Mixture of volatile components A and B has total pressure ( in Torr ) `p=265-130x_(A),` where `X_(A)` is mole fraction of `A` in mixture . Hence `P_(A)^(@)+P_(B)^(@)=` ( in T o r r).A. 265B. 135C. 400D. 150

Mixture of volatile components A and B has total pressure ( in Torr )

1.	Mixture of volatile components A and B has total pressure ( in Torr ) `p=265-130x_(A),` where `X_(A)` is mole fraction of `A` in mixture . Hence `P_(A)^(@)+P_(B)^(@)=` ( in T o r r).A. 265B. 135C. 400D. 150
Answer» Correct Answer - C `P=X_(A)P_(A)^(@)+X_(B)P_(B)^(@)=(P_(A)^(@)-P_(B)^(@))X_(A)+P_(B)^(@)` So`" "P_(B)^(@)=265` `P_(A)^(@)-P_(B)^(@)=-130" "P_(A)^(@)=135` `P_(A)^(@)+P_(B)^(@)=400`

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Mixture of volatile components A and B has total pressure ( in Torr ) `p=265-130x_(A),` where `X_(A)` is mole fraction of `A` in mixture . Hence `P_(A)^(@)+P_(B)^(@)=` ( in T o r r).A. 265B. 135C. 400D. 150

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