shown in the figure. Mercury fills a reservoir and is subject to standard atmospheric pressure. You place the bottom of the tube at the very top of the mercury level in the reservoir and require it to stay there at all times (so fluid is just shy of being displaced). What is the height in INCHES the mercury reaches inside the evacuated tube? This may be useful in understanding where atmospheric pressure readings in inches of Hg actually come from. (Note: This is not a “flow" problem, you simply are finding the maximum height that the mercury reaches up the evacuated tube when flow is zero. Also, for thermodynamics reasons, the mercury is not allowed to evaporate either). PHg = 13593 kg/m³, P = 1.013 x 105 Pa %3D atm , Show your work, making clear your use of energy density conservation!!
shown in the figure. Mercury fills a reservoir and is subject to standard atmospheric pressure. You place the bottom of the tube at the very top of the mercury level in the reservoir and require it to stay there at all times (so fluid is just shy of being displaced). What is the height in INCHES the mercury reaches inside the evacuated tube? This may be useful in understanding where atmospheric pressure readings in inches of Hg actually come from. (Note: This is not a “flow" problem, you simply are finding the maximum height that the mercury reaches up the evacuated tube when flow is zero. Also, for thermodynamics reasons, the mercury is not allowed to evaporate either). PHg = 13593 kg/m³, P = 1.013 x 105 Pa %3D atm , Show your work, making clear your use of energy density conservation!!
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P=0 at the top of the vertical tube.
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