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ISHIZAKI KimitsuneGraduate School of Science / Division of BiologyProfessor
Researcher basic information
■ Research news- 21 Oct. 2019, Researchers discover the ‘KARAPPO’ gene and illuminate how plants reproduce through cloning
■ Research Areas
■ Committee History
- Jun. 2024 - Present, 日本植物学会, 代議員
- Jan. 2018 - Present, 日本植物生理学会, 代議員
- Jan. 2024 - Dec. 2025, 近畿植物学会, 会計幹事
- Jan. 2020 - Dec. 2023, 日本植物学会, Journal of Plant Research編集実行委員
- Jun. 2018 - Jun. 2022, 日本植物学会, 代議員
- Aug. 2019 - Jul. 2021, 文部科学省, 学術調査官
- Mar. 2017 - Feb. 2021, 日本農芸化学会, 和文誌「化学と生物」編集委員
- Jan. 2017 - Dec. 2020, 日本植物生理学会, Plant and Cell Physiology編集委員
- Jan. 2015 - Dec. 2019, 日本植物学会, Journal of Plant Research編集委員
- Jun. 2013 - Mar. 2018, 文部科学省科学技術政策研究所科学技術動向研究センター, 専門調査員
Research activity information
■ Award- Mar. 2016 日本農芸化学会, BBB Most Cited Paper Award, Efficient Agrobacterium-mediated transformation of the liverwort Marchantia polymorpha using regenerating thalli. Bioscience, Biotechnology, and Biochemistry Vol.77, No.1, pp.167~172論文発表後2年間で最も引用回数が多かった。Official journal
- Mar. 2015 The Japanese Society of Plant Physiologists, The Japanese Society of Plant Physiologists, 基部陸上植物ゼニゴケにおける器官発生制御機構の解析International society
- Mar. 2014 Japan Society for Bioscience, Biotechnology, and Agrochemistry, BBB論文賞, Efficient Agrobacterium-Mediated Transformation of the Liverwort Marchantia polymorpha Using Regenerating Thalli., Bioscience, Biotechnology, and Biochemistry Vol. 77 (2013) No. 1 p. 16Official journal
- Sep. 2013 日本植物学会, JPR論文賞, Visualization of auxin-mediated transcriptional activation using a common auxin-responsive reporter system in the liverwort Marchantia polymorpha.Ishizaki et al. (2012)は、陸上植物の発生過程で重要なはたらきをするオーキシンによる分子制御機構が、すでに非維管束植物であるゼニゴケで始まっていたことを示す論文です。モデル植物であるシロイヌナズナで得られた知見をいかして、植物生理学の重要課題に進化の視点から切り込んだ優れた論文です。Official journal
- Apr. 2013 Japan Society for Bioscience, Biotechnology, and Agrochemistry, JSBBA Award for Young Scientists, 光合成生物における生存戦略の分子機構に関する研究Japan society
- Plants adapted to life on land by developing diverse anatomical features across lineages. The molecular basis of these innovations often involves the emergence of new genes or establishing new connections between conserved elements, though evidence for evolutionary genetic circuit rewiring remains scarce. Here, we show that the thermospermine-dependent pathway regulating vascular cell proliferation in Arabidopsis thaliana operates as two distinct modules with different functions in the bryophyte Marchantia polymorpha. One module controls dichotomous branching at meristems, while the other one modulates gemmae and rhizoid production in the thallus. Heterologous assays and comparative expression analyses reveal that the molecular links between these modules, forming a unified circuit in vascular plants, emerged early in tracheophyte evolution. Our results illustrate how the thermospermine-dependent circuit elements followed two divergent evolutionary trajectories in bryophytes and tracheophytes, eventually influencing distinct developmental processes.Dec. 2024, Developmental Cell, English, International magazine[Refereed]Scientific journal
- InArabidopsis thaliana, REDUCED LATERAL ROOT FORMATION (RLF), a cytochromeb5-like heme-binding domain (Cytb5-HBD) protein, is necessary for proper lateral root formation. Whereas the other Cytb5-HBD proteins inA. thalianaregulate different metabolic reactions, RLF is unique as it specifically regulates organ development. However, it remains unknown whether heme binding to RLF is necessary for its function, and whetherRLForthologs in different plant species also regulate organ development. We demonstrate that RLF binds to hemein vitroand that the two histidine residues, which are conserved among Cytb5-HBD, are crucial for both heme binding and its biological function inA. thaliana. In addition, MpRLF, aRLFortholog inMarchantia polymorpha, rescues the lateral root formation phenotype of theA. thaliana rlfmutant. Mprlfge, the loss-of-function mutation in the MpRLF, resulted in delayed thallus growth and inhibited both gemma cup and antheridiophore formation. Transcriptome analysis using Mprlfgerevealed that MpRLFaffects several metabolic pathways. Our findings indicate that MpRLFis essential for vegetative and reproductive development inM. polymorpha, suggesting that the RLF-dependent redox reaction systems are evolutionarily conserved as crucial mechanisms for organ development across diverse plant species.Cold Spring Harbor Laboratory, Sep. 2024
- Chloroplasts accumulate on the cell surface under weak light conditions to efficiently capture light but avoid strong light to minimize photodamage. The blue light receptor phototropin regulates the chloroplast movement in various plant species. In Arabidopsis thaliana, phototropin mediates the light-induced chloroplast movement and positioning via specialized actin filaments on the chloroplasts, chloroplast-actin filaments. KINESIN-LIKE PROTEIN FOR ACTIN-BASED CHLOROPLAST MOVEMENT (KAC) and CHLOROPLAST UNUSUAL POSITIONING 1 (CHUP1) are pivotal for chloroplast-actin-based chloroplast movement and positioning in land plants. However, the mechanisms by which KAC and CHUP1 regulate chloroplast movement and positioning remain unclear. In this study, we characterized KAC and CHUP1 orthologs in the liverwort Marchantia polymorpha, MpKAC and MpCHUP1, respectively. Their knockout mutants, Mpkack° and Mpchup1k°, impaired the light-induced chloroplast movement. Although Mpchup1k° showed mild chloroplast aggregation, Mpkack° displayed severe chloroplast aggregation, suggesting the greater contribution of MpKAC to the chloroplast anchorage to the plasma membrane. Analysis of the subcellular localization of the functional MpKAC-Citrine indicated that MpKAC-Citrine formed a punctate structure on the plasma membrane. Structure-function analysis of MpKAC revealed that a deletion of the conserved C-terminal domain abrogates the targeting to the plasma membrane and its function. A deletion of the N-terminal motor domain retained the plasma membrane targeting but abrogates the formation of punctate structure and showed severe defect in the light-induced chloroplast movement. Our findings suggest that the formation of the punctate structure on the plasma membrane of MpKAC is essential for chloroplast movement.Aug. 2024, Plant & Cell Physiology, 65(11) (11), 1787 - 1800, English, Domestic magazine[Refereed]Scientific journal
- Abstract Land plants have evolved many systems to adapt to a wide range of environmental stresses. In seed plants, oligogalactolipid synthesis is involved in tolerance to freezing and dehydration, but it has not been analyzed in non-vascular plants. Here we analyzed trigalactosyldiacylglycerol (TGDG) synthesis in Marchantia polymorpha. TGDG is synthesized by galactolipid: galactolipid galactosyltransferase [GGGT; SENSITIVE TO FREEZING2 (SFR2) in Arabidopsis]. We analyzed the subcellular localization and GGGT activity of two M. polymorpha SFR2 homologs (MpGGGT1 and MpGGGT2, each as a GFP-fusion protein) using a transient expression system in Nicotiana benthamiana leaves and found that MpGGGT1-GFP localized in the chloroplast envelope membrane. We produced mutants Mpgggt1 and Mpgggt2 and found that TGDG did not accumulate in Mpgggt1 upon treatment of the thallus with acetic acid. Moreover, growth of Mpgggt1 mutants was impaired by acetic acid treatment. Microscopy revealed that the acetic acid treatment of M. polymorpha plants damaged intracellular membranes. The fact that the effect was similar for wild-type and Mpgggt1 plants suggested that MpGGGT has a role in recovery from damage. These results indicate that MpGGGT plays a crucial role in M. polymorpha growth under conditions of acid stress, which may have been encountered during the ancient terrestrial colonization of plants.Springer Science and Business Media LLC, Aug. 2024, Journal of Plant Research, 137, 1115 - 1126, English[Refereed]Scientific journal
- In Catharanthus roseus, monoterpenoid indole alkaloids (MIAs) are produced through the cooperation of four cell types, with final products accumulating in specialized cells known as idioblasts and laticifers. To explore the relationship between cellular differentiation and cell type-specific MIA metabolism, we analyzed the expression of MIA biosynthesis in germinating seeds. Embryos from immature and mature seeds were observed via stereomicroscopy, fluorescence microscopy, and electron microscopy. Time-series MIA and iridoid quantification, along with transcriptome analysis, were conducted to determine the initiation of MIA biosynthesis. In addition, the localization of MIAs was examined using alkaloid staining and imaging mass spectrometry (IMS). Laticifers were present in embryos before seed maturation. MIA biosynthesis commenced 12 h after germination. MIAs accumulated in laticifers of embryos following seed germination, and MIA metabolism is induced after germination in a tissue-specific manner. These findings suggest that cellular morphological differentiation precedes metabolic differentiation. Considering the well-known toxicity and defense role of MIAs in matured plants, MIAs may be an important defense strategy already in the delicate developmental phase of seed germination, and biosynthesis and accumulation of MIAs may require the tissue and cellular differentiation.May 2024, New Phytologist, 242(3) (3), 1156 - 1171, English, International magazine[Refereed]Scientific journal
- Apr. 2024, Nature Plants, 10(未定) (未定), 未定 - 未定, English[Refereed]Scientific journal
- Rho/Rac of plant (ROP) GTPases are a plant-specific subfamily of Rho small GTP-binding proteins that function as molecular switches by being converted to the active state by guanine nucleotide exchange factors (GEFs) and to the inactive state by GTPase-activating proteins (GAPs). The bryophyteMarchantia polymorphacontains single-copy genes encoding ROP (MpROP), two types of GEFs (ROPGEF and SPIKE (SPK)), and two types of GAPs (ROPGAP and ROP enhancer (REN)). MpROP regulates the development of various organs, including the air chambers, rhizoids, and clonal propagule gemmae. While the sole PRONE-type ROPGEF, KARAPPO (MpKAR), plays an essential role in gemma initiation, little is known about thein-plantafunctions of other ROP regulatory factors inM. polymorpha. In this study, we focused on the functions of two types of GAPs: MpROPGAP and MpREN. Loss-of-function Mprengesingle mutants showed pleiotropic defects in thallus growth, air chamber formation, rhizoid tip growth, and gemma development, whereas MpROPGAP mutants showed no detectable abnormalities. Despite the distinctive domain structures of MpROPGAP and MpREN, MpropgapgeMprengedouble mutants showed more severe phenotypes than the Mprengesingle mutants, suggesting redundant functions of MpROPGAP and MpREN in gametophyte organogenesis. Interestingly, overexpression of MpROPGAP, MpREN, anddominant-negativeMpROP(MpROPDN) resulted in similar air chamber defects, as well as loss-of-function of MpRENand MpROPGAPand overexpression ofconstitutively activeMpROP(MpROPCA), suggesting importance of activation/inactivation cycling (or balancing) of MpROP. Furthermore, we proved the contributions of the sole DOCK family GEF, MpSPK, to MpROP-regulated air chamber formation. In summary, our results demonstrate a significant role of the two GAPs in the development of various organs and that the two GEFs are responsible for organogenesis through the control of the MpROP active/inactive cycle in the vegetative growth ofM. polymorpha.Cold Spring Harbor Laboratory, Apr. 2024
- Abstract Main conclusion The phosphatidic acid phosphohydrolase of Marchantia polymorpha modulates plastid glycolipid synthesis through the ER pathway and is essential for normal plant development regardless of nutrient availability. Abstract Membrane lipid remodeling is one of the strategies plant cells use to secure inorganic phosphate (Pi) for plant growth, but many aspects of the molecular mechanism and its regulation remain unclear. Here we analyzed membrane lipid remodeling using a non-vascular plant, Marchantia polymorpha. The lipid composition and fatty acid profile during Pi starvation in M. polymorpha revealed a decrease in phospholipids and an increase in both galactolipids and betaine lipids. In Arabidopsis thaliana, phosphatidic acid phosphohydrolase (PAH) is involved in phospholipid degradation and is crucial for tolerance to both Pi and nitrogen starvation. We produced two M. polymorpha PAH (MpPAH) knockout mutants (Mppah-1 and Mppah-2) and found that, unlike Arabidopsis mutants, Mppah impaired plant growth with shorter rhizoids compared with wild-type plants even under nutrient-replete conditions. Mutation of MpPAH did not significantly affect the mole percent of each glycerolipid among total membrane glycerolipids from whole plants under both Pi-replete and Pi-deficient conditions. However, the fatty acid composition of monogalactosyldiacylglycerol indicated that the amount of plastid glycolipids produced through the endoplasmic reticulum pathway was suppressed in Mppah mutants. Phospholipids accumulated in the mutants under N starvation. These results reveal that MpPAH modulates plastid glycolipid synthesis through the endoplasmic reticulum pathway more so than what has been observed for Arabidopsis PAH; moreover, unlike Arabidopsis, MpPAH is crucial for M. polymorpha growth regardless of nutrient availability.Springer Science and Business Media LLC, Oct. 2023, Planta, 258(5) (5), 92, English[Refereed]Scientific journal
- Abstract Lateral root (LR) formation is an important developmental event for the establishment of the root system in most vascular plants. In Arabidopsis thaliana, the fewer roots (fwr) mutation in the GNOM gene, encoding a guanine nucleotide exchange factor of ADP ribosylation factor that regulates vesicle trafficking, severely inhibits LR formation. Local accumulation of auxin response for LR initiation is severely affected in fwr. To better understand how local accumulation of auxin response for LR initiation is regulated, we identified a mutation, fewer roots suppressor1 (fsp1), that partially restores LR formation in fwr. The gene responsible for fsp1 was identified as SUPERROOT2 (SUR2), encoding CYP83B1 that positions at the metabolic branch point in the biosynthesis of auxin/indole-3-acetic acid (IAA) and indole glucosinolate. The fsp1 mutation increases both endogenous IAA levels and the number of the sites where auxin response locally accumulates prior to LR formation in fwr. SUR2 is expressed in the pericycle of the differentiation zone and in the apical meristem in roots. Time-lapse imaging of the auxin response revealed that local accumulation of auxin response is more stable in fsp1. These results suggest that SUR2/CYP83B1 affects LR founder cell formation at the xylem pole pericycle cells where auxin accumulates. Analysis of the genetic interaction between SUR2 and GNOM indicates the importance of stabilization of local auxin accumulation sites for LR initiation.Oxford University Press (OUP), Jul. 2023, Plant & Cell Physiology, 64(10) (10), 1178 - 1188, English[Refereed]Scientific journal
