Size: px
Start display at page:

Download ""

Transcription

1 Today in this class Chap.2, Sec.1-7 Motion along a straight line 1. Position and displacement Acceleration Example: Motion with a constant acceleration

2 Position and displacement Motion A lot of things move! Motion One of the main topics in Physics 105 Let s start with the simplest kind of motions. Motion along a straight line (title for Ch.2) (i.e., 1-dimensional motion) Position and displacement Straight line Straight line can be oriented along any direction: Horizontal, vertical, or at some angle

3 Position and displacement Position What is motion? Change of position over time How to represent position along a straight line: define: x 0 some position (Origin) positive direction for x length unit, e.g., meter Position of ball: x +3 m Position and displacement Concept of vector Vector: Quantity with both magnitude and direction (Ex) Position, Displacement, Velocity, Acceleration : Vectors Mass : Not vector For the motion along a straight line (1-dimensional case) the direction is represented simply by + and - signs Vectors in plane(2d) or space(3d) : Ch.3, next lecture

4 Position and displacement Displacement Displacement : Change in position x 2-2 m x 1 +3 m (Displacement) x -5 m + or sign represents direction Length unit, e.g., meter x(t) : position as a function of time Define time : t0 and time unit, e.g., second x 0 x 2 m t (s) x (m) x -6 m

5 Average velocity, v avg (Average velocity between time t 1 and t 2 ) v avg x( t ) x( t ) x x Ex.) t2 t1 t2 t1 x 4.4 m 1.6 m 6.0 m t 8.0 s 2.0 s 6.0 s v avg x 6.0m 1.0 m/ s t 6.0s x t Unit : [Length]/[Time], e.g., m/s (Displacement) Average velocity, v avg (Average velocity between time t 1 and t 2 ) v avg x( t ) x( t ) x x Ex.) t2 t1 t2 t1 x 4.4 m 1.6 m 6.0 m t 8.0 s 2.0 s 6.0 s v avg x 6.0m 1.0 m/ s t 6.0s Slope of the green line x t (Displacement)

6 Average speed, s avg (Average speed between time t 1 and t 2 ) s avg (Total distance) Distance & s avg : always positive, no direction Not a vector In general, Average speed Average velocity Example: X0 km x 50 km t 0 min Average speed, s avg (Average speed between time t 1 and t 2 ) s avg (Total distance) Distance & s avg : always positive, no direction Not a vector In general, Average speed Average velocity Example: X0 km x 50 km t 50 min

7 Average speed, s avg (Average speed between time t 1 and t 2 ) s avg (Total distance) Distance & s avg : always positive, no direction Not a vector In general, Average speed Average velocity Example: X0 km x 50 km t 50 min Average speed, s avg (Average speed between time t 1 and t 2 ) s avg (Total distance) Distance & s avg : always positive, no direction Not a vector In general, Average speed Average velocity Example: X0 km x 50 km t 100 min

8 Average speed, s avg (Average speed between time t 1 and t 2 ) s avg (Total distance) Distance & s avg : always positive, no direction Not a vector In general, Average speed Average velocity Example: Between t0 and 100 min (Total displacement)0, (Avg. velocity)0 X0 km x 50 km t 100 min Average speed, s avg (Average speed between time t 1 and t 2 ) s avg (Total distance) Distance & s avg : always positive, no direction Not a vector In general, Average speed Average velocity Example: Between t0 and 100 min (Total distance)100 km, (Avg. speed)1 km/min X0 km x 50 km t 100 min

9 Instantaneous velocity, or velocity How fast at a given time t Instantaneous velocity, or simply, velocity x( t+ t) x( t) dx vt () lim t dt t 0 Vector with + or - sign Slope of tangential line at t in x vs. t curve Rate of change in position Velocity from x vs. t curve Example: Elevator Position (m) Time (s) Velocity (m/s) Time (s)

10 Speed Speed : Magnitude of velocity Example: Speedometer of your car speed, not velocity Acceleration Average acceleration, a avg Instantaneous acceleration(or acceleration), a (Average acceleration between time t 1 and t 2 ) a avg vt ( 2) vt ( 1) v2 v1 v t t t t t (Velocity change) Instantaneous acceleration (or acceleration) at time t vt ( + t) vt ( ) dv at () lim t dt t 0 Unit: (m/s)/sm/s 2 : [Length]/[Time] 2 + or sign : direction vector 2 d dx d x dt dt 2 dt

11 Acceleration Acceleration from v vs. t curve Example: Elevator Acceleration (slope of tangential line in v vs. t curve) Velocity (m/s) Acceleration (m/s 2 ) Time (s) Example: Motion with a constant acceleration Very common! Free fall of objects : a-9.8 m/s 2, when + means upward. Acceleration of a stopped car or elevator until it reaches constant velocity : Approximately, constant. Deceleration of a moving car or elevator until it stops : Approximately, constant.

