1913년부터 2006년까지 육성된 한국 콩 품종의 아이소플라본 함량의 변이
Variation of Isoflavone Contents in Korean Soybean Cultivars Released from 1913 to 2006
2
조회
0
다운로드
11
인용
0
참고문헌
키워드
초록
This study was carried out to evaluate the variation of isoflavone contents in 106 soybean cultivars released from 1913to 2006 in Korea. A total of seed isoflavone content including genistein, daidzein and glycitein contents ranged from 527.9 μg/g to 3436.5 μg/g with an average of 1489.0 μg/g. The daidzein content ranged from 153.0 μg/g to 1710.4 μg/g with an average of 650.5 μg/g and the glycitein content ranged from 32.2 μg/g to 308.2 μg/g with an average of 146.2 μg/g. The genistein content ranged from 203.4 μg/g to 1502.4 μg/g with an average of 692.3 μg/g. Soybean cultivars which showed higher total of isoflavone content than any other cultivars were ‘Baegcheon’ (2553.9 μg/g), ‘Bosuk’ (3436.5 μg/g) ‘Daehwang’ (2709.2 μg/g), ‘Daemang 2’(2595.0 μg/g), ‘Jangki’ (2769.9 μg/g), ‘Pungwon’ (2872.8 μg/g), ‘Sojin’ (2521.8 μg/g), and ‘Sorog’ (2956.1 μg/g). ‘Bosuk’showed the highest total of isoflavone content among Korean soybean cultivars. Significant differences in isoflavone contents appeared to be related with the released years, edible use types, seed sizes and breeding locations in Korean soybean cultivars. Cultivars released in 2000s showed the highest total of isoflavone content, followed by both 1980s and 1990s, and before 1980showed the lowest content. Cultivars for bean sprouts showed the highest total of isoflavone content, for soy sauce and paste showed the second highest content, followed by cooking with rice, and vegetable and early maturity showed the lowest content according to edible use types. Small seed cultivars showed the highest total of isoflavone content, followed by medium seed,and large seed showed the lowest content. Among three breeding locations, Iksan showed the highest total of isoflavone content,followed by Milyang, and Suwon showed the lowest content.
Abstract
This study was carried out to evaluate the variation of isoflavone contents in 106 soybean cultivars released from 1913to 2006 in Korea. A total of seed isoflavone content including genistein, daidzein and glycitein contents ranged from 527.9 μg/g to 3436.5 μg/g with an average of 1489.0 μg/g. The daidzein content ranged from 153.0 μg/g to 1710.4 μg/g with an average of 650.5 μg/g and the glycitein content ranged from 32.2 μg/g to 308.2 μg/g with an average of 146.2 μg/g. The genistein content ranged from 203.4 μg/g to 1502.4 μg/g with an average of 692.3 μg/g. Soybean cultivars which showed higher total of isoflavone content than any other cultivars were ‘Baegcheon’ (2553.9 μg/g), ‘Bosuk’ (3436.5 μg/g) ‘Daehwang’ (2709.2 μg/g), ‘Daemang 2’(2595.0 μg/g), ‘Jangki’ (2769.9 μg/g), ‘Pungwon’ (2872.8 μg/g), ‘Sojin’ (2521.8 μg/g), and ‘Sorog’ (2956.1 μg/g). ‘Bosuk’showed the highest total of isoflavone content among Korean soybean cultivars. Significant differences in isoflavone contents appeared to be related with the released years, edible use types, seed sizes and breeding locations in Korean soybean cultivars. Cultivars released in 2000s showed the highest total of isoflavone content, followed by both 1980s and 1990s, and before 1980showed the lowest content. Cultivars for bean sprouts showed the highest total of isoflavone content, for soy sauce and paste showed the second highest content, followed by cooking with rice, and vegetable and early maturity showed the lowest content according to edible use types. Small seed cultivars showed the highest total of isoflavone content, followed by medium seed,and large seed showed the lowest content. Among three breeding locations, Iksan showed the highest total of isoflavone content,followed by Milyang, and Suwon showed the lowest content.
