Please use this identifier to cite or link to this item: http://hdl.handle.net/11455/89340
DC FieldValueLanguage
dc.contributorWen-Hsin Chungen_US
dc.contributor鍾文鑫zh_TW
dc.contributor.authorChe-Chia Yehen_US
dc.contributor.author葉哲嘉zh_TW
dc.contributor.other植物病理學系所zh_TW
dc.date2014zh_TW
dc.date.accessioned2015-12-07T07:25:32Z-
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dc.identifier.urihttp://hdl.handle.net/11455/89340-
dc.description.abstract植物內生真菌(endophytic fungi)為棲息於健康植物組織中的一群真菌,可產生和寄主植物產物相似的活性物質,其中可產生有機揮發性化合物(volatile organic compounds, VOCs)者可稱為產氣內生真菌(volatile-producing endophytic fungi)。本研究自石禪草(Peperomia dindygulensis)葉片組織中分離出7株具產氣活性之內生真菌,以Nodulisporium sp. PDL-005最佳。培養於potato sucrose agar(PSA)平板三天之PDL-005菌株所產生之活性揮發物質,能抑制多種貯藏病原真菌之菌絲生長,對草莓灰黴病菌(Botrytis cinerea)等病原真菌之抑制率可達100.0%,而對柳橙綠黴病菌(Penicillium digitatum)之抑制率介於88.2-99.4%,雖具防治潛力但抑制效果變異度較高,為篩選可穩定表現PDL-005菌株拮抗能力之基質,以察氏培養基(Czapek's medium)添加不同碳氮素源進行測試。結果得知,添加單一供試碳氮素源之察氏培養基,無法促進PDL-005菌株產生拮抗綠黴病菌的氣體,然將PDL-005菌株培養於potato dextrose agar(PDA)、malt extract agar(MEA)或oat meal dextrose agar(OMDA)等培養基時,可提高該菌株之拮抗能力,其中以培養在MEA培養基時之抑菌效果最佳,抑制率可達100%並具有致死效果。進一步測試PDL-005菌株培養於芝麻粕、苦茶粕、大豆粕、小麥粒、小麥麩、燕麥、米糠、粗糠及蔗渣等9種基質的生長情形,並評估PDL-005菌株抑制綠黴菌生長的效果,結果得知,培養於蔗渣之PDL-005菌株生物量雖低,但抑制效果最好(90.6-100.0%)且具致死效果,而培養於小麥麩上之PDL-005菌株生物量與最高之芝麻粕組別無顯著差異,且對柳橙綠黴病菌的抑制率次高(約86.4%)。為了提高培養於蔗渣之PDL-005的生物量,將小麥麩以1:3、1:6及1:9比例(w / w)混合蔗渣,測試對PDL-005菌株生長與活性影響。顯示隨著小麥麩比例越高,PDL-005菌株生物量增加越多,然抑制率卻逐漸下滑,並失去對柳橙綠黴病菌之致死作用。續將PDL-005菌株培養於蔗渣且經吹乾磨碎後製成PDL-005粉粒,並將該粉粒以2:3比例(w / w)與蔗渣混合後放入中藥袋製成PDL-005製劑,於加水活化1天後,實際測試對貯藏病害之防治效果。得知6 L之容器內,20 g之PDL-005製劑對草莓灰黴病之防治率可達100%;而30 g之PDL-005製劑對柳橙綠黴病之防治率亦可達100%。利用GC-MS分析PDL-005菌株所產生之主要氣體成份,得知隨培養基質與培養天數不同,PDL-005菌株所產生之揮發性物質種類與含量亦有所變化,其中主要活性物質為2-ethyl-2-hexenal與2,4-dimethyl-1,3-cyclopentanedione。 本研究所開發之PDL-005製劑,具有防治貯藏病害之潛力。未來可進一步優化PDL-005製劑的配方與使用方式,評估該製劑使用上的風險,並擴大測試對於其他病蟲害的防治效果;亦可人工合成PDL-005菌株之主要活性物質,作為生物源薰蒸劑施用。zh_TW
dc.description.abstractEndophytic fungi inhabiting healthy plants can produce some phytochemicals with the same characteristic of their hosts. Some endophytic fungi that can produce volatile organic compounds(VOCs)are called volatile-producing endophytic fungi. In this study, seven volatile-producing endophytic fungi were obtained from the leaf of Peperomia dindygulensis, among all endophytic fungi, the bioactivity of Nodulisporium sp. PDL-005 was best. VOCs produced by 3-day-old PDL-005 isolate cultured on PSA could inhibit several postharvest fungal pathogens mycelial growth, for example, it can completely inhibit several fungal pathogens such as Botrytis cinerea, while to Penicillium digitatum, the ratio of inhibition is from 88.2% to 99.4%. The efficacy of controlling P. digitatum was obvious but varied a lot. For screening the nutrients to stabilize antifungal ability, the PDL-005 isolate was cultured on the Czapek's medium which different carbon or nitrogen sources were added to. The results indicated that the single carbon or nitrogen source could not enhance the ability against tested postharvest pathogens. However, the