- Abstract Sterols are essential components of eukaryotic cell membranes. However, studies on sterol biosynthesis in bryophytes are limited. This study analyzed the sterol profiles in the bryophyte model plant Marchantia polymorpha L. The thalli contained typical phytosterols such as campesterol, sitosterol and stigmasterol. BLASTX analysis of the M. polymorpha genome against the Arabidopsis thaliana sterol biosynthetic genes confirmed the presence of all the enzymes responsible for sterol biosynthesis in M. polymorpha. We further focused on characterizing two genes, MpDWF5A and MpDWF5B, which showed high homology with A. thaliana DWF5, encoding Δ5,7-sterol Δ7-reductase (C7R). Functional analysis using a yeast expression system revealed that MpDWF5A converted 7-dehydrocholesterol to cholesterol, indicating that MpDWF5A is a C7R. Mpdwf5a-knockout (Mpdwf5a-ko) lines were constructed using CRISPR/Cas9-mediated genome editing. Gas chromatography–mass spectrometry analysis of Mpdwf5a-ko revealed that phytosterols such as campesterol, sitosterol and stigmasterol disappeared, and instead, the corresponding Δ7-type sterols accumulated. The thalli of Mpdwf5a-ko grew smaller than those of the wild type, and excessive formation of apical meristem in the thalli was observed. In addition, the gemma cups of the Mpdwf5a-ko were incomplete, and only a limited number of gemma formations were observed. Treatment with 1 µM of castasterone or 6-deoxocastasterone, a bioactive brassinosteroid (BR), partly restored some of these abnormal phenotypes, but far from complete recovery. These results indicate that MpDWF5A is essential for the normal growth and development of M. polymorpha and suggest that the dwarfism caused by the Mpdwf5a-ko defect is due to the deficiency of typical phytosterols and, in part, a BR-like compound derived from phytosterols.Oxford University Press (OUP), May 2023, Plant & Cell Physiology, 64(7) (7), 826 - 838, English[Refereed]Scientific journal
- Plants produce sugars by photosynthesis and use them for growth and development. Sugars are transported from source-to-sink organs via the phloem in the vasculature. It is well known that vascular development is precisely controlled by plant hormones and peptide hormones. However, the role of sugars in the regulation of vascular development is poorly understood. In this study, we examined the effects of sugars on vascular cell differentiation using a vascular cell induction system named Vascular cell Induction culture System Using Arabidopsis Leaves (VISUAL). We found that sucrose has the strongest inhibitory effect on xylem differentiation among several types of sugars. Transcriptome analysis revealed that sucrose suppresses xylem and phloem differentiation from cambial cells. Physiological and genetic analysis suggested that sucrose might function through the BES1 transcription factor, which is the central regulator of vascular cell differentiation. Conditional overexpression of cytosolic invertase led to a decrease in the number of cambium layers due to an imbalance between cell division and differentiation. Taken together, our results suggest that sucrose potentially acts as a signal that integrates environmental conditions with the developmental program.May 2023, Plant & Cell Physiology, English, Domestic magazine[Refereed]Scientific journal
- Wiley, Mar. 2023, Physiologia Plantarum, 175(2) (2), e13898, English[Refereed]Scientific journal
- Wiley, Jan. 2023, New Phytologist, 237(2) (2), 615 - 630[Refereed]Scientific journal
- Abstract Cytokinin, a plant hormone, plays essential roles in organ growth and development. The type-B response regulator-mediated cytokinin signaling is repressed by type-A response regulators and is conserved in the liverwort Marchantia polymorpha. Its signal coordinates the development of diverse organs on the thallus body, such as the gemma cup, rhizoid, and air pores. Here we report that the type-B response regulator MpRRB upregulates the expression of the R2R3-MYB transcription factor GEMMA CUP-ASSOCIATED MYB1 (MpGCAM1) in M. polymorpha. Whereas both Mpgcam1 and Mprrb knockout mutants exhibited defects in gemma cup formation, the Mpgcam1 Mprra double mutant, in which cytokinin signaling is activated due to the lack of type-A response regulator, also formed no gemma cups. This suggests that MpGCAM1 functions downstream of cytokinin signaling. Inducible overexpression of MpGCAM1 produced undifferentiated cell clumps on the thalli of both wild-type and Mprrb. However, smaller thalli were formed in Mprrb compared to the wild-type after the cessation of overexpression. These results suggest that cytokinin signaling promotes gemma cup formation and cellular reprogramming through MpGCAM1, while cytokinin signals also participate in activating cell division during thallus development.Springer Science and Business Media LLC, Dec. 2022, Scientific Reports, 12(1) (1), 21123, English[Refereed]Scientific journal
- Elsevier BV, Dec. 2022, Molecular Plant, 15(12) (12), 1889 - 1907, English[Refereed]Scientific journal
- The liverwort Marchantia polymorpha has been utilized as a model for biological studies since the 18th century. In the past few decades there has been a Renaissance in its utilization in genomic and genetic approaches to investigating physiological, developmental, and evolutionary aspects of land plant biology. The reasons for its adoption are similar to those of other genetic models, e.g. simple cultivation, ready access via its worldwide distribution, ease of crossing, facile genetics, and more recently, efficient transformation, genome editing, and genomic resources. The haploid gametophyte dominant life cycle of M. polymorpha is conducive to forward genetic approaches. The lack of ancient whole-genome duplications within liverworts facilitates reverse genetic approaches, and possibly related to this genomic stability, liverworts possess sex chromosomes that evolved in the ancestral liverwort. As a representative of one of the three bryophyte lineages, its phylogenetic position allows comparative approaches to provide insights into ancestral land plants. Given the karyotype and genome stability within liverworts, the resources developed for M. polymorpha have facilitated the development of related species as models for biological processes lacking in M. polymorpha.Aug. 2022, The Plant Cell, 34(10) (10), 3512 - 3542, English, International magazine[Refereed]Scientific journal
- Phytohormone abscisic acid (ABA) plays a key role in stomata closure, osmostress acclimation, and vegetative and embryonic dormancy. Group B3 Raf protein kinases (B3-Rafs) serve as positive regulators of ABA and osmostress signaling in the moss Physcomitrium patens and the angiosperm Arabidopsis thaliana. While P. patens has a single B3-Raf called ARK, specific members of B3-Rafs among six paralogs regulate ABA and osmostress signaling in A. thaliana, indicating functional diversification of B3-Rafs in angiosperms. However, we found that the liverwort Marchantia polymorpha, belonging to another class of bryophytes, has three paralogs of B3-Rafs, MpARK1, MpARK2, and MpARK3, with structural variations in the regulatory domains of the polypeptides. By reporter assays of the P. patens ark line and analysis of genome-editing lines of M. polymorpha, we found that these B3-Rafs are functionally redundant in ABA response, with respect to inhibition of growth, tolerance to desiccation and expression of stress-associated transcripts, the majority of which are under the control of the PYR/PYL/RCAR-like receptor MpPYL1. Interestingly, gemmae in gemma cups were germinating only in mutant lines associated with MpARK1, indicating that dormancy in the gametophyte is controlled by a specific B3-Raf paralog. These results indicated not only conservation of the role of B3-Rafs in ABA and osmostress response in liverworts but also functional diversification of B3-Rafs, which is likely to have occurred in the early stages of land plant evolution.Frontiers Media SA, Jul. 2022, Frontiers in Plant Science, 13, 952820, English[Refereed]Scientific journal
- K+/Na+ homeostasis is important for land plants, particularly under salt stress. In this study, the structure and ion transport properties of the high-affinity K+ transporter (HKT) of the liverwort Marchantia polymorpha were investigated. Only one HKT gene, MpHKT1, was identified in the genome of M. polymorpha. Phylogenetic analysis of HKT proteins revealed that non-seed plants possess HKTs grouped into a clade independent of the other two clades including HKTs of angiosperms. A distinct long hydrophilic domain was found in the C-terminus of MpHKT1. Complementary DNA (cDNA) of truncated MpHKT1 (t-MpHKT1) encoding the MpHKT_Δ596-812 protein was used to examine the functions of the C-terminal domain. Both MpHKT1 transporters fused with enhanced green fluorescent protein at the N-terminus were localized to the plasma membrane when expressed in rice protoplasts. Two-electrode voltage clamp experiments using Xenopus laevis oocytes indicated that MpHKT1 mediated the transport of monovalent alkali cations with higher selectivity for Na+ and K+, but truncation of the C-terminal domain significantly reduced the transport activity with a decrease in the Na+ permeability. Overexpression of MpHKT1 or t-MpHKT1 in M. polymorpha conferred accumulation of higher Na+ levels and showed higher Na+ uptake rates, compared to those of wild-type plants; however, phenotypes with t-MpHKT1 were consistently weaker than those with MpHKT1. Together, these findings suggest that the hydrophilic C-terminal domain plays a unique role in the regulation of transport activity and ion selectivity of MpHKT1.Jun. 2022, Plant & Cell Physiology, 63(6) (6), 802 - 816, English, Domestic magazine[Refereed]Scientific journal
- Wiley, Apr. 2022, Plant, Cell & Environment, English[Refereed]Scientific journal
- Japanese Society for Plant Cell and Molecular Biology, Mar. 2022, Plant Biotechnology, 39(1) (1), 65 - 72Scientific journal
- The development of the plant body starts with spore germination in bryophytes. In many cases, the first division of the spore occurs after germination and cell elongation of the spore. In Marchantia polymorpha, asymmetric division occurs upon spore germination to generate two daughter cells: the larger one retains the ability to divide and develops into the thallus via sporeling or protonema, while the smaller one maintains tip growth and differentiates into the first rhizoid, providing a scaffold for initial development. Although spore germination of M. polymorpha was described in the 19th century, the intracellular processes of the first asymmetric division of the spore have not been well characterized. In this study, we used live-cell imaging analyses to elucidate microtubule dynamics during the first asymmetric division concomitantly with germination. In particular, we demonstrated that the preprophase band was not formed in the spore and that the bipolar prospindle, which is a microtubule structure surrounding the nucleus during prophase, migrated from the center to the periphery in the spore, suggesting that it was the earliest visible sign of cell polarity. We also showed that the occurrence of asymmetric division depended on actin filaments. Our findings regarding the first division of the spore in M. polymorpha will lead to a better model for cell-autonomous asymmetric division in plants.Japanese Society for Plant Cell and Molecular Biology, Mar. 2022, Plant Biotechnology, 39(1) (1), 5 - 12, English, Domestic magazine[Refereed]Scientific journal
- Bioactive specialized (secondary) metabolites are indispensable for plant development or adjustment to their surrounding environment. In many plants, these specialized metabolites are accumulated in specifically differentiated cells. Catharanthus roseus is a well-known medicinal plant known for producing many kinds of monoterpenoid indole alkaloids (MIAs). C. roseus has two types of specifically differentiated cells accumulating MIAs, so-called idioblast cells and laticifer cells. In this study, we compared each of the cells as they changed during seedling growth, and found that the fluorescent metabolites accumulated in these cells were differentially regulated. Analysis of fluorescent compounds revealed that the fluorescence observed in these cells was emitted from the compound serpentine. Further, we found that the serpentine content of leaves increased as leaves grew. Our findings suggest that idioblast cells and laticifer cells have different biological roles in MIA biosynthesis and its regulation.Mar. 2022, Journal of Plant Research, 135(3) (3), 473 - 483, English, Domestic magazine[Refereed]Scientific journal
- Abstract KARRIKIN INSENSITIVE2 (KAI2) was first identified as a receptor of karrikins, smoke-derived germination stimulants. KAI2 is also considered a receptor of an unidentified endogenous molecule called the KAI2 ligand. Upon KAI2 activation, signals are transmitted through the degradation of D53/SMXL proteins via MAX2-dependent ubiquitination. Although components in the KAI2-dependent signaling pathway, namely MpKAI2A and MpKAI2B, MpMAX2, and MpSMXL, exist in the genome of the liverwort Marchantia polymorpha, their functions remain unknown. Here, we show that early thallus growth is retarded and gemma dormancy in the dark is suppressed in Mpkai2a and Mpmax2 loss-of-function mutants. These defects are counteracted in Mpkai2a Mpsmxl and Mpmax2 Mpsmxl double mutants indicating that MpKAI2A, MpMAX2, and MpSMXL act in the same genetic pathway. Introduction of MpSMXLd53, in which a domain required for degradation is mutated, into wild-type plants mimicks Mpkai2a and Mpmax2 plants. In addition, the detection of citrine fluorescence in Nicotiana benthamiana cells transiently expressing a SMXL-Citrine fusion protein requires treatment with MG132, a proteasome inhibitor. These findings imply that MpSMXL is subjected to degradation, and that the degradation of MpSMXL is crucial for MpKAI2A-dependent signaling in M. polymorpha. Therefore, we claim that the basic mechanisms in the KAI2-dependent signaling pathway are conserved in M. polymorpha.Oxford University Press (OUP), Aug. 2021, The Plant Cell, 33(7) (7), 2395 - 2411, English, International magazine[Refereed]Scientific journal
