Please use this identifier to cite or link to this item:
DC FieldValueLanguage
dc.contributorChien-Young Chuen_US
dc.contributor.authorKuo, Tzu-Yinen_US
dc.identifier.citation丁川翊、朱建鏞。2006。朱槿育種。花卉育種研討會專刊。p. 184-198。國立中興大學園藝系。 丁川翊。2004。朱槿雜交育種之改進。國立中興大學園藝系研究所碩士論文。95pp.。 王嘉偉。2011。燈籠草屬異節物種間的雜交。國立中興大學園藝系研究所碩士論文。72pp.。 朱建鏞、陳昌岑。1996。修剪節位與時期對迷你玫瑰盆花品質之影響。中國園藝。42:58-67。 李成章。1990。園藝作物之雜種優勢及其利用。園藝作物育種講習專刊。p.53-59。台灣省農業試驗所。台中。 柯勇。2004。植物生理學。藝軒圖書出版社。762pp.。 高景輝。2006。Auxins之合成與代謝。植物荷爾蒙生理。p.43-46。華香園出版社。 高景輝。2006。Gibberellins合成抑制劑、生長阻礙劑。植物荷爾蒙生理。p.56-59。華香園出版社。 高景輝。2006。乙烯之合成與代謝。植物荷爾蒙生理。p.111-132。華香園出版社。 陳昌岑。1995。迷你玫瑰盆花之繁殖與修剪。國立中興大學園藝系研究所碩士論文。129pp.。 陳銘卿。2000。荔枝(Litchi chinensis Sonn.)花粉形態及生體外發芽之研究。國立中興大學園藝系碩士論文。75pp.。 陳燿煌、王裕權、張元聰、王仕賢。2005。數種生長抑制劑對多花菊植株生育之影響。台南區農業改良場研究彙報。46:45-54。 黃敏展、朱建鏞。1991。非洲菊扦插繁殖方法之研究。興大園藝。16:15-21。 黃敏展。1988。矮化劑在花卉上之應用。植物生長調節劑在園藝作物之應用研討會專集。p.141-159。台中區農業改良場。 黃敏展。1990。花卉育種概論。園藝作物育種講習專刊。p.395-398。台灣省農業試驗所。台中。 黃敏展。2002。花卉育種。亞熱帶花卉學總論。p.172-181。國立中興大學園藝系。台中。 葉姿瑩。2006。生產迷你型聖誕紅之新方法。國立中興大學園藝系研究所碩士論文。81pp.。 Acker, Marcelis-Van C. A. M. 1994. Development and growth potential of axillary buds in roses as affected by bud age. Ann. Bot. 74:437-443. Akpan, G. A. 2000. Cytogenetic characteristics and the breeding system. Theor. Appl. Genet. 100:315-318. Akpan, G. A. 2006. Hibiscus. Hibiscus rosa-sinensis. Flower breeding and genetics issues, challenges and opportunities for the 21st century. p.479-490. Springer Verlag. Bolat, I. and L. Pirlak. 1999. An investigation on pollen viability, germination and tube growth in some stone fruits. Turkish J. Agri. Forest. 23:383-388. Braglia, L., S. Bruna, S. Lanteri, A. Mercuri and E. Portis. 2010. An AFLP-based assessment of the genetic diversity within Hibiscus rosa-sinensis and its place within the Hibiscus genus complex. Scientia Hort. 123:372-378. Bris, Le M., Champeroux A., P. Bearez, and M. T. Le Page-degivry. 1998. Basipetal gradient of axillary bud inhibition along a rose (Rosa hybrida L.) stem: growth potential of primary buds and their two most basal secondary buds as affected by position and age. Ann. Bot. 81:301-309. Bris, M. Le, A. Champeroux, P. Bearea, and M. T. Le Page-Degivry. Basipetal gradient of axillary bud inhibition along a rose (Rosa hybrida L.) stem: growth potential of primary buds and their two most basal secondary buds as affected by position and age. Ann. Botany. 81:301-309. Byers, R. E.,G. Costa, and G.Vizzotto. 2003. Flowered fruit thinning of peach and other Prunus. Hort. Rev. 28:351-392. Chu, C. Y., and S. L. Kinght. 1992. The production of potted miniature rose by single-node-cutting, budded-cutting and microcutting. J. Chinese Soc. Hort. Sci. 38:54-62. Culliney, J. L., and B. P. Koebele. 