12 Motion with a constant acceleration Example of x vs. t v vs. t a vs. t graphs x t v t a t Example: Motion with a constant acceleration General form of a(t), v(t), x(t) Given : a(t)constanta v(t0)v 0, x(t0)x 0 Initial condition vt () v a a 0 avg vt () v t 0 0 at v v0 + a t x() t x v 0 avg xt () x t 0 0 vavg t x x0 + vavg t Since velocity changes at a constant rate, vavg ( v+ v0 )/2 v v0 ( v0 at) v0 2v0 at x x + 0 t x t x t x x0 + v0t+ at 2

13 Example: Motion with a constant acceleration Relations between x and v Given : a(t)constanta v(t0)v 0, x(t)x 0 Initial condition a a avg vt () v t 0 0 v v0 ( v0 at) v0 2v0 at x x + 0 t x t x t Example: Motion with a constant acceleration Relations between x and v Given : vt () v a aavg t 0 a(t)constanta v(t0)v 0, x(t)x 0 Initial condition 0 v v at v v0 t 0 v v0 ( v0 at) 0 2 at x x + 0 t x + + ( v+ v0) ( v v0 0 t x + ) + + x x 0 + t a v vv0 + v0v v0 v v 0 2a 2a a v v 2 a( x x )

14 Example: Motion with a constant acceleration Relations between v and t, x and t, x and v Given : a(t)constanta v(t0)v 0, x(t)x 0 Initial condition v and t : x and t : v v0 + a t 1 x x0 + v0t+ at 2 2 v and x : v v 2 a( x x ) Free Fall Y Y 0 g Y0

15 + Today, we learned

16 Motion along a straight line -the simplest type of motion Position: x(t) meters Velocity: v(t) meters/second Acceleration: a(t) meters/second 2 All are vectors: have direction and magnitude. Motion with a constant acceleration Relations between v and t, x and t, x and v Given : a(t)constanta v(t0)v 0, x(t)x 0 Initial condition v and t : x and t : v v0 + a t 1 x x0 + v0t+ at 2 2 Very very important!!! v and x : v v 2 a( x x )

17 Homework : U Texas Homework service Ch.1, due Jan 26 Fri Ch2. Due Feb 2 Fri Quiz for ch.2: Feb 1 Reading assignment : Ch.2 (Sec. 1~7, Sec.9) Quiz #1 Chapter 1: Measurement SI unit, changing units, length, mass, time Honor Code violations NJIT has a zero-tolerance policy regarding cheating of any kind. Any incidents will be immediately reported to the Dean of Freshman Studies. In the cases the Honor Code violations are detected, the punishments range from a minimum of failure in the course plus disciplinary probation up to expulsion from NJIT with notations on students' permanent record. Avoid situations where honorable behavior could be misinterpreted.

Physics 101 Lecture 3 Motion in 1D Dr. Ali ÖVGÜN

Physics 101 Lecture 3 Motion in 1D Dr. Ali ÖVGÜN Physics 101 Lecture 3 Motion in 1D Dr. Ali ÖVGÜN EMU Physics Department Motion along a straight line q Motion q Position and displacement q Average velocity and average speed q Instantaneous velocity and

More information

Motion along a straight line. Lecture 2. Motion along a straight line. Motion. Physics 105; Summer 2006

Motion along a straight line. Lecture 2. Motion along a straight line. Motion. Physics 105; Summer 2006 Lecture 2 Motion along a straight line (HR&W, Chapter 2) Physics 105; Summer 2006 Motion along a straight line Motion Position and Displacement Average velocity and average speed Instantaneous velocity

More information

VELOCITY. If you have a graph of position and you take the derivative, what would the derivative represent? Position. Time

VELOCITY. If you have a graph of position and you take the derivative, what would the derivative represent? Position. Time VELOCITY If you have a graph of position and you take the derivative, what would the derivative represent? Position Time Average rate of Change What is the average rate of change of temperature over the

More information

Chapter 2: Motion along a straight line

Chapter 2: Motion along a straight line Chapter 2: Motion along a straight line This chapter uses the definitions of length and time to study the motions of particles in space. This task is at the core of physics and applies to all objects irregardless

More information

Chapter 2. Motion along a Straight Line

Chapter 2. Motion along a Straight Line Chapter 2 Motion along a Straight Line 1 2.1 Motion Everything in the universe, from atoms to galaxies, is in motion. A first step to study motion is to consider simplified cases. In this chapter we study

More information

Motion along a straight line. Physics 11a. 4 Basic Quantities in Kinematics. Motion

Motion along a straight line. Physics 11a. 4 Basic Quantities in Kinematics. Motion Physics 11a Motion along a straight line Motion Position and Average velocity and average speed Instantaneous velocity and speed Acceleration Constant acceleration: A special case Free fall acceleration

More information

CEE 271: Applied Mechanics II, Dynamics Lecture 1: Ch.12, Sec.1-3h

CEE 271: Applied Mechanics II, Dynamics Lecture 1: Ch.12, Sec.1-3h 1 / 30 CEE 271: Applied Mechanics II, Dynamics Lecture 1: Ch.12, Sec.1-3h Prof. Albert S. Kim Civil and Environmental Engineering, University of Hawaii at Manoa Tuesday, August 21, 2012 2 / 30 INTRODUCTION

More information

a. Determine the sprinter's constant acceleration during the first 2 seconds.

a. Determine the sprinter's constant acceleration during the first 2 seconds. AP Physics 1 FR Practice Kinematics 1d 1 The first meters of a 100-meter dash are covered in 2 seconds by a sprinter who starts from rest and accelerates with a constant acceleration. The remaining 90

