Name DATE Per TEST REVIEW. 2. A picture that shows how two variables are related is called a.



Similar documents
Chapter 07 Test A. Name: Class: Date: Multiple Choice Identify the choice that best completes the statement or answers the question.

Figure 1.1 Vector A and Vector F

TEACHER ANSWER KEY November 12, Phys - Vectors

Introduction and Mathematical Concepts

SPEED, VELOCITY, AND ACCELERATION

Work, Energy and Power Practice Test 1

Chapter 3 Practice Test

Physics Midterm Review Packet January 2010

General Physics 1. Class Goals

Worksheet to Review Vector and Scalar Properties

Physical Quantities and Units

Physics 2A, Sec B00: Mechanics -- Winter 2011 Instructor: B. Grinstein Final Exam

Chapter 11 Equilibrium

9. The kinetic energy of the moving object is (1) 5 J (3) 15 J (2) 10 J (4) 50 J

Difference between a vector and a scalar quantity. N or 90 o. S or 270 o

B) 286 m C) 325 m D) 367 m Answer: B

1. Metric system- developed in Europe (France) in 1700's, offered as an alternative to the British or English system of measurement.

Physics Kinematics Model

Examples of Scalar and Vector Quantities 1. Candidates should be able to : QUANTITY VECTOR SCALAR

4 Gravity: A Force of Attraction

W i f(x i ) x. i=1. f(x i ) x = i=1

Despite its enormous mass (425 to 900 kg), the Cape buffalo is capable of running at a top speed of about 55 km/h (34 mi/h).

Unit 11 Additional Topics in Trigonometry - Classwork

How do you compare numbers? On a number line, larger numbers are to the right and smaller numbers are to the left.

At the skate park on the ramp

Module 8 Lesson 4: Applications of Vectors

Physics: Principles and Applications, 6e Giancoli Chapter 4 Dynamics: Newton's Laws of Motion

Lab 2: Vector Analysis

C B A T 3 T 2 T What is the magnitude of the force T 1? A) 37.5 N B) 75.0 N C) 113 N D) 157 N E) 192 N

Physical Science Chapter 2. Forces

2-1 Position, Displacement, and Distance

Chapter 6 Work and Energy

6. Vectors Scott Surgent (surgent@asu.edu)

Chapter 4. Forces and Newton s Laws of Motion. continued

AP Physics C Fall Final Web Review

Version A Page The diagram shows two bowling balls, A and B, each having a mass of 7.00 kilograms, placed 2.00 meters apart.

Solving Simultaneous Equations and Matrices

11.1. Objectives. Component Form of a Vector. Component Form of a Vector. Component Form of a Vector. Vectors and the Geometry of Space

Ponce de Leon Middle School Physical Science 2016 Summer Instructional Packet

VELOCITY, ACCELERATION, FORCE

2.2 Scientific Notation: Writing Large and Small Numbers

PHYSICS 151 Notes for Online Lecture #6

Overview for Families

8. As a cart travels around a horizontal circular track, the cart must undergo a change in (1) velocity (3) speed (2) inertia (4) weight

Curso Física Básica Experimental I Cuestiones Tema IV. Trabajo y energía.

Supplemental Questions

Universal Law of Gravitation

Examples of Physical Quantities

MEASUREMENT. Historical records indicate that the first units of length were based on people s hands, feet and arms. The measurements were:

Vectors. Objectives. Assessment. Assessment. Equations. Physics terms 5/15/14. State the definition and give examples of vector and scalar variables.

Chapter 1 Units, Physical Quantities, and Vectors

Unit 2 Force and Motion

Exam 2 is at 7 pm tomorrow Conflict is at 5:15 pm in 151 Loomis

AP Physics 1 and 2 Lab Investigations

Keystone National Middle School Math Level 8 Placement Exam

Chapter 5 Using Newton s Laws: Friction, Circular Motion, Drag Forces. Copyright 2009 Pearson Education, Inc.

NEWTON S LAWS OF MOTION

PHYS 117- Exam I. Multiple Choice Identify the letter of the choice that best completes the statement or answers the question.

