Problem: Projectile (CM-1998) Justify your answer: Problem: Projectile (CM-1998) 5 10 m/s 3. Show your work: 3 m/s 2

Similar documents
Problem: Projectile (CM-1998)

AP Physics First Nine Weeks Review

Announcement. Quiz on Friday (Graphing and Projectile Motion) No HW due Wednesday

Chapter 3 Kinematics in Two Dimensions; Vectors

Vector and Relative motion discussion/ in class notes. Projectile Motion discussion and launch angle problem. Finish 2 d motion and review for test

Planar Motion with Constant Acceleration

Projectile Motion. Chin- Sung Lin STEM GARAGE SCIENCE PHYSICS

AP Physics Free Response Practice Kinematics

PHY 1114: Physics I. Quick Question 1. Quick Question 2. Quick Question 3. Quick Question 4. Lecture 5: Motion in 2D

5 Projectile Motion. Projectile motion can be described by the horizontal and vertical components of motion.

When we throw a ball :

Honors Physics Acceleration and Projectile Review Guide

MOTION OF A PROJECTILE

PSI AP Physics 1 Kinematics. Free Response Problems

PSI AP Physics C Kinematics 2D. Multiple Choice Questions

Chapter 4. Motion in Two Dimensions

AP Physics Kinematic Wrap Up

(a) On the diagram above, draw an arrow showing the direction of velocity of the projectile at point A.

Kinematics Multiple- Choice Questions (answers on page 16)

CHAPTER 3 KINEMATICS IN TWO DIMENSIONS; VECTORS

SPH3U UNIVERSITY PHYSICS

UNIT I: MECHANICS Chapter 5: Projectile Motion

Review Session 1. Page 1

AP Physics Free Response Practice Kinematics ANSWERS 1982B1 2

Chapter 2. Kinematics in One Dimension. continued

Kinematics in Two Dimensions; Vectors

PHYSICS MIDTERM REVIEW PACKET

Bell Ringer: What is constant acceleration? What is projectile motion?

Mark on the diagram the position of the ball 0.50 s after projection.

Projectile motion. Objectives. Assessment. Assessment. Equations. Physics terms 5/20/14. Identify examples of projectile motion.

Motion in Two Dimensions. 1.The Position, Velocity, and Acceleration Vectors 2.Two-Dimensional Motion with Constant Acceleration 3.

Vector Quantities A quantity such as force, that has both magnitude and direction. Examples: Velocity, Acceleration

MOTION IN A PLANE. Chapter Four MCQ I. (a) 45 (b) 90 (c) 45 (d) 180

2-D Vector Equations have the same form as 1-D Kinematics. f i i

Projectile Motion I. Projectile motion is an example of. Motion in the x direction is of motion in the y direction

Adding Vectors in Two Dimensions

Introduction to 2-Dimensional Motion

Exam. Name. 1) For general projectile motion with no air resistance, the horizontal component of a projectile's velocity A) B) C) D)

3 UCM & Gravity Student Physics Regents Date

Kinematics in Two-Dimensions

Unit 1, Lessons 2-5: Vectors in Two Dimensions

3.2 Projectile Motion

r r Sample Final questions for PS 150

Chapter 4. Motion in Two Dimensions. Position and Displacement. General Motion Ideas. Motion in Two Dimensions

Projectile Motion Exercises

Chapter 4 Kinematics II: Motion in Two and Three Dimensions

2-D Kinematics. In general, we have the following 8 equations (4 per dimension): Notes Page 1 of 7

Vocabulary Preview. Oct 21 9:53 AM. Projectile Motion. An object shot through the air is called a projectile.

MULTIPLE CHOICE. Choose the one alternative that best completes the statement or answers the question.

