• Proceedings of the Plant Resources Society of Korea Conference
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• 2019.10a
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• pp.83-83
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• 2019

본 연구는 고품질 산양삼 생산을 위한 표준재배기술 개발을 위해 산양삼의 생육특성과 재배지의 입지환경 간의 상관관계를 구명하고자 하였다. 전국 9지역의 산양삼 재배지를 선정하여 13년생 산양삼의 생육특성을 조사하고, 각 재배지의 임상 및 토양 이화학성을 분석하여 입지환경과 산양삼 생육특성과의 상관관계를 확인하였다. 총 9개의 재배지 중에서 산양삼의 생육특성은 거창과 함양 재배지에서 다른 재배지에 비해 유의적으로 높은 것으로 나타났다. 임산과의 상관관계를 확인한 결과, 산양삼의 부피는 재배지 임상의 흉고직경과 유의적인 정의 상관관계를 보였고, 활엽수의 비율과 유의적인 부의 상관관계, 침엽수의 비율과는 유의적인 정의 상관관계를 보였다. 침엽수의 비율이 100%로 확인된 영월 재배지의 산양삼 생육특성이 다른 재배지에 비해 유의적으로 높지 않은 것으로 확인되어, 이러한 결과는 침활혼효림에서 침엽수의 비율과 상관관계가 있는 것으로 판단된다. 토양 특성과의 상관관계 분석에서는 재배지 토양의 pH, K, Ca, Mg과 생육특성 간의 유의적인 부의 상관관계를 확인할 수 있었다. 이와 같이 산양삼의 생육특성과 입지환경 간의 상관관계를 분석한 결과, 산양삼의 생육은 재배지 임상의 흉고직경이 크고, 침활혼효림에서 침엽수의 비율이 높으며, 토양의 pH, K, Ca, Mg 함량이 높지 않은 재배지에서 적합하다는 것을 확인할 수 있었다. 본 연구의 결과를 통해 산양삼 재배에 적합한 재배적지의 입지환경 조건을 확인할 수 있었고, 산양삼은 7~20년 동안 무농약, 무비료의 청정환경에서 생산하는 것이 원칙이기 때문에 본 연구의 결과를 활용하여 향후 산양삼의 예상재배지를 선정하는데 있어 도움을 줄 수 있을 것으로 사료된다.

• Proceedings of the Plant Resources Society of Korea Conference
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• 2021.04a
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• pp.50-50
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• 2021

본 연구에서는 7년근과 13년근 산양삼을 선정하여 적변 유무에 따라 분류하고 적변에 따른 산양삼의 생육특성과 진세노사이드 함량을 조사하기 위해 수행되었다. 산양삼 재배지 9개소의 산양삼 지하부의 생육특성을 분석한 결과, 7년근과 13년근 산양삼의 생육특성은 적변에 따른 유의적인 차이는 확인되지 않았다. 적변에 따른 연근별 산양삼의 진세노사이드 함량을 비교 분석한 결과, 7년근 산양삼은 Rb1과 Rg1은 진세노사이드 함량이 일반삼에 비해 적변삼에서 높았고, 진세노사이드 Rc, Rd, Re, Rg2는 적변삼에 비해 일반삼에서 유의적으로 높은 것을 확인하였으나 적변에 따른 13년근 산양삼의 진세노사이드 함량 유의적인 차이는 확인할 수 없었다. 산양삼 생육특성과 진세노사이드 함량 간의 상관관계를 분석한 결과, 일반삼의 경우 진세노사이드 Rb2, Rc, Rd, Rf, Rg1이 산양삼의 지하부 길이와 유의적인 정의 상관관계를 보였고, 적변삼은 진세노사이드 Rd가 지하부 길이와는 유의적인 정의 상관관계, 주근직경과는 유의적인 부의 상관관계를 보였다. 본 연구에서는 7년근과 13년근 모두 적변에 따른 생육특성의 차이는 확인되지 않았고, 진세노사이드 함량은 7년근에서는 적변에 따라 유의적인 차이를 보였지만 13년근에서는 유의적인 차이가 없는 것을 확인하였다. 임가에서 산양삼은 7년근에 비해 13년근이 보다 고가에 거래되는 만큼 본 연구의 결과를 통해 적변삼에 대한 소비자들의 인식을 개선하여 산양삼 재배 농가의 소득 증대에 도움을 주고, 향후 산양삼의 품질규격을 정립하는 데 있어 유용한 정보를 제공할 수 있을 것으로 사료된다.

