Samuel Lerman Computer Assignment #1 Problem 15.123.

Slides:



Advertisements
Similar presentations
Magnetic Force Acting on a Current-Carrying Conductor
Advertisements

Instantaneous Center of Zero Velocity (IC) (Ani Dönme Merkezi)
Engineering Graphics G G Tejani RKCET G G Tejani, Rajkot.
Rotational Equilibrium and Rotational Dynamics
Review Problems From Chapter 10&11. 1) At t=0, a disk has an angular velocity of 360 rev/min, and constant angular acceleration of rad/s**2. How.
(10-6).
ABSOLUTE MOTION ANALYSIS (Section 16.4)
EXAMPLE #6: The rod AB is connected by a ball-and-socket joint to the collar at A and by a pinned clevis to the collar at B. At the instant shown, A has.
Cutnell/Johnson Physics 7th edition
Chapter 9 Rotational Dynamics.
THREE-DIMENSIONAL KINEMATICS OF RIGID BODIES
Physics for Scientists and Engineers, 6e
RIGID BODY MOTION: TRANSLATION & ROTATION (Sections )
RIGID BODY MOTION: TRANSLATION & ROTATION (Sections )
Physics 201: Lecture 18, Pg 1 Lecture 18 Goals: Define and analyze torque Introduce the cross product Relate rotational dynamics to torque Discuss work.
Physics 106: Mechanics Lecture 03
Using the “Clicker” If you have a clicker now, and did not do this last time, please enter your ID in your clicker. First, turn on your clicker by sliding.
Kinematics - Plane motion Jacob Y. Kazakia © Types of Motion Translation ( a straight line keeps its direction) 1.rectilinear translation 2.curvilinear.
TEKS 8.6 (A,B) & 8.7 (A,D) This slide is meant to be a title page for the whole presentation and not an actual slide. 8.6 (A) Generate similar shapes using.
4.1 Radian and Degree measure Changing Degrees to Radians Linear speed Angular speed.
Perimeter Rectangles, Squares, and Triangles Perimeter Measures the distance around the edge of any flat object. To find the perimeter of any figure,
Chapter 10 - Rotation In this chapter we will study the rotational motion of rigid bodies about a fixed axis. To describe this type of motion we will introduce.
Angular Momentum of a Particle
Chapter 11 Angular Momentum.
Head on Collision By Fabiola Carrasco ME 143 Professor Granda December 25, 2006.
C O B A w=2 rad/s 2 m a=4 rad/s2 PROBLEMS
PLANAR RIGID BODY MOTION: TRANSLATION & ROTATION
Kinematics of Rigid Bodies
Chapters 10, 11 Rotation and angular momentum. Rotation of a rigid body We consider rotational motion of a rigid body about a fixed axis Rigid body rotates.
MOTION. Chapter Four: Motion  4.1 Position, Speed and Velocity  4.2 Graphs of Motion  4.3 Acceleration.
Objective Rectangular Components Normal and Tangential Components
Lecture 18 Rotational Motion
ENGR 214 Chapter 15 Kinematics of Rigid Bodies
T071 Q17. A uniform ball, of mass M = kg and radius R = 0
11.4 Hyperbolas ©2001 by R. Villar All Rights Reserved.
10.3 Hyperbolas. Circle Ellipse Parabola Hyperbola Conic Sections See video!
Conservation of Angular Momentum Dynamics of a rigid object
Copyright © 2009 Pearson Education, Inc. Lecture 1 Rotational Motion.
How do you relate the angular acceleration of the object to the linear acceleration of a particular point? There are actually two perpendicular components.
Creating a 7-Circuit Right-Handed Cretan Labyrinth 11 Steps in Designing Your Own Labyrinth.
MOTION RELATIVE TO ROTATING AXES
Chapter 10 Chapter 10 Rotational motion Rotational motion Part 2 Part 2.
Chapter Angular Position, Velocity, and Acceleration 10.2
9 rad/s2 7 rad/s2 13 rad/s2 14 rad/s2 16 rad/s2
PREVIOUS QUIT NEXT START SLIDE Quiz by Dr. John Dayton Physics Quiz ROTATIONAL EQUILIBRIUM AND DYNAMICS Each question is multiple choice. Select the best.
Section 2.4 Graphs of Motion. Why Use Graphs? Show relationships between distance, velocity, acceleration, and time Visual and clear way of representing.
Chapter 4 Rotation of rigid body §4.1 The rotation of a rigid body about a fixed axisThe rotation of a rigid body about a fixed axis §4.2 Torque, the law.
Rotation Around a Point. A Rotation is… A rotation is a transformation that turns a figure around a fixed point called the center of rotation. A rotation.
Circle Ellipse HyperbolaParabola Conic Sections. Circles x 2 + y 2 = 16 center: (0,0) radius: Ex. 1 Standard form: (x – h) 2 + (y – k) 2 = r 2.
Exam is Wednesday at 7:00 pm Remember extra office hours
Working Model Problem 15-62
DateCircles #2Page. General Form of a Circle Rewrite the Standard Form of the equation of the circle below into General Form. (x + 3) 2 + ( y – 2) 2 =
 If disk angular velocity changes (  is not constant), then we have an angular acceleration   For some point on the disk  From the definition of translational.
T072 : Q13. Assume that a disk starts from rest and rotates with an angular acceleration of 2.00 rad/s 2. The time it takes to rotate through the first.
Equations of Circles. You can write an equation of a circle in a coordinate plane, if you know: Its radius The coordinates of its center.
Short Version : 10. Rotational Motion Angular Velocity & Acceleration (Instantaneous) angular velocity Average angular velocity  = angular displacement.
Slide 1 Copyright © 2015, 2011, 2008 Pearson Education, Inc. Perimeter Section9.2.
ME 115 Final Spring 2003 Problem 2 By Luke Saxelby.
9.3 Hyperbolas Hyperbola: set of all points such that the difference of the distances from any point to the foci is constant.
Constant Rotation Now that we know how to define the angular position, we can examine rotational motion. Consider the lab equipment using a view from above.
VECTOR MECHANICS FOR ENGINEERS: DYNAMICS Seventh Edition Ferdinand P. Beer E. Russell Johnston, Jr. Lecture Notes: J. Walt Oler Texas Tech University CHAPTER.
Notes and Skills Practice
Lecture 17 Goals Relate and use angle, angular velocity & angular acceleration Identify vectors associated with angular motion Introduce Rotational Inertia.
Hyperbola - Graphing Recall that the equations for a hyperbola are ...
Hyperbolas.
Basic Biomechanics, (5th edition) by Susan J. Hall, Ph.D.
Distance Formula d = √ (x1 – x2)2 + (y1 – y2)2, where d is the distance between the points (x1, y1) and (x2, y2).
Rotation Around a Point
KINEMATICS OF MACHINERY
Presentation transcript:

