Applied Thermal Hydraulics Assignment#1

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The transport of through a given pipe is governed by the following equation for steady-state convection and diffusion. x V ndS = ndS + q dV (1) S S V Using the central differencing scheme, calculate the distribution of (x) for the following three cases. GRAPH. Assume constant velocity along pipe. Case 1: 5 control…

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The transport of through a given pipe is governed by the following equation for steady-state convection and diffusion.

x

V ndS =

ndS +

q dV

(1)

S

S

V

  1. Using the central differencing scheme, calculate the distribution of (x) for the following three cases. GRAPH. Assume constant velocity along pipe.

Case 1:

5 control volumes and V

= 0.1 m/s,

Case 2:

5 control volume and V

= 2.5 m/s, and

Case 3:

20 control volumes and

V = 2.5 m/s.

(b) For all three cases, compare your numerical solution to the following analytical solution. GRAPH.

L

=

exp( V x / )1

R

L

exp( V L / )1

(c) Calculate the average error for each of the three cases using the following formula.

iexact i

= i

N

(d) Are the numerical results that you obtained what you expected? Why or why not?

Given

Pipe length = 1.0 m

= 1.0 kg/m3 (constant) = 0.1 kg-s/m (constant) Q =0.0

Dirichlet boundary conditions, L = 100, R = 50

(2)

(3)

Applied Thermal Hydraulics Assignment#1
$24.99 $18.99