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At moderate pressure the compressiblity ...

At moderate pressure the compressiblity factor of a particular gas is given by `Z=1+0.34p-170p/T` where p is in bar and T is in kelvin what will be the Boyle's temperature?

A

100K

B

380K

C

500K

D

680K

Text Solution

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To find the Boyle's temperature for the given gas, we start from the equation for the compressibility factor \( Z \): \[ Z = 1 + 0.34p - \frac{170p}{T} \] where \( p \) is in bar and \( T \) is in Kelvin. At Boyle's temperature, the compressibility factor \( Z \) is equal to 1. ### Step-by-Step Solution: 1. **Set the Compressibility Factor to 1**: \[ Z = 1 \implies 1 = 1 + 0.34p - \frac{170p}{T} \] 2. **Simplify the Equation**: Subtract 1 from both sides: \[ 0 = 0.34p - \frac{170p}{T} \] 3. **Factor Out \( p \)**: Since \( p \) is a common term, we can factor it out: \[ 0 = p \left( 0.34 - \frac{170}{T} \right) \] 4. **Set the Factor to Zero**: For the equation to hold true, either \( p = 0 \) (which is not meaningful in this context) or: \[ 0.34 - \frac{170}{T} = 0 \] 5. **Solve for \( T \)**: Rearranging gives: \[ \frac{170}{T} = 0.34 \] Multiplying both sides by \( T \) and then rearranging gives: \[ T = \frac{170}{0.34} \] 6. **Calculate \( T \)**: Performing the division: \[ T = 500 \text{ K} \] ### Conclusion: The Boyle's temperature for the gas is \( 500 \text{ K} \).
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