(1.) The air speed of an airplane is 380 km/hr at a bearing of. Find the ground speed of the airplane as well as its

Big Bend Community College. Beginning Algebra MPC 095. Lab Notebook

BHS Freshman Physics Review. Chapter 2 Linear Motion Physics is the oldest science (astronomy) and the foundation for every other science.

PS Chapter 1 Review. Name: Class: Date: Multiple Choice Identify the choice that best completes the statement or answers the question.

In order to describe motion you need to describe the following properties.

Physics: Principles and Applications, 6e Giancoli Chapter 2 Describing Motion: Kinematics in One Dimension

Physics 11 Assignment KEY Dynamics Chapters 4 & 5

Weight The weight of an object is defined as the gravitational force acting on the object. Unit: Newton (N)

The Force Table Introduction: Theory:

Exam 1 Review Questions PHY Exam 1

Physics 211 Lecture 4

WORK DONE BY A CONSTANT FORCE

Review Chapters 2, 3, 4, 5

Steps to Solving Newtons Laws Problems.

Chapter 10: Linear Kinematics of Human Movement

Physics 590 Homework, Week 6 Week 6, Homework 1

Chapter 3.8 & 6 Solutions

4.5.1 The Metric System

Lecture 07: Work and Kinetic Energy. Physics 2210 Fall Semester 2014

All About Motion - Displacement, Velocity and Acceleration

Newton s Laws of Motion

A vector is a directed line segment used to represent a vector quantity.

Student Exploration: Unit Conversions

EXERCISE # 1.Metric Measurement & Scientific Notation

CHAPTER 6 WORK AND ENERGY

Measurement: Converting Distances

EDEXCEL NATIONAL CERTIFICATE/DIPLOMA MECHANICAL PRINCIPLES AND APPLICATIONS NQF LEVEL 3 OUTCOME 1 - LOADING SYSTEMS

Lecture 6. Weight. Tension. Normal Force. Static Friction. Cutnell+Johnson: , second half of section 4.7

6. Block and Tackle* Block and tackle

of surface, , , of triangle, 548 Associative Property of addition, 12, 331 of multiplication, 18, 433

Problem Set 1 Solutions

Free Fall: Observing and Analyzing the Free Fall Motion of a Bouncing Ping-Pong Ball and Calculating the Free Fall Acceleration (Teacher s Guide)

Name Period WORKSHEET: KINETIC AND POTENTIAL ENERGY PROBLEMS. 1. Stored energy or energy due to position is known as energy.

Assessment For The California Mathematics Standards Grade 3

2After completing this chapter you should be able to

One basic concept in math is that if we multiply a number by 1, the result is equal to the original number. For example,

1.3. DOT PRODUCT If θ is the angle (between 0 and π) between two non-zero vectors u and v,

Chapter 3B - Vectors. A PowerPoint Presentation by Paul E. Tippens, Professor of Physics Southern Polytechnic State University

To Multiply Decimals

Section 10.4 Vectors

PLOTTING DATA AND INTERPRETING GRAPHS

Physics 111: Lecture 4: Chapter 4 - Forces and Newton s Laws of Motion. Physics is about forces and how the world around us reacts to these forces.

Transcription:

Name DATE Per Completion Complete each statement. TEST REVIEW 1. The two most common systems of standardized units for expressing measurements are the system and the system. 2. A picture that shows how two variables are related is called a. 3. On a graph, the independent variable is represented on the -axis. 4. The would be the most practical unit to use for expressing the time it takes to blink. 5. The metric system is easier to use because basic units are related to larger and smaller units by a factor of. 6. The dependent variable is generally plotted on the axis of a graph. 7. Arrows are used to represent vector quantities. The arrow head represents the while the arrow s length represents the. 8. Although we use many units for measuring time, for most of physical science we measure and record time in. 9. A description of how far it is from one point to another (measured in units of length) is called. 10. The variable which is plotted on the x-axis of a graph is called the variable.

