To solve this problem, we need to determine the hybridization and shape of each compound in Column I and match them with the descriptions in Column II.$\\$Let's analyze each compound:$\\$(a) $$XeF$_6: \\$• Xenon hexafluoride has 6 bonding pairs and 1 lone pair.$\\$• The hybridization is $sp^3d^3. \\$• The shape is distorted octahedral due to the presence of the lone pair.$\\$(b) $$XeO$_3: \\$• Xenon trioxide has 3 bonding pairs and 1 lone pair.$\\$• The hybridization is $sp^3. \\$• The shape is pyramidal.$\\$(c) $$XeOF$_4: \\$• Xenon oxytetrafluoride has 5 bonding pairs and 1 lone pair.$\\$• The hybridization is $sp^3d^2. \\$• The shape is square pyramidal.$\\$(d) $$XeF$_4: \\$• Xenon tetrafluoride has 4 bonding pairs and 2 lone pairs.$\\$• The hybridization is $sp^3d^2. \\$• The shape is square planar.$\\$Now, let's match these with the options in Column II:$\\$• (a) XeF$_6$ matches with (i) Distorted octahedral.$\\$• (b) XeO$_3$ matches with (iii) Pyramidal.$\\$• (c) XeOF$_4$ matches with (iv) Square pyramidal.$\\$• (d) XeF$_4$ matches with (ii) Square planar.$\\$Thus, the correct option is:$\\$Option 1: (a)->(i), (b)->(iii), (c)->(iv), (d)->(ii)$\\$This corresponds to the given correct option.