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Characterization of Korean Red Ginseng (Panax ginseng Meyer): History, preparation method, and chemical composition

  • Lee, Sang Myung;Bae, Bong-Seok;Park, Hee-Weon;Ahn, Nam-Geun;Cho, Byung-Gu;Cho, Yong-Lae;Kwak, Yi-Seong
    • Journal of Ginseng Research
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    • v.39 no.4
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    • pp.384-391
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    • 2015
  • It has been reported that Korean Red Ginseng has been manufactured for 1,123 y as described in the GoRyeoDoGyeong record. The Korean Red Ginseng manufactured by the traditional preparation method has its own chemical component characteristics. The ginsenoside content of the red ginseng is shown as Rg1: 3.3 mg/g, Re: 2.0 mg/g, Rb1: 5.8 mg/g, Rc:1.7 mg/g, Rb2: 2.3 mg/g, and Rd: 0.4 mg/g, respectively. It is known that Korean ginseng generally consists of the main root and the lateral or fine roots at a ratio of about 75:25. Therefore, the red ginseng extract is prepared by using this same ratio of the main root and lateral or fine roots and processed by the historical traditional medicine prescription. The red ginseng extract is prepared through a water extraction ($90^{\circ}C$ for 14-16 h) and concentration process (until its final concentration is 70-73 Brix at $50-60^{\circ}C$). The ginsenoside contents of the red ginseng extract are shown as Rg1: 1.3 mg/g, Re: 1.3 mg/g, Rb1: 6.4 mg/g, Rc:2.5 mg/g, Rb2: 2.3 mg/g, and Rd: 0.9 mg/g, respectively. Arginine-fructose-glucose (AFG) is a specific amino-sugar that can be produced by chemical reaction of the process when the fresh ginseng is converted to red ginseng. The content of AFG is 1.0-1.5% in red ginseng. Acidic polysaccharide, which has been known as an immune activator, is at levels of 4.5-7.5% in red ginseng. Therefore, we recommended that the chemical profiles of Korean Red Ginseng made through the defined traditional method should be well preserved and it has had its own chemical characteristics since its traditional development.

Investigation of ginsenosides in different tissues after elicitor treatment in Panax ginseng

  • Oh, Ji Yeon;Kim, Yu-Jin;Jang, Moon-Gi;Joo, Sung Chul;Kwon, Woo-Saeng;Kim, Se-Yeong;Jung, Seok-Kyu;Yang, Deok-Chun
    • Journal of Ginseng Research
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    • v.38 no.4
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    • pp.270-277
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    • 2014
  • Background: The effect of methyl jasmonate (MJ) on ginsenoside production in different organs of ginseng (Panax ginseng Meyer) was evaluated after the whole plant was dipped in an MJ-containing solution. MJ can induce the production of antioxidant defense genes and secondary metabolites in plants. In ginseng, MJ treatment in adventitious root resulted in the increase of dammarenediol synthase expression but a decrease of cycloartenol synthase expression, thereby enhancing ginsenoside biosynthesis. Although a previous study focused on the application of MJ to affect ginsenoside production in adventitious roots, we conducted our research on entire plants by evaluating the effect of exogenous MJ on ginsenoside production with the aim of obtaining new approaches to study ginsenoside biosynthesis response to MJ in vivo. Methods: Different parts of MJ-treated ginseng plants were analyzed for ginsenoside contents (fine root, root body, epidermis, rhizome, stem, and leaf) by high-performance liquid chromatography. Results: The total ginsenoside content of the ginseng root significantly increased after 2 d of MJ treatment compared with the control not subjected to MJ. Our results revealed that MJ treatment enhances ginsenoside production not in the epidermis but in the stele of the ginseng root, implying transportation of ginsenosides from the root vasculature to the epidermis. Application of MJ enhanced protopanaxadiol (PPD)-type ginsenosides, whereas chilling treatment induced protopanaxatriol (PPT)-type ginsenosides. Conclusion: These findings indicate that the production of PPD-type and PPT-type ginsenosides is differently affected by abiotic and biotic stresses in the ginseng plant, and they might play different defense mechanism roles.

