The hydrogen atom of CH3 group in toluene are substituted by chlorine atom.
When toluene reacts with potassium permanganate in the presence of sodium carbonate, the permanganate will oxidize the toluene to form benzoic acid. The sodium carbonate will help neutralize any acidic byproducts formed during the reaction.
When carbon reacts with chlorine, carbon tetrachloride is formed. This reaction occurs by the replacement of hydrogen atoms in a methane molecule with chlorine atoms. Carbon tetrachloride is a colorless liquid that was commonly used as a solvent and fire extinguisher.
When toluene reacts with sulfuric acid, it undergoes a sulfonation reaction to form benzene sulfonic acid. This reaction involves the substitution of a hydrogen atom in the toluene molecule with a sulfonic acid group (-SO3H). The product obtained is a benzene sulfonic acid derivative, which can be further converted into various organic compounds.
When chlorine reacts with lithium iodide, it forms lithium chloride and iodine gas in a displacement reaction. The chlorine displaces the iodide ion in lithium iodide to form lithium chloride, while the displaced iodide ion combines with chlorine to form iodine gas.
When ethane reacts with chlorine, substitution reactions occur where one or more hydrogen atoms in ethane are replaced by chlorine atoms. This forms chloroethane and/or other chlorinated derivatives of ethane, depending on the conditions of the reaction. These chlorinated derivatives may have different properties and applications compared to ethane.
When toluene reacts with potassium permanganate in the presence of sodium carbonate, the permanganate will oxidize the toluene to form benzoic acid. The sodium carbonate will help neutralize any acidic byproducts formed during the reaction.
2,4,6-trichloro aniline
Toluene reacts with acidic permanganate on heating and forms the Benzoic acid.
When carbon reacts with chlorine, carbon tetrachloride is formed. This reaction occurs by the replacement of hydrogen atoms in a methane molecule with chlorine atoms. Carbon tetrachloride is a colorless liquid that was commonly used as a solvent and fire extinguisher.
When toluene reacts with sulfuric acid, it undergoes a sulfonation reaction to form benzene sulfonic acid. This reaction involves the substitution of a hydrogen atom in the toluene molecule with a sulfonic acid group (-SO3H). The product obtained is a benzene sulfonic acid derivative, which can be further converted into various organic compounds.
Yes, when chlorine gas reacts with an acid, such as hydrochloric acid, it can form toxic chlorine gas. The reaction releases chlorine gas, which can be harmful if inhaled in high concentrations. It is important to handle chlorine gas and acids with caution to prevent the formation of toxic gases.
When chlorine reacts with lithium iodide, it forms lithium chloride and iodine gas in a displacement reaction. The chlorine displaces the iodide ion in lithium iodide to form lithium chloride, while the displaced iodide ion combines with chlorine to form iodine gas.
Chlorine gas reacts with the potassium iodide in the moist starch iodide paper to produce potassium chloride and iodine. The iodine then reacts with the starch in the paper to form a blue complex. This color change is used as a test for the presence of chlorine gas.
When ethane reacts with chlorine, substitution reactions occur where one or more hydrogen atoms in ethane are replaced by chlorine atoms. This forms chloroethane and/or other chlorinated derivatives of ethane, depending on the conditions of the reaction. These chlorinated derivatives may have different properties and applications compared to ethane.
When toluene reacts with bromine water, it undergoes electrophilic aromatic substitution. The color of the bromine water fades from orange to colorless due to the addition of bromine to the aromatic ring of toluene, forming bromotoluene. This reaction is used to test for the presence of aromatic compounds.
Aqua regia decomposes into Nitric Oxide and chlorine
When hydrogen reacts with chlorine in direct sunlight, they combine to form hydrogen chloride gas. This reaction is highly exothermic and produces a lot of heat and light. The reaction is also photochemical, meaning it is initiated by the energy of sunlight.