`M_((g)) +IE _((a )) to M_((g))^(+) +e^(-)`
`M_((g))^(+) +IE _((b)) to M^(+2) ""_((g)) + E^(-)`
from the date which IE is called as second as second ionisation erengy ?

M_((g)) to M_((g))^(+) + e^(-) , DeltaH =100 eV , M_((g)) to M_((g))^(2+) + 2e^(-) , DeltaH =250 eV Which is incorrect statement ?

Consider the followng changes: M(s) to M(g) . . . (1) M(s) to M^(2+)(g) +2e^(-) . . . (2) M(g)to M^(+)(g)+e^(-) . . . (3) M^(+)(g) to M^(2+)(g)+e^(-) . . (4) M(g) to M^(2+)(g)+2e^(-) . . . (5) The second ionization energy of M could be calculated from the enrg values associated with:

M_((g)) rarr M_((g))^(+) +e^(-), DeltaH = 100eV M_((g)) rarr M_((g))^(2+) +2e^(-), DeltaH = 250 eV which is incorrect statement?

(a) M_((g))^(-) to M_((g)) , (b)M_((g)) to M_((g))^(+) , (c)M_((g))^(+) to M_((g))^(2+) , (d)M_((g))^(2+) to M_((g))^(3+) Minimum and maximum I.P. would be of :

Consider the following ionization energies for a metal M M_((g)) to M_((g))^(+)+e^(-) , DeltaH =+580 kJ/mole M_((g))^(+) to M_((g))^(2+) + e^(-), DeltaH =+1815 kJ/mole M_((g))^(2+) to M_((g))^(3+) + e^(-) , DeltaH =+2740 kJ/mole M_((g))^(3+) + M_((g))^(4+) + e^(-) , DeltaH = + 11600 kJ/mole Which one of the four ions has largest electron affinity?