1.Various Effect of Korean Ginseng.
Korean Journal of Family Medicine 2010;31(12):895-896
No abstract available.
Panax
2.Isolation of cytotoxicity-potentiating substances from red ginseng.
Byung Zun AHN ; You Hui LEE ; Shin Il KIM
Journal of the Korean Cancer Association 1992;24(6):795-806
No abstract available.
Panax*
3.An effect of ginseng extracts on retinoid teratogenicity.
Kyu Chul LEE ; Sun Hwa PARK ; Yong Hyuck CHUN
Korean Journal of Anatomy 1993;26(4):428-434
No abstract available.
Panax*
4.Historical evolution of Panax notoginseng (Sanqi) processing methods.
Meng-Hua WU ; Ying ZHANG ; Zhi-Guo MA ; Hui CAO ; Guan-Ping LIU
China Journal of Chinese Materia Medica 2018;43(24):4923-4928
In the folk medicine, it was believed that the raw Sanqi could remove blood stasis, swelling and pain, while the cooked Sanqi could replenish blood. This article began with the first record of Sanqi in ancient herbal medicine literature, and the nature, flavor and efficacy of Sanqi, then listed the processing methods and usage of Sanqi recorded in ancient herbal medicine literature, and compared with the modern processing methods. The results showed that the processing methods of raw Sanqi included making powder, chewing, vinegar grinding and wine grinding, in which the method of making powder was still in use, and there were particle size requirements on the Sanqi powder listed in most modern preparation specifications. The processing methods of cooked Sanqi included baking, frying and steaming, in which the method of steaming was still in use, but had some changes. The new processing method was frying with edible oil. The results clarify the history of the processing of Sanqi, and provide a reference for the research and application of the processing methods of raw and cooked Sanqi.
Drugs, Chinese Herbal
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Panax notoginseng
5.Stability analysis of allelopathic effects of Panax notoginseng on main crops by AMMI model.
Zi-long ZHANG ; Jun-ling HOU ; Wen-quan WANG
China Journal of Chinese Materia Medica 2015;40(2):191-197
This paper is aimed to study the differences of allelopathic effects of Panax notoginseng under different allelopathic chemicals resources and selection of appropriate rotation crops. The additive main effects and multiplicative interaction ( AMMI) model had been used to evaluate the stability of allelopathic effects of P. notoginseng on the varieties of corn, wheat and rice properly. The model could use not only to evaluate the stability of non-regional trial data but also explore the interaction between the rotation crop genotypes and donor substances more efficiently. Meanwhile, correspondence analysis can be used in the AMMI to evaluate genotype stability and donor substances. Ejingza No. 1 (g6) had stronger allelopathic effects with high stability, but Yunrui No. 1 (g9) which was appropriate rotation crop genotype, had weaker allelopathic effects with high stability. These findings will aid in choosing appropriate rotation crops and establishing proper rotation system.
Allelopathy
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Crops, Agricultural
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Panax notoginseng
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chemistry
6.Origin traceability of main root of spring Panax notoginseng based on stable isotope fingerprint.
She-Wang LIANG ; Zhong-Jun HE ; Jun-Fen XIONG ; Chang-Qing HONG
China Journal of Chinese Materia Medica 2021;46(3):560-566
This paper established the identification technology of the main root origin of three-year-old spring Panax notoginseng aiming at providing theoretical basis for the protection and traceability of geographical indication products of P. notoginseng. Forty-four samples of three-year-old spring P. notoginseng from Guangxi Baise, Yunnan Wenshan, Yunnan new cultivating regions. The stable isotopic ratios of carbon, nitrogen, hydrogen and oxygen were determined by elemental analysis and stable isotope mass spectrometer. Combined with Duncan multiple comparative analysis, fisher discriminant analysis and sequential discriminant analysis, a origin discriminant model for the main root of three-year-old spring P. notoginseng was established for 3 production areas of P. notoginseng. The geographical climate and environment of three production areas of P. notoginseng are obviously different. From Guangxi Baise-Yunnan Wenshan-Yunnan new cultivating regions, the longitude, average annual temperature and annual precipitation gradually decrease, and the elevation and latitude are increasing. The results of multiple comparative analysis showed that there were significant or very signi-ficant differences in the δ~(13)C,δ~(15)N,δ~2H,δ~(18)O of the main roots of P. notoginseng in three regions. The results of fisher's discriminant analysis and sequential discriminant analysis showed that the correct discriminant rates of the main roots of P. notoginseng for three regions were 80.05%,76.47% and 90.91%, respectively, based on four stable isotope ratios, with an average of 84.09%. Using stable isotope fingerprint and chemometrics method, we can distinguish the origin of the main raw materials and products of P. notoginseng.
China
;
Geography
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Isotopes
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Panax notoginseng
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Seasons
8.Anti-inflammatory and Immunosuppressive Effects of Panax notoginseng
Thao Quyen CAO ; Jae Hyuk HAN ; Hyun Su LEE ; Manh Tuan HA ; Mi Hee WOO ; Byung Sun MIN
Natural Product Sciences 2019;25(4):317-325
Here, we designed to examine the anti-inflammatory effects on RAW264.7 cells and the immunosuppressive effects by evaluating interleukin-2 (IL-2) production in Jurkat T cells using a MeOH extract of Panax notoginseng roots. The results showed that the MeOH extract inhibited the synthesis of nitric oxide (NO) in a dose-dependent manner (IC₅₀ value of 7.08 µg/mL) and displayed effects on T cell activation at a concentration of 400 µg/mL. In efforts to identify the potent compounds, bioactivity-guided fractionation of the MeOH extract and chemical investigation of its active CH₂Cl₂-, EtOAc-, and butanol-soluble fractions led to the successful isolation and identification of eleven compounds, including two polyacetylenes (1, 2), a steroid saponin (3), seven dammarane-type ginsenosides (4 – 10), and an oleanane-type ginsenoside (11). Among them, compound 11 was isolated from this plant for the first time. Compound 2 exhibited potent inhibitory effects on NO synthesis and an immunosuppressive effect with IC₅₀ values of 2.28 and 65.57 µM, respectively.