Do not fill out the information below until instructed to do so! Name: Signature: Student ID: Section Number:

Motion in Two Dimensions Reading Notes

Spring 2010 Physics 141 Practice Exam II Phy141_mt1b.pdf

Two Dimensional Kinematics Challenge Problems

Physics 12 Unit 1: Kinematics Notes. Name: What you will be able to do by the end of this unit:

Multiple-Choice Questions

Chapter 1. Kinematics

1-D and 2-D Motion Test Friday 9/8

Accl g Motion graph prac

Department of Natural Sciences Clayton College & State University. Physics 1111 Quiz 3

STRAIGHT LINE MOTION TEST

Exam 2--PHYS 101--F17

Vectors. Graphical Method. Graphical Method. SEEMS SIMPLE? = 30.5 m/s. Graphical Method. Graphical Method (TIP TO TAIL) S

3.4 Projectile Motion

Chapter 3 Homework Packet. Conceptual Questions

Projectile Motion trajectory Projectile motion

KINEMATICS OF A PARTICLE. Prepared by Engr. John Paul Timola

Topic 2 Revision questions Paper

Physics midterm review fall 2018

Physics 201, Midterm Exam 1, Fall Answer Key

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

INTRODUCTION & RECTILINEAR KINEMATICS: CONTINUOUS MOTION

Linear and Non Linear Motion. Reading: Supplemental Textbook Materials, pages

2018 AP PHYSICS 1 FREE-RESPONSE QUESTIONS. PHYSICS 1 Section II 1 Questions Time 25 minutes

C) D) 2. The diagram below shows a worker using a rope to pull a cart.

Chapter 4. Two-Dimensional Motion

Projectile Motion. C) 15 m. D) depends on horizontal speed

Chapter 3 2-D Motion

Example problem: Free Fall

physics Chapter 4 Lecture a strategic approach randall d. knight FOR SCIENTISTS AND ENGINEERS Chapter 4_Lecture1 THIRD EDITION

Department of Natural Sciences Clayton State University. Physics 1111 Quiz 2

Physics 0174(CHS) Exam #1 Academic Year NAME

Lecture PowerPoints. Chapter 3 Physics for Scientists & Engineers, with Modern Physics, 4 th edition Giancoli

Ms. Peralta s IM3 HW 5.4. HW 5.4 Solving Quadratic Equations. Solve the following exercises. Use factoring and/or the quadratic formula.

Chapter 3 Vectors Worksheets. 1. Find the X and Y components of the following: A. 35 m/s at 57 from the x-axis. [X: 19.1 m/s Y: 29.

Two-Dimensional Motion Worksheet

30º 20º 60º 38º 78º 16º 45º 83º. Chapter 3 Vectors Worksheets. 1. DRAW and CALCULATE the X and Y components of the following: A. E. B. F. C. G. D. H.

AP Physics C: Mechanics Practice (Systems of Particles and Linear Momentum)

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

Lecture 02: 2D Kinematics. Physics 2210 Fall Semester 2014

Unit 2: Vector Dynamics

MULTIPLE CHOICE. Choose the one alternative that best completes the statement or answers the question.

Break problems down into 1-d components

1. Which one of the following situations is an example of an object with a non-zero kinetic energy?

Projectile Motion. v = v 2 + ( v 1 )

Physics 111. Lecture 8 (Walker: 5.1-3) Force (F) Mass (m) Newton s 2 nd Law: F = ma. Summary - 2D Kinematics. = (20.0 m/s)(6.

Chapter 3 Kinematics in Two Dimensions; Vectors

Physics Test Review: Mechanics Session: Name:

Chapter 3. Kinematics in Two Dimensions

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

Physics 11 Chapter 3: Kinematics in Two Dimensions. Problem Solving

Transcription:

Physics C -D Kinematics Name: AP Review Packet Vectors have both magnitude and direction displacement, velocity, acceleration Scalars have magnitude only distance, speed, time, mass Unit vectors Specify direction only. Used to represent a vector in terms of components. a = a xi + a yj + a zk Kinematic Equations (in 3 dimensions) v = v o + at r = r o + v ot + ½ a t v v = v o v o + a r Projectile Motion Horizontal velocity is constant. x = v xot Vertical velocity is accelerated at -g. v y = v o - gt y = y o + v yot - 1 / gt v y = v yo - g(y y o) The trajectory is defined mathematically by a parabola. Problem: Projectile (CM-1998). The velocity of a projectile at launch has a horizontal component v h and a vertical component v v. Air resistance is negligible. When the projectile is at the highest point of its trajectory, which of the following show the vertical and horizontal components of its velocity and the vertical component of its acceleration? Vertical Horizontal Vertical Velocity Velocity Acceleration (A) v v v h 0 (B) v v 0 0 (C) 0 v h 0 (D) 0 0 g (E) 0 v h g Problem: Projectile (CM-1998) 6. A target T lies flat on the ground 3 m from the side of a building that is 10 m tall, as shown above. A student rolls a ball off the horizontal roof of the building in the direction of the target. Air resistance is negligible. The horizontal speed with which the ball must leave the roof if it is to strike the target is most nearly (A) 3/10 m/s (B) m/s (C) (D) 3 m/s (E) 5 10 m/s 3 3 m/s 10/6/017 Vectors and D Kinematics - 1 Krummell