More information

A B C D. Unit 6 (1-Dimensional Motion) Practice Assessment

A B C D. Unit 6 (1-Dimensional Motion) Practice Assessment Unit 6 (1-Dimensional Motion) Practice Assessment Choose the best answer to the following questions. Indicate the confidence in your answer by writing C (Confident), S (So-so), or G (Guessed) next to the

More information

Chapter 2 Motion Along A Straight Line

Chapter 2 Motion Along A Straight Line Chapter 2 Motion Along A Straight Line Kinematics: Description of Motion Motion in one dimension (1-D) Motion of point particles Treat larger objects as particles center of mass Chapter 2 Motion in 1-D

More information

Horizontal Motion 1 An object is said to be at rest, if the position of the object does not change with time with respect to its surroundings An object is said to be in motion, if its position changes

More information

Physics I Exam 1 Fall 2014 (version A)

Physics I Exam 1 Fall 2014 (version A) 95.141 Physics I Exam 1 Fall 014 (version A) Section Number Section instructor Last/First Name (print) / Last 3 Digits of Student ID Number: Answer all questions, beginning each new question in the space

More information

Definitions. Mechanics: The study of motion. Kinematics: The mathematical description of motion in 1-D and 2-D motion.

Definitions. Mechanics: The study of motion. Kinematics: The mathematical description of motion in 1-D and 2-D motion. Lecture 2 Definitions Mechanics: The study of motion. Kinematics: The mathematical description of motion in 1-D and 2-D motion. Dynamics: The study of the forces that cause motion. Chapter Outline Consider

More information

KINEMATICS IN ONE DIMENSION p. 1

KINEMATICS IN ONE DIMENSION p. 1 KINEMATICS IN ONE DIMENSION p. 1 Motion involves a change in position. Position can be indicated by an x-coordinate on a number line. ex/ A bumblebee flies along a number line... x = 2 when t = 1 sec 2

More information

AP Physics Free Response Practice Kinematics ANSWERS 1982B1 2

AP Physics Free Response Practice Kinematics ANSWERS 1982B1 2 AP Physics Free Response Practice Kinematics ANSWERS 198B1 a. For the first seconds, while acceleration is constant, d = ½ at Substituting the given values d = 10 meters, t = seconds gives a = 5 m/s b.

More information

Lecture 2- Linear Motion Chapter 10

Lecture 2- Linear Motion Chapter 10 1 / 37 Lecture 2- Linear Motion Chapter 10 Instructor: Prof. Noronha-Hostler Course Administrator: Prof. Roy Montalvo PHY-123 ANALYTICAL PHYSICS IA Phys- 123 Sep. 12 th, 2018 Contact Already read the syllabus

More information

2.2 Average vs. Instantaneous Description

2.2 Average vs. Instantaneous Description 2 KINEMATICS 2.2 Average vs. Instantaneous Description Name: 2.2 Average vs. Instantaneous Description 2.2.1 Average vs. Instantaneous Velocity In the previous activity, you figured out that you can calculate

More information

9/4/2017. Motion: Acceleration

9/4/2017. Motion: Acceleration Velocity Velocity (m/s) Position Velocity Position 9/4/217 Motion: Acceleration Summary Last : Find your clicker! Scalars: Distance, Speed Vectors: Position velocity Speed = Distance covered/time taken

More information

Physics I Exam 1 Spring 2015 (version A)

Physics I Exam 1 Spring 2015 (version A) 95.141 Physics I Exam 1 Spring 015 (version A) Section Number Section instructor Last/First Name (PRINT) / Last 3 Digits of Student ID Number: Answer all questions, beginning each new question in the space

More information

Course Name : Physics I Course # PHY 107. Note - 3 : Motion in One Dimension

Course Name : Physics I Course # PHY 107. Note - 3 : Motion in One Dimension Course Name : Physics I Course # PHY 107 Note - 3 : Motion in One Dimension Abu Mohammad Khan Department of Mathematics and Physics North South University https://abukhan.weebly.com Copyright: It is unlawful

More information

Calculus Review. v = x t

Calculus Review. v = x t Calculus Review Instructor : Kim 1. Average Rate of Change and Instantaneous Velocity To find the average velocity(v ) of a particle, we need to find the particle s displacement (=change in position) divided

More information

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

DESCRIBING MOTION: KINEMATICS IN ONE DIMENSION. AP Physics Section 2-1 Reference Frames and Displacement DESCRIBING MOTION: KINEMATICS IN ONE DIMENSION AP Physics Section 2-1 Reference Frames and Displacement Model the velocity of the ball from the time it leaves my hand till the time it hits the ground?

More information

Motion Along a Straight Line (Motion in One-Dimension)

Motion Along a Straight Line (Motion in One-Dimension) Chapter 2 Motion Along a Straight Line (Motion in One-Dimension) Learn the concepts of displacement, velocity, and acceleration in one-dimension. Describe motions at constant acceleration. Be able to graph

More information

Motion Along a Straight Line

Motion Along a Straight Line Chapter 2 Motion Along a Straight Line PowerPoint Lectures for University Physics, Twelfth Edition Hugh D. Young and Roger A. Freedman Lectures by James Pazun Copyright 2008 Pearson Education Inc., publishing

More information

Motion Section 3 Acceleration

Motion Section 3 Acceleration Section 3 Acceleration Review velocity Scan Use the checklist below to preview Section 3 of your book. Read all section titles. Read all boldfaced words. Read all graphs and equations. Look at all the

More information

Measuring Motion. Day 1

Measuring Motion. Day 1 Measuring Motion Day 1 Objectives I will identify the relationship between motion and a reference point I will identify the two factors that speed depends on I will determine the difference between speed

More information

Welcome Back to Physics 215!

