Volatile Partitioning Between Milk Fat and Aqueous Phases as Influenced by Temperature |
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Page 26
3 ) Where x = mean diffusion distance t = time Diffusion within cheese may
deviate from these assumptions due to adsorption of volatiles . 2 . 6
Microstructure of cheese Differences in the chemical properties of lipids and
water cause these two ...
3 ) Where x = mean diffusion distance t = time Diffusion within cheese may
deviate from these assumptions due to adsorption of volatiles . 2 . 6
Microstructure of cheese Differences in the chemical properties of lipids and
water cause these two ...
Page 27
7 Flavor formation in cheese The flavor of cheese is influenced by a complex
series of chemical and biochemical reactions . Breakdown of carbohydrates , fats
and proteins leads to the development of volatile and nonvolatile flavor
compounds ...
7 Flavor formation in cheese The flavor of cheese is influenced by a complex
series of chemical and biochemical reactions . Breakdown of carbohydrates , fats
and proteins leads to the development of volatile and nonvolatile flavor
compounds ...
Page 69
Theoretically , the aqueous phase of cheese at 10° C ( e . g . ripening ) would
contain two times the concentration of 1heptanol than it would at 40° C ( e . g .
cooking curd ) . However , a more polar compound , like 1 - propanol , is less
affected ...
Theoretically , the aqueous phase of cheese at 10° C ( e . g . ripening ) would
contain two times the concentration of 1heptanol than it would at 40° C ( e . g .
cooking curd ) . However , a more polar compound , like 1 - propanol , is less
affected ...
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Common terms and phrases
1-butanol 1-heptanol 1-octanol and water 1-propanol according acetone achieved acid activity Additional alcohols allowed analysis anhydrous milk fat approximately aqueous phase associated calculated cheese chromatography compared comparison compounds concentration conducted constant containing correlation crystal curve decrease dependent determined Deviation difference diffusion dissolved effect emulsion energy enthalpy entropy equilibrium conditions et al ethanol experiments factor fat and water flavor development globule greater groups hydrophobic impact improve increase indicates influenced by temperature initially injection standard interactions less levels limited lipid liquid Log Kmw mass mean measured melting method milk fat minutes mixing models needed observed partition coefficient peak area physical polar prepared properties proteins ratio reactions reduced regression reported sample saturated separate slope solid fat content solubility solute solvent stirring suggest Table understanding values verify versus vial volatiles volume water partitioning