Consider water (density = 1000 kg/m^3) flow in a piping network. The pressure, velocity, and elevation at a specified point (point 1) of the flow rate are 155 kPa, 1.8 m/s, and 14 m. The pressure and velocity at point 2 are 170 kPa and 3.5 m/s. Neglecting frictional effects, the elevation at point 2 is

Consider water (density = 1000 kg/m^3) flow in a piping network. The pressure, velocity, and elevation at a specified point (point 1) of the flow rate are 155 kPa, 1.8 m/s, and 14 m. The pressure and velocity at point 2 are 170 kPa and 3.5 m/s. Neglecting frictional effects, the elevation at point 2 is

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: A horizontal pipe has a sudden expansion from diameter 8 cm to diameter 16 cm as shown in Figure…

Q: If you had a fixed mass of hot air stored in a rigid container and decided to transfer heat from the…

Q: You wash your roof with a water hose at a height of 8.0 m above the ground. You connect two garden…

A: Given- P1 = Atmospheric pressure = 1.01 x 105 Pa v1 = 6 m/s height from datum 2 to 1 = (h) = 8 m By…

Q: Two chambers, Chamber 1 and Chamber 2 where pressure at chamber 1 p1=70 kPa, at chamber 2 the…

Q: An incompressible fluid of density 800 kg/m3 flows steadily at 8 m3/sec through a horizontal piping…

A: ρ=800 kg/m3Q=8 m3/sd1=1md2=0.5mP1=1000 kPa absP2=atmospheric pressure =101.325kPa

Q: A leaky 15-kg bucket is lifted from the ground to a height of 18m at a constant speed with a rope…

Q: (Bernoulli/continuity) Water flows steadily through a diverging tube as shown in the figure below.…

Q: Air (density 1.2 kg/m³) flows through a horizontal pipe with negligible energy loss due to friction.…

Q: At the bottom of a pressurized water tank is a mouth with a diameter of 5 cm, where water is…

A: Fluid is a state of matter which deforms continuously on the application of force externally,…

Q: A thin disc with mass 0.01 kg is kept balanced by a jet of air. The diameter of the jet at the…

A: The mass of the disc is: m= 0.01 kgThe diameter of the jet nozzle is: d=5 mm = 0.005 mThe density of…

Q: A leaky 15-kg bucket is lifted from the ground to a height of 18m at a constant speed with a rope…

Q: A hydraulic motor must deliver a torque of 70 Nm when rotating at 800 r/min. The maximum system…

A: A hydraulic motor is a device used to deliver fluid from a low-pressure region to a high-pressure…

Q: Water flows through a circular tube with a constant diameter at a constant flow rate. The outlet is…

Q: 2. A spherical tank with radius R (=1.5 m) has a hole at the bottom through which water drains out.…

Q: A smooth pipe flow has a turbine installed between two different size pipes, where d1 = 2.2 cm and…

Q: Hot water at a constant volumetric flow rate of Fh and temperature Th(t) is mixed with cold water…

A: Given: Hot water at a constant volumetric flow rate of Fh and temperature Th(t) cold water at a…

Q: 2. Water flows through a pipe of 20 cm diameter and 10 m long between two tanks as show in Figure…

A: The diameter of the pipe, d = 20 cm = 0.2 mThe pipe length, L = 10 mThe loss factor due to gate…

Concept explainers

Applied Fluid Mechanics

A fluid is a substance that is continuously deformed by the application of shear stress. The rate of deformation of a fluid depends on its viscosity. The fluid tries to flow when it interacts with some other system.

Question

Consider water (density = 1000
kg/m^3) flow in a piping network.
The pressure, velocity, and
elevation at a specified point
(point 1) of the flow rate are 155
kPa, 1.8 m/s, and 14 m. The
pressure and velocity at point 2
are 170 kPa and 3.5 m/s.
Neglecting frictional effects, the
elevation at point 2 is

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

VIEW

Step 2

VIEW

Trending now

This is a popular solution!

