A 7.00 L tank at 4.3 °C is filled with 11.8 g of sulfur tetrafluoride gas and 10.4 g of carbon monoxide gas. You can assume both gases behave as ideal gases under these conditions. Calculate the mole fraction of each gas. Round each of your answers to 3 significant digits. gas mole fraction sulfur tetrafluoride carbon monoxide

Q: A 7.00 L tank at 6.29 °C is filled with 14.0 g of sulfur hexafluoride gas and 2.97 g of dinitrogen…

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Q: A 10.0 L tank at 4.55 °C is filled with 6.12 g of boron trifluoride gas and 12.3 g of sulfur…

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Q: A 6.00 L tank at 0.95 °C is filled with 2.17 g of dinitrogen monoxide gas and 7.50 g of sulfur…

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Q: Calculating partial pressure in a gas mixture 0/5 A 8.00 L tank at 24.9 °C is filled with 9.56 g of…

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Q: A9.00 L tank at 15.1 °C is filled with 19.7 g of boron trifluoride gas and 4.20 g of dinitrogen…

A: The volume of the tank = Temperature = Mass of The molar mass of Mass of Molar mass of

Q: A 7.00 L tank at 7.57 °C is filled with 4.38 g of dinitrogen monoxide gas and 2.99 g of boron…

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Q: A 7.00 L tank at 20.1 °C is filled with 10.5 g of sulfur hexafluoride gas and 6.52 g of dinitrogen…

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Q: A 6.00 L tank at 10.1 °C is filled with 7.51 g of boron trifluoride gas and 2.21 g of carbon dioxide…

A: It is based  on the concept  of mole fraction and Dalton's law of partial pressure  Here we are…

Q: A 7.00L tank at 5.4°C is filled with 12.6g of dinitrogen monoxide gas and 4.59g  of carbon dioxide…

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Q: A 10.0 L tank at 23.7 °C is filled with 5.14 g of boron trifluoride gas and 13.4 g of dinitrogen…

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Q: 9.00L tank at −10.7°C is filled with 7.23g of chlorine pentafluoride gas and 7.49g of sulfur…

A: A numerical problem based on gas law, which is to be accomplished.

Q: A 5.00 L tank at 4.58 °C is filled with 15.2 g of chlorine pentafluoride gas and 7.62 g of sulfur…

A: Ideal gas equation: PV = nRT  P = Pressure V = Volume n = Number of moles  R = Gas constant T =…

Q: A 6.00 L tank at 18.4 °C is filled with 6.85 g of boron trifluoride gas and 18.4 g of carbon dioxide…

A: A 6.00 L tank at 18.4 °C is filled with 6.85 g of boron trifluoride gas and 18.4 g of carbon dioxide…

Q: A 9.00 L tank at 27.3 °C is filled with 16.7 g of dinitrogen monoxide gas and 19.1 g of dinitrogen…

A: Given :-  mass of dinitrogen monoxide = 16.7 g  mass of dinitrogen difluoride = 19.1 g  volume =…

Q: A 6.00 L tank at 0.29°C is filled with 5.04g of chlorine pentafluoride gas and 11.9g of sulfur…

A: Number of moles of a substance is equal to the mass of the substance divided by its molar mass.…

Q: A 9.00 L tank at 12. °C is filled with 17.4 g of dinitrogen difluoride gas and 9.28 g of sulfur…

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Q: A 6.00 L tank at 24.2 °C is filled with 5.19 g of sulfur hexafluoride gas and 19.5 g of chlorine…

A: Given that : The volume of the tank = 6.00 L Temperature = 24.2°C The mass of sulfur hexafluoride =…

Q: A 8.00 L tank at 21. °C is filled with 4.85 g of sulfur tetrafluoride gas and 7.84 g of carbon…

A: Given : Mass of sulfur tetrafluoride i.e SF4 = 4.85 g Mass of carbon dioxide i.e CO2 = 7.84 g Volume…

Q: A 10.00 L tank at 21.4 °C is filled with 14.8 g of carbon monoxide gas and 10.7 g of sulfur…