Current Status of Korean Ginseng Products and Trends in Enhanced Functional Ginseng Products

  • Byungdae Lee;Tae-Eun Kwon;Hoon-Il Oh;Ho-jung Yoon
    • Journal of Ginseng Culture
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    • v.6
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    • pp.13-34
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    • 2024
  • The abolishment of the red ginseng monopoly act by the Korean government in 1996 resulted in a drastic change in the Korean ginseng industry, leading to a significant increase in the market size and consumption of ginseng products. Red ginseng is most popular type, with approximately 74% of harvested fresh ginseng being processed into various red ginseng products. Since 1997, there has been a substantial increase in the cultivation of ginseng for production of red ginseng, which, in turn, has contributed to the proliferation of ginseng processing companies. To investigate the products of ginseng manufacturing businesses, we select 200 companies primarily engaged in ginseng processing or specializing solely in ginseng. Our survey on the status of ginseng industry covered 8 different categories. 1) Root ginseng: There were 66 companies involved in manufacturing red ginseng root, accounting for 33.0% of all surveyed companies. This was followed by black ginseng root with 36 companies (18.0%) and red ginseng fine roots with 22 companies (11%). 2) Red ginseng products: A total of 144 companies were involved in manufacturing red ginseng pouches, making it the most common product category. This was closely followed by 142 companies producing pure(100%) red ginseng extract concentrate. 3) Fermented red ginseng products: Companies producing fermented red ginseng extract concentrate products were the most numerous, totaling 26. Following this, companies producing fermented red ginseng stick and pouch products were next in line. 4) Ginseng products: There were 15 companies involved in the production of ginseng products, with the majority focusing on ginseng tea. 5) Black ginseng products: Companies producing black ginseng extract concentrate were the most numerous, with 31 companies, followed by 26 companies producing black ginseng extract pouches. 6) Taegeuk ginseng products: Only 5 companies were involved in the production of taegeuk ginseng products. 7) Fermented black ginseng, and 8) Ginseng berry products: These categories are manufactured by less than 5 companies each. However, the variety in ginseng berry products suggests the potential for future growth. In the 2000s, a trend emerged with the development of new processed products aimed at enhancing the functional components of red ginseng, and these products have captured the attention of consumers. However, this study primarily focuses on black ginseng, fermented red ginseng/fermented black ginseng, and ginseng berry products as they have exerted a significant influence on the overall ginseng industry.

Difference of Ginsenoside Yields in Red Ginseng Parts According to Extraction Time at Low Temperature (저온에서 추출시간에 따른 홍삼 부위별 ginsenoside 함량 비교)

  • Han, Jin-Soo;Kang, Sun-Joo;Nam, Ki-Yeul;Choi, Jae-Eul
    • KOREAN JOURNAL OF CROP SCIENCE
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    • v.55 no.4
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    • pp.299-305
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    • 2010
  • In this study, the contents of ginsenoside were compared according to the red ginseng extract times to provide basic information for developing nutraceutical foods using red ginseng. The highest total ginsenoside contents of the main, lateral, and fine root extracts were 23.04, 65.68, and 295.92 mg/100 mL when extracted at $75^{\circ}C$ for 21, 18, and 12 hours, respectively. The total ginsenoside content showed a tendency to decrease as the extraction times were increased. The highest Rb1 and Rg1 contents of the main, lateral, and fine root extracts were 5.76, 28.39, and 117.83 mg/100 mL when extracted at $75^{\circ}C$ for 18, 15, and, 12 hours, respectively, and their highest Rb2 and Re contents were 5.76, 28.39, and 117.83 when extracted under the same conditions. The prosapogenin content of the red ginseng extract increased along with the extraction time. The highest total ginsenoside extraction ratios of the main, lateral, and fine root extracts of the red ginseng at $75^{\circ}C$ were 21.3, 21.1, and 67.1%, respectively.

