QUESTION 2Consider roof structure in a petrol kiosk as shown in Figure Q2. The overall height is 6 m and the widthof the roof cantilevers out 3 m each on both sides making a total width of 6 m. The footing foundationat the base of the column has a depth of 3 m and a width of 2 m. Given the following characteristicactions acting on the structure:(a)(b)Characteristic permanent action on roof (includes self-weight) =Characteristic variable action on roof (non-accessible)Characteristic wind action (acting horizontally along the height) =(c)Figure Q2. Roof structure in petrol kioskSolve the following questions based on the limit state concept for static equilibrium of structure (EQU)with reference to Table A1.2(A) BS EN 1990.20 kN/m5 kN/m10 kN/mDraw the free body diagram of the structure with correct dimensions.Present TWO possible load cases that could cause the structure to overturn or lose its staticequilibrium. Provide clear labelling for "unfavourable", "favourable", "leading", and"accompanying". Write clearly the values of partial safety factor for loads and indicate thepoint of overturning in the footing foundation.Calculate the largest weight of foundation required in KN that will ensure static equilibrium inthis structure for the worst possible load case. 3m3m--3m-Unfar.1.5mf$f2023.11.01 09:52ZM1.5mFav.mun1.5m 1.5m*0.5m Im Im 0.5m-+-+ZMtuse this tofind worstGk.for the TWO CASES.

Answered: Image /qna-images/answer/e65339b7-ba28-4913-b19f-dd6556b8a620.jpg

Draw the free body diagram of the structure with correct dimensions. Present TWO possible load cases that could cause the structure to overturn or lose its static equilibrium. Provide clear labelling for "unfavourable", "favourable", "leading", and "accompanying". Write clearly the values of partial safety factor for loads and indicate the point of overturning in the footing foundation. Calculate the largest weight of foundation required in kN that will ensure static equilibrium in this structure for the worst possible load case.

Draw the free body diagram of the structure with correct dimensions. Present TWO possible load cases that could cause the structure to overturn or lose its static equilibrium. Provide clear labelling for "unfavourable", "favourable", "leading", and "accompanying". Write clearly the values of partial safety factor for loads and indicate the point of overturning in the footing foundation. Calculate the largest weight of foundation required in kN that will ensure static equilibrium in this structure for the worst possible load case.

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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