블루베리·복분자와 오디 그리고 이들 부산물 주정 추출물의 이화학적 특성 및 페놀화합물 함량 비교
Comparison of Chemical Properties and Phenolic Compound for Ethanol Extract of Blueberry, Bokbunja and Mulberry and their Pomaces
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In this study, the chemical properties and phenolic compound of blueberry, bokbunja and mulberry and their pomace were determined to develop them as functional food materials. Water content of individual whole berry was ranged from 84.25-86.20%, and water content was significantly high in whole berries rather than their pomace (p<0.01). Additionally, each berry and its pomace’s pH was 3.32-5.18. Among them, whole mulberry showed the highest pH which is 5.18 (p<0.01). Total polyphenol and flavonoid contents were the greatest in blueberry pomace and they were 24.81 mg/g and 2.13 mg/g, respectively (p<0.01). However, mulberry pomace generated the greatest anthocyanin content compared to others (p <0.01). In phenolic compound profiles, cyanin chloride was detected in mulberry and bokbunja. Epigallocatechin, gallocatechin and isorhamnetin were found only in blueberry. Catechin (hydrate) and epicatechin were greater in pomaces than whole berries except blueberry (p<0.01), otherwise, significantly great rutin (trihydrate) and quercetin contents were found in whole berries as compared to their pomace except blueberry (p<0.01). Gallic acid was significantly greatest in mulberry (p< 0.01) and quercetin 3-D-galactoside was significantly greatest in blueberry (p< 0.01). Apigenin and luteolin were traced in mulberry, and mulberry pomace showed greater apigenin and luteolin contents than whole mulberry (p<0.01). Naringenin was greater in pomaces than whole berries (p <0.01). As a result, it was found that all berry extracts used in this study were able to be applied as functional food materials and their pomace contained high phenolic compound enough to be a good source of phytochemical for nutraceutical use.
Abstract
In this study, the chemical properties and phenolic compound of blueberry, bokbunja and mulberry and their pomace were determined to develop them as functional food materials. Water content of individual whole berry was ranged from 84.25-86.20%, and water content was significantly high in whole berries rather than their pomace (p<0.01). Additionally, each berry and its pomace’s pH was 3.32-5.18. Among them, whole mulberry showed the highest pH which is 5.18 (p<0.01). Total polyphenol and flavonoid contents were the greatest in blueberry pomace and they were 24.81 mg/g and 2.13 mg/g, respectively (p<0.01). However, mulberry pomace generated the greatest anthocyanin content compared to others (p <0.01). In phenolic compound profiles, cyanin chloride was detected in mulberry and bokbunja. Epigallocatechin, gallocatechin and isorhamnetin were found only in blueberry. Catechin (hydrate) and epicatechin were greater in pomaces than whole berries except blueberry (p<0.01), otherwise, significantly great rutin (trihydrate) and quercetin contents were found in whole berries as compared to their pomace except blueberry (p<0.01). Gallic acid was significantly greatest in mulberry (p< 0.01) and quercetin 3-D-galactoside was significantly greatest in blueberry (p< 0.01). Apigenin and luteolin were traced in mulberry, and mulberry pomace showed greater apigenin and luteolin contents than whole mulberry (p<0.01). Naringenin was greater in pomaces than whole berries (p <0.01). As a result, it was found that all berry extracts used in this study were able to be applied as functional food materials and their pomace contained high phenolic compound enough to be a good source of phytochemical for nutraceutical use.
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