A uniform semicircular rod of weight W and radius r is attached to a pin at A and rests against a frictionless surface at B. Determine the reactions at A and B.
A uniform semicircular rod of weight W and radius r is attached to a pin at A and rests against a frictionless surface at B
21 (25) A uniform slender rod AB rests on a frictionless rizontal surface and a force P of magnitude 1N is applied at A ia direction perpendicular to the rod. Knowing that the rod weighs 0.8 kg, determine the acceleration of (a) point A, (b) point B. (gmP/12)
6. A ladder of length 2d=4m rests against a frictionless wall as shown. A weight of W is attached at point C. Determine the internal forces at cross-sections aa and bb, the mid points of AC and CB in terms of W.
A uniform ladder stands on a rough floor and rests against a frictionless wall as shown in the figure. Since the floor is rough, it exerts both a normal force n, and a frictional force r, on the ladder. However, since the wall is frictionless, it exerts only a normal force N, on the ladder. The ladder has a length of L = 4.3 m, a weight of w. = 67.5 N, and rests against the wall a distance d...
In the figure, a uniform plank, with a length L and a weight of W, rests on the ground and against a frictionless roller at the top of a wall of height h. The plank remains in equilibrium for any value of θ = or more, but slips if θ < θ0. Find the coefficient of static friction between the plank and the ground in terms of the variables given. Roller
1. One end of a uniform 4.0 m long rod of weight W is supported by a cable at an angle of 37° with the rod. The other end (A) rests against a wall, where it is held by friction; μs = 0.5. Determine the minimum distance x from point A at which an additional weight W (the same as the weight of the rod) can be hung without causing the rod to slip at point A.
one end of a uniform L = 4.80-m-long rod of weight w is supported by a cable at an angle of θ = 370 with the rod. The other end rests against a wall, where it is held by friction (see figure). The coefficient of static friction between the wall and the rod is μ$ 0.560. Determine the minimum distance x from point A at which an additional weight w (the same as the weight of the rod) can be...
One end of a uniform rod of weight w = 72.5 N and length L = 2.80 m is supported by a cable at an angle of theta = 33.5 degree above the rod. The other end rests on a small frictionless support and presses into a wall as shown in the figure. Determine the magnitude n of the vertical normal force exerted by the support on the rod and find the magnitude f of the tension in the cable....
A uniform ladder stands on a rough floor and rests against a frictionless wall as shown in the figure. N2 mg d N. Since the floor is rough, it exerts both a normal force N, and a frictional force f, on the ladder. However, since the wall is frictionless, it exerts only a normal force N, on the ladder. The ladder has a length of L wall a distance d 3.75 m above the floor. If a person with a...
A rod of weight W and uniform cross section is bent into a quarter circle of radius r and is supported as shown. Determine the location and magnitude of the maximum bending moment, 8 = 0.48338 rod = 27.7° M.max = 0.0777 Wr)
A uniform ladder stands on a rough floor and rests against a frictionless wall as shown in the figure. Since the floor is rough, it exerts both a normal force N, and a frictional force f on the ladder. However, since the wall is frictionless, it exerts only a normal force N, on the ladder. The ladder has a length of L = 4.65 m, a weight of W = 50.5 N, and rests against the wall a distance d...