The electrode which act as anode the potential of the voltaic cell has to be determined. Concept introduction: According to the first law of thermodynamics , the change in internal energy of a system is equal ti the heat added to the sysytem minus the work done by the system. The equation is as follows. ΔU = Q - W ΔU = Change in internal energy Q = Heat added to the system W=Work done by the system In voltaic cell, the maximum cell potential is directly related to the free energy difference between the reactants and products in the cell. ΔG 0 = -nFE 0 n = Number of moles transferred per mole of reactant and products F = Faradayconstant=96485C/mol E 0 = Volts = Work(J)/Charge(C) The relation between standard cell potential and equilibrium constant is as follows. lnK = nE 0 0 .0257 at 298K The relation between solubility product K sp and equilibrium constant is as follows. K sp = e +lnK
The electrode which act as anode the potential of the voltaic cell has to be determined. Concept introduction: According to the first law of thermodynamics , the change in internal energy of a system is equal ti the heat added to the sysytem minus the work done by the system. The equation is as follows. ΔU = Q - W ΔU = Change in internal energy Q = Heat added to the system W=Work done by the system In voltaic cell, the maximum cell potential is directly related to the free energy difference between the reactants and products in the cell. ΔG 0 = -nFE 0 n = Number of moles transferred per mole of reactant and products F = Faradayconstant=96485C/mol E 0 = Volts = Work(J)/Charge(C) The relation between standard cell potential and equilibrium constant is as follows. lnK = nE 0 0 .0257 at 298K The relation between solubility product K sp and equilibrium constant is as follows. K sp = e +lnK
Solution Summary: The author explains that the potential of the voltaic cell is directly related to the free energy difference between the reactants and products in the cell.
Science that deals with the amount of energy transferred from one equilibrium state to another equilibrium state.
Chapter 19, Problem 79GQ
Interpretation Introduction
Interpretation:
The electrode which act as anode the potential of the voltaic cell has to be determined.
Concept introduction:
According to the first law of thermodynamics, the change in internal energy of a system is equal ti the heat added to the sysytem minus the work done by the system.
The equation is as follows.
ΔU = Q - WΔU = Change in internal energyQ = Heat added to the systemW=Work done by the system
In voltaic cell, the maximum cell potential is directly related to the free energy difference between the reactants and products in the cell.
ΔG0= -nFE0n = Number of moles transferred per mole of reactant and productsF = Faradayconstant=96485C/mol E0= Volts = Work(J)/Charge(C)
The relation between standard cell potential and equilibrium constant is as follows.
lnK = nE00.0257 at 298K
The relation between solubility product Ksp and equilibrium constant is as follows.
Substance X is known to exist at 1 atm in the solid, liquid, or vapor phase, depending on the temperature. Additionally, the values of these other properties of X
have been determined:
melting point
enthalpy of fusion
90. °C
8.00 kJ/mol
boiling point
130. °C
enthalpy of
vaporization
44.00 kJ/mol
density
2.80 g/cm³ (solid)
36. J.K mol (solid)
2.50 g/mL (liquid)
heat capacity
32. J.Kmol (liquid)
48. J.Kmol (vapor)
You may also assume X behaves as an ideal gas in the vapor phase.
Ex
Suppose a small sample of X at 50 °C is put into an evacuated flask and heated at a constant rate until 15.0 kJ/mol of heat has been added to the sample.
Graph the temperature of the sample that would be observed during this experiment.
o0o
150-
140
130-
120-
110-
100-
G
Ar
?
Mechanism. Provide the mechanism for the reaction below. You must include all arrows, intermediates, and formal
charges. If drawing a Sigma complex, draw all major resonance forms. The ChemDraw template of this document is
available on Carmen.
Br
FeBr3
Br
Check the box under each compound that exists as a pair of mirror-image twins. If none of them do, check the none of the above box under the table.
CH3
OH
CH3
CH2
-CH-CH3
CH3
OH
OH
CH-CH2-CH-
-CH3
CH3
CH3
OH
OH
CH3
C
-CH2- C. -CH3
CH3- -CH2- -CH-CH2-OH
OH
CH3
none of the above
ك
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