1999. A native Hawaiian garden : how to grow and care for island plants. p.86-91. University of Hawai’i. Eaton, G. W. and L. I. Chen. 1969. Strawberry achene set and berry development as affected by captan sprays. J. Amer. Soc. Hort. Sci. 94:565-568. Elgar, H. J., A. B. Woolf, and R. L. Bieleski. 1999. Ethylene production by three lily species and their response to ethylene exposure. Postharvest Biol. Technol. 16:257-267. Erwin, J. E., N. Glomsrud, T. Vikor, R. Moe, and P. Etzel. 1997. Cutting position, leaf removal and time of year affects Rosa axillary shoot development. Sci. Hort. 68:157-170. Fisher, P. R., R. D. Heins, and J. H. Lieth. 1996. Modeling the stem elongation response of poinsettia to chlormequat. J. Amer. Soc. Hort. Sci. 121:861-868. Gast, R. H. 2003. The genetic history of Hibiscus rosa-sinensis. The tropical hibiscus handbook. p.23-26. River Bend Co. Texas. Gent, M. P. N. 1997. Persistence of triazole growth retardants on stem elongation of Rhododendron and Kalmia. J. Plant Growth Regul. 16:197–203. Gent, M. P. N. 2004. Efficacy and persistence of paclobutrazol applied to rooted cuttings of rhododendron before transplant. Hortscience. 39: 105-109. Gibbs, M. M., T. M. Blessington, and J. A. Price. 1989. Dark-storage temperature and duration influences flowering and quality retention of hibiscus. Hortscience 24:646-647. Gonzalez, M. V., M. Coque, and M. Herrero. 1995. Stigmatic receptivity limits the effective pollination period in kiwifruit. J. Exp. Bot. 46:263-269. Haque, S., A. H. A. Farooqi, M. M. Gupta, R. S. Sangwan, and A. Khan. 2007. Effect of ethrel, chlormequat chloride and paclobutrazol on growth and pyrethrins accumulation in Chrysanthemum cinerariaefolium Vis. Plant Growth Regul.51:263–269. Honda, K., H. Watanabe, and K. Tsutsui.2002. Cryopreservation of Delphinium pollen at -30℃. Euphytica. 126:315-320. Kepler, A. K. 1998. Hawaiian heritage plants. p.73-91. University of Hawai’i. Lui, S. H., X. P. Zang, and G. M. Sun. 2011. Changes in endogenous hormone concentrations during inflorescence induction and development in pineapple (Ananas comosus cv. Smooth Cayenne) by ethephon. African J. Biotech. 10:892-899. Maclntyre, J. P. and C. R. Lacroix. 1996. Comparative development of perianth and androecial primordial of the single flower and the homeotic double-flowered mutant in Hibiscus rosa-sinensis (Malvaceae). Can. J. Bot. 74:1871-1882. Margaret, S. 1977. The effect of temperature on floral behavior, pollen tube growth and fruit set in the avocado. J. Hort. Sci. 52:135-141. Meijon, M., R. Rodriguez, M. J. Canal, and I. Feito. 2009. Improvement of compactness and floral quality in azalea by means of application of plant growth regulators. Scientia Hort. 119: 169–176. Michio, S. 2008. Importance of genetic transformation in ornamental plant breeding. Plant Biotech. 25:3-8. Morel, P., L. Crespel, and B. Moulia. 