An orifice meter havingan inside diameter of2.5 cm is located in a 8 cmflowing throughpipe. Water isandthethepipemercurymanometer measuresthe differential pressureover the pipe. When the manometer reading is 35cm, what is the flow rate of water per minute?

Calculated flow rate of water in (m3/minute).

An orifice meter having an inside diameter of 2.5 cm is located in a 8 cm pipe. Water is flowing through the manometer measures the differential pressure over the pipe. When the manometer reading is 35 cm, what is the flow rate of water per minute? pipe and the mercury

An orifice meter having an inside diameter of 2.5 cm is located in a 8 cm pipe. Water is flowing through the manometer measures the differential pressure over the pipe. When the manometer reading is 35 cm, what is the flow rate of water per minute? pipe and the mercury

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

Similar questions

A closed tank contain water up to a height of 2 m and over the water surface there is air having a pressure of 90 kPa above atmospheric pressure. Find the discharge through a small sharp-edged orifice of 15 cm dia. at the bottom of tank. Take C=0.6.
Determine the difference in height of mercury (Δh) in meters from a U manometer coupled to the next orifice plate meter. Use international measurement system
a. A U tube differential manometer containing mercury was used to measure the difference of pressures in two pipes containing ethylene glycol. The difference in mercury level is 0.8 m, the level of ethylene glycol in left limb from mercury level to center of the left pipe is 1.8 m and the level of ethylene glycol in right limb from mercury level to center of the left pipe is 0.8 m. Find the head difference in m. S for ethylene glycol = 1.1, S for mercury 13.6. b. Draw a neat diagram shows all parameters. c. Discuss the differences between normal U tube and differential U tube manometers. (sub divisions b and c, upload the document) Difference in heads in m
8 P Flag question Two ends of an U-tube manometer which contains mercury, is connected between two pipes (A & B), that carries of oil of specific gravities 1.8 & 1.2 respectively. The center of the pipe A (left limb) is 12 cm above the pipe B (right limb). The mercury level difference in the right limb is 3.1 cm and the height of fluid in the right limb is 6.2 cm. Find the pressure difference between these two pipes in Kilo Pascal (kPa). Draw the diagram. (diagram (Please solve the problem in a paper and upload in the separate submission link provided and also fill the answers without the unit in the box below) The difference of pressure between the pipes A & B in (kPa) = Question 13 II
Two pipes are connected by a manometer as shown in figure 1 (left). Determine the pressure difference Pa - Pa between the pipes.
A 200 m long pipe slopes down at 1 in 100 and tapers from 0-25 m diameter to 0-15 m diameter the pressure at th the lower end. If the pipe carries 100 litres of oil of specific gravity 0-85, find lower end. The upper end gauge reads 50 kPa. [Ans. 54-9 kP
The U Tube manometer is widely used to measure the differencelin pressure between tMo donta in a given flow system. As an example, a manometer connected betweeti pipesA and B is stiowti devermi pressure difference in the two pipes. All dimensions shown are in centimeters. Kerosene Benzene P 20 Mercury Weter
I did a venturi effect experiment which involved taking 15 mesurements. The opening of the damper at the end of the tube was increasing in increments of 0.5cm for each of the 15 mesurements. Then the change in length in manometer tube was recorded. the manometer tube used in this experiment wasn't vertical, it was horizontal with a slight incline. Room temperature and pressure were recorded at the start of experiment as well. As the opening of the damper increased from mesurements 1 to 15, the change in length of manometer tube also increase from 1 to 15. the bigger diameter of the tube is 140mm and the diameter of throat section is 89mm. The density of the fluid is 870 kg/m. Using this information workout all the equations on the image and also the mass flow rate which should be volumetric flow rate multiplied by density. Also workout the reynolds number. Workout all these to determine the relationship between mass flow rate, velocity value and reynolds number. Let me know if you want…