Solve q4 a and b both parts plz solve this in maximum one hour if u can't solve this u can reject in half hour so that i can't wait of your answer plz.. Question 4For small deflections, the shape of a beam is modelled by the equation:El y" = w,where E is Young's modulus for the material, I is the second moment of area of a cross sectionof the beam, and y is the displacement from the straight line position.A uniform heavy beam of length L metres, with downward force density w Nim, is built in at theend x = 0, and hangs free at its other end.(a) Sketch a diagram that models this situation.(0) State all the boundary conditions that apply and explain fully their meaning.(c) Show, by integration, that the deflection of the beam x metres from one end is described bythe equation24 EI(d) State the value of x at which the maximum deflection occurs and hence show the maximumdeflection, ymars of a heavy beam of length L is given byYmax =8EIYou are given the following details.

Given, As student stated to answer Only Part a and b.. So now will discuss it's solution in…

Question 4 For small deflections, the shape of a beam is modelled by the equation: El y" - w, where E is Young's modulus for the material, I is the second moment of area of a cross section of the beam, and y is the displacement from the straight line position. A uniform heavy beam of length L metres, with downward force density w N/m, is built in at the end x = 0, and hangs free at its other end. (al Sketch a diagram that models this situation. (0) State all the boundary conditions that apply and explain fully their meaning.

Question 4 For small deflections, the shape of a beam is modelled by the equation: El y" - w, where E is Young's modulus for the material, I is the second moment of area of a cross section of the beam, and y is the displacement from the straight line position. A uniform heavy beam of length L metres, with downward force density w N/m, is built in at the end x = 0, and hangs free at its other end. (al Sketch a diagram that models this situation. (0) State all the boundary conditions that apply and explain fully their meaning.

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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