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  • Volume of a Balloon at Different Temperatures: Charles's Law Explained
    Here's how to solve this problem, which involves the relationship between temperature and volume of a gas:

    Understanding the Concept

    This problem utilizes Charles's Law, which states that the volume of an ideal gas is directly proportional to its absolute temperature when the pressure is held constant.

    Formula

    Charles's Law can be expressed as:

    V₁/T₁ = V₂/T₂

    where:

    * V₁ = Initial volume

    * T₁ = Initial temperature (in Kelvin)

    * V₂ = Final volume

    * T₂ = Final temperature (in Kelvin)

    Calculations

    1. Convert Temperatures to Kelvin:

    * T₁ = 273 K (already in Kelvin)

    * T₂ = 373 K

    2. Find the Ratio of Temperatures:

    * T₂/T₁ = 373 K / 273 K = 1.36

    3. Determine the Final Volume:

    * Since the volume is directly proportional to the temperature, the final volume will be 1.36 times the initial volume.

    * To find the final volume (V₂), we need the initial volume (V₁). We know the radius of the balloon is 10 cm. Let's calculate the initial volume:

    * V₁ = (4/3)πr³ = (4/3) * π * (10 cm)³ = 4188.79 cm³ (approximately)

    4. Calculate the Final Volume:

    * V₂ = V₁ * (T₂/T₁) = 4188.79 cm³ * 1.36 = 5704.25 cm³ (approximately)

    Answer

    The volume of the round balloon at 373 K will be approximately 5704.25 cm³.

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