A 1310-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the other end. A 1960-N crate hangs from the far end of the beam. Using the data shown in the figure, find (a) the magnitude of the tension in the wire and the magnitudes of the (b) horizontal and (c) vertical components of the force that the wall exerts on the left end of the beam. (a) Number i (b) Number i (c) Number Units Units Units 50.0% 30.0 Beam 1960 N

A 1310-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the other end. A 1960-N crate hangs from the far end of the beam. Using the data shown in the figure, find (a) the magnitude of the tension in the wire and the magnitudes of the (b) horizontal and (c) vertical components of the force that the wall exerts on the left end of the beam. (a) Number i (b) Number i (c) Number Units Units Units 50.0% 30.0 Beam 1960 N

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

Related questions

Q: A tightrope walker stands on a wire that is supported by a pole at each end. The tightrope walker…

A: Given that the tension in wire is3.42×103 N, and it makes an angle of 6.2°. The young’s modulus of…

Q: A ladder of length L is leaning on a frictionless wall at 53 degrees to horizontal. The ladder is of…

Q: A 1500-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the…

Q: A uniform ladder 19.0 ft long is leaning against a friction less wall at an angle of 44.9 degrees…

A: Given information:

Q: om the far end of the beam. Using the data shown in the figure, find (a) the magnitude of the…

Q: What are the forces applied to the board by the posts?

A: the values provided in the question are as follows- mass of board = 34 kg length of board = 4.7m…

Q: A 150 lb person stands 14 ft up a 19 ft ladder. The ladder weighs 85 lb and leans with a 50 degree…

A: Let Wp and Wl be the weight of the person and the ladder respectively, l be the length of the…

Q: In the figure, one end of a uniform beam of weight 170 N is hinged to a wall; the other end is…

Q: 37° 10 m A uniform beam of length 10 m and weight 60 N is attached to a wall by a cable as shown in…

Q: In the figure, a uniform beam of weight 400 N and length 3.9 m is suspended horizontally. On the…

Q: A uniform 325 N ladder rests against a smooth wall, making angle 52° with the wall. What is the…

Q: A uniform rod has weight 4.0 N and length 1.0 m. It is resting on two supports – the left support…

A: Given: The weight of the rod is 4 N. The length of the rod is 1 m. The position of the left support…

Q: 2. A 50.0 kg uniform square sign, of edge length L=2.00m, is hung from a horizontal rod of length of…

Q: The drawing shows a uniform horizontal beam attached to a vertical wall by a frictionless hinge and…

Q: A uniform platform with mass M=30kg and length L=15m is placed on two supports as shown. The…

A: A mass of a uniform platform,

Q: A 1.323-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the…

Q: A door has a height of 2.1 m along a y axis that extends vertically upward and a width of 1.05 m…

A: Using Newtons law and torque about the hinges

Q: A 22.3 kg uniform beam is in static equilibrium. The mass of the object at the end of the beam is…

A: Required :: The magnitude of the tension force holding the beam.

Q: A 1270-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the…

Q: A uniform beam has a length of 15.4 m and a mass of 37.2 kg. The beam is horizontal and resting (in…

Q: Consider a rigid steel beam of length L = 11.5 m and mass mb = 405 kg resting on two supports, one…

A: Write the force balance equilibrium equation for the given system and substitute the known values.

Q: uniform rod is attached to a wall by a hinge at its base. The rod has a mass of 5.0 kg, a length of…

Q: In the figure, suppose the length L of the uniform bar is 3.5 m and its weight is 150 N. Also, let…

Q: The drawing shows a uniform horizontal beam attached to a vertical wall by a frictionless hinge and…

Q: A uniform 8.00 m, 1500 kg beat is hinged to a wall and supported by a thin cable attached 2.00 m…

Q: A rod AB weighing 25 kN is supported by a pin at A and a cable BD. The center of gravity of the rod…

Q: A 1460-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the…

Q: A uniform ladder is 15 m long and weighs 210N. In the figure, the ladder leans against a vertical,…

A: Here given the length of the ladder is, AC=15 m, the height of the wall is, BC=6.5 m, the weight of…

Q: The drawing shows a uniform horizontal beam attached to a vertical wall by a frictionless hinge and…

Q: In the figure, one end of a uniform beam of weight 240 N is hinged to a wall; the other end is…

A: Given Data : The uniform beam weight is given as W = 240N. The angle made by the wire with the beam…

Q: A 1260 N uniform beam is attached to a vertical wall at one end and supported by a cable on th other…

A: Given Weight of the beam is Wb =1260N Weight of the crate is Wc=1960N Given diagram:

Q: A non-uniform beam has a length of 4.74 m and a mass of 63.7 kg. The beam is resting horizontally on…

Q: A uniform rod is attached to a wall by a hinge at its base. The rod has a mass of 3.5 kg, a length…

A: Mass of the ride m=3.5 KgLength of rod L= 1.3 mAngle with horizontal θ= 31°

Q: The drawing shows a uniform horizontal beam attached to a vertical wall by a frictionless hinge and…

A: Given data The weight of the beam is W = 340 N The angle applied force is θ = 44°

Q: A uniform beam with a mass of 125 kg and a length of 6.00 meters rests on a fulcrum, which is…

Q: In the figure, a uniform beam of weight 440 N and length 2.3 m is suspended horizontally. On the…

Concept explainers

Torque

Torque is the rotational equivalent of linear force in physics and mechanics. Based on the course of study, it is also known as the moment of force, rotational force, or turning effect.