Matching Match the following terms with the correct definition. There is at least one extra term that will not match any of the definitions. a. English system b. kilometers, meters, centimeters c. miles, yards, inches d. metric system (SI) e. distance f. conversion factor 11. Metric, or SI, units of length 12. Used to establish the metric standard of length, the meter 13. Length between two points 14. Measuring system used by the scientific community 15. English units of length Match the following terms with the correct definition. There is at least one extra term that will not match any of the definitions. a. vector b. magnitude c. resultant d. velocity e. scalar f. equilibrium 16. Physical quantity with both magnitude and direction 17. Physical quantity that can be described by a single value (magnitude) 18. The sum of two or more vectors 19. Size or amount of a quantity

Choose the unit of measurement from the list below that would be BEST to use when expressing a measurement in each of the following situations. Unit choices can be used once, more than once, or not at all. a. centimeter b. meter c. millimeter d. kilometer 20. The length of an Olympic-sized swimming pool 21. The width of a human hair 22. The distance from one town to another 23. The distance between a point at the top of a one-meter ramp and a point halfway down the ramp 24. The length of your foot Short Answer 25. Use the graph below to predict the speed of the car when the car is at 60 centimeters: 26. Give two examples of vector quantities and two examples of scalar quantities.

An astronaut brings her lucky horseshoe on a mission to the moon. Answer the following questions about this horseshoe. 27. Would the astronaut's lucky horseshoe weigh the same, more, or less on the moon than it did on the Earth? Explain your reasoning. 28. Would the lucky horseshoe's mass on the moon be the same, greater than, or less than the mass of the horseshoe when it is on the Earth? Explain your answer. Problem 29. Calculate the number of millimeters in 2.13 kilometers. 30. How many centimeters tall is a person who is 1.65 meters tall? 31. Convert the following quantity of time to seconds. 3:45:12 32. Calculate the number of millimeters in 3.25 meters. 33. Convert the following quantity of time to seconds:

34. Using standard notation, express 11,256 seconds in units as hours:minutes:seconds. 35. Make a drawing to illustrate your answer to the following problem: The speed of an airplane relative to the ground depends on the airplane s speed relative to the air (the airspeed) and on the direction of the wind. For example, suppose an airplane moves at an airspeed of 100 km/h. If the air is moving 30 km/h in the same direction, the speed of the plane relative to the ground is 130 km/h. A pilot flying her airplane at a speed of 90 km/h hour directly north encounters a 45 km/h wind blowing from east to west. What is her resultant velocity relative to the ground? 36. A man runs 1500. meters in 4.00 minutes. What is the speed of the man expressed in meters per second? 37. A carton weighs 5.00 pounds. If 1.00 newton equals the weight of 0.228 pounds, what is the weight of the carton in units of newtons? Essay 38. Tell why it is important to include units whenever you describe a measurement. 39. Describe how the components of a vector are most often represented graphically.

TEST REVIEW Answer Section COMPLETION 1. ANS: English, metric metric, English English, International International, English SI, English English, SI PTS: 1 DIF: basic REF: section 1.2 2. ANS: graph PTS: 1 DIF: basic REF: section 1.2 3. ANS: x horizontal PTS: 1 DIF: basic REF: section 1.2 4. ANS: second PTS: 1 DIF: basic REF: section 2.1 5. ANS: ten 10 PTS: 1 DIF: basic REF: section 2.1 6. ANS: y PTS: 1 DIF: basic REF: section 2.3 7. ANS: direction, magnitude PTS: 1 DIF: basic REF: section 7.1 8. ANS: seconds

PTS: 1 DIF: basic REF: chapter 01 section 01.1 9. ANS: distance PTS: 1 DIF: basic REF: chapter 01 section 01.1 10. ANS: independent MATCHING PTS: 1 DIF: basic REF: chapter 02 section 02.1 STA: TEKS 2C 11. ANS: B PTS: 1 DIF: basic REF: section 2.1 12. ANS: D PTS: 1 DIF: basic REF: section 2.1 13. ANS: E PTS: 1 DIF: basic REF: section 2.1 14. ANS: D PTS: 1 DIF: basic REF: section 2.1 15. ANS: C PTS: 1 DIF: basic REF: section 2.1 16. ANS: A PTS: 1 DIF: basic REF: section 7.1 17. ANS: E PTS: 1 DIF: basic REF: section 7.1 18. ANS: C PTS: 1 DIF: basic REF: section 7.1 19. ANS: B PTS: 1 DIF: basic REF: section 7.1 20. ANS: B PTS: 1 DIF: basic REF: chapter 01 section 01.1 21. ANS: C PTS: 1 DIF: basic REF: chapter 01 section 01.1 22. ANS: D PTS: 1 DIF: basic REF: chapter 01 section 01.1 23. ANS: A PTS: 1 DIF: basic REF: chapter 01 section 01.1 24. ANS: A PTS: 1 DIF: basic REF: chapter 01 section 01.1

