316114 A bond that does not exist in diborane is

316115 The geometry of a complex species can be understood from the knowledge of type of hybridisation of orbitals of central atom. The hybridisation of orbitals of central atom in
${\left[\mathrm{B}\left({\mathrm{OH}}_4\right)\right]}^{-}$and the geometry of the complex are respectively

316116 In ${\text{B}}_{\text{2}}{\text{H}}_{\text{6}}$

316113 The maximum number of atoms present in the same plane in diborane molecule is

316114 A bond that does not exist in diborane is

316115 The geometry of a complex species can be understood from the knowledge of type of hybridisation of orbitals of central atom. The hybridisation of orbitals of central atom in
${\left[\mathrm{B}\left({\mathrm{OH}}_4\right)\right]}^{-}$and the geometry of the complex are respectively

316116 In ${\text{B}}_{\text{2}}{\text{H}}_{\text{6}}$

316113 The maximum number of atoms present in the same plane in diborane molecule is

316114 A bond that does not exist in diborane is

316115 The geometry of a complex species can be understood from the knowledge of type of hybridisation of orbitals of central atom. The hybridisation of orbitals of central atom in
${\left[\mathrm{B}\left({\mathrm{OH}}_4\right)\right]}^{-}$and the geometry of the complex are respectively

316116 In ${\text{B}}_{\text{2}}{\text{H}}_{\text{6}}$

316113 The maximum number of atoms present in the same plane in diborane molecule is

316114 A bond that does not exist in diborane is

316115 The geometry of a complex species can be understood from the knowledge of type of hybridisation of orbitals of central atom. The hybridisation of orbitals of central atom in
${\left[\mathrm{B}\left({\mathrm{OH}}_4\right)\right]}^{-}$and the geometry of the complex are respectively

316116 In ${\text{B}}_{\text{2}}{\text{H}}_{\text{6}}$