activity of PDL-005 isolate could be enhanced while it was cultured on potato dextrose agar(PDA)、malt extract agar(MEA)and oat meal dextrose agar(OMDA).Among all medium, the inhibition effect of PDL-005 isolate cultured on MEA was the best(100%)with a killing effect. The nine substrates, including sesame meal, tea seed pomace, soybean meal, wheat grain, wheat bran, oatmeal, rice bran, rice hulls and bagasse were tested in efficiency of enhancing mycelial growth of PDL-005 and the inhibition of P. digitatum. The result showed that the biomass of PDL-005 cultured on bagasse was low, while the inhibition effect against P. digitatum was the best(90.6-100.0%)and had a killing effect. Furthermore, the biomass of PDL-005 cultured on wheat bran was no difference against the highest biomass group-sesame meal and the inhibition rate of PDL-005 isolate against P. digitatum was the second highest(about 86.4%)among all substances. In order to enhance the biomass of PDL-005 cultured on bagasse, the effect was examed that bagasse was mixed with wheat bran in the ratio of 1:3, 1:6 and 1:9 on biomass and inhibition ability of PDL-005 against P. digitatum was examed. The result showed that the biomass of PDL-005 increased more in substrate containing higher proportion of wheat bran, but the inhibition rate of PDL-005 isolate against P. digitatum gradually decreased and lost the killing effect. Next, the PDL-005 grain was made from PDL-005 isolate cultured on bagasse under the process of dried-and-grinded. Furthermore, the PDL-005 grain was mixed with bagasse in the ratio of 2:3 and put into a medicine bag as the PDL-005 product. After rehydration of PDL-005 product for one day, the control value of PDL-005 product against postharvest diseases was examed. The result showed that the control value of 20 g PDL-005 product against gray mold of strawberry, the control value of 30 g PDL-005 product against green mold of orange were 100% in 6L food storage box. The major compound of VOCs produced by PDL-005 isolate was analyzed by GC-MS. The type and content of VOCs produced by PDL-005 isloate changed with culture day and different medium or substances, and the major active compound produced by PDL-005 isolate were 2-ethyl-2-hexenal and 2,4-dimethyl-1,3-cyclopentanedione. The PDL-005 product developed in this study showed good potential on controlling postharvest diseases. In the future, the formulation and usage of the PDL-005 product can be further optimized. Furthermore, the risk of using PDL-005 should be assessed and the control effect of PDL-005 against other pest should be further examed, or the major active compound produced by PDL-005 could be artificially generated as a biological source fumigant, instead.en_US