Identification of a V.A.Mycorrhiza in the Cultured Panax ginseng (재배 인삼에서 V. A. Mycorrhiza의 동정)

  • Park, Hoon;Lee, Myong-Gu;Lee, Chong-Hwa;Lee, Kyung-Joon
    • Korean Journal of Soil Science and Fertilizer
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    • v.23 no.1
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    • pp.73-76
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    • 1990
  • A search for presence of Versicular-Arbuscular endomycorrhiza was attempted using 6-year-old Panax ginseng roots. Hyphae without septum, and vesicles were observed in the cortex of fine roots of Panax ginseng. Brown chlamydospores with thick wall were found in the soil of root zone and it is classified as Glomus sp.

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Occurrence, Type and Ultrastructure of Calcium Oxalate Crystals in Panax ginseng (인삼(Panax ginseng)에 존재하는 Calcium Oxalate 결정체의 분포, 유형 및 미세구조)

  • Lee, Sang-Wook;Kwon, Woo-Saeng;Jeong, Byung-Kap
    • Journal of Ginseng Research
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    • v.26 no.4
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    • pp.213-218
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    • 2002
  • Crystalline calcium oxalate occur throughout near)y all plants species in five major forms; styloids, druses, raphids, prisms and sands. These crystals are known to be distributed in specific tissue such as cortex, xylem, phloem, cambium and epidermis. This research was undertaken to identify the occurrence, type, location and ultrastructure of druse crystals in Panax ginseng. In situ visualization, conventional light microscopy, histochemistry and scanning electron microscopy were applied for these purposes. Druse crystals in ginseng were identified as calcium oxalate by silver nitraterubeanic acid histochemistry. Calcium oxalate crystals are observed in nearly all plant organs such as leaf, petiole, peduncle, stem, rhizome, tap root and lateral root except fine root. Most frequent observation of crystals in the leaf and rhizomes were noticed. Three different types of calcium of oxalate druse crystals were identified by scanning electron microscopy.

Distribution Characteristics of Hazardous Heavy Metals in Ginseng and Wood-cultivated Ginseng (인삼 및 산양삼의 부위별 유해중금속 분포 특성)

  • Yang, Seung-Hyun;Lee, Tae-Woo;Lee, Jae-In;Choi, Hoon
    • Journal of Food Hygiene and Safety
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    • v.34 no.4
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    • pp.325-333
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    • 2019
  • The present study was carried out to identify the distribution characteristics of heavy metals in ginseng and wood-cultivated ginseng reduction of dietary exposure. Samples of ginseng and wood-cultivated ginseng were collected from 14 and 5 regions across Korea, respectively. Lead (Pb), cadmium (Cd) and arsenic (Ar) were detected by ICP-MS after microwave digestion, whereas aluminum (Al) was determined using ICP. Cultivated ginseng peels were 16.2% of whole root, while the peels and fine roots amounted to 21.8% and 16.8% of whole wood-cultivated ginseng, respectively. Taking into account the weight and concentration of the heavy metals by root part, their distribution ratios were calculated and compared. The cultivated ginseng peels contained 40.3% Pb, 25.9% Cd, 47.6% As, and 89.9% Al. Meanwhile, heavy metals consisting of 27.2% Pb, 28.2% Cd, 48.3% As, and 56.8% Al were distributed in the peels of the wood-cultivated ginseng. There was no significant difference between the peels and fine roots of the wood-cultivated ginseng with respect to the distribution proportion of heavy metals, except for Al. These results indicate that the level of dietary exposure to heavy metals could be reduced by peeling ginseng and wood-cultivated ginseng prior to consumption.

