Consider a liquid metal ( Pr ≪ 1 ) , with free stream conditions u ∞ and T ∞ , in parallel flow over an isothermal flat plate at T s . Assuming that u = u ∞ throughout the thermal boundary layer, write the corresponding form of the boundary layer energy equation. Applying appropriate initial ( x = 0 ) and boundary conditions, solve this equation for the boundary layer temperature field, T ( x , y ) . Use the result to obtain an expression for the local Nusselt number N u x . Hint: This problem is analogous to one-dimensional heat transfer in a semi-infinite medium with a sudden change in surface temperature.
Consider a liquid metal ( Pr ≪ 1 ) , with free stream conditions u ∞ and T ∞ , in parallel flow over an isothermal flat plate at T s . Assuming that u = u ∞ throughout the thermal boundary layer, write the corresponding form of the boundary layer energy equation. Applying appropriate initial ( x = 0 ) and boundary conditions, solve this equation for the boundary layer temperature field, T ( x , y ) . Use the result to obtain an expression for the local Nusselt number N u x . Hint: This problem is analogous to one-dimensional heat transfer in a semi-infinite medium with a sudden change in surface temperature.
Solution Summary: The author explains how to determine the Nusselt number for liquid metal.
Consider a liquid metal
(
Pr
≪
1
)
,
with free stream conditions
u
∞
and
T
∞
,
in parallel flow over an isothermal flat plate at
T
s
.
Assuming that
u
=
u
∞
throughout the thermal boundary layer, write the corresponding form of the boundary layer energy equation. Applying appropriate initial
(
x
=
0
)
and boundary conditions, solve this equation for the boundary layer temperature field,
T
(
x
,
y
)
.
Use the result to obtain an expression for the local Nusselt number
N
u
x
.
Hint: This problem is analogous to one-dimensional heat transfer in a semi-infinite medium with a sudden change in surface temperature.
The tooth numbers for the gear train illustrated are N₂ = 24, N3 = 18, №4 = 30, №6 = 36, and
N₁ = 54. Gear 7 is fixed. If shaft b is turned through 5 revolutions, how many turns will shaft a make?
a
5
[6]
b
CE-112 please solve this problem step by step and give me the correct answer
CE-112 please solve this problem step by step and give me the correct answer
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