• 제목/요약/키워드: ginseng yield

검색결과 418건 처리시간 0.022초

질소(窒素), 인산(燐酸), 가리(加里)의 시비비율(施肥比率)이 황색종연초(黃色種煙草)의 시비반응(施肥反應)에 미치는 영향(影響) (Effects of Various Rates of Nitrogen, Phosphorus, and Potassium on Fertilization Response of Flue-Cured Tobacco)

  • 정훈채;조성진;이윤환;육창수
    • 한국토양비료학회지
    • /
    • 제19권1호
    • /
    • pp.56-62
    • /
    • 1986
  • 황색종연초(黃色種煙草) 재배(栽培)에 있어서 잎담배의 생산성(生産性) 및 품질(品質)에 미치는 3요소(要素)의 시비반응(施肥反應)을 검토(檢討)한 결과(結果)를 요약(要約)하면 다음과 같다. 1. 황색종연초(黃色種煙草)의 생육(生育) 및 잎담배 수량(收量)은 비옥지(肥沃地) 척박지(瘠薄地) 모두 질소증비(窒素增肥)의 효과(效果)는 현저(顯著)하였으나, 인산(燐酸) 및 가리(加里)의 증비(增肥)에 의한 생산성(生産性)은 뚜렷하지 않았다. 잎담배 품질(品質)은 질소(窒素)의 증비(增肥)와 부(負)의 관계(關係)를 나타냈으며 인산(燐酸) 및 가리(加里)는 시비량(施肥量)에 따른 변이(變異)가 작았다. 2. 잎담배 수량(收量), 품질(品質) 및 내용성분(內容成分) 조성(組成)으로 본 3요소(要素)의 적정(適正) 시비비율(施肥比率)은 N:P:K=2:1:4 이었다. 3. 잎담배의 수량(收量) 및 품질(品質)에 미치는 3요소(要素)의 단독효과(單獨效果)(완전구(完全區)-무비구(無肥區))는 질소질비료(窒素質肥料)가 거의 절대적(絶對的)으로 작용(作用)하며, N, P, K 상호간(相互間)의 공력효과(共力效果) (결제구(缺除區)-무비구(無肥區))에 있어서도 인산(燐酸) 및 가리(加里)는 크게 기여(奇與)하지 못하였다.

  • PDF

해가림 방향이 인삼의 생육 및 수량에 미치는 영향 (Effect of Furrow Directions on Growth and Yield in Panax ginseng C.A. Meyer)

  • 이성우;차선우;현동윤;김영창;강승원;성낙술
    • 한국약용작물학회지
    • /
    • 제14권4호
    • /
    • pp.221-224
    • /
    • 2006
  • 해가림의 이랑방향이 인삼의 생육에 미치는 영향을 구명하고자 방위각 $90^{\circ}$$270^{\circ}$ (이랑방향 $90^{\circ}$), $120^{\circ}$$300^{\circ}$ (이랑방향 $120^{\circ}$), $0^{\circ}$$180^{\circ}$ (이랑방향 $180^{\circ}$)를 가로지르는 방향으로 이랑을 만들고 2, 3년생 인삼의 생육특성 및 수량성을 표준재배법의 이랑방향 $120^{\circ}$와 비교한 결과는 다음과 같다. 1. 이랑방향 $90^{\circ}$는 대조구인 $120^{\circ}$에 비해 오전에 투광량의 감소로 해가림 내 기온은 약간 낮았으나 15시 이후에는 투광량의 증가로 대조구보다 높은 기온을 보였다. 2. 이랑방향 $180^{\circ}$는 대조구인 $120^{\circ}$에 비해 $9:00{\sim}11:00$ 사이에 투광량의 현저한 증가로 해가림 내 기온이 매우 높았으나 13시 이후에는 대조구와 투광량이 비슷하여 기온도 큰 차이가 없었다. 3. 이랑방향 $90^{\circ}$$180^{\circ}$에서 경장, 엽장 및 엽폭은 대조구인 $120^{\circ}$보다 모두 감소되었는데, $90^{\circ}$보다 $180^{\circ}$에서의 감소가 현저하였다. 4. 엽소율(葉燒率)은 이랑방향 $90^{\circ}$에서 가장 작고 직사광선의 유입이 많았던 $180^{\circ}$에서 가장 컸으며 해에 따라 엽소율(葉燒率)은 큰 변이를 보였다. 5. 2004년과 같이 한발이 심한 해에는 이랑방향 $180^{\circ}$의 수량성이 대조구인 $120^{\circ}$보다 낮았으나 상대적으로 한발이 적은 2005년도에는 $180^{\circ}$가 대조구보다 높은 수량을 보였다.

