600 - 439= 161torr
The partial pressure of hydrogen gas can be calculated by subtracting the partial pressure of helium from the total pressure. Therefore, the partial pressure of hydrogen gas would be 161 mm Hg (600 mm Hg - 439 mm Hg = 161 mm Hg).
To find the partial pressures of helium and oxygen in the gas tank, we can use Dalton's Law of Partial Pressures. Given that the mixture is 75% helium, the partial pressure of helium (P_He) is 75% of the total pressure: P_He = 0.75 × 20.1 ATM = 15.075 ATM. The remaining 25% is oxygen, so the partial pressure of oxygen (P_O2) is 25% of the total pressure: P_O2 = 0.25 × 20.1 ATM = 5.025 ATM.
The total pressure inside the tank is the sum of the partial pressures of the gases present. In this case, Total pressure = partial pressure of oxygen + partial pressure of helium = 10 atm + 32.8 atm = 42.8 atm.
Industrial deep-sea divers must breathe a mixture of helium and oxygen to prevent a disorienting condition known as nitrogen narcosis. If a diver's tank is filled with a helium-oxygen mixture to a pressure of 170 atmospheres and the partial pressure of helium is 110 atmospheres, the partial pressure of the oxygen is ? - is the question The answer is 60. Total pressure minus the partial pressure= 170-110= 60.
To find the mole fraction of CH4, we first need to calculate the total pressure of the mixture. Total pressure = partial pressure of CH4 + partial pressure of He = 0.72 ATM + 0.22 ATM = 0.94 ATM. Then, we use the formula for mole fraction: Mole fraction of CH4 = (partial pressure of CH4) / (total pressure). Mole fraction of CH4 = 0.72 ATM / 0.94 ATM ≈ 0.766.
The partial pressure of hydrogen gas can be calculated by subtracting the partial pressure of helium from the total pressure. Therefore, the partial pressure of hydrogen gas would be 161 mm Hg (600 mm Hg - 439 mm Hg = 161 mm Hg).
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The total pressure inside the tank is the sum of the partial pressures of the gases present. In this case, Total pressure = partial pressure of oxygen + partial pressure of helium = 10 atm + 32.8 atm = 42.8 atm.
Industrial deep-sea divers must breathe a mixture of helium and oxygen to prevent a disorienting condition known as nitrogen narcosis. If a diver's tank is filled with a helium-oxygen mixture to a pressure of 170 atmospheres and the partial pressure of helium is 110 atmospheres, the partial pressure of the oxygen is ? - is the question The answer is 60. Total pressure minus the partial pressure= 170-110= 60.
To find the mole fraction of CH4, we first need to calculate the total pressure of the mixture. Total pressure = partial pressure of CH4 + partial pressure of He = 0.72 ATM + 0.22 ATM = 0.94 ATM. Then, we use the formula for mole fraction: Mole fraction of CH4 = (partial pressure of CH4) / (total pressure). Mole fraction of CH4 = 0.72 ATM / 0.94 ATM ≈ 0.766.
To find the partial pressure of oxygen, you can subtract the partial pressures of helium and carbon dioxide from the total pressure of 1 atmosphere (760 mm Hg). Partial pressure of oxygen = Total pressure - Partial pressure of helium - Partial pressure of carbon dioxide = 760 mm Hg - 609.5 mm Hg - 0.5 mm Hg = 150 mm Hg.
The pressure that there would be if all the non-helium atoms and molecules were taken away.
Helium, hydrogen, and air are gases.
Hydrogen + intense heat and pressure --> Helium + energy release
To calculate the total pressure of the mixture, you need to convert all the partial pressures to a single unit. Let's convert all the partial pressures to ATM: 1 kPa = 0.00986923 ATM, 1 mmHg = 0.00131579 ATM, and 1 torr = 0.00131579 ATM. Then add all the partial pressures together to get the total pressure of the mixture.
The initial total pressure is 1.0 ATM + 2.0 ATM = 3.0 ATM. Therefore, 6.0 ATM - 3.0 ATM = 3.0 ATM of helium was added to the tank. Hence, the partial pressure of helium in the tank is 3.0 ATM.
Helium is completely inert, it is the most inert of all elements, and so it will not react in any way with hydrogen (or with any other element). So, if you mix hydrogen and helium, nothing happens. You have a mixture of hydrogen and helium. It's a lot lighter than air, you can make balloons that will float. Of course, you can do that with pure hydrogen or with pure helium, as well.