Essentials of Physics: PHYS 101
Spring, 2007
Instructor: Dr. Dean Livelybrooks E-mail: dlivelyb_at_uoregon; 346-5855 Office: 225 Willamette Hall Office hours: U10:00, H14:00
TAs: Anthony Clark, Xiaokun Shu 216 Will, aclark_at_uoregon, 6-4770 355 Will, xshu_at_uoregon, 6-5192 |
PHYS 101 Web Page can be found at: http://hendrix2.uoregon.edu/~dlivelyb/phys101/home.html
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cientific endeavor comprises our efforts to understand how things work, and to develop a compact and universally portable set of rules that describe all observable processes. Some times these rules can be used to predict future events-- when the next lunar eclipse is to occur, for example. These rules also guide our every day efforts to design our world-- how to build a better bicycle that reduces air resistance on the rider. Occasionally we observe an unexpected event and are left scrambling to come up with an explanationÉ the microwave oven was invented when a scientist left his cold cup of coffee next to a klystron and found that it was warm after microwaves were generated.
Scientists attempt to improve our understanding of how things work by systematically observing and identifying underlying processes. This involves determining important variables, working out relationships between them by forming hypothetical relationships (rules) and testing them via experiment. For example, the relationship between an object's mass, its acceleration and the net force applied to it (the important variables) can be guessed at and then tested by applying known forces on objects with measured masses. Many guessed at relationships fail to pass experimental testing. Some times experimentation ends up refining our understanding of these relationships and leads to the development of a more comprehensive rule. Finally, connecting these individual rules together in a sensible way leads to a set of laws which appear to govern the workings of our complete environment.
The builders of Stonehedge incorporated an understanding of astronomical observations into the structure to keep track of seasons. It is speculated that Stonehedge had great religious significance to these people, but some of the scientific process was evidently incorporated into their religion. In general, science differs from religion in that all laws must be experimentally testable. In Essentials of Physics we will focus on understanding how things work from a conceptual point of view, but we will also spend a great deal of time observing, formulating hypotheses and testing them. Science is an on-going process that anyone can do! To do is to understand.
Instructor: |
Dr. Dean Livelybrooks Office: 225 Willamette Phone: 346-5855 E-mail: dlivelyb_at_uoregon.edu Office Hours: U10:00, H14:00 |
TA: |
Anthony Clark Xiaokun Shu 216 Will., 6-4770 355 Will., 6-5192 aclark_at_uoregon xshu@uoregon.edu |
Meeting Times |
2-hour Lecture is 4-5:50pm Wednesday in Rm. 110 Willamette. Labs meet for 2 hours each week in Rm. 17 Willamette on either:
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Learning Objectives: |
Develop conceptual understanding of certain physics principles including:
Develop an understanding of science as a process involving observation, hypothesis construction, experimentation & hypothesis refinement. |
Textbook |
Conceptual Physics, 9th Edition (or 10th Edition) by Paul Hewitt. This book is required. |
Web Page |
http://hendrix2.uoregon.edu/~dlivelyb/phys101/home.html |
Class Work |
Course work comprises:
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Exams |
Two exams will be given during the term. These will focus on testing your understanding of physics concepts. Total of exams counts for 30% of the course grade. |
Final Exam |
The final exam for this class will be given on Thursday, June 14th at 3:15 pm in 15 Pacific. |
Grading Summary |
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Go to here for Course Outline for Hewitt, 10th Edition.
Meet |
Date |
Topics |
Reading |
Assignments-H9 |
L1 |
April 2 |
Introductions. Course questionnaire. Inertia. Motion in a line: position, speed and velocity |
Chpt. 2 |
(RQ 2: 5,11,18,24) |
L2/L3 |
Weds. April 4 |
More motion in a line: velocity and acceleration ILD, (solar observation demonstration) Newton’s Second Law of Motion. force, mass and velocity; Newton’s Laws |
