Problem 9.3For Problem 5.30 in the text (Chapter 5 Problems start on page 5-56 of the text) - only do thefollowing for this problem:a. Draw a system diagram appropriate for determining the mass flow rates at theinlets and outlets.b. Draw a Kinetic Diagram and a Free Body Diagram appropriate for solving for thereaction force at the flange. (The Flange is where the fan is supported at point Ain the diagram.) Problem 5.30The ducted fan unit shown in the figure has mass m= 100 kg and is supported in the vertical position onits flange at 4. The unit draws in air with a densityp = 1.200 kg/m³ and a velocity V₁ = 5 m/s throughan inlet with diameter D₁ = 1.00 m. It discharges airthrough two outlets at the bottom of the fan. Themass flow rate through each outlet is 1/2 of theentering mass flow rate, and the velocity at eachoutlet is V₂ V3 = 15 m/s. Both inlet and outletpressures are atmospheric.Determine the vertical force R, in newtons, appliedto the flange of the fan unit by the supports.D₁ = 1.00 mV3= 15 m/sV₁ = 5 m/sH0=55° 0= 55°Fan BladesV₂ = 15 m/s

mass of the fan unit mu=100 kgAt inlet 1ρ1=1.2 kg/m3V1=5 m/sD1=1mAt exit 2m˙2=12m˙1V2=15m/sθ2=55oAt…

The ducted fan unit shown in the figure has mass m = 100 kg and is supported in the vertical position on its flange at A. The unit draws in air with a density p = 1.200 kg/m³ and a velocity V₁ = 5 m/s through an inlet with diameter D₁ = 1.00 m. It discharges air through two outlets at the bottom of the fan. The mass flow rate through each outlet is 1/2 of the entering mass flow rate, and the velocity at each outlet is V₂ V3 = 15 m/s. Both inlet and outlet pressures are atmospheric.

The ducted fan unit shown in the figure has mass m = 100 kg and is supported in the vertical position on its flange at A. The unit draws in air with a density p = 1.200 kg/m³ and a velocity V₁ = 5 m/s through an inlet with diameter D₁ = 1.00 m. It discharges air through two outlets at the bottom of the fan. The mass flow rate through each outlet is 1/2 of the entering mass flow rate, and the velocity at each outlet is V₂ V3 = 15 m/s. Both inlet and outlet pressures are atmospheric.

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

Problem 9.3
For Problem 5.30 in the text (Chapter 5 Problems start on page 5-56 of the text) - only do the
following for this problem:
a. Draw a system diagram appropriate for determining the mass flow rates at the
inlets and outlets.
b. Draw a Kinetic Diagram and a Free Body Diagram appropriate for solving for the
reaction force at the flange. (The Flange is where the fan is supported at point A
in the diagram.)

Problem 5.30
The ducted fan unit shown in the figure has mass m
= 100 kg and is supported in the vertical position on
its flange at 4. The unit draws in air with a density
p = 1.200 kg/m³ and a velocity V₁ = 5 m/s through
an inlet with diameter D₁ = 1.00 m. It discharges air
through two outlets at the bottom of the fan. The
mass flow rate through each outlet is 1/2 of the
entering mass flow rate, and the velocity at each
outlet is V₂ V3 = 15 m/s. Both inlet and outlet
pressures are atmospheric.
Determine the vertical force R, in newtons, applied
to the flange of the fan unit by the supports.
D₁ = 1.00 m
V3= 15 m/s
V₁ = 5 m/s
H
0=55° 0= 55°
Fan Blades
V₂ = 15 m/s

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