Caprylic acid amide

Iodine Potassium Iodide Dodecylbenzene Tridecyibenzene Hydroquinone Propionaldehyde Methylform amide Diacetone Alcohol Isoamyl Alcohol Pentanedione (2,4-) Acetylacetone Paraldehyde Butylaldehyde Butyraldehyde Levulinic Acid Dioctyl Adipate Acetic Acid Butyl Ester Butyl Acetate Dioxane (1,4-) Dioxane Dioxane (p-) Isoamyl Acetate Thiodiacetic Acid Butyl Stearate Santoprene 201-73 Kamax T-260 Adipic Acid Ethylene Chloroformate Caprylic Acid Octanoic Acid Hexamethylenediamine Butyl Carbitol Acetate Decane Carbon Dioxide Dimethylamine Sodium Methylate Freon 114B2 Tetrachloropentane Santicizer 141 Santoprene 201-64 Ecolan Hetron 99P Calcium Hydride Triton Sulfolane Tributyl Phosphate Tributylphosphate Sodium Diacetate Methacrylonitrile... 

As green carrier oils or solvents - together with green surfactants - they also play a key role as inerts , i.e. non-active, inert formulation aids in modern crop protection, such as pesticide microemulsions or emulsifiable concentrates. Besides fatty acid esters, certain liquid fatty acid amides, more particularly capryl dimethylamide, are also increasingly creating interest as green solvents and carrier oils. 

The final properties of conventional PU ionomers, which are controlled to a large extent by microphase separation, can be further varied by incorporation of appropriately chosen additives. In a recent study, the effect of a liquid crystalline oligomer (LCO) on the DMS and on the molecular dynamics of a PU ionomer was investigated by DRS and TSDC [63]. The final chemical structure of the PU ionomer with a concentration of ionic centers of 8% is shown in Scheme 2. Composites with the LCO cholesteric ester of caprylic acid (PU/LCO composites) were obtained by casting from a common solvent (dimethyl form-amide) LCO mass fractions w = 0, 0.02, 0.10, and 0.20. 

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