Use the graphical method to construct the shear-force and bending-moment diagrams and identify the magnitude of the largest moment. The ground reactions are provided.P = 58 kNw = 18 kN/mL = 2 mAy = 44.67 kNDy = 49.33 kN

Determine the magnitude of the shear force V in the beam at a point located 1.55 m to the right of point B. The ground reactions are provided.Ay = 65.60 kNCy = 58.40 kN

Determine the magnitude of the bending moment M in the beam at a point located 2.00 m to the right of point B. The ground reactions are provided.Ay = 65.60 kNCy = 58.40 kN

A 172-lb person stands on an oak beam. Determine the vertical reaction force at the right end of the beam. Let a = 63 in. and b = 37 in.

Determine the magnitude of the vertical force Ay for the simply supported beam, where P = 28 kN and w = 6 kN/m.

Determine the magnitude of the vertical force Ay for the simply supported beam, where P = 54 kN and w = 2 kN/m.

Use the graphical method to construct the shear-force diagram and identify the magnitude of the largest shear force (consider both positive and negative peaks). Use a = 21 ft, b = 8 ft, and w = 10 kips/ft. The reaction forces for this beam are Ay = 89.75 kips and By = 200.25 kips.

A simple pin-connected truss is constructed from three aluminum members. Assume a = 1.2 m, b = 9.5 m, and c = 4.1 m. If P = 50 kN and Q = 95 kN, determine the magnitude of the force in member AC.

Three loads are applied to a truss. Assume a = 3 m and b = 2 m. If P = 34 kN and Q = 50 kN, determine the magnitude of the force in member BC.

A simple pin-connected truss is constructed from three aluminum members. Assume a = 1.7 m, b = 6.5 m, and c = 3.2 m. If P = 60 kN and Q = 95 kN, determine the magnitude of the force in member AC.