• Title/Summary/Keyword: ginseng quality

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Comparison of Growth Characteristics and Quality of Korean Ginseng (Panax ginseng C.A. Meyer) by Different Shade Materials (해가림자재 종류별 고려인삼의 생육과 품질특성 비교)

  • Seong, Bong-Jae;Lee, Ka-Soon;Han, Seong-Ho;Kim, Sun-Ick;Kim, Gwan-Hou;Lee, Sox-Su;Won, Jun-Yeon;So, Jung D.;Cho, Jin-Woong
    • KOREAN JOURNAL OF CROP SCIENCE
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    • v.59 no.4
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    • pp.505-510
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    • 2014
  • This research investigated growth of ginseng regard to sunshade materials and micro metrological phenomena under the sunshade material to product high quality ginseng. Followings are results of investigation of active ingredient from raw ginseng producted under the sunshade materials. The highest temperature under the sunshade material from June to August was measured from a Three-layered blue and one-layered black polyethylene net (TBOBFN) followed by a aluminium-coated polyethylene sheet (ACPS) and blue polyethylene sheet (BPS). The highest light penetration of $381.7{\mu}mol/s/m^2$ was obtained from the BPS at August, also the temperature was highest at the ginseng field. Growth of above ground part of 2~3 year old ginseng under the ACPS was the highest, followed by the ACPS and the BPS. In case of 4 year old ginseng, the ACPS and the BPS was the same, followed by the TBOBPN. Root length and diameter of 2~3 year old ginseng showed difference among treatments, but 4 year old ginseng was not showed difference. Meanwhile, the highest amount of root of 4 year old ginseng of $896g/m^2$ was obtained from ACPS. The total amount of ginsenocide of 4 year old ginseng under the ACPS was highest, followed by the BPS and the TBOBPN. Chromaticity of ginseng root under the TBOBPN was highest, followed by the ACPS and the BPS.

Quality of Insambob Containing Added Raw and Red Ginseng Extract (수삼과 홍삼액을 첨가하여 취반한 인삼밥의 품질학적 특성)

  • Lee, Ka-Soon;Kim, Gwan-Hou;Kim, Hyun-Ho;Seong, Bong-Jae;Kim, Sun-Ick;Han, Seung-Ho;Lee, Gyu-Hee
    • Journal of the Korean Society of Food Science and Nutrition
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    • v.41 no.8
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    • pp.1151-1157
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    • 2012
  • This study was conducted to investigate methods of increasing raw ginseng consumption. To accomplish this, Insambob was prepared by adding minced raw ginseng (MRG), ground raw ginseng (GRG) or extracts of red ginseng (RGE). Sensory quality, textural properties, and changes in the ginsenoside and free amino acid composition of the Insambob then were investigated. Insambob containg 50% RGE had the best color, flavor and texture, but that containing 10% GRG had the best taste and overall acceptability. The hardness and adhesiveness were highest for containing 10% GRG and decreased as the amount of ginseng added increased. However, the hardness increased, while the adhesiveness of Insambob containg RGE decreased significantly as the amount added increased. Moreover, the ginsenoside composition changed upon addition of ginseng, with the levels of ginsenoside-Rb1, -Rb2, -Rb3, -Rc, -Re, -Rd, -Rg1, and -Rf decreasing and ginsenoside-Rh2, -Rh1, and -Rg3 newly appearing. Finally, the total free amino acid contents of Insambob increased upon addition of MRG, GRG and RGE.

Effect of Extracting Conditions on Some Factors Affecting the Sugar Composition of Red Ginseng Extract (추출조건이 홍삼엑기스의 당과 유리당의 조성에 미치는 영향)

  • 성형순;김나미
    • Journal of Ginseng Research
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    • v.9 no.1
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    • pp.104-111
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    • 1985
  • The quality of concentrated red ginseng extract, which was prepared from Korean red ginseng tails, was studied with respect to the changes in the ethanol concentration in the range of 0-90% and temperature of 70-10$0^{\circ}C$ during 1-5 times of extraction. Each extraction time was taken 8 hours at given temperature. The ratio of free sugars to total sugar changed significantly with the number of extraction and ethanol concentrations. An increase in reducing sugar and free sugars and a decrease in extracted soluble starch were fond as ethanol concentration increased. Extraction temperature was found little effect on extractability of sugars and their ratios. Analysis of free sugars in red ginseng extract identified 6 frdd sugars such as rhamnose, xylose, fructose, glucose, sucrose and maltose, including sucrose to be major.

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Oxidative stability of extracts from red ginseng and puffed red ginseng in bulk oil or oil-in-water emulsion matrix

  • Lee, Sang-Jun;Oh, Sumi;Kim, Mi-Ja;Sim, Gun-Sub;Moon, Tae Wha;Lee, JaeHwan
    • Journal of Ginseng Research
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    • v.42 no.3
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    • pp.320-326
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    • 2018
  • Background: Explosive puffing can induce changes in the chemical, nutritional, and sensory quality of red ginseng. The antioxidant properties of ethanolic extracts of red ginseng and puffed red ginseng were determined in bulk oil and oil-in-water (O/W) emulsions. Methods: Bulk oils were heated at $60^{\circ}C$ and $100^{\circ}C$ and O/W emulsions were treated under riboflavin photosensitization. In vitro antioxidant assays, including 2,2-diphenyl-1-picrylhudrazyl, 2,2'-azinobis-3-ethyl-benzothiazoline-6-sulfonic acid, ferric reducing antioxidant power, total phenolic content, and total flavonoid content, were also performed. Results: The total ginsenoside contents of ethanolic extract from red ginseng and puffed red ginseng were 42.33 mg/g and 49.22 mg/g, respectively. All results from above in vitro antioxidant assays revealed that extracts of puffed red ginseng had significantly higher antioxidant capacities than those of red ginseng (p < 0.05). Generally, extracts of puffed red and red ginseng had high antioxidant properties in riboflavin photosensitized O/W emulsions. However, in bulk oil systems, extracts of puffed red and red ginseng inhibited or accelerated rates of lipid oxidation, depending on treatment temperature and the type of assay used. Conclusion: Although ethanolic extracts of puffed red ginseng showed stronger antioxidant capacities than those of red ginseng when in vitro assays were used, more pro-oxidant properties were observed in bulk oils and O/W emulsions.

