A 207.8 kg uniform, a horizontal beam is hinged at one end and at the other is supported by a cable that is at 26 degrees to the left of the vertical. The beam is 2.63 m long. Calculate the direction of the force at the hinge (measured with respect to the horizontal). Answer with a number in degrees
here,
mass of unform beam , m1 = 207.8 kg
theta = 26 degree
l = 2.63 m
let the tension in the cable be T
taking moment of force about the hinge
T * cos(theta) * l - m1 * g * l/2 = 0
T * cos(26) - 207.8 * 9.81 /2 = 0
T = 1134 N
the tension in the cable is 1134 N
equating the force hoirzontally
the horizontal component of force at the hinge , Fx= T * sin(theta)
Fx = 1134 * sin(26) N = 497.1 N
equating the forces vertically
the vertical component of force at the hinge , Fy = m1 * g - T * cos(theta)
Fy = 207.8 * 9.81 - 1134 * cos(26) N
Fy = 1019.2 N
the direction of the force at the hinge , phi = arctan(Fy/Fx)
phi = arctan(1019.2 /497.1)
phi = 64 degree
the direction of the force at the hinge is 64 degree
A 207.8 kg uniform, a horizontal beam is hinged at one end and at the other...
A 206.8 kg uniform, horizontal beam is hinged at one end and at the other is supported by a cable that is at 29 degrees to the left of the vertical. The beam is 2.39 m long. Calculate the direction of the force at the hinge (measured with respect to the horizontal). Answer with a number in degrees
A 171.5 kg uniform, horizontal beam is hinged at one end and at the other is supported by a cable that is at 28 degrees to the vertical. The beam is 2.93 m long. Calculate the magnitude of the force (in N) at the hinge.
A 192kg uniform beam is hinged at one end, and the other end is supported by a cable that is 21 degrees to the vertical. The beam is 2 meters long, and is 14 degrees above the horizontal. Calculated the direction of the force in the hinge with respect to the horizontal. Assume the cable has no mass.
A 202 kg uniform, beam is hinged at one end and at the other is supported by a cable that is at 23 degrees to the left of the vertical. The beam is 2.8 m long and is at 6 degrees above the horizontal. Calculate the tension in the cable (in N)
In the figure, one end of a uniform beam of weight 460 N is hinged to a wall; the other end is supported by a wire that makes angles theta = 26 degree 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.
In Fig. 12-33, one end of a uniform beam of mass 40.0 kg is hinged to a wall: the other end is supported by a wire that makes angles theta = 30.0degree with both wall and beam. Find the tension in the wire and the magnitude and angle from the horizontal of the force of the hinge on the beam.
A 15 kg uniform beam, 2 m in length, is supported at it's end by a cable as shown below. The angle between the cable and the horizontal is 45 degrees. 2. Cable Beam Find the horizontal and vertical components of the force from the hinge (left end of the beam) acting on the beam a. b. If the tension in the cord exceeds 115N, the cord will break. Will placing a 5 kg mass at the right end of...
A 150kg uniform beam is attached to a vertical wall at one end and is supported by a cable at the other end. a) Calculate the magnitude of the vertical component of the force that the wall exerts on the left of the beam if the angle between the cable and the horizontal is theta = 42 degrees.
A 2.000 m long horizontal uniform beam of mass 20.00 kg is supported by a wire as shown in the figure. The wire makes an angle of 20.00 degrees with the beam. Attached to the beam 1.400 m from the wall is a ball with a mass of 40.00 kg. What are the vertical and horizontal components of the force of the wall on the beam at the hinge?
A 4-m long, 150-kg steel beam is attached to a wall with one end connected to a hinge that allows the beam to rotate up and down. The other end of the beam is held in a horizontal position with a cable that makes a 27° angle with the beam and is attached to the wall. A mass of 75 kg is hung from the beam 3 meters away from the hinge (see (Figure 2)). What is the vertical component of...