Questions: A sample of gas in a flexible container initially occupies a volume of 3.65 L at 271 K. Then, the volume of the gas inside the container decreases to 2.99 L at 290 K and 1.76 atm. The number of moles of the gas remains constant.

A sample of gas in a flexible container initially occupies a volume of 3.65 L at 271 K. Then, the volume of the gas inside the container decreases to 2.99 L at 290 K and 1.76 atm. The number of moles of the gas remains constant.
Transcript text: A sample of gas in a flexible container initially occupies a volume of 3.65 L at 271 K. Then, the volume of the gas inside the container decreases to 2.99 L at 290 K and 1.76 atm. The number of moles of the gas remains constant.
failed

Solution

failed
failed

Solution Steps

Step 1: List the given values

The given values are: $V_1 = 3.65 L$ $T_1 = 271 K$ $V_2 = 2.99 L$ $T_2 = 290 K$ $P_2 = 1.76 atm$

Step 2: Identify the unknown

We need to find the initial pressure $P_1$.

Step 3: Apply the combined gas law

Since the number of moles of gas remains constant, we can use the combined gas law: $\frac{P_1V_1}{T_1} = \frac{P_2V_2}{T_2}$

Step 4: Solve for P1

We rearrange the equation to solve for $P_1$: $P_1 = \frac{P_2V_2T_1}{V_1T_2}$

Step 5: Plug in the values and calculate

$P_1 = \frac{1.76 \text{ atm} \times 2.99 \text{ L} \times 271 \text{ K}}{3.65 \text{ L} \times 290 \text{ K}}$ $P_1 = \frac{1433.7584}{1058.5}$ $P_1 = 1.35 \text{ atm}$

Final Answer

$P_1 = \boxed{1.35}$ atm $V_1 = \boxed{3.65}$ L $T_1 = \boxed{271}$ K $P_2 = \boxed{1.76}$ atm $V_2 = \boxed{2.99}$ L $T_2 = \boxed{290}$ K

Was this solution helpful?
failed
Unhelpful
failed
Helpful