The vapor pressure of solution along with mole fraction composition of Pentane in the vapor has to be calculated. Concept Introduction: Raoult’s law for ideal solution states that the mole fraction of the solvent is directly proportional to the vapor pressure of an ideal solution. Raoult’s law can be expressed by the equation, P solution =χ solvent P° solvent Where, P solution = observed vapor pressure of the solution χ solvent = mole fraction of solvent P° solvent = vapor pressure of pure solvent
The vapor pressure of solution along with mole fraction composition of Pentane in the vapor has to be calculated. Concept Introduction: Raoult’s law for ideal solution states that the mole fraction of the solvent is directly proportional to the vapor pressure of an ideal solution. Raoult’s law can be expressed by the equation, P solution =χ solvent P° solvent Where, P solution = observed vapor pressure of the solution χ solvent = mole fraction of solvent P° solvent = vapor pressure of pure solvent
Solution Summary: The author explains how Raoult's law for ideal solution states that the mole tion of the solvent is directly proportional to the vapor pressure of an ideal.
Interpretation: The vapor pressure of solution along with mole fraction composition of Pentane in the vapor has to be calculated.
Concept Introduction: Raoult’s law for ideal solution states that the mole fraction of the solvent is directly proportional to the vapor pressure of an ideal solution. Raoult’s law can be expressed by the equation,
Psolution=χsolventP°solvent
Where,
Psolution = observed vapor pressure of the solution
χsolvent = mole fraction of solvent
P°solvent = vapor pressure of pure solvent
b)
Interpretation Introduction
Interpretation: The vapor pressure of solution along with mole fraction composition of Pentane in the vapor has to be calculated.
Concept Introduction: Raoult’s law for ideal solution states that the mole fraction of the solvent is directly proportional to the vapor pressure of an ideal solution. Raoult’s law can be expressed by the equation,
Psolution=χsolventP°solvent
Where,
Psolution = observed vapor pressure of the solution
What impact would adding twice as much Na2CO3 than required for stoichiometric quantities have on the quantity of product produced? Initial results attached
Given that a theoretical yield for isolating Calcium Carbonate in this experiment would be 100%. From that information and based on the results you obtained in this experiment, describe your success in the recovery of calcium carbonate and suggest two possible sources of error that would have caused you to not obtain 100% yield.
Results are attached form experiment
5) Calculate the flux of oxygen between the ocean and the atmosphere(2 pts), given that:
(from Box 5.1, pg. 88 of your text):
Temp = 18°C
Salinity = 35 ppt
Density = 1025 kg/m3
Oxygen concentration measured in bulk water = 263.84 mmol/m3
Wind speed = 7.4 m/s
Oxygen is observed to be about 10% initially supersaturated
What is flux if the temperature is 10°C ? (2 pts) (Hint: use the same density in your calculations). Why do your calculated values make sense (or not) based on what you know about the relationship between gas solubility and temperature (1 pt)?
Chapter 11 Solutions
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