b) Using the heat diffusion equation which you have derived in part (a). Let consider a one-dimensional plane wall that separate of two fluids which is illustrated in Figure 1b with constant properties (e.g. thermal conductivity, k) and uniform internal generation (e.g. no heat generation) and steady state condition (e.g no change in the amount of energy storage) i) Find the expression of temperature distribution, T(x) 11) and the expression of heat flow, q Hot fluid Cold fluid -T22 x = L

b) Using the heat diffusion equation which you have derived in part (a). Let consider a one-dimensional plane wall that separate of two fluids which is illustrated in Figure 1b with constant properties (e.g. thermal conductivity, k) and uniform internal generation (e.g. no heat generation) and steady state condition (e.g no change in the amount of energy storage) i) Find the expression of temperature distribution, T(x) 11) and the expression of heat flow, q Hot fluid Cold fluid -T22 x = L

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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Question

b) Using the heat diffusion equation which you have derived in part (a).
Let consider a one-dimensional plane wall that separate of two fluids which
is illustrated in Figure lb with constant properties (e.g. thermal
conductivity, k) and uniform internal generation (e.g. no heat generation)
and steady state condition (e.g no change in the amount of energy storage)
i) Find the expression of temperature distribution, T(x)
ii) and the expression of heat flow, q
Ts.
Cold fluid
T2 h2
Hot fluid
T2
T1. h
Lox
x = L
Figure 1b

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