Answer:
To solve this problem, you can use the ideal gas law, which is given by:
�
�
=
�
�
�
PV=nRT
Where:
�
P is the pressure in atmospheres (atm).
�
V is the volume in liters (L).
�
n is the number of moles of gas.
�
R is the ideal gas constant (approximately 0.0821 L·atm/(mol·K) at standard conditions).
�
T is the temperature in Kelvin (K).
Since the temperature and number of moles are constant, we can use the following relationship:
�
1
�
1
=
�
2
�
2
P 
1
 V 
1
 =P 
2
 V 
2
 
Where subscripts 1 and 2 represent the initial and final conditions, respectively.
Given:
�
1
=
1.60
 atm
P 
1
 =1.60 atm
�
2
=
1.04
 atm
P 
2
 =1.04 atm
�
1
=
?
V 
1
 =? (initial volume)
�
2
=
64.1
 L
V 
2
 =64.1 L
Now, you can rearrange the equation to solve for 
�
1
V 
1
 :
�
1
=
�
2
⋅
�
2
�
1
V 
1
 = 
P 
1
 
P 
2
 ⋅V 
2
 
 
Plug in the values:
�
1
=
1.04
 
atm
⋅
64.1
 
L
1.60
 
atm
V 
1
 = 
1.60atm
1.04atm⋅64.1L
 
Calculate 
�
1
V 
1
 :
�
1
=
66.744
1.60
 
L
≈
41.715
 
L
V 
1
 = 
1.60
66.744
 L≈41.715L
So, the initial volume of the gas (V1) is approximately 41.715 liters.
Step-by-step explanation: