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Determination of Ginsenosides Content in Korean Ginseng Seeds and Roots by High Performance Liquid Chromatography

  • Hu, Jiang Ning;Lee, Jeung-Hee;Shin, Jung-Ah;Choi, Jae-Eul;Lee, Ki-Teak
    • Food Science and Biotechnology
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    • v.17 no.2
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    • pp.430-433
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    • 2008
  • A high performance liquid chromatography (HPLC) method has been successfully developed to identify and quantify major ginsenosides in Korean ginseng seeds and roots. Using gradient elution of acetonitrile and water without buffer, the 6 major ginsenosides ($Rb_1,\;Rb_2$, Rc, Rd, Re, and $Rg_1$) were identified. Compared with ginseng roots, the amount of ginsenoside Re and Rd in ginseng seeds were significantly higher than those in ginseng roots (p<0.05). In ginseng seeds, the content of protopanaxtriol (PPT) was higher than that of protopanaxdiol (PPD) and the ratio of PPT and PPD was approximately 2.2 : 1. However, the content of PPT was lower than that of PPD in ginseng roots. It should be mentioned that both content of PPT and PPD in ginseng seeds were much higher than those in ginseng roots.

Antiallergic effect of ginseng fermented with Ganoderma lucidum

  • Bae, Eun-Ah;Trinh, Hien-Trung;Rhee, Young-Kyung;Lee, Young-Chul;Kim, Dong-Hyun
    • Journal of Ginseng Research
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    • v.32 no.1
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    • pp.57-61
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    • 2008
  • Ginseng (the root of Panax ginseng CA Meyer, family Araliacease), which is used in Korea, China and Japan as a herbal medicine, was fermented with Ganoderma lucidum (GL) and their antiallergic effects were investigated. Of GLs used for fermentation, KCTC 6283 potently produced ginsenoside Rh2, followed by KFRI M101. KCTC 6532, and ginsenoside Rd, followed by KFRI M101. Oral administration of these fermented ginseng extracts inhibited allergic reactions, passive cutaneous anaphylaxis reaction induced by IgE and scratching behaviors induced by compound 48/80. Of them, the ginseng extract fermented by KCTC 6532 and KFRI M101 potently inhibited allergic reactions compared to that fermented by KCTC 6283. These findings suggest that the fermentation of ginseng with GL can increase its antiallergic activity and the increment of its antiallergic effect may be due to the biotransformation of ginseng saponins to ginsenosides Rd and Rh2.

SOIL AND MULCH EFFECTS ON GINSENOSIDES IN AMERICAN GINSENG PLANTS (토양과 부초가 미국 인삼 진세노사이드에 미치는 영향)

  • Zito Santo W.;Konsler Thomas R.;Staba E.John
    • Proceedings of the Ginseng society Conference
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    • 1984.09a
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    • pp.57-62
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    • 1984
  • Four year old American ginseng plants (Panax quinquefolium L.) were grown in control and treated field plots in North Carolina, USA. Soil pH (4.4, 5.5, and 6.5), soil phosphate (19, 89 and 232 ppm) and mulch treatments (wheat straw, pine needle straw, poplar bark, oak bark, pine bark and hardwood leaves) were studied for their effects on total dry weight, total ginsenosides and 5 individual ginsenosides (A1, Rg1, Rd, Re, and Rb2). The leaf and root tissue were analyzed for ginsenosides by high pressure liquid chromatography (HPLC). The oak and poplar bark mulch treatments appeared to have the best effect upon the growth and production of roots while not significantly decreasing the ginsenoside content of the roots. The oak mulch showed a statistical increase in the ginsenoside content of the leaves.

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Identification of Saponin and Sapogenin in Root, Leaf and Stem of Ginseng by Thin Layer Chromatography (얇은막 크로마토그래피에 의한 인삼(人蔘)의 근(根) 엽(葉) 및 경(莖)의 saponin 및 sapogenin화합물(化合物) 동정(同定))

  • Choi, Kang-Ju;Kim, Seok-Chang;Kim, Man-Wook;Nam, Ki-Yeul
    • Applied Biological Chemistry
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    • v.30 no.4
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    • pp.340-344
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    • 1987
  • Saponins of ginseng root, leaf and stem were identified by TLC. Eleven unknown spots were detected in ginseng leaf and ten unknown spots in ginseng stem on TLC besides seven ginsenosides such as $ginsenoside-Rg_1,\;-Rf,\;-Re,\;-Rd,\;-Rc,\;-Rb_2,\;and\;-Rb_1$ which are contained in ginseng root. $Ginsenoside-Rg_3\;and\;-Rg_2$ were identified on TLC from mild hydrolysates with 50% acetic acid of total saponins from ginseng root, leaf and stem. Meanwhile, panaxadiol, panaxatriol and oleanolic acid were identified from hydrolysates with 7% ethanolic sulfuric acid of total saponin of ginseng root, while panaxadiol and panaxatriol from those of total saponins of ginseng leaf and stem.

