Unit V: Constant Force Particle Model

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Presentation transcript:

Unit V: Constant Force Particle Model Relationship between Acceleration, mass, and force

Unit V: Constant Force Particle Model Unit Learning Expectation We are learning to describe the relationship between an object’s mass and the resulting uniform acceleration due to a constant net force acting on the object.

Unit V: Constant Force Particle Model Introductory Lab Exploration Newton 500 Constant force, varied mass Constant mass, varied net force Calculate acceleration Newton 500 Lab Document

Unit V: Constant Force Particle Model Newton 500 Graphs See whiteboard exemplars

Unit V: Constant Force Particle Model Unit 5 Timeline: Anticipated Schedule (Week 1-3 to 1-7) Day 1: Review comments from Unit 4 and 6 test. Have students self assess work. Pre-Lab Modified Atwood experiment / Rubber Band Dynamics Cart HW: Honors Zit. 6.1 CP Hsu: 2.2 p.32-37 (Week 1-3 to 1-7) Day 2: Lab: Modified Atwood WB: Results and graphs Form Fnet  0N model (Fnet=ma) HW: Full page showing model and representations of model. (Week 1-3 to 1-7) Day 3: FA: Quiz 1 (Description: Forces LE 1.1, 1.2, 1.3) Demo: Elevator Measurements/video Practice Problem HW: Wkst 1

Unit V: Constant Force Particle Model Unit 5 Timeline: Anticipated Schedule (Week 1-10 to 1-14) Day 4: WB: Wkst 1 HW: Wkst 2   (Week 1-10 to 1-14) Day 5: WB: Wkst 2 FA: Quiz 2 (Description: Forces LE 1.4) HW: Honors Wkst 3 CP Wkst 2a (Week 1-10 to 1-14) Day 6: WB: Honors Wkst 3 CP Wkst 2a Demo: Static friction HW: Wkst 4

Unit V: Constant Force Particle Model Unit 5 Timeline: Anticipated Schedule (Week 1-18 to 1-24) Day 7: WB: Wkst 4 Application of Net Force: Circular Motion HW: Review   (Week 1-18 to 1-24) Day 8: Review (Week 1-18 to 1-24) Day 9: Assessment

Unit V: Constant Force Particle Model

Unit V: Constant Force Particle Model

Unit V: Constant Force Particle Model New mathematical representations

Unit V: Constant Force Particle Model By the time you finish all labs, worksheets and related activities, you should be able to:   Use Newton's 2nd Law to qualitatively describe the relationship between m and a, F and a, m and F. (e.g., if you double the mass, the acceleration will…) 2. Given a v vs t graph, draw the corresponding a vs t and F vs t graphs. 3. Determine the net force acting on an object by: a. drawing a force diagram for an object given a written description of the forces acting on it. b. resolving forces into x and y components, then finding the vector sum of the forces. c. analysis of the kinematic behavior of the object. 4. Solve quantitative problems involving forces, mass and acceleration using Newton's 2nd Law. a. Having determined the net force (as in #3), and given the mass, find the acceleration. b. Continue to use the kinematical models from unit III to determine the velocity or displacement of the object, once the acceleration is known.