Welcome Back to Physics 215! Welcome Back to Physics 215! (General Physics I) Thurs. Jan 18 th, 2018 Lecture01-2 1 Last time: Syllabus Units and dimensional analysis Today: Displacement, velocity, acceleration graphs Next time: More

More information

Kinematics Motion in 1-Dimension

Kinematics Motion in 1-Dimension Kinematics Motion in 1-Dimension Lana Sheridan De Anza College Jan 16, 2018 Last time unit conversions (non-si units) order of magnitude calculations how to solve problems Overview 1-D kinematics quantities

More information

One Dimensional Motion (Motion in a Straight Line)

One Dimensional Motion (Motion in a Straight Line) One Dimensional Motion (Motion in a Straight Line) Chapter MOTION QUANTITIES 1 Kinematics - Intro Mechanics generally consists of two parts: Kinematics and Dynamics. Mechanics Kinematics Description of

More information

Which car/s is/are undergoing an acceleration?

Which car/s is/are undergoing an acceleration? Which car/s is/are undergoing an acceleration? Which car experiences the greatest acceleration? Match a Graph Consider the position-time graphs below. Each one of the 3 lines on the position-time graph

More information

Part I: Review Data Tables & Graphing Part II: Speed Acceleration

Part I: Review Data Tables & Graphing Part II: Speed Acceleration Part I: Review Data Tables & Graphing Part II: Speed Acceleration A Standard Data table consist of two columns. The left-hand column contains the values for the Independent Variable in numerical order.

More information

Antiderivatives. Definition A function, F, is said to be an antiderivative of a function, f, on an interval, I, if. F x f x for all x I.

Antiderivatives. Definition A function, F, is said to be an antiderivative of a function, f, on an interval, I, if. F x f x for all x I. Antiderivatives Definition A function, F, is said to be an antiderivative of a function, f, on an interval, I, if F x f x for all x I. Theorem If F is an antiderivative of f on I, then every function of

More information

Kinematics Motion in 1-Dimension

Kinematics Motion in 1-Dimension Kinematics Motion in 1-Dimension Lana Sheridan De Anza College Jan 15, 219 Last time how to solve problems 1-D kinematics Overview 1-D kinematics quantities of motion graphs of kinematic quantities vs

More information

Physics 201, Lecture 2. The Big Picture. Kinematics: Position and Displacement. Today s Topics

Physics 201, Lecture 2. The Big Picture. Kinematics: Position and Displacement. Today s Topics Physics 01, Lecture Today s Topics n Kinematics (Chap..1-.) n Position, Displacement (, and distance) n Time and Time Interval n Velocity (, and speed) n Acceleration *1-Dimension for today,,3-d later.

More information

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

Lecture 2. 1D motion with Constant Acceleration. Vertical Motion. Lecture 2 1D motion with Constant Acceleration. Vertical Motion. Types of motion Trajectory is the line drawn to track the position of an abject in coordinates space (no time axis). y 1D motion: Trajectory

More information

Distance vs. Displacement, Speed vs. Velocity, Acceleration, Free-fall, Average vs. Instantaneous quantities, Motion diagrams, Motion graphs,

Distance vs. Displacement, Speed vs. Velocity, Acceleration, Free-fall, Average vs. Instantaneous quantities, Motion diagrams, Motion graphs, Distance vs. Displacement, Speed vs. Velocity, Acceleration, Free-fall, Average vs. Instantaneous quantities, Motion diagrams, Motion graphs, Kinematic formulas. A Distance Tells how far an object is from

More information

Physics 1110: Mechanics

Physics 1110: Mechanics Physics 1110: Mechanics Announcements: CAPA set available in bins. Lectures can be found at the Course Calendar link. Written homework #1 (on website) due at beginning of recitation. The Moving Man simulation

More information

Chap. 3 MATH Annalisa Quaini Office : PGH 662 Lecture : MWF 11AM-12PM Office hours : W 8AM-10AM

Chap. 3 MATH Annalisa Quaini Office : PGH 662 Lecture : MWF 11AM-12PM Office hours : W 8AM-10AM Chap. 3 MATH 1431-18319 Annalisa Quaini quaini@math.uh.edu Office : PGH 662 Lecture : MWF 11AM-12PM Office hours : W 8AM-10AM Daily quiz 6 is due on Friday at 11 AM. Exam 1 is coming - check the scheduler

More information

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

A. VOCABULARY REVIEWS On the line, write the term that correctly completes each statement. Use each term once. PART III. KINEMATICS A. VOCABULARY REVIEWS On the line, write the term that correctly completes each statement. Use each term once. 1. rise (Δy) The vertical separation of any two points on a curve is

More information

If we plot the position of a moving object at increasing time intervals, we get a position time graph. This is sometimes called a distance time graph.

