The expected freezing point of L i F solution has to be determined. Concept introduction: Colligative properties: Properties of solutions which having influence on the concentration of the solute in it. Colligative properties are, Decrease in the vapor pressure Increase in the boiling point Decline in the freezing point Osmotic pressure Decline in the freezing point is huge when solute is an electrolyte than when solute is nonelectrolyte. Therefore, change in freezing point is calculated by using the equation, Δ T f p = K f p m s o l u t e i where, K f p is the molal freezing point depression constant. i is van’t Hoff factor van’t Hoff factor, i : it is the relation between change in in freezing point measured and change in in freezing point calculated. It indicates the total number of ions that are produced. Molality (m): Molality is the number of moles of solute present in one kilogram of solvent. Molality (m) = Number of moles of solute 1kg of solvent
The expected freezing point of L i F solution has to be determined. Concept introduction: Colligative properties: Properties of solutions which having influence on the concentration of the solute in it. Colligative properties are, Decrease in the vapor pressure Increase in the boiling point Decline in the freezing point Osmotic pressure Decline in the freezing point is huge when solute is an electrolyte than when solute is nonelectrolyte. Therefore, change in freezing point is calculated by using the equation, Δ T f p = K f p m s o l u t e i where, K f p is the molal freezing point depression constant. i is van’t Hoff factor van’t Hoff factor, i : it is the relation between change in in freezing point measured and change in in freezing point calculated. It indicates the total number of ions that are produced. Molality (m): Molality is the number of moles of solute present in one kilogram of solvent. Molality (m) = Number of moles of solute 1kg of solvent
Solution Summary: The author explains that the expected freezing point of LiF solution has to be determined.
Interpretation: The expected freezing point of LiFsolution has to be determined.
Concept introduction:
Colligative properties: Properties of solutions which having influence on the concentration of the solute in it. Colligative properties are,
Decrease in the vapor pressure
Increase in the boiling point
Decline in the freezing point
Osmotic pressure
Decline in the freezing point is huge when solute is an electrolyte than when solute is nonelectrolyte. Therefore, change in freezing point is calculated by using the equation,
ΔTfp=Kfpmsolutei
where,
Kfp is the molal freezing point depression constant.
i is van’t Hoff factor
van’t Hoff factor, i: it is the relation between change in in freezing point measured and change in in freezing point calculated. It indicates the total number of ions that are produced.
Molality (m): Molality is the number of moles of solute present in one kilogram of solvent.
The number of microstates corresponding to each macrostate is given by N. The dominant macrostate or configuration of a system is the macrostate with the greatest weight W. Are both statements correct?
For the single step reaction: A + B → 2C + 25 kJ
If the activation energy for this reaction is 35.8 kJ, sketch an energy vs. reaction coordinate diagram for this reaction. Be sure to label the following on your diagram: each of the axes, reactant compounds and product compounds, enthalpy of reaction, activation energy of the forward reaction with the correct value, activation energy of the backwards reaction with the correct value and the transition state.
In the same sketch you drew, after the addition of a homogeneous catalyst, show how it would change the graph. Label any new line "catalyst" and label any new activation energy.
How many grams of C are combined with 3.75 ✕ 1023 atoms of H in the compound C5H12?