be able to
  1. Set up an apparatus to measure clockwise and counterclockwise torque

  2. Calculate clockwise and counterclockwise torque on a rotating body

  3. Determine the relationship between torque and lever-arm distance

 

 

 

TEST Chapter 8

Practice Test Questions Chapter 8

 

 
Material covered: chapter 8 and torque lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 9, pg.226
Statics, Solids, Elasticity, Fracture
  • Statics
  • Forces in equilibrium
  • Stability and balance

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 9
On-line Textbook - CHAPTER 9
Homework - PROBLEM SET

 

 
Chapter 9 Objectives
You should be able to...
  1. Resolve problems incorporating 3 or more forces in equilibrium

  2. Resolve problems incorporating forces and torques in equilibrium

 

TEST Chapter 9

Practice Test Questions Chapter 9

 

 
Material covered: chapter 9

Format: 2 free response problems

 

Chapter 10, pg.255
Fluids
  • Fluids at rest
  • Mini Lab: Archimedes Principle
  • Fluids in motion

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 10
On-line Textbook - CHAPTER 10
Homework - PROBLEM SET

 

 
Chapter 10 Objectives
You should be able to...
  1. Define and calculate the density of substances

  2. Define and calculate buoyancy

  3. State Archimedes' Principle

  4. Calculate the apparent weight of a submerged object

  5. Solve complex buoyancy problems

  6. Define and calculate pressure

  7. State Pascal's Principle and use it to solve problems

  8. Use the continuity equation to solve fluid flow problems

  9. Use Bernoulli's equation to solve problems

 

 

 

TEST Chapter 10

Practice Test Questions Chapt 10

 

 
Material covered: chapter 10

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 11, pg.286
Vibration and Waves
  • Simple harmonic motion
  • Pendulums
  • Resonance
  • Wave properties and motion
  • Mini Lab: Waves in Springs
  • Energy transported by waves
  • BEHAVIOR OF WAVES LAB

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 11
On-line Textbook - CHAPTER 11
Homework - PROBLEM SET
 
Chapter 11 Objectives
You should be able to...
  1. Define simple harmonic motion and identify simple harmonic oscillators

  2. Relate SHM and waves

  3. Apply Hooke's Law to SHM of springs

  4. Calculate the period of a simple pendulum

  5. Explain damped harmonic motion and cite practical examples

  6. Calculate the PE and KE of oscillators

  7. Define wave motion and list properties of waves

  8. List and describe the types of waves

  9. Calculate the velocity, frequency and length of waves

  10. Calculate the energy transported by waves

  11. Explain constructive and destructive interference

  12. Define resonance (standing wave patterns)

  13. Identify and describe wave behavior at boundaries (reflection and refraction)

BEHAVIOR OF WAVES LAB
You must be able to
  1. Identify reflection, refraction, diffraction and interference of water waves in a ripple tank

  2. Draw representations of each behavior listed above

 

 

 

TEST Chapter 11

Practice Test Questions Chapt 11

 

 
Material covered: chapter 11 and wave lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

Chapter 12, pg.322
Sound
  • Characteristics of sound
  • Intensity of sound
  • Sound on strings
  • Sound in open and closed pipes
  • SPEED OF SOUND LAB
  • Doppler effect
  • Sonic boom shock waves
  • Physics of music

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 12
On-line Textbook - CHAPTER 12
Homework - PROBLEM SET
 
Chapter 12 Objectives
You should be able to...
  1. Describe the characteristics of sound

  2. Relate the speed of sound in air to the temperature of the air

  3. Calculate sound levels in decibels

  4. Calculate sound intensities in watts/m2

  5. Understand how the human ear responds to sound

  6. Calculate sound velocities, frequencies and wavelengths of vibrating strings, open pipes (open resonating tubes) and closed pipes (closed resonating tubes)

  7. Explain beats and the source of beats

  8. Calculate the Doppler effect for various applications

  9. Explain shock waves and sonic booms

  10. Explain how ultrasound techniques are used to map human tissue

SPEED OF SOUND LAB
Lab Details
You must be able to
  1. Measure the fundamental harmonic of an open tube resonator and relate it to the velocity of sound in air

  2. Create a procedure to measure the fundamental harmonic of a closed tube resonator and relate it to the velocity of sound in air

  3. Measure the fundamental harmonic of a closed tube resonator and relate it to the velocity of sound in air

 

 

TEST Chapter 12

Practice Test Questions Chapt 12

 

 
Material covered: chapter 12 and sound lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

2nd QUARTER PROJECT

 

 

BRIDGE PROJECT

Your bridge will first be checked for size and weight limitations. Then your drawing will be compared to your model (both design and model must agree). Finally, your bridge is tested for structural strength using a series of weights. Consult the bridge project page for complete details.