Comparison of Growth Characteristics and Ginsenosides Content of 6-Year-Old Ginseng (Panax ginseng C. A. Meyer) by Drainage Class in Paddy Field (논토양에서 배수등급별 6년근 인삼의 생육특성 및 진세노사이드 함량 비교)

  • Lee, Sung-Woo;Park, Jin-Myeon;Kim, Geum-Soog;Park, Kee-Choon;Jang, In-Bok;Lee, Seung-Ho;Kang, Seung-Won;Cha, Seon-Woo
    • Korean Journal of Medicinal Crop Science
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    • v.20 no.3
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    • pp.177-183
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    • 2012
  • To develop the practical cultivation for paddy field, we investigated the properties of paddy soil, growth characteristics and ginsenoside content of 6-year-old ginseng, Cheonpung variety between poor drainage class (PDC) and imperfect drainage class (IDC). Groundwater level in PDC showed monthly small changes of 20~30 cm, while IDC showed monthly great changes of 28~71 cm depending on rainfall. Soil moisture content in PDC and IDC was 17.2%, 22.5%, respectively. Air temperature in IDC was lower than $0.3^{\circ}C$, while soil temperature was higher than $0.8^{\circ}C$ compare to PDC, respectively. Main soil color of PDC was grayish olive, while IDC was brownish olive. PDC showed yellowish mottles only at underground of 20~40 cm, while IDC showed that at underground of 30~90 cm. IDC showed lower pH, EC, potassium, calcium and magnesium content, but higher organic matter, phosphate, and iron content than that of PDC, respectively. All of EC, organic matter, potassium, calcium, and magnesium content were decreased, but iron content was increased at the subsoil layers of PDC. All of EC, organic matter, phosphorus, and potassium content were decreased, but calcium and magnesium content were increased at the subsoil layers of IDC. Root yield in IDC was more increased by 33% than that of PDC. The moisture content and rusty ratio of ginseng root in IDC were lower than that of PDC. Ginsenoside content in IDC was higher than that of PDC because the ratio of lateral and fine root showing relatively high content of ginsenoside was higher in IDC than that of PDC.

Marketing of cleaned fresh ginseng and pre-packaging fumigation of 2-phenylethyl alcohol on ginseng storability (세척인삼 유통 현황과 포장전 2-phenylethyl Alcohol 훈증이 저장성에 미치는 영향)

  • Kim, Sun-Ik;Sung, Bong-Jae;Kim, Hyeon-Ho;Hwang, Yong-Soo
    • Korean Journal of Agricultural Science
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    • v.38 no.2
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    • pp.205-212
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    • 2011
  • The potential factors for quality loss of cleaned fresh ginseng and technology to be associated with the improvement of marketability through pre-packaging fumigation were examined. Major microorganisms isolated from fresh ginseng included Botrytis cinerea, and Erwinia sp. Others such as Cylindrocarpon sp., Fusarium spp., Pennicilium spp., Bacillus spp. were also found at relatively low frequency. The bacterial density of vacuum packaged fresh ginseng rapidly increased during simulated marketing. Little correlation between bacterial growth and package swelling was found. In order to improve packaging method of fresh ginseng, pre-packaging treatment of 2-phenylethyl alcohol (PE, 100 uL/L, 4 hr) was examined. The fumigation treatment effectively inhibited the growth of bacteria density and also effective on keeping firmness of ginseng root, especially in cortical portion. The internal gas compositions of plastic container packaged for ginseng were approximately ranged between 6 to 8% $O_2$and 3 to 4% $CO_2$. The $O_2$ level of fumigation treatment was lower than control whereas $CO_2$ level was higher. The upsurge of ethylene evolution I day after simulated marketing was found only in fumigation treatment but it returned to ordinary level at day 2. The sucrose content of 2-PE treatment was significantly reduced at 5 days after simulated marketing but reducing sugars like glucose and fructose remained at higher level. The difference in sugar levels was reduced after 10 days of simulated marketing. The decay of fresh ginseng began at the lateral or fine root, which is weak to physical damage, in general. The epidermis was more damaged. Plastic container packaging with PE fumigation could be an alternative to vacuum packaging, which allows an aerobic environment and prevents anaerobic respiration. Further study of pre-package fumigation is required to improve technology of fresh ginseng marketing.