Studies on the Ginseng Saponins -The Patterns of Ginseng Saponin in the Commercial Ginseng Teas and each Parts of Ginseng Plant- (인삼 Saponin에 관한 연구 -인삼각부위(人蔘各部位) 및 시판인삼차(市販人蔘茶)의 Saponin 조성(組成)에 대하여-)

  • Kim, Hai-Jung;Nam, Sung-Hi;Fukura, Yosiaki;Lee, Suk-Kun
    • Korean Journal of Food Science and Technology
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    • v.9 no.1
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    • pp.24-30
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    • 1977
  • The patterns of ginseng saponins in the commercial ginseng tea samples and each parts of ginseng plant were investigated by quantitative thin-layer chromatography. The quality of those sample teas were also evaluated. (1) White ginseng contained about $2.6{\sim}6.6$ times of Ra(o) than did other parts of ginseng. (2) Lateral roots, peelings and buds of ginseng were rich in $Rb_1$, $b_2$, c, which constituted about 50% of total saponin. (3) The ratio of Rb.c to Rg(f) in the leaves and stems of ginseng plant was 0.64 : 1. (White ginseng, 2 : 1 ; buds, 3 : 1 ; flower, 3.2 : 1 ; peelings, 5.8 : 1 ; lateral ginseng, 7 : 1) The relative content of Rg(f) in the white ginseng was about 3 times as much as the lateral ginseng. (4) The ratios of panaxadiol to panaxatriol in 13 kinds of commercial ginseng teas were in the range of $0.8{\sim}8\;:\;1$.

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Quality and characteristics of ginseng seed oil treated using different extraction methods

  • Lee, Myung-Hee;Kim, Sung-Soo;Cho, Chang-Won;Choi, Sang-Yoon;In, Gyo;Kim, Kyung-Tack
    • Journal of Ginseng Research
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    • v.37 no.4
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    • pp.468-474
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    • 2013
  • Ginseng seed oil was prepared using compressed, solvent, and supercritical fluid extraction methods of ginseng seeds, and the extraction yield, color, phenolic compounds, fatty acid contents, and phytosterol contents of the ginseng seed oil were analyzed. Yields were different depending on the roasting pretreatment and extraction method. Among the extraction methods, the yield of ginseng seed oil from supercritical fluid extraction under the conditions of 500 bar and $65^{\circ}C$ was the highest, at 17.48%. Color was not different based on the extraction method, but the b-value increased as the roasting time for compression extraction was increased. The b-values of ginseng seed oil following supercritical fluid extraction were 3.54 to 15.6 and those following compression extraction after roasting treatment at $200^{\circ}C$ for 30 min, were 20.49, which was the highest value. The result of the phenolic compounds composition showed the presence of gentisic acid, vanillic acid, ferulic acid, and cinnamic acid in the ginseng seed oil. No differences were detected in phenolic acid levels in ginseng seed oil extracted by compression extraction or solvent extraction, but vanillic acid tended to decrease as extraction pressure and temperature were increased for seed oil extracted by a supercritical fluid extraction method. The fatty acid composition of ginseng seed oil was not different based on the extraction method, and unsaturated fatty acids were >90% of all fatty acids, among which, oleic acid was the highest at 80%. Phytosterol analysis showed that ${\beta}$-sitosterol and stigmasterol were detected. The phytosterol content of ginseng seed oil following supercritical fluid extraction was 100.4 to 135.5 mg/100 g, and the phytosterol content following compression extraction and solvent extraction was 71.8 to 80.9 mg/100 g.

Metabolomic understanding of intrinsic physiology in Panax ginseng during whole growing seasons

  • Lee, Hyo-Jung;Jeong, Jaesik;Alves, Alexessander Couto;Han, Sung-Tai;In, Gyo;Kim, Eun-Hee;Jeong, Woo-Sik;Hong, Young-Shick
    • Journal of Ginseng Research
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    • v.43 no.4
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    • pp.654-665
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    • 2019
  • Background: Panax ginseng Meyer has widely been used as a traditional herbal medicine because of its diverse health benefits. Amounts of ginseng compounds, mainly ginsenosides, vary according to seasons, varieties, geographical regions, and age of ginseng plants. However, no study has comprehensively determined perturbations of various metabolites in ginseng plants including roots and leaves as they grow. Methods: Nuclear magnetic resonance ($^1H$ NMR)-based metabolomics was applied to better understand the metabolic physiology of ginseng plants and their association with climate through global profiling of ginseng metabolites in roots and leaves during whole growing periods. Results: The results revealed that all metabolites including carbohydrates, amino acids, organic acids, and ginsenosides in ginseng roots and leaves were clearly dependent on growing seasons from March to October. In particular, ginsenosides, arginine, sterols, fatty acids, and uracil diphosphate glucose-sugars were markedly synthesized from March until May, together with accelerated sucrose catabolism, possibly associated with climatic changes such as sun exposure time and rainfall. Conclusion: This study highlights the intrinsic metabolic characteristics of ginseng plants and their associations with climate changes during their growth. It provides important information not only for better understanding of the metabolic phenotype of ginseng but also for quality improvement of ginseng through modification of cultivation.