The major product of the elimination reaction of 2-bromobutane is But-2-ene due to the formation of the more stable alkene.

The reaction of 1-chlorobutane with zinc in dry ether leads to the formation of Butane via Wurtz reaction.

The expected product is Butanol due to nucleophilic substitution with hydroxide ion.

The IUPAC name of CH3CH2Cl is Chloroethane, as it is a two-carbon alkane with a chlorine substituent.

The reaction of 1-bromobutane with sodium hydroxide in ethanol leads to elimination, forming butene as the main product.

Haloalkanes primarily undergo nucleophilic substitution reactions due to the presence of a good leaving group (halogen).

The reaction of 1-bromobutane with sodium ethoxide leads to the formation of ethyl butyl ether through an SN2 mechanism.

The major product is But-2-ene due to the more stable double bond formed during elimination.

1-bromopropane reacts with sodium hydroxide in ethanol to form 1-propanol through a nucleophilic substitution reaction.

The reaction of 1-bromobutane with sodium hydroxide in ethanol leads to the formation of butanol through nucleophilic substitution.

1-bromopropane reacts with sodium hydroxide in ethanol to form 1-Propanol via nucleophilic substitution.

The reaction of haloalkanes with strong nucleophiles typically follows the SN2 mechanism, which involves a single concerted step.

Tertiary haloalkanes typically undergo the SN1 mechanism, which involves the formation of a carbocation intermediate.

Haloalkanes react with aqueous KOH primarily through nucleophilic substitution to form alcohols.

The reaction of haloalkanes with metals like magnesium leads to Grignard formation, which is a key step in organic synthesis.

The reaction of haloalkanes with metals like zinc is a reduction reaction, forming alkanes.

Haloalkanes typically undergo nucleophilic substitution reactions where the halogen is replaced by a nucleophile.

C4H9I has the highest boiling point due to the larger molecular size and stronger van der Waals forces.

CH3CH2CH2Cl is a primary haloalkane as the carbon attached to the halogen is bonded to only one other carbon.

Iodoethane is the most reactive due to the weaker C-I bond compared to C-Br, C-Cl, and C-F bonds.

NaOH can be used to convert an alkyl halide to an alcohol through nucleophilic substitution.