PLEASE SHOW COMPLETE SOLUTION WITH FIGURE IF APPLICABLE Oil discharges from a 250mm diameter pipe through a sharp crested round orifice,100mm in diameter as shown. The coefficient of contraction and velocity are 0.63 and0.98, respectively. Specific gravity of oil is 0.86.a. Find the discharge from the orifice.250 mm- oil (s = 0.86)orificeb. Find the diameter of the jet.c. Find the actual velocity in the jet.760 mm290 mmmercury

Given data in question Diameter of pipe and orifice Specific gravity Deflection in manometer…

Answered: Oil discharges from a 250mm diameter…

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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oil (SG = 0.88) dischargesfrom a pipe (D = 13 in.) through a sharp-crested, round orifice (diameter = 5 in.), as shown. the coefficients of contraction and velocity are 0.619 and 0.967, respectively. find the actual velocity (in ft/s) in the jet. Point (1) is a point collinear with the orifice at point (2). Point (3) is the free surface of the manometer containing mercury. use h = 2.84 ft., and y = 7.42 in.
3.Water flows from a tank through 22 meters of 150–mmdiameter pipe and then discharges into air as shown in the figure. The flow of water in the pipe is 120 L/s.Assume n = 0.013 and neglect minor losses. a. Find the velocity of flow in the pipe in m/s. b. Determine the total head loss in the pipe in meters. c. Calculate the pressure at the top of the tank in kPa.
In a 250 mm diameter pipe, oil discharges through a sharp crested round orifice, 100 mm in diameter. If the coefficient of contraction (Cc) and coefficient of velocity (Cv) are 0.63 and 0.98, respectively. SG of oil is 0.86. Determine the following: a) discharge from the orifice, (L/s) given that: coefficient of orifice, Co= Cc x Cv b) diameter of jet (mm) given that: Cc = Ajet/Atheo c) actual velocity in the jet, (ft/s) Note: Maintain 3 decimal places on partial and final answers.
For a vertical rectangular gate, one side has linseed oil (0.938) and the other has two fluids - castor oil (0.96) and water. Considerinh a unit-width of the gate, apoly the PRESSURE PRISM CONCEPT (Illustrate and label the pressure diagram/prism) to calculate the magnitude and direction of the following when z = 20ft.
1. An orifice in the side of a vertical tank discharges oil (sp. gr. = 0.82) under a head of 4.0 m. and 25 KPa pressure acting on the surface of the oil. If the diameter of the orifice is 5 cm, the coefficient of contraction is 0.62, and the head lost on the orifice is 45 cm, determine the discharge, coefficient of velocity, and the coefficient of discharge.
For a vertical rectangular gate, one side has linseed oil (0.938) and the other has two fluids—castor oil (0.96) and water. Considering a unit-width of the gate, apply the PRESSURE PRISM CONCEPT (Illustrate and label the pressure diagram/prism) to calculate the magnitude and direction of the following when z=20ft. a. The hydrostatic force due to linseed oil F1. b. The hydrostatic force due to castor oil F2. c. The hydrostatic force due to water. d. The net hydrostatic force acting on the gate Fnet
For a vertical rectangular gate, one side has linseed oil (0.938) and the other has two fluids—castor oil (0.96) and water. Considering a unit-width of the gate, apply the PRESSURE PRISM CONCEPT (Illustrate and label the pressure diagram/prism) to calculate the magnitude and direction of the following when z=20ft. A.) The hydrostatic force due to linseed oil F1. B.)The hydrostatic force due to castor oil F2. C.)The hydrostatic force due to water. D.)The net hydrostatic force acting on the gate Fnet
. A pump draws water from a reservoir and conveys it to another reservoir 30 m above. The sucLon pipe is 100 mm in diameter and 10 m long while the delivery pipe is 100 mm in diameter and 150 m long. if the velocity in the pipe is 3 m/s, the fricLon factor of the pipe 0.008, and the pump and motor efficiencies 85 % and 92 %, respecLvely. See Figure Q6.1. Calculate:(a) Gauge pressure at the pump's inlet (at C) (10)(b) Gauge Pressure at the pump's outlet (at D) (10)(c) input power to motor (5)
For a vertical rectangular gate, one side has linseed oil (0.939) and the other has two fluids - castor oil (0.96) and water. Considering a unit-width of the gate, apply the PRESSURE PRISM CONCEPT. Illustrate and label the pressure diagram/prism to calculate the magnitude and direction of the following when z = 20ft. A. The hydrostatic force due to linseed oil F1 B. The hydrostatic force due to castor oil F2 C. The net hydrostatic force acting on the gate Fnet D. The hydrostatic due to water
Air flows thru a device shown in the figure below. If the flow rate is large enough, the pressure within the constriction will be low enough to draw the water up into the tube. The specific weights of water and air are 9.80 and 12 KN/m3, respectively. If frictional loss is neglected, compute the following: a) the pressure of air at point 2 (kPa), b) the flow rate (L/s), and c) the pressure needed at section 1 to draw the water into section 2 (kPa). Note: Maintain up to 3 decimal places on partial and final answers.
Water flows through a 4-in pipe at the rate of 0.952 cfs and thence through a nozzle attached to the end of the pipe. The nozzle tip is 2 in in diameter and the coefficients of velocity and contraction for the nozzle are 0.95 and 0.93, respectively. What pressure head must be maintained at the base of the nozzle if atmospheric pressure surrounds the jet?
Q2. A 200 mm x 100 mm venturimeter is provided in a vertical pipeline carrying oil of S = 0.9. The flow is in the upward direction. The throat is above the inlet by 0.25 and the differential manometer shows a gauge deflection of 0.25 m of Hg. Determine,(a) Discharge of oil (b) The pressure difference in N/m”2 between entrance and throat by using basic Bernoulli's equation. Take Cd = 0.98*

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