The beam shown in Figure Q.2 consists of a W610 × 140 structural steel wide-flange shape [E = 200 GPa; I = 1120 × 106 mm4]. If w = 52 kN/m and P = 129 kN , determine: a) Calculate the value of the deflection at point B due to uniformly distributed load w in the form: v_B=(answer)/(EI) b) Calculate the value of the deflection at point B due to concentrated load P in the form: v_B=(answer)/(EI) c)Calculate the vertical reaction at support B. When sketching FBD, assume the positive direction of all reactions in the positive direction of y axis. d) Calculate the vertical reaction at support D. e) Calculate the vertical reaction at support A. f) Find the maximum bending moment in the beam. g) Calculate the magnitude of the maximum bending stress in the beam
The beam shown in Figure Q.2 consists of a W610 × 140 structural steel wide-flange shape [E = 200 GPa; I = 1120 × 106 mm4]. If w = 52 kN/m and P = 129 kN , determine:
a) Calculate the value of the deflection at point B due to uniformly distributed load w in the form:
v_B=(answer)/(EI)
b) Calculate the value of the deflection at point B due to concentrated load P in the form:
v_B=(answer)/(EI)
c)Calculate the vertical reaction at support B. When sketching FBD, assume the positive direction of all reactions in the positive direction of y axis.
d) Calculate the vertical reaction at support D.
e) Calculate the vertical reaction at support A.
f) Find the maximum bending moment in the beam.
g) Calculate the magnitude of the maximum bending stress in the beam
Step by step
Solved in 10 steps with 12 images