 

 

1st SEMESTER EXAM

 

 
Material covered: all 1st semester chapters and labs

Format:  30 multiple choice question section, 45 minutes (no calculator allowed, page 2 only of AP test formula handout will be supplied, click here for pdf copy) and 3 free response problems with multiple sections, 45 minutes (calculator is allowed and pages 2 thru 4 of AP formula sheet handout will be supplied, click here for pdf copy).

 

AP 3rd Quarter Syllabus Student Objectives

 

Chapter 13, pg.352
Temperature / Kinetic Theory
  • Temperature and heat
  • Thermal expansion
  • Thermal stress
  • Water behavior below 4°C
  • Ideal gas law
  • Kinetic molecular theory

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 13
On-line Textbook - CHAPTER 13
Homework - PROBLEM SET

 

 
Chapter 13 Objectives
You should be able to...
  1. Explain the atomic basis for matter

  2. Define temperature and thermal equilibrium

  3. Convert temperatures using Fahrenheit, Celsius and Kelvin values

  4. Calculate the thermal expansion of solids and liquids

  5. Describe the behavior of water below 4°C

  6. Explain thermal stress citing examples

  7. Solve problems using the ideal gas law

  8. Describe kinetic molecular theory

  9. Calculate the average translational kinetic energy of molecules

 

 

Chapter 14, pg.384
Heat
  • Heat and energy transfer
  • Internal energy of ideal gases
  • Specific heat
  • Calorimetry
  • SPECIFIC HEAT LAB
  • Latent heat
  • Heat transfer

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 14
On-line Textbook - CHAPTER 14
Homework - PROBLEM SET

 

 
Chapter 14 Objectives
You should be able to...

 

  1. Define temperature and define heat

  2. Define and explain internal energy

  3. Convert temperatures using Fahrenheit, Celsius and Kelvin values

  4. Compare and contrast heat transfer by conduction, convection and radiation

  5. Use calorimetry to solve specific heat problems

  6. Relate latent heat and phase changes

 
SPECIFIC HEAT LAB
You must be able to
  1. Measure heat exchange using a simple calorimeter

  2. Use a digital thermometer

  3. Calculate the specific heat of 2 metals

  4. State and explain your sources of error

 

 

TEST Chapter 13 and 14

Practice Test Questions Chapt 13

Practice Test Questions Chapt 14

 

 
Material covered: chapter 13 and 14 and heat lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 
Chapter 15, pg.408
Thermodynamics
  • 3 laws of thermodynamics
  • Adiabatic, isobaric, isochoric and isothermal processes
  • Heat engines and efficiency
  • The Carnot cycle
  • Refrigerators, heat pumps and air conditioners
  • Entropy
  • Heat death
  • Thermal pollution
  • Processes to generate electrical energy

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 15
On-line Textbook - CHAPTER 15
Homework - PROBLEM SET

 

 
Chapter 15 Objectives
You should be able to...

 

  1. State the 1st law of thermodynamics and apply it to simple systems

  2. Define adiabatic, isobaric, isochoric, and isothermal processes

  3. Interpret P-V diagrams

  4. State the 2nd law of thermodynamics

  5. Calculate the efficiency of a heat engine

  6. Compare and contrast reversible and irreversible cyclical processes

  7. Explain the Carnot cycle

  8. Explain how a refrigerator, heat pump, and air conditioner operates

  9. Calculate the coefficient of performance  for refrigerators, heat pumps, and air conditioners

  10. Define and calculate the entropy of a system

  11. Define heat death

  12. Relate thermal pollution and the greenhouse effect

  13. List the various processes utilized to generate electrical energy

 

 

 

TEST Chapter 15

Practice Test Questions Chapt 15

 

 

Material covered: chapter 15

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

Chapter 16, pg.439
Electric Charge and E Fields
  • Static electricity
  • Insulators and conductors
  • The electroscope
  • STATIC ELECTRICITY LAB
  • Coulomb's law
  • The electric field
  • Field lines

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 16
On-line Textbook - CHAPTER 16
Homework - PROBLEM SET

 

 
Chapter 16 Objectives
You should be able to...
  1. List the properties of electric charge

  2. Compare and contrast insulators and conductors

  3. Describe how an electroscope operates

  4. Infer the type of charge on materials

  5. Explain the process of charging by conduction and induction

  6. Solve problems using Coulomb's Law

  7. Define electric field

  8. Determine the magnitude and direction of electric fields

  9. Draw and interpret electric field lines

 
STATIC ELECTRICITY LAB
You must be able to
  1. Demonstrate that static charge can be separated

  2. Demonstrate that opposite charges attract and like charges repel

  3. Infer the type of charge on materials

  4. Determine the charge on an object charged by conduction and induction

 

 

TEST Chapter 16

Practice Test Questions Chapt 16

 

 

Material covered: chapter 16 and static electricity lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 17, pg.470
Electrical Potential and Energy
  • Potential difference
  • Mini Lab: Mechanical Work/Elec. Energy
  • Electrical potential and the electric field
  • The electron volt
  • Electrical potential due to point charges
  • Capacitance / storing charge

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 17
On-line Textbook - CHAPTER 17
Homework - PROBLEM SET

 

 
Chapter 17 Objectives
You should be able to...
  1. Define electrical potential and potential difference

  2. Relate work done by an electric field to charge and voltage

  3. Draw and interpret equipotential lines

  4. Convert joules to electron volts

  5. Calculate electric potential due to point charges

  6. Calculate capacitance in parallel plate capacitors

  7. Describe the properties of dielectrics

  8. Calculate the storage of electrical energy

 

 

Chapter 18, pg.493
Electric Current
  • The electric battery
  • Electric current
  • Ohm's law
  • Mini Lab: Ohm's Law
  • Resistivity
  • Power
  • Alternating current
  • Power in household circuits
  • Calculating peak and RMS values of alternating current and voltage
  • Microscopic view of electric current

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 18
On-line Textbook - CHAPTER 18
Homework - PROBLEM SET

 

 
Chapter 18 Objectives
You should be able to...
  1. Identify types of batteries

  2. Define electric current

  3. Use Ohm's Law to solve problems

  4. Identify resistor values using the printed color bands

  5. Calculate resistivity

  6. Define electric power

  7. Relate power to common household circuits

  8. Define alternating current

  9. Calculate peak current and voltage, RMS current and voltage and average power

  10. Interpret current vs. time graphs for both DC and AC applications

  11. Explain how (and how fast) electrons "flow" in conductors

  12. Explain how (and how fast) the electric field "flows" in conductors

 

 

TEST Chapter 17 and 18

Practice Test Questions Chapt 17

Practice Test Questions Chapt 18

 

 

Material covered: chapter 17 and 18

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 19, pg.520
DC Circuits
  • Resistors in series and parallel
  • Equivalent resistance of circuits
  • ELECTRICAL CIRCUITS LAB
  • EMF and terminal voltage
  • Kirchhoff's rules and applications
  • Capacitors in circuits

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 19
On-line Textbook - CHAPTER 19
Homework - PROBLEM SET
 
Chapter 19 Objectives
You should be able to...
  1. Interpret and draw series circuits

  2. Interpret and draw parallel circuits

  3. Interpret and draw complex circuits

  4. Calculate equivalent resistance for all types of circuits

  5. Define and calculate EMF and terminal voltage

  6. Apply Kirchhoff's Rules to solve complex circuits

  7. Interpret and draw circuits with capacitors

  8. Explain the cause of electrical hazards

  9. Explain the design of ammeters and voltmeters and their proper usage in circuits

ELECTRICAL CIRCUITS LAB
You must be able to
  1. Create a series circuit and calculate the total equivalent resistance, total circuit current and the voltage drop across each resistor in the circuit

  2. Create a parallel circuit and calculate the total equivalent resistance, circuit voltage, total circuit current and current through each circuit branch circuit

 

 

TEST Chapter 19

Practice Test Questions Chapt 19

 

 

