Worksheet 3. Sketch velocity vs time graphs corresponding to the following descriptions of the motion of an object.

Similar documents
Physics! Unit 2 Review Constant Acceleration Particle Model

scalar: quantity described by magnitude (size) only vector: quantity described by both magnitude AND direction

Chapter 2 Section 2: Acceleration

Each dot represents an object moving, between constant intervals of time. Describe the motion that you see. equation symbol: units: Velocity

Chapter 2: Motion in One Dimension

1.1 Motion and Motion Graphs

Unit 2 Kinematics Worksheet 1: Position vs. Time and Velocity vs. Time Graphs

MAINIDEA Write the Main Idea for this section. Explain why the slope of a velocity-time graph is the average acceleration of the object.

Introduction to 1-D Motion Distance versus Displacement

Physics Review. Do: Page # Which of the following is an appropriate unit for velocity? A. s B. m C. m/s 2 D. km/h

2/18/2019. Position-versus-Time Graphs. Below is a motion diagram, made at 1 frame per minute, of a student walking to school.

Calculating Acceleration

MOTION, DISTANCE, AND DISPLACEMENT Q: What is motion? A: Motion is any change in the position or place of an object. is the study of motion (without

4.1 - Acceleration. What is acceleration?

Position-versus-Time Graphs

11.3 Acceleration. What Is Acceleration? How are changes in velocity described?

3.3 Acceleration An example of acceleration Definition of acceleration Acceleration Figure 3.16: Steeper hills

PSI AP Physics 1 Kinematics. Free Response Problems

CHAPTER 3 ACCELERATED MOTION

QuickCheck. A cart slows down while moving away from the origin. What do the position and velocity graphs look like? Slide 2-65

BELL RINGER: Define Displacement. Define Velocity. Define Speed. Define Acceleration. Give an example of constant acceleration.

Unit I: Motion Subunit B: Constant Acceleration Chapter 2 Sections 2 and 3 Texas Physics p

PUM Physics II - Kinematics Lesson 12 Solutions Page 1 of 16

SCIENCE 1206 Unit 3. Physical Science Motion

1.2.1 Acceleration. Some interesting statistics about top fuel dragsters::

What You Will Learn In This Chapter. Displacement Vector Distance Velocity Vectors Acceleration Vectors Motion with constant Acceleration

12/06/2010. Chapter 2 Describing Motion: Kinematics in One Dimension. 2-1 Reference Frames and Displacement. 2-1 Reference Frames and Displacement

A. VOCABULARY REVIEWS On the line, write the term that correctly completes each statement. Use each term once.

8.01x Classical Mechanics, Fall 2016 Massachusetts Institute of Technology. Problem Set 1

PLC Papers Created For:

1 What is Science? Worksheets CHAPTER CHAPTER OUTLINE

Exam 1--PHYS 201--Fall 2016

Speed how fast an object is moving (also, the magnitude of the velocity) scalar

Chapter Four: Motion

Unit 1 Parent Guide: Kinematics

Energy Whiteboard Problems

DESCRIBING MOTION: KINEMATICS IN ONE DIMENSION. AP Physics Section 2-1 Reference Frames and Displacement

Worksheet At t = 0 a car has a speed of 30 m/s. At t = 6 s, its speed is 14 m/s. What is its average acceleration during this time interval?

Vocabulary and Section Summary A

AP Physics C: Mechanics Ch. 2 Motion. SHORT ANSWER. Write the word or phrase that best completes each statement or answers the question.

Acceleration Worksheet Definitions: velocity: speed in a given direction acceleration: the rate at which the velocity is changing

Section Distance and displacment

Physics 111. Help sessions meet Sunday, 6:30-7:30 pm in CLIR Wednesday, 8-9 pm in NSC 098/099

Physics 20 Acceleration Worksheet

Chapter 2: 1D Kinematics

Unit 1 Test Review Physics Basics, Movement, and Vectors Chapters 2-3

Lesson 12: Position of an Accelerating Object as a Function of Time

Velocity, Speed, and Acceleration. Unit 1: Kinematics

Sierzega: Kinematics 10 Page 1 of 14

Formative Assessment: Uniform Acceleration

Chapter 06 Test A. Name: Class: Date: Multiple Choice Identify the choice that best completes the statement or answers the question.

Motion Graphs Refer to the following information for the next four questions.

