A variety of chlorine oxide fluorides and related cations and anions are known. They tend to be powerful oxidizing and fluorinating agents. \(\mathrm{FClO}_{3}\) is the most stable of this group of compounds and has been studied as an oxidizing component in rocket propellants. Draw a Lewis structure for \(\mathrm{F}_{3} \mathrm{ClO}\) , $\mathrm{F}_{2} \mathrm{ClO}_{2}^{+},\( and \)\mathrm{F}_{3} \mathrm{ClO}_{2}$ . What is the molecular structure for each species, and what is the expected hybridization of the central chlorine atom in each compound or ion?

Short Answer

Expert verified
The molecular structures and expected hybridizations for the three species are as follows: 1. F₃ClO: Molecular structure: Tetrahedral (four electron groups) Expected hybridization: sp³ (four electron groups) 2. F₂ClO₂⁺: Molecular structure: Trigonal bipyramidal (five electron groups) Expected hybridization: sp³d (five electron groups) 3. F₃ClO₂: Molecular structure: Octahedral (six electron groups) Expected hybridization: sp³d² (six electron groups)

Step by step solution

01

Calculate the total number of valence electrons for each species

First, let's calculate the total number of valence electrons for each compound: - F₃ClO: 7 (Cl) + 3 * 7 (F) + 6 (O) = 34 valence electrons - F₂ClO₂⁺: 7 (Cl) + 2 * 7 (F) + 2 * 6 (O) - 1 (due to the positive charge) = 33 valence electrons - F₃ClO₂: 7 (Cl) + 3 * 7 (F) + 2 * 6 (O) = 40 valence electrons
02

Draw the Lewis structures for each species

We will draw the Lewis structures for three compounds: 1. F₃ClO: Put the Cl atom in the center, and surround it by F and O atoms. Form single bonds between the Cl and F atoms and the Cl and O atoms, using up 8 valence electrons. Fill in the F and O atoms with their remaining valence electrons, which will be 6 on each F atom and 4 on the O atom (18 electrons used). Lastly, place the remaining 8 valence electrons on the Cl atom. 2. F₂ClO₂⁺: Put the Cl atom in the center, and surround it by F and O atoms. Form single bonds between Cl and F atoms, and Cl and O atoms, using up 8 valence electrons. Fill in the F and O atoms with their remaining valence electrons, which will be 6 on each F atom and 4 on each O atom (16 electrons used). Lastly, place the remaining 9 valence electrons on the Cl atom. 3. F₃ClO₂: Put the Cl atom in the center, and surround it by F and O atoms. Form single bonds between Cl and F atoms, and Cl and O atoms, using up 10 valence electrons. Fill in the F and O atoms with their remaining valence electrons, which will be 6 on each F atom and 4 on each O atom (22 electrons used). Lastly, place the remaining 8 valence electrons on the Cl atom.
03

Determine the molecular structure and the expected hybridization for each species

1. F₃ClO: Molecular structure: Tetrahedral (four electron groups - three single bonds and one lone pair) Expected hybridization: sp³ (four electron groups) 2. F₂ClO₂⁺: Molecular structure: Trigonal bipyramidal (five electron groups - four single bonds and one lone pair) Expected hybridization: sp³d (five electron groups) 3. F₃ClO₂: Molecular structure: Octahedral (six electron groups - five single bonds and one lone pair) Expected hybridization: sp³d² (six electron groups)

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Most popular questions from this chapter

Cyanamide \(\left(\mathrm{H}_{2} \mathrm{NCN}\right),\) an important industrial chemical, is produced by the following steps: $$ \begin{array}{c}{\mathrm{CaC}_{2}+\mathrm{N}_{2} \longrightarrow \mathrm{CaNCN}+\mathrm{C}} \\ {\mathrm{CaNCN} \stackrel{\mathrm{Acid}}{\longrightarrow} \mathrm{H}_{2} \mathrm{NCN}} \\\ {\mathrm{Cyanamide}}\end{array} $$ Calcium cyanamide (CaNCN) is used as a direct-application fertilizer, weed killer, and cotton defoliant. It is also used to make cyanamide, dicyandiamide, and melamine plastics: a. Write Lewis structures for \(\mathrm{NCN}^{2-}, \mathrm{H}_{2} \mathrm{NCN}\) , dicyandiamide, and melamine, including resonance structures where appropriate. b. Give the hybridization of the C and N atoms in each species. c. How many \(\sigma\) bonds and how many \(\pi\) bonds are in each species? d. Is the ring in melamine planar? e. There are three different \(C-N\) bond distances in dicyandiamide, \(\mathrm{NCNC}\left(\mathrm{NH}_{2}\right)_{2}\) , and the molecule is nonlinear. Of all the resonance structures you drew for this molecule, predict which should be the most important.

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