To solve this problem, we need to match each Xenon compound with its corresponding structure. Let's analyze each compound:$\\$• $$XeF$_4: \\$XeF$_4$ has a central xenon atom surrounded by four fluorine atoms. The structure is $$square planar$. \\$This is because Xe has 8 valence electrons, 4 are used for bonding with F, and 2 lone pairs remain, resulting in a $$square planar$$ geometry.$\\$• $$XeF$_6: \\$XeF$_6$ has a central xenon atom surrounded by six fluorine atoms. The structure is $$distorted octahedral$. \\$Xe has 8 valence electrons, 6 are used for bonding with F, and 1 lone pair remains, causing distortion in the octahedral geometry.$\\$• $$XeOF$_4: \\$XeOF$_4$ has a central xenon atom bonded to one oxygen and four fluorine atoms. The structure is $$square pyramidal$. \\$Xe has 8 valence electrons, 5 are used for bonding (4 with F and 1 with O), and 1 lone pair remains, resulting in a $$square pyramidal$$ geometry.$\\$• $$XeO$_3: \\$XeO$_3$ has a central xenon atom bonded to three oxygen atoms. The structure is $$pyramidal$. \\$Xe has 8 valence electrons, 6 are used for bonding with O, and 1 lone pair remains, resulting in a $$pyramidal$$ geometry.$\\$Based on this analysis, the correct matching is:$\\ (a) \rightarrow (ii), \\ (b) \rightarrow (iii), \\ (c) \rightarrow (iv), \\ (d) \rightarrow (i). \\$Therefore, the correct option is Option 2.