Three people bought copper items, and they each relied on different properties of copper. Bernie bought a set of dishes that inc
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Answer:
i· Partial pressure of nitrogen gas is 219.429kPa and partial pressure of argon gas is 33.714kPa ·
ii· Total pressure of the gas mixture is 253.143kPa·
Explanation:
<h3>solution for i :</h3>Assuming that the given gases to be ideal,
so by ideal gas equation
PV=nRT
where,
P is the pressure of the gas
V is the volume occupied by the gas
n is the number of moles of the gas
R is the ideal gas constant
T is the temperature of the gas
Actually partial pressure of each gas is the pressure of the gas exerted when it occupies complete volume
As the temperature of both gases are same, the mixing process is an isothermal process
PV=constant
Initially for nitrogen gas PV=803×4=3212
let P be the partial pressure of the nitrogen gas
(P)×14=3212
∴P=219.429kPa
∴Partial pressure of nitrogen gas is 219.429kPa
Initially for argon gas PV=47.2×10=472
let P be the partial pressure of the argon gas
(P)×14=472
∴P=33.714kPa
∴Partial pressure of argon gas is 33.714kPa
solution for ii :
Total pressure of the gas mixture will be the sum of the partial pressures of each gas as
Partial pressure of the gas=(total pressure of the mixture)×(mole fraction of the gas)
∴Total pressure=P+P
=219.429+33.719
Total pressure =253.143kPa
Explanation:
The given reaction equation will be as follows.
Now, number of atoms on reactant side are as follows.
- H = 2
- S = 1
- O = 3
Number of atoms on product side are as follows.
- H = 2
- S = 1
- O = 3
Therefore, this equation is balanced since atoms on both reactant and product sides are equal.
Thus, we can conclude that there is one sulfur atom in the products.
Answer : The correct option is, (a) 0.44
Explanation :
First we have to calculate the concentration of .
Now we have to calculate the dissociated concentration of .
The balanced equilibrium reaction is,
Initial conc. 1.0 M 0
At eqm. conc. (1.0-x) M (2x) M
As we are given,
The percent of dissociation of =
= 28.0 %
So, the dissociate concentration of =
The value of x = = 0.28 M
Now we have to calculate the concentration of at equilibrium.
Concentration of = 1.0 - x = 1.0 - 0.28 = 0.72 M
Concentration of = 2x = 2 × 0.28 = 0.56 M
Now we have to calculate the equilibrium constant for the reaction.
The expression of equilibrium constant for the reaction will be:
Now put all the values in this expression, we get :
Therefore, the equilibrium constant for the reaction is, 0.44