| Calculator Uses | Orbital Mechanics | Energy, Work, and Power | |
| Inverse Square Law | Research Paper Requirements | Paper Roller Coaster Construction | |
| Newton's Laws | Projectile Motion | Analyzing DC Circuits Using Kirchoff's Rules (AP-Physics) | |
| Lenz's Law Examples | |||
| The site is being redone. I'll update it as time goes on. | |||
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Newton's 2nd law background |
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Newton's 2nd law problem solving (with weight) |
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Part 1: Selecting a topic |
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Part 2: Time to write - how the paper is organized |
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Part 3: MLA format and how it affects what the paper looks like |
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Part 4:Citations in your work |
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Part 5: The importance of pictures and how they fit into your paper. |
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Part 6: This goes over how to write the annotated works cited page. This page is turned in before the paper. It is not part of the paper and does not take the place the "Works Cited" page in the paper. (5 Mb movie) |
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How the inverse square law works. |
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Describes how and when to use the basic two methods for solving orbital mechanics problems. The methods are (1) setting the force of gravity equal to the centripetal force and (2) applying Kepler's 3rd law or planetary motion. (4.20 Mb) |
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Basic Orbital Mechanics Example Problem #1 (2.50 Mb) |
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Basic Orbital Mechanics Example Problem #2 (2.72 Mb) |
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Basic Orbital Mechanics Example Problem #3 (2.55 Mb) |
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Basic Orbital Mechanics Example Problem #4 (3.30 Mb) |
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Basic Orbital Mechanics Example Problem #5 (3.72 Mb) |
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Prepping the problem. Before answering the questions, the variables need to be divided into horizontal and vertical pieces. |
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How to calculate the time or height to apogee |
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Identifying the signs on the numbers using relative direction. |
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Know how to use the data table. |
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How to find the time in the air. |
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How to find the impact velocity. |
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Introduction to solving with energy methods. Remember this is one more way to solve problems beside kinematics. |
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Part 2 of the introduction to solving with energy methods. |
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Introduction to the concept of work |
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How to find the work when the force and displacement are not parallel to each other. |
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Another example of using work when solving with energy methods. |
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Mechanical power explained. |
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Mechanical power example problem. |
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Mechanical power example problem continued. |
| Instructions on building the base of the sumo robot car. It is up to you to add to this. | ![]() |
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Step 1 Introduction and parts list |
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Step 2 Wheel sub assembly |
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Step 3 Attaching the wheels |
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Step 4 Attaching the motors |
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Step 5 Wiring the motors |
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Trouble shooting, testing the motors, and construction tips |
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The SumoCar controller and how it will work. |
| This site uses a video format called QuickTime by Apple. QuickTime runs on both Macs and Windows computers. The player/browser plugin is free and can be downloaded from www.apple.com/quicktime. You do not need to buy the "Professional" version. |
| by Tony Wayne ...(If you are a teacher, please feel free to use these resources in your teaching.) |