Chemical Bonding
Anti- bonding molecular orbital is formed by:
The number of antibonding electrons present in $${O}_{2}$$ molecular ion is:
According to Molecular orbital theory number of antibonding electrons present in $$O_2$$ will be $$6$$ and bonding electrons present will be $$10$$ resulting in bond order $$2$$
Anti- bonding molecular orbital is formed by:
Which of the following overlapping results non-bonding molecular orbitals, if z-axis is considered as internuclear axis?
The molecule exhibiting maximum number of non-bonding electron pairs around the central atom is :
How many electrons are present in antibonding MO's in $$ CN^+ $$ ion?
Which the following interaction form nonbonding molecular orbital when z-axis is the bonding axis ?
How many nodal plane is/are present in $$\sigma ^{*}_{s\,-\,s}$$ anti- bonding molecular orbital ?
Given the correct order of initials T or F for the following statements. Use T if the statement is true and F it is false. Statement-1 : $$\pi$$ bond is formed by sidewise overlapping of $$d_{x^2\, -\, y^2}$$ and $$p_y$$ orbital along x-axis. Statement-2: Zig-zag geometry would be suggested for the $$[I(CN)_2]^-$$
How many nodal plane is/are present in $$\pi^{ \ast}_{p-p}$$ anti-bonding molecular orbital ?
Find the sum of nodal plane of $$\delta_{d_{xy} - d_{xy}}$$ molecular orbital and $$\delta^{\ast}_{d_{xy} - d_{xy}}$$ anti-bonding molecular orbital.
Find the number of non-bonding molecular orbital from the following if z is the internuclear axis : $$d_{z^2}\, +\, s,\, d_{x^2 - y^2}\, +\, s,\, p_z\, +\, d_{xz},\, s\, +\, d_{yz}$$