Chpt. 3 (40-44)/ Chpt. 4 (55-61) |
Begin solar observations. (RQ 3: 3,4,9,13,21)/ RQ 4: 5, 10, 12, 20, 23, 29 |
Lab 1 |
April 5 or 9 |
Experimentation: observation, hypothesis, measurement, conclusion |
Lab 1 handout |
|
L4 |
Weds. April 11 |
Vectors, “mg” gravity, work ILD Work, Energy and power Energy and Work; Power; Potential and Kinetic Energy |
Chpt. 4 (61-end), Chpt 7 (104-105) / Chpt. 7 |
Lab 1 due (RQ 4:10,12,20,23,24) / (RQ 7: 5,8,14,22) |
Lab 2 |
April 12 or 16 |
Measuring velocity; acceleration & force; acceleration and mass. |
Lab 2 handout |
(on Friday) Ex: 2:4,12,26; 3:8,14,25,33 |
L5/L6 |
Weds. April 18 |
Motion in a circle: rotational speed, rotational inertia (ILD); torque. More motion in a circle: torque, simple machines, centripetal force. |
Chpt. 8 (125-143) |
Lab 2 due (RQ 8: 5,12,17) / (RQ 8: 27,32,33) |
Lab 3 |
April 19 or 23 |
Work, Energy & Power |
Lab 3 handout |
(on Friday) Ex: 4:6,11,43,45; 7:5,13,28,34 |
Exam/L7 |
Weds. April 25 |
Exam 1 physics in the real world demonstration. |
Chpts. 2, 3, 4, 7, 8 / Real-world physics handout |
Lab 3 due |
Lab 4 |
April 26 or 30 |
Rotational Motion Playground Physics: |
Lab 4 handout |
(on Friday) Ex 8:3,6,14,22,31,34 |
L8/L9 |
Weds. May 2 |
Exam results, more torques, big G gravity and satellite motion
|
Chpt. 9 |
Lab 4 due (RQ 9: 3,10,14,15) / (RQ 22: 3, 11,12,17,26,27,31) |
Lab 5 |
May 3 or 7 |
Movie physics |
Lab 5 handout |
|
L10 / L11 |
Weds. May 9 |
Static electricity Electric current and circuits (ILD)
|
Chpt. 22 / Chpt. 23 |
Lab 5 due , Project due, 5pm (RQ 23: 3,11,23,27) / (RQ 24: 6,11,17,27 |
Lab 6 |
May 10 or 14 |
Solar observations/lunar model lab (bring your solar observations to lab!) |
Lab 6 handout |
(bring your observations to lab!) |
L12 / L13 |
Weds. May 16 |
Magnetism Electromagnetic induction |
Chpt. 24 / Chpt. 25 |
Lab 6 due) (RQ 25: 3,6,22,23) / (RQ 19: 8,11,20,21; 20:6, 18,20,23) |
Lab 7 |
May 17 or 21 |
Electric Circuits (circuits, batteries & bulbs, etc.) |
Lab 7 handout |
(on Friday) Ex: 22:2,10,16,25; 23:5,14,33,35 |
Exam/L14 |
Weds. May 23 |
Exam 2Waves & Sound |
Exam: Chpts. 9, 10, 22-25 (not 19/20)/ Chpt. 19/20 for lecture |
Lab 7 due, Project experiment outline due, 5pm. |
Lab 8 |
May 24 |
Magnets, generators and motors |
Lab 8 handout |
(on Friday) Ex: 24:5,13,24; 25:6,10,18 |
No lab! |
May 28 |
Memorial Day, no lab, please attend May 24 lab |
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Lab 8 due (on Tuesday, 29th) |
L15 / L16 |
Weds. May 30 |
Waves & Sound (ILD), LightColor |
Chpt 26 / Chpt. 27 |
Project experiment report due by 5pm. (RQ 26: 7,8,11,16) / (RQ 27: 9, 12, 17, 21, 22) |
Lab 9 |
May 31, June 4 |
Waves & sound |
Lab 9 handout |
|
L17 |
Weds. June 6 |
Final Exam Review |
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Lab 9 due |
Project reports |
June 7 |
NO LAB Project reports presented at this lab time |
|
Project presentations. |
|
Thurs. June 14 |
Thursday, Final Exam (3:15 pm in Rm. 15 Pacific) |
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Go to here for Course Outline for Hewitt, 9th Edition.
(exercises are corrected for H10, RQs still under contruction)
Meet |
Date |
Topics |
Reading |
Assignments-H10 |
L1 |
April 2 |
Introductions. Course questionnaire. Inertia. Motion in a line: position, speed and velocity |
Chpt. 2 |
(RQ 2: 5,11,18,24) |
L2/L3 |
Weds. April 4 |
More motion in a line: velocity and acceleration ILD, (solar observation demonstration) Newton’s Second Law of Motion. force, mass and velocity; Newton’s Laws |
Chpt. 3 (41-47)/ Chpt. 4 (58-65) |
Begin solar observations. (RQ 3: 3,4,9,13,21)/ RQ 4: 5, 10, 12, 20, 23, 29 |
Lab 1 |
April 5 or 9 |
Experimentation: observation, hypothesis, measurement, conclusion |
Lab 1 handout |
|
L4 |
Weds. April 11 |
Vectors, “mg” gravity, work ILD Work, Energy and power Energy and Work; Power; Potential and Kinetic Energy |
Chpt. 4 (65-end), Chpt 7 (110-111) / Chpt. 7 |
Lab 1 due (RQ 4:10,12,20,23,24) / (RQ 7: 4,6,10,17) |
Lab 2 |
April 12 or 16 |
Measuring velocity; acceleration & force; acceleration and mass. |
Lab 2 handout |
(on Friday) Ex: 2:4,12,27; 3:10,17,28,36 |
L5/L6 |
Weds. April 18 |
Motion in a circle: rotational speed, rotational inertia (ILD); torque. More motion in a circle: torque, simple machines, centripetal force. |
Chpt. 8 (131-150) |
Lab 2 due (RQ 8: 3,10,15) / (RQ 8: 24,28) |
