• Title/Summary/Keyword: 인삼추출물

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Effects of Fermented Red Ginseng Supplementation on Blood Glucose and Insulin Resistance in Type 2 Diabetic Patients (발효홍삼이 제2형 당뇨병 환자의 혈당 및 인슐린저항성에 미치는 영향)

  • Kim, Hey-Ok;Park, Min-Jung;Han, Ji-Sook
    • Journal of the Korean Society of Food Science and Nutrition
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    • v.40 no.5
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    • pp.696-703
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    • 2011
  • We performed a randomized placebo-controlled trial to determine whether or not fermented red ginseng supplementation modulates blood glucose and insulin resistance in type 2 diabetic patients. A total of 38 patients were randomized to either a fermented red ginseng group or placebo group. The patients in the experimental or placebo group consumed 780 mg of fermented red ginseng or cellulose supplement per day for 12 weeks, respectively. Lifestyle factors and dietary intakes of the patients were not altered during the 12-weeks period. In the fermented red ginseng group after 12 weeks, the fasting blood glucose levels were significantly decreased ($136.29{\pm}16.45$ mg/dL to $127.71{\pm}17.74$ mg/dL) and $HbA_1c$ was also decreased. Especially, high HbA1c (HbA1c $\geq$8%, $8.45{\pm}0.56%$ to $7.82{\pm}0.53%$) was significantly decreased compared to low HbA1c (HbA1c <8%, $6.71{\pm}0.85%$ to $6.44{\pm}0.49%$) in the fermented red ginseng group. Serum low-density lipoprotein was slightly decreased in the fermented red ginseng group compared to the placebo group. Homeostasis model assessment-insulin resistance was significantly reduced in the fermented red ginseng group compared to the placebo group. These results suggest that fermented red ginseng supplementation could be helpful to reduce blood glucose by improving insulin resistance in type 2 diabetic patients.

Effect of Storage Temperature and Humidity on Water Vapor Permeability of Al-foil Laminate Paper (저장온도(貯藏溫度) 및 습도(濕度)가 알루미늄박(箔) 적층지(積層紙)의 수분투과율(水分透過率)에 미치는 영향(影響))

  • Park, Kil-Dong;Choi, Jin-Ho;Sung, Hyun-Soon;Hong, Soon-Keun
    • Korean Journal of Food Science and Technology
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    • v.13 no.4
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    • pp.314-318
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    • 1981
  • In order to improve the storage stability of spray and freeze dried red ginseng extract powder packed in a bottle, the water vapor permeability of Al-foil laminate paper used for cap closure and shelf life of those products on various storage temperatures and relative humidities were investigated. The thickness of the laminate paper was $93{\pm}3\:{\mu}m$ and its physical properties were equal to standard of ASTM (B-377-66) The absorption rate of the freeze dried powder was 2-6 times greater than that of the spray dried powder at $37^{\circ}C$. Therefore it was considered that the laminate could be used for cap closures for the spray dried powder but unsuitable for the freeze dried powder. The shelf life of the spray dried powder was longer than that of the freeze-dried powder at $37^{\circ}C$.

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Studies on the Browning of Red Ginseng (홍삼(紅蔘)의 갈변(褐變)에 관(關)한 연구(硏究))

  • Kim, Dong-Youn
    • Applied Biological Chemistry
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    • v.16 no.2
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    • pp.60-77
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    • 1973
  • The non-enzymatic browning phenomenons of red ginseng were studied to identify these compounds which function as the factors for browning. The samples were classified into five divisions; Fresh ginseng, blanched ginseng, sun dried red ginseng, dehydrated red ginseng, and browning accelerated red ginseng respectively, and the various compounds in each of them were analyzed quantitatively and investigated the compounds which were thought to function for browning during the drying and the dehydration processes; the results were as follows. 1. The chemical compositions among five divisions did not show any difference except a) total and reducing sugars, b) total acids, c) water soluble extracts; a) and b) were decreased during the drying process, c) was decreased about 6-7% in red ginseng divisions. 2. Sixteen free amino acids; asp., thr., ser., glu., gly., ala., val., cys., met., ileu., leu., tyr., phe., lys., his., and arg, were identified in each division. Among them the arg, was extremly high. All of the essential amino acids were contained, while generally these amino acids were decreased in drying period and their rates were smaller in dehydrated red ginseng than in sun dried red ginseng. 3. Three kinds of sugars; fructose, glucose and sucrose were identified and other four kinds of unidentified sugars were seperated. The content of sucrose was 80% and all kind of sugars were generally less in red ginseng divisions than in the other two divisions. The decreasing rate of sngars was higher in the sun dried red ginseng than in the dehydrated red ginseng. Especially the decreasing rate of the reducing sugars was high as compared with that of sucrose. 4. Almost all the ascorbic acid was decomposed during the blanching whereas there could'nt be shown any change of the ascorbic acid content during the period of drying. 5. Eleven kinds of volatile acids; acetic acid, propionic acid, acrylic acid, iso-butyric acid, n-butyric acid, isovaleric acid, n-valeric acid, isoheptylic acid, n-heptylic acid, and an unknown volatile acid were identified. They showed a little decrease during the period of blanching perhaps on account of their volatility whereas they were increased in drying period. 6. Six kinds of non-volatile acids; citric acid, malic acid, ${\alpha}-ketoglutaric$ acid, succinic acid, pyruvic acid and glutaric acid were identified. The content of them were decreased during the drying procedures in red ginseng but only that of succinic acid was increased. 7. Three kinds of polyphenols; 3-caffeyl quinic acid, 4-caffeyl quinic acid, 5-caffeyl quinic acid and an unknown polyphenol were identified. The content of them showed considerable decrease during the drying procedures, especially in sun drying. 8. The intensity of the browning in each divisior was as follows; browning accelerated red ginseng> sun dried red ginseng> dehydrated red ginseng. 9. In the process of red ginseng preparation, a. certain relationship could be found between the decreasing rates of amino acids, reducing sugars, polyphenols and the intensity of browning. Therefore the browning phenomenon may be concluded that nonenzymatic browning reactions of the amino-carbonyl reaction and autoxidation of polyphenols are the most important processes, furthermore, as their reactions could be controlled it is thought to be possible to accelerate effectively browning within a relatively short period.

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