Preparation of minor ginsenosides C-Mc, C-Y, F2, and C-K from American ginseng PPD-ginsenoside using special ginsenosidase type-I from Aspergillus niger g.848

  • Liu, Chun-Ying;Zhou, Rui-Xin;Sun, Chang-Kai;Jin, Ying-Hua;Yu, Hong-Shan;Zhang, Tian-Yang;Xu, Long-Quan;Jin, Feng-Xie
    • Journal of Ginseng Research
    • /
    • 제39권3호
    • /
    • pp.221-229
    • /
    • 2015
  • Background: Minor ginsenosides, those having low content in ginseng, have higher pharmacological activities. To obtain minor ginsenosides, the biotransformation of American ginseng protopanaxadiol (PPD)-ginsenoside was studied using special ginsenosidase type-I from Aspergillus niger g.848. Methods: DEAE (diethylaminoethyl)-cellulose and polyacrylamide gel electrophoresis were used in enzyme purification, thin-layer chromatography and high performance liquid chromatography (HPLC) were used in enzyme hydrolysis and kinetics; crude enzyme was used in minor ginsenoside preparation from PPD-ginsenoside; the products were separated with silica-gel-column, and recognized by HPLC and NMR (Nuclear Magnetic Resonance). Results: The enzyme molecular weight was 75 kDa; the enzyme firstly hydrolyzed the C-20 position 20-O-${\beta}$-D-Glc of ginsenoside Rb1, then the C-3 position 3-O-${\beta}$-D-Glc with the pathway $Rb1{\rightarrow}Rd{\rightarrow}F2{\rightarrow}C-K$. However, the enzyme firstly hydrolyzed C-3 position 3-O-${\beta}$-D-Glc of ginsenoside Rb2 and Rc, finally hydrolyzed 20-O-L-Ara with the pathway $Rb2{\rightarrow}C-O{\rightarrow}C-Y{\rightarrow}C-K$, and $Rc{\rightarrow}C-Mc1{\rightarrow}C-Mc{\rightarrow}C-K$. According to enzyme kinetics, $K_m$ and $V_{max}$ of Michaelis-Menten equation, the enzyme reaction velocities on ginsenosides were Rb1 > Rb2 > Rc > Rd. However, the pure enzyme yield was only 3.1%, so crude enzyme was used for minor ginsenoside preparation. When the crude enzyme was reacted in 3% American ginseng PPD-ginsenoside (containing Rb1, Rb2, Rc, and Rd) at $45^{\circ}C$ and pH 5.0 for 18 h, the main products were minor ginsenosides C-Mc, C-Y, F2, and C-K; average molar yields were 43.7% for C-Mc from Rc, 42.4% for C-Y from Rb2, and 69.5% for F2 and C-K from Rb1 and Rd. Conclusion: Four monomer minor ginsenosides were successfully produced (at low-cost) from the PPD-ginsenosides using crude enzyme.

인삼 추출물의 Angiotensin Converting Enzyme 저해 효과와 항산화 활성 (Inhibitory Effect against Angiotensin Converting Enzyme and Antioxidant Activity of Panax ginseng C. A. Meyer Extracts)