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Q: A 9.00 L tank at 23.9 °C is filled with 6.76 g of boron trifluoride gas and 4.61 g of sulfur…

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Q: A 8.00 L tank at 6.68 °C is filled with 11.4 g of dinitrogen difluoride gas and 6.23 g of chlorine…

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Q: partial pressure in a gas mixture sulfur tetrafluoride A 8.00 L tank at 29.8 °C is filled with 14.2…

A: The ideal gas equation is a fundamental equation in thermodynamics that describes the behavior of…

Q: Some N₂ gas is mixed with some O₂ gas, and the sketch below shows a representative sample of the…

A: The mole fractions are calculated using the following formulae. Mole fraction of N2=Number of N2…

Q: A 8.00 L tank at 6.9 °C is filled with 9.35 g of carbon dioxide gas and 9.40 g of dinitrogen…

A: Mole fraction of different gases can be calculated by knowing the total moles of gases and the moles…

Q: A 9.00L tank at 8.48°C is filled with 10.9g of sulfur hexafluoride gas and 8.24g of sulfur…

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Q: A 10.0L tank at 0.96°C is filled with 6.10g of dinitrogen difluoride gas and 16.0g of sulfur…

A: we have to calculate  mole fraction and partial pressure of each gas total pressure

Q: A 7.00 L tank at -5.1 °C is filled with 8.05 g of dinitrogen monoxide gas and 19.7 g of boron…

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Q: A 5.00 L tank at 1.0 °C is filled with 6.54 g of sulfur hexafluoride gas and 15.5 g of boron…

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Q: A 10.00 L tank at 8.3 °C is filled with 4.02 g of chlorine pentafluoride gas and 4.69 g of…

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Q: A 5.00 L tank at 29.6 °C is filled with 17.3 g of boron trifluoride gas and 12.8 g of chlorine…

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Q: A 7.00 L tank at 0.15 °C is filled with 11.0 g of sulfur hexafluoride gas and 3.66 g of carbon…

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Q: A 6.00L tank at 18.5°C is filled with 2.08g of boron trifluoride gas and 18.9g of sulfur…

A: Volume of tank (V) = 6.0 L                  Temperature (T) = 18.5oC…

Q: A 8.00 L tank at 4.28 °C is filled with 8.76 g of dinitrogen monoxide gas and 9.81 g of boron…

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Q: A 6.00 L tank at 6.88 °C is filled with 4.07 g of sulfur tetrafluoride gas and 5.51 g of boron…

A: given mass of SF4 = 4.07 g mass of BF3 = 5.51 g temperature = 6.88°C volume = 6 L

Q: A 6.00 L tank at 18.3 °C is filled with 4.33 g of carbon dioxide gas and 7.47 g of sulfur…

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Q: A 8.00 L tank at 7. C is filled with 7.36 g of dinitrogen monoxide gas and 4.45 g of carbon monoxide…

A: Volume of tank = 8 LTemperature of tank = 7 0CAmount of dinitrogen monoxide gas = 7.36 gAmount of…

Q: O https://www-awn.aleks. O GASES Calculating mole fraction in a gas mixture A 6.00 L tank at 25.9 °C…

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Q: A 9.00 L tank at 5.93 °C is filled with 7.54 g of boron trifluoride gas and 17.1 g of dinitrogen…

A: Partial pressure = total pressure x mole fractions of the gas. Using this formula , calculate the…

Q: A 7.00 L tank at 12.3 °C is filled with 12.8 g of sulfur hexafluoride gas and 15.5 g of sulfur…

A: Given: Volume of tank = 7 L Temperature = 12.3°C=12.3+273.15 K=285.45 K Mass of sulfur hexafluoride…

Q: mole fraction

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Mole Concept

Mole concept is a method to determine the amount of any substance that consists of some elemental particles using a grouping unit called ‘mole’. The mole concept enables one to handle the large amount of small elementary particles. The mole concept can be used in many calculations related to mole calculation, molar amount, mole ratio, and so on, which are significant in chemistry.