Material covered: chapter 19 and the electric circuits lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 20, pg.554
Magnetism
  • Magnets and magnetic fields
  • MAGNETISM LAB
  • Force on electric current in a B field
  • Force on an electric charge moving in a B field
  • The aurora borealis
  • Force between two parallel wires
  • Magnetic domains and ferromagnetism

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 20
On-line Textbook - CHAPTER 20
Homework - PROBLEM SET
 
Chapter 20 Objectives
You should be able to...
  1. List the properties of magnets

  2. Draw magnetic fields

  3. Determine the direction of the magnetic field around a current carrying wire

  4. Calculate the force (magnitude and direction) on an electric current in a magnetic field

  5. Determine the force (magnitude and direction) on a moving charge in a magnetic field

  6. Describe what causes the aurora borealis

  7. Calculate the force between two current carrying parallel wires

  8. Relate magnetic domains and ferromagnetism

 
MAGNETISM LAB
You must be able to
  1. Determine the polarity of a magnet

  2. Determine the magnetic fields around a magnet

  3. Determine the polarity of induced magnets

 

 

TEST Chapter 20

Practice Test Questions Chapt 20

 

 

Material covered: chapter 20 and the magnetism lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 21, pg.584
Electromagnetic Induction
  • Induced EMF
  • Changing magnetic flux produces an electric field
  • EMI LAB
  • Electric motors and generators
  • AC Transformers
  • Transmission of electrical power

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 21
On-line Textbook - CHAPTER 21
Homework - PROBLEM SET

 

 
Chapter 21 Objectives
You should be able to...
  1. Define EMF and show that induced EMF is produced by magnetic flux

  2. Explain Faraday's Law and solve induction problems

  3. Explain Lenz's Law and determine which direction current is induced for a moving coil in a B field

  4. Calculate EMF induced in a moving conductor

  5. Describe electric generators and explain how they produce electricity

  6. Describe electric motors and explain how they use electricity to produce mechanical work

  7. Describe electric AC transformers and explain how they are used to step up or step down voltage

  8. Prove that transmission of power is more cost effective at high voltages (EX:20,000V vs. 240V)

ELECTROMAGNETIC INDUCTION LAB
You must be able to
  1. Demonstrate the generation of electric current from magnetic flux

  2. Relate magnetic field strength and current strength

  3. Relate magnetic field polarity and electric current direction

  4. Compare electric fields generated static charges to those generated by magnetic induction

 

 

TEST Chapter 21

Practice Test Questions Chapt 21

 

 

Material covered: chapter21 and the EMI lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 22, pg.615
Electromagnetic Waves
  • Maxwell's equations
  • Light as electromagnetic radiation
  • The speed of electromagnetic waves
  • Radio, TV, and cable applications
  • AM and FM

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 22
On-line Textbook - CHAPTER 22
Homework - PROBLEM SET

 

 
Chapter 22 Objectives
You should be able to...
  1. State the significance of the 4 Maxwell equations individually

  2. Describe how electromagnetic waves are produced

  3. Calculate the speed of electromagnetic waves

  4. Describe the electromagnetic spectrum

  5. Define AM and FM as a wave transmission and receiving process

 

 

TEST Chapter 22

Practice Test Questions Chapt 22

 

 

Material covered: chapter 22

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

3rd QUARTER PROJECT

 

 

MOUSE-TRAP CARS PROJECT

You will design and build a car powered only by the spring energy in a standard mouse-trap. Your car will be judged on quality of workmanship and performance. You will also answer a series of questions pertaining to the physics involved in the project. SEE PROJECT PAGE.

 

AP 4th Quarter Syllabus

Student Objectives

Chapter 23, pg.632
Light / Mirrors and Lenses
  • Ray models of light
  • Plane and spherical mirrors
  • Defects in mirrors
  • Refraction and Snell's law
  • SNELL'S LAW LAB
  • Critical angles/fiber optics
  • Spherical lenses
  • Defects in lenses
  • LENSES LAB
  • Calculating corrective lens prescriptions

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 23
On-line Textbook - CHAPTER 23
Homework - PROBLEM SET
 
Chapter 23 Objectives
You should be able to...
  1. Describe the ray model of light