dc.description.tableofcontents中文摘要 i 英文摘要 iii 目次 vi 表目次 xi 圖目次 xii 附錄目次 xiv 前言 1 材料與方法 8 一、供試病原菌株來源 8 二、石禪草內寄生真菌的分離與保存 8 三、以單皿分隔法篩選具抑菌活性的產氣內生真菌 9 四、以雙皿倒扣法進一步測試產氣內生真菌的抑菌活性 9 五、PDL-005菌株於PSA平板對貯藏期病原真菌之抑菌圖譜 10 六、PDL-005菌株之鑑定 11 七、PDL-005菌株的生物特性 12 (一)測試不同溫度與酸鹼值對PDL-005菌株之生長影響 12 (二)測試不同碳氮素源對PDL-005菌株生長與拮抗橙綠黴病菌效果之影響 13 八、不同培養基對PDL-005菌株生長和拮抗活性的影響 14 (一)測試不同培養基對PDL-005菌株之生長與抑制貯藏期病原真菌菌絲生長之效果 14 (二)PDL-005菌株於不同平板對貯藏期病原真菌之抑菌圖譜 15 (三)PDL-005菌株抑制貯藏期病原真菌孢子發芽的效果 15 九、不同基質對PDL-005菌株生長和拮抗橙綠黴病菌效果之影響 16 (一)PDL-005菌株於不同單一基質上的表現 16 1. 測試PDL-005菌株的生物量 16 2. 測試PDL-005菌株拮抗橙綠黴病菌之效果 17 (二)不同比例蔗渣混和小麥麩基質對PDL-005菌株生長與拮抗效果 的影響 17 1. 測試PDL-005菌株的生長情形 17 2. 測試PDL-005菌株拮抗橙綠黴病菌之效果 17 十、PDL-005菌株防治草莓灰黴病之效果評估 18 (一)測試培養於PSA平板之PDL-005菌株防治草莓灰黴病之效果與對果實品質的影響 18 1. 草莓果實之消毒與接種 18 2. 草莓灰黴病之防治試驗 18 3. PDL-005菌株薰蒸後對草莓果實品質的影響 19 (1)果皮顏色 19 (2)果實硬度 20 (3)全可溶性固形物、可滴定酸及糖酸比 20 (二)測試培養於蔗渣基質之PDL-005菌株防治草莓灰黴病的效果 20 1. 蔗渣基質製劑之製備、培養及活化 20 (1)測試蔗渣含水量對PDL-005菌株生長與拮抗活性之影響 21 (2)PDL-005粉粒之製備 21 (3)PDL-005粉粒以1:1比例(w / w)混和蔗渣對拮抗效果的影響 21 (4)不同比例蔗渣混和PDL-005粉粒與培養天數對拮抗效果的影響 22 (5)PDL-005製劑之培養活化 22 2. 草莓灰黴病之防治試驗 23 十一、PDL-005製劑防治柳橙綠黴病的效果評估 23 (一)供試果實之消毒與接種 23 (二)柳橙綠黴病之防治試驗 24 十二、利用氣相層析質譜法分析PDL-005菌株於各種培養基質產生之氣體組成 24 (一)有效氣體成分分析方式之建立 24 (二)分析樣品製備 25 1. PDL-005菌株培養於不同培養基之樣品製備 25 2. PDL-005菌株培養於麥麩混合蔗渣基質之樣品製備 26 3. PDL-005製劑之樣品製備 26 十三、統計分析 26 結果 27 一、石禪草內寄生真菌的分離與保存 27 二、以單皿分隔法篩選具抑菌活性的產氣內生真菌 27 三、以雙皿倒扣法測試產氣內生真菌的抑菌活性 27 四、PDL-005菌株於PSA平板對貯藏期病原真菌之抑菌圖譜 28 五、PDL-005菌株之鑑定 29 六、PDL-005菌株的生物特性 29 (一)不同溫度與酸鹼值對PDL-005菌株之生長影 29 (二)不同碳氮素源對PDL-005菌株生長和拮抗橙綠黴病菌效果之影響 30 七、不同培養基對PDL-005菌株之生長和拮抗效果的影響 30 (一)不同培養基對PDL-005菌株之生長與抑制3種病原真菌菌絲生長效果 30 (二)PDL-005菌株於PDA、OMDA及MEA平板對貯藏期病原真菌之抑菌圖譜 31 (三)PDL-005菌株抑制貯藏期病原真菌孢子發芽的效果 32 八、不同基質對PDL-005菌株生長和拮抗橙綠黴病菌效果之影響 33 (一)PDL-005菌株於不同單一基質上的表現 33 1. 測試PDL-005菌株的生物量 33 2. 測試PDL-005菌株拮抗橙綠黴病菌之效果 33 (二)不同比例蔗渣混和小麥麩基質對PDL-005菌株生長與拮抗效果的影響 33 1. PDL-005菌株培養於混合基質的生長情形 33 2. PDL-005菌株培養於混合基質對橙綠黴病菌之拮抗效果 34 九、PDL-005菌株防治草莓灰黴病之效果評估 34 (一)測試培養於PSA平板之PDL-005菌株防治草莓灰黴病的效果 34 1. 草莓灰黴病之防治試驗 34 2. PDL-005菌株薰蒸後對草莓果實品質的影響 35 (二)測試培養於蔗渣基質之PDL-005菌株防治草莓灰黴病的效果 35 1. 蔗渣基質製劑之製備、培養及活化 35 (1)測試蔗渣含水量對PDL-005菌株生長與拮抗活性之影響 35 (2)PDL-005粉粒1:1比例(w / w)混和蔗渣對PDL-005菌株拮抗效果的影響 36 (3)不同比例蔗渣混和PDL-005粉粒與培養天數對PDL-005菌株拮抗效果的影響 36 2. 草莓灰黴病之防治試驗 37 十、PDL-005製劑防治柳橙綠黴病的效果評估 38 十一、利用氣相層析質譜法分析PDL-005菌株於各種培養基質產生之氣體組成 38 (一)PDL-005菌株培養於不同培養基與培養天數之氣體組成 39 (二)PDL-005菌株培養於小麥麩混合蔗渣基質與培養天數之氣體組成 40 (三)PDL-005製劑於不同天數之氣體組成 41 討論 43 參考文獻 54zh_TW
dc.language.isozh_TWzh_TW
dc.rights同意授權瀏覽/列印電子全文服務,2018-08-28起公開。zh_TW
dc.subject內生真菌zh_TW
dc.subject石蟬草zh_TW
dc.subject貯藏病害zh_TW
dc.subject生物薰蒸劑zh_TW
dc.subjectendophytic fungien_US
dc.subjectPeperomia dindygulensisen_US
dc.subjectpostharvest diseaseen_US
dc.subjectbiofumiganten_US
dc.title產氣內生真菌Nodulisporium sp. PDL-005之特性與培養條件暨防治貯藏病害評估zh_TW
dc.titleCharacteristics and culture conditions of the volatile-producing endophytic fungus Nodulisporium sp. PDL-005 and evaluation for controlling postharvest diseasesen_US
dc.typeThesis and Dissertationen_US
dc.date.paperformatopenaccess2018-08-28zh_TW
dc.date.openaccess2018-08-28-
item.openairecristypehttp://purl.org/coar/resource_type/c_18cf-
item.openairetypeThesis and Dissertation-
item.cerifentitytypePublications-
item.fulltextwith fulltext-
item.languageiso639-1zh_TW-
item.grantfulltextrestricted-
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