Green Synthesis and Surface Properties of Acyl Glycine Surfactants Derived from Vegetable Oils
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Abstract
Oils from coconut, peanut, and soybean were reacted as acyl donors with sodium glycinate to synthesize acyl glycine surfactants. From these three oils a series of acyl glycines with different acyl chain lengths was obtained. The proportion of each component was consistent with the composition of fatty acids derived from the three vegetable oils. The surface properties of the corresponding sodium salts were determined. Sodium cocoyl glycinate, the sodium salt of acyl glycine from peanut oil, and the sodium salt of acyl glycine from soybean oil reduced the surface tension of water to 33.1, 31.6, and 33.4 mN · m−1, respectively, at corresponding critical micelle concentrations of 0.21, 0.057, and 0.05 mmol · L−1. The three acyl glycine surfactants exhibited favorable foam properties, good detergency, and good emulsifying properties.
Kurzfassung
Öle aus Kokosnüssen, Erdnüssen und Sojabohnen reagierten als Acyldonatoren mit Natriumgylcinat zu Acylglycin-Tensiden. Aus diesen drei Ölen wurde eine Reihe an Acylglycinen mit unterschiedlich langen Acylketten erhalten. Das Verhältnis jeder Komponente war übereinstimmend mit der Zusammensetzung der Fettsäuren, die aus den drei Pflanzenölen abgeleitet wird. Die Oberflächeneigenschaften der entsprechenden Natriumsalze wurden bestimmt. Natriumcocoylglycinat, das Natriumsalz des Acylglycins aus Erdnussöl und das Natriumsalz des Acylglycins aus Sojaöl reduzierten die Oberflächenspannung von Wasser auf 33,1, 31,6 und 33,4 mN · m–1 mit den kritischen Mizellbildungskonzentrationen von 0,21, 0,057 und 0,05 mmol · L–1. Die drei Acylglycin-Tenside zeigten ein günstiges Schaumvermögen, gute Reinigungs- und Emulgiereigenschaften.
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- Transition from Micelle to Vesicle of a Novel Sugar-Based Surfactant Containing Trisiloxane
- Synthesis
- One-Pot Preparation of Nano-SiO2 Using a Silane Derivative as a Coupling Agent
- Green Synthesis and Surface Properties of Acyl Glycine Surfactants Derived from Vegetable Oils
Articles in the same Issue
- Contents/Inhalt
- Contents
- Application
- Feasibility of a Natural Surfactant as a Stabilizer for Cosmetics with Liposome-Encapsulated Plant Stem Cells: Pre-Formulation and Formulation Through Stability Studies
- Cleaning Technology
- Large Washing Machines Are Not Used Efficiently in Europe
- Environmental Chemistry
- Carboxylate-Terminated Double-Hydrophilic Block Copolymer as an Effective Inhibitor for Carbonate and Sulphate Scales
- Novel Surfactants
- Comparison of Methods to Quantify Rhamnolipid and Optimization of Oil Spreading Method
- Synthesis and Characterization of Biodegradable Cationic Esterquat Surfactants and the Evaluation of its Physico-Chemical Properties
- Characteristics of Block Copolymers of Methyl Oxirane and Oxirane Derivatives of 2-Ethylhexanol as Obtained with KOH and Dimetalcyanide Type Catalyst
- Physical Chemistry
- Amphiphile/Water/Decanol Lyotropic Liquid Crystalline System: Study of Thermal States of Anisometric Micelles in Nematic-Calamitic and Nematic-Discotic Mesophases
- Transition from Micelle to Vesicle of a Novel Sugar-Based Surfactant Containing Trisiloxane
- Synthesis
- One-Pot Preparation of Nano-SiO2 Using a Silane Derivative as a Coupling Agent
- Green Synthesis and Surface Properties of Acyl Glycine Surfactants Derived from Vegetable Oils