Step by step

Solved in 2 steps

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

Asap plzz
I am studying for an exam this week, and I want to check my steps and answers for this one problem. Air enters a nozzle steadily with a density of 2.21 kg/m^3 and velocity of 40 m/s and leaves at 180 m/s with a density of 0.762 kg/m3. If the nozzle inlet has an area of 90 cm^2, determine: a) The Volumetric flow rate at the in let (m^3/s) b) The Mass flow rate (kg/s) through the nozzle; c) The exit area of the nozzle (cm^2)
Towards the inside of a cylindrical tank with diameter: D = 24 m, water flows through a tube 1 with a velocity v1 = 20 m / s and exits through tubes 2 and 3 with velocities v2 = 8 m / s and v3 = 10 m / s respectively. At 4 there is a vent valve open to the air from the atmosphere. (a) What is the speed with which the level rises of water in the tank? (b) what is the average velocity of the air flow at valve 4? assuming air is incompressible. Assume the following pipe diameters: D1 = 3 m, D2 = 2 m, D3 = 2.5 m, D4 = 2 m, consider that the density of water is: ρw = 103 kg / m3 , and the density of air is: ρa = 1.2 kg / m3
BEER with a density of 789 kg/m3 from a non-elevated open reservoir (P1=0 bars) flows before the pump at 0.75 m/s. The beer is pumped at a rate of 15 m/s to a 5 meter elevated tank with a pressure reading of 0.69 Bars. assuming zero Friction losses, Calculate the actual work if the pump's efficiency is just 44%. Calculate the theoretical and actual power in hp for a mass of 100 kg and a time of 1 minute of Beer.
(a) Water flows by gravity from one lake to another as illus- trated; the surface levels of the lakes differ by an eleva- tion of h= 50 ft. If the volumetric flow rate is steady at Q = 80 gallons per minute, what is the associated loss of available energy? (b) A pump is to be installed to pump the water from the lower lake to the upper lake with the same flow rate as above (Q = 80 gpm). If the amount of energy loss is assumed to be the same as in part (a), how much mechanical power must be supplied by the pump? Answer: (a) loss = 1600 ft-lb/slug, (b) Wpump = 2.0 hp
A centrifugal pump has the following characteristics as shown in Table 1. Table 1: Pump characteristics Q(m3 /s) 0.033 0.029 0.027 0.0235 0.020 0.017 0.0133 H(m) 40 60 66 75 80 84 90 Efficiency % 20 45 55 68 75 66 45 The pump is used to pump water from a low reservoir to a high reservoir through a total length of 1100 m of pipe 250 mm in diameter. The difference between the water levels in the reservoirs is 25 m. Neglecting all losses except friction and assuming λ=0.042, calculate: i. The discharge and head at the duty point for the pump. (20) ii. The efficiency at the duty point. (5) [2
From a PPRC (shiny surface) pipe with an inner diameter of 20.5 mm and a length of 70 cm, water at 20 ° C flows at a flow rate of 1500 L / h and a pressure difference of 52 mbar occurs. Based on these data, find the speed of the water, the Re number, the friction factor, the f value and the pressure difference (in mbar) and show the f value you found from the Moody diagram. (For 20 ° C water; p = 998 kg / m3,µ= 1.003x10-3 N.s / m2, v = 1.005x10-6 m2 / s, 1 bar = 10.2141mSS)
Q4. Water from a reservoir is conveyed via a pipeline of constant diameter and 1000m length to a turbine situated 90m below the reservoir surface level. The velocity of flow through the pipeline is 5m/s and the energy loss due to friction in the pipeline is 200J/kg. The water leaves the turbine at atmospheric pressure (100 kN/m2) and with negligible velocity. Assuming an efficiency of 85% for the turbine, determine: a). Pipeline diameter b). Pressure at entry to turbine c). Turbine power output. Take f = 0.025
Water flows through a garden hose at a rate of 1 l/s. The upstream diameter of the hose is 2.5 cm, and the nozzle outlet has a diameter of 1 cm. Determine the upstream pressure (gage pressure).