  • 이승은;성낙술;방진기;강승원;이성우;정태영
    • 한국약용작물학회지
    • /
    • 제11권3호
    • /
    • pp.236-245
    • /
    • 2003
  • 한국산 백삼으로부터 온도 및 에탄올 함유 비율을 달리하여 조제된 추출물들에 대한 angiotensin converting enzyme (ACE) 저해활성을 검정하고 항산화 활성을 비교하기 위해 본 연구를 수행하였으며 그 결과는 다음과 같다. 1. 10가지 조건에서 얻어진 추출물의 인삼분말에 대한 수율과 총 페놀함량은 $85^{\circ}C$에서 50% 에탄올로 추출했을 때 42.25% 및 0.82%로 가장 높았으며 대체적으로 가온조건이 상온조건보다 높았다. 상온 50% 에탄을 추출물로부터 조제된 분획물의 수율은 물 분획이 72.08%로 가장 높았고, 총 페놀함량은 에틸아세테이트 분획이 6.59%로 가장 높았다. 2. 10가지 추출물의 ACE 저해활성을 실험한 결과 $4000{\mu}g/ml$의 농도에서 상온 50% 에탄올 추출물이 93.8%로 가장 우수한 효과를 보였으며 이 값은 시판 ACE inhibitor의 85.2%보다도 월등하게 높은 수치였으며 분획물은 핵산(201%) > 에텔 (105%) > 에틸아세테이트 (67%) > 부탄올 (46%) < 물 분획 (19%)의 순으로 효과가 높았다. 3. 사람 LDL에 대한 산화저해효과 실험에서는 $85^{\circ}C$에서 얻어진 50% 에탄올 추출물이 $200{\mu}g/ml$의 농도에서 78.2%로 가장 효과적으로 항산화력을 보였으며 모든 추출물들이 60%이상의 높은 산화저해효과를 나타내었다. 분획물에 대한 LDL산화저해효과 검정 실험에서는 에텔 분획물 및 에틸아세테이트 분획물이 $10{\sim}200\;{\mu}g/ml$의 농도에서 $34.38%{\sim}78.13%$로 높은 활성을 보였다. 4. 각 에탄올 추출물의 linoleic acid 과산화저해 및 DPPH라디칼 소거효과는 그다지 높지 않았으며 비교 실험된 시판 천연 항산화제인 ${\alpha}-tocopherol$보다 매우 낮았다. 5 상관분석의 결과 총 페놀함량과 ACE 저해활성은 P<0.05의 수준에서 0.6353의 유의적인 상관성을 나타내었다. 이상의 실험결과로부터 인삼이 ACE 저해 및 LDL산화 저해작용을 효과적으로 나타내고 총 페놀함량이 많이 추출될 수 있으며 수율을 높일 수 있는 가장 적합한 조건은 상온 혹은 가온의 50% 에탄올 추출조건이었으며 인삼은 이러한 활성에 의해 항고혈압 및 동맥경화예방의 효과를 발휘 할 수 있을 것으로 기대되었다.

오리엔트종 연초의 생육 및 화학특성에 미치는 이식시기의 영향 (Growth and Chemical Properties of Oriental Tobacco as affected by Transplanting Time)

  • 류명현;정형진;이운철
    • 한국연초학회지
    • /
    • 제10권2호
    • /
    • pp.109-116
    • /
    • 1988
  • Oriental tobacco (KA 101) was transplanted from Mar. 25 to May 5 with 10 days interval in 1984 and 1985, and its agronomic characteristics, chemical properties ware compared to determine the Proper transplanting time of aromatic tobacco In Korea. As the transplanting was delayed, days to flowering of plant was shortened, length and width of largest leaf, leaf area index tended to decrease. Yield was highest for the Apr. 5th transplanting followed by Mar. 25th planting, then decreased as the planting date was delayed. Quality by price decreased as the transplanting was delayed later than Apr. 25. Delaying transplanting increased nicotine, total nitrogen and ash content, but decreased reducing sugar and petroleum ether extract of cured leaves, The content of volatile organic acids such as 3-methyl pentanoic acid was lower when it was transplanted later than Apr. 25th. Neophytadiene content increased as the transplanting was delayed, but there were no trends with the content of alcohols, aldehydes esters and ketones. Several quality indices including the ratio between the content of volatile organic acids plus petroleum ether extract and ash content plus pH was higher for the Apr. 5th transplanting.

  • PDF

Changes of Prosapogenin Components in Tienchi Seng (Panax notoginseng) by Ultrasonic Thermal Fusion Process

  • Lee, Jae Bum;Yang, Byung Wook;Kim, Do Hyeong;Jin, Dezhong;Ko, Sung Kwon
    • Natural Product Sciences
    • /
    • 제27권1호
    • /
    • pp.10-17
    • /
    • 2021
  • The purpose of this study is to develop a new method of producing tienchi seng (notoginseng, Panax notoginseng) extracts featuring high concentrations of the ginsenoside Rg3, Rg5, and Rg6, special components of Korean red ginseng. The chemical transformation from ginseng saponin glycosides to prosapogenin was analyzed by HPLC. Tienchi seng was heat-processed at 100℃ and the optimum conditions were identified. The highest concentrations of total saponin (29.723%) and the ginsenoside Rg3 (1.769%), Rg5 (5.979%), and Rg6 (13.473%) were produced at 48 hours. Also, when tienchi seng was subjected to the ultrasonic thermal fusion (100℃) process, the concentrations of total saponin (30.578%), ginsenoside Rg3 (2.392%), Rg5 (6.614%), and Rg6 (13.017%) were highest at 36 hours. On the other hand, the 2-hour heat-processed extract and 2-hour ultrasonic thermal fusion-processed extract did not contain ginsenoside Rg3, Rg5, and Rg6. The ultrasonic thermal fusion process had an extraction yield that was approximately 1.26 times greater than that of the heat process. These results indicate that the highly functional tienchi seng extracts created through the ultrasonic thermal fusion process are more industrially useful than those produced using the heat process.