- Bryophytes occupy a basal position in the monophyletic evolution of land plants and have a life cycle in which the gametophyte generation dominates over the sporophyte generation, offering a significant advantage in conducting genetics. Owing to its low genetic redundancy and the availability of an array of versatile molecular tools, including efficient genome editing, the liverwort Marchantia polymorpha has become a model organism of choice that provides clues to the mechanisms underlying eco-evo-devo biology in plants. Recent analyses of developmental mutants have revealed that key genes in developmental processes are functionally well conserved in plants, despite their morphological differences, and that lineage-specific evolution occurred by neo/subfunctionalization of common ancestral genes. We suggest that M. polymorpha is an excellent platform to uncover the conserved and diversified mechanisms underlying land plant development. Expected final online publication date for the Annual Review of Plant Biology, Volume 72 is May 2021. Please see http://www.annualreviews.org/page/journal/pubdates for revised estimates.Annual Reviews, May 2021, Annual Review of Plant Biology, 72(1) (1), 677 - 702, English[Refereed][Invited]Scientific journal
- Phosphate (Pi) is a pivotal nutrient that constraints plant development and productivity in natural ecosystems. Land colonization by plants, more than 470 million years ago, evolved adaptive mechanisms to conquer Pi-scarce environments. However, little is known about the molecular basis underlying such adaptations at early branches of plant phylogeny. To shed light on how early divergent plants respond to Pi limitation, we analyzed the morpho-physiological and transcriptional dynamics of Marchantia polymorpha upon Pi starvation. Our phylogenomic analysis highlights some gene networks present since the Chlorophytes and others established in the Streptophytes (e.g., PHR1–SPX1 and STOP1–ALMT1, respectively). At the morpho-physiological level, the response is characterized by the induction of phosphatase activity, media acidification, accumulation of auronidins, reduction of internal Pi concentration, and developmental modifications of rhizoids. The transcriptional response involves the induction of MpPHR1, Pi transporters, lipid turnover enzymes, and MpMYB14, which is an essential transcription factor for auronidins biosynthesis. MpSTOP2 up-regulation correlates with expression changes in genes related to organic acid biosynthesis and transport, suggesting a preference for citrate exudation. An analysis of MpPHR1 binding sequences (P1BS) shows an enrichment of this cis regulatory element in differentially expressed genes. Our study unravels the strategies, at diverse levels of organization, exerted by M. polymorpha to cope with low Pi availability.MDPI AG, Nov. 2020, International Journal of Molecular Sciences, 21(21) (21), 8354 - 8354, English[Refereed]Scientific journal
- Elsevier BV, Oct. 2020, Current Biology, 30(19) (19), 3833 - 3840.e4, English[Refereed]Scientific journal
- Corresponding, Wiley, Oct. 2020, New Phytologist, 228(2) (2), 459 - 465, English[Refereed][Invited]Scientific journal
- Frontiers Media SA, Jul. 2020, Frontiers in Plant Science, 11[Refereed]Scientific journal
- Springer Science and Business Media LLC, May 2020, Nature Plants, 6(5) (5), 473 - 482[Refereed]Scientific journal
- Land plant shoot structures evolved a diversity of lateral organs as morphological adaptations to the terrestrial environment, with lateral organs arising independently in different lineages. Vascular plants and bryophytes (basally diverging land plants) develop lateral organs from meristems of sporophytes and gametophytes, respectively. Understanding the mechanisms of lateral organ development among divergent plant lineages is crucial for understanding the evolutionary process of morphological diversification of land plants. However, our current knowledge of lateral organ differentiation mechanisms comes almost entirely from studies of seed plants, and thus, it remains unclear how these lateral structures evolved and whether common regulatory mechanisms control the development of analogous lateral organs. Here, we performed a mutant screen in the liverwort Marchantia polymorpha, a bryophyte, which produces gametophyte axes with nonphotosynthetic scalelike lateral organs. We found that an Arabidopsis LIGHT-DEPENDENT SHORT HYPOCOTYLS 1 and Oryza G1 (ALOG) family protein, named M. polymorpha LATERAL ORGAN SUPRESSOR 1 (MpLOS1), regulates meristem maintenance and lateral organ development in Marchantia. A mutation in MpLOS1, preferentially expressed in lateral organs, induces lateral organs with misspecified identity and increased cell number and, furthermore, causes defects in apical meristem maintenance. Remarkably, MpLOS1 expression rescued the elongated spikelet phenotype of a MpLOS1 homolog in rice. This suggests that ALOG genes regulate the development of lateral organs in both gametophyte and sporophyte shoots by repressing cell divisions. We propose that the recruitment of ALOG-mediated growth repression was in part responsible for the convergent evolution of independently evolved lateral organs among highly divergent plant lineages, contributing to the morphological diversification of land plants.Dec. 2019, PLoS Biology, 17(12) (12), e3000560, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Elsevier BV, Nov. 2019, Current Biology, 29(23) (23), 3987 - 3995, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Many plants can reproduce vegetatively, producing clonal progeny from vegetative cells; however, little is known about the molecular mechanisms underlying this process. Liverwort (Marchantia polymorpha), a basal land plant, propagates asexually via gemmae, which are clonal plantlets formed in gemma cups on the dorsal side of the vegetative thallus [1]. The initial stage of gemma development involves elongation and asymmetric divisions of a specific type of epidermal cell, called a gemma initial, which forms on the floor of the gemma cup [2, 3]. To investigate the regulatory mechanism underlying gemma development, we focused on two allelic mutants in which no gemma initial formed; these mutants were named karappo, meaning "empty." We used whole-genome sequencing of both mutants and molecular genetic analysis to identify the causal gene, KARAPPO (KAR), which encodes a ROP guanine nucleotide exchange factor (RopGEF) carrying a plant-specific ROP nucleotide exchanger (PRONE) catalytic domain. In vitro GEF assays showed that the full-length KAR protein and the PRONE domain have significant GEF activity toward MpROP, the only ROP GTPase in M. polymorpha. Moreover, genetic complementation experiments showed a significant role for the N- and C-terminal variable regions in gemma development. Our investigation demonstrates an essential role for KAR/RopGEF in the initiation of plantlet development from a differentiated cell, which may involve cell-polarity formation and subsequent asymmetric cell division via activation of ROP signaling, implying a similar developmental mechanism in vegetative reproduction of various land plants.Oct. 2019, Current Biology, 29(20) (20), 3525 - 3531, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Catharanthus roseus is a medicinal plant well known for producing bioactive compounds such as vinblastine and vincristine, which are classified as terpenoid indole alkaloids (TIAs). Although the leaves of this plant are the main source of these antitumour drugs, much remains unknown on how TIAs are biosynthesised from a central precursor, strictosidine, to various TIAs in planta. Here, we have succeeded in showing, for the first time in leaf tissue of C. roseus, cell-specific TIAs localisation and accumulation with 10 μm spatial resolution Imaging mass spectrometry (Imaging MS) and live single-cell mass spectrometry (single-cell MS). These metabolomic studies revealed that most TIA precursors (iridoids) are localised in the epidermal cells, but major TIAs including serpentine and vindoline are localised instead in idioblast cells. Interestingly, the central TIA intermediate strictosidine also accumulates in both epidermal and idioblast cells of C. roseus. Moreover, we also found that vindoline accumulation increases in laticifer cells as the leaf expands. These discoveries highlight the complexity of intercellular localisation in plant specialised metabolism.Wiley, Oct. 2019, New Phytologist, 224(2) (2), 848 - 859, English, International magazine[Refereed]Scientific journal
- Cytokinins are known to regulate various physiological events in plants. Cytokinin signaling is mediated by the phosphorelay system, one of the most ancient mechanisms controlling hormonal pathways in plants. The liverwort Marchantia polymorpha possesses all components necessary for cytokinin signaling; however, whether they respond to cytokinins and how the signaling is fine-tuned remain largely unknown. Here, we report cytokinin function in Marchantia development and organ formation. Our measurement of cytokinin species revealed that cis-zeatin is the most abundant cytokinin in Marchantia. We reduced the endogenous cytokinin level by overexpressing the gene for cytokinin oxidase, MpCKX, which inactivates cytokinins, and generated overexpression and knockout lines for type-A (MpRRA) and type-B (MpRRB) response regulators to manipulate the signaling. The overexpression lines of MpCKX and MpRRA, and the knockout lines of MpRRB, shared phenotypes such as inhibition of gemma cup formation, enhanced rhizoid formation and hyponastic thallus growth. Conversely, the knockout lines of MpRRA produced more gemma cups and exhibited epinastic thallus growth. MpRRA expression was elevated by cytokinin treatment and reduced by knocking out MpRRB, suggesting that MpRRA is upregulated by the MpRRB-mediated cytokinin signaling, which is antagonized by MpRRA. Our findings indicate that when plants moved onto land they already deployed the negative feedback loop of cytokinin signaling, which has an indispensable role in organogenesis.Aug. 2019, Plant & Cell Physiology, 60(8) (8), 1842 - 1854, English, International magazine[Refereed]Scientific journal
- MAIN CONCLUSION: The physiological importance of MpUVR8 in UV-B resistance and translocation in a UV-B-dependent manner from the cytosol into the nucleus is characterized in Marchantia polymorpha. UV RESISTANCE LOCUS 8 (UVR8) is an ultraviolet-B (UV-B) light receptor functioning for UV-B sensing and tolerance in Arabidopsis thaliana and other species. It is unclear whether UVR8 physiologically functions in UV-B-induced defense responses in Marchantia polymorpha, which belongs to the earliest diverging group of embryophyte lineages. Here, we demonstrate that UVR8 has a physiological function in UV-B tolerance and that there is a UVR8-dependent pathway involved. In addition, a UVR8-independent pathway is revealed. We examine the tissue-specific expression pattern of M. polymorpha UVR8 (MpUVR8), showing that it is highly expressed in the apical notch in thalli and gametangiophores, as well as in antheridial and archegonial heads. Furthermore, Mpuvr8KO plant transformants, in which the MpUVR8 locus was disrupted, were produced and analyzed to understand the physiological and molecular function of MpUVR8. Analysis using these plants indicates the important roles of MpUVR8 and MpUVR8-regulated genes, and of MpUVR8-independent pathways in UV-B tolerance. Subcellular localization of Citrine-fused MpUVR8 in M. polymorpha cells was also investigated. It was found to translocate from the cytosol into the nucleus in response to UV-B irradiation. Our findings indicate strong conservation of the physiological function of UVR8 and the molecular mechanisms for UVR8-dependent signal transduction through regulation of gene expression in embryophytes.Springer Nature, May 2019, Planta, 249(5) (5), 1349 - 1364, English, International magazine[Refereed]Scientific journal
- Public Library of Science (PLoS), Mar. 2019, PLoS Genetics, 15(3) (3), e1997997 - e1007997, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Springer Science and Business Media LLC, Dec. 2018, Nature Communications, 9(1) (1), 5283, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Dec. 2018, Bioscience, Biotechnology, and Biochemistry, 82(12) (12), 2072 - 2083, English[Refereed]Scientific journal
- Springer Nature America, Inc, Nov. 2018, Journal of Plant Research, 131(6) (6), 1047 - 1054, English[Refereed]Scientific journal
- Elsevier {BV}, Nov. 2018, Current Biology, 28(22) (22), 3691 - 3699, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Last, Springer Tokyo, May 2018, Journal of Plant Research, 131(5) (5), 1 - 16, English, International magazine[Refereed]Scientific journal
- Tip growth is driven by turgor pressure and mediated by the polarized accumulation of cellular materials. How a single polarized growth site is established and maintained is unclear. Here, we analyzed the function of NIMA-related protein kinase 1 (MpNEK1) in the liverwort Marchantia polymorpha In the wild type, rhizoid cells differentiate from the ventral epidermis and elongate through tip growth to form hair-like protrusions. In Mpnek1 knockout mutants, rhizoids underwent frequent changes in growth direction, resulting in a twisted and/or spiral morphology. The functional MpNEK1-Citrine protein fusion localized to microtubule foci in the apical growing region of rhizoids. Mpnek1 knockouts exhibited increases in both microtubule density and bundling in the apical dome of rhizoids. Treatment with the microtubule-stabilizing drug taxol phenocopied the Mpnek1 knockout. These results suggest that MpNEK1 directs tip growth in rhizoids through microtubule organization. Furthermore, MpNEK1 expression rescued ectopic outgrowth of epidermal cells in the Arabidopsis thaliana nek6 mutant, strongly supporting an evolutionarily conserved NEK-dependent mechanism of directional growth. It is possible that such a mechanism contributed to the evolution of the early rooting system in land plants.Mar. 2018, Development (Cambridge, England), 145(5) (5), 1047 - 1054, English, International magazine[Refereed]Scientific journal
