The 3-kg collar starts from position A with an initial velocity VA = 3 m/s and slides along the smooth fixed rod in a vertical plane. A constant force P is acting to the collar during its motion. If the collar comes to rest at B, determine the magnitude of force P. Use b = 0.8 m, h = 1.7 m, and 0 = 30°. (P = 41.2 N) b 018 VA A P 1.77 h my B

Determine the force P required to maintain the 200-kg engine in the position for which e = 300. The diameter of the pulley at B is %3D negligible ( take g=10 m/s2) 2 m 2 m OC 200 kg P= 1693.7 N O P= 1793.7 N O P=1993.7 N O P= 1893.7 N O

A heavy crate with a weight of 160 lbs rests on a floor for which μS = 0.2. Find the minimum force P necessary for impending motion and determine whether the crate slides or tips, given:L1 = 4.4 ft, L2 = 2 ft, θ = 30 °

The homogeneous cylinder A has a mass of 80 kg, and the mss of the hub can be neglected. The magnitude of the variable force P, is in newtons when t is in sec- onds. The velocity of body B changes from 2 m/s downward when t = 0 to 4 m/s downward t = 5 s. Determine the mass of B. Solve all questions using Impulse and Momentum methods

Determine the steady-state angle a if the constant force P = 115 N is applied to the cart of mass M = 24 kg. The cart travels on the slope of angle 0 = 20°. The pendulum bob has mass m = 7 kg and the rigid bar of length L = 1.5 m has negligible mass. Ignore all friction. %D P M L m Answer: a = i

How to apply energy equation here . please include diagram. Don't use Artificial intelligence tools.

The 6-kg bar is released from rest while in the position shown and its end rollers travel in the vertical-plane slot shown. If the speed of roller A is 3.42 m/s as it passes point C, determine the work done by friction on the system over this portion of the motion. The bar has a length /=775 mm. %3D Assume 0 = 24°. C (B Answer: Ufriction i N-m

h Can the statue be dragged without tipping? No Yes y = Movers are trying to set up an art gallery. They attempt to drag a human-size statue of a soda can with mass m = 120 kg by tying a rope around it. Determine if the movers can drag the statue along the floor without it tipping if the coefficients of static friction and kinetic friction are found to be μg = 0.38 and μ = 0.22, respectively. What is the maximum force the movers can apply without tipping the statue? The can has a height of h = 1.7 m and the rope is tied 1 m off the ground. Assume the statue to be a solid cylinder with radius r = 0.2 m and constant density. y F m 元 N Ftip If the movers can apply the force required for the statue to slip, where is the maximum height they should tie the rope to safely drag the statue?

Please don't provide handwritten solution ...

Determine the force P that will cause impending motion. Also determine location of the resultant force acting on the crate, measured from the point A. (M=200 kg, a=1 m, b=2m, c=0.5 m, d34, e=3 and coefficient of friction is 0.3) a