SHORT ANSWER 25. ANS: 240 cm/s PTS: 1 DIF: intermediate REF: section 2.3 26. ANS: Answers may vary. Correct answers include: Example vectors: position, velocity, force, and acceleration Example scalars: temperature, speed, mass,and coefficients such as the spring constant or the coefficient of sliding friction PTS: 1 DIF: basic REF: section 7.1 27. ANS: The horseshoe would weigh less. Weight is a measure of the pulling force of gravity, and since the gravity exerted by the moon on the horseshoe is less (by 1/6th) than the gravity exerted by the Earth on the horseshoe, the horseshoe would actually weigh less on the moon. PTS: 1 DIF: intermediate REF: chapter 03 section 03.2 STA: TEKS 4B TEKS 3A 28. ANS: The mass of the horseshoe would be the same. Mass is a measure of the amount of matter in an object, and the amount of matter in the horseshoe does not change when it is taken from one place to another. PROBLEM PTS: 1 DIF: intermediate REF: chapter 03 section 03.2 STA: TEKS 4B TEKS 3A 29. ANS: PTS: 1 DIF: intermediate REF: section 1.2 30. ANS:

PTS: 1 DIF: intermediate REF: section 1.2 31. ANS: PTS: 1 DIF: intermediate REF: section 1.2 32. ANS: Since there are 1,000 millimeters in every meter, the conversion is made by multiplying the number of meters by the number of millimeters per meter. The meter unit factors out, leaving the answer expressed in millimeters: PTS: 1 DIF: intermediate REF: section 2.1 33. ANS: PTS: 1 DIF: intermediate REF: section 2.1 34. ANS: First, convert 11,256 seconds to the total hours: Next, subtract the whole hours from the total hours to calculate the fractional hours: Then, convert the fractional hours to total minutes: Next, subtract the whole minutes from the total minutes to calculate the fractional minutes:

Lastly, convert the fractional minutes to seconds: 0 When these calculations are written as standard notation, they appear as 3hrs:07min:36s. PTS: 1 DIF: advanced REF: section 2.2 35. ANS: The answer is 100 km/h, northwest. The speed of the plane is the resultant of the vector addition of the wind speed and the airspeed of the plane. To receive credit, the student must establish a scale and make a scale drawing representing the 90 km/h vector and the 45 km/h vector at right angles to one another. The drawing must show the resultant connecting the 45 km/h vector to the 90 km/h vector in a northwesterly direction and represent, to scale, about 100 km/h. PTS: 1 DIF: advanced REF: section 7.2 36. ANS: 4.00 minutes = 240. seconds speed = 6.25 m/sec PTS: 1 DIF: advanced REF: chapter 01 section 01.3 STA: TEKS 4A 37. ANS: ESSAY weight in newtons = 21.9 newtons PTS: 1 DIF: intermediate REF: chapter 03 section 03.1 STA: TEKS 4B

38. ANS: All measurements must include units in order for the measurement to be understood. All measurements are made by comparing one quantity with another. If a measurement is given only as a number it is impossible to tell which quantity is being used for comparison.therefore, the size of the quantity which is being described cannot be determined. PTS: 1 DIF: basic REF: section 1.2 39. ANS: To represent the components graphically, draw the vector as an arrow of appropriate length at the specified angle. Draw a vertical and a horizontal arrow from the tail of the vector. Connect these arrows to the head of the original vector with another pair of vertical and horizontal arrows. The heads of all arrows drawn should point away from the tail and toward the head of the original vector. The sides of the rectangle formed represent the size of the components. The heads of the arrows represent the direction. PTS: 1 DIF: advanced REF: section 7.1