2)Venturi design to mix air and fuel.Determine the constricting diameter (d) for the following venturi design so that a fuel is justable to travel from the fuel tank to the tube that is 10 cm away from the top of the fuel tank.Fuel is gasoline (density = 700 kg/m³). Air is coming in at 3 cm/s through a 5 cm diameteropening.Qualitatively explain (using Bernoulli's) what causes the fuel to travel up to the venturi tube.AIR &FUELMIXTUREНAIRd₁-5cmJd?Vair = 3 cm/sFUELFUELTANK

Answered: Image /qna-images/answer/3512fc2b-7e21-4c40-b37d-0921f153155c.jpg

Answered: 2) Venturi design to mix air and fuel.…

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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Water flows from a reservoir through a pipeline as shown in the following diagram. The flow is considered frictionless and discharges freely at point C. (a) What is the total head (total specific energy) at point A? (b) What is the total head (total specific energy) at point B? (c) What is the discharge velocity at point C?
Find and show the desired ones.
Please show your complete solution. Thank you! Air flows in a steady flow manner through a converging tube. At the inlet the pressure is 690kPaabs and the density is 0.838 kg/cu.m. If air enters with a volume flow of 125 cu.m per min at the rate of 94 m/min and the exit section has a diameter of 350mm, determine a.) the mass flow rate, kg/min b.) the diameter of the entrance section and c.) the exit velocity. Assume that the density is constant.
please provide full calculation
a) A fluid with mass of (2,5+JM1)%m for volume of (3)cm’” . Calculate the mass density in (Kg/m’), (slug/ft’) and weight density in (Ib/ft’) and relative density of the fluid. b)Estimate the exit velocity of water from the shower head. The shower head contains 80 holes of (0.1)cm diameter. 3) d=15cm / (2) -— -~ () V2=0.25m/s +Juldlix5 Vi=1m/s +Juliix5
Calculate the flow rate, jet velocity, and the reaction force for each deflection angle. Plot this theoretical reaction forceagainst jet velocity.2. For each deflection angle, plot the actual balancing weight against the theoretical reaction force; does theplot suggest a 45° linear relation?
I need the answer as soon as possible
Directions: In any clean sheet of paper, write your name, solve the problem and show your solution. Box your final answer. Take a picture of it and upload it here (image/pdf). 1) Between two sections in a vessel, a fluid moves in a steady flow manner. At entrance: A1=20 m2, P1=1300 kgm/m3. At exit: A2-10 m2, 02=0.00125 m /kg, Ü2=3 m/min. Determine the following: a) m, in kg/min b) Ủz in m/min
x= 7 y=8 z=16 9=2.8
1st: Using the formula t = determine the Caa/29 coefficient of discharge. “A" of tank Note: 1. "A" depends on the size of your bottle, 2. "a" depends on the size of the hole you punched 3. Let the initial head of water equal to 10 cm 4. You can determine "t" through experiment 5. Hence, the only unknown is the value of Cd. 6. Repeat the process, try using head of water equal to 15 cm, then 20 cm. “a" of orifice 7. Hence, you have 3 values of Cd. 8. Tabulate and graph the results. Be creative. Referred: 1.5 L water bottle or alike You need to provide pictures for No.1 to No.3. Show your solution in No.5. (x3 due to trial 1, 2, and 3. 2nd: Utilizing the same bottle, determine the average velocity of the fluid flowing through the water using the formula Q = CqA¿V¢ - "A" of tank Note: • Let Q = Volume / time. Use a beaker or measuring cup to determine the volume, then record the time “a" of orifice until water "runs" out. Be careful, volume refers only to the amount of water above the…
Three immiscible fluiids are contained in a tank: 1.0 m of water, 1.20 m of oil (s= 0.80) and air under a pressure of 16 kPa. The tank is closed and has a height of 3.0 m and diameter of 1.0 m. Find the theoretical velocity throught a 5 cm diameter orifice located 30 cm above the bottom of the tank. a. 10.34 m/s b. 12.56 m/s c. 8.03 m/s d. 15.8 m/s With FBD
Use a paper with properhandwritting. Thank you.

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