2011. Effect of mechanical stimulation on the growth and branching of garden rose. Scientia Hort. 135:59-64. Nakamura, K., K. Matsubara, H. Watanabe, H. Kokubun, Y. Ueda, N. Oyama-Okubo, M. Nakayama, and T. Ando. 2006. Identification of Petunia hybrid cultivars that diurnally emit floral fragrances. Sci. Hort. 108:61-65. Onozaki, T., H. Ikeda, and M. Shibata. 2004. Video evaluation of ethylene sensitivity after anthesis in carnation (Dianthus caryophyllus L.) flowers. Sci. Hort. 99:187-197. Oyama-Okubo, N., T. Ando, N. Watanbe, E. Marchesi, K. Uchida, and M. Nakayama. 2005. Emission Mechanism of Floral Scent in Petunia axillaris. Biosci. Biotech. Biochem. 69:773-777. Sanzol, Z. and M. Herrero. 2001. The‘effective pollination period’in fruit trees. Sci. Hort. 90:1-17. Sharma, A. K. and A. Sharma. 1962. Polyploidy and chromosome evolution of Hibicus. La Cellule. 62:281-300. Singh, F. and T. N. Khoshoo. 1989. Cytogenetic basis of evolution in garden Hibiscus. The Nucleus. 32:62-67. Stern, R. A., D. Eisenstein, H. Voet, and S. Gazit. 1996. Anatomical structure of two day old litchi ovules in relation to fruit set and yield. J. Hort. Sci. 71:661-671. Wang, Q. and A. Skytt Andersen. 1989. Propagation of Hibiscus rosa-sinensis: relations between stock plant cultivar, age, environment and growth regulator treatments. Acta Hort. 251:289-309. Williams, R. R. 1965. The effect of summer nitrogen applications on the quality of apple blossom. J. Hort. Sci. 40:31-41. Yasumoto, A. A. and T. Yahara., 2006. Post-pollination reproductive isolation between diurnally and nocturnally flowering daylilies, Hemerocallis fulva and H. citrine. J. Plant. Res. 119:617-623. Yi, W., S. E. Law, and H. Y. Wetzstein. 2003a. Fungicide sprays can injure the stigmatic surface during receptivity in almond flowers. Ann. Of Bot. 91:335-341. Yi, W., S. E. Law, and H. Y. Wetzstein. 2003b. An in vitro study of fungicide effects on pollen germination and tube growth in almnd. HortScience. 38:1086-1088. (, 2012 (, 2012 (, 2012 (, 2012 (, 2012 (, 2012 (, 2012 (, 2012en_US
dc.description.abstract  本試驗以香木槿(Hibiscus arnottianus)為育種材料與朱槿雜交,後代再回交,期能育出具香味的盆花用朱槿。取香木槿、朱槿‘京都’以及其後代之花粉進行萌發試驗。其中以‘京都’花粉在蔗糖濃度為30%培養基之花粉萌發率較高有2.6%,其次依序為在28%蔗糖的培養基萌發率為1.6%,在20%蔗糖時花粉萌發率為1.1%。另外,香木槿在含25%蔗糖的培養基其萌發率也有1.6%。至於在其他糖濃度的花粉萌發率普遍低於1%。   朱槿與香木槿雜交的結果率受親本影響很大,如‘伊豆’、‘札幌’與‘愛密莉’的結果率較高,有超過50%。結果率次之的分別是‘南海’之12%、‘肯尼’之10%,以香木槿作為母本與愛密莉或東方之月雜交結果率分別為6%或16%。朱槿‘京都’與香木槿的雜交後代‘KA98-1’與香木槿回交結果率為17%,但與‘京都’回交結果率僅5%。在結種率方面較高的雜交組合為‘肯尼’×香木槿的32.1%、‘伊豆’×香木槿的20.1%以及‘KA98-1’×香木槿的11%。   經由播種後培育出的子代族群挑選出3株具有早花、花朵形態優美及具香味之實生苗。分別將‘京都×香木槿101’、‘火焰×香木槿101’以及‘愛密莉×香木槿101’的實生苗經扦插繁殖並以UPOV性狀調查表調查。   ‘京都×香木槿101’植株在出現第一個花蕾時進行修剪試驗,經過摘心後的植株分枝增加,分枝從0.8上升至6.2枝。而‘火焰×香木槿101’分枝數從1.0增加至4.4。利用矮化劑Chlormequat能有效的抑制‘京都×香木槿101’植株、節間、葉片生長,且隨著施用濃度以及次數增加其效果越顯著。zh_TW
