Consider the following hanging mass system for the following problems. Part A Before answering the questions below, draw two separate free-body diagrams of ring C and then ring B. Be sure the FBDS are neat a properly labeled. You will turn them in with your written work. Deturmine the tension developed in cable CB if cylindar E weighs 36 lb and 0 = 15°. (Figure 1) It vec FCB Ib Submit Request Answer Part B If cylinder E weighs 36 lb and 0 = 15°, determine the weight of cylinder F. %3D Express your answer with the appropriate units. Vol AEO It Figure < 1 of 1> vec WF Ib 30 Request Answer Submit 45° B. Provide Feedback Next > E F

Consider the following hanging mass system for the following problems. Part A Before answering the questions below, draw two separate free-body diagrams of ring C and then ring B. Be sure the FBDS are neat a properly labeled. You will turn them in with your written work. Deturmine the tension developed in cable CB if cylindar E weighs 36 lb and 0 = 15°. (Figure 1) It vec FCB Ib Submit Request Answer Part B If cylinder E weighs 36 lb and 0 = 15°, determine the weight of cylinder F. %3D Express your answer with the appropriate units. Vol AEO It Figure < 1 of 1> vec WF Ib 30 Request Answer Submit 45° B. Provide Feedback Next > E F

College Physics

11th Edition

ISBN:9781305952300

Author:Raymond A. Serway, Chris Vuille

Publisher:Raymond A. Serway, Chris Vuille

Chapter1: Units, Trigonometry. And Vectors

Section: Chapter Questions

Problem 1CQ: Estimate the order of magnitude of the length, in meters, of each of the following; (a) a mouse, (b)...

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Use the figure to answer the following questions. A magnet of mass 5.58 kg is suspended from the ceiling by a cord as shown. A large magnet is somewhere off to the right, pulling on the small hanging magnet with a constant force of F = 152.5 N. At what angle theta ?with respect to the vertical does the magnet hang? a. 70.3 degrees b. 19.7 degrees c. 54.0 degrees d. 59.0 degrees Consider the same situation as in the previous problem. This time the magnet has mass 6.70 kg and the force pulling the magnet to the right has magnitude 99.9 N. What is the magnitude of the tension force in the cord? a. 199.6 N b. 292.2 N c. 119.6 N d. 165.6 N
Problem 1c.2 The rigid beam is supported by a fixed support at. The cable at forms an angle from horizontal, travels over the frictionless pulley at, and supports the counterweight, as shown. There is a vertical load applied at and a concentrated couple-moment acting at. The load at is perpendicular to the beam. In this case, the weight of the beam itself can be considered negligible compared to the other forces. Determine the support reactions provided by the fixed support for: (a) W = 500 N (b) W = 5 KN Answers: (a) For Mc L/2 X L Po Diagram is not to scale. PB B H
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Problem 1: A block with a mass of m rests on a frictionless surface and is subject to two forces acting on it. The first force is directed in the negative x-direction. The second acts on the body at an angle 0 measured from horizontal, as shown. If necessary, use Fs and Fk for the forces of static and kinetic friction. L. F Please use the interactive area below to draw the Free Body Diagram for this block, assuming it is in static equilibrium. FBD : Fn, F1, Fg, F2, Fs, Fk, a, v 45, 0, 90, 135, 180, 225, 270, 315, 0 Force Labels: Angle Labels: m.
The previous step focused on friction for horizontal surfaces. As we discussed above, angled surfaces like the wedge below have different considerations. FN = mg cos(0) F₁ = mg F₁ = ? F₁ = ? Fy=mg cos(0) Specifically, we have the following considerations. 1. The normal force is not equal to mg. 2. There is a force acting along the angle of the wedge due to gravity. What is the coefficient of static friction ? Fx = mg sin(0) Let's consider the implications of this type of problem with the following examples. For all of the examples, the box has a mass of 25 kg. Imagine the box is on a surface that allows you to adjust the incline angle, 0. You find the maximum angle where the box remains stationary. That is, at any higher angle, and the box begins to slide. The static friction force at this maximum angle is 150 N. What is the angle 0 (in degrees)? Now you raise the incline to an angle of 60° greater than the angle of maximum static friction found above. At this angle, the box slides…