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Enhancement of Low Molecular Ginsenoside Contents in Low Quality Fresh Ginseng by Fermentation Process (등외품 인삼(파삼)의 유산균 발효에 의한 저분자 진세노사이드 함량 증진)

  • Choi, Woon-Yong;Lee, Choon-Geun;Song, Chi-Ho;Seo, Yong-Chang;Kim, Ji-Seon;Kim, Bo-Hyeon;Shin, Dae-Hyun;Yoon, Chang-Soon;Lim, Hye-Won;Lee, Hyeon-Yong
    • Korean Journal of Medicinal Crop Science
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    • v.20 no.2
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    • pp.117-123
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    • 2012
  • This study compared the contents of low molecular ginsenoside according to fermentation process in low grade fresh ginseng. Low grade fresh ginseng was directly inoculated with a 24 h seed culture of $Bifidobacterium$ Longum B6., $Lactobacillus$ $casei$., and incubated at $36^{\circ}C$ for 72 h. $Bifidobacterium$ Longum B6 was specifically was found to show the best growth on $3,255{\times}10^6\;CFU/m{\ell}$ after 48 h of fermentation. The content of ginsenoside Rb1, Re and Rd were decreased with the fermentation but ginsenoside Rh2 and Rg2 increased after fermentation process. In the case of low molecular ginsenoside conversion yields were 56.07% of Rh2, 12.03% of Rg3 and 77.11% of Rg2, respectively. In addition, compound-K was irregular conversion yield as long as 72 h of fermentation. This results indicate that fermentation process could increase the low molecular ginsenoside in low grade fresh ginseng.

Changes in Chemical Composition of Korean Red Ginseng (Panax ginseng C.A. Meyer) Extract With Alcohol Extraction

  • Shin, Kwang-Soon;Oh, Sung-Hoon;Kim, Tae-Young;Yoon, Brian;Park, Sung-Sun;Suh, Hyung-Joo
    • Preventive Nutrition and Food Science
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    • v.13 no.3
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    • pp.212-218
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    • 2008
  • We extracted red ginseng with various alcohol concentrations and evaluated total carbohydrate, uronic acid, polyphenols compounds and ginsenoside contents, and yields of alcohol extract. The water extraction (0% alcohol extraction) showed a high level of total carbohydrate content. 10% and 20% alcohol extraction showed the highest uronic acid contents (7,978.8 and $7,872.7\;{\mu}g/mL$ of extract, respectively). The efficiency order of the red ginseng extract (RGE) preparations in liberating polyphenols was: $0{\sim}50%$ alcohol${\geq}\;60%$ alcohol> $70{\sim}90%$ alcohol. Solid contents in RGE were decreased with increased alcohol concentration; the same tendency as with the results of total carbohydrate content. Total ginsenoside contents in $20{\sim}50%$ alcohol extracts showed similar levels ($442,962.9{\sim}47,930.8\;{\mu}g/mL$ of extract). Water extraction showed the lowest ginsenoside content ($14,509.4\;{\mu}g/mL$ of extract). The ginsenoside contents at above 60% alcohol were decreased with increased alcohol concentration. Generally, ginsenoside (Rg2, Rg1, Rf, Re, Rd, Rb2, Rc and Rb1) contents were increased with increased alcohol concentrations. However, Rg3 content was decreased with increases in alcohol concentration.

Comparing eight types of ginsenosides in ginseng of different plant ages and regions using RRLC-Q-TOF MS/MS

  • Dai, Yu-Lin;Qiao, Meng-Dan;Yu, Peng;Zheng, Fei;Yue, Hao;Liu, Shu-Ying
    • Journal of Ginseng Research
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    • v.44 no.2
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    • pp.205-214
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    • 2020
  • Background: This article aims to compare and analyze the contents of ginsenosides in ginseng of different plant ages from different localities in China. Methods: In this study, 77 fresh ginseng samples aged 2-4 years were collected from 13 different cultivation regions in China. The content of eight ginsenosides (Rg3, Rc, Rg1, Rf, Rb2, Rb1, Re, and Rd) was determined using rapid resolution liquid chromatography coupled with quadrupole-time-of-flight tandem mass spectrometry (RRLC-Q-TOF MS/MS) to comparatively evaluate the influences of cultivation region and age. Results: Ginsenoside contents differed significantly depending on age and cultivation region. The contents of ginsenosides Re, Rc, Rg1, Rg3, and Rf increased with cultivation age, whereas that of ginsenoside Rb1 peaked in the third year of cultivation. Moreover, the highest ginsenoside content was obtained from Changbai (19.36 mg/g) whereas the lowest content was obtained from Jidong (12.05 mg/g). Ginseng from Jilin Province contained greater total ginsenosides and was richer in ginsenoside Re than ginseng of the same age group in Heilongjiang and Liaoning provinces, where Rb1 and Rg1 contents were relatively high. Conclusion: In this study, RRLC-Q-TOF MS/MS was used to analyze ginsenoside contents in 77 ginseng samples aged 2-4 years from different cultivation regions. These patterns of variation in ginsenoside content, which depend on harvesting location and age, could be useful for interested parties to choose ginseng products according to their needs.

