- A$NH_3$ combines with $H^+$
- B$H_3BO_3$ combines with $OH^-$
- C$NH_3$ forms $NH_2^-$
- D$H_2O$ combines with $H^+$
$\underset{s{{p}^{3}}}{\mathop{2N{{H}_{3}}}}\,\rightleftarrows \underset{s{{p}^{3}}}{\mathop{NH_{2}^{-}}}\,+\underset{s{{p}^{3}}}{\mathop{NH_{4}^{+}}}\,$
$\underset{s{{p}^{2}}}{\mathop{{{H}_{3}}B{{O}_{3}}}}\,+O{{H}^{-}}\to \underset{s{{p}^{3}}}{\mathop{{{[B{{(OH)}_{4}}]}^{-}}}}\,$
$\underset{s{{p}^{3}}}{\mathop{{{H}_{2}}O}}\,+{{H}^{+}}\rightleftarrows \underset{s{{p}^{3}}}{\mathop{{{H}_{3}}{{O}^{+}}}}\,$
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$(A)$ Uncertainty principle rules out the existence of definite paths for electrons.
$(B)$ The energy of an electron in $2 s$ orbital of an atom is lower than the energy of an electron that is infinitely far away from the nucleus.
$(C)$ According to Bohr's model, the most negative energy value for an electron is given by $n=1$, which corresponds to the most stable orbit.
$(D)$ According to Bohr's model, the magnitude of velocity of electrons increases with increase in values of $n$.
