The molar mass of X needs to be determined if the vapor pressure of X is 96 mmHg at 60°C and benzene has a vapor pressure of 395 mmHg in a 50:50 mixture by mass of benzene and X has a vapor pressure of 299 mmHg. Concept introduction: Colligative properties are the properties that depend on the number of particles present in the solution. Elevation in boiling point, depression in freezing point, lowering in vapor pressure and osmotic pressure are some common examples of colligative properties. Vapor pressure is the pressure at which is exerted by vapor on the liquid surface in a closed system when the system is in thermodynamic equilibrium. When a non-volatile solute is dissolved in a solvent to get the solution the vapor pressure decreases for the solution and it can be calculated with the help of Raoult’s law that states that the vapor pressure of the solution is the product of mole fraction of solvent and vapor pressure of the pure solvent.
The molar mass of X needs to be determined if the vapor pressure of X is 96 mmHg at 60°C and benzene has a vapor pressure of 395 mmHg in a 50:50 mixture by mass of benzene and X has a vapor pressure of 299 mmHg. Concept introduction: Colligative properties are the properties that depend on the number of particles present in the solution. Elevation in boiling point, depression in freezing point, lowering in vapor pressure and osmotic pressure are some common examples of colligative properties. Vapor pressure is the pressure at which is exerted by vapor on the liquid surface in a closed system when the system is in thermodynamic equilibrium. When a non-volatile solute is dissolved in a solvent to get the solution the vapor pressure decreases for the solution and it can be calculated with the help of Raoult’s law that states that the vapor pressure of the solution is the product of mole fraction of solvent and vapor pressure of the pure solvent.
Solution Summary: The author explains that the molar mass of X needs to be determined if a volatile solute is added to the solvent. Colligative properties depend on the number of particles present in the solution.
Science that deals with the amount of energy transferred from one equilibrium state to another equilibrium state.
Chapter 13, Problem 13.141SP
Interpretation Introduction
Interpretation:
The molar mass of X needs to be determined if the vapor pressure of X is 96 mmHg at 60°C and benzene has a vapor pressure of 395 mmHg in a 50:50 mixture by mass of benzene and X has a vapor pressure of 299 mmHg.
Concept introduction:
Colligative properties are the properties that depend on the number of particles present in the solution. Elevation in boiling point, depression in freezing point, lowering in vapor pressure and osmotic pressure are some common examples of colligative properties. Vapor pressure is the pressure at which is exerted by vapor on the liquid surface in a closed system when the system is in thermodynamic equilibrium.
When a non-volatile solute is dissolved in a solvent to get the solution the vapor pressure decreases for the solution and it can be calculated with the help of Raoult’s law that states that the vapor pressure of the solution is the product of mole fraction of solvent and vapor pressure of the pure solvent.
Using the graphs could you help me explain the answers. I assumed that both graphs are proportional to the inverse of time, I think. Could you please help me.
Synthesis of Dibenzalacetone
[References]
Draw structures for the carbonyl electrophile and enolate nucleophile that react to give the enone below.
Question 1
1 pt
Question 2
1 pt
Question 3
1 pt
H
Question 4
1 pt
Question 5
1 pt
Question 6
1 pt
Question 7
1pt
Question 8
1 pt
Progress:
7/8 items
Que Feb 24 at
You do not have to consider stereochemistry.
. Draw the enolate ion in its carbanion form.
• Draw one structure per sketcher. Add additional sketchers using the drop-down menu in the bottom right corner.
⚫ Separate multiple reactants using the + sign from the drop-down menu.
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4
Shown below is the mechanism presented for the formation of biasplatin in reference 1 from the Background and Experiment document. The amounts used of each reactant are shown. Either draw or describe a better alternative to this mechanism. (Note that the first step represents two steps combined and the proton loss is not even shown; fixing these is not the desired improvement.) (Hints: The first step is correct, the second step is not; and the amount of the anhydride is in large excess to serve a purpose.)
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