If we plot the position of a moving object at increasing time intervals, we get a position time graph. This is sometimes called a distance time graph. Physics Lecture #2: Position Time Graphs If we plot the position of a moving object at increasing time intervals, we get a position time graph. This is sometimes called a distance time graph. Suppose a

More information

MOTION. Chapter 2: Sections 1 and 2

MOTION. Chapter 2: Sections 1 and 2 MOTION Chapter 2: Sections 1 and 2 Vocab: Ch 2.1-2.2 Distance Displacement Speed Average speed Instantaneous speed Velocity Acceleration Describing Motion Motion is an object s change in position relative

More information

Chapter 2: 1D Kinematics

Chapter 2: 1D Kinematics Chapter 2: 1D Kinematics Description of motion involves the relationship between position, displacement, velocity, and acceleration. A fundamental goal of 1D kinematics is to determine x(t) if given initial

More information

Welcome Back to Physics 211!

Welcome Back to Physics 211! Welcome Back to Physics 211! (General Physics I) Thurs. Aug 30 th, 2012 Physics 211 -Fall 2012 Lecture01-2 1 Last time: Syllabus, mechanics survey Particle model Today: Using your clicker 1D displacement,

More information

Motion Chapter 3, Section 1: Distance, Displacement, Speed, Velocity

Motion Chapter 3, Section 1: Distance, Displacement, Speed, Velocity 3 Motion Chapter 3, Section 1: Distance, Displacement, Speed, Velocity Distance An important part of describing the motion of an object is to describe how far it has moved, which is distance. The SI unit

More information

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

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

More information

INTRODUCTION & RECTILINEAR KINEMATICS: CONTINUOUS MOTION

INTRODUCTION & RECTILINEAR KINEMATICS: CONTINUOUS MOTION INTRODUCTION & RECTILINEAR KINEMATICS: CONTINUOUS MOTION (Sections 12.1-12.2) Today s Objectives: Students will be able to find the kinematic quantities (position, displacement, velocity, and acceleration)

More information

HRW 7e Chapter 2 Page 1 of 13

HRW 7e Chapter 2 Page 1 of 13 HRW 7e Chapter Page of 3 Halliday/Resnick/Walker 7e Chapter. Huber s speed is v 0 =(00 m)/(6.509 s)=30.7 m/s = 0.6 km/h, where we have used the conversion factor m/s = 3.6 km/h. Since Whittingham beat

More information

2. (a) Using the fact that time = distance/velocity while the velocity is constant, we find m 73.2 m 1.74 m/s m 73.2 m v m. 1.

2. (a) Using the fact that time = distance/velocity while the velocity is constant, we find m 73.2 m 1.74 m/s m 73.2 m v m. 1. Chapter. The speed (assumed constant) is v = (9 km/h)( m/km) (36 s/h) = 5 m/s. Thus, in.5 s, the car travels a distance d = vt = (5 m/s)(.5 s) 3 m.. (a) Using the fact that time = distance/velocity while

More information

Please read for extra test points: Thanks for reviewing the notes you are indeed a true scholar!

Please read for extra test points: Thanks for reviewing the notes you are indeed a true scholar! Please read for extra test points: Thanks for reviewing the notes you are indeed a true scholar! See me any time B4 school tomorrow and mention to me that you have reviewed your integration notes and you

More information

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

Lecture 2. 1D motion with Constant Acceleration. Vertical Motion. Lecture 2 1D motion with Constant Acceleration. Vertical Motion. Types of motion Trajectory is the line drawn to track the position of an abject in coordinates space (no time axis). y 1D motion: Trajectory

More information

Chapter 3 Linear Motion

Chapter 3 Linear Motion Lecture 3 Chapter 3 Linear Motion (Motion in a straight line, such as falling straight downward) Some material courtesy Prof. A. Garcia, SJSU Help sessions Announcements M 1600-1700 in TH116 (A. Kelly)

More information

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

Planning Ahead. Homework set 1 due W Save your chicken bones for lab on week 6 Level III: Motion graphs No class next Monday Planning Ahead Homework set 1 due W-9-12-18 Save your chicken bones for lab on week 6 Level III: Motion graphs No class next Monday Planning Ahead Lecture Outline I. Physics Solution II. Visualization

More information

Kinematics Kinematic Equations and Falling Objects

Kinematics Kinematic Equations and Falling Objects Kinematics Kinematic Equations and Falling Objects Lana Sheridan De Anza College Sept 28, 2017 Last time kinematic quantities relating graphs Overview derivation of kinematics equations using kinematics

More information

Physics 103 Laboratory Fall Lab #2: Position, Velocity and Acceleration

Physics 103 Laboratory Fall Lab #2: Position, Velocity and Acceleration Physics 103 Laboratory Fall 011 Lab #: Position, Velocity and Acceleration Introduction In this lab, we will study one-dimensional motion looking at position (x), velocity (v) and acceleration (a) which

More information

Chapter 3. Motion in One Dimension

Chapter 3. Motion in One Dimension Chapter 3 Motion in One Dimension Outline 3.1 Position, Velocity and Speed 3.2 Instantaneous Velocity and Speed 3.3 Acceleration 3.4 Motion Diagrams 3.5 One-Dimensional Motion with Constant Acceleration

More information

Welcome Back to Physics 211!

