Match each of the diatomic molecules in Column $I$ with its property / properties in Column $II$.
Column $I$ | Column $II$ |
$(A)$ $\mathrm{B}_2$ | $(p)$ Paramagnetic |
$(B)$ $\mathrm{N}_2$ | $(q)$ Undergoes oxidation |
$(C)$ $\mathrm{O}_2^{-}$ | $(r)$ Undergoes reduction |
$(D)$ $\mathrm{O}_2$ | $(s)$ Bond order $\geq 2$ |
$(t)$ Mixing of ' $\mathrm{s}$ ' and ' $\mathrm{p}$ ' orbitals |
$(A) \rightarrow p, q, r \& ~t,(B) \rightarrow p, r, s,\& ~t, (C) \rightarrow p, q, r, (D) \rightarrow p, q, r \& \ ~s$
$(A) \rightarrow s, t, r\& ~p,(B) \rightarrow p, r, s,\& ~t, (C) \rightarrow p, s, r, (D) \rightarrow p, q, r \& \ ~s$
$(A) \rightarrow q, s, r\& ~t,(B) \rightarrow p, r, s,\& ~t, (C) \rightarrow s, q, r, (D) \rightarrow p, q, r \& \ ~s$
$(A) \rightarrow p, s, q\& ~t,(~B) \rightarrow q, t, s,\& ~p, (C) \rightarrow p, q, r, (D) \rightarrow r, q, p \& \ ~s$
What is meant by the term bond order ? Calculate the bond order of: $N _{2}, O _{2}, $ $O _{2}^{+}$ and $O _{2}^{-}$
According to the molecular orbital theory, the bond order in ${C_2}$ molecule is
Which of the following is paramagnetic ?
From elementary molecular orbital theory we can give the electronic configuration of the singly positive nitrogen molecular ion $N_2^ + $ as
Which of the following pairs have identical values of bond order ?