4.4 (A/B). A horizontal steel girder has a span of 3 m and is built-in at the left-hand end and freely supported at e other end. It carries a uniformly distributed load of 30 kN/m over the whole span, together with a single ncentrated load of 20 kN at a point 2 m from the left-hand end. The supporting conditions are such that the action at the left-hand end is 65 kN. (a) Determine the bending moment at the left-hand end and draw the B.M. diagram. (b) Give the value of the maximum bending moment. (c) If the girder is 200 mm deep and has a second moment of area of 40 × 10-6 m* determine the maximum stress SEsylsing from bending [L.Mech.E.] [40 kNm; 100 MN/m².]
4.4 (A/B). A horizontal steel girder has a span of 3 m and is built-in at the left-hand end and freely supported at e other end. It carries a uniformly distributed load of 30 kN/m over the whole span, together with a single ncentrated load of 20 kN at a point 2 m from the left-hand end. The supporting conditions are such that the action at the left-hand end is 65 kN. (a) Determine the bending moment at the left-hand end and draw the B.M. diagram. (b) Give the value of the maximum bending moment. (c) If the girder is 200 mm deep and has a second moment of area of 40 × 10-6 m* determine the maximum stress SEsylsing from bending [L.Mech.E.] [40 kNm; 100 MN/m².]
Chapter2: Loads On Structures
Section: Chapter Questions
Problem 1P
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Please give the solutions for the answers given
![4.4 (A/B). A horizontal steel girder has a span of 3 m and is built-in at the left-hand end and freely supported at
the other end. It carries a uniformly distributed load of 30 kN/m over the whole span, together with a single
concentrated load of 20 kN at a point 2 m from the left-hand end. The supporting conditions are such that the
reaction at the left-hand end is 65 kN.
(a) Determine the bending moment at the left-hand end and draw the B.M. diagram.
(b) Give the value of the maximum bending moment.
(c) If the girder is 200 mm deep and has a second moment of area of 40 × 10-6 m* determine the maximum stress
resulting from bending.
[I.Mech.E.] [40 kN m; 100 MN/m².]](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F7b85ee27-33ca-4bcf-8e8a-8bf07727ceef%2F99d52459-2f36-4913-b999-5bb31f54cdeb%2Fs9vypkl_processed.png&w=3840&q=75)
Transcribed Image Text:4.4 (A/B). A horizontal steel girder has a span of 3 m and is built-in at the left-hand end and freely supported at
the other end. It carries a uniformly distributed load of 30 kN/m over the whole span, together with a single
concentrated load of 20 kN at a point 2 m from the left-hand end. The supporting conditions are such that the
reaction at the left-hand end is 65 kN.
(a) Determine the bending moment at the left-hand end and draw the B.M. diagram.
(b) Give the value of the maximum bending moment.
(c) If the girder is 200 mm deep and has a second moment of area of 40 × 10-6 m* determine the maximum stress
resulting from bending.
[I.Mech.E.] [40 kN m; 100 MN/m².]
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