Equilibrium Of Rigid Bodies Tutorial Homework

Physics 1110 Spring 2015

Tutorial Schedule: Assignments

On all but the last week, a tutorial will be performed in the blue tutorial workbook called “Tutorials in Introductory Physics” by McDermott and Shaffer.  This is a group activity but each student is expected to do his or her own work. This work is not handed in, but the TA grades each student’s participation.

After the first week, homework will also be due which students should hand in at the beginning of the recitation section. Most of these homeworks will be found in the red tutorial workbook called “Homework in Introductory Physics”, also by McDermott and Shaffer. These will be referred by the prefix HW with a range of pages numbers following. Students will need to neatly tear or cut these homeworks out of their workbooks prior to attending the recitation section. Typically, the homework is on the material covered in the previous tutorial.

 

Alternately, some homeworks will be constructed by the professors in this class and for those weeks a pdf will be provided in the table below. For those homeworks, print out the assignment and complete it, handing it in at the begining of your recitation section on the date indicated.

The schedule for the weekly tutorials and tutorial homeworks is as follows:

Week

Date (Th/F)

Tutorial (BLUE BOOK)

Tutorial Homework DUE (RED BOOK or PDF)

1

Jan 15, 16

Introduction to recitations/tutorials

FCME Pre-Test

None

2

Jan 22, 23

Acceleration in 1D (pp. 11-14)

Written Homework 1

3

Jan 29, 30

Motion in 2D (pp. 15-18)

Acceleration in 1D (pp. HW13-17)

4

Feb 5,6

Forces (pp. 25-31)

Motion in 2D (pp. HW19-21,23-24 (skip 22))

5

Feb 12,13

Newton’s 2nd and 3rd Laws

(pp. 33-36)

Forces (pp. HW33-35)

6

Feb 19,20

Tension (pp. 37-40)

Newton's 2nd and 3rd Laws (pp. HW39-42)

7

Feb 26,27

Work and Changes in KE (pp. 41-44)

Tension (pp. HW47-48)

8

Mar 5,6

Conservation of Energy (pp. 45-49)

Work and Changes in KE (pp. HW49-52)

9

Mar 12,13

Conservation of Momentum in 1D (pp. 57-61)

Conservation of Energy (pp. HW53-56)

10

Mar 19,20

Conservation of Momentum in 2D (pp. 63-66)

Conservation of Momentum in 1D (pp. HW59-62)

11

Mar 26,27

SPRING BREAK

SPRING BREAK

12

Apr 2,3

Dynamics of Rigid Bodies (pp. 71-74)

Conservation of Momentum in 2D (pp. HW63-65)

13

Apr 9,10

Conservation of Angular Momentum (pp. 79-83)

Dynamics of Rigid Bodies (pp. HW69-73)

14

Apr 16,17

Equilibrium of Rigid Bodies (pp. 75-78)

Conservation of Angular Momentum (pp. HW77-78)

15

Apr 23,24

Simple Harmonic Motion (pp. 85-89)

Equilibrium of Rigid Bodies (pp. HW75-76)

16

Apr 30, May 1

FCME Post-Test

Simple Harmonic Motion (pp. HW79-80)

What? Guided-inquiry worksheets for small groups in recitation section of intro calculus-based physics. Instructors engage groups in Socratic dialogue. Worksheets use Elicit-Confront-Resolve model: Questions elicit known student difficulties and help students confront and resolve these difficulties.

Why? Each tutorial is designed to carefully walk students through overcoming specific student difficulties, and goes through a rigorous process of research and redesign to show that it leads to student learning. They can be effective even if instructors don't understand the research behind them.

Why not? These tutorials are designed for calculus-based physics courses, and may not work as well with other populations. Some researchers think that their elicit-confront-resolve approach may give students a sense that their intuition about physics is always wrong and lead to decreased self-efficacy.

Classroom video


Curriculum outline

Part I: Mechanics
Kinematics
Velocity
Representations of motion
Acceleration in one dimension
Motion in two dimensions
Relative motion

Newton’s laws
Forces
Newton’s second and third laws
Tension

Energy and momentum
Work and changes in kinetic energy
Conservation of energy
Conservation of momentum in one dimension
Changes in energy and momentum

Rotation
Rotational motion
Dynamics of rigid bodies
Equilibrium of rigid bodies
Conservation of angular momentum
Simple harmonic motion


Part II: Electricity and magnetism 

Electrostatics
Charge
Electric field and flux
Gauss’ law
Electric potential difference
Capacitance

Electric circuits
A model for circuits Part: Current and resistance
A model for circuits Part: Potential difference
A model for circuits Part: Multiple batteries
RC circuits

Magnetism
Magnets and magnetic fields
Magnetic interactions

Electromagnetism
Lenz’ law
Faraday’s law and applications

Part III: Waves
Superposition and reflection of pulses
Reflection and transmission
Propagation and refraction of periodic waves
Electromagnetic waves

Part IV: Geometrical optics
Light and shadow
Plane mirrors
Curved mirrors and multiple reflections
Interpretation of ray diagrams
Convex lenses
Magnification

Part V: Physical optics
Two-source interference
Wave properties of light
Multiple-slit interference
A model for single-slit diffraction
Combined interference and diffraction
Thin-film interference
Polarization

Part VI: Selected topics
Hydrostatics
Pressure in a liquid
Buoyancy

Thermodynamics
The ideal gas law
A microscopic model for an ideal gas
The first law of thermodynamics
Heat engines and the second law of thermodynamics

Modern physics: Waves and particles
Wave properties of matter
The photoelectric effect
Wave-particle duality

Modern physics: Special relativity
Events and reference frames
Measurement in special relativity
Simultaneity
Electric and magnetic fields in multiple frames of reference

Student skills developed

Designed for:
  • Conceptual understanding
  • Using multiple representations
Can be adapted for:
  • Problem-solving skills
  • Making real-world connections
  • Metacognition

Instructor effort required

Resources required

  • TAs / LAs
  • Simple lab equipment
  • Cost for students
  • Tables for group work

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