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Introduction to Heat Transfer
6th Edition
ISBN: 9780470501962
Author: Frank P. Incropera, David P. DeWitt, Theodore L. Bergman, Adrienne S. Lavine
Publisher: Wiley, John & Sons, Incorporated
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Question
Chapter 3, Problem 3.113P
(a)
To determine
The differential equation for the temperature distribution in the plate.
(b)
To determine
To solve: the temperature differential equation and heat transfer through the plate.
(c)
To determine
To plot: the temperature distribution for different convection and sink heat rate.
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Students have asked these similar questions
Find the two-dimensional temperature distribution T(x,y) and midplane temperature T(B/2,W/2) under steady state condition. The density, conductivity and specific heat of the material are ρ =1200
kg/m 3, k=400 W/m.K, and cp=2500 J/kg.K, respectively. A uniform heat flux q =1000 W/m 2 is applied to the upper surface. The right and left surfaces are also kept at 0oC. Bottom surface is insulated.
Find the two-dimensional temperature distribution T(x,y) and midplane temperature T(B/2,W/2)
under steady state condition. The density, conductivity and specific heat of the material are p=(1200*32)kg/mº, k=400 W/m.K, and cp=2500 J/kg.K, respectively. A uniform heat flux 9" =1000 W/m² is applied to the upper surface. The right and left surfaces are also kept at 0°C. Bottom surface is insulated.
9" (W/m)
T=0°C
T=0°C
W=(10*32)cm
B=(30*32)cm
Find the two-dimensional temperature distribution T(x,y) and midplane temperature T(B/2,W/2)
under steady state condition. The density, conductivity and specific heat of the material are p= 62400
kg/m', k-400 W/m.K, and cp=2500 J/kg.K, respectively. A uniform heat flux q%=1000 W/m² is applied to
2.
the upper surface. The right and left surfaces are also kept at 0°C. Bottom surface is insulated.
9% (W/m³)
y4
T = 0 °C
T = 0°C
W= 520 cm
B=1560 cm
Chapter 3 Solutions
Introduction to Heat Transfer
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