We are given a process for an ideal gas where the relation between pressure (\(P\)) and volume (\(V\)) is \(PV^2 = K\), where \(K\) is a constant.
From the Ideal Gas Law, we know that for a fixed amount of gas (\(n\)), \(PV = nRT\), where \(R\) is the ideal gas constant and \(T\) is the absolute temperature.
We can express pressure (\(P\)) from the Ideal Gas Law as: \(P = \frac{nRT}{V}\)
Now, substitute this expression for \(P\) into the given process equation (\(PV^2 = K\)): \( \left(\frac{nRT}{V}\right) V^2 = K \) \( nRT V = K \)
Since \(n\) and \(R\) are constants, we can rewrite the equation as: \( TV = \frac{K}{nR} \) Let \(\frac{K}{nR} = \text{constant}'\). Therefore, the process follows the relation: \( TV = \text{constant}' \)
This means that the product of temperature and volume remains constant throughout the process. Applying this to the initial state (1) and the final state (2): \( T_1 V_1 = \text{constant}' \) \( T_2 V_2 = \text{constant}' \)
Equating these two expressions: \( T_1 V_1 = T_2 V_2 \)
To find the relationship between the temperature ratio and the volume ratio, rearrange the equation: \( \frac{T_1}{T_2} = \frac{V_2}{V_1} \)
This result matches option C.
A system that does NOT allow exchange of heat with its surrounding is called
A system that does NOT allow exchange of heat with its surrounding is called
Example of thermoplastic among the following is
The fuel with highest calorific value in kJ /kg unit is-