Question

A 1310-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the other end. A 1960-N crate hangs
from the far end of the beam. Using the data shown in the figure, find (a) the magnitude of the tension in the wire and the magnitudes
of the (b) horizontal and (c) vertical components of the force that the wall exerts on the left end of the beam.
(a) Number
(b) Number
(c) Number
i
i
Units
Units
Units
50.0%
30.0%
>
<
>
Beam
1960 N

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1: Given Data

VIEW

Step 2: Find tension in the wire

VIEW

Step 3: calculate horizontal and vertical components of force exerted by wall

VIEW

Solution

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 4 steps with 1 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, physics and related others by exploring similar questions and additional content below.

Similar questions

Questions 15-19 A rod of length L with non-uniform mass distribution is hinged horizontally to a vertical wall from one end. The rod is supported by a rope from the other end as shown in the figure such that the rope makes an angle of 30° with the horizontal. The linear mass density (mass per unit of length) of the rod is A(x)=8Cx/L where x is the distance from the hinge (x < L) and C is a constant. The unit of C is kg. The distance between point mass m and the hinge is L/2. M 15. What is mass M of the rode? (а) 8C/3 (Ь) 2C (е) С/2 (а) С (е) 2C/3
A 1140-N uniform beam is attached to a vertical wall at one end and is supported by a cable at the other end. A 1960-N crate hangs from the far end of the beam. Using the data shown in the figure, find (a) the magnitude of the tension in the wire and the magnitudes of the (b) horizontal and (c) vertical components of the force that the wall exerts on the left end of the beam. 50.0° 30.0% Beam 1960 N
A uniform plank of wood has a mass of 19.5kg and a length of 2.0m. A person holds the plank using both hands. The first hand exerts a downward force, F⃗ , at an end of the plank. The second hand exerts an upward force, F⃗ 2, at a distance of 50.0cm from the same end of the plank. What is the magnitude, in newtons, of the force F⃗ 2 What is the magnitude, in newtons, of the force F⃗ 1?
The drawing shows a uniform horizontal beam attached to a vertical wall by a frictionless hinge and supported from below at an angle θ = 35o by a brace that is attached to a pin. The beam has a weight of 342 N. Three additional forces keep the beam in equilibrium. The brace applies a force P¯ to the right end of the beam that is directed upward at the angle θ with respect to the horizontal. The hinge applies a force to the left end of the beam that has a horizontal component H¯ and a vertical component V¯. Find the magnitudes of these three forces.
6m T 10m A 8m Figure 4 A B 6. A horizontal beam AB of mass m = 20kg is supported from end B by a cable and hinged to a A vertical wall at end A. Calculate the magnitude of the tension T in the cable when Batman, who has a mass M = 80 kg, stands midway along the beam. What are the x and y components of the force at the hinge?
A uniform beam has a length of 15.2 m and a mass of 37.3 kg. The beam is horizontal and resting (in equilibrium) on two supports. One of the supports is located 4.09m to the right of the beam's center of mass. The second support is located 1.96 m to the left of the beam's center of mass. How much upward force is exerted on the beam by the first support?
A uniform rod is attached to a wall by a hinge at its base. The rod has mass of 8.0 kg, a length of 1.8 m, is at an angle of 17° above the horizontal, and is held in place by a horizontal cord attached to the other end of the rod and bolted to the wall above the base of the rod. (a) Determine the tension in the cord. N (b) Determine the horizontal and vertical components of the force exerted on the rod by the hinge. FH = N Fv = N
In the figure, one end of a uniform beam of weight 280 N is hinged to a wall; the other end is supported by a wire that makes angles θ = 28° with both wall and beam. Find (a) the tension in the wire and the (b) horizontal and (c) vertical components of the force of the hinge on the beam.
H 60° Figure 6 G M 8. A uniform rod HG of length 2L m and mass m = 2 kg is hinged at end H, as shown in Figure 6 A mass Mg=100 N is hung at the other end G. A horizontal cable at the midpoint of the rod holds it at an angle of 60° to the horizontal. The cable is under a constant tension T. (a) Draw a diagram showing all the forces acting on the rod and determine the tension T in the cable. (b) Calculate both the x and y components (Fr and F₁) of the force F at the hinge H. (c) Will the net force F at H act along the rod HG? Justify your answer.
In a city park a nonuniform wooden beam 4.00 m long is suspended horizontally by a light steel cable at each end. The cable at the left-hand end makes an angle of 30.0° with the vertical and has tension 620 N. The cable at the right-hand end of the beam makes an angle of 50.0° with the vertical. As an employee of the Parks and Recreation Department, you are asked to find the weight of the beam and the location of its center of gravity.
A uniform rod is attached to a wall by a hinge at its base. The rod has a mass of 8.5 kg, a length of 1.8 m, is at an angle of 21° above the horizontal, and is held in place by a horizontal cord attached to the other end of the rod and bolted to the wall above the base of the rod. (a) Determine the tension in the cord. (b) Determine the horizontal and vertical components of the force exerted on the rod by the hinge. FH %3D Fv = %3D