Volatile partitioning between milk fat and aqueous phases as influenced by temperature |
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The alcohols exhibit an increase in Log P at all temperatures, as the carbon
chain length increases. Each methylene (-CH2-) group added onto an n-chain
primary alcohol increases the hydrophobicity of that compound. Over the entire ...
The alcohols exhibit an increase in Log P at all temperatures, as the carbon
chain length increases. Each methylene (-CH2-) group added onto an n-chain
primary alcohol increases the hydrophobicity of that compound. Over the entire ...
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Contents
Review of Literature | 3 |
Materials and Methods | 35 |
Results and Discussion | 50 |
3 other sections not shown
Common terms and phrases
1-butanol 1-heptanol 1-Hexanol 1-octanol and water 1-octanol phase 1-pentanol 1-propanol acetone adsorption analysis anhydrous milk fat ANOVA aqueous phase aroma compounds butyrate calculated Cheddar Cheddar cheese crystal determined Deviation difference Differential scanning calorimetry diffusion dissolved in milk effect emulsion enthalpy entropy equilibration equilibrium conditions ethanol ethyl butyrate fat and water flavor compounds flavor development flavor forming flavor release heptanol impact influenced by temperature injection standard interactions interface isoamyl alcohol lipid lipid phase liquid fat liquid milk fat Log P values measured Log method milk fat globule milk fat partitioning milk fat phase mixing ml milk fat n-chain octanol partition coefficient partition vial partitioning equilibrium partitioning experiments partitioning in 1-octanol partitioning studies Peak Area Ratio phase volume polar proteins samples Sangster saturated solid fat content solid milk fat solubility solvent standard curve standard solution stir bar substrate availability verify versus in milk Walstra water as influenced water partitioning