THE ECOLOGY, PHYTOGEOGRAPHY AND ETHNOBOTANY OF GINSENG

  • Hu Shiu Ying
    • 고려인삼학회:학술대회논문집
    • /
    • 고려인삼학회 1978년도 학술대회지
    • /
    • pp.149-157
    • /
    • 1978
  • Ginseng is the English common name for the species in the genus Panax. This article gives a broad botanical review including the morphological characteristics, ecological amplitude, and the ethnobotanical aspect of the genus Panax. The species of Panax are adapted for life in rich loose soil of partially shaded forest floor with the deciduous trees such as linden, oak, maple, ash, alder, birch, beech, hickory, etc. forming the canopy. Like their associated trees, all ginsengs are deciduous. They require annual climatic changes, plenty of water in summer, and a period of dormancy in winter. The plant body of ginseng consists of an underground rhizome and an aerial shoot. The rhizome has a terminal bud, prominent leafscars and a fleshy root in some species. It is perennial. The aerial shoot is herbaceous and annual. It consists of a single slender stem with a whorl of digitately compound leaves and a terminal umbel bearing fleshy red fruits after flowering. The yearly cycle of death and renascence of the aerial shoot is a natural phenomenon in ginseng. The species of Panax occur in eastern North America and eastern Asia, including the eastern portion of the Himalayan region. Such a bicentric generic distributional pattern indicates a close floristic relationship of the eastern sides of two great continental masses in the northern hemisphere. It is well documented that genera with this type of disjunct distribution are of great antiquity. Many of them have fossil remains in Tertiary deposits. In this respect, the species of Panax may be regarded as living fossils. The distribution of the species, and the center of morphological diversification are explained with maps and other illustrations. Chemical constituents confirm the conclusion derived from morphological characters that eastern Asia is the center of species concentration of Panax. In eastern North America two species occur between longitude $70^{\circ}-97^{\circ}$ Wand latitude $34^{\circ}-47^{\circ}$ N. In eastern Asia the range of the genus extends from longitude $85^{\circ}$ E in Nepal to $140^{\circ}$ E in Japan, and from latitude $22^{\circ}$ N in the hills of Tonkin of North Vietnam to $48^{\circ}$ N in eastern Siberia. The species in eastern North America all have fleshy roots, and many of the species in eastern Asia have creeping stolons with enlarged nodes or stout horizontal rhizomes as storage organs in place of fleshy roots. People living in close harmony with nature in the homeland of various species of Panax have used the stout rhizomes or the fleshy roots of different wild forms of ginseng for medicine since time immemorial. Those who live in the center morphological diversity are specific both in the application of names for the identification of species in their communication and in the use of different roots as remedies to relieve pain, to cure diseases, or to correct physiological disorders. Now, natural resources of wild plants with medicinal virtue are extremely limited. In order to meet the market demand, three species have been intensively cultivated in limited areas. These species are American ginseng (P. quinquefolius) in northeastern United States, ginseng (P. ginseng) in northeastern Asia, particularly in Korea, and Sanchi (P. wangianus) in southwestern China, especially in Yunnan. At present hybridization and selection for better quality, higher yield, and more effective chemical contents have not received due attention in ginseng culture. Proper steps in this direction should be taken immediately, so that our generation may create a richer legacy to hand down to the future. Meanwhile, all wild plants of all species in all lands should be declared as endangered taxa, and they should be protected from further uprooting so that a. fuller gene pool may be conserved for the. genus Panax.

