**3.6.70 WP** Water, considered an inviscid, incompressible fluid, flows steadily, as shown in Fig. P3.6.70. Determine \( h \).---**Figure P3.6.70 Explanation:**The figure illustrates a fluid flow system with water having a flow rate \( Q = 4 \, \text{ft}^3/\text{s} \). The system shows a horizontal pipe with two sections:1. **Left Section:** - The pipe has a diameter of 0.5 feet. - Positioned vertically with a height of 3 feet.2. **Right Section:** - The pipe has a diameter of 1 foot. - It includes an open air section at the top with water under it. The water level is indicated by height \( h \) to be determined.Both sections are connected, allowing steady flow from left to right under the influence of air in the system.

Answered: Image /qna-images/answer/cd1d2c67-b4df-4765-8faa-ac85390fa4f3.jpg

Answered: 3.6.70 WP Water, considered an…

3.6.70 WP Water, considered an inviscid, incompressible fluid, flows steadily, as shown in Fig. P3.6.70. Determine h. Q = 4 ft³/s 0.5-ft-diameter 3 ft h + FIGURE P3.6.70 -Air Water 1-ft-diameter

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

See similar textbooks

Related questions

Q: As shown in Fig. P3.90, a liquid column of height h isconfined in a vertical tube of cross-sectional…

A: Downward force is given by

Q: 3.21 Some animals have learned to take advantage of the Bernoulli effect without having read a fluid…

Q: 3.58 The water tank in Fig. P3.58 stands on a frictionless cart and feeds a jet of diameter 4 cm and…

A: Given data: Feed jet diameter (d0) = 4 cm v = 8 m/s Deflection angle = 60 degree Need to determine…

Q: A pump in a tank of water at 20 ° C directs a jet at 45 ft/s and200 gal/min against a vane, as shown…

A: Given, Velocity of jet = 45 ft/s Discharge (Q) = 200 gal/min= 200/448.8 ft3/s Considering path B,

Q: The turbine in the figure uses the flow of the river channeled under the dam, as shown. The friction…

A: Given data: Write the expression of velocity in terms of discharge.

Q: 3.19 Water flows downward along a pipe that is inclined at 30° below the horizontal, as shown.…

A: According to the information we know pressure must be equal and same in a horizontal line so let…

Q: 3.33 Water flows from the faucet on the first floor of the building shown in Fig. P3.33 with a…

Q: 6.31 A fluid with a density of 1000 kg/m³ flows steadily between two stationary flat plates as shown…

A: Write the equation of motion along the x axis. Since the flow is steady and incompressible, also…

Q: P3.34 A rocket motor is operating steadily, as shown in Fig. P3.34. The products of combustion…

Q: - The horizontal pump in Fig. P3.186 discharges 20°C water at 57 m/h. Neglecting losses, what power…

Q: An incompressible Newtonian fluid having a thickness of h, flows steadily in the x- direction along…

Q: Water fl ows through a circular nozzle, exits into the air as a jet,and strikes a plate, as shown in…

A: Write the given data:

Q: Q2. ( ) Kerosene at 25°C flows through a DN40, Schedule 80 Steel Pipe elbow as shown. Calculate: 1.…

A: Given: The temperature of kerosene, T = 25°C The speed of kerosene through pipe, v = 1.9 m/s The…

Q: Fluid at 20°C (7 = 9.789 kN/m², vapor pressure = 2.420 kPa (abs) flows in a series pipeline system…

Q: 3.65 Air at 120 kPa absolute and 30°C flows vertically upward in a pipe, as shown in Fig. P3.65. If…

A: Given Data The total height is: H=1.5 m The inlet pressure of the air is: P1=120 kPa The…

Q: 3.6.45 (WP) Oil of specific gravity 0.83 flows in the pipe shown in Fig. P3.6.45. If viscous effects…

Q: 3.47 Water (assumed inviscid and incompressible) flows steadily (Ans: 11.4 m/s) in the vertical…

A: Given data, P= 50 KPa in both gages Z1= 0 Z2=10 m d1=1 m d2=2 m

Q: P3.114 Water flows through a circular nozzle, exits into the air as a jet, and strikes a plate, as…

Q: A wedge splits a sheet of 20 °C water, as shown in Fig.P3.39. Both wedge and sheet are very long…

A: The diagram of the wedge is given as, On using force equilibrium in horizontal direction, it is…

Q: The volume flow Q over a certain dam is a function of damwidth b , gravity g , and the upstream…

A: Given Data: Width of dam is b = 120 ft. The depth of water is H = 15 in. The flow rate is Q = 600…

Q: The large turbine in Fig. P3.184 diverts the river flow undera dam as shown. System friction losses…

A: Given data

Q: P3.160 The three-arm lawn sprinkler of Fig. P3.160 receive 20°C water through the center at 2.7…

A: Given data R = 15 Cm d = 7 mm Discharge Q = 2.7 m3/h

Q: Water, assumed incompressible, flows steadily through the round pipe in Fig. P3.15. The entrance…

A: Given data: Entrance velocity, u = U0 Exit velocity, u = umax( 1 – r/R)1/7 Since the flow is steady,…

Q: A piston compresses gas in a cylinder by moving at constantspeed V , as in Fig. P4.18. Let the gas…

Q: In Fig. P3.60 the jet strikes a vane that moves to the right at constant velocity Ve on a…

A: The free body diagram of forces acting on the vane is shown below. The initial relative…

Q: P3.35 In contrast to the liquid rocket in Fig. P3.34, the solid-propellant rocket in Fig. P3.35 is…

A: As per given question Molecular gas constant =28 Temperature=1500 We have determine the rate of…

Q: Water with a density of 1 g/cm³ flows through a horizontal pipe. The pipe cross-section tapers from…

Q: 3.20 Air flows over the airfoil shown in Fig. P3.20. Sensors give the pressures shown at points A,…

A: Given:The air density is .The velocity is .Assumption:The incompressible and inviscid flow.

