i need the answer quickly A-The power prodoced from a pump (P) is afunction of flow (@), Pressure drop (P), Densityof fluid (P). Diameter of pipe (D), and theeffeiency of Pump (1). Develop an expressionDimensional Analysis for these variables.using

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A- The power produced from a pump (P) is fun (Hon of flow (@), pressure drop (P), Density of fluid (P). Diameter of plpe (D), and the effeiency of Pump (1). Develop an expression Dimensional Analysis for these variables. using

A- The power produced from a pump (P) is fun (Hon of flow (@), pressure drop (P), Density of fluid (P). Diameter of plpe (D), and the effeiency of Pump (1). Develop an expression Dimensional Analysis for these variables. using

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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(b) A pitot-static probe is use to determine the flow velocity by measuring the differential pressure. The pitot formula to obtain the flow velocity is, 2(P- P,) V = where, V is the velocity, P is pressure and pis fluid density. i) The pressure difference sensor use in the system is electronic types and the output of the device is measured in voltage. The output of the pressure device is 3.5 V and the linear relationship between the device and the pressure difference is 10 kPa/V. If the measured fluid is water at 20°C, determine the pressure difference inside the system the water velocity. ii) The Pitot-static tube is also commonly use in aircraft. An aircraft flying at 3000 m above sea level when the differential pressure reading clocked 3 kPa. Determine the speed of the aircraft.
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'p' (liquid density) 'A' (tank cross sectional area) 'Qin' (Input Flow Rate) Qout' P Figure 1 'h' (head of liquid) 'R' (restriction coefficient) 5m
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Suppose we have planned to design a hydraulic system.In this aspect, the pump selection is to be finalized for a flow rate of 3299.5 Liters per minute, It has been validated that the fluid velocity in a discharge pipeline should be between 3.6 m/s and 6.92 m/s. Calculate the minimum diameter and maximum diameter of pipe that should be used in the pipelines Area of the maximum sized pipe diameter (in m2) Area of the minimum sized pipe diameter (in m2) The minimum sized pipe diameter (in cm) and The maximum sized pipe diameter (in cm)
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Dimensional Analysis and Hydraulic Similitude (fluid mechanics) 1. Water at 60F at 12 ft/s in a 6-in. pipe. (a) For dynamic similarity, determine the velocity of medium fuel oil at 90F flowing in a 12-in. pipe. (b) Determine the diameter of the pipe that should be used if a medium lubricating oil at 70oF if flowing at a velocity of 50 ft/s. find the: a. velocity : ____________________ fps b. diameter : ____________________ in.
Py Flow FIGURE 6.2 Portion of a fluid distribution system showing variations in velocity, pressure, and elevation. Reference level 2.
Cakulate the time rate of change of air density during expiration Assume that the lung (Fig. 3.11) has a total volume of 6000 ml, the diameter of the trachea is 18 mm, the airflow velocity out of the trachea is 20 cm/s, and the density of air is 1.225 kg/m. Also assume that lung volume is decreasing at a rate of 100 mL/s. Hello sir, I want the same solution, but in a detailed way and mention his data, a question, and a solution in detailing mathematics without words. Solution We will start from Eq. (3.24) because we are asked for the time rate of change of density. We are asked to find the time rate of change of air density; this suggests that Example 3.5 condis tions are representing a nonsteady flow scenario. In addition, we were told what the rate of change in the lung volume is during this procedure, further supporting the use of Eq. (3.24). pdV+ (3.24 ams Assume that at the instant in time that we are measuring the system, density is uniform within the volume of interest. This…
PLBASE BOX YOUR ANSWERS 3.7 atm -: The 6 cm diameter pipe contains a liquid (p = 1260 kg/m', u = 149 kg/m.s) flowing at an unknown flowrate. Pipe length (A to B) is 40 m. For the gage-pressure measurement shown, find a) the direction of flow (1.e, AB or B→A); b) Is the flow laminar/ turbulent; and c) friction factor. Ignore minor losses. 2.1 atm 12 m