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Physics of Everyday Life - Madison Area Technical College

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<strong>Physics</strong> <strong>of</strong> <strong>Everyday</strong> <strong>Life</strong><br />

Course Outcome Summary<br />

Course Information<br />

Organization<br />

<strong>Madison</strong> <strong>Area</strong> <strong>Technical</strong> <strong>College</strong><br />

Developers<br />

William Caplan<br />

Development Date 6/15/2011<br />

Course Number 20806220<br />

Instructional Level <strong>College</strong> Transfer<br />

Total Credits 3<br />

Description<br />

Have you ever looked at something and said to yourself "I wonder how that works?" If so, this is the course for<br />

you. The <strong>Physics</strong> <strong>of</strong> <strong>Everyday</strong> <strong>Life</strong> will explore basic principles <strong>of</strong> physics including classical mechanics, fluids,<br />

heat, resonance, waves, light and electricity and magnetism through the lens <strong>of</strong> everyday objects. We will gain<br />

insight through studying objects such as bumper cars, roller coasters, light bulbs, musical instruments and<br />

microwave ovens.<br />

Target Population<br />

For non science major college transfer<br />

Types <strong>of</strong> Instruction<br />

Instruction Type Contact Hours Credits<br />

Face to face 3<br />

Textbooks<br />

Louis A. Bloomfield. How Things Work: The <strong>Physics</strong> <strong>of</strong> <strong>Everyday</strong> <strong>Life</strong>. Wiley. January 9, 2009. Edition: 4th<br />

edition. Pages: 632. ISBN: 978-0470223994 .<br />

Learner Supplies<br />

Caculator.<br />

Prerequisites<br />

Basic Algebra, 74854793 or Elem Algebra w/Apps , 10804110 or Elem Algebra w/Apps10834110 or Algebra<br />

Concepts 10804140 with a grade <strong>of</strong> C or score <strong>of</strong> 40+ on the algebra component <strong>of</strong> COMPASS.<br />

Competencies<br />

1. Explore basics principles <strong>of</strong> physics from fields such as classical mechanics, thermal<br />

physics, fluid statics and dynamics, oscillation, resonance and waves, electricity and<br />

magnetism, light, and modern physics<br />

You will demonstrate your competence by:<br />

o completing homework assignments<br />

o completing a written exam<br />

o participating in guided small group discussions<br />

o answering iClicker questions in class<br />

Your performance will be successful when you:<br />

o describe the basic principles in everyday English


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o use a vocabulary <strong>of</strong> physics terms and concepts in answering questions in classroom discussion<br />

and written assignments<br />

o distinguish between everyday English language usage and scientific usage <strong>of</strong> terms. Example:<br />

The word work has several meanings in English: getting something done, drudgery, employment,<br />

etc. In physics it refers to energy transfer involving forces and motion.<br />

o identify relationships between physics concepts. Example: Kinetic energy is energy <strong>of</strong> motion. It<br />

depends on how fast something moves and how massive it is<br />

o identify the units associated with physics concepts<br />

o give an example <strong>of</strong> an everyday object or process which uses the physics concept<br />

2. Apply physics concepts to everyday situations to solve problems<br />

You will demonstrate your competence by:<br />

o completing homework assignments<br />

o completing a written exam<br />

o participating in classroom discussion<br />

o answering iClicker questions in class<br />

o writing a journal regarding applications <strong>of</strong> course material<br />

o contributing to a wiki applying course material<br />

Your performance will be successful when you:<br />

o analyze everyday problems and identify the physics principles present<br />

o explain the application <strong>of</strong> physics principles to a problem. Example: I'm trying to change a flat tire<br />

and one <strong>of</strong> the bolts is stuck. I need to increase the amount <strong>of</strong> torque provided to the bolt<br />

o explain the parameters involved with the problem, and how they can be adjusted to solve the<br />

problem. Example: Torque depends on force and distance from the center <strong>of</strong> rotation. In order to<br />

increase the torque I could push harder on the wrench. If I can t push hard enough, I could put I pipe<br />

over the end <strong>of</strong> the wrench, making the wrench longer, and push on the end <strong>of</strong> the pipe.<br />

o estimate relevant physical quantities in the problem<br />

o perform simple, rough calculations to solve problems<br />

3. Identify how common devices and processes work using applicable physics principles<br />

You will demonstrate your competence by:<br />

o completing homework assignments<br />

o completing a written exam<br />

o participating in classroom discussion<br />

o answering iClicker questions in class<br />

o writing a journal regarding applications <strong>of</strong> course material<br />

o contributing to a wiki applying course material<br />

Your performance will be successful when you:<br />

o analyze everyday devices and processes and identifies the physics principles present<br />

o explain how physics principles make the object or process work<br />

o explain the parameters involved with the object or process and how adjusting them affects<br />

performance. Example: A 100 watt incandescent light bulb purchased in <strong>Madison</strong> is designed to<br />

operate on U.S. standard 120 V electricity. If the same light bulb is used in Europe where electricity<br />

is provided at 220 V, it will either glow brighter (putting out more than 100 W) or blow out.<br />

o discuss thoroughly the objects presented in the text and lectures in terms <strong>of</strong> the relevant physics<br />

in exams, written assignments and classroom discussion<br />

4. Use appropriate physics formulae to solve simple physics problems<br />

You will demonstrate your competence by:<br />

o completing homework assignments<br />

o completing a written exam<br />

o participating in classroom discussion<br />

o answering iClicker questions in class


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Your performance will be successful when you:<br />

o identify relevant formulae related to the applicable physics principle<br />

o identify conditions or parameters given in a problem and relate them to terms in the formula<br />

o substitute given values into a formula and solve for the unknown<br />

o identify and use appropriate units in your solution<br />

5. Discuss the relationship between physics formulae and application to real world processes.<br />

You will demonstrate your competence by:<br />

o participating in classroom discussion<br />

o completing a written exam<br />

o answering iClicker questions in class<br />

o answering comparative or ranking questions<br />

Your performance will be successful when you:<br />

o describe in words the meaning <strong>of</strong> a physics formula. Example Newton s 2nd law ( a= F/m) means<br />

big forces create large accelerations, but that big masses are difficult to accelerate<br />

o approximate a formula based on an understanding <strong>of</strong> a process. Example: The rate <strong>of</strong> heat<br />

transfer through a wall <strong>of</strong> a house via conduction gets smaller as you make the wall thicker.<br />

Therefore rate=something/thickness<br />

o apply the formula qualitatively to explain how changing a parameter affects an outcome. Example:<br />

My car engine only puts out so much force. Therefore, if I fill my trunk with a load <strong>of</strong> bricks<br />

(increasing the mass) the acceleration will get worse

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