dc.description.abstractThis researches Hibiscus arnottianus was used to cross with Hibiscus cultivars. Furthermore, the offsprings were backcross in order to breed fragrant pot hibiscus. The pollen of Hibiscus ‘Kyoto’, H. arnottianus and ‘their hybrids were cultured in vitro. The rate of ‘Kyoto’ pollen germinated on the medium containing 30% sucrose was at 2.6%. It was higher than 1.6% or 1.1%, when of ‘Kyoto’ pollen germinated on the medium containing sucrose at 28% or 20%, respectively. Otherwise, the pollen germination rate of H. arnottianus was at 1.6%, when it germinated on the medium containing 25% sucrose. H. arnottianus pollen germinated on medium with various sucrose, the germination rate was lower than 0.8%. The fruiting of H. arnottianus as pollen parent crossed with Hibiscus cultivars was dependent on cultivars. For examples, corssing with ‘Izume’, ‘Sapporo’ or ‘Emily’ the fruiting rate was over 50%. But crossing with ‘South Sea’or ‘Kenny’ the fruiting rate was 12% or 10%, respectively. On the other hand, H. arnottianus as mother parent crossed with ‘Emily’ or ‘Oriental Moon’ the fruiting rate was 6% or 16%, respectively. In addition, the higher seeding rate of crossing were ‘Kenny’× H. arnottianus at 32.1%, ‘Izume’× H. arnottianus at 20.1% and ‘KA98-1’×H. arnottianus was at 11%. From the offsprings population, three plants, such as ‘Kyoto×A.(H. arnottianus) 101’, ‘Flame×A 101’ and ‘Emily×A-101’, were selected. The plants were cloned by cutting and were inspected by DUS test of UPOV. After pinch, the branches of ‘Kyoto×A 101’ or ‘Flame×A 101’ were increased from 0.8 to 6.2 or from 1.0 to 4.4, respectively. Chlormequat inhibited the growth of plant height, internode and leaves. In addition the application of Chlormequat was need higher concentration or more times, the retardant effect was more on plant.en_US
dc.description.tableofcontents摘要 i Abstract ii 目錄 iii 表目錄 v 圖目錄 vi 前言 1 前人研究 2 一、 起源 2 二、 朱槿的育種史 3 三、 朱槿育種種原 4 四、 育種目標 5 五、 朱槿的開花習性和花朵形態 5 六、 影響結果之因子 6 七、 修剪對盆花的影響 7 八、 矮化劑處理對盆花品質的影響 8 材料方法 10 一、 植物材料 10 二、 扦插繁殖 10 三、 育種親本花粉活力測定 11 四、 香木槿之雜交以及‘京都’×香木槿98-1營養系之自交與回交 11 五、 ‘馬尼優樂多’與‘艾蜜莉’正反交 11 六、 控制授粉後之植株性狀調查及選拔 12 七、 修剪試驗 12 八、 矮化劑處理對盆花品質的影響 12 九、 統計分析 13 結果 14 一、 花粉試驗 14 二、 香木槿之雜交及其優良後帶之回交 14 三、 ‘京都’與香木槿雜交優良植株98-1(KA98-1)之回交與自交 14 四、 ‘京都×香木槿98-1’(KA98-1)回交後代之形態 15 五、 ‘馬尼優樂多’與‘愛密莉’正反交後代之植物性狀 15 六、 實生苗選拔 16 (一)‘京都×H. arnottianus98-1’ 16 (二)‘火焰×H. arnottianus98-1’ 16 (三)‘艾蜜莉×H. arnottianus98-1’ 16 七、 修剪試驗 17 八、 矮化劑試驗 17 討論 18 一、 香朱槿之育成 18 二、 盆花品質之影響 19 參考文獻 48zh_TW
dc.subjectHibiscus arnottianusen_US
dc.subjectfragrant hibiscusen_US
dc.titleTo Breed Potted Fragrant Hibiscus by Hibiscus arnottianusen_US
dc.typeThesis and Dissertationzh_TW
Appears in Collections:園藝學系


Show simple item record

Items in DSpace are protected by copyright, with all rights reserved, unless otherwise indicated.