The dead weight tester has been used to calibrate a pressure gage. After finishing the calibration (assume no errors), you use the equipment to measure the mass of an unlabeled object. If you read a pressure of 400 kPa, how much mass is being applied to the instrument, in kg? Diameter of piston: 10 mm O 2.1 kg 3.2 kg Weight Water Pressure Gage kPa

The dead weight tester has been used to calibrate a pressure gage. After finishing the calibration (assume no errors), you use the equipment to measure the mass of an unlabeled object. If you read a pressure of 400 kPa, how much mass is being applied to the instrument, in kg? Diameter of piston: 10 mm O 2.1 kg 3.2 kg Weight Water Pressure Gage kPa

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

See similar textbooks

Similar questions

A differential "U"-tube manometer containing mercury of density 13000 kg/m³ is used to measure the pressure drop along a horizontal pipe. If the fluid in the pipe is water and the manometer reading is 0.65m, what is the pressure difference between the two tapping points? Fluid density Pw A B a b datum Manometric fluid density p Hg Figure of manometer setup
ΕΧΑMPLΕ2 A body of 12 mm diameter is tested and the following results are noted. gauge length =200mm, load =20 kN. , change in length =0.2mm, change in diameter at proportional limit = 0.0025 mm. Calculate the value of poison's ratio and young's. modulus. Given data; - D=12 mm. L= 200mm. P= 20 k N AD = 0.0025 mm AL= 0.2mm 1-и?? 2- E??
A differential manometer is attached to a pipe as shown. Calculate the pressure difference between points A and B. is n. 100 hm re A Mercury B Oil, s = 0.90
1. Describe the basic principles of dilatometer testing. 2. List the main component in dilatometer instruments ( 3. Derived the formula for coefficient of thermal expansion ( 4. Demonstrate how CTE can be measured from dilatometric curve Part 2: CO4 5. Give short description for each given Figure: ( 1.0- Parent glass Glass-ceramic 0.8 S0.6- 0.4- 0.2- 0.0- 200 400 600 800 Temperature (C) Figure 1: Dilatometric curve of parent glass and glass-ceramic sample 0.008 40Z60A 50Z50A 60Z40A 80Z70A 0.007 0.006 0.005 0.004 0.003 0.002 0.001 200 400 600 800 1000 1200 1400 Temperature (°C) Figure 2: Dilatometric curves for each sintered sample, containing different zircon- alumina weight proportions (%) '7/7P dL/Lo*10-6
For the manometer set up shown, determine the difference in pressure between A and B.
Determine the pressure required to decrease the volume of the following fluids by 2%:a. waterb. glycerinc. SAE motor oil5. Calculate the shear modulus for a given cylindrical metal specimen and test results of T = 1700 N.m, L = 20 cm, D = 5 cm, ɸ = 0.02 rad. Can you tell what the material is?
0.5 m Water 0.6 m 1.3 m Gage fluid (SG = 2.6) Water
b) The U-tube manometer can be used to determine pressure difference between two systems.This type of manometer is called a differential U-tube manometer. Consider the differentialmanometer connected to a pipe, as shown in Figure 1. Explain step by step on how you cancalculate the pressure difference between point A and B.
A differential manometer is attached to a pipe shown. Calculate the pressure difference between points A and B.
A glass cylinder 5 cm internal diameter with a screen at the bottom is used as a falling head permeameter. The thickness of the sample is 10 cm. The water level in the tube at the start of the test was 40 cm above tail water level and it dropped by 10 cm in one minute while the level of tail water remained unchanged. Determine the value of the coefficient of permeability in mm/s. Provide a Diagram. a.5.9 x 10^-2 b.4.8 X 10^-1 c.2.15 x 10^-2 d.625 X 10^-2
A manometer consists of a tube of 0.5 inch in the inner diameter and an amount of mercury (SG Hg =13.55). On one side of the tube, oil (SG=1.4) was trapped, a bubble formed, and the fluid inside was stationary. The volume of the oil was 0.6 in^3 and the volume of the air was 0.2 in^3. Now, the oil and bubble are removed. The pressure change across the air bubble is negligible and any curvature on the bubble surface can be neglected in calculating the volumes. Determine how much the mercury height rises (i.e. h 4 -h 2 ).
A docs.google.com/forms/d/e/1FAlpQLSetk8UE/ PROBLEM 6: A gasoline line is connected to a pressure gage through a double-U manometer, as shown. If the reading of the pressure gage is 260 kPa, determine the gage pressure of the gasoline line. Assume the density of air to be 1.225 kg/m3 * Oil SG = 0.79 P gage = 260 kPa Gasoline SG= 0.70 Pipe Air 45 cm 50 cm 22 cm 10 cm Mercury SG= 13.6 Water Your answer