Lecture PowerPoints. Chapter 2 Physics for Scientists and Engineers, with Modern Physics, 4 th Edition Giancoli

Physics 30S Unit 2 Motion Graphs. Mrs. Kornelsen Teulon Collegiate Institute

1 D motion: know your variables, position, displacement, velocity, speed acceleration, average and instantaneous.

Chapter 2 Describing Motion

Semester 1 Final Exam Review Answers

Name Class Date. Complete each of the following sentences by choosing the correct term from the word bank.

Lesson 1.2 Position Time Graphs

12.2 Acceleration. You will need a calculator today!

Worksheet 1: One-Dimensional Kinematics

The equations of motion can be used when an object is accelerating at a steady rate There are four equations relating five quantities u initial

LAB 2: INTRODUCTION TO MOTION

Answers to SNC 2DI Exam Review: Motion Unit 1. Understand the meaning of the following terms. Be able to recognize their definitions:

DESCRIBING MOTION: KINEMATICS IN ONE DIMENSION. AP Physics Section 2-1 Reference Frames and Displacement

Choosing a Safe Vehicle Challenge: Analysis: Measuring Speed Challenge: Analysis: Reflection:

What is Motion? any physical movement or change in position or place, relative to a reference point. Movement. Reference Point

+ at. mav x. = mv3 x 2 ma x. Exam 1--PHYS 101--F14--Chapters 1 & 2. Name: Class: Date:

Describing Mo tion. Speed and Velocity. What is speed?

Section 2-2: Constant velocity means moving at a steady speed in the same direction

1. Haiwa walks eastward with a speed of 0.98 m/s. If it takes him 34 min to walk to the store, how far has he walked?

Ch 2 Homework. Follow the instructions on the problems and show your work clearly.

ALL WORK WILL BE DONE IN YOUR NOTEBOOK

Goal: Describe Motion Kinematics 'How' Dynamics 'Why' (Forces): Chapter 4. Position, Displacement, Velocity, Acceleration

Not every object is going to travel at the same VELOCITY all the time.

1 Forces. 2 Energy & Work. GS 104, Exam II Review

11.3 Acceleration The basketball constantly changes velocity as it rises and falls.

3 Friction: A Force That Opposes Motion

5) A stone is thrown straight up. What is its acceleration on the way up? 6) A stone is thrown straight up. What is its acceleration on the way down?

MASSACHUSETTS INSTITUTE OF TECHNOLOGY Department of Physics 8.01 Physics Fall Term = # v x. t " =0. are the values at t = 0.

Chapter 2: 1-D Kinematics

Name Class Page 1 Conservation of Energy at the Skate Park

Vectors Mini Project Materials Part I Velocity Vectors

Unit 2 - Linear Motion and Graphical Analysis

Lecture 2. 1D motion with Constant Acceleration. Vertical Motion.

Semester 1 Final Exam Review Answers

Driveway Races Acceleration

Final Exam Review Answers

Forces and Motion. May 10, 2017

Chapter 2. Motion along a straight line

Chapter 2: Motion in One Dimension

Physics of Everyday Phenomena. Chapter 2

KINEMATICS WHERE ARE YOU? HOW FAST? VELOCITY OR SPEED WHEN YOU MOVE. Typical Cartesian Coordinate System. usually only the X and Y axis.

Acceleration and Velocity PreTest (Chap 9)

*************************************************************************

Introduction to Kinematics. Motion, Forces and Energy

Planning Ahead. Homework set 1 due W Save your chicken bones for lab on week 6 Level III: Motion graphs No class next Monday

=. Consider the following properties

acceleration versus time. LO Determine a particle s change in position by graphical integration on a graph of velocity versus time.

Four Basic Types of Motion Pearson Education, Inc.

