The system shown below is in statics equilibrium. Cable OB lies in the xy plane and makes a 30° angle with the positive x-axis. Cable OA lies along the negative y-axis. If the weight of the load being supported is 100 lb, determine the magnitude of the forces in all four cables: OA, OB, OC, and OD. The system shown below is in statics equilibrium. Cable OB lies in the xy plane and makes a 30° angle withthe positive x-axis. Cable OA lies along the negative y-axis. If the weight of the load being supported is 100lb, determine the magnitude of the forces in all four cables: OA, OB, OC, and OD.ZAC8 ft6 ftO30°3 ftyxBD6 ft

The system shown below is in statics equilibrium. Cable OB lies in the xy plane and makes a 30° angle with the positive x-axis. Cable OA lies along the negative y-axis. If the weight of the load being supported is 100 lb, determine the magnitude of the forces in all four cables: OA, OB, OC, and OD. Z A C 8 ft 6 ft O 30° 3 ft y x B D 6 ft

The system shown below is in statics equilibrium. Cable OB lies in the xy plane and makes a 30° angle with the positive x-axis. Cable OA lies along the negative y-axis. If the weight of the load being supported is 100 lb, determine the magnitude of the forces in all four cables: OA, OB, OC, and OD. Z A C 8 ft 6 ft O 30° 3 ft y x B D 6 ft

International Edition---engineering Mechanics: Statics, 4th Edition

4th Edition

ISBN:9781305501607

Author:Andrew Pytel And Jaan Kiusalaas

Publisher:Andrew Pytel And Jaan Kiusalaas

Chapter10: Virtual Work And Potential Energy

Section: Chapter Questions

Problem 10.62P: The bar ABC is supported by three identical, ideal springs. Note that the springs are always...

See similar textbooks

Similar questions

The bar ABC is supported by three identical, ideal springs. Note that the springs are always vertical because the collars to which they are attached are free to slide on the horizontal rail. Find the angle at equilibrium if W = kL. Neglect the weight of the bar.
The positive directions are indicated in the figure. The system is in static equilibrium. 1. For the forces applied on point B, determine the component BAx =__N 2 Determine the component BAy=__N 3 Determine the component BDx=__N 4. Determine the component BDy= __N 5. Determine the component of force BD =__N 6. For the forces applied on point D, determine the component DBx=__N 7 Determine the component DFx=__N 8 Determine the component DFy =__N 9 Determine the tension in cable DF, Tdf=__N 10. The system is in static equilibrium determine the angle =__° 11. Determine the distance d=__m
Determine the force in each cable if F = 500 lb. Ans: FAC = 113 lb FAB = 257 lb FAD = 210 lb %3D 1ft 6 ft 2 ft 3 ft
The pulley system below is in static equilibrium, where load W3 is 730 N, angle α = 50O and angle θ = 30O. Determine the value of loads W1 and W2, then calculate the ratio of (W1/W2). Give your answer as a ratio of (W1/W2) to two decimal places.
Required information In the structure shown, cable segment ED and member ECF are horizontal. 8 in. radius W E G 84 in. D C B A 60 in.- 21 in. F 28 in. 80 in.
Needs to be done without a calculator
Two men exert forces F and P on the ropes. If P = 48 Ib, what is the required force F to maintain equilibrium? Supply the answer in pounds. 6 ft 12 ft
Fishing line with a tensile strength of 25 lbs is used at B to fasten 2 members together as shown. Find the maximum force F that can be supported, given:L1 = 2 in, L2 = 4 in L3 = 6 in, L4 = 5 in
Q1: The five forces shown are in equilibrium. Compute the values of P and F. 20 kN 60° 30 15 kN 45 60° F 40 kN
Three cable tensions T1, T2, and T3 act at the top of the flagpole. Given that the resultant force for the three tensions is R = −400k N, find the magnitudes of the cable tensions. "Full procedure (step by step), please."
Replace the three forces acting on the guy wires by a single force acting on the flagpole. use t1= 200 lb, t2= 400 lb, and t3= 350 lb.
Rod XY and smooth surface O hold the 1600-N cylinder in equilibrium as shown. Find the force Q exerted by the rod and the normal force Nexerted by the smooth surface on the cylinder.Ignore the weight of the rodXY.