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http://dx.doi.org/10.3839/jabc.2017.034

Antifungal activity of pinosylvin from Pinus densiflora on turfgrass fungal diseases  

Lee, Dong Gu (Department of Integrative Plant Science, Chung-Ang University)
Lee, Seong Jun (School of Ecology and Environmental System, Kyungpook National University)
Rodriguez, Joyce P. (Department of Integrative Plant Science, Chung-Ang University)
Kim, Ik Hwi (Natural Product R&D Institute, Elcubio Co., Ltd.)
Chang, Taehyun (School of Ecology and Environmental System, Kyungpook National University)
Lee, Sanghyun (Department of Integrative Plant Science, Chung-Ang University)
Publication Information
Journal of Applied Biological Chemistry / v.60, no.3, 2017 , pp. 213-218 More about this Journal
Abstract
The objective was to examine the antifungal activity of Pinus densiflora extract for the control of turfgrass fungal diseases. Antifungal activities of the various fractions of n-hexane, methylene chloride (Ch), ethyl acetate (EtOAc), and n-butanol from P. densiflora were evaluated against Rhizoctonia solani AG1-1B, R. solani AG2-2IV, Sclerotinia homoeocarpa, R. cerealis, Pythium spp., and Colletotrichum graminicola. The Ch and EtOAc fractions showed antifungal activity against Pythium sp. and C. graminicola in paper disc assay. The effective concentration to produce 50% mycelial inhibition ($EC_{50}$) using five discriminatory concentrations of pinosylvin (1) from the Ch fraction of P. densiflora was evaluated on R. solani AG1-1B, R. solani AG2-2IV, R. cerealis, and S. homoeocarpa. S. homoeocarpa showed the highest sensitivity with the lowest mean $EC_{50}$ value ($8.426{\mu}g/mL$) among the four pathogens. Among the three Rhizoctonia pathogens, R. cerealis had the highest mean $EC_{50}$ value ($99.832{\mu}g/mL$) and R. solani AG2-2IV, with the lowest sensitivity, had the lowest $EC_{50}$ value ($39.696{\mu}g/mL$). These results suggested that pinosylvin (1) from P. densiflora could be a valuable lead compound in the improvement of a novel antifungal agent.
Keywords
Antifungal activity; Constituent; Pathogen; Pinosylvin;
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Times Cited By KSCI : 4  (Citation Analysis)
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1 Beard JB (1973) Turfgrass Science and Culture. Prentice-Hall, Inc., Englewood Cliffs, NJ
2 Burpee LL (1997) Control of dollar spot of creeping bentgrass caused by an isolate of Sclerotinia homoeocarpa resistant to benzimidazole and demethylation inhibitor fungicides. Plant Dis 81: 1259-1263   DOI
3 Chang T, Lee SJ (2013) Response of systemic fungicides of Rhizoctonia spp. causing Rhizoctonia blight on turfgrass. Weed Turf Sci 2:387-394   DOI
4 Choi EM (2007) Antinociceptive and antiinflammatory activities of pine (Pinus densiflora) pollen extract. Phytother Res 21: 471-475   DOI
5 Detweiler AR, Vargas JM Jr., Danneberger TK (1983) Resistance of Sclerotinia homoeocarpa to iprodione and benomyl. Plant Dis 67: 627-630   DOI
6 Duke SO, Lydon J (1987) Herbicides from natural compounds. Weed Technol 1: 122-128   DOI
7 Jeong KH, Hwang IS, Kim JE, Lee YJ, Kwak MH, Lee YH, Lee JH, Hwang DY, Jung YJ (2014) Anti-bacterial effects of aqueous extract purified from the immature cone of red pine (Pinus densiflora). J Korean Soc Dyers & Finishers 26: 45-52
8 Duru ME, Cakir A, Kordali S, Zengin H, Harmandar M, Izumin S, Hirata T (2003) Chemical composition and anti-fungal properties of essential oils of three Pistacia species. Fitoterapia 74: 170-176   DOI
9 Golembiewski RC, Vargas JM, Jones AL, Detweiler AR (1995) Detection of demethylation inhibitor (DMI) resistance in Sclerotinia homoeocarpa populations. Plant Dis 79: 491-493   DOI
10 Huh KY, Deurer M, Sivakumaran S, McAuliffe K, Bolan NS (2008) Carbon sequestration in urban landscapes: the example of a turfgrass system in New Zealand. Aust J Soil Res 46: 610-616   DOI
11 Jo YK, Niver AL, Rimelspach JW, Boehm MJ (2006) Fungicide sensitivity of Sclerotinia homoeocarpa from golf courses in Ohio. Plant Dis 90: 807-813   DOI
12 Kang SJ, Kim DH, Lee DG, Kim IS, Jeon MG, Lee JD, Kim IK, Lee S (2013) Screening of antifungal activities of medicinal plants for the control of turfgrass fungal disease. Weed Turf Sci 2: 70-75   DOI
13 Kim KY, Chung HJ (2000) Flavor compounds of pine sprout tea and pine needle tea. J Agric Food Chem 48: 1269-1272   DOI
14 Qian Y, Follett RF (1994). Assessing soil carbon sequestration in turfgrass systems using long-term soil testing data. Agron J 94: 930-935
15 Lee JH, Lee BK, Kim JH, Lee SH (2009) Comparison of chemical compositions and antimicrobial activities of essential oils from three conifer trees; Pinus densiflora, Cryptomeria japonica, and Chamaecyparis obtusa. J Microbiol Biotechnol 19: 391-396   DOI
16 Lee MS (2002) Study on the cultivation methods of transplanting the turf seedlings II. Effects of turf grass growth to the selected soils in seedling bed. Korean J Plant Res 1: 31-36
17 Lee SK, Lee HJ, Min HY, Park EJ, Lee KM, Ahn YH, Cho YJ, Pyee JH (2005) Antibacterial and antifungal activity of pinosylvin, a constituent of pine. Fitoterapia 76: 258-260   DOI
18 Pacher T, Seger C, Engelmeier D, Vajrodaya S, Hofer O, Greger H (2002) Antifungal stilbenoids from Stemona collinsae. J Nat Prod 65: 820-827   DOI
19 Paik SB, Sim SC, Ku HM, Yoe WG (1998) Screening for antifungal medicinal plants against brown patch and large patch diseases of turfgrass. Korean Turf Sci 12: 183-194
20 Schultz TP, Boldin WD, Fisher TH, Nicholas DD, Mcmurtrey KD, Pobanz K (1992) Sturcture fungicidal properties of some 3- and 4-hydroxylated stilbene and bibenzyl analogues. Phytochemistry 31: 3801-3806   DOI
21 Sultan MZ, Jeon YM, Moon SS (2008) Labdane-type diterpenes active against acne from pine cones (Pinus densiflora). Planta Med 74: 449-452   DOI
22 Turgeon AJ (2005) Turfgrass Management, 7th Pearson Education, Inc, Upper Saddle River, NJ
23 Vargas JM Jr. (1994) Management of Turfgrass Diseases, 2nd Lewis, Ann Arborpp, pp 1-9