Samuel Lerman Computer Assignment #1 Problem 15.123

Problem 15.123 Collar D slides on a fixed vertical rod. Knowing that the disk has a constant angular velocity of 15 rad/s clockwise, determine the angular acceleration of bar BD and the acceleration of collar D when… (a) = 0 (b) = 900 (c) = 1800 2.8 in ө B ө ө ө 10 in. D Figure 1.

First, draw a circle of radius 3 in. (arbitrary length, but at least 2 First, draw a circle of radius 3 in. (arbitrary length, but at least 2.8 in. long). Place a pin joint at the center of the circle, and attach a motor to the center of the circle as well. Figure 2 Next, draw a rectangle with h = 10in. and w = 0.5in. (arbitrary width). Place a point element on one side of the rectangle and a point element 2.8 in. from the center of the circle. Join the two points with the join command. Figure 3

Next, create the collar by creating a rectangle of arbitrary size Next, create the collar by creating a rectangle of arbitrary size. Position the collar so that its center lies 2.8 in. to the left of the center of the disk (use the boxes in the lower left hand corner of the working area to position the collar). Figure 4 Attach a point element to the center of the collar and a point element to the other end of the connecting rod. Join these two points with the join command. Set the motor speed to 15 rad/s clockwise. Also, use the measure pulldown to measure the acceleration of the collar and of the connecting rod. Create graphs with the measure pulldown and vectors with the define pulldown if desired. Run the simulation. Figure 5

Here, at = 00 , α_BD= 5.58 rad/s2 Ad = 35.882 ft/s2 ө Figure 6

Here, at = 900 , B. α_BD= 76.034 rad/s2 Ad = 35.480 ft/s2 ө Figure 7

Here, at = 1800 , c. α_BD= 5.586 rad/s2 Ad = 69.109 ft/s2 ө Figure 8

THE END