Problem: Projectile (CM-1993) Questions 7- A ball is thrown and follows a parabolic path, as shown above. Air friction is negligible. Point Q is the highest point on the path. 7. Which of the following best indicates the direction of the acceleration, if any, of the ball at point Q? Relative Motion Usually requires vector addition. You may make any observer the stationary observer. Problem: Relative Motion (CM-1993) 3. At a particular instant, a stationary observer on the ground sees a package falling with speed v 1 at an angle to the vertical. To a pilot flying horizontally at constant speed relative to the ground, the package appears to be falling vertically with a speed v at that instant. What is the speed of the pilot relative to the ground? (A) v 1 + v (B) v 1 - v (C) v -v 1 1 (D) v v (E) v v 1 (A) (B) (C) (D) (E) There is no acceleration of the ball at point Q. Problem: Projectile (CM-1988) 10. A projectile is fired from the surface of the Earth with a speed of 00 meters per second at an angle of 30 above the horizontal. If the ground is level, what is the maximum height reached by the projectile? (A) 5 m (B) 10 m (C) 500 m (D) 1,000 m (E),000 m Problem: Relative Motion (CM-1988) 6. Two people are in a boat that is capable of a maximum speed of 5 kilometers per hour in still water, and wish to cross a river 1 kilometer wide to a point directly across from their starting point. If the speed of the water in the river is 5 kilometers per hour, how much time is required for the crossing? (A) 0.05 hr (B) 0.1 hr (C) 1 hr (D) 10 hr (E) The point directly across from the starting point cannot be reached under these conditions. 10/6/017 Vectors and D Kinematics - Krummell

Physics C -D Kinematics Name: AP Review Packet FREE RESPONSE 1 An airplane attempts to drop a bomb on a target. When the bomb is released, the plane is flying upward at an angle of 30 above the horizontal at a speed of 00 m/s, as shown below. At the point of release, the plane's altitude is.0 km. The bomb hits the target. a. Determine the magnitude and direction of the vertical component of the bomb's velocity at the point of release. b. Determine the magnitude and direction of the horizontal component of the bomb's velocity at the point when the bomb contacts the target. c. Determine how much time it takes for the bomb to hit the target after it is released. d. At the point of release, what angle below the horizontal does the pilot have to look in order to see the target? 10/6/017 Vectors and D Kinematics - 3 Krummell

FREE RESPONSE A projectile is launched from the top of a cliff. The cliff is 30 m high, and the projectile is launched from the cliff in the direction of the level plane below. At launch, the projectile has a velocity of 35m/s at an angle 30 above the horizontal. Air resistance is negligible. a. Draw a representation of the trajectory of the projectile. b. Calculate the total time from launch until the projectile hits the ground. c. Calculate the horizontal distance that the projectile travels before it hits the ground d. Calculate the speed at points A, B, and C, where A is maximum height, B is point at which projectile returns to its original height, and C is just before impact. 10/6/017 Vectors and D Kinematics - 4 Krummell

FREE RESPONSE 3. 1994 AP Test. A ball of mass 0.5 kilogram, initially at rest, is kicked directly toward a fence from a point 3 meters away, as shown below. The velocity of the ball as it leaves the kicker's foot is 0 meters per second at an angle of 37 above the horizontal. The top of the fence is.5 meters high. The kicker's foot is in contact with the ball for 0.05 second. The ball hits nothing while in flight and air resistance is negligible. a. Determine the time it takes for the ball to reach the plane of the fence. b. Will the ball hit the fence? If so, how far below the top of the fence will it hit? If not, how far above the top of the fence will it pass? c. On the set of axes below, sketch the horizontal and vertical components of the velocity of the ball as functions of time until the ball reaches the plane of the fence. 10/6/017 Vectors and D Kinematics - 5 Krummell