  2. Explain and prove the law of reflection using light rays

  3. Explain how diffuse and specular surfaces effect reflection angles

  4. Locate the image for a concave mirror using the ray model (5 cases); calculate hi, di, and f given do and ho

  5. Locate the image for a convex mirror using the ray model (1 case); calculate hi, di, and f given do and ho

  6. Locate the image for a convex lens using the ray model (5 cases); calculate hi, di, and f given do and ho

  7. Locate the image for a concave lens using the ray model (1 case); calculate hi, di, and f given do and ho

  8. Explain index of refraction and use Snell's Law to calculate values

  9. Calculate critical angles and relate the critical angle to fiber optic applications

SNELL'S LAW LAB
You must be able to
  1. Measure the angles of incidence and refraction of light passing through crown glass

  2. Calculate the index of refraction for crown glass

LENSES LAB
You must be able to
  1. Locate the image for a convex lens (5 cases); calculate hi, di, C and f given do and ho. Identify the image as virtual or real

  2. Locate the image for a concave lens (1 case); calculate hi, di, C and f given do and ho. Identify the image as virtual or real

 

 

TEST Chapter 23

Practice Test Questions Chapt 23

 

 

Material covered: chapter23 and the mirrors and the lenses lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 24, pg.664
Wave Nature of Light
  • Huygens' principle
  • Interference - Young's double slit experiment
  • INTERFERENCE LAB
  • The visible spectrum
  • Colors by addition: primary and secondary
  • Colors by subtraction: primary and secondary
  • The printing industry and the printing process
  • Mini Lab: Color and Printing
  • Single slit diffraction
  • Thin film interference
  • Polarization
  • Mini Lab: Polarization
  • Dispersion of light

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 24
On-line Textbook - CHAPTER 24
Homework - PROBLEM SET

 

 
Chapter 24 Objectives
You should be able to...
  1. State and illustrate Huygens' Principle

  2. Explain Young's double slit experiment

  3. Calculate line spacing for double slit interference

  4. Explain dispersion of light

  5. Calculate line spacing for single slit diffraction

  6. Explain and calculate interference by thin films

  7. Calculate the polarization of light angle and light transmission intensity for light passing through a polarizing filter

  8. Explain why the sky is blue, sunsets are red and clouds are white

  9. List the 3 primary and the 3 secondary colors for the additive process

  10. List the 3 primary and the 3 secondary colors for the additive process

  11. Explain how printed materials are produced (3, 4, and 5 color processes)

DOUBLE-SLIT INTERFERENCE LAB
You must be able to
  1. Measure the distances between interference lines accurately.

  2. Calculate the wavelength of colored light.

  3. Predict the locations of first-order lines for various colors of light.

 

 

TEST Chapter 24

Practice Test Questions Chapt 24

 

 

Material covered: chapter 24 and the interference lab

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 27, pg.754
Quantum Theory
  • Plank's hypothesis
  • The photoelectric effect
  • Photon theory
  • Wave-particle duality
  • Early models of the atom
  • Bohr model of hydrogen
  • ATOMIC SPECTRA LAB

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 27
On-line Textbook - CHAPTER 27
Homework - PROBLEM SET

 

 
Chapter 27 Objectives
You should be able to...
  1. Explain how the electron was discovered

  2. Define quanta and give examples

  3. Explain the Planck quantum hypothesis

  4. Calculate the energy of a photon given the wavelength or frequency of light

  5. Explain how the Photoelectric effect furthered Planck's concept

  6. Calculate the work function and/or the maximum kinetic energy of an electron ejected from an atom by a photon.

  7. Explain what is meant by wave-particle duality

  8. Show how the Compton effect confirms the idea of the Photoelectric effect

  9. Relate atomic spectra to the structure of the atom

  10. Explain what is meant by the wave nature of matter

  11. Calculate the wavelength of matter using the de Broglie equation

  12. Demonstrate quantitatively how the Bohr model explains the hydrogen spectra

  13. Calculate Bohr radius and the Bohr energies of the electron in the hydrogen atom for any quantum level "n"

 
ATOMIC SPECTRA LAB
You must be able to
  1. Use a spectroscope to analyze a bright line spectrum

  2. Compare the intensity of spectral lines for different elements

  3. Recognize an element from its emission spectrum

  4. Explain the origin of each colored line visible for hydrogen

 

 

Chapter 28, pg.786
Quantum Mechanics
  • The wave function Ψ
  • The probability function Ψ2
  • Heisenberg uncertainty
  • Quantum numbers
  • The exclusion principle
  • Electron configurations

