田中 秀典 (タナカ ヒデノリ)

TANAKA Hidenori

写真a

職名

准教授

研究室住所

宮崎市学園木花台西1−1

研究分野・キーワード

植物遺伝資源・育種学、インスティテューショナル・リサーチ

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  •  
    -
    2006年03月

    鹿児島大学  連合農学研究科  博士課程  修了

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  • 鹿児島大学 -  博士(農学)

専門分野(科研費分類) 【 表示 / 非表示

  • 遺伝育種科学

 

論文 【 表示 / 非表示

  • Turf quality trait and genetic fingerprinting of a new zoysiagrass cultivar in Japan

    Pattamavadee Kunwanlee, Hidenori Tanaka, Takayasu Inoue, Masatsugu Hashiguchi, Melody Muguerza, Ryo Akashi

    Journal of Japanese Society of Turfgrass Science   47 ( 1 ) 15 - 24   2018年10月  [査読有り]

    共著

  • Lotus japonicus genetic, mutant, and germplasm resources

    Hashiguchi M., Tanaka H., Muguerza M., Akashi R., Sandal N., Andersen S., Sato S.

    Current protocols in plant biology   3 ( 2 ) e20070   2018年06月  [査読有り]

    共著

     概要を見る

    Copyright © 2018 John Wiley & Sons, Inc. A quarter of a century has passed since Lotus japonicus was proposed as a model legume because of its suitability for molecular genetic studies. Since then, a comprehensive set of genetic resources and tools has been developed, including recombinant inbred lines, a collection of wild accessions, published mutant lines, a large collection of mutant lines tagged with LORE1 insertions, cDNA clones with expressed sequence tag (EST) information, genomic clones with end-sequence information, and a reference genome sequence. Resource centers in Japan and Denmark ensure easy access to data and materials, and the resources have greatly facilitated L. japonicus research, thereby contributing to the molecular understanding of characteristic legume features such as endosymbiosis. Here, we provide detailed instructions for L. japonicus cultivation and describe how to order materials and access data using the resource center websites. The comprehensive overview presented here will make L. japonicus more easily accessible as a model system, especially for research groups new to L. japonicus research. © 2018 by John Wiley & Sons, Inc.

    DOI

  • 学生の図書の貸出実績に関する分析とGPAとの相関

    田中 秀典, 武方 壮一

    宮崎大学教育・学生支援センター紀要     2018年03月

    共著

  • The highly heterozygous homoploid turfgrass Zoysia matrella displays desirable traits in the S1progeny

    Kunwanlee P., Tanaka H., Hashiguchi M., Gondo T., Muguerza M., Inoue T., Akashi R.

    Crop Science   57 ( 6 ) 3310 - 3318   2017年11月  [査読有り]

    共著

     概要を見る

    © Crop Science Society of America. Zoysia matrella (L.) Merr. is a homoploid turfgrass that possesses intermediate traits between Z. japonica Steudel and Z. pacifica (Goudswaard) M. Hotta and Kuroki [syn. Z. matrella (L.) Merr. var. pacifica Goudswaard]. Consequently, it contributes to the growing range of variation that exists within this species. Self-pollination reduces genetic load and can express genetic variance, enabling easy identification and selection for desired traits. The aim of this study was to evaluate the effects of self-pollination of Z. matrella ‘Wakaba’ on morphological traits, genetic structure, and the possible selection of lines with superior traits in S 1 progeny. Nine morphological characteristics (plant height, leaf width and length, stolon diameter and internode length, inflorescence number, ground covering, normalized difference vegetation index, and leaf color) were evaluated in the 364 S 1 progeny. We have obtained S 1 progeny exhibiting wide variation in morphological characteristics and moderate inbreeding depression in almost all traits after self-pollination. To infer genetic structure, a total of 26 simple sequence repeat markers were used, and Bayesian-based structure analysis grouped the progeny into three clusters. Genetic markers revealed that the level of homozygosity increased in S 1 progeny caused by inbreeding. Superior progeny that exhibited high ground covering, late winter dormancy, and stay green throughout the entire winter season were selected. Self-pollination can be used for the selection of desirable traits from highly heterozygous species such as Z. matrella. Moreover, we expect that these superior progeny could be used in further study on quantitative trait loci analysis.

    DOI

  • Induction of tetraploid Lotus japonicus and interspecific hybridization with super-root-derived Lotus corniculatus regenerants

    Hashiguchi M., Puspasari R., Suematsu Y., Muguerza M., Tanaka H., Suzuki A., Hoffmann F., Akashi R.

    Crop Science   57 ( 5 ) 2387 - 2394   2017年07月  [査読有り]

    共著

     概要を見る

    © Crop Science Society of America. Super-roots (SR), a unique in vitro cloning system of fast and continuously growing roots, has been isolated from self-incompatible Lotus corniculatus L. The objective of this research was to develop self-fertile SR plants by hybridizing SR forms of tetraploid L. corniculatus (2n = 4x = 24) with cholchicine-doubled forms of the diploid, self-fertile L. japonicus (Regel) K. Larsen (2n = 2x = 12) species. Tetraploid forms of L. japonicus ‘Miyakojima’ MG-20 (MG-20) were induced by treating seeds with 0, 0.05, 0.1, and 0.2% (w/v) colchicine solutions for 12 or 24 h. The rate of tetraploidization as determined by flow cytometry was most efficient at the lowest colchicine concentration for both treatment durations. Induced tetraploids of MG-20 had thicker stems with larger flowers and leaves compared with diploid forms of MG-20. Seeds produced by tetraploid MG-20 were also larger than those of the diploids; however, pod lengths and grain numbers were reduced. Two putative F 1 –interspecific hybrid plants were recovered, using embryo rescue, from hand-pollinated crosses between tetraploid forms of MG-20 and SR. The F 1 –interspecific hybrids displayed morphological features that were intermediate between the parental species. The root-growth rate of hybrid-derived root cultures was slightly reduced compared with the original SR. The hybrid plants are self-compatible and able to produce seeds. The interspecific hybrids obtained in this study demonstrate the potential to combine self-fertility and SR traits in Lotus forage breeding programs.

    DOI

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  • 形質転換プロトコール《植物編》

    田部井 豊 編 (担当: 共著 , 担当範囲: セイヨウミヤコグサ )

    化学同人  2012年09月

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  • 大学における遺伝資源保存と教育

    田中秀典, 橋口正嗣, 明石良

    JATAFFジャーナル ( 公益社団法人 農林水産・食品産業技術振興協会 )  4 ( 5 ) 42 - 46   2016年05月

    総説・解説(学術雑誌)   共著

  • ミヤコグサ・ダイズリソースにおける国際的な拠点整備と教育支援

    橋口 正嗣, 田中 秀典, 明石 良

    Biophilia ( 株式会社 アドスリー )  4 ( 1 )   2015年04月

    総説・解説(商業誌)   共著

  • 芝草の育種開発 Zoysia属における遺伝的多様性と進化に関する研究

    田中秀典, 橋口正嗣, 北﨑康生, 明石良

    芝草研究 ( 日本芝草学会 )  41 ( 2 ) 137 - 143   2013年03月

    総説・解説(学術雑誌)   共著

科研費(文科省・学振)獲得実績 【 表示 / 非表示

  • 大学の数量的な「共通知」から分析マインドを涵養する人材育成プラットフォームの開発

    基盤研究(C)

    研究期間:  2018年04月  -  2021年03月  代表者:  大野 賢一

研究発表 【 表示 / 非表示

  • ミヤコグサの成長に関連する量的形質を推定する線形混合モデル

    長谷川 舞衣、菊地 正隆、小林 香織、市原 寿子、佐藤 修正、権藤 崇裕、橋口 正嗣、橋口 拓勇、田中 秀典、磯部 祥子、明石 良、中谷 明弘

    第41回日本分子生物学会年会  (神奈川)  2018年11月  -  2018年11月   

  • Phenotype substitute for  Environment (PE) value: Use phenotypic data as environmental values

    Sachiko Isobe, Takanari Tanabata, Atsushi Hayashi, Hidenori Tanaka, Masatsugu Hashiguchi, Takuyu Hashiguchi, Shusei Sato, Akihiro Nakaya, Mai Hasegawa, Sayuri Tanabata and Ryo Akashi

    International Plant Phenotyping Symposium (IPPS) 2018  (Adelaide, Australia)  2018年10月  -  2018年10月   

  • ダイズ成長過程における個体形状の変化を網羅的 に計測する画像解析手法の開発

    七夕 高也 , 磯部 祥子 , 林 篤司 , 田中 秀典 , 橋口 正嗣 , 橋口 拓勇 , 明石 良 , 長谷川 舞衣, 菊地 正隆 , 中谷 明弘 , 佐藤 修正 , 七夕 小百合

    日本育種学会  (岡山)  2018年09月  -  2018年09月   

  • マメ科植物研究を牽引するミヤコグサ・ダイズバイオリソース

    橋口正嗣、佐藤修正、橋口拓勇、田中秀典、明石良

    日本植物学会  (広島)  2018年09月  -  2018年09月   

  • 科研費の採択情報から見えてくる自大学の特色

    田中秀典

    大学評価・IR担当者集会2018  (九州工業大学)  2018年08月  -  2018年08月    大学評価コンソーシアム

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