- Land plants differentiate germ cells in the haploid gametophyte. In flowering plants, a generative cell is specified as a precursor that subsequently divides into two sperm cells in the developing male gametophyte, pollen. Generative cell specification requires cell-cycle control and microtubule-dependent nuclear relocation (reviewed in [1-3]). However, the generative cell fate determinant and its evolutionary origin are still unknown. In bryophytes, gametophytes produce eggs and sperm in multicellular reproductive organs called archegonia and antheridia, respectively, or collectively called gametangia. Given the monophyletic origin of land plants [4-6], evolutionarily conserved mechanisms may play key roles in these diverse reproductive processes. Here, we showed that a single member of the subfamily VIIIa of basic helix-loop-helix (bHLH) transcription factors in the liverwort Marchantia polymorpha primarily accumulated in the initial cells and controlled their development into gametangia. We then demonstrated that an Arabidopsis thaliana VIIIa bHLH transiently accumulated in the smaller daughter cell after an asymmetric division of the meiosis-derived microspore and was required for generative cell specification redundantly with its paralog. Furthermore, these A. thaliana VIIIa bHLHs were functionally replaceable by the M. polymorpha VIIIa bHLH. These findings suggest the VIIIa bHLH proteins as core regulators for reproductive development, including germ cell differentiation, since an early stage of land plant evolution.Feb. 2018, Current Biology, 28(3) (3), 479 - 486, English, International magazine[Refereed]Scientific journal
- Nature Publishing Group, Dec. 2017, Scientific Reports, 7(1) (1), 4600, English[Refereed]Scientific journal
- The evolution of land flora transformed the terrestrial environment. Land plants evolved from an ancestral charophycean alga from which they inherited developmental, biochemical, and cell biological attributes. Additional biochemical and physiological adaptations to land, and a life cycle with an alternation between multicellular haploid and diploid generations that facilitated efficient dispersal of desiccation tolerant spores, evolved in the ancestral land plant. We analyzed the genome of the liverwort Marchantia polymorpha, a member of a basal land plant lineage. Relative to charophycean algae, land plant genomes are characterized by genes encoding novel biochemical pathways, new phytohormone signaling pathways (notably auxin), expanded repertoires of signaling pathways, and increased diversity in some transcription factor families. Compared with other sequenced land plants, M. polymorpha exhibits low genetic redundancy in most regulatory pathways, with this portion of its genome resembling that predicted for the ancestral land plant. PAPERCLIP.Oct. 2017, Cell, 171(2) (2), 287 - 304, English, International magazine, Co-authored internationally[Refereed]Scientific journal
- Oct. 2017, Plant & Cell Physiology, 58(10) (10), 1642 - 1651, English, Domestic magazine[Refereed]Scientific journal
- Sep. 2017, Plant & Cell Physiology, 58(9) (9), 1477 - 1485, English[Refereed]Scientific journal
- Sep. 2017, Physiologia Plantarum, 161(1) (1), 56 - 74, English[Refereed]Scientific journal
- Sep. 2017, Physiologia Plantarum, 161(1) (1), 138 - 149, English[Refereed]Scientific journal
- Jul. 2017, The Plant Journal, 91(2) (2), 306 - 324, English[Refereed]Scientific journal
- May 2017, Journal of Plant Research, 130(3) (3), 433 - 441, English[Refereed]Scientific journal
- Apr. 2017, Phytochemistry, 136, 46 - 55, English[Refereed]Scientific journal
- Mar. 2017, Plant Physiology, 173(3) (3), 1636 - 1647, English[Refereed]Scientific journal
- 2017, Bioscience, Biotechnology, and Biochemistry, 81(1) (1), 73 - 80, English[Refereed]Scientific journal
- Jul. 2016, New Phytologist, 211(2) (2), 569 - 583, English[Refereed]Scientific journal
- Jul. 2016, Current Biology : CB, 26(13) (13), 1775 - 1781, English[Refereed]Scientific journal
- Jun. 2016, The Plant Cell, 28(6) (6), 1406 - 1421, English[Refereed]Scientific journal
- Apr. 2016, Proceedings of the National Academy of Sciences of the United States of America, 113(14) (14), 3891 - 3896, English[Refereed]Scientific journal
- Apr. 2016, Physiologia Plantarum, 156(4) (4), 407 - 420, English[Refereed]Scientific journal
- Feb. 2016, Plant & Cell Physiology, 57(2) (2), 300 - 306, English[Refereed]Scientific journal
- While Marchantia polymorpha has been utilized as a model system to investigate fundamental biological questions for over almost two centuries, there is renewed interest in M. polymorpha as a model genetic organism in the genomics era. Here we outline community guidelines for M. polymorpha gene and transgene nomenclature, and we anticipate that these guidelines will promote consistency and reduce both redundancy and confusion in the scientific literature.Oxford University Press ({OUP}), Feb. 2016, Plant & Cell Physiology, 57(2) (2), 257 - 61, English, Domestic magazine[Refereed]Scientific journal
- Feb. 2016, Plant & Cell Physiology, 57(2) (2), 325 - 338, English[Refereed]Scientific journal
- Feb. 2016, Plant & Cell Physiology, 57(2) (2), 307 - 324, English[Refereed]Scientific journal
- Feb. 2016, Plant & Cell Physiology, 57(2) (2), 359 - 372, English[Refereed]Scientific journal
- Lead, Feb. 2016, Plant & Cell Physiology, 57(2) (2), 262 - 270, English[Refereed]Scientific journal
- Feb. 2016, Plant & Cell Physiology, 57(2) (2), 339 - 358, English[Refereed]Scientific journal
- Jan. 2016, Current Biology, 26(1) (1), 93 - 99, English[Refereed]Scientific journal
- Nov. 2015, Planta, 242(5) (5), 1175 - 1186, English[Refereed]Scientific journal
- Sep. 2015, Phytochemistry, 117, 547 - 553, English[Refereed]Scientific journal
- Lead, Sep. 2015, PLOS ONE, 10(9) (9), e0138876, English[Refereed]Scientific journal
- Aug. 2015, Phytochemistry, 116, 48 - 56, English[Refereed]Scientific journal
- Jul. 2015, Plant & Cell Physiology, 56(7) (7), 1297 - 1305, English[Refereed][Invited]Scientific journal
- Jul. 2015, Trends in Plant Science, 20(7) (7), 419 - 425, English[Refereed]Scientific journal
- Jul. 2015, Frontiers in Plant Science, 6, 497, English[Refereed]Scientific journal
- Kato H, Ishizaki K, Kouno M, Shirakawa M, Bowman JL, Nishihama R, Kohchi T, PLoS genetics, 2015, vol. 11, no. 6, pp. e1005365Jun. 2015, PLoS Genetics, 11(6) (6), e1005365, English[Refereed]Scientific journal
- Jun. 2015, The Plant Cell, 27(6) (6), 1650 - 1669, English[Refereed]Scientific journal
- May 2015, Journal of Plant Research, 128(3) (3), 407 - 421, English[Refereed]Scientific journal
- May 2015, PLoS Genetics, 11(5) (5), e1005084., English[Refereed]Scientific journal
- Mar. 2015, Plant Biotechnology, 32(1) (1), 65 - 79, English[Refereed]Scientific journal
- Mar. 2015, Current Biology, 25(7) (7), 928 - 935, English[Refereed]Scientific journal
- Elsevier {BV}, 2015, Cryobiology, 71(3) (3), 560[Refereed]
- Nov. 2014, Phytochemistry, 107, 42 - 49, English[Refereed]Scientific journal
- Sep. 2014, Plant Physiology, 166(1) (1), 411 - U598, English[Refereed]Scientific journal
- Apr. 2014, Nature Communications, 5, 3668, English[Refereed]Scientific journal
- Apr. 2014, Transgenic Research, 23(2) (2), 235 - 244, English[Refereed]Scientific journal
- Oct. 2013, The Plant Cell, 25(10) (10), 4075 - 4084, English[Refereed]Scientific journal
- Oct. 2013, Plant & Cell Physiology, 54(10) (10), 1736 - 1748, English[Refereed]Scientific journal
- Aug. 2013, Plant, Cell & Environment, 36(8) (8), 1520 - 1528, English[Refereed]Scientific journal
- 2013, Genome Biology and Evolution, 5(10) (10), 1836 - 1848, English[Refereed]Scientific journal
- 2013, Scientific Reports, 3, 1532, English[Refereed]Scientific journal
- Jan. 2013, Bioscience, Biotechnology, and Biochemistry, 77(1) (1), 167 - 172, English[Refereed]Scientific journal
- Nov. 2012, The Plant Journal, 72(4) (4), 683 - 693, English[Refereed]Scientific journal
- Lead, Sep. 2012, Journal of Plant Research, 125(5) (5), 643 - 651, English[Refereed]Scientific journal
- Jun. 2012, Plant Physiology, 159(2) (2), 826 - +, English[Refereed]Scientific journal
- Sep. 2011, Plant Physiology, 157(1) (1), 55 - 69, English[Refereed]Scientific journal
- Sep. 2011, Trends in Plant Science, 16(9) (9), 489 - 498, English[Refereed]Scientific journal
- May 2010, The Plant Cell, 22(5) (5), 1549 - 1563, English[Refereed]Scientific journal
- Mar. 2010, Plant Physiology, 152(3) (3), 1529 - 1543, English[Refereed]Scientific journal
- Jun. 2009, Plant & Cell Physiology, 50(6) (6), 1041 - 1048, English[Refereed]Scientific journal
- Mar. 2009, PROCEEDINGS OF THE JAPAN ACADEMY SERIES B-PHYSICAL AND BIOLOGICAL SCIENCES, 85(3) (3), 108 - 124, English[Refereed]Scientific journal
- Sep. 2008, Plant Cell Reports, 27(9) (9), 1467 - 1473, English[Refereed]Scientific journal
- Lead, Jul. 2008, Plant & Cell Physiology, 49(7) (7), 1084 - 1091, English[Refereed]Scientific journal
- Apr. 2007, Proceedings of the National Academy of Sciences of the United States of America, 104(15) (15), 6472 - 6477, English[Refereed]Scientific journal
- Lead, Sep. 2006, The Plant Journal, 47(5) (5), 751 - 760, English[Refereed]Scientific journal
- Lead, Sep. 2005, The Plant Cell, 17(9) (9), 2587 - 2600, English[Refereed]Scientific journal
- May 2005, The Plant Journal, 42(4) (4), 567 - 585, English[Refereed]Scientific journal
- 2003, Chromosome Research, 11(7) (7), 695 - 703, English[Refereed]Scientific journal
- Lead, Nov. 2002, Nucleic Acids Research, 30(21) (21), 4675 - 4681, English[Refereed]Scientific journal
- Jul. 2001, Proceedings of the National Academy of Sciences of the United States of America, 98(16) (16), 9454 - 9459, English[Refereed]Scientific journal
- Apr. 2001, Proceedings of the National Academy of Sciences of the United States of America, 98(9) (9), 5347 - 5352, English[Refereed]Scientific journal
- Jun. 1998, Canadian Journal of Botany, 76(6) (6), 1092 - 1097, English[Refereed]Scientific journal
- Last, Mar. 2023, アグリバイオ, 7(3) (3), 12 - 15, JapaneseTechnical platform for metabolic engineering in a bryophyte Marchantia polymorpha[Invited]Introduction scientific journal
- 25 Apr. 2022, bioRxiv, 488978
- Corresponding, Sep. 2020, 化学と生物, 58(9) (9), 502 - 504, Japanese庭の厄介者ゼニゴケがクローン個体をつくり繁殖する仕組み[Refereed]
- Lead, Japanese Biochemical Society, Apr. 2014, Seikagaku, 86(4) (4), 508 - 512, JapaneseRole of E3 ubiquitin ligase in formation of intercellular spaces in plants[Refereed]Book review
- 2013, 植物科学の最前線, Japanese基部陸上植物の光応答戦略−フィトクロムを介した光形態形成の分子機構−
- 日本生物工学会, 2012, 生物工学会誌 : seibutsu-kogaku kaishi, 90(9) (9), 600 - 603, Japaneseゼニゴケ(研究室の片隅で生き物への愛を語る,生物材料インデックス)Introduction scientific journal
- 2010, 日本植物学会大会研究発表記録, 74th陸上植物に固有の転写因子LFY
- 2010, 日本植物学会大会研究発表記録, 74th苔類ゼニゴケにおけるPEBP family遺伝子の機能解析
- 2010, 日本植物学会大会研究発表記録, 74th苔類ゼニゴケにおけるLEAFY相同遺伝子MpLFYの機能解析
- 2010, 日本植物生理学会、 第51回年会、於 熊本大学、2010年3月, Japanese[Refereed]
- Mar. 2009, Low Temperature Science, 67, 23 - 29, Japanese[Invited]
- Agrobacterium-mediated transformation of the liverwort Marchantia polymorpha L.苔類ゼニゴケは,アグロバクテリウムを介する形質転換が容易である.胞子から培養した分化初期の葉状体を使うことによって,1胞子嚢あたり数百の独立した形質転換体が短期間で作成できる.世代の大半が半数体であることや無性芽による純系化といった特徴を生かしたユニークな実験が可能となった.Here we describe a rapid Agrobacterium-mediated transformation protocol for the liverwort, Marchantia polymorpha L. using immature thalli developed from spores. This protocol should provide molecular techniques to facilitate comparative genomics, taking advantage of this unique model plant that retains many features of the common ancestor of land plants.光合成研究法. 北海道大学低温科学研究所, 日本光合成研究会共編北海道大学低温科学研究所 = Institute of Low Temperature Science, Hokkaido University, 2008, Low temperature science, 67, 597 - 600, Japanese
- Contributor, 第1章「植物の起源と進化」, 化学同人, Apr. 2019, Japanese植物生理学 第2版Textbook
- Joint translation, 東京化学同人, Sep. 2014, Japanese, 「第15章 遺伝子からタンパク質へ」の翻訳を行った。, ISBN: 9784807908523ケイン生物学 第5版Textbook
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseCausal gene identification of the air chamber-less mutant zunberabo in the liverwort Marchantia polymorphaPoster presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseRegulatory mechanisms of DNA damage response and meristem maintenance via RNA m6A modificationOral presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseA transient cytokinin response maximum completes bifacial vascular stem cells for radial growthOral presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseAuxin-inducible LBD transcription factors suppress shoot regeneration in phytohormone-induced callusOral presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseFunctional Characterization of a Splicing Variant from the MpHKT1 Gene Encoding a Na+-permeable Channel in the Liverwort Marchantia polymorphaPoster presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapanesePhenotypic analyses of the loss-of-function mutants of f- and m-type thioredoxin in Marchantia polymorphaPoster presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseMorphological and physiological studies on the assimilatory filaments in the liverwort Marchantia polymorphaPoster presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseAnalysis of phospholipid degradation mechanism under phosphate starvation in Marchantia polymorphaPoster presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseLeaf position and season-dependent changes in transcriptome and ionome analysis of field-grown poplar cuttingsOral presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseAn R2R3-MYB transcription factor, SHOT GLASS promotes gemma cup development and FR-induced gametangiophore formation in the liverwort Marchantia polymorphaOral presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseAnalysis of leaf position-dependent phosphorus allocation in a deciduous woody plant Populus alba L.Poster presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseR2R3-MYB transcription factors facilitate regeneration from decapitated explants in the liverwort Marchantia polymorphaOral presentation
- The 66th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2025, JapaneseEvolutionary conserved RLF, a plant cytochrome b5-like heme-binding protein, is essential for proper organ development in Marchantia polymorphaOral presentation
- コケ幹細胞研究会2024, Dec. 2024, Japaneseゼニゴケの栄養成長における幹細胞制御〜GCAM1まわりの研究から見えてきたこと〜Public symposium
- International Marchantia Workshop 2024, Nov. 2024, EnglishDevelopmental roles of WIP, the evolutionarily conserved auxin-responsive transcription factorOral presentation
- International Marchantia Workshop 2024, Nov. 2024, EnglishR2R3-MYB transcription factors promote regeneration from decapitated explants in the liverwort Marchantia polymorphaPoster presentation
- 園芸学会令和6年度秋季大会, Nov. 2024, Japanese新規機能性野菜としての‘ゼニゴケ’栽培研究Oral presentation
- 日本生物環境工学会2024年大阪大会, Sep. 2024, Japanese新たな農作物資源としての‘ゼニゴケ’栽培技術の開発Oral presentation