Lab 3 |
April 19 or 23 |
Work, Energy & Power |
Lab 3 handout |
(on Friday) Ex: 4:3,9,52,54; 7:13,19,36,44 |
Exam/L7 |
Weds. April 25 |
Exam 1 physics in the real world demonstration. |
Chpts. 2, 3, 4, 7, 8 / Real-world physics handout |
Lab 3 due |
Lab 4 |
April 26 or 30 |
Rotational Motion Playground Physics: |
Lab 4 handout |
(on Friday) Ex 8:3,4,12,26,34,37 |
L8/L9 |
Weds. May 2 |
Exam results, more torques, big G gravity and satellite motion
|
Chpt. 9 |
Lab 4 due (RQ 9: 3,10,13,14) / (RQ 22: 2, 11,12,17,25,26,30) |
Lab 5 |
May 3 or 7 |
Movie physics |
Lab 5 handout |
|
L10 / L11 |
Weds. May 9 |
Static electricity Electric current and circuits (ILD)
|
Chpt. 22 / Chpt. 23 |
Lab 5 due , Project due, 5pm (RQ 23: 3,11,23,27) / (RQ 24: 6,11,17,26 |
Lab 6 |
May 10 or 14 |
Solar observations/lunar model lab (bring your solar observations to lab!) |
Lab 6 handout |
(bring your observations to lab!) |
L12 / L13 |
Weds. May 16 |
Magnetism Electromagnetic induction
|
Chpt. 24 / Chpt. 25 |
Lab 6 due) (RQ 25: 2,5,20,21) / (RQ 19: 8,9,18,20; 20:5, 15,17,20) |
Lab 7 |
May 17 or 21 |
Electric Circuits (circuits, batteries & bulbs, etc.) |
Lab 7 handout |
(on Friday) Ex: 22:3,14,20,35; 23:7,16,38,40 |
Exam/L14 |
Weds. May 23 |
Exam 2Waves and Sound |
Exam: Chpts. 9, 10, 22-25 (not 19/20)/ Chpt. 19/20 for lecture |
Lab 7 due, Project experiment outline due, 5pm. |
Lab 8 |
May 24 |
Magnets, generators and motors |
Lab 8 handout |
(on Friday) Ex: 24:7,15,26; 25:8,12,22 |
No lab! |
May 28 |
Memorial Day, no lab, please attend May 24 lab |
|
Lab 8 due (on Tuesday, 29th) |
L15 / L16 |
Weds. May 30 |
Waves & Sound (ILD), LightColor |
Chpt 26 / Chpt. 27 |
Project experiment report due by 5pm. (RQ 26: 6,7,9,14) / (RQ 27: 8, 11, 18, 19, 20) |
Lab 9 |
May 31, June 4 |
Waves & sound |
Lab 9 handout |
|
L17 |
Weds. June 6 |
Final Exam Review |
|
Lab 9 due |
Project reports |
June 7 |
NO LAB Project reports presented at this lab time |
|
Project presentations. |
|
Thurs. June 14 |
Thursday, Final Exam (3:15 pm in Rm. 15 Pacific) |
|
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Fifteen percent of the course grade is devoted to a course project. It is in the form of a “physics in the real world report”
“Physics in the Real World” Report
Believe it or not, physics is happening around you all the time. When a basketball is dribbled, Hook’s law describes how the deformation of the ball on the floor causes a force on the floor (by the ball), and Newton’s third law (“for every action there is an equal an opposite reaction”) says that there must be a force on the ball by the floor, which results in the ball bouncing back up to your hand. A bike rider turning a corner leans into the turn to counteract the torque on the bike and rider caused by the road pushing on the bike tires (which enables it to turn). The rider purposely creates a torque caused by gravity to counteract the frictional force of the road on the turning bike tires.
To complete your “Physics in the Real World” report, you should watch for every day examples of the physics concepts you learn in class. The report should be three pages long and include either a photograph or a diagram depicting the phenomenon. Either should be annotated so that important forces, velocities, torques, etc are noted (and labeled). The purpose of the report is both to demonstrate a real-world “application” of physics and your understanding of how the concept applies to the situation. Any relevant physics rule (stated as words or as a formula) should be included and interpreted in the context of the phenomenon under consideration. The course instructor will present his own “Physics in the Real World” report in class so that you understand what is expected.
For extra credit after completion of the “physics in the real world” report:
- Develop of experiment derived from your “physics in the real world” report. Turn in an outline of your experiment for approval and extra points.
- After approval of your outline, complete your experiments and write a short (experiment) report on it.
- Present the experiment (outline and results) to the class (presentation)
Extra credit will be awarded for each of these steps if properly completed. The first two of these extra-credit assignments are due Weds. by 5pm. Presentations will be made during regular lab times during week 10 of term.