Sodium chloride help the precipitation of soaps.
The electrical conductivity of the solution will be higher if the concentration of NaCl increase.
saponification is considered to be the reverse process of an esterification reaction due to the fact that esterification is combining an alcohol and a carboxylic acid but a saponification is breaking apart the ester by adding an NaCl molecule (soap) to the chain of carbons.
Ethanol is added to hasten saponification.
Saponification is not applied to pure stearic acid; stearic acid esters are used.
margarine has saponification value more then butter
Mineral oil is a non-polar compound with long hydrocarbon chains and lacks the functional groups needed for saponification, such as ester functional groups found in triglycerides. Saponification is a reaction that involves breaking down ester bonds in fats and oils, so without these bonds, mineral oil cannot undergo saponification.
Glycerin and soap are the bye-products of saponification. The saponification value of glycerine are values of the percentage of lye it takes to convert one unit of fat, oil or fatty acid into glycerin.
No, a magnet cannot create saponification. Saponification is a chemical reaction that typically involves a base (like lye) with fats or oils to produce soap. Magnets do not play a role in this chemical process.
it is an endothermic
Saponification takes place in places where fat is stored in the human body.
Saponification is a process of converting esters into soaps and alcohols by the action of aqueous alkali (for example, aqueous sodium hydroxide solutions).
The simplest answer is probably - "lye soap". In broader terms, the reaction of fats with bases (like NaOH) is called "saponification" and the product is soap. Saponification involves hydrolysis of triglycerides, which are esters of fatty acids, to form the salt (sodium salt if the base is NaOH) of a carboxylates. In addition to soap, such traditional saponification processes produces glycerol.