Biaxial bending 2. Derivation of the cross section core.a) Determine the core of the cross section shown below.b) Make a graphs of normal stresses, assuming that crosssection presented below is compressed with the forceacting perpendicularly to the cross section locatedrespectively in point K and L.Remark: The cross section core, neutral axis for thesubsequent locations of the compressive forces andstresses graphs please present on one drawing.6131General Remark: In the homework all relevant calculations 3131 6should be presented in detail2033K

Answered: Image /qna-images/answer/3d40df82-9232-4209-aaed-5577ad81e77c.jpg

2. Derivation of the cross section core. a) Determine the core of the cross section shown below. b) Make a graphs of normal stresses, assuming that cross section presented below is compressed with the force acting perpendicularly to the cross section located respectively in point K and L. V Remark: The cross section core, neutral axis for the subsequent locations of the compressive forces and stresses graphs please present on one drawing. General Remark: In the homework all relevant calculations 3 6 31 should be presented in detail K

2. Derivation of the cross section core. a) Determine the core of the cross section shown below. b) Make a graphs of normal stresses, assuming that cross section presented below is compressed with the force acting perpendicularly to the cross section located respectively in point K and L. V Remark: The cross section core, neutral axis for the subsequent locations of the compressive forces and stresses graphs please present on one drawing. General Remark: In the homework all relevant calculations 3 6 31 should be presented in detail K

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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