Q: Ex: A stream of water of diameter d= 0.1 m flows steadily from a tank of diameter D = 1.0 m as shown…

A: Data given- d = 0.10 D = 1.0 m h = z1 = 2 m z2 = 0

Q: P3.143 The large tank of incompressible liquid in Fig. P3.143 is at rest when, at t = 0, the valve…

Q: Water flows through a horizontal branching pipe as shown in the figure below. Determine the pressure…

A: Given: V1=4.2 m/sp1=425 kPaA1=.10 m2p2=380 kPaA2=0.02 m2A3=0.07 m2

Q: 4.68 The wind blows across a field with an approximate velocity profile as shown in Fig. P4.68. Use…

A: Consider the diagram

Concept explainers

Properties of Fluids

The term fluid represents a type of substance that can easily change its shape under any external pressure/force and can flow. Fluids can acquire any shape in which it is stored and can resist normal stresses but cannot resist shear stress in rest condition. Whenever external shear stress is applied to fluids, it starts to flow. The fluids may be liquid or gas. Example- water, air, etc.

Question

**3.6.70 WP** Water, considered an inviscid, incompressible fluid, flows steadily, as shown in Fig. P3.6.70. Determine \( h \).

---

**Figure P3.6.70 Explanation:**

The figure illustrates a fluid flow system with water having a flow rate \( Q = 4 \, \text{ft}^3/\text{s} \). The system shows a horizontal pipe with two sections:

1. **Left Section:**
- The pipe has a diameter of 0.5 feet.
- Positioned vertically with a height of 3 feet.

2. **Right Section:**
- The pipe has a diameter of 1 foot.
- It includes an open air section at the top with water under it. The water level is indicated by height \( h \) to be determined.

Both sections are connected, allowing steady flow from left to right under the influence of air in the system.

Expert Solution

This question has been solved!

Explore an expertly crafted, step-by-step solution for a thorough understanding of key concepts.

This is a popular solution!

SEE SOLUTION Check out a sample Q&A here

Step 1: Determining the given data

VIEW

Step 2: Finding velocity at point 1 & 2

VIEW

Step 3: Finding pressure difference between pt 1 & 2

VIEW

Step 4: Finding h

VIEW

Solution

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 5 steps with 5 images

SEE SOLUTION Check out a sample Q&A here

Knowledge Booster

Learn more about

Need a deep-dive on the concept behind this application? Look no further. Learn more about this topic, mechanical-engineering and related others by exploring similar questions and additional content below.

Similar questions

A cylindrical tank with a large diameter is filled with water to a depth D = 0.402 m. A hole of cross-sectional area A = 5.26 cm2 in the bottom of the tank allows water to drain out. (a) What is the rate at which water flows out, in cubic meters per second? (b) At what distance below the bottom of the tank is the cross-sectional area of the stream equal to one-half the area of the hole?
PDI The pump in Fig. P3.191 creates a 20°C water jet oriente to travel a maximum horizontal distance. System friction head losses are 6.5 m. The jet may be approximated by the trajectory of frictionless particles. What power must be delivered by the pump? Jet De = 5 cm 25 m D= 10 cm %3D 15 m 2 m Pump P3.191
If anyone can help with this problem I would appreciate it. Thank you! Answers listed in the book are: a) 5, (b) 4.4 m/s, (c) −ρV 22 H2w((1 + cos θ)i + sin θj), (d) magnitude ×1/4
Q1. 5.37 Find the horizontal and vertical forces to hold stationary the nozzle shown in Fig. P5.37. The fluid flowing through it is 10 °C liquid water; A = » and p = Pam + 30 kPa. Neglect gravity. 1.0 m², A2 = 0.25 m², Vị = 20 m/s, p2 = Patm 45° A2, P2 = Patm F V1 = 20 m/s A1 %3D Patm P1
FLUID MECHANICS 1
Q3- A venturi meter, shown in Fig.P3.165, is a carefully designed constriction whose pressure difference is a measure of the flow rate in a pipe. Using Bernoulli's equation for steady incompressible flow with no losses, show that the flow rate Q is related to the manometer reading h by A2 2gh(pm-p) D
Water flows from a large tank as shown below. Atmospheric pressure is 100 kPa and the vapor pressure is 11.0 kPa. To avoid cavitation, should the value of D2 be increased or decreased? Please explain. Please use mathematical justification whenever necessary.
A constriction in a pipe will cause the velocity to rise and the pressure to fall at section 2 in the throat. The pressure difference is a measure of the flow rate through the pipe. The smoothly necked-down system shown in Fig. E3.23 is called a venturi tube. Find an expression for the mass flux in the tube as a function of the pressure change. HGL