Welcome Back to Physics 211! Welcome Back to Physics 211! (General Physics I) Thurs. Aug 30 th, 2012 Physics 211 -Fall 2014 Lecture01-2 1 Last time: Syllabus, mechanics survey Unit conversions Today: Using your clicker 1D displacement,

More information

The Basics of Physics with Calculus Part II. AP Physics C

The Basics of Physics with Calculus Part II. AP Physics C The Basics of Physics with Calculus Part II AP Physics C The AREA We have learned that the rate of change of displacement is defined as the VELOCITY of an object. Consider the graph below v v t lim 0 dx

More information

Wednesday 9/27. Please open quizizz

Wednesday 9/27. Please open quizizz Wednesday 9/27 Please open quizizz Graphing Acceleration VT Graphs VELOCITY m/s VELOCITY TIME GRAPHS Moving in a positive direction, SPEEDING UP Constant speed NO ACCELERATION Moving in a positive direction,

More information

Introduction to Mechanics Kinematics Equations

Introduction to Mechanics Kinematics Equations Introduction to Mechanics Kinematics Equations Lana Sheridan De Anza College Jan, 018 Last time more practice with graphs introduced the kinematics equations Overview rest of the kinematics equations derivations

More information

Lecture 16 ME 231: Dynamics

Lecture 16 ME 231: Dynamics Kinematics of Particles (Ch. 2) Review Lecture 16 Question of the Day What is the most important concept in Chapter 2? Time Derivative of a Vector 2 Outline for Today Question of the day Where are we in

More information

Chapter 1 Problem 28: Agenda. Quantities in Motion. Displacement Isn t Distance. Velocity. Speed 1/23/14

Chapter 1 Problem 28: Agenda. Quantities in Motion. Displacement Isn t Distance. Velocity. Speed 1/23/14 Agenda We need a note-taker! If you re interested, see me after class. Today: HW Quiz #1, 1D Motion Lecture for this week: Chapter 2 (finish reading Chapter 2 by Thursday) Homework #2: continue to check

More information

Course Name : Physics I Course # PHY 107

Course Name : Physics I Course # PHY 107 Course Name : Physics I Course # PHY 107 Notes-3 : Motion in One Dimensions Abu Mohammad Khan Department of Mathematics and Physics North South University http://abukhan.weebly.com Copyright: It is unlawful

More information

Particle Motion. Typically, if a particle is moving along the x-axis at any time, t, x()

Particle Motion. Typically, if a particle is moving along the x-axis at any time, t, x() Typically, if a particle is moving along the x-axis at any time, t, x() t represents the position of the particle; along the y-axis, yt () is often used; along another straight line, st () is often used.

More information

James T. Shipman Jerry D. Wilson Charles A. Higgins, Jr. Omar Torres. Chapter 2 Motion Cengage Learning

James T. Shipman Jerry D. Wilson Charles A. Higgins, Jr. Omar Torres. Chapter 2 Motion Cengage Learning James T. Shipman Jerry D. Wilson Charles A. Higgins, Jr. Omar Torres Chapter 2 Motion Defining Motion Motion is a continuous change in position can be described by measuring the rate of change of position

More information

Trigonometry I. Pythagorean theorem: WEST VIRGINIA UNIVERSITY Physics

Trigonometry I. Pythagorean theorem: WEST VIRGINIA UNIVERSITY Physics Trigonometry I Pythagorean theorem: Trigonometry II 90 180 270 360 450 540 630 720 sin(x) and cos(x) are mathematical functions that describe oscillations. This will be important later, when we talk about

More information

Math 1431 DAY 14. Be considerate of others in class. Respect your friends and do not distract anyone during the lecture.

Math 1431 DAY 14. Be considerate of others in class. Respect your friends and do not distract anyone during the lecture. Math 1431 DAY 14 BUBBLE IN PS ID VERY CAREFULLY! If you make a bubbling mistake, your scantron will not be saved in the system and you will not get credit for it even if you turned it in. Be considerate

More information

Summary of motion graphs Object is moving to the right (in positive direction) v = 0 a = 0

Summary of motion graphs Object is moving to the right (in positive direction) v = 0 a = 0 Summary of motion graphs Object is moving to the right (in positive direction) Object at rest (not moving) Position is constant v (m/s) a (m/s 2 ) v = 0 a = 0 Constant velocity Position increases at constant

More information

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

AP Physics C: Mechanics Ch. 2 Motion. SHORT ANSWER. Write the word or phrase that best completes each statement or answers the question. Name: Period: Date: AP Physics C: Mechanics Ch. Motion SHORT ANSWER. Write the word or phrase that best completes each statement or answers the question. ) Car A is traveling at twice the speed of car

More information

2.1. Model: The car is represented by the particle model as a dot.

2.1. Model: The car is represented by the particle model as a dot. Chapter Physics.. Model: The car is represented by the particle model as a dot. Solve: (a) Time t (s) Position x (m) 0 00 975 85 3 750 4 700 5 650 6 600 7 500 8 300 9 0 (b).8. Model: The bicyclist is a

More information

Math 1431 DAY 14. Be considerate of others in class. Respect your friends and do not distract anyone during the lecture.

