HW3_4 The displacement, uy, along the simply supported beam shown below is given as x3 - (²) x² + (57) ₂ - (²) (x² − (x − 5) ¹) + x3 238.25x + (57): x3 - 238.25x − (²) (x² − (x − 5)¹) + 75(x − 7)² + − (5) (x² − (x − 5)¹) + 75(x − 7)² + (15) (x − 8)³ + (57) x Uy (x) = Plot this piecewise function. Use Newton-Raphson method to find the x location of the maximum displacement with 3 significant figures of accuracy. Print the answer to the screen using appropriate formatting. - 57 6 238.25x गणित 20 kips/ft x3 - 238.25x 150 kip-ft 0≤x≤5 5 < x≤7 7 < x≤8 8 ≤ x ≤ 10 15 kips TI

HW3_4 The displacement, uy, along the simply supported beam shown below is given as x3 - (²) x² + (57) ₂ - (²) (x² − (x − 5) ¹) + x3 238.25x + (57): x3 - 238.25x − (²) (x² − (x − 5)¹) + 75(x − 7)² + − (5) (x² − (x − 5)¹) + 75(x − 7)² + (15) (x − 8)³ + (57) x Uy (x) = Plot this piecewise function. Use Newton-Raphson method to find the x location of the maximum displacement with 3 significant figures of accuracy. Print the answer to the screen using appropriate formatting. - 57 6 238.25x गणित 20 kips/ft x3 - 238.25x 150 kip-ft 0≤x≤5 5 < x≤7 7 < x≤8 8 ≤ x ≤ 10 15 kips TI

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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mechanics of deformable bodies