Mechanisms

Cards (23)

  • Halogenoalkane can be eliminated to form an alkene
  • Refluxing a haloalkane with KOH in ethano results in the formation of an alkene
  • Alkenes can be converted to alkane through reduction
  • In the presence of Al2O3 catalyst, alkene can be dehydrated to form an alkyne at 450°C
  • Electrophilic addition reagent for alkene is HBr
  • Alkene can be converted to haloalkane by reacting with HCl
  • Alkene can be converted to alcohol by reacting with steam
  • Concentrated H2SO4 at 300°C and 60 atm can convert alkene to alcohol
  • Refluxing an alkene with KCN in ethanol can result in the formation of a nitrile
  • Halogenoalkane can be converted to nitrile by refluxing with KCN
  • Halogenoalkane can be converted to amine by heating in a sealed tube under high pressure
  • Free radical substitution involves the conversion of alkane to haloalkane using UV light
  • Reduction of nitrile with LiAlH4 results in the formation of an amine
  • Amide can be formed by reacting acyl chloride with ammonia
  • Distillation of amide with LiAlH4 in ether can convert it to amine
  • Oxidation of alcohol with acidified K2Cr2O7 can yield a ketone
  • Acidified K2Cr2O7 can oxidize alcohol to aldehyde
  • Acidified K2Cr2O7 can further oxidize aldehyde to carboxylic acid
  • Refluxing carboxylic acid with alcohol in the presence of H2SO4 can form an ester
  • Excess acyl chloride with NH3 can result in the formation of a ketone amine
  • Electrophilic substitution of benzene with HNO3 and H2SO4 can yield nitrobenzene
  • Benzene can undergo acylation by reacting with acyl chloride
  • Reduction can convert nitrobenzene to aniline