Changes in Effective Components of Ginseng by Puffing (팽화에 의한 인삼 유효성분의 변화)

  • Kim, Ji-Hye;Ahn, Soon-Cheol;Choi, Sung-Won;Hur, Nam-Youn;Kim, Byung-Yong;Baik, Moo-Yeol
    • Applied Biological Chemistry
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    • v.51 no.3
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    • pp.188-193
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    • 2008
  • This study was conducted to investigate the effect of moisture content and pressure on extraction yield, crude saponins and ginsenoside contents of puffed Korean ginseng. Puffed ginsengs showed relatively higher extraction yield ($50.0{\sim}62.1%$) and amounts of crude saponins ($19.6{\sim}48.8$ mg/g ginseng) than no-puffed ginseng ($37.6{\pm}0.8%$ and $11.0{\pm}1.0$ mg/g ginseng), respectively. The highest extraction yield and amounts of crude saponins were obtained in 8.0% moisture content sample puffed at 10 $kg_f/cm^2$. In HPLC analysis, amounts of measured major ginsenosides (Rb1, Rb2, Rc, Rd, Re, and Rg1) decreased with increasing puffing pressure, yet contents of almost all major gin senosides were higher than control (no-puffed). On the other hand, ginsenoside Rg3 were produced after puffing suggesting that chemical structure of some ginsenosides might be altered during the puffing process. These results indicate that puffing can increase the extraction yield and crude saponin contents and it could influence the ginsenoside composition.

Relationship between Ginsenosides and Mineral Contents in Panax Ginseng Grown with Nutrient Solution (양액재배인삼(養液栽培人蔘)에서 무기성분(無機成分)과 Ginsenosides 함량(含量)과의 관계(關係))

  • Park, Hoon;Lee, Mee-Kyoung
    • Applied Biological Chemistry
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    • v.30 no.2
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    • pp.186-191
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    • 1987
  • Relationship between the contents of ginsenosides in root and minerals (N,P,K,Ca,Mg) in leaf and root of and year Panax ginseng grown with solutions of various N,P,K levels was investigated by simple, multiple and partial regressions. In root K, N, and P in decreasing order showed significant negative correlation with each ginsenosides. In leaf K,N, and P in decreasing order showed significant positive, negative and both correlation with root ginsenosides, respectively. Relationship between K and root ginsenosides in the minus K plot did not follow that in other plots. The ratios of K,N, and P, in leaf to root in decreasing order showed positive correlations that were greater than in leaf or root. Mg was negatively while Ca was positively correlated in root but these were reverse in leaf and always nonisgnificant in both parts. Ginsenoside Rd, Re and $Rb_1$ were most affected by mineral contents. The effect of minerals on PT/PD was least.

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Changes of saponin Contents in Panax ginseng Leaves by Different Harvesting Months (인삼엽의 채엽시기에 따른 사포닌 성분의 함량 및 조성)

  • 장현기
    • The Korean Journal of Food And Nutrition
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    • v.11 no.1
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    • pp.82-87
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    • 1998
  • To study of production of Panax ginseng leaf tea, after harvested the leaves in July, August, and September as ripening season, the content and composition of ginseng saponin were investigated. 1. Crude saponin contents in the leaves were a about 16.5%, and they were found to be lower in the leaf harvested in September than those harvested in July or August. 2. As similar patterns were observed with month to month in ginsenoside, sum of major ginsenosides of -Re, -Rd and -Rg1 was fixed about 70% of saponin at harvested in each month. And minor components were ginsenoside -Rb1, -Rb2 and -Rc as in order. 3. The ratio of protopanaxadiol(PD)/protopanaxatriol(PT) was revealed reduction of 1.13 of harvested in July to 0.85 of those in September gradually. The contents of protopanaxadiol were high in the leaves of August and protopanaxatriol was high in those September.

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