  • PDF

Genetic variability, associations, and path analysis of chemical and morphological traits in Indian ginseng [Withania somnifera (L.) Dunal] for selection of higher yielding genotypes

  • Srivastava, Abhilasha;Gupta, Anil K.;Shanker, Karuna;Gupta, Madan M.;Mishra, Ritu;Lal, Raj K.
    • Journal of Ginseng Research
    • /
    • 제42권2호
    • /
    • pp.158-164
    • /
    • 2018
  • Background: The study was carried out to assess the genetic variability present in ashwagandha and to examine the nature of associations of various traits to the root yield of the plant. Methods: Fifty-three diverse genetic stocks of ashwagandha (Withania somnifera) were evaluated for 14 quantitative characteristics. Analysis of variance, correlation, and path coefficient analysis were performed using the mean data of 2 years. Results: Analysis of variance revealed that the genotypes differed significantly for all characteristics studied. High heritability in conjunction with high genetic advance was observed for fresh root weight, 12 deoxywithastramonolide in roots, and plant height, which indicated that selection could be effective for these traits. Dry root weight has a tight linkage with plant height and fresh root weight. Further, in path coefficient analysis, fresh root weight, total alkaloid (%) in leaves, and 12 deoxywithastramonolide (%) in roots had the highest positive direct effect on dry root weight. Conclusion: Therefore, these characteristics can be exploited to improve dry root weight in ashwagandha genotypes and there is also scope for the selection of promising and specific chemotypes (based on the alkaloid content) from the present germplasm.

Novel enzymatic elimination method for the chromatographic purification of ginsenoside Rb3 in an isomeric mixture

  • Cui, Chang-Hao;Fu, Yaoyao;Jeon, Byeong-Min;Kim, Sun-Chang;Im, Wan-Taek
    • Journal of Ginseng Research
    • /
    • 제44권6호
    • /
    • pp.784-789
    • /
    • 2020
  • Background: The separation of isomeric compounds from a mixture is a recurring problem in chemistry and phytochemistry research. The purification of pharmacologically active ginsenoside Rb3 from ginseng extracts is limited by the co-existence of its isomer Rb2. The aim of the present study was to develop an enzymatic elimination-combined purification method to obtain pure Rb3 from a mixture of isomers. Methods: To isolate Rb3 from the isomeric mixture, a simple enzymatic selective elimination method was used. A ginsenoside-transforming glycoside hydrolase (Bgp2) was employed to selectively hydrolyze Rb2 into ginsenoside Rd. Ginsenoside Rb3 was then efficiently separated from the mixture using a traditional chromatographic method. Results: Chromatographic purification of Rb3 was achieved using this novel enzymatic elimination-combined method, with 58.6-times higher yield and 13.1% less time than those of the traditional chromatographic method, with a lower minimum column length for purification. The novelty of this study was the use of a recombinant glycosidase for the selective elimination of the isomer. The isolated ginsenoside Rb3 can be used in further pharmaceutical studies. Conclusions: Herein, we demonstrated a novel enzymatic elimination-combined purification method for the chromatographic purification of ginsenoside Rb3. This method can also be applied to purify other isomeric glycoconjugates in mixtures.

개체별인삼근권(個體別人蔘根圈)의 화학(化學) 및 미생물특성(微生物特性)과 근생육(根生育)과의 관계(關係) (Relationship between chemical and microbial characteristics of root zone and root growth of gineng)

  • 박훈;이명구
    • 한국토양비료학회지
    • /
    • 제22권2호
    • /
    • pp.131-137
    • /
    • 1989
  • 고수량(高收量) 삼포(蔘圃)에서 인접(隣接)한 대소편삼(大小片蔘)의 근권(根圈)의 화학성(化學性)과 미생물(微生物) 특성(特性)을 조사(調査)하여 근생육(根生育)과의 관계(關係)를 살폈다. $NO_3-N$, $NH_4-N$ 인산이 대편삼(大片蔘)에서 적었고 Ca은 대편삼(大片蔘)에서 높았다. 미량성분(微量成分)은 Cu와 Zn은 지근수(支根數)와 유의정상관(有意正相關)을 보였으나 Fe는 부상관(負相關)이었다. $NH_4-N$, $NO_3-N$는 세근발달(細根發達)과 유의부상관(有意負相關)을 보였다. 유기물특성(有機物特性)에서는 휴민산의 침전비율(PQ)이 유의성은 없으나 대편삼(大片蔘)에서 높은 경향이었다. 근권미생물(根圈微生物)은 세균밀도(細菌密度)가 근중(根重)에 기여하는 방향으로 곰팡이와 방선균(放線菌)은 저해하는 방향이며 세균중(細菌中) 우점세균밀도(優占細菌密度)는 대편삼(大片蔘)에 유의성(有意性)있게 많았다. 세균(細菌)과 곰팡이 또는 방선균(放線菌)의 비율(比率)이 세균발달(細菌發達)과 유의정상관(有意正相關)을 보였다.

  • PDF