Fatty Acids and Derivatives from Coconut Oil

Abstract

Coconut oil and palm kernel oil are import feedstocks in the oleochemical industry. Oleochemicals are defined as chemicals made from oils. Coconut oil is well positioned because it has the unique advantage of having its fatty acid composition falling within the carbon‐chain spectrum desired for the production of oleochemicals. C12–C14 fractions are highly sought after. The caproic to capric (C6–C10) fatty acid fractions are good materials for plasticizer range alcohol and for polyol esters. The latter are used in high‐performance oil for jet engines and for a new generation of lubricants. These fractions are also basic to the preparation of medium‐chain triglycerides, a highly valued dietary fat. The C12–C18 fractions are the primary raw materials for detergent‐grade fatty alcohols. Coconut fatty acids can be converted to other derivatives. Principles and methods in the manufacture of various oleochemicals are discussed. Detailed information is given for the following: fatty acids and fat‐splitting procedures; methyl esters and their advantages; fatty alcohols, which are gaining favor as surfactants because they are biodegradable and a renewable resource; glycerine; monoalkyl phosphates, which are used for fireproofing, foam inhibitors, in extreme pressure lubricants, and for cosmetic preparations; and alkanolamides, used as nonionic surfactants. Preparation of other surfactants prepared from vegetable oils is discussed. These surfactants find broad use in all industries, for example, as the main ingredients in detergents, emulsifiers and sanitizers in the food industry, and as flotation agents in the mining industry. Tertiary amines are used as starting materials for the manufacture of quaternary ammonium compounds and in the preparation of amine oxides. These oxides are used in cosmetic preparation.

Comprehensive Evaluation of a Deep Eutectic Solvent Based CO2 Capture Process through Experiment and Simulation

“…48 Specifically, the data for stearic acid were used as a proxy for decanoic acid, which is a valid approximation because stearic acid and decanoic acid, as natural fatty acids, are both extracted from vegetable oil by the same extraction process. 49 The data for tetrabutylammonium bromide were obtained from the literature. 48 On consideration of the energy efficiencies and losses during the synthetic subprocesses of the precursor, the theoretical duty of the energy is scaled up to an industrial scale using the empirical factors.…”

“…The data related to the DES and its precursors are not available in the LCA databases; in such cases, data for alternative chemicals were used as proxy data . Specifically, the data for stearic acid were used as a proxy for decanoic acid, which is a valid approximation because stearic acid and decanoic acid, as natural fatty acids, are both extracted from vegetable oil by the same extraction process . The data for tetrabutylammonium bromide were obtained from the literature .…”

Hydrolysis of Virgin Coconut Oil Using Immobilized Lipase in a Batch Reactor

“…The lipid composition [ 6 , 7 ] and the physicochemical properties [ 8 , 9 ] of VCO have been reported. However, the scientific data on VCO hydrolysis and its kinetic study is very limited in addition to the reaction optimization.…”

Green synthesis of isopropyl myristate in novel single phase medium Part I: Batch optimization studies

“… [1] , [2] . The esters of fatty acids includes methyl esters, isopropyl esters, butyl esters, partial glycerides and wax esters (esters of fatty acids with long-chain fatty alcohols), and ester oils (esters of fatty acids with poly alcohols) [1] , [2] , [3] . The commonly used fatty acid ester, isopropyl myristate (IPM), is the main focus of present research.…”