- 日本植物学会第88回大会, Sep. 2024, Japaneseジャスモン酸による維管束幹細胞分化制御機構の解析Poster presentation
- 日本植物学会第88回大会, Sep. 2024, Japanese二次成長の開始における維管束組織系の幹細胞活性化機構Poster presentation
- 日本植物学会第88回大会, Sep. 2024, Japaneseゼニゴケ葉状体の形態形成におけるROP-GDP解離阻害因子の機能解析Poster presentation
- 日本植物学会第88回大会, Sep. 2024, Japanese苔類ゼニゴケにおける転写因子WIP過剰発現株の解析Poster presentation
- 日本植物学会第88回大会, Sep. 2024, Japanese苔類ゼニゴケにおける気室および同化糸の形成異常株の解析Poster presentation
- 日本植物学会第88回大会, Sep. 2024, Japanese根とシュートの発生に異常を示すシロイヌナズナ amb2 変異体の解析Oral presentation
- 日本植物学会第88回大会, Sep. 2024, Japaneseメリステム維持に異常を示すシロイヌナズナ aberrant meristem behavior1 変異体における DNA 損傷応答の解析Oral presentation
- 日本植物学会第88回大会, Sep. 2024, Japanese非維管束植物ゼニゴケのリン吸収における仮根の役割についてOral presentation
- 日本植物学会第88回大会, Sep. 2024, Japaneseゼニゴケのシトクロム b5 様ヘム結合タンパク質 MpRLF は栄養成長と生殖成長における適切な発生に必要であるOral presentation
- 日本植物学会第88回大会, Sep. 2024, Japaneseゼニゴケの胞子発芽過程におけるROPの機能Oral presentation
- 第76回日本細胞生物学会大会, Jul. 2024コケ植物における芽の休眠について[Invited]Nominated symposium
- 日本農芸化学会2024年度大会, Mar. 2024, JapaneseElucidation of bisbibenzyl marchantins biosynthesis in Marchantia polymorphaOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, JapaneseGCAM1の標的遺伝子GROMはゼニゴケの杯状体形成だけでなく生殖器官の発生も制御するOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japanese苔類ゼニゴケの細胞膜H+-ATPaseによる形態形成制御の分子機構解析Oral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japaneseゼニゴケのシトクロムb5様ヘム結合タンパク質MpRLFは栄養成長と生殖成長における適切な発生に必要であるOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japaneseコケ植物ゼニゴケのリン吸収における仮根の機能についてOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japanese経時的遺伝子発現変化から理解する苔類ゼニゴケの胞子発芽過程Oral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, English維管束細胞分化を制御する糖シグナル伝達機構の解析Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, English根系パターンに異常を示すシロイヌナズナbird feather変異体の解析Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, English根の形態形成に異常を示す新たなシロイヌナズナ変異体の探索と解析Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, EnglishゼニゴケにおけるMarchantin類生合成経路遺伝子の探索Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, JapanesebHLH型転写因子MpHYPNOSはゼニゴケ無性芽の休眠を制御するOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Englishゼニゴケ雌雄株間での塩ストレス耐性の違いを決定する量的形質遺伝子座(QTLs)の探索Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, EnglishN6-メチルアデノシン(m6A)は植物のDNA損傷修復に必要か?Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, English維管束細胞の分化制御における概日時計関連遺伝子GIの機能解析Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Englishスクロースシグナリングは細胞分化を阻害することで維管束形成層の維持にはたらくPoster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, English非維管束植物ゼニゴケにおける液胞膜リン酸輸送体VPTの機能解析Poster presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, JapaneseシロイヌナズナSUR2/CYP83B1遺伝子の変異アリルfsp1は側根創始細胞形成の側方抑制に働くTOLS2ペプチドに対して低感受性を示すOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japanese維管束幹細胞の確立に関する新たな制御因子の探索と解析Oral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japanese側根形成に異常を示すシロイヌナズナlbd多重変異体を用いたカルス形成・シュート再生機構の解析Oral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japaneseメリステム維持に異常を示すシロイヌナズナaberrant meristem behavior1変異体におけるDNA損傷応答の解析Oral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japanese陸上植物におけるprospindleの形成機構と役割についてOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japanese一過的サイトカイニン応答は二次成長開始のプライミングシグナルとして機能するOral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, Japaneseゼニゴケにおける硝酸応答機構の解析Oral presentation
- 第65回日本植物生理学会年会(神戸), Mar. 2024, JapaneseゼニゴケCHLH遺伝子の変異はPPO阻害除草剤耐性を付与するOral presentation
- Taiwan-Japan Plant Biology 2023 (Taipei, Taiwan), Oct. 2023, EnglishMpHYPNOS regulates gemma dormancy in Marchantia polymorphaPoster presentation
- 第40回日本植物バイオテクノロジー学会, Sep. 2023, Japaneseゼニゴケの実用化に向けて ー食用ゼニゴケと合成生物学プラットフォームー[Invited]Nominated symposium
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japanese陸上植物においてオーキシンの下流で働く転写因子WIPの機能解析Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japaneseゼニゴケの器官形成を制御するROPシグナリングOral presentation
- Sep. 2023, Japanese植物の器官発生におけるシトクロムb5様ヘム結合タンパク質RLFの機能解析Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japaneseサイトカイニンは形成層幹細胞の活性化シグナルとして機能するOral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japanese側根形成に異常を示すシロイ ヌナズナlbd多重変異体を用いたカルス形成・シュート再生機構の解析Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japanese陸上植物における紡錘体軸および細胞分裂方向の制御機構Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japanese維管束細胞の分化制御における概日時計関連遺伝子GIの機能解析Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japaneseスクロースシグナルによる維管束幹細胞制御機構の解析Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, Japanese維管束幹細胞の確立に関する新たな制御因子の探索と分子機構の解析Oral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, JapaneseゼニゴケCHLH遺伝子の変異はPPO阻害除草剤耐性を付与するOral presentation
- 日本植物学会第87回大会(北海道大学工学部), Sep. 2023, JapaneseMpHYPNOSはABA依存的および非依存的に無性芽の休眠を制御するOral presentation
- 日本植物学会第87回大会(北海道大学−オンライン), Sep. 2023, Japanese根系パターンに異常を示すシロイヌナズナbird feather変異体の解析Poster presentation
- 日本植物学会第87回大会(北海道大学−オンライン), Sep. 2023, Japanese根の形態形成に異常を示す新たなシロイヌナズナ変異体の探索と解析Poster presentation
- 日本植物学会第87回大会(北海道大学−オンライン), Sep. 2023, Japanese非維管束植物ゼニゴケにおける液胞膜リン酸輸送体VPTの機能解析Poster presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishFunctional analysis of RLF, a cytochrome b5-like heme binding protein, in plant organ developmentOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishLeaf position and season-dependent transcriptome analysis of field-grown poplar cuttingsOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishRole of ROP signaling in the growth and organogenesis of Marchantia polymorphaOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishMpBZR3 regulates gametangium development in Marchantia polymorphaOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishMechanisms of MpHYPNOS-mediated gemma dormancy in Marchantia polymorphaOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishFunctional analysis of Non-specific phospholipase C in Marchantia polymorphaOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishThe role of MYBCC-SPX module in phosphate response of nonvascular plant Marchantia polymorphaOral presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishAnalysis of DNA damage response in a novel Arabidopsis mutant showing aberrant root and shoot developmentPoster presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishEstablishment of a vascular cell induction system using Ginkgo biloba leavesPoster presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishThe single MYB gene GROM is required for gemma cup formation of the liverwort Marchantia polymorpha as a direct target of GCAM1Poster presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishSUR2 Fine-tunes Local Auxin Distribution for Lateral Root Formation in Arabidopsis thalianaPoster presentation
- The 64th Annual Meeting of the Japanese Society of Plant Physiologists, Mar. 2023, EnglishAnalysis of oligogalactolipid synthesis and function in Marchantia polymorphaPoster presentation
- 第5回 コケ幹細胞研究会(服部植物研究所), Dec. 2022, JapaneseMpHYPNOSを介したゼニゴケ無性芽の休眠制御機構Oral presentation
- 第5回 コケ幹細胞研究会(服部植物研究所), Dec. 2022, Japaneseゼニゴケ胞子における不等分裂メカニズムOral presentation
- 第5回 コケ幹細胞研究会(服部植物研究所), Dec. 2022, Japaneseゼニゴケにおける栄養繁殖の分子機構Oral presentation
- EMBO workshop on "An Integrated View of Early Land Plant Evolution", Nov. 2022, EnglishG protein-signaling and metabolic pathways as evolutionarily conserved mechanisms to combat calcium deficiencyPoster presentation
- EMBO workshop on "An Integrated View of Early Land Plant Evolution", Nov. 2022, EnglishDormancy of vegetative propagules in a liverwort Marchantia polymorpha[Invited]Nominated symposium
- 日本植物学会第86回大会, Sep. 2022, Japanese根とシュートの成長・発生に異常を示すシロイヌ ナズナamb変異体におけるDNA損傷応答の解析Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japaneseゼニゴケのヘム結合タンパク質MpRLFは適切な葉状体と杯状体の形成に必要であるOral presentation
- 日本植物学会第86回大会, Sep. 2022, Japanese陸上植物におけるガス交換系の発生と環境への適応Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japaneseゼニゴケ無性芽の休眠を促進するMpHYPNOSの機能Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japaneseゼニゴケ配偶子器の発生におけるMpBZR3の役割Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japanese落葉木本植物ポプラにおける葉位ごとの季節的なシンク-ソース推移の解明Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japaneseコケ植物ゼニゴケの脅威の繁殖力を支える分子基盤[Invited]Nominated symposium
- 日本植物学会第86回大会, Sep. 2022, Japanese薬用植物ニチニチソウの種子発芽過程におけるアルカロイド代謝開始過程の解析Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japanese維管束幹細胞の分裂と分化を制御するサイトカイニンの機能と動態Oral presentation
- 日本植物学会第86回大会, Sep. 2022, Japanese糖シグナルによる維管束幹細胞制御機構の解析Poster presentation
- 日本植物学会第86回大会, Sep. 2022, Japaneseシロイヌナズナ側根形成変異体を用いたカルス形成機構の解析Poster presentation
- 日本植物学会第86回大会, Sep. 2022, JapanesePPO 阻害除草剤耐性ゼニゴケの単離と解析Poster presentation
- 日本植物学会第86回大会, Sep. 2022, Japaneseコケ植物ゼニゴケのリン欠乏応答を制御するMYBCC 型転写因子の機能解析Poster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishThe role of MYBCC-SPX module in phosphate starvation of nonvascular plant Marchantia polymorphaPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishFunctional analysis of WANDERING ROOT1 and WAD2 genes, rice DECUSSATE homologues, in Arabidopsis root system constructionPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishFunctional analysis of MpBZR3 on the regulation of gametangia development in Marchantia polymorphaPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishAnalysis of the regulatory mechanisms of root growth and development via the K+ efflux channel GORKPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishAnalysis of the Arabidopsis mutants showing altered response to the TOLS2 peptide, an inhibitor of lateral root formationPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishAnalysis of a novel Arabidopsis mutant showing abnormalities in root and shoot developmentPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishAsymmetric division in the spore of Marchantia polymorphaPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishInitiation process of monoterpenoid indole alkaloid biosynthesis during seed germination in Catharanthus roseusPoster presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishThe single MYB gene GROM regulates gemma cup formation of the liverwort Marchantia polymorphaOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishFunctional analysis of RLF, a cytochrome b5-like heme binding protein, in lateral root formationOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishThe fsp1/sur2 mutation that increases the auxin content restores lateral root formation in the fwr/gnom mutant of Arabidopsis thalianaOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishFunctional analysis of cytokinin in cell fate regulation of vascular stem cellsOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishRole of the microtubule-associated protein CORD in MarchantiaOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishMpHYPNOS-mediated regulatory mechanism of gemma dormancy in Marchantia polymorphaOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishMarchantia DWF5A which is responsible for sterol 7-position reduction reaction, is involved in the development of thallusOral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, EnglishEvolutionary conserved mechanisms of stem cell proliferation in land plants[Invited]Invited oral presentation
- 第63回 日本植物生理学会年会(つくば:オンライン), Mar. 2022, JapaneseThe analysis of the function of GPAT genes on surface lipid synthesis in Marchantia polymorphaOral presentation
- アイソトープ・放射線研究発表会, 2022, Japanese, 公益社団法人 日本アイソトープ協会32P及び33Pを用いた樹木の季節的なリン転流経路の可視化
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese基部陸上植物ゼニゴケにおけるリンの吸収・分配・貯蔵のメカニズムOral presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseゼニゴケ配偶子器の発生を制御する非典型BZR 転写因子Oral presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese陸上植物に保存されたオーキシン応答遺伝子WIP のゼニゴケにおける機能解析Oral presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021発光レポーター遺伝子を用いた側根プレパターニング変異体の単離と解析
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese側根形成能が顕著に低下するシロイヌナズナ変異体fwr とその抑圧変異体fsp1 の解析Oral presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese位置情報による維管束幹細胞の運命制御Oral presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseゼニゴケ器官形成におけるR2R3-MYB 転写因子SHOTGLASS の機能Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseカリウムイオン排出チャネルGORK を介した根の成長・発生制御機構の解析Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseゼニゴケ葉状体の形態形成におけるMpREN の機能解析Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseシロイヌナズナ側根形成を抑制するTOLS2 ペプチドに対する応答異常変異体の探索と解析Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseシロイヌナズナ側根形成を抑制するTOLS2 ペプチド低感受性変異体toti1 の解析Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese側根形成におけるシトクロムb5 様ヘム/ ステロイド結合タンパク質RLF の機能解析
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese根系構築に異常を示すシロイヌナズナ新規変異体の解析Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseゼニゴケの葉状体再生におけるGCAM1 およびGC1L の機能Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japanese基部陸上植物ゼニゴケのリン欠乏応答におけるMpMYBCC-MpSPX モジュールの機能Poster presentation
- 日本植物学会 第85回大会(八王子:オンライン), Sep. 2021, Japaneseゼニゴケ無性芽におけるMpHYPNOS を介した休眠制御Poster presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseIsolation and analysis of lateral root pre-patterning mutants using the luminescence reporter genePoster presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseAnalysis of fewer roots suppressor 1 (fsp1) in which the mutation suppresses the fewer roots (fwr) phenotype for lateral root formationOral presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseCell fate regulation of vascular stem cell via cytokinin signalingOral presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseAnalysis of changes in alkaloid metabolism during germination in Catharanthus roseusOral presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseFunctional analysis of a R2R3-MYB transcription factor SHOTGLASS in Marchantia polymorphaOral presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseFunctional characterization of LAX PANICLE2 homologous in the liverwort Marchantia polymorphaOral presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseThe roles of plant specific BZR transcription factors in Marchantia polymorphaOral presentation
- 第62回日本植物生理学会年会(松江:オンライン開催), Mar. 2021, JapaneseExploring the common mechanisms for stem cell propagation from vegetative reproduction of Marchantia polymorpha[Invited]Nominated symposium
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japanese無性芽形成に重要なKAR/RopGEFを制御する上流因子の探索Poster presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japanese薬用植物ニチニチソウをモデルとしたアルカロイド代謝分化過程の解析Poster presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japaneseポプラ短縮周年系を用いた季節的なリン転流機構の解明と野外RNA-seqとの比較Oral presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japaneseゼニゴケ仮根の先端成長におけるリン酸化とCa2+結合を介したROS生成酵素の活性制御機構Oral presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japaneseゼニゴケ側生器官形成を制御するMYB転写因子GCAM2の機能解析Oral presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japanese苔類ゼニゴケの杯状体形成に重要なsingle-MYBタンパク質の同定Oral presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japanese基部陸上植物ゼニゴケにおけるリン酸欠乏に応答した遺伝子転写制御Oral presentation
