Answer:
flow rate is 8.0385 ×
m³/s or 12.741 gpm
Step-by-step explanation:
given data
12-nominal schedule 40 pipe
Reynolds number = 2000
to find out
What is the flow rate
solution
we know the diameter of 12-nominal schedule 40 pipe is
Diameter = 12.75 inch
D = 0.32385 m
and
dynamic viscosity of Turpentine is = 0.001375 Pa-s
and Density of Turpentine is 870 kg/m³
so
Reynolds number is express as
Re =
![(\rho*V*D)/(\mu)](https://img.qammunity.org/2020/formulas/engineering/college/w4gk4t9ptasb0bhx16un85azb0pd8i23q2.png)
here ρ is density and D is diameter and V is velocity and µ is viscosity
so put here all value
2000 =
![(870*V*0.3238)/(0.001375)](https://img.qammunity.org/2020/formulas/engineering/college/cb7b1ozmag6xaa0koinghmy0zdcn2ufaan.png)
V = 9.7619 ×
m/s
and
flow rate is
Q = V × A
here A is area and Q is flow rate
Q = 9.7619 ×
×
![(\pi )/(4) * 0.3238^2](https://img.qammunity.org/2020/formulas/engineering/college/e1zcj5w9aelptgxhcn0gtv4svulkxhzfe0.png)
Q = 8.0385 ×
m³/s
so flow rate is 8.0385 ×
m³/s or 12.741 gpm