A 1,600-lb dinosaur stands on a simply-supported beam. Determine the maximum bending moment in the beam. Let a = 13.0 ft and b = 7.0 ft.

Three toy blocks are glued together to form a beam that supports a vertical shear force of 106 N. Each block has dimensions a = 15 mm and b = 45 mm. Determine the horizontal shear stress in the glue between blocks (2) and (3). The moment of inertia around the horizontal centroidal axis of the beam is 1,354,219 mm4.

Loads P = 769 N and Q = 454 N act on an oak beam. Determine the magnitude of the largest shear force (consider both positive and negative values) in the beam. Let a = 0.5 m and b = 1.3 m.

A cylindrical beam supports a shear force of 15.4 kN. The outside diameter is 58 mm, and the wall thickness is 4 mm. Determine the maximum horizontal shear stress in the beam.

A 1,980-lb dinosaur stands on a simply-supported beam. Determine the maximum bending moment in the beam. Let a = 8.4 ft and b = 5.2 ft.

Loads P = 736 N and Q = 500 N act on an oak beam. Determine the magnitude of the largest shear force (consider both positive and negative values) in the beam. Let a = 0.5 m and b = 1.0 m.

Six toy blocks are glued together to form a beam that supports a shear force of 196 N. Each block has dimensions a = 11 mm and b = 33 mm. Determine the horizontal shear stress in the glue between blocks (1) and (2).

Loads P = 692 N and Q = 470 N act on an oak beam. Determine the magnitude of the largest shear force (consider both positive and negative values) in the beam. Let a = 0.5 m and b = 0.8 m.

A 2,580-lb dinosaur stands on a simply-supported beam. Determine the maximum bending moment in the beam. Let a = 7.6 ft and b = 5.1 ft.

A 47-N eagle sits on a tee-shaped post that has a diameter of 55 mm. Determine the magnitude of the largest normal stress in the vertical part of the post. Let a = 0.45 m be the distance from the eagle to the centroid of the post.