• Korean Journal of Medicinal Crop Science
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• v.25 no.3
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• pp.175-182
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• 2017

Background: Ginseng is a perennial crop grown for more than four years in the same place. Therefore, it is highly affected by the soil environment, especially nutrients in the soil. The present study was carried out to investigate to the influence of boron and iron concentrations on the physiological status, growth, and mineral uptake of ginseng to obtain the basic information for diagnosing a physiological disorder in ginseng plants. Methods and Results: The boron and iron concentrations were controlled at 3, 30, 150, 300 and 2, 20, 100, $200mg/{\ell}$, respectively. When treated with $150mg/{\ell}$ of boron, the ginseng plants showed yellowing or necrosis symptoms at the edge or end of their leaves. Compared with the $3mg/{\ell}$ treatment, the root weight decreased by 13 and 24% in the 150 and $300mg/{\ell}$ treatments, respectively. When treated with $20mg/{\ell}$ of iron, the ginseng plants showed yellowing between the veins of the leaves followed by the formation of brown spots. The root weight gradually decreased with increasing iron concentration. Approximately 55% decrease in root weight was observed upon treatment with $200mg/{\ell}$ of iron. Conclusions: The boron toxicity occurs in the leaves of ginseng at the boron concentration of approximately 1,900 mg/kg or more. The iron toxicity occurs at the iron concentration of approximately 120 mg/kg for leaves and 270 mg/kg for roots.

• Korean Journal of Plant Resources
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• v.36 no.1
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• pp.26-31
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• 2023

In this study, we investigated in vitro inhibitory activity of wild-simulated ginseng (WSG) against non-alcoholic fatty liver disease using HepG-2 cells. T0901317 treatment increased the lipid accumulation in HepG-2 cells, but WSG treatment inhibited T0901317-mediated lipid accumulation. In addition, WSG downregulated T0901317-mediated expression of SREBP-1c, ACC, FAS and SCD-1 protein. In addition, WSG increased the phosphorylation level of LKB1 and AMPK. Compound C treatment blocked WSG-mediated downregulation of SREBP-1c protein. In conclusion, WSG is considered to inhibit the accumulation of lipids and triglycerides in HepG-2 cells by inducing the activation of LKB1 and AMPK successively, thereby reducing the expression of FAS, ACC, and SCD-1 through suppression of SREBP-1c expression.

• Proceedings of the Korean Society of Plant Biotechnology Conference
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• 2005.04a
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• pp.115-115
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• 2005

• Proceedings of The Korean Society of Agricultural and Forest Meteorology Conference
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• 2012.07a
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• pp.70-74
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• 2012

• Proceedings of The Korean Society of Agricultural and Forest Meteorology Conference
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• 2012.07a
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• pp.62-65
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• 2012

• Proceedings of The Korean Society of Agricultural and Forest Meteorology Conference
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• 2012.07a
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• pp.66-69
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• 2012

• Journal of Ginseng Research
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• v.14 no.2
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• pp.297-309
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• 1990

Ginseng is renowned for both its medicinal and herbal uses and successful cultivation of Panax ginseng in Asia and Panax Vtiinvtiefolilim in North America has until recently taken place in the native geographical ranges of the plants. As a consequence of the potential high capital return and anticipated increases in consumer consumption, commercial cultivation of American ginseng now occurs well outside the native range of the plant in North America. In fact, the region of greatest expansion of cultivation is in the semi-arid interior region of British Columbia, Canada. Linked with this expansion is the potential domination of the ginseng industry by agricultural corporations. In the interior of British Columbia, the native decidous forest environment of eastern North America is simulated with elevated polypropylene shade and a sllrface covering of straw mulch. The architecture of these environments is designed to permit maximillm machinery useage and to minimize labour requirements. Further, with only a four-year growth cycle, plant densities in the gardens are high. In this hot, semiarid environment, producers believe they have a competitive advantage over other regions in North America because of the low precipitation rates. This helps to minimize atmospheric humidity such that the conditions for fungal disease development are reduced. If soil moisture levels become limited, supplemental water can be provided by irrigation. The nature of the radiation and energy balance regimes of the shade and much environment promotes high soil moistilre levels. Also, the modified environment reduces soil heating. This can result in an aerial environment for the plant that is stressful and a rooting zone environment that is sub-optimal. The challenge of further refining the man modified environment for enhanced plant growth and health still remains.

• Korean Journal of Medicinal Crop Science
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• v.19 no.3
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• pp.185-190
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• 2011

The principal objective of this study was to develop a discrimination method using SSR markers in Korean ginseng cultivars. Five cultivars--Chunpoong, Yunpoong, Gopoong, Sunpoong, and Kumpoong--were evaluated by nine markers out of 22 SSR markers. A total of 23 alleles were detected, ranging from 1 to 4, with an average of 2.6 alleles per locus, and an averages of gene diversity (GD) of 0.480. Nine markers were tested in order to distinguish among five Korean ginseng cultivars. Two markers out of nine SSR markers, GB-PG-065 and GB-PG-142, were selected as key markers for discrimination among Korean ginseng cultivars. Two genotypes were detected in GB-PG-065. Chunpoong and Kumpoong shared the same allele type, and Yunpoong, Gopoong, and Sunpoong shared another identical allele type. In the case of GB-PG-142, a specific allele type differentiated from those of other four cultivars was observed only in Sunpoong cultivar. Consequently, the SSR markers developed in this study may prove useful for the identification of Korean ginseng cultivars and the development of ginseng seed management systems, as well as tests to guarantee the purity of ginseng seeds.