Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/89521
標題: 外源褪黑激素對Hypericum perforatum L. (聖約翰草)及Hypericum coris L.在低溫與光週期處理下生長和活性成分之影響以及聖約翰草於設施栽培之生產評估
Effects of exogenous melatonin application on the growth and active ingredients of St. John's wort (Hypericum perforatum L.) and Hypericum coris L. under low temperature and photoperiodic treatments and production evaluation of St. John's wort in culture facilities
作者: Meng-Da Ye
葉孟達
關鍵字: melatonin;Hypericum perforatum L.;Hypericum coris L.;low temperature;photoperiodic;褪黑激素;聖約翰草;低溫;光週期
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摘要: 
本研究以聖約翰草(Hypericum perforatum L.)和Hypericum coris L.作為試驗材料,探討不同光週期以及低溫和光週期逆境下外源褪黑激素對兩種試驗材料活性物質之影響。以5個不同之光週期處理(L:D=6 h:18 h、12 h:12 h、18 h:6 h、10 h:10 h、14 h:14 h),並利用高效液相色層分析儀分析兩種材料中有效成分之累積情形,發現聖約翰草中之褪黑激素、金絲桃素和槲皮素的含量會隨著光照時間延長而增加,而H. coris則是在褪黑激素和槲皮素的含量上隨著光照時間延長而增加。另外,聖約翰草和H. coris兩種材料中芸香苷在同步化條件(有時間賦予者)之光週期設定為20小時
(10 h:10 h)均能測得最高之含量,分別為11.10 μg/mg FW、9.83 μg/mg FW。
為探討外源褪黑激素在聖約翰草和H. coris中是否能提升其對逆境的抵抗力,將聖約翰草和H. coris於低溫環境 (10 ℃)和光週期逆境 (L:D = 10 h:10 h)下種植,並添加五種褪黑激素處理 (0 μΜ、125 μΜ、250 μΜ、500 μΜ及750 μΜ) 。結果顯示兩種試驗材料進行外源褪黑激素處理均能提升根部的生長,且在特定的劑量下(250、750 μM),能提升兩種實驗材料中內源褪黑激素、貫葉連翹素之含量1~2倍。
在控制環境的栽培設施中作聖約翰草的生產評估試驗,顯示不同品牌和栽培介質的比例會影響此藥草活性成分的累積,以不同盆器栽培聖約翰草的試驗中,顯示保麗龍盆器較佳。另外,施用10 %霍格蘭氏稀釋液可增進聖約翰草生物量和褪黑激素、貫葉連翹素及芸香苷的含量,但施肥頻率週期對聖約翰草的生產並無明顯影響。而在三種不同設施栽培條件的比較中,利用自然光輔助人工光源的溫室設施環境呈現較有利於聖約翰草小規模的量產。

Hypericum perforatum L. and Hypericum coris L. have been taken as experimental materials in this study. Effects of exogenous melatonin on active compounds of H. perforatum and H. coris under different photoperiods and temperature / photoperiodic stresses have been investigated. Amounts of active ingredients of both experimental materials have been analysed by high performance liquid chromatography (HPLC) under 5 different photoperiods (L: D = 6 h: 18 h、12 h: 12 h、18 h: 6 h、10 h: 10 h and 14 h: 14 h). The contents of melatonin, hypericin, and quercetin of H. perforatum will increase with the lengthened periods of light phase. Whereas, the levels of melatonin and quercetin of H. coris will be elevated with the lengthened periods of light phase. In addition, the highest amounts of rutin of H. perforatum and H. coris were detected under the entrained (with Zeitgeber) condition of 20 h- photoperiod (10 h:10 h) with 11.10 μg / mg FW and 9.83 μg / mg FW, respectively.
In order to explore the effects of exogenous melatonin on resistance of H. perforatum and H. coris to stresses, the plants were cultivated under low temperature (10 ℃) and photoperiodic (L:D = 10 h:10 h) stress with application of 5 melatonin treatments (0 μΜ, 125 μΜ, 250 μΜ, 500 μΜ and 750 μΜ). It reveals that exogenous melatonin treatments can improve root growth of both experimental materials. At certain dosages (250 μΜ and 750 μΜ) of applied melatonin, the contents of endogenous melatonin and hyperforin of H. perforatum and H. coris can be elevated circa 1~2 folds.
For the production evaluation of H. perforatum under controlled environments of culture facilities, it exhibits that different sources and proportion of growth media would influence the accumulation of active compounds in this medicinal herb. Among different culture pots, styrofoam pot used for cultivation of H. perforatum has shown to be better. Otherwise, it shows that application of 10% Hoagland's solution can improve the biomass and contents of melatonin, hyperforin and rutin of H. perforatum, but with no significant effects between frequencies of applied nutrient solution. Comparison of three different culture facilities for small-scale production evaluation of H. perforatum, it reveals that green house composed of natural lights assisted with artificial light sources is superior.
URI: http://hdl.handle.net/11455/89521
其他識別: U0005-2306201516343800
Rights: 同意授權瀏覽/列印電子全文服務,2015-07-17起公開。
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