For a reaction between oxygen molecule and hydrogen molecule to take place the bond between the two oxygen atom in O2 and the two hydrogen atom in H2 is required to be breaked. For this process a high temperature is needed which is not possible at room temperature.
Since no bond breaks to make an reacting atom, the reaction does not takes place at room temperature
Chloromethane is the product that is formed when methane and chlorine react with each other. Dichloromethane is another product that can also be formed when methane and chlorine react.
Tetramethyl-lead IV acts as a catalyst in the free radical substitution reaction between methane and chlorine by generating methyl radicals through homolytic cleavage. These methyl radicals then react with chlorine to form methyl chloride and regenerate the lead catalyst, thus increasing the rate of the overall reaction.
The source of energy used to react chlorine with methane is typically heat, in the form of high temperatures. This helps to initiate the reaction between the two compounds and break the chemical bonds involved.
Theotically, methane can't react with Cl2 in shade as UV light is required to initiate the substitution reaction. Only when there is Cl2 can the C-H bond be broken. However, alkene can react directly with Cl2 due to hydrohalogenation.
The equation represents the reaction between methane (CH4) and bromine (Br2) to form methyl bromide (CH3Br) and hydrogen bromide (HBr). This reaction is a substitution reaction in which a hydrogen atom in methane is replaced by a bromine atom.
Chloromethane is the product that is formed when methane and chlorine react with each other. Dichloromethane is another product that can also be formed when methane and chlorine react.
Tetramethyl-lead IV acts as a catalyst in the free radical substitution reaction between methane and chlorine by generating methyl radicals through homolytic cleavage. These methyl radicals then react with chlorine to form methyl chloride and regenerate the lead catalyst, thus increasing the rate of the overall reaction.
When methane reacts with chlorine under sunlight, it forms chloromethane and hydrogen chloride. This reaction is a substitution reaction where one or more hydrogen atoms in methane are replaced by chlorine atoms. Overall, the reaction is exothermic and can be potentially explosive.
The source of energy used to react chlorine with methane is typically heat, in the form of high temperatures. This helps to initiate the reaction between the two compounds and break the chemical bonds involved.
The reaction between methane and bromine is a substitution reaction, specifically a halogenation reaction. In this reaction, one or more hydrogen atoms in methane are replaced by bromine atoms to form bromomethane.
Just replace one H and add a Cl (CH3Cl). In the next step replace another H by Cl. It's a chain reaction under sunlight: CH4+Cl2=CH3Cl+HCl CH3Cl+Cl2=CHCl2+HCL CH2Cl+Cl2=CHCl3+HCl CHCl3+Cl2=CCl4+HCl I'm sure now the structural formula will be apiece of cake.
Theotically, methane can't react with Cl2 in shade as UV light is required to initiate the substitution reaction. Only when there is Cl2 can the C-H bond be broken. However, alkene can react directly with Cl2 due to hydrohalogenation.
Methane does not react with chlorine in the dark.
Methane and oxygen do react with each other at room temperature, but the reaction requires an input of energy to get started. Once the reaction begins, it is exothermic and produces heat and water as byproducts. This reaction typically needs a spark or flame to initiate it, which is why methane does not spontaneously combust in air at room temperature.
The product of a reaction with chlorine gas, Cl2, depends on the other reactant. Here are just a few examples of the many, many different possible reactions: A reaction between chlorine and hydrogen gas, H2, results in hydrogen chloride, HCl, which forms hydrochloric acid, the same acid found in the stomach, when mixed with water. A reaction between chlorine and sodium metal, Na, results in sodium chloride, NaCl, commonly known as table salt. Chloroform, CCl3, a chemical formerly used as an anesthetic, can result from a reaction between chlorine gas and methane, CH4. When mixed with sodium hydroxide, NaOH, chlorine gas forms hypochlorite, ClO3-, a major component of bleach.
the chlorination of methane does not necessarily stop after one chlorination. it may actually hard to get a mono substituted chloromethane. instead di, tri, and even tetra-chloromethanes are formed. one way to avoid this problem is to use a much higher concentration of methane in comparison to chloride. this reduces the chance of a chlorine radical running into a chloromethane and starting the mechanism over again to form a di-chloromethane. through this method of controlling product ratios one is able to have a relative amount of control over the chloromethane.
Burning release heat, the molecular structure of methane is destroyed and the bonding energy is released.