There are four complexes of Ni. Select the complex(es) which will be attracted by magnetic field:
(I) `[Ni(CN)_4]^(2-)`
(II) `[NiCl_(4)]^(2-)`
(III) `Ni(CO_(4))`
(IV) `[Ni(H_(2)O)_(6)]^(2+)`

There are four complexes of Ni. Select the complexes/es which will be attracted by magnetic field : (I) [Ni(CN)_(4)]^(2-) (II) [NiCl_(4)]^(2-) (III) [Ni(CO)_(4)] (IV) [Ni(NH_(3))_(6)]^(2+)

There are four complexes of Ni. Select the complexes/es which will be attracted by magnetic field : (I) [Ni(CN)_(4)]^(2-) (II) [NiCl_(4)]^(2-) (III) [Ni(CO)_(4)] (IV) [Ni(NH_(3))_(6)]^(2+)

There are four complexes of Ni. Select the complex (es) which will be attracted by magnetic field : [Ni(CN)_4]^(2-), (II)[NiCl_4]^(2-) , (III) Ni(CO)_4 , (IV)[Ni(H_2O)_6]^(2+)

Valence bond theory successfully explains the magnetic behaviour of complexes. The substances which contains unpaired electrons are paramagnetic and paramagnetic character increases as the number of unpaired electrons increases. Magnetic moment of a complex can be determined experimentally and by using formula sqrt(n(n+2)) and we can determine the number of unpaired electrons in it. This information is important in writing electronic structure of complex which in turn also useful in deciding the geometry of complex. There are four complexes of Ni. Select the complex/es which will be attracted by magnetic field. underset((I))([Ni(CN)_(4)]^(2-))" "underset((II))([NiCl_(4)]^(2-))" "underset((II))(Ni(CO)_(4))" "underset((IV))([Ni(H_(2)O)_(6)]^(2+))

There are four complexes of Ni. Select the complex/ es which will show increase in weight when placed in magnetic balance (I) [Ni(CN)_4]^(2-) (II) [NiCl_2(PPh_3)_2] (III) Ni(CO)_4 (IV) [Ni(gly)_3]^(-1)

Amongst Ni (CO)_4, [Ni(CN)_4]^(2-) and [NiCl_4]^(2-)

Amongst Ni(CO)_(4), [Ni(CN)_(4)]^(2-) and [NiCl_(4)]^(2-) :