Math 1431 DAY 14. Be considerate of others in class. Respect your friends and do not distract anyone during the lecture. Math 1431 DAY 14 BUBBLE IN PS ID VERY CAREFULLY! If you make a bubbling mistake, your scantron will not be saved in the system and you will not get credit for it even if you turned it in. Be considerate

More information

CURVILINEAR MOTION: NORMAL AND TANGENTIAL COMPONENTS

CURVILINEAR MOTION: NORMAL AND TANGENTIAL COMPONENTS CURVILINEAR MOTION: NORMAL AND TANGENTIAL COMPONENTS Today s Objectives: Students will be able to: 1. Determine the normal and tangential components of velocity and acceleration of a particle traveling

More information

Physic 231 Lecture 3. Main points of today s lecture. for constant acceleration: a = a; assuming also t0. v = lim

Physic 231 Lecture 3. Main points of today s lecture. for constant acceleration: a = a; assuming also t0. v = lim Physic 231 Lecture 3 Main points of today s lecture Δx v = ; Δ t = t t0 for constant acceleration: a = a; assuming also t0 = 0 Δ x = v v= v0 + at Δx 1 v = lim Δ x = Δ t 0 ( v+ vo ) t 2 Δv 1 2 a = ; Δ v=

More information

Logarithmic Differentiation (Sec. 3.6)

Logarithmic Differentiation (Sec. 3.6) Logarithmic Differentiation (Sec. 3.6) Logarithmic Differentiation Use logarithmic differentiation if you are taking the derivative of a function whose formula has a lot of MULTIPLICATION, DIVISION, and/or

More information

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

2/18/2019. Position-versus-Time Graphs. Below is a motion diagram, made at 1 frame per minute, of a student walking to school. Position-versus-Time Graphs Below is a motion diagram, made at 1 frame per minute, of a student walking to school. A motion diagram is one way to represent the student s motion. Another way is to make

More information

Linear Motion. By Jack, Cole, Kate and Linus

Linear Motion. By Jack, Cole, Kate and Linus Linear Motion By Jack, Cole, Kate and Linus What is it? -Linear Motion is the study of motion, Kinematics, and Dynamics Motion Motion is dependent on the reference frame in which you are observing. If

More information

Chapter 2. Motion along a straight line

Chapter 2. Motion along a straight line Chapter 2 Motion along a straight line Introduction: Study of the motion of objects Physics studies: Properties of matter and energy: solid state physics, thermal physics/ thermodynamics, atomic physics,

More information

Chapter 3: Introduction to Motion

Chapter 3: Introduction to Motion Chapter 3: Introduction to Motion Motion... Particle Models Vectors vs. Scalars Position, Displacement and Distance Velocity vs. Speed Instantaneous vs. Average Acceleration start time Particle motion

More information

Kinematics Kinematic Equations and Falling Objects

Kinematics Kinematic Equations and Falling Objects Kinematics Kinematic Equations and Falling Objects Lana Sheridan De Anza College Sept 28, 2017 Last time kinematic quantities relating graphs Overview derivation of kinematics equations using kinematics

More information

Physics 201, Lecture 3

Physics 201, Lecture 3 Physics 201, Lecture 3 Today s Topics n Motion in One Dimension (chap 2) n n n One Dimensional Kinematics Kinematics of Constant Acceleration The Fun of Free Fall q Expected from Preview: Displacement,

More information

Without fully opening the exam, check that you have pages 1 through 11.

Without fully opening the exam, check that you have pages 1 through 11. Name: Section: Recitation Instructor: INSTRUCTIONS Fill in your name, etc. on this first page. Without fully opening the exam, check that you have pages through. Show all your work on the standard response

More information

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

Speed how fast an object is moving (also, the magnitude of the velocity) scalar Mechanics Recall Mechanics Kinematics Dynamics Kinematics The description of motion without reference to forces. Terminology Distance total length of a journey scalar Time instant when an event occurs

More information

1. (a) As the man continues to remain at the same place with respect to the gym, it is obvious that his net displacement is zero.

1. (a) As the man continues to remain at the same place with respect to the gym, it is obvious that his net displacement is zero. . (a) As the man continues to remain at the same place with respect to the gym, it is obvious that his net displacement is zero. (b) In 5 min, the average velocity is v avg ( x x ) 0.0 0.0 = = = 0.0. (

More information

CHAPTER 9 MOTION ALONG A STRAIGHT LINE FORM 5 PAPER 2

CHAPTER 9 MOTION ALONG A STRAIGHT LINE FORM 5 PAPER 2 PPER. particle moves in a straight line and passes through a fixed point O, with a velocity of m s. Its acceleration, a m s, t seconds after passing through O is given by a 8 4t. The particle stops after

More information

Physics 1A, Lecture 3: One Dimensional Kinema:cs Summer Session 1, 2011

Physics 1A, Lecture 3: One Dimensional Kinema:cs Summer Session 1, 2011 Your textbook should be closed, though you may use any handwrieen notes that you have taken. You will use your clicker to answer these ques:ons. If you do not yet have a clicker, please turn in your answers

More information

Unit 1 Parent Guide: Kinematics

Unit 1 Parent Guide: Kinematics Unit 1 Parent Guide: Kinematics Kinematics is the study of the motion of objects. Scientists can represent this information in the following ways: written and verbal descriptions, mathematically (with

More information

Chapter 2. Preview. Objectives One Dimensional Motion Displacement Average Velocity Velocity and Speed Interpreting Velocity Graphically

Chapter 2. Preview. Objectives One Dimensional Motion Displacement Average Velocity Velocity and Speed Interpreting Velocity Graphically Section 1 Displacement and Velocity Preview Objectives One Dimensional Motion Displacement Average Velocity Velocity and Speed Interpreting Velocity Graphically Section 1 Displacement and Velocity Objectives

