A long tube with cross sectional area 0.468m2 and height 7.27m is standing vertically and filled with an ideal gas. A distance 6.30m from the bottom of the tube is a massless and thin plunger that can move up and down and prevents the gas beneath the plunger from escaping. Above the plunger, a fluid of density 2105kg/m3 can be added. Before the fluid is added, the gas column beneath the plunger is at room temperature (298K) and pressure (101000Pa). This is illustrated in the image below. The fluid is added above the plunger until it is a depth of 0.970000000000001m. What is the pressure on the top of the plunger after the fluid is added?

A long tube with cross sectional area 0.468m2 and height 7.27m is standing vertically and filled with an ideal gas. A distance 6.30m from the bottom of the tube is a massless and thin plunger that can move up and down and prevents the gas beneath the plunger from escaping. Above the plunger, a fluid of density 2105kg/m3 can be added. Before the fluid is added, the gas column beneath the plunger is at room temperature (298K) and pressure (101000Pa). This is illustrated in the image below. The fluid is added above the plunger until it is a depth of 0.970000000000001m. What is the pressure on the top of the plunger after the fluid is added?

Name: A long tube with cross sectional area 0.468m2 and height 7.27m isstan
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Description: A long tube with cross sectional area 0.468m2 and height 7.27m isstanding vertically and filled with an ideal gas. A distance 6.30m fromthe bottom of the tube is a massless and thin plunger that can moveup and down and prevents the gas beneath the p

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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