Huckel's rule states that an aromatic compound must have delocalized electrons. The electrons in each double bond are delocalized for this molecule. There are nine double bonds, and thus eighteen delocalized electrons.

If 4n+2=18, then n=4.

Huckel's rule states that an aromatic compound must have delocalized electrons. The electrons in each double bond are delocalized for this molecule. There are nine double bonds, and thus eighteen delocalized electrons.

If 4n+2=18, then n=4.

Huckel's rule states that an aromatic compound must have delocalized electrons. The electrons in each double bond are delocalized for this molecule. There are nine double bonds, and thus eighteen delocalized electrons.

If 4n+2=18, then n=4.

The hydrolyzation of a nitrile with hydronium leads to a carboxylic acid. Only one choice is a carboxylic acid.

The hydrolyzation of a nitrile with hydronium leads to a carboxylic acid. Only one choice is a carboxylic acid.

The hydrolyzation of a nitrile with hydronium leads to a carboxylic acid. Only one choice is a carboxylic acid.

This question tests knowledge on carboxylic acid derivatives and the formation of the carboxylic acid derivatives. , or thionyl chloride, reacts with a carboxylic acid to form an acid chloride. The choice that replaces the with a . The reaction also expels .

This question tests knowledge on carboxylic acid derivatives and the formation of the carboxylic acid derivatives. , or thionyl chloride, reacts with a carboxylic acid to form an acid chloride. The choice that replaces the with a . The reaction also expels .

This question tests knowledge on carboxylic acid derivatives and the formation of the carboxylic acid derivatives. , or thionyl chloride, reacts with a carboxylic acid to form an acid chloride. The choice that replaces the with a . The reaction also expels .

This reaction is an electrophilic addition reaction with an alkene. This is one of many alkene addition reactions that can add an -OH group onto your starting material. The key aspect of an hydroboration-oxidation reaction is the anti-Markovinikov addition to the double bond. The -OH group should be on the least substituted of the two carbons that originate from the double bond. In light of this information, the answer is 2-cyclohexanol.