- 第84回日本植物学会大会(名古屋:オンライン開催), Sep. 2020, Japanese食虫植物の栄養認識機構の解析[Invited]Public symposium
- The Vassilios Sarafis OzBryo Meeting, Dec. 2019, English, Melbourne, Australia, International conferenceMarchantia polymorpha as a model for evolutionary biology[Invited]Invited oral presentation
- Australian Society of Plant Scientists Conference: ASPS 2019, Nov. 2019, English, Melbourne, Australia, International conferenceAn evolutionary conserved mechanism for production of secondary meristems in land plants[Invited]Invited oral presentation
- Marchantia Workshop 2019, Sep. 2019, English, Tohoku University, Sendai, Japan, Japan, International conferenceGEMMA CUP-ASSOCIATED MYB1, an orthologue of axillary meristem regulator, is essential for vegetative reproduction in the liverwort Marchantia polymorpha[Invited]Oral presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conference重イオンビーム照射胞子を用いたゼニゴケ配偶体形態形成変異体のスクリーニングと解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceレポーター遺伝子を用いたシロイヌナズナ側根プレパターニング機構の解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceシロイヌナズナ側根形成能が顕著に低下するfewer roots変異体のサプレッサー変異体の解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceゼニゴケ形態形成におけるRopGAPの機能解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceニチニチソウ乳管細胞・異形細胞の発生,分化,代謝変動の解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conference基部陸上植物ゼニゴケにおけるリン応答と転流の解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceゼニゴケ組織分化へのBZR 転写因子ファミリーの寄与Oral presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceゼニゴケ無性芽形成に機能するRopおよびRopGEFの細胞内局在解析Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceゼニゴケ頂端分裂組織の細胞分裂・分化制御におけるROS生成酵素MpRbohの役割Poster presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conference根系の光環境が植物のリン酸応答に与える影響Oral presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese生育土壌の違いによる植物体イオノームの変動―植物体から生 育場所を推定できるか?―[Invited]Oral presentation
- 日本植物学会第83回大会, Sep. 2019, JapaneseE3リガーゼNOPPERABO1は細胞壁の再構築を介して陸上植物 の通気組織形成を制御するOral presentation
- 日本植物学会第83回大会, Sep. 2019, Japanese, 仙台, Japan, Domestic conferenceTOLS2ペプチドによる側根形成関連遺伝子の発現制御に異常を 示す変異体の解析Oral presentation
- International Symposium: Principles of pluripotent stem cells underlying plant vitality, May 2019, English, Auditorium of Graduate School of Life Sciences, Katahira Campus, Tohoku University, Japan, Vegetative reproduction, a form of asexual reproduction in plants, is a developmental process by which clonal progeny arise directly from parental tissues. This process is based on the remarkable potential of plants to proliferate meristems, which develop whole plantlets from differentiated tissues. A basal land plant, the liverwort Marchantia polymorpha L., as well as certain, International conferenceAn evolutionarily conserved mechanism for production of secondary meristems in land plants[Invited]Invited oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conference陸上植物に共通するガス交換組織形成機構の理解Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conference転写因子D53 はゼニゴケ杯状体に形成される無性芽数の決定に関わるOral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceニチニチソウ乳管細胞・異形細胞の発生、分化、代謝変動の解析Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceセントポーリアの温度降下感受性に関わる分子機構の解析Poster presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceゼニゴケ腹鱗片の粘液細胞形成におけるRop シグナル伝達の役割Poster presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceゼニゴケの表層脂質合成系の解析Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceゼニゴケの頂端分裂組織周辺におけるROS 生成酵素MpRbohA の役割の解析Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceゼニゴケの2 つのR2R3-MYB 型転写因子を介した異なる幹細胞性獲得制御機構Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceゼニゴケにおけるMpCLE2 の内在的な機能の解析Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceゼニゴケにおけるEndoglucanase16 の機能解析Oral presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceシロイヌナズナ側根形成を抑制するTOLS2 ペプチドによる遺伝子の発現制御に異常を示す変異体の解析Poster presentation
- 第60回日本植物生理学会年会, Mar. 2019, Japanese, 名古屋, Domestic conferenceGSK3-BES1 シグナリングモジュールのゼニゴケにおける役割Oral presentation
- 日本植物生理学会年会(Web), 2019, JapaneseゼニゴケにおけるMpCLE2の内在的な機能の解析
- 日本植物生理学会年会(Web), 2019, Japaneseゼニゴケの頂端分裂組織周辺におけるROS生成酵素MpRbohAの役割の解析
- 6th Plant Dormancy Symposium, Oct. 2018, English, Kyoto, Japan, Dormancy is a critical strategy of plants to survive under severe environmental conditions by pausing growth, development, and physical activity, which can occur in diverse organs such as seeds and buds of diverse plant lineages. The liverwort Marchantia polymorpha, reproduces asexually by clonal individuals, gemmae, that are dormant within the specialized receptacle, called ge, International conferenceMolecular genetics of gemma dormancy in a basal land plantMarchantia polymorpha[Invited]Invited oral presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conference陸上植物の生殖細胞分化に必要な転写因子BONOBOの同定と標的遺伝子の探索Oral presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conference根系の光環境が植物のリン酸応答に与える影響Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceポプラの短期落葉―開芽系を用いた季節的なリン酸転流機構の解明と野外RNA-seqとの比較Oral presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceニチニチソウ乳管細胞・異形細胞の発生・分化・機能の解析Oral presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceセントポーリア温度降下傷害における機械受容Ca2+チャネルの関与と液胞動態の解析Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceゼニゴケ葉状体の分枝におけるMpCLE2シグナルの役割Oral presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceゼニゴケの無性芽形成におけるKAR/RopGEFの機能ドメイン解析Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceRopGEFの機能ドメイン解析Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceゼニゴケのMYB型転写因子GCAM1による幹細胞制御機構の解析Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceシロイヌナズナ側根形成能が顕著に低下するfewer roots変異体のサプレッサー変異体の解析Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceシロイヌナズナ側根形成を抑制するTOLS2ペプチドに対する応答異常変異体の解析Poster presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceシャジクモ細胞膜リン酸輸送体の分子機能解析Oral presentation
- 日本植物学会第82回大会, Sep. 2018, Japanese, 広島国際会議場, Domestic conferenceKAI2シグナル伝達経路はゼニゴケの形態形成を制御するPoster presentation
- 日本植物学会第82回大会, Sep. 2018, English, 広島国際会議場, Domestic conferenceCoordination of lateral organ development and meristem activity mediated by ALOG protein in Marchantia polymorphaOral presentation
- The 20th Annual Meeting of the Society of Evolutionary Studies, Japan, Aug. 2018, Japanese, 東京大学駒場Iキャンパス, 陸上植物は約4億7千万年前までに淡水棲緑藻の1グループから派生した単系統のグループである。初期の陸上植物は、現生のコケ植物に近い体制をもっており、次に維管束をもち陸上生活により適したヒカゲノカズラ類やシダ植物の段階、そして種子をもつ種子植物が出現したと考えられている。近年、コケ植物や小葉類、緑藻類のゲノムが相次いで解読され、陸上植物共通祖先がもっていたツールキット遺伝子が推定されつつある。さらに先行のモデルコケ植物である蘚類ヒメツリガネゴケに加え、苔類ゼニゴケについても分子遺伝学の研究基盤が整い、“祖先的な”植物遺伝子の機能とその進化に関する研究が盛んになってきた。一方で、ヒメツリガネゴケとゼニゴケは双方とも“基部植物”ではあるが、分岐して数億年以上も経過しており、コケ植物として共通の形質以外には表現型に大きな違いがある。初期陸上植物はどんな表現型か, Domestic conference現生の基部植物モデルから陸上植物の共通祖先の表現型をいかに推測するか?[Invited]Invited oral presentation
- International Symposium on Plant Lipids, Jul. 2018, English, Yokohama, International conferenceAnalysis of lipids accumulated in laticifer and idioblast cells in Catharanthus roseus.Poster presentation
- EMBO Workshop, New shores in land plant evolution, Jun. 2018, English, Lisbon, Portugal, International conferenceThe critical role of MpbHLH40 as a positive regulator of dormancy in theliverwort Marchantia polymorphaPoster presentation
- EMBO Workshop, New shores in land plant evolution, Jun. 2018, English, Lisbon, Portugal, International conferenceGerm cell differentiation requires the bHLH transcription factors BONOBOsevolutionarily conserved in land plantsOral presentation
- EMBO Workshop, New shores in land plant evolution, Jun. 2018, English, Lisbon, Portugal, International conferenceDICER-LIKE1 Controls Cell Fate Specification In Marchantia polymorpha.Poster presentation
- EMBO Workshop, New shores in land plant evolution, Jun. 2018, English, Lisbon, Portugal, International conferenceCryopreservation of Marchantia polymorpha spermatozoaPoster presentation
- EMBO Workshop, New shores in land plant evolution, Jun. 2018, English, Lisbon, Portugal, International conferenceCoordination of lateral organ development and stem cell activity inMarchantia polymorpha is mediated by an ALOG family proteinPoster presentation
- EMBO Workshop, New shores in land plant evolution, Jun. 2018, English, Lisbon, Portugal, International conferenceControl of meristem organization by local peptide signaling in MarchantiapolymorphaOral presentation
- 日本農芸化学会大会講演要旨集(Web), Mar. 2018, Japaneseゼニゴケ・ゲノムにおける植物ホルモン生合成・シグナル伝達系遺伝子
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conference陸上植物に共通する水環境依存的な間隙形成の理解Oral presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conference転写因子BONOBO は陸上植物の生殖系列細胞の分化に必要であるOral presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conference根系の光環境が植物のリン酸応答に与える影響Poster presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conference基部陸上植物ゼニゴケの仮根細胞における微小管依存的な先端成長機構の解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conferenceニチニチソウ乳管細胞および異形細胞の分化機構の解明Poster presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conferenceセントポーリアの温度降下感受性に関わる分子機構の解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conferenceゼニゴケ無性芽形成初期を制御するRop シグナル伝達経路の機能解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conferenceゼニゴケ無性芽の休眠を正に制御するMpbHLH40の機能解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conferenceゼニゴケを用いたD14/KAI2 シグナル伝達経路の根源的機能の解析Poster presentation
- 第58回日本植物生理学会年会, Mar. 2018, Japanese, 札幌コンベンションセンター, Domestic conferenceゼニゴケMarchantia polymorphaにおけるリン欠乏時の膜脂質転換機構の解析Poster presentation
- 日本ポリアミン学会年会プログラム及び抄録集, Jan. 2018, Japaneseゼニゴケのサーモスペルミン合成酵素遺伝子MpACL5機能欠損変異株の解析
- 日本植物生理学会年会(Web), 2018, Japanese転写因子BONOBOは陸上植物の生殖系列細胞の分化に必要である
- しだとこけ談話会 第189回会合, Dec. 2017, Japanese, 大阪市立自然史博物館, Domestic conferenceゼニゴケ〜温故知新〜その2[Invited]Invited oral presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceRegulation and Biosynthesis of Phenolics in M. polymorphaPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceMolecular characterization of plasma membrane H+-ATPase in Marchantia polymorphaPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceMicrotubule-dependent directional growth of rhizoids in Marchantia polymorphaPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceLocal CLE peptide signaling in the Marchantia polymorpha meristemPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceKARAPPO encoding RopGEF is critical for the gemma initial development in the liverwort Marchantia polymorphaPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceGemma and Gemma Cup Development in Marchantia polymorpha[Invited]Invited oral presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceEvolution of Pi-sensing along the plant kingdomPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceDICER-LIKE1 Controls Cell Fate Specification In Marchantia polymorphaOral presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceBONOBOs are evolutionarily conserved transcription factors required for germ cell fate determination in land plantsPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceAnalysis of Air Chamber Development in Marchantia polymorphaPoster presentation
- The 65th NIBB conference ーMarchantia Workshop 2017−, Dec. 2017, English, 基礎生物学研究所(National Institute for Basic Biology), International conferenceA gene encoding LRR-RLK is involved in OPDA signaling of Marchantia polymorphaPoster presentation
- Taiwan-Japan Plant Biology 2017, Nov. 2017, English, Academia Sinica, International conferenceMolecular mechanism of vegetative reproduction in the liverwort Marchantia polymorpha[Invited]Invited oral presentation
- Taiwan-Japan Plant Biology 2017, Nov. 2017, English, Academia Sinica, International conferenceMechanism of cell injury induced by a rapid temperature decrease in Saintpaulia sp. leaves.Poster presentation
- Taiwan-Japan Plant Biology 2017, Nov. 2017, English, Academia Sinica, International conferenceKARAPPO encoding RopGEF is critical for the gemma development in the liverwort Marchantia polymorphaPoster presentation
- Taiwan-Japan Plant Biology 2017, Nov. 2017, English, Academia Sinica, International conferenceIdioblast and laticifer cells play important roles in alkaloid biosynthesis in Catharanthus plantsPoster presentation
- Taiwan-Japan Plant Biology 2017, Nov. 2017, English, Academia Sinica, International conferenceFunctional characterization of MpbHLH40 in gemma dormancy of a liverwort Marchantia polymorphaOral presentation
- Taiwan-Japan Plant Biology 2017, Nov. 2017, English, Academia Sinica, International conferenceA shortened annual cycle system; a tool for laboratory studies of seasonal phenomena in treesPoster presentation
- THE DEVELOPING PLANT IN ITS ENVIRONMENT, Oct. 2017, English, Lyon, France, International conferenceSeasonal Pre-translocation in the deciduous poplar tree.Poster presentation
- THE DEVELOPING PLANT IN ITS ENVIRONMENT, Oct. 2017, English, Domaine Lyon Saint-Joseph, International conferenceMechanism of cell injury induced by a rapid temperature decrease in Saintpaulia sp. leaves.Poster presentation
- THE DEVELOPING PLANT IN ITS ENVIRONMENT, Oct. 2017, English, Lyon, France, International conferenceIdioblast and laticifer cells play important roles in alkaloid biosynthesis in Catharanthus roseus.Poster presentation
- GDRI-Integrative Plant Biology `The Developing Plant in Its Environment-, Oct. 2017, English, Domaine Lyon Saint-Joseph, Lyon, France, International conferenceCritical role of KARAPPO/RopGEF in the initial stage of gemma formation in the liverwort Marchantia polymorphaPoster presentation
- 日本植物学会大会研究発表記録, Sep. 2017, Japaneseゼニゴケの活性酸素生成酵素Rbohのストレス応答における生理機能の探索
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conference落葉木本植物ポプラの季節的なリン転流機構の解析Oral presentation
- 神戸大学重点チームシンポジウム「水環境における生物の適応戦略」, Sep. 2017, Japanese, 神戸大学-淡路島内海域環境教育研究センターマリンサイト, Domestic conference植物界の両生類?−コケ植物ゼニゴケの生き方[Invited]Invited oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conference根系の光環境が植物のリン応答に及ぼす影響Poster presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conference汽水産緑藻 Ulva compressa のNa+に依存した成長とリン酸の取り込みについてPoster presentation
- 第3回植物の栄養研究会, Sep. 2017, Japanese, 東京工業大学, Domestic conference基部陸上植物ゼニゴケにおけるリン酸応答機構Oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conference基部陸上植物ゼニゴケにおけるリン酸に応答した遺伝子転写制御Poster presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conference活性酸素生成酵素Rbohはゼニゴケの発生・形態形成において細胞表層構造の調節に関わるOral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceセントポーリアの温度感受性に関わる分子機構の解析Poster presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceゼニゴケ無性芽発生を制御するRopGEF/KARの生化学的解析Poster presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceゼニゴケ気室が水環境の変動に応答して密度変化する分子機構の解析Oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceゼニゴケの生殖における活性酸素生成酵素Rbohの役割Oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceゼニゴケの活性酸素生成酵素Rbohのストレス応答における生理機能の探求Oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceゼニゴケから見た微小管関連遺伝子の機能と進化Oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceゼニゴケALOGドメイン遺伝子MpTAW1の進化発生学的解析Oral presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceシロイヌナズナ側根形成を抑制するTOLS2類似ペプチドの解析Poster presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceシロイヌナズナ側根形成を抑制するTOLS2ペプチドに対する高感受性変異体の解明Poster presentation
