(3) The cart shown below is restrained from moving by a cable connected to a fixed wall. The tank has a circular cross section of diameter D and the flow exit has a circular cross section of diameter Do. Do not assume that H(t) is constant. The fluid has density p and the exit is open to the atmosphere. Wall H Do Cable Vo (1) Determine H(t) and the exit velocity Vo(t). (2) Determine the tension in the cable as a function of time Your answers should be in terms of given parameters (D, Do, p , g)

(3) The cart shown below is restrained from moving by a cable connected to a fixed wall. The tank has a circular cross section of diameter D and the flow exit has a circular cross section of diameter Do. Do not assume that H(t) is constant. The fluid has density p and the exit is open to the atmosphere. Wall H Do Cable Vo (1) Determine H(t) and the exit velocity Vo(t). (2) Determine the tension in the cable as a function of time Your answers should be in terms of given parameters (D, Do, p , g)

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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(3) The cart shown below is restrained from moving by a cable connected to a fixed wall. The
tank has a circular cross section of diameter D and the flow exit has a circular cross section of
diameter Do. Do not assume that H(t) is constant. The fluid has density p and the exit is open to
the atmosphere.
Wall
H
D-
Do
Cable
Vo
(1) Determine H(t) and the exit velocity Vo(t).
(2) Determine the tension in the cable as a function of time
Your answers should be in terms of given parameters (D, Do, p, g)
о,

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