Transcription:

Worksheet 3 Sketch velocity vs time graphs corresponding to the following descriptions of the motion of an object. 1. The object is moving away from the origin at a constant (steady) speed. 2. The object is standing still. 3. The object moves toward the origin at a steady speed for 10s, then stands still for 10s. 4. The object moves away from the origin at a steady speed for 10s, reverses direction and moves back toward the origin at the same speed. Draw the velocity vs time graphs for an object whose motion produced the position vs time graphs shown below at left. 6

5. 6. 7. 7

Worksheet 4 1. Robin, roller skating down a marked sidewalk, was observed to be at the following positions at the times listed below: t (s) x (m) 0.0 10.0 1.0 12.0 2.0 14.0 5.0 20.0 8.0 26.0 10.0 30.0 a. Plot a position vs. time graph for the skater. b. How far from the starting point was he at t = 6s? How do you know? c. Write a mathematical model to describe the curve in (a). d. Was his speed constant over the entire interval? How do you know? 8

2. The following data were obtained for a second trial: t (s) x (m) 0.0 4.0 2.0 10.0 4.0 16.0 6.0 22.0 8.0 28.0 10.0 34.0 a. Plot the position vs. time graph for the skater. b. How far from the starting point was he at t = 5s? How do you know? c. Was his speed constant? If so, what was it? d. In the first trial the skater was further along at 2s than he was in the second trial. Does this mean that he was going faster? Explain your answer. 9

3. Suppose now that our skater was observed in a third trial. The following data were obtained: t (s) x (m) 0.0 0.0 2.0 6.0 4.0 12.0 6.0 12.0 8.0 8.0 10.0 4.0 12.0 0.0 a. Plot the position vs. time graph for the skater. b. What do you think is happening during the time interval: t = 4s to t = 6s? How do you know? c. What do you think is happening during the time interval: t = 6s to t = 12s? How do you know? d. Determine the skater's average speed from t = 0s to t = 12s. e. Determine the skater's average velocity from t = 0s to t = 12s. 10

Worksheet 5 2. From the position vs time data below, answer the following questions. t (s) x (m) 0 0 1 2 2 4 3 4 4 7 5 10 6 10 7 10 8 5 9 0 a. Construct a graph of position vs time. b. Construct a graph of velocity vs time. d. Determine the displacement from t = 3.0s to 5.0s using graph B. e. Determine the displacement from t = 7.0 s to 9.0 s using graph B. 11

Worksheet 6 1 2 3 4 x x Written Description v vs. t graph x vs. t graph t v t t v t 12

5 6 Written Description v vs. t graph x vs. t graph Object moves with constant positive velocity for 4 seconds. Then, it stops for 2 seconds and returns to the initial position in 2 seconds. Object A starts 10m to the right of the origin and moves to the left at 2 m/s. Object B starts at the origin and moves to the right at 3m/s. 13

1. Consider the position vs time graph at right. Review a. Determine the average velocity of the object. b. Write a mathematical equation to describe the motion of the object. 2. Shown at right is a velocity vs time graph for an object. a. Describe the motion of the object. b. Draw the corresponding position vs time graph. Number the x - axis. c. How far did the object travel in the interval t =1s to t =2s? d. What is the total displacement? Explain how you got the answer. 14

3. Johnny drives to Wisconsin (1920 miles) in 32 hours. He returns home by the same route in the same amount of time. a. Determine his average speed. b. Determine his average velocity. c. Compare these two values and explain any differences. 4. Consider the v vs t graph below. a. Describe the behavior of the object depicted in the graph. 5. A race car travels at a speed of 95 m/s. How far does it travel in 12.5 s? Use the appropriate mathematical expression and show how units cancel. 6. A ball rolls up a hill with a velocity of 2.5 m/s. It is being accelerated with a constant 0.4 m/s 2. What is its velocity after 3.0 s? 7. A race car slows from 50 m/s to 22.3 m/s in 2.8 s. What is the cars acceleration? 15

Worksheet 7: Stacks of kinematics curves Given the following position vs time graphs, sketch the corresponding velocity vs time and acceleration vs time graphs. 16

For the following velocity vs. time graphs, draw the corresponding position vs. time and a-t graphs 17

Worksheet 8 While cruising along a dark stretch of highway with the cruise control set at 25 m/s ( 55 mph), you see, at the fringes of your headlights, that a bridge has been washed out. You apply the brakes and come to a stop in 4.0s. Assume the clock starts the instant you hit the brakes. 1. Construct qualitative graphical representations of the situation described above to illustrate: a. x vs. t b. v vs. t c. a vs. t 3. Construct a quantitatively accurate v vs t graph to describe the situation. 4. On the v vs t graph at right, graphically represent the car s displacement during braking. 5. Utilizing the graphical representation, determine how far the car traveled during braking. (Please explain your problem solving method.) 6. In order to draw the a vs t graph, you need to determine the car s acceleration. Please do this, then sketch a quantitatively accurate a vs t graph 18