As shown below, a horizontal beam is in equilibrium. The orange circle represents the hinge and the 5 m long cable has a tension of 594 N. 3m 5 m 4 m 162 N Determine the weight of the beam as well as the magnitude & direction of the force that the hinge exerts on the beam. beam weight = hinge force magnitude = hinge force direction = relative to the horizontal.

As shown below, a horizontal beam is in equilibrium. The orange circle represents the hinge and the 5 m long cable has a tension of 594 N. 3m 5 m 4 m 162 N Determine the weight of the beam as well as the magnitude & direction of the force that the hinge exerts on the beam. beam weight = hinge force magnitude = hinge force direction = relative to the horizontal.

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)...

See similar textbooks

Similar questions

As shown below, a horizontal beam is in equilibrium. The orange circle represents the hinge and the 5 m long cable has a tension of 363 N. 5 m 3 m Determine the weight of the beam as well as the magnitude & direction of the force that the hinge exerts on the beam. beam weight = 4 m hinge force magnitude = hinge force direction = relative to the horizontal. 76 N
A door 2.30 m high and 1.30 m wide has a mass of 10.0 kg . A hinge 0.40 m from the top and another hinge 0.40 m from the bottom each support half the door's weight (Figure 1). Assume that the center of gravity is at the geometrical center of the door.(Part A) Determine the horizontal component of the force exerted by hinge A on the door. (Part B) Determine the vertical component of the force exerted by hinge A on the door.(Part C) Determine the horizontal component of the force exerted by hinge B on the door. (Part D)Determine the vertical component of the force exerted by hinge BB on the door.
A rod with a length L = 1.0 m long and a mass of 6.0 kg is pivoted around its center. A force of magnitude F = 5.0 N and angle 30° is applied at one end of the rod. A second force of magnitude F/2 is applied 0.25 m from the pivot at an angle of 53° as shown below. F 30⁰ m 53⁰ -pivot F/2 L/2 What is the magnitude of the angular acceleration due to the applied forces? L/4
As shown in the figure, a 10 m long bar is attached by a frictionless hinge to a wall and held horizontal by a light rope that makes an angle 0 = 49° with the bar. The bar is uniform and weighs 66.5 N. What distance x from the hinge should a 10 kg mass be suspended for the tension in the rope to be 150.0 N? Report your answer to 1 significant figure 10.0 kg -10.0 m-
Two kids are on a uniform seesaw supported at its center. The kid is on the right side of the seesaw has a mass m kg and is at a distance 1.59 from the center of the seesaw. The kid is on the left side of the seesaw has a mass 30.8 kg and is at a distance 1.49 from the center of the seesaw. The seesaw is in static equilibrium. What is the mass m in kg? Give your answer to three significant figures.
A uniform 10.0 m ladder of weight WL=375 N leans against a frictionless wall. There is a force of static friction between the floor and the bottom of the ladder. A person weighing Wp stands 7.4 m between the bottom of the ladder. Draw a free body diagram for the ladder. Draw a torque diagram for the ladder. Determine the force that the wall exerts on the top of the ladder. Determine the force of static friction exerted on the ladder by the floor.
A 63 kg diver stands at the end of a 31 kg springboard, as shown in the figure. The board is attached to a hinge at the left end but simply rests on the right support.(Figure 1) What is the magnitude of the vertical force exerted by the hinge on the board?
Two children of mass 15 kg and 26 kg sit balanced on a seesaw with the pivot point located at the center of the seesaw.If the children are separated by a distance of 3.0 m, at what distance, in meters, from the pivot point is the smaller child sitting in order to maintain the balance? r1 =
Two children of mass 20.0 kg and 30.0 kg sit balanced on a seesaw with the pivot point located at the center of the seesaw. If the children are separated by a distance of 3.00 m, at what distance from the pivot point is the small child sitting in order to maintain the balance? 3.00 m 1.20 m 1.50 m 1.80 m
A 7.64-m uniform beam is hinged to a vertical wall and held horizontally by a 5.00-m cable attached to the wall 4.00 m above the hinge, as shown in the figure. The metal of this cable has a test strength of 728 N, which means that it will break if the tension in it exceeds that amount. What is the largest mass the beam can have? Round your answer to one decimal place.
Suppose the weight of the drawbridge in Figure shown is supported entirely by its hinges and the opposite shore, so that its cables are slack. (a) What fraction of the weight is supported by the opposite shore if the point of support is directly beneath the cable attachments? (b) What is the direction and magnitude of the force the hinges exert on the bridge under these circumstances? The mass of the bridge is 2500 kg.
A uniform 8.00 m, 1500 kg beam is hinged to a wall and supported by a thin cable attached 2.00 m from the free end of the beam, as shown in the figure. The beam is fixed to the wall by a hinge at an angle of 30.0 above the horizontal. The angle between the cable and the beam is 40.0. MO 400 What is the direction of the torque exerted by the beam around the point where the cable is attached to the beam? O clockwise O counterclockwise