- 日本植物学会第81回大会, Sep. 2017, Japanese, 東京理科大学 野田キャンパス, Domestic conferenceさまざまな植物における紅葉・黄葉現象の解析Poster presentation
- editBio 2017, 1st International Symposium and Training Course on Genome Engineering & Developmental Biology, Aug. 2017, English, Irapuato, Guanajuato. México, International conferenceMolecular genetics of the gametophytic body plan in a basal land plant Marchantia polymorpha[Invited]Invited oral presentation
- しだとこけ談話会 第187回会合, Jun. 2017, Japanese, 大阪市立自然史博物館, Domestic conferenceゼニゴケ〜温故知新〜その1[Invited]Invited oral presentation
- 50th Annual Meeting of the Japanese Society of Developmental Biologists, May 2017, EnglishThe transcription factor BONOBO controls sexual organ development in the basal land plant Marchantia polymorpha
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conference根の障害物認識機構の解明Poster presentation
- 日本藻類学会第41回大会, Mar. 2017, Japanese, 高知, Domestic conference汽水産緑藻 Ulva proliferaの Na+ に依存した成長とリン酸の取り込みについてOral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conference基部陸上植物におけるUV-B 耐性に関するシグナル伝達系の解析Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conference基部陸上植物におけるPSI 防御戦略: ゼニゴケにおいてFlavodiironタンパク質はP700 酸化に働くOral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conference基部陸上植物ゼニゴケのUV-B 受容体MpUVR8 の機能解析Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceポプラの短期落葉- 開芽系を用いた季節的なリン転流機構の解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceニチニチソウ異形細胞・乳管細胞におけるTIA 代謝機構の解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceなぜセントポーリアは急激な温度降下に敏感なのか?Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケ無性芽の休眠に関連するbHLH 遺伝子の機能解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケ微小管関連遺伝子の機能解析Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケ配偶体の成長における活性酸素生成酵素MpRbohAとMpRbohB の異なる役割Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケ杯状体形成に重要なGEMMA CUP-ASSOCIATED MYB2の機能Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケ精子形成過程を通じた中心体タンンパクの細胞内局在変化についてOral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケの精子形成・機能に関わる膜交通システムの解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケの光屈性には成長段階に応じて異なる光シグナル伝達因子が関与するOral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケにおける細胞膜H+-ATPase の生理的機能の解析Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケにおけるサーモスペルミン合成酵素遺伝子MpACL5の機能解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケにおけるカリキンシグナル伝達機構Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceゼニゴケALOGドメイン遺伝子MpTAW1の機能解析Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceシロイヌナズナ側根形成に関わるTOLS2 ペプチドによる遺伝子の発現制御に異常を示す変異体の解析Poster presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceシロイヌナズナのリン酸濃度応答遺伝子の探索/第58回日本植物生理学会年会Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conferenceMarchantia polymorphaでの無性芽形成初期におけるRopGEF 遺伝子、KARAPPOの重要な役割Poster presentation
- 関東学院大学理工/建築・環境学会研究発表講演論文集, 2017, Japanese基部陸上植物ゼニゴケのUV‐B耐性に関するシグナル伝達系の解析
- 関東学院大学理工/建築・環境学会研究発表講演論文集, 2017, Japanese基部陸上植物ゼニゴケのUV‐B受容体MpUVR8の機能解析
- 関東学院大学理工/建築・環境学会研究発表講演論文集, 2017, Japanese基部陸上植物及び高等植物を用いた高温・塩耐性を付与する有用遺伝子の探索
- 近畿植物学会講演会, Nov. 2016, Japanese, 兵庫県民会館, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムOral presentation
- 近畿植物学会講演会, Nov. 2016, Japanese, 兵庫県民会館, Domestic conferenceシロイヌナズナのリン酸濃度応答遺伝子の探索Oral presentation
- 新学術領域研究「植物発⽣ロジック」若⼿ワークショップ2016, Oct. 2016, Japanese, ラフォーレ修善寺, Domestic conferenceゼニゴケ無性芽形成異常変異体karappoの解析Oral presentation
- 新学術領域研究「植物発⽣ロジック」若⼿ワークショップ2016, Oct. 2016, Japanese, ラフォーレ修善寺, Domestic conferenceゼニゴケ杯状体形成に関与するGCAM2遺伝⼦の同定と解析Oral presentation
- 新学術領域研究「植物発⽣ロジック」若⼿ワークショップ2016, Oct. 2016, Japanese, ラフォーレ修善寺, Domestic conferenceゼニゴケにおけるリン酸応答機構の研究Oral presentation
- 日本植物学会大会研究発表記録, Sep. 2016, Japaneseシロイヌナズナのリン酸濃度応答遺伝子の探索
- 日本植物学会大会研究発表記録, Sep. 2016, Japaneseポプラにおける葉組織リン代謝の季節変動―野外と実験室培養系の比較―
- 日本植物学会大会研究発表記録, Sep. 2016, Japaneseポプラの短期落葉‐開芽系を用いた季節的なリン転流機構の解析
- 日本植物学会大会研究発表記録, Sep. 2016, Japaneseゼニゴケのストレス応答におけるROS生成酵素Rbohの機能解析
- 日本植物学会大会研究発表記録, Sep. 2016, JapaneseゼニゴケX染色体に存在するREPRESSOR OF SILENCING 1ホモログMpROS1Xの機能解析
- 日本植物学会大会研究発表記録, Sep. 2016, Japaneseゼニゴケの発生・形態形成におけるROS生成酵素Rbohの機能解析
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conference植物の雄性配偶子形成に関する転写因子の進化:苔類ゼニゴケを用いた研究によりわかってきたこと[Invited]Invited oral presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムPoster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceポプラの短期落葉- 開芽系を用いた季節的なリン転流機構の解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceポプラにおける葉組織リン代謝の季節変動 - 野外と実験室培養系の比較-Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceニチニチソウ異形細胞におけるTIA 代謝分化機構の解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケ無性芽形成におけるLATERAL SUPPRESSOR 相同遺伝子の機能Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケ無性芽の休眠に関連するbHLH遺伝子の機能解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケ配偶体の幹細胞増殖を制御するメカニズム[Invited]Invited oral presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケの発生・形態形成におけるROS生成酵素Rboh の機能解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケの栄養繁殖器官におけるトランスクリプトーム解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケのフェノール性化合物蓄積に関わるR2R3-MYB 遺伝子の発現解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケのストレス応答におけるROS 生成酵素Rbohの機能解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゼニゴケX 染色体に存在するREPRESSOR OF SILENCING 1 ホモログMpROS1X の機能解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceシロイヌナズナ側根形成に関わるTOLS2ペプチドによるPUCHI 遺伝子の発現制御機構の解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceシロイヌナズナのリン酸濃度応答遺伝子の探索/日本植物学会 第80回大会Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceゲノム編集を用いたゼニゴケ微小管関連遺伝子の機能解析Poster presentation
- 日本植物学会 第80回大会, Sep. 2016, Japanese, 沖縄, Domestic conferenceUlva prolifera のナトリウム依存性の成長量変化についてPoster presentation
- EMBO Workshop New model systems for early land plant evolution, Jun. 2016, EnglishThe transcription factor BONOBO plays a central role in transition from vegetative to reproductive growth in the liverwort Marchantia polymorpha
- EMBO workshop "New model systems for early land plant evolution", Jun. 2016, English, Vienna, International conferenceMolecular genetics of gemma and gemma-cup development in the liverwort Marchantia polymorpha[Invited]Invited oral presentation
- EMBO workshop "New model systems for early land plant evolution", Jun. 2016, English, Vienna, Many plants have an ability to generate clonal progenies directly from somatic cells of vegetative organs, however, little is known about the molecular mechanism. The liverwort Marchantia polymorpha performs vegetative propagation via gemmae generated in the gemma cups formed on the dorsal side of thallus. To investigate regulatory genes involved in the process of gemma and gem, International conferenceCritical role of the R2R3-MYB gene GEMMA CUP-ASSOCIATED MYB1 for vegetative propagation in the liverwort Marchantia polymorpha L.Poster presentation
- BSJ-Review, Apr. 2016, Japanese, 日本植物学会古い酒を新しい革袋に~preexisting gene regulatory network の転用による 陸上植物のボディプラン革新[Invited]
- Plant Morphology, Apr. 2016, Japanese植物組織における低分子量物質分布の質量顕微鏡による可視化[Invited]
- 日本植物生理学会年会要旨集, Mar. 2016, EnglishEvolutional analysis of phosphate transport mechanism in plant cells.
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceThe function of an R2R3-MYB on the development of epidermal tissues of Marchantia polymorpha.Poster presentation
- (一社)日本植物生理学会第57回年会, Mar. 2016, Japanese, 盛岡, Domestic conferenceTerpenoid indole alkaloids accumulated in Catharanthus roseus idioblast and laticifer cellsPoster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceStudies of GUN1 plastid signaling.Oral presentation
- (一社)日本植物生理学会第57回年会, Mar. 2016, Japanese, 盛岡, Domestic conferenceSeasonal changes in phosphorus metabolites in leaves of the deciduous woody plant, Populus albaPoster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceScreen for regulatory proteins of schizogenous intercellular space formation in Marchantia polymorpha by using mass spectrometry and the CRISPR/Cas9 genome editing technology.Poster presentation
- (一社)日本植物生理学会第57回年会, Mar. 2016, Japanese, 盛岡, Domestic conferenceRe-translocation of nutrients during heartwood formation of Poplar treeOral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceProfiling and characterization of microRNAs in the liverwort, Marchantia polymorphaOral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferencePhysiological study of the response to thermospermine in Marchantia polymorpha.Poster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceMolecular mechanism of the PIF-mediated red light signaling in the liverwort Marchantia polymorphaOral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceInvestigation of molecular mechanisms for UV-B sensing in Marchantia polymorpha.Oral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceIdentification of the gene GEMMA CUP-ASSOCIATED MYB 2 involved in the formation of gemma cup in Marchantia polymorphaPoster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceIdentification and characterization of a bHLH gene involved in gemma germination in the liverwort Marchantia polymorpha.Poster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceFunctional diversification of SYP1 members in Marchantia polymorpha.Oral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceFunctional characterization of GCAM1, an R2R3-MYB essential for the development of gemma cup in the liverwort Marchantia polymorpha.Poster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceFunctional characterization of a LATERAL SUPPRESSOR homolog in Marchantia polymorpha.Poster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceFunctional analysis of ALOG family protein in Marchantia polymorpha.Poster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceFunctional analysis of ABI3 in Marchantia polymorpha using gene targetingOral presentation
- (一社)日本植物生理学会第57回年会, Mar. 2016, Japanese, 盛岡, Domestic conferenceEvolutional analysis of phosphate transport mechanism in plant cellsOral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceDay length- and light quality-dependent expression of BONOBO, a master regulatory gene for growth-phase transition in the liverwort Marchantia polymorpha.Oral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceCrucial roles of the ROS-signaling enzymes, Rbohs, in development and morphogenesis of Marchantia polymorpha.Oral presentation
- 第57回日本植物生理学会年会, Mar. 2016, English, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceConserved mechanism for secondary meristem formation in land plants[Invited]Nominated symposium
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceCharacterization of MpROS1X, an X-chromosomal homolog of REPRESSOR OF SILENCING 1, in the liverwort Marchantia polymorphaPoster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceCharacterization of KARAPPO, an essential gene for gemma formation in Marchantia polymorpha.Poster presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceA NIMA-related kinase regulates directional tip growth of rhizoid cells in Marchantia polymorphaOral presentation
- (一社)日本植物生理学会第57回年会, Mar. 2016, Japanese, 盛岡, Domestic conferenceAnalysis of temperature-sensing mechanism in SaintpauliaPoster presentation
- (一社)日本植物生理学会第57回年会, Mar. 2016, Japanese, 盛岡, Domestic conferenceAnalysis of seasonal re-translocation of phosphate in a deciduous woody plant, Populus albaOral presentation
- 第57回日本植物生理学会年会, Mar. 2016, Japanese, 日本植物生理学会, 岩手大学上田キャンパス, Domestic conferenceAnalysis of downstream factors of phototropin in blue-light-dependent dorsoventral patterning of Marchantia polymorpha.Oral presentation
- 「性と成熟:その普遍性と多様性を支える機構」, Feb. 2016, Japanese, サントリーワールドリサーチセンター(SWR)メインホール, Domestic conference植物における栄養繁殖の分子メカニズムとその進化[Invited]Invited oral presentation
- 第35回インターゲノミクスセミナー「植物の環境適応戦略:進化の過程で獲得した巧妙なメカニズム」, Jan. 2016, Japanese, 神戸大学大学院 農学部B101, Domestic conference基部植物ゼニゴケから考える植物の繁殖戦略[Invited]Invited oral presentation
- 第22回時間生物学会, Nov. 2015, Japanese, 東京大学, Domestic conferenceArtificial modification of four seasons response in plantsOral presentation
- "Towards Increased Plant Productivity through Understanding of Environmental Responses and Epigenetic Regulation", Nov. 2015, English, 理化学研究所(横浜キャンパス), International conferenceAn ancient regulatory mechanism for secondary meristem formation in land plants[Invited]Invited oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conference無性芽形成異常変異体karappo-2における変異原因遺伝子の解析Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conference地表で暮らす葉状性苔類がとる光生存戦略Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conference苔類ゼニゴケにおけるmicroRNAの機能解析Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conference植物組織における低分子量物質分布の質量顕微鏡による可視化Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムPoster presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceランタナの花色変化における生理課程解析Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceポプラにおけるリン酸転流経路の季節変化(ポスター)Poster presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceポプラにおけるリン酸転流経路の季節変化Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceニチニチソウ組織におけるTerpenoid indole alkaloidの合成と蓄積機構の解明Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケ精子超低温保存法の開発Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケ初期胚発生を制御する因子の探索Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケの杯状体形成を制御するGCAM1の機能解析Poster presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケの杯状体と生殖器の形成に関与するR2R3-MYB型転写因子GCAM2の解析Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケの暗誘導老化Ⅱ.変異体sbr1の表現型の解析Poster presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケのSNARE分子から観る膜融合装置の保存性と多様性Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケのR2R3-MYB遺伝子過剰発現体におけるフェノール性二次代謝関連遺伝子の解析Poster presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケNIMA関連キナーゼは仮根細胞の伸長を制御するOral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケMarchantia polymorphaの活性酸素種生成酵素MpRbohA, Bの発現部位と生理機能の解析Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceゼニゴケALOGドメイン遺伝子MpTAW1の機能解析Oral presentation
- 日本植物学会第79回大会, Sep. 2015, Japanese, 新潟コンベンションセンター, Domestic conferenceシロイヌナズナ側根形成に関わるTOLS2ペプチドによるPUCHI遺伝子の発現制御機構の解析Oral presentation
- 日本植物生理学会年会要旨集, Mar. 2015, Japanese基部陸上植物ゼニゴケのUV‐B受容体の機能解析
- The 2nd International Symposium on Plant Environmental Sensing, Mar. 2015, EnglishThe transcription factor BONOBO regulates sexual organ development in the liverwort Marchantia polymorpha.
- 第56回日本植物生理学会年会, Mar. 2015, JapaneseIsolation of a mutant showing accelerated senescence in darkness in Marchantia polymorpha L.