More information

( ) 4 and 20, find the value. v c is equal to this average CALCULUS WORKSHEET 1 ON PARTICLE MOTION

( ) 4 and 20, find the value. v c is equal to this average CALCULUS WORKSHEET 1 ON PARTICLE MOTION CALCULUS WORKSHEET 1 ON PARTICLE MOTION Work these on notebook paper. Use your calculator only on part (f) of problems 1. Do not use your calculator on the other problems. Write your justifications in

More information

Common Exam 3, Friday, April 13, :30 9:45 A.M. at KUPF 205 Chaps. 6, 7, 8. HW #8 and HW #9: Due tomorrow, April 6 th (Fri)

Common Exam 3, Friday, April 13, :30 9:45 A.M. at KUPF 205 Chaps. 6, 7, 8. HW #8 and HW #9: Due tomorrow, April 6 th (Fri) Common Exam 3, Friday, April 13, 2007 8:30 9:45 A.M. at KUPF 205 Chaps. 6, 7, 8 Bring calculators (Arrive by 8:15) HW #8 and HW #9: Due tomorrow, April 6 th (Fri) Today. Chapter 8 Hints for HW #9 Quiz

More information

Chapter 2: Kinematics

Chapter 2: Kinematics Section 1 Chapter 2: Kinematics To simplify the concept of motion, we will first consider motion that takes place in one direction. To measure motion, you must choose a frame of reference. Frame of reference

More information

Interactive Engagement via Thumbs Up. Today s class. Next class. Chapter 2: Motion in 1D Example 2.10 and 2.11 Any Question.

Interactive Engagement via Thumbs Up. Today s class. Next class. Chapter 2: Motion in 1D Example 2.10 and 2.11 Any Question. PHYS 01 Interactive Engagement via Thumbs Up 1 Chap.1 Sumamry Today s class SI units Dimensional analysis Scientific notation Errors Vectors Next class Chapter : Motion in 1D Example.10 and.11 Any Question

More information

Physics 121 for Majors

Physics 121 for Majors Physics 121 for Majors 121M Tutors Tutorial Lab N-304 ESC Ethan Fletcher: M 1pm 3pm, T 3-6 pm, Th 3-10 pm, W 7-9pm, F 3pm 6-10 pm Spencer Vogel: M 1-4pm, W 1-5pm, F1-3 pm Schedule Do Post-Class Check #4

More information

Chapter 2. Motion in One Dimension

Chapter 2. Motion in One Dimension Chapter 2 Motion in One Dimension Types of Motion Translational An example is a car traveling on a highway. Rotational An example is the Earth s spin on its axis. Vibrational An example is the back-and-forth

More information

Motion in One Dimension

Motion in One Dimension Motion in One Dimension Much of the physics we ll learn this semester will deal with the motion of objects We start with the simple case of one-dimensional motion Or, motion in x: As always, we begin by

More information

MATH 1271 Monday, 21 November 2018

MATH 1271 Monday, 21 November 2018 MATH 1271 Monday, 21 November 218 Today: Section 5.4 - Indefinite Integrals and the Theorem Homework: 5-17 odd, 21-45 odd, 51-63 odd, 67, 71 1/13 Def Total displacement is the integral of the velocity

More information

Chapter 2: 1D Kinematics Tuesday January 13th

Chapter 2: 1D Kinematics Tuesday January 13th Chapter : D Kinematics Tuesday January 3th Motion in a straight line (D Kinematics) Aerage elocity and aerage speed Instantaneous elocity and speed Acceleration Short summary Constant acceleration a special

More information

Physics 2048, General Physics A Prof. Stephen Hill, Course Leader

Physics 2048, General Physics A Prof. Stephen Hill, Course Leader Physics 08, General Physics A Prof. Stephen Hill, Course Leader An Introduction to Mechanics, Waves and Thermodynamics In collaboration with: Dr. Y. Hori, KEN507, yhori@fsu.edu Prof. H.-K. Ng, KEN16, hkng@fsu.edu

More information

IB Math SL Year 2 Name Date Lesson 10-4: Displacement, Velocity, Acceleration Revisited

IB Math SL Year 2 Name Date Lesson 10-4: Displacement, Velocity, Acceleration Revisited Name Date Lesson 10-4: Displacement, Velocity, Acceleration Revisited Learning Goals: How do you apply integrals to real-world scenarios? Recall: Linear Motion When an object is moving, a ball in the air

More information

Position-versus-Time Graphs

Position-versus-Time Graphs Position-versus-Time Graphs Below is a motion diagram, made at 1 frame per minute, of a student walking to school. A motion diagram is one way to represent the student s motion. Another way is to make

More information

Chapter 2: Motion a Straight Line

Chapter 2: Motion a Straight Line Formula Memorization: Displacement What is a vector? Average Velocity Average Speed Instanteous Velocity Average Acceleration Instantaneous Acceleration Constant Acceleration Equation (List all five of

More information

Worksheet 1. What You Need to Know About Motion Along the x-axis (Part 1)

Worksheet 1. What You Need to Know About Motion Along the x-axis (Part 1) Curriculum Module: Calculus: Motion Worksheet 1. What You Need to Know About Motion Along the x-axis (Part 1) In discussing motion, there are three closely related concepts that you need to keep straight.

More information