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 28
On-line Textbook - CHAPTER 28
Homework - PROBLEM SET

 

 
Chapter 28 Objectives
You should be able to...
  1. Explain the meaning of Schrödinger wave function

  2. Give the interpretation of Ψ

  3. Give the interpretation of Ψ2

  4. Explain what the mathematical statement of the Heisenberg uncertainty principle tells us.

  5. Calculate the uncertainty of position of an electron

  6. Describe the principle, orbital, magnetic, and spin quantum states and their corresponding numbers (allowed values)

  7. Calculate quantum numbers for elements

  8. Calculate the energy and orbital angular momentum for given quantum states states

 

 

TEST Chapter 27-28

Practice Test Questions Chapt 27

Practice Test Questions Chapt 28

 

 

Material covered: chapter 28

Format:  multiple choice section (no calculator or formula sheet allowed) and free response problems (AP formula sheet and calculator allowed)

 

 

Chapter 30, pg.835
Nuclear Physics, Radioactivity
  • The structure of the nucleus
  • Binding energy and nuclear force
  • Radioactivity
  • Alpha decay
  • Beta decay
  • Gamma decay
  • RADIOACTIVITY LAB
  • Half-life calculations
  • The decay series

 

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 30
On-line Textbook - CHAPTER 30
Homework - PROBLEM SET

 

 
Chapter 30 Objectives
You should be able to...
  1. Explain the structure and state the properties of the nucleus

  2. Calculate binding energy

  3. Define radioactivity

  4. Write a balanced nuclear equation for alpha decay, balancing mass, charge, and angular momentum

  5. Write a balanced nuclear equation for beta decay, balancing mass, charge, and angular momentum

  6. Describe gamma decay

  7. Calculate the half-life and decay rates for radioactive samples

  8. Explain the decay series

 

RADIOACTIVITY LAB
You must be able to
  1. Measure radioactivity level using a Geiger counter

  2. Analyze the relationship between radiation intensity and distance

  3. Infer the inverse-square law for radiation intensity

  4. Demonstrate the ability of different types of radiation to penetrate materials

  5. Infer the relative shielding effectiveness of various materials

 

 

TEST Chapter 30

Practice Test Questions Chapt 30

 

 

Material covered: chapter 30 and the radioactivity lab

Format:  multiple choice section (no calculator allowed) and free response problems (AP formula sheet and calculator allowed)

 
 

AP EXAM

 

 
Chapter 26, pg.726
Special Relativity
  • The Einstein equations
  • Postulates of special relativity
  • Simultaneity
  • Time dilation
  • Twin paradox
  • Length contraction
  • 4-D Space-time
  • Momentum and mass
  • Mass and energy

 

CHAPTER LINKS:

Mr. P's outline - CHAPTER 26
On-line Textbook - CHAPTER 26
Homework - PROBLEM SET

 

 
Chapter 26 Objectives
You should be able to...
  1. State the principle of relativity and compare-contrast to classical theory

  2. State the postulates of special relativity

  3. Explain why all motion is relative

  4. Calculate relativistic time for an object traveling at near speed of light velocities

  5. Calculate relativistic length for an object traveling at near speed of light velocities

  6. Calculate relativistic mass for an object traveling at near speed of light velocities

  7. Calculate the energy released by mass converted to electromagnetic radiation

  8. Explain what is meant by 4 dimensional space-time

 

Chapter 32, pg.889
 
  • String Theory

 

 
Chapter 32 Objectives
You should be able to...
  1. Explain how string theory fits into the GUT's and why unifying theories are pursued by physicists

  2. Describe a "brane"

  3. Explain how vibrations in strings relate to simple particles

  4. Defend why string theory belongs either in a modern physics class or in a philosophy class

  5. Explain why there are 11 physical dimensions in string theory i.e. specifically, explain why string theory needs more than the standard four dimensions (x, y, z, time)

 

 

FINAL EXAM

 

 

Material covered: all chapters and labs with emphasis on 2nd semester topics.

Format:  25-30 multiple choice question section, 45 minutes (no calculator allowed, page 2 only of AP test formula handout will be supplied, click here for pdf copy) and 4-5 free response problems, 45 minutes (calculator is allowed and pages 2 thru 4 of AP formula sheet handout will be supplied, click here for pdf copy).

 

End of School Year

Copyright © Mr. Peppercorn 2011-2012