Respuesta :
Answer:
[tex]564 cm^3[/tex]
Explanation:
First we propose the ideal gas equation for each situation
[tex]P.V=n.R.T[/tex]
Situation 1
[tex]P_1.V_1= n. r.T[/tex]
[tex]P_1= 104.1 KPa \\V_1= 478 cm^3[/tex]
Situation 2
[tex]P_2.V_2= n. r.T\\P_2= 82.2 KPa \\V_2= ?[/tex]
R is a constant, the moles remain constant and also the temperature
Therefore we can say that
[tex]P_1.V_1= P_2.V_2[/tex]
We cleared the volume in situation number two
[tex]P_1.V_1= P_2.V_2\\V_2= \frac{P_1.V_1}{P_2}[/tex]
[tex]V_2= \frac{104.1 KPa. 478cm^3}{88.2 KPa}\\V_2= 564 cm^3[/tex]
The volume of the gas at 88.2 KPa is 564 cm³
Data obtained from the question
•Initial volume (V₁) = 478 cm³
•Initial pressure (P₁) = 104.1 KPa
•Temperature = Constant
•Final pressure (P₂) = 88.2 KPa
•Final volume (V₂) =?
Since the temperature is constant, the final volume of the gas can be obtained by using the Boyle's law equation as shown below:
P₁V₁ = P₂V₂
104.1 × 478 = 88.2 × V₂
49759.8 = 88.2 × V₂
Divide both side by 88.2
V₂ = 49759.8 / 88.2
V₂ = 564 cm³
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