In vapour phase and solid phase the hybridisations of `BeCl_(2)` are x and y. The number of hybridd oribitals in x and p and y are q. Then p+q=

For an ideal binary liquid solution with P_(A)^@gtP_(B)^@x_(A) and y_(A) represent the mole fraction of A in liquid phase and vapour phase respectively whereas x_(B) and y_(B) represent the mole fraction of B inliquid phase and vapour phase respectively, therefore which of the following relation is correct?

For an ideal binary liquid solution with P_A^@> P_B^@ which relation between X_A (mole fraction of A in liquid phase) and Y_A (mole fraction of A in vapour phase) is correct, X_B and Y_B are mole fraction of B in liquid and vapour phase respectively

For an ideal binary liquid solution with p_(A)^(@) gt p_(B)^(@), which is a relation between X_(A) (mole fraction of A in liquid phase) and Y_(A) (mole fraction of A in vapour phase) is correct, X_(B) and Y_(B) are mole fractions of B in liquid and vapour phase respectively?

For an ideal biinary liquid solution with p_(A)^(@) gt p_(B)^(@), which is a relationn between X_(A) (mole fraction of A in liquid phase) and Y_(A) (mole fractionn of A in vapour phase) is correct, X_(B) and Y_(B) are mole fractions of B in liquid and vapour phase respectively?

P_(A)=(235y -125xy)mm of HgP_(A) is partial pressure of A,x is mole fraction of B in liquid phase in the mixture of two liquids A and B and y is the mole fraction of A in vapour phase, then P_(B)^(@) in mm of Hg is:

P_(A)=(235y -125xy)mm of HgP_(A) is partial pressure of A,x is mole fraction of B in liquid phase in the mixture of two liquids A and B and y is the mole fraction of A in vapour phase, then P_(B)^(@) in mm of Hg is:

P_(A)=(235y -125xy)mm of HgP_(A) is partial pressure of A,x is mole fraction of B in liquid phase in the mixture of two liquids A and B and y is the mole fraction of A in vapour phase, then P_(B)^(@) in mm of Hg is: