Researcher Database


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KIDOU Shinichiro

FacultyGraduate School of Sciences Division of Biological Science
PositionProfessor
Mail
HomepageURLhttp://www.nsc.nagoya-cu.ac.jp/~kidou/
Birthday
Last Updated :2020/07/02

Researcher Profile and Settings

Education

  •   1987 04  - 1989 03 , Mie University
  •   1983 04  - 1987 03 , Mie University

Degree

  • 三重大学/博士(理学)

Research Activities

Research Interests

    gene expression, barley, cold response

Published Papers

  • Barley cold-induced CISP proteins contribute to the accumulation of heavy metals in roots., Ying, M, Yasuda, H, Kobayashi, S, Sakurai, N, Kidou, S, Environmental and Experimental Botany, 165, 53 - 58, 05 , Refereed
  • PHD type zinc finger protein PFP represses flowering by modulating FLC expression in Arabidopsis thaliana., Yokoyama, Y, Kobayashi, S, Kidou, S, Plant Growth Regulation, 88, 49 - 59, 03 , Refereed
  • The physiological accumulation of mutant fibroin light chains induces an unfolded protein response in the posterior silk gland of the Sericin cocoon Nd-sD strain of silkworm Bombyx mori., Takahashi, T, Miyazaki, M, Kidou, S, Matsui, Y, An, Y, Ozaki, T, Suzuki, K, Yamashita, T, Journal of Insect Biotechnology & Sericology, 86, 105 - 112, Refereed
  • Molecular Characterization of FLOWERING LOCUS T-Like Genes of Apple (Malusdomestica Borkh.), Nobuhiro Kotoda, Hidehiro Hayashi, Motoko Suzuki, Megumi Igarashi, Yoshimichi Hatsuyama, Shin-ichiro Kidou, Tomohiro Igasaki, Mitsuru Nishiguchi, Kanako Yano, Tokurou Shimizu, Sae Takahashi, Hiroshi Iwanami, Shigeki Moriya, Kazuyuki Abe, PLANT AND CELL PHYSIOLOGY, 51, (4) 561 - 575, 04 , The two FLOWERING LOCUS T (FT)-like genes of apple (Malusdomestica Borkh.), MdFT1 and MdFT2, have been isolated and characterized. MdFT1 and MdFT2 were mapped, respectively, on distinct linkage groups (LGs) with partial homoeology, LG 12 and LG 4. The expression pattern of MdFT1 and MdFT2 differed in that MdFT1 was expressed mainly in apical buds of fruit-bearing shoots in the adult phase, with little expression in the juvenile tissues, whereas MdFT2 was expressed mainly in reproductive organs, including flower buds and young fruit. On the other hand, both genes had the potential to induce early flowering since transgenic Arabidopsis, which ectopically expressed MdFT1 or MdFT2, flowered earlier than wild-type plants. Furthermore, overexpression of MdFT1 conferred precocious flowering in apple, with altered expression of other endogenous genes, such as MdMADS12. These results suggest that MdFT1 could function to promote flowering by altering the expression of those genes and that, at least, other genes may play an important role as well in the regulation of flowering in apple. The long juvenile period of fruit trees prevents early cropping and efficient breeding. Our findings will be useful information to unveil the molecular mechanism of flowering and to develop methods to shorten the juvenile period in various fruit trees, including apple.
  • ムギ類特異的なタンパク質P23kの機能〜新たなバイオマス資源β-グルカンとの関係〜, 木藤新一郎, 化学と生物, 46, 597 - 599
  • Jasmonate-induced 23kD protein, JIP-23, is involved in seed development of barley., Oikawa, A, Yamashita, T, Taira, H, Ejiri, S, Kidou, S, Plant Biothechnology, 24, 217 - 224
  • Identification of a 23kDa protein (P23k) related to the sugar supply in germinating barley seeds., Kidou, S, Oikawa, A, Sasaki, N, Yasuda, H, Yamashita, T, Koiwa, H, Kato, K, Ejiri, S, Plant Biothechnology, 23, 357 - 364
  • Interaction between elongation factors 1 beta and 1 gamma from Bombyx mori silk gland, K Kamiie, T Yamashita, H Taira, SI Kidou, SI Ejir, BIOSCIENCE BIOTECHNOLOGY AND BIOCHEMISTRY, 67, (7) 1522 - 1529, 07 , Elongation factor 1 (EF-1) from the silk gland of Bombyx mori consists of four subunits: alpha (51 kDa), beta (26 kDa), gamma (49 kDa), and delta (33 kDa). The EF-1alpha subunit catalyzes the binding of aminoacyl-tRNA to the ribosome concomitant with the hydrolysis of GTP. The EF-1alpha-bound GDP is then exchanged for GTP by the EF-1betagammadelta complex. To facilitate analysis of the roles of the individual EF-1beta, gamma, and delta subunits in GDP/GTP exchange on EF-1alpha, we cloned the cDNAs for these subunits and expressed them in Escherichia coli. EF-1,6, EF-1gamma, and the carboxyl-terminal half of EF-1delta were expressed, purified, and examined for protein:protein interactions by gel filtration chromatography and by a quartz-crystal microbalance method. An 80-kDa species containing EF-1beta and gamma subunits in a 1:1 molar ratio was detected by gel filtration. A higher molecular weight species containing an excess of EF-1gamma relative to EF-1beta was also detected. The amino-terminal region of EF-1beta (amino acid residues 1-129) was sufficient for binding to EF-1gamma. The carboxyl-terminal half of EF-1delta did not appear to form a complex with EF-1gamma.
  • Molecular cloning of the wheat CK2 alpha gene and detection of its linkage with Vrn-A1 on chromosome 5A, K Kato, S Kidou, H Miura, S Sawada, THEORETICAL AND APPLIED GENETICS, 104, (6-7) 1071 - 1077, 05 , The casein kinase CK2 is one of the major multifunctional protein kinases in cells that is expressed ubiquitously and is essential for survival. The alpha-subunit of CK2 is thought to be involved in light-regulated gene expression and rhythmic expression of genes by circadian rhythm in plants. The rice chromosome-3 region containing the photoperiod-response Hd6 gene, an orthologue of the CK2alpha genes of Arabidopsis and maize, is in synteny with the wheat chromosome-5A Vrn-Al region. This evidence proposes two possibilities, first the wheat Vrn-Al is an orthologue of the rice CK2alpha, and second the wheat CK2alpha which has not yet been identified is located independently but tightly linked to Vrn-Al. To clarify whether the wheat CK2alpha gene is conserved in the Vrn-Al region and to elucidate the above two possibilities, we attempted to isolate this gene from the wheat cDNA library and to map it on the chromosome-5A region that is syntenous to the rice Hd6 region. The isolated cDNA clone showed an extremely high homology with the Arabidopsis CK2alpha gene. Using this clone as a probe genomic Southern-blot analyses of the aneuploid lines available in Chinese Spring assigned the wheat homologue of CK2alpha to the long arm of chromosome 5A. Furthermore, a linkage analysis using an F-2 population having recombination in the Vrn-Al region revealed that the wheat CK2alpha, designated as tck2a, is tightly linked to Vrn-Al by 1.1 cM.
  • Cloning and expression of Bombyx mori silk gland elongation factor 1gamma in Escherichia coli. Biosci Biotechnol Biochem, Kamiie, K, Nomura, Y, Kobayashi, S, Taira, H, Kobayashi, K, Matsuzawa, H, Yamashita, T, Kidou, S, Ejiri, S, Biosci Biotechnol Biochem., 66, 558 - 565
  • Detection and characterization of glutathione S-transferase activity in rice EF-1 beta beta 'gamma and EF-1 gamma expressed in Escherichia coli, S Kobayashi, S Kidou, S Ejiri, BIOCHEMICAL AND BIOPHYSICAL RESEARCH COMMUNICATIONS, 288, (3) 509 - 514, 11 , Plant elongation factor EF-1 consists of four subunits (EF-1 alpha beta beta ' gamma). EF-1 alpha -GTP catalyses the binding of aminoacyl-tRNA to the ribosome. EF-1 beta and EF-1 beta ' catalyze the GDP/GTP exchange on EF-1 alpha. GDP. However, the function of EF-1 gamma, a subunit detected in eukaryotes, but not in prokaryotes remained unknown. This report demonstrates that rice EF-1 beta beta ' gamma and recombinant EF-1 gamma possess glutathione S-transferase (GST) activity. The EF-1 beta beta ' gamma- or EF-1 gamma -dependent GST activity is about one-fiftieth of the rice GST activity. The K-m values of EF-1 beta beta ' gamma, EF-1 gamma, and rice GST for glutathione and 1-chloro-2,4-dinitrobenzene are of about the same order. Although recombinant EF-1 gamma is heat labile, active EF-1 gamma was obtained by purifying it in the presence of 20% glycerol. (C) 2001 Academic Press.
  • Genomic organization, chromosomal localization and promoter analysis of the mouse MAIL gene., Shiina, T, Morimatsu, M, Kitamura, H, Ito, T, Kidou, S, Matsubara, K, Matsuda, Y, Saiti, M, Syuto, B, Immunogenetics, 53, 643 - 648
  • Expression of elongation factor 1 beta ' in Escherichia coli and its interaction with elongation factor 1 alpha from silk gland, K Kamiie, H Taira, K Kobayashi, T Yamashita, S Kidou, S Ejiri, BIOSCIENCE BIOTECHNOLOGY AND BIOCHEMISTRY, 63, (4) 666 - 671, 04 , Silk gland elongation factor 1 (EF-1) consists of four subunits: alpha, beta, beta', and gamma. EF-1 beta beta'gamma catalyzes the exchange of GDP for GTP on EF-1 alpha and stimulates the binding of EF-1 alpha-dependent aminoacyl-tRNA to ribosomes. The carboxy-terminal regions of the EF-1 beta subunits from various species are highly conserved. We examined the region of EF-1 beta' that binds to EF-1 alpha by in vitro binding assays, and examined the GDP/GTP exchange activity using deletion mutants of a GST-EF1 beta' fusion protein. We thereby suggested a pivotal amino acid region, residues 189-222, of EF-1 beta' for binding to EF-1 alpha.
  • A novel variant of translation elongation factor-1 beta: isolation and characterization of the rice gene encoding EF-1 beta 2, Y Terui, K Tsutsumi, S Kidou, T Sawazaki, Y Kuroiwa, M Yamaki, S Ejiri, BIOCHIMICA ET BIOPHYSICA ACTA-GENE STRUCTURE AND EXPRESSION, 1442, (2-3) 369 - 372, 11 , A rice gene encoding a novel isoform of translation elongation factor-1 beta subunit (termed EF-1 beta 2) was isolated and characterized. The gene comprises of eight exons, and encodes a 226-amino-acid protein. Expression of EF-1 beta 2 mRNA is abundant in seeds and cultured cells, but is considerably low in the tissues of the rice seedling. Antiserum raised against an EF-1 beta 2 synthetic peptide detected a protein with a relative molecular mass of about 32 kDa, indicating the EF-1 beta 2 gene is actually expressed in rice tissues. EF-1 beta 2 showed a close similarity to the cognate subunits from plant (beta and beta'). (C) 1998 Elsevier Science B.V. All rights reserved.
  • Isolation and characterization of a rice cDNA encoding the gamma-subunit of translation elongation factor 1B (eEF1B gamma), S Kidou, S Tsukamoto, S Kobayashi, S Ejiri, FEBS LETTERS, 434, (3) 382 - 386, 09 , We isolated a rice cDNA clone (refg) encoding the gamma-subunit of translation elongation factor 1B (eEF-1B gamma; the old designation was EF-1 gamma). The refg encodes an open reading frame of 419 amino acids which shows a similarity to the equivalent sequences from animals and yeast. Complex formation analysis, which showed the recombinant protein of refg (His-eEF1B gamma) and formed a complex,vith GST-eEF-1B beta, indicated that the refg encodes rice eEF1B gamma of the eEF1B alpha beta gamma complex. Expression analysis showed that refg mRNA is very abundant in suspension-cultured cells during the exponential phase of growth, A DNA blot analysis indicated that refg is located at a single locus in the rice genome. (C) 1998 Federation of European Biochemical Societies.
  • Expressed sequence tags of cDNA libraries in higher plants., Kidou, S, Umeda, M, Uchimiya, H, Plant Tissue Culture Lett., 12, 1 - 7
  • The primary structure of two proteins from the large ribosomal subunit of rice., Nishi, R, Kidou, S, Uchimiya, H, Kato, A, Biochim. Biophys. Acta, 1216, 110 - 112
  • Plant cDNA homologue to rat insulinoma gene encoding ribosomal protein S15., Kidou, S, Umeda, M, Kato, A, Uchimiya, H, Nucl. Acids Res., 21

Books etc

  • Biomass to Biofuels: strategies for global industries, Wiley UK,   2010
  • 遺伝子発現研究法, 学会出版センター,   2000

Conference Activities & Talks

  • Isolation and functional analysis of novel cold-induced barley CISP genes., Ying, M, Kidou, S, TAIWAN-Japan 2017 Plant Biology Conference,   2017 11 03
  • Newly isolated P23k homologue in responsive to sugar transport and metabolism in Brachypodium distachyon., Taode, B, Okugawa, S, Ying, M, Yokkoyama, Y, Kidou, S, TAIWAN-Japan 2017 Plant Biology Conference,   2017 11 03
  • PHD finger protein aHiTAP1 is a novel flowering regulator of Arabidopsis., Yokoyama, Y, Kidou, S, TAIWAN-Japan 2017 Plant Biology Conference,   2017 11 03
  • A putative function of a barley protein, P23k, in the synthesis of cell wall polysaccharides., WANG, J, Kuroda, Y, Kidou, S, International association of plant biotechnology congress 2014,   2014 08 10
  • PHD fingerをコードするシロイヌナズナの遺伝子At4g23860の機能解析, 第36回日本分子生物学会年会,   2013 12 03
  • オオムギの新規低温応答遺伝子HiA1の発現解析, 第36回日本分子生物学会年会,   2013 12 03
  • A putative physiological function of a grasses-unique 23kDa protein, P23k, in barley., Kidou, S, International Symposium on Biodiversity Sciences,   2010 07 31 , Invited
  • オオムギβ-グルカン合成関与遺伝子の単離と機能解明, 新農業展開ゲノムプロジェクト会議,   2010 01 22
  • Virus-induced gene silencing of P23k in barley leaf reveals morphological changes involved in secondary wall formation., Yoshida, K, Kidou, S, 6th International Triticeae Symposium,   2009 05 31
  • Functional analysis of the barley P23k protein by virus-induced gene silencing., Oikawa, A, Kidou, S, The 5th international symposium of rice functional genomics,   2007 10 15
  • Molecular analyses of genes regulating flowering in apple., Kotoda, N, Mimida, N, Kidou, S, Igasaki, T, Nishiguchi, M, Iwanami, H, Takahashi, S, Moriya, S, Abe K, 104th Annual International Conference of the American Society for Horticultural Science Hort.Science,   2007 07 16
  • Virus-induced gene silencing of P23k in barley leaf reveals morphological changes involved in secondary wall formation., Oikawa, A, Rahman A, Kidou, S, Plant Biology&Botany 2007 joint congress,   2007 07 07
  • Jasmonate-induced 23kD protein (JIP-23) is involved in seed development of barley., Oikawa, A, Uemura A, Kidou, S, Iwate Plant Science Symposium,   2006 06 18
  • P23k relates to the sugar supply at various developmental stages in barley., Oikawa, A, Kidou, S, 20th IUBMB International Congress of Biochemistry and Molecular Biology and 11th FAOBMB Congress,   2006 06 18
  • Identification of a novel barley 23kDa protein (P23k) related to the sugar supply in germinating seeds, Shibasaki, K, Oikawa, A, Kidou, S, 20th IUBMB International Congress of Biochemistry and Molecular Biology and 11th FAOBMB Congress,   2006 06 18
  • A 23kDa barley 23kDa protein is up-regulated by sugars at various developmental stages., Oikawa, A, Kidou, S, 10th International Congress of SABRAO,   2005 08 22
  • Expression of a 23kDa protein is up-regulated by sugars at various developmental stages in barley., Oikawa, A, Kidou, S, The Gordon Research Conference (GRC) on Temperature Stress in Plants,   2005 01 30
  • Expression pattern of apple homologues of floral meristem identity gene LFY and AP1 during flower development in apple., Kotoda, N, Wada, M, Komori, S, Kidou, S, Abe, K, Masuda, T, Soejima, J, XVI International Botanical Congress,   1999 08 01
  • Characterization of rice CK2a and b subunits., P.Muszynski, S.Kobayashi, S.Kidou, S.Ejiri,   1999 05 29

Research Grants & Projects

  • βーグルカンをバイオマス資源として有効利用するための基盤研究,   2010 04  - 2013 03
  • イネの小分げつ突然変異体を用いた分げつ関連遺伝子の同定と機能解析,   2006 04  - 2009 03
  • 寒冷地適応型植物の低温依存的な花成誘導機構を解明する, 文部科学省, 海外派遣先進プログラム経費,   2004 04  - 2005 03

Social Contribution Activities Information

Social Contribution

  • 理学で説く、植物と人間の暮らし・健康「植物の栽培化と品種改良の歴史」, Lecturer,   2019 06 01  - 2019 06 01
  • 暮らしに役立つ植物の二次代謝産物, Lecturer,   2018 11 15  - 2018 11 15 , 模擬講義「暮らしに役立つ植物の二次代謝産物」を行う。
  • あるタンパク質の機能が知りたくて, Lecturer,   2018 11 15  - 2018 11 15 , 模擬講義「あるタンパク質の機能が知りたくて」を行う。
  • イネ科植物特異的遺伝子の機能が知りたくて, Lecturer,   2018 09 25  - 2018 09 25 , サイエンス特別講義「愛知県立瑞陵高等学校」を行う。
  • PCRを利用した植物の多型解析, Lecturer,   2018 07 27  - 2018 07 27 , まるごと研究室体験「PCRを利用した植物の多型解析」を行う。
  • 植物の二次代謝産物, Lecturer,   2018 07 03  - 2018 07 03 , 模擬講義「植物の二次代謝産物」を行う。
  • 健康と植物性食品「豊かな暮らしを支える香気成分」, Lecturer,   2018 06 02  - 2018 06 02 , 講演「健康と植物性食品〜豊かな暮らしを支える香気成分〜」を行う。
  • 健康と植物性食品「医薬品になった低分子化合物」, Lecturer,   2018 05 26  - 2018 05 26 , 講演「健康と植物性食品〜医薬品になった低分子化合物〜」を行う。
  • 樹木DNA解析, Lecturer,   2017 07 29  - 2017 07 29 , 講義と実験実習「樹木DNA解析」を行う。
  • PCRを利用した植物の同定, Lecturer,   2017 07 26  - 2017 07 26 , まるごと研究室体験「PCRを利用した植物の同定」を行う。
  • PCRを利用した植物の多型解析, Lecturer,   2015 07 07  - 2017 07 07 , スーパーサイエンス講義「PCRを利用した植物の多型解析」を行う。
  • 植物のすがた・形と働き:葉と花(2), Lecturer,   2017 06 03  - 2017 06 03 , 講演「植物のすがた・形と働き:葉と花(2)」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer,   2017 05 31  - 2017 05 31 , サイエンス特別講義「顕微鏡〜生命科学分野における利用〜」を行う。
  • 植物のすがた・形と働き:葉と花(1), Lecturer,   2017 05 27  - 2017 05 27 , 講演「植物のすがた・形と働き:葉と花(1)」を行う。
  • 優れた生物の能力「植物の環境適応能力」, Lecturer,   2017 05 21  - 2017 05 21 , 講演「優れた生物の能力〜植物の環境適応能力〜」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Panelist,   2017 05 10  - 2017 05 10 , サイエンス特別講義「顕微鏡〜生命科学分野における利用〜」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2017 04 19  - 2017 04 19
  • 私の研究紹介, Lecturer,   2017 04 19  - 2017 04 19 , サイエンス特別講義「私の研究紹介」を行う。
  • 花を取り巻く植物の話, Lecturer,   2017 01 20  - 2017 01 20 , 講演「花を取り巻く植物の話」を行う。
  • 光の科学「植物と光」, Lecturer,   2017 01 05  - 2017 01 05 , 講演「光の化学〜植物と光〜」を行う。
  • 樹木DNA解析, Lecturer,   2016 07 29  - 2016 07 29 , 講義と実験実習「樹木DNA解析」を行う。
  • 電子顕微鏡体験実習, Lecturer,   2016 06 01  - 2016 06 01 , 電子顕微鏡に関する体験実習を実施する。
  • 自然を生き抜く植物の知恵〜重力との戦い, Lecturer,   2016 05 28  - 2016 05 28 , 講演「自然を生き抜く植物の知恵〜重力との戦い」を行う。
  • 電子顕微鏡体験実習, Lecturer,   2016 05 11  - 2016 05 11 , 電子顕微鏡に関する体験実習を実施する。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer,   2016 04 20  - 2016 04 20 , 講義「顕微鏡〜生命科学分野における利用〜」を行う。
  • 生命の発生と進化を考える「生き物の進化:植物」, Lecturer,   2016 02 29  - 2016 02 29 , 講演「生命の発生と進化を考える「生き物の進化:植物」を行う。
  • 植物の環境応答, Lecturer,   2015 06 06  - 2015 06 06 , 講演「植物の環境応答」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer,   2015 06 03  - 2015 06 03
  • 私たちの暮らしを支える植物の能力, Lecturer,   2015 05 15  - 2015 05 15 , 講演「私たちの暮らしを支える植物の能力」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2015 05 13  - 2015 05 13
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2015 04 15  - 2015 04 15
  • 和食のエッセンス「調味料」, Lecturer, 名古屋市緑化センター,   2014 06 14  - 2014 06 14
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2014 05 28  - 2014 05 28 , 実習「電子顕微鏡」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2014 05 07  - 2014 05 07 , 実習「電子顕微鏡」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2014 04 23  - 2014 04 23 , 講演「顕微鏡〜生命科学分野における利用〜」を行う。
  • 温度と植物の生活, Lecturer, 名古屋市,   2013 12 12  - 2013 12 12 , 講演「温度と植物の生活」を行う。
  • 植物と発酵食品, Lecturer, 名古屋市緑化センター,   2013 06 01  - 2013 06 01 , 講演「植物と発酵食品」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2013 05 29  - 2013 05 29 , 実習「電子顕微鏡」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2013 05 08  - 2013 05 08 , 実習「電子顕微鏡」を行う。
  • 顕微鏡〜生命科学分野における利用〜, Lecturer, 愛知県立瑞陵高等学校,   2013 04 24  - 2013 04 24 , 講演「顕微鏡〜生命科学分野における利用〜」を行う。
  • 植物の環境適応戦略, Lecturer, 大学,   2013 01 18  - 2013 01 18 , 講演「植物の環境適応戦略」を行う。
  • 光と植物の生活, Lecturer,   2012 10 18  - 2012 10 18 , 講演「光と植物の生活」を行う。
  • 遺伝子組換え技術と植物, Lecturer, 愛知県立瑞陵高等学校,   2012 07 06  - 2012 07 06 , 講演「遺伝子組換え技術と植物」を行う。
  • 農作物としての植物, Lecturer, 名古屋市緑化センター,   2012 06 02  - 2012 06 02 , 講演「農作物としての植物」を行う。
  • 植物は光や温度を感じて花を咲かせる, Lecturer, 名古屋市緑化センター,   2011 06 11  - 2011 06 11 , 講演「植物は光や温度を感じて花を咲かせる」を行う。
  • 生物の多様性をDNAで観察する, Lecturer, 名古屋市立大学,   2010 11 06  - 2010 11 06 , 実験「植物の多様性をDNAで観察する」を行う。
  • 人類の未来を支える植物バイオテクノロジー, Lecturer, 大学,   2010 08 20  - 2010 08 20 , 講演「人類の未来を支える植物バイオテクノロジー」を行う。
  • 暮らしの中の遺伝子組換え植物, Lecturer, 名古屋市緑化センター,   2010 07 03  - 2010 07 03 , 講演「暮らしの中の遺伝子組み換え作物」を行う。
  • オオムギの春化機構に関与する因子の同定, Lecturer,   1998 09 04  - 1998 09 05


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