A house painter uses the chair and pulley arrangement of the figure to lift himself up the side of a house. The painter's mass is 75 kg and the chair's mass is 9.0 kg . With what force must he pull down on the rope in order to accelerate upward at 0.23 m/s^2 ?
A house painter uses the chair and pulley arrangement of the figure to lift himself up...
solve all questions or a downvote A house painter uses the chair and pulley arrangement of (Figure 1) to himself up the side of a house The painter's mass is 50 kg and the chair's mass is 10 kg - Part A the p istest what is the son in the mape? Express your answer with the appropriate units. Figure PAO? T. 601.8 N Sub x incorrect Try Again attempts remaining P Pearson Part A m According to e Express...
A bosun’s chair is a device used by a boatswain to lift himself to the top of the mainsail of a ship. A simplified device consists of a chair, a rope of negligible mass, and a frictionless pulley attached to the top of the mainsail. The rope goes over the pulley, with one end attached to the chair, and the boatswain pulls on the other end, lifting himself upward. The chair and boatswain have a total mass M = 95.7...
The figure shows a man sitting in a bosun's chair that dangles from a massless rope, which runs over a massless, frictionless pulley and back down to the man's hand. The combined mass of man and chair is 83.1 kg. With what force magnitude must the man pull on the rope if he is to rise (a) with a constant velocity and (b) with an upward acceleration of 1.27 m/s2? (Hint: A free-body diagram can really help.) Problem continues below....
The figure shows a man sitting in a bosun's chair that dangles from a massless rope, which runs over a massless, frictionless pulley and back down to the man's hand. The combined mass of man and chair is 66.7 kg. With what force magnitude must the man pull on the rope if he is to rise (a) with a constant velocity and (b) with an upward acceleration of 1.34 m/s2? (Hint: A free-body diagram can really help.) Problem continues below....
The fiqure shows a man sitting in a bosun's chair that dangles from a massless rope, which runs over a massless, frictionless pulley and back down to the man's hand. The combined mass of man and chair is 78.4 kg. With what force magnitude must the man pull on the rope if he is to rise (a) with a constant velocity and (b) with an upward acceleration of 1.42 m/s2? (Hint: A free-body diagram can really help.) Problem continues below...
Suppose you use an ideal pulley of the type shown in Figure (a) to support a car engine of mass 115 kg. (a) What would the tension in the rope be? N (b) What force must the ceiling supply, assuming you pull straight down on the rope? Neglect the pulley system's mass. N (upward) MA 2 MA 3 MA = 4
The hoist consists of a single rope and an arrangement of frictionless pulleys as shown. If the angle 0-33 determine the force that must be applied to the rope, Frope, to lift a load of 3.5 kN. The three-pulley and hook assembly at the center of the system has a mass of 25.5 kg with a center of mass that lies on the line of action of the force applied to the hook. #8c. rope 0 Fhook BY NC SA...
3. At a ski resort a chair lift takes skiers up a 30° hillside to an elevation of 180 m as shown in figure 1. How much horsepower must the engine have to pull 50 skiers at a time, at a speed of 4.0 m/s, if the average mass of each skier and their equipment is 82 kg each and the frictional energy loss is 3.6MJ (Mega-Joules)? Hint: Power-Work/time
Please show work! A pulley of negligible mass is attached to a block weighing 504 N. A person uses the rope and pulley system illustrated in the figure to lift the block at a constant velocity. The pulleys and rope are all ideal. F_G=____________ ? A. Draw the free body diagram for the block. (Observe that three are two rope segments pulling on the block.) B. Apply Newton's first law and determine the tension in the rope, and thus, the...
Renee is on Spring Break and pulling her 21-kg suitcase through the airport at a constant speed of 0.47 m/s. She pulls on the strap with 120 N of force at an angle of 38° above the horizontal. Assume the ground to be flat, Draw a FBD showing the forces on the suitcase. Find the acceleration of the suitcase. Determine the normal force experienced by the suitcase. Determine the total resistive force (friction) experienced by the suitcase. Find the coefficient...