참고문헌 (31)
- Barnes S, "Evolution of the health benefits of soy isoflavones", Proc. Soc. Exp. Biol. Med, 217(3), pp.386~392 (1998)
- Barnes S, "Isoflavones and cancer-the estrogen paradox", Korea Soybean Digest, 15, pp.81~93 (1998)
- "J. Agric. Food Chem", 2005, 7128~7135
- Chung MG, "Variation of isoflavone contents in Korean soybean germplasm", Korean J. Crop Sci, 512, pp.146~151 (2006)
- Eldridge AC, "Soybean isoflavone: Effect of environment and variety on composition", J. Agric. Food Chem, 31, pp.394~396 (1983)
- Fotsis T, "Genistein, a dietary ingested isoflavonoid, inhibits cell proliferation and in vitro angiogenesis", J. Nutr, 125(3. Suppl), pp.790~797 (1995)
- Hoeck JA, "Influence of genetyoe and environment on isoflavone contents of soybean", Crop Sci, 40, pp.48~51 (2000)
- Hwang YH, "Historical review on soybean soybean cultivation in Korea", International symposium on the development of functional soybean varieties, new materials, medicine, and foods, pp.29~ (2004), Kyungpook National University
- 김홍식, "한국 콩 육성품종의 SSR마커에 의한 유전적 다양성과 유연관계", 한국작물학회지, 51(3), pp.248~258 (2006), 한국작물학회
- Kim SR, "Some properties and contents of isoflavone in soybean and soybean foods", Korea Soybean Digest, 16(2), pp.35~46 (1999)
- Kim YH, "Isoflavone content in Korean soybean cultivars", SoonChunhyang J. Nat. Sci, 3(1), pp.331~337 (1997)
- Kitamura K, "Low isoflavone content in some early maturing cultivars, so-called “summer-type soybeans” (Glycine max (L) merrill)", Kor. J. Breed. Sci, 41, pp.651~654 (1991)
- Lee HP, "Dietary effects on breast-cancer risk in Singapore", Lancet, 337, pp.1197~1200 (1991)
- 이명희, "콩 및 콩 가공식품의 이소플라본 함량", 한국식품과학회지, 34(3), pp.365~369 (2002), 한국식품과학회
- Lee YH, "Research trends and future plan for varietal improvement of soybean in Korea", Symposium on development of strategy for self-production of soybean, pp.56~78 (2001), National Honam Agricultural Experiment Station
- Menacho LMP, "A high-protein soybean cultivar contains lower isoflavones and saponins but higher minerals and bioactive peptides than a low protein cultivar", Food Chemistry, 120, pp.15~21 (2010)
- Messina M, "Gaining insight into the health effects of soy but a long way still to go: commentary on the fourth international symposium on the role of soy in preventing and treating chronic disease", J. Nutr, 132, pp.547~551 (2002)
- Murphy PA, "Phytoestrogen content of processed soybean products", Food Technol, 36, pp.60~64 (1982)
- Naim M, "A new isoflavone from soya beans", Phytochem, 12, pp.169~170 (1973)
- 옥현충, "국내 육성 콩 품종의 고랭지 재배 시 수량 및 Isoflavone 함량", 한국작물학회지, 53(1), pp.102~109 (2008), 한국작물학회
- Park KY, "Review and future planning for soybean breeding in Korea", Korea Soybean Digest, 17, pp.13~26 (2000)
- Peterson G., "Evaluation of the biochemical targets of genistein in tumor cells", J Nutr, 125(3 Suppl.), pp.784~789 (1995)
- 류승현, "국내산 콩과 수입콩의 Isoflavone, Phytic Acid 및 Oligosaccharides 함량", 한국식품영양학회지, 17(2), pp.229~235 (2004), 한국식품영양학회
- Sakai T, "Evaluation of isoflavone contents and compositions of soybean seed and its relation with seeding time", Jpn. J. Crop Sci, 75, pp.156~164 (2005)
- Sarkar FH, "Soy isoflavones and cancer prevention", Cancer Invest, 21, pp.817~818 (2003)
- Setchell KD, "Nonsteroidal estrogens of dietary origin: possible roles in hormone-dependent disease", Am. J. Clin. Nutr, 40, pp.569~ (1984)
- Setchell KD, "Dietary isoflavone: Biological effects and relevance to human health", J. Nutr, 129, pp.758~767 (1999)
- So EH, "Varietal difference of isoflavone content and antioxidant activity in soybean", Kor. J. Breed. Sci, 33, pp.35~39 (2001)
- Tsukamoto C, "Factors affecting isoflavone content in soybean seeds: Changes in isoflavones, saponins and composition of fatty acids at different temperatures during seed development", J. Agric. Food Chem, 43(5), pp.1184~1192 (1995)
- Wang H, "Isoflavone composition of American and Japanese soybeans in Iowa: Effects of variety, crop year, and location", J. Agric. Food Chem, 42, pp.1674~1677 (1994)
- varieties, "박사", Dankook University Graduate School, 2005