Ginsenosides
;
Interleukin-2
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Nitric Oxide
;
Panax notoginseng
;
Panax
;
Plants
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Polyacetylenes
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Saponins
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T-Lymphocytes
9.Effects of propiconazole on physiological and biochemical properties of Panax notoginseng and dietary risk assessment.
Zi-Xiu ZHENG ; Li-Sha QIU ; Kai ZHENG ; Lan-Ping GUO ; Xiu-Ming CUI ; Hong-Juan NIAN ; Ying-Cai LI ; Shao-Jun HUANG ; Ye YANG
China Journal of Chinese Materia Medica 2023;48(5):1203-1211
To study the residue and dietary risk of propiconazole in Panax notoginseng and the effects on physiological and bioche-mical properties of P. notoginseng, we conducted foliar spraying of propiconazole on P. notoginseng in pot experiments. The physiolo-gical and biochemical properties studied included leaf damage, osmoregulatory substance content, antioxidant enzyme system, non-enzymatic system, and saponin content in the main root. The results showed that at the same application concentration, the residual amount of propiconazole in each part of P. notoginseng increased with the increase in the times of application and decreased with the extension of harvest interval. After one-time application of propiconazole according to the recommended dose(132 g·hm~(-2)) for P. ginseng, the half-life was 11.37-13.67 days. After 1-2 times of application in P. notoginseng, propiconazole had a low risk of dietary intake and safety threat to the population. The propiconazole treatment at the recommended concentration and above significantly increased the malondialdehyde(MDA) content, relative conductivity, and osmoregulatory substances and caused the accumulation of reactive oxygen species in P. notoginseng leaves. The propiconazole treatment at half(66 g·hm~(-2)) of the recommended dose for P. ginseng significantly increased the activities of superoxide dismutase(SOD), peroxidase(POD), and catalase(CAT) in P. notoginseng leaves. The propiconazole treatment at 132 g·hm~(-2) above inhibited the activities of glutathione reductase(GR) and glutathione S-transferase(GST), thereby reducing glutathione(GSH) content. Proconazole treatment changed the proportion of 5 main saponins in the main root of P. notoginseng. The treatment with 66 g·hm~(-2) propiconazole promoted the accumulation of saponins, while that with 132 g·hm~(-2) and above propiconazole significantly inhibited the accumulation of saponins. In summary, using propiconazole at 132 g·hm~(-2) to prevent and treat P. notoginseng diseases will cause stress on P. notoginseng, while propiconazole treatment at 66 g·hm~(-2) will not cause stress on P. notoginseng but promote the accumulation of saponins. The effect of propiconazole on P. notoginseng diseases remains to be studied.
Panax notoginseng/chemistry*
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Panax
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Antioxidants/pharmacology*
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Saponins/pharmacology*
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Glutathione
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Risk Assessment
10.Construction of cell factories for high production of ginsenoside Rh_2 in Saccharomyces cerevisiae.
Yu-Song SHI ; Dong WANG ; Rong-Sheng LI ; Xue-Li ZHANG ; Zhu-Bo DAI
China Journal of Chinese Materia Medica 2022;47(3):651-658
Ginsenoside Rh_2 is a rare active ingredient in precious Chinese medicinal materials such as Ginseng Radix et Rhizoma, Notoginseng Radix et Rhizoma, and Panacis Quinquefolii Radix. It has important pharmacological activities such as anti-cancer and improving human immunity. However, due to the extremely low content of ginsenoside Rh_2 in the source plants, the traditional way of obtaining it has limitations. This study intended to apply synthetic biological technology to develop a cell factory of Saccharomyces cerevisiae to produce Rh_2 by low-cost fermentation. First, we used the high protopanaxadiol(PPD)-yielding strain LPTA as the chassis strain, and inserted the Panax notoginseng enzyme gene Pn1-31, together with yeast UDP-glucose supply module genes[phosphoglucose mutase 1(PGM1), α-phosphoglucose mutase(PGM2), and uridine diphosphate glucose pyrophosphorylase(UGP1)], into the EGH1 locus of yeast chromosome. The engineered strain LPTA-RH2 produced 17.10 mg·g~(-1) ginsenoside Rh_2. This strain had low yield of Rh_2 while accumulated much precursor PPD, which severely restricted the application of this strain. In order to further improve the production of ginsenoside Rh_2, we strengthened the UDP glucose supply module and ginsenoside Rh_2 synthesis module by engineered strain LPTA-RH2-T. The shaking flask yield of ginsenoside Rh_2 was increased to 36.26 mg·g~(-1), which accounted for 3.63% of the dry weight of yeast cells. Compared with those of the original strain LPTA-RH2, the final production and the conversion efficiency of Rh_2 increased by 112.11% and 65.14%, respectively. This study provides an important basis for further obtaining the industrial-grade cell factory for the production of ginsenoside Rh_2.
Fermentation
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Ginsenosides
;
Humans
;
Panax/genetics*
;
Panax notoginseng
;
Saccharomyces cerevisiae/genetics*
;
Uridine Diphosphate Glucose