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference落葉性木本植物のリン酸分配・転流機構の解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference木本植物の心材形成時における栄養塩回収機構の解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference無性芽形成異常変異体karappo2 における変異原因遺伝子の同定Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference転写因子BONOBOは苔類ゼニゴケの有性生殖器官形成を制御するOral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference苔類ゼニゴケを用いた転写因子PIFによる赤色光シグナル伝達機構の解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference苔類ゼニゴケの雄性配偶子形成過程を制御する分子機構の解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference苔類ゼニゴケにおけるオーキシン受容メカニズムの解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference苔類ゼニゴケにおけるmicroRNAの機能解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference植物細胞リン酸輸送機構とその進化についてOral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference質量分析装置を用いたシロイヌナズナ植物体のオーキシン添加に応答する代謝変動解析Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムPoster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference基部陸上植物ゼニゴケのUV-B受容体の機能解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference基部陸上植物ゼニゴケにおける器官発生制御機構の解析[Invited]Invited oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conference基部陸上植物ゼニゴケにおけるRAB GTPaseの網羅的解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceニチニチソウ茎組織におけるTerpenoid indole alkaloidの分布解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケ精子凍結保存法の開発Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケを用いたミトコンドリア分裂因子の解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケの生殖におけるRWP-RK ファミリー遺伝子MpRKD の機能Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケのオーキシン応答転写因子ARF1は無性芽の細胞分裂パターンを制御するOral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケにおける杯状体形成関連遺伝子GEMMA-CUP ASSOCIATED MYB 2 の解析Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケにおける転写因子ABI3の機能解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケゲノムアノテーションデータベースの構築Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケNIMA関連キナーゼの機能解析Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferenceゼニゴケEILがエチレンおよび硫黄栄養応答に果たす役割Oral presentation
- 第56回日本植物生理学会年会, Mar. 2015, English, 東京農業大学, Vegetative propagation is a form of asexual reproduction in plants. New individuals with functional meristems arise without fertilization and develop directly from vegetative tissues, such as leaves, stems, and roots. Many plant species from bryophytes to angiosperms have ability to propagate through vegetative propagation. Vegetative propagation is considered to be important f, Domestic conferenceVegetative propagation: development of asexual progenies from vegetative tissuePublic symposium
- 第56回日本植物生理学会年会, Mar. 2015, English, 東京農業大学, Domestic conferenceSystematic analysis of SNAREs inthe liverwort, MarchantiapolymorphaOral presentation
- 第56回日本植物生理学会年会, Mar. 2015, English, 東京農業大学, Domestic conferenceSearch for the regulators of earlysporophyte development inMarchantia polymorphaOral presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学 世田谷キャンパス, Domestic conferenceR2R3-MYB型転写因子GCAM1は苔類ゼニゴケの杯状体形成を制御するPoster presentation
- 第56回日本植物生理学会年会, Mar. 2015, Japanese, 東京農業大学, Domestic conferencePOSITIVE AND NEGATIVE REGULATORY MECHANISMS OF ABA SIGNALING ARE CRUCIAL FOR GROWTH AND STRESSPoster presentation
- The 2nd International Symposium on Plant Environmental Sensing, Mar. 2015, English, AIST, Odaiba, International conferencePhosphate status in plant lifePoster presentation
- The 2nd International Symposium on Plant Environmental Sensing, Mar. 2015, English, AIST, Odaiba, International conferenceMechanism of cell injury induced by a rapid temperature decrease in Saintpaulia sp. leaves.Poster presentation
- 第56回日本植物生理学会年会, Mar. 2015, English, 東京農業大学, Domestic conferenceIsolation of a mutant showingaccelerated senescence in darknessin Marchantia polymorpha L.Oral presentation
- The 2nd International Symposium on Plant Environmental Sensing, Mar. 2015, English, AIST, Odaiba, International conferenceEvolutionary analysis of phosphate transport mechanisms in plant cellsPoster presentation
- The 2nd International Symposium on Plant Environmental Sensing, Mar. 2015, English, AIST, Odaiba, International conferenceCell-specific localization of terpenoid indole alkaloids revealed by new metabolome analysesPoster presentation
- 関東学院大学理工/建築・環境学会研究発表講演論文集, 2015, Japanese基部陸上植物ゼニゴケのUV‐B耐性におけるカルコンシンターゼ(MpCHS)の役割
- 関東学院大学理工/建築・環境学会研究発表講演論文集, 2015, Japanese基部陸上植物ゼニゴケのUV‐B受容体の機能解析
- 関東学院大学理工/建築・環境学会研究発表講演論文集, 2015, Japanese植物の有用遺伝子を探索する新たなシステムの確立
- 日本生化学会大会(Web), 2015, Japanese植物NADPH oxidaseの分子進化と,基部陸上植物ゼニゴケに探る活性制御の基本機構
- 日本生化学会大会(Web), 2015, Japanese基部陸上植物ゼニゴケのNADPH oxidase遺伝子MpRbohA,Bの発現部位と機能の解析
- Marchantia Workshop 2014, Dec. 2014, EnglishThe transcription factor BONOBO appears to regulate gametangiophore formation in Marchantia polymorpha.[Invited]
- Marchantia Workshop 2014, Dec. 2014, English, Centennial Hall, Kobe University, The liverwort Marchantia polymorpha forms cupule-like structures, gemma cups, on the dorsal side of thallus, where dozens of clonal progenies, gemmae, are generated. We isolated a mutant of M. polymorpha defective in gemma cup development from T-DNA-tagged lines. The T-DNA was inserted into a 5’UTR of a gene encoding an R2R3-MYB transcription factor. Analysis of the promoter ac, International conferenceThe role of the R2R3-MYB transcription factor, GCAM2, in the development of gemma cup in Marchantia polymorpha.Poster presentation
- Marchantia Workshop 2014, Dec. 2014, English, Centennial Hall, Kobe University, Gemma is a clonal progeny developed from the base of gemma-cup in Marchantia polymorpha. To investigate the regulatory mechanism for gemma development, we focused on a mutant, karappo2 (kar2), which was originally isolated from transgenics obtained by particle bombardment protocol. There is no gemma initial observed at the base of gemma-cup in kar2, while gemma-cups are regular, International conferenceMolecular characterization of karappo2, a gemma-less mutant, in Marchantia polymorpha.Poster presentation
- Marchantia Workshop 2014, Dec. 2014, English, Centennial Hall, Kobe University, Marchantia polymorpha has an ability to propagate asexually via gemmae generated in gemma-cup formed on the dorsal side of thallus. To investigate genes involved in the process of gemma and gemma-cup development, we performed RNA-seq analysis comparing gemma-cups contaning gemmae and thallus without any gemma-cup. Through the comprehensive transcriptome analysis, we identified, International conferenceGEMMA CUP-ASSOCIATED MYB1 is essential for the development of gemma-cup in the liverwort Marchantia polymorpha L.Poster presentation
- Marchantia Workshop 2014, Dec. 2014, English, Kobe University, International conferenceEvolutional analysis of phosphate trasnport mechanism in plant cellsPoster presentation
- Marchantia Workshop 2014, Dec. 2014, English, Centennial Hall, Kobe University, Many species in bryophytes produce gemmae on their gametophytes as a means of vegatative propagation. In the liverwort, Marchantia polymorpha, each gemma is originated from a single epidermal cell at the bottom of the gemma-cup, developed into a mature gemma through a number of cell divisions, and detached finally from the parental thallus by undergoing cell death of the stalk, International conferenceDevelopment of gemma and gemma-cup in Marchantia polymorpha[Invited]Invited oral presentation
- Marchantia Workshop 2014, Dec. 2014, English, Centennial Hall, Kobe University, The liverwort Marchantia polymorpha L. has become a fascinating model organism for plant biology, as its molecular genetic resources have been being developed. Here I am going to introduce the techniques and resources for Marchantia research, especially focusing on transformation, Gateway-compatible binary vector system, homologous recombination mediated gene targeting, and EMS, International conferenceAn overview of available tools for Marchantia polymorpha[Invited]Invited oral presentation
- 植物化学調節学会, Oct. 2014苔類ゼニゴケにおけるオーキシン信号伝達因子ARFの機能分化
- 植物化学調節学会, Oct. 2014オーキシン応答転写因子ARF1による無性芽発生の制御
- 植物の生長調節, Oct. 2014, Japaneseオーキシン応答転移因子ARF1による無性芽発生の制御
- 日本植物学会大会研究発表記録, Sep. 2014, Japaneseゼニゴゲの接合子におけるMpLFYの機能解析
- 日本植物学会大会研究発表記録, Sep. 2014, Japanese基部陸上植物ゼニゴケにおけるGI‐FKF複合体を介した光周性生長相制御機構
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference落葉性木本植物のリン酸分配・転流機構の解析Oral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference木本植物におけるイオン輸送機構の解析Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference苔類ゼニゴケの造精器および精子の発生過程に関与する遺伝子発現プログラムを制御する機構の解析Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference苔類ゼニゴケにおける細胞膜H⁺-ATPaseの機能解析Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference苔類ゼニゴケにおけるSBP型転写因子の機能解析Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference苔類ゼニゴケにおいてCYCLING DOF FACTORは光周性成長相転換を抑制するOral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference植物細胞リン酸輸送機構とその進化についてOral presentation
- 日本植物学会第78回大会, Sep. 2014, English, 明治大学 生田キャンパス, Domestic conference植物ROS生成酵素の活性制御の基本機構をゼニゴケに探るOral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムPoster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference基部陸上植物ゼニゴケにおける膜交通因子の網羅的解析Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conference基部陸上植物ゼニゴケにおけるGI-FKF複合体を介した光周性生長相制御機構Oral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケ葉状体の暗誘導老化に関する突然変異体の単離と解析Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケ無性芽の-80℃フリーザーでの長期保存法の開発Poster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケの接合子におけるMpLFYの機能解析Oral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケの形態形成におけるmicroRNAの機能解析Oral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケの栄養繁殖器官で発現するR2R3型MYB遺伝子の単離と機能解析Oral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケのオーキシン応答転写因子ARF1は無性芽の発生を制御するPoster presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケから見えてきた栄養繁殖と腋芽発生の共通制御メカニズムOral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceゼニゴケCLEペプチドホルモンの機能Oral presentation
- 日本植物学会第78回大会, Sep. 2014, Japanese, 明治大学 生田キャンパス, Domestic conferenceシロイヌナズナ側根形成におけるLBDの下流遺伝子TOLS2の解析Oral presentation
- 日本植物学会第78回大会, Sep. 2014, English, 明治大学 生田キャンパス, Domestic conferenceシロイヌナズナにおける葉の維管束鞘細胞の形成・分化機構の解析Poster presentation
- 日本光生物学協会, Aug. 2014基部陸上植物ゼニゴケにおける祖先的な赤色光シグナル伝達機構
- 日本光生物学協会, Aug. 2014ゼニゴケフォトトロピンMpphotの生化学的解析と下流因子の探索
- イネ遺伝学・分子生物学ワークショップ 2014, Jul. 2014, Japanese, 東京大学弥生講堂一条ホール, Domestic conferenceコケ植物配偶体における器官発生の分子遺伝学[Invited]Invited oral presentation
- 日本植物生理学会年会要旨集, Mar. 2014, Japanese基部陸上植物ゼニゴケを用いた光周性花成制御因子GI‐FKF1複合体の祖先的機能の解析
- 日本植物生理学会年会要旨集, Mar. 2014, Japanese基部陸上植物ゼニゴケのUV‐B応答機構の解析
- 日本農芸化学会大会講演要旨集(Web), Mar. 2014, Japanese苔類ゼニゴケを用いた祖先的な赤色光シグナル伝達機構の解析
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山, Domestic conference落葉性木本植物のリン酸分配・転流機構の解析Oral presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference転写因子の相互作用によるゼニゴケのオーキシン信号伝達ネットワークPoster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference苔類ゼニゴケにおける転写因子レパートリーPoster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference苔類ゼニゴケにおける転写因子HY5を介した光形態形成制御機構Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference苔類ゼニゴケにおける頂端細胞の選択を介した青色光依存的な背腹性決定機構Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference苔類ゼニゴケにおけるオキシリピン代謝酵素CYP74ファミリー酵素遺伝子の機能解析Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference植物細胞リン酸輸送機構とその進化についてOral presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山, Domestic conference質量分析装置を用いたシロイヌナズナ植物体のオーキシン添加に応答する代謝変動解析Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムPoster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference基部陸上植物ゼニゴケを用いた光周性花成制御因子GI-FKF1複合体の祖先的機能の解析Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conference基部陸上植物ゼニゴケのUV-B応答機構の解析Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conferenceフタバネゼニゴケにおけるキチン防御応答遺伝子の発現解析Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conferenceフィトクロムによるトマト芽生えのフック巻込みに関わる植物ホルモンOral presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学・五福キャンパス, Domestic conferenceニチニチソウ組織におけるTerpenoid indole alkaloid合成機構の解明Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conferenceゼニゴケ研究地平への投射:オーキシン信号伝達を例にPoster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学・五福キャンパス, Domestic conferenceゼニゴケ気室の発生初期段階ではNOPPERABO1のE3ユビキチンリガーゼ活性が必須であるPoster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conferenceゼニゴケを用いた有用遺伝子探索システムの構築Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conferenceゼニゴケMpLFYノックアウト株の表現型解析Poster presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学五福キャンパス, Domestic conferenceコケ植物における無性芽の発生と休眠Oral presentation
- 第55回日本植物生理学会年会, Mar. 2014, Japanese, 富山大学・五福キャンパス, Domestic conferenceコケ植物ANGUSTIFORIAに関する比較解析Poster presentation
- 生化学, 2014, JapaneseE3ユビキチンリガーゼが関与する植物の細胞間隙形成
- 日本分子生物学会年会プログラム・要旨集(Web), 2014, Japanese苔類ゼニゴケを用いた植物microRNAネットワークの解明
- 日本分子生物学会年会プログラム・要旨集(Web), 2014, Japanese活性酸素‐カルシウムシグナルネットワークによる植物の生殖・発生の制御
- International Marchantia Workshop 2013, Dec. 2013, English, Buln Buln Cabins, Yictoria, Australia, International conferenceGemma and gemma-cup development in Marchantia polymorphaOral presentation
- 時間生物学, Oct. 2013, Japanese基部陸上植物ゼニゴケにおける概日時計を介した成長相制御機構
- 日本農芸化学会関西支部講演会講演要旨集, Sep. 2013, JapaneseE3リガーゼNOPPERABO1はゼニゴケ気室形成を正に制御する
- 日本植物学会第77回大会, Sep. 2013, Japanese, 札幌, Domestic conference急激な温度降下で生じるセントポーリア葉の傷害誘導メカニズムPoster presentation
- 日本植物学会第77回大会, Sep. 2013, Japanese, 札幌, Domestic conferenceバラの花色決定における液胞機能の解析Poster presentation
- 日本植物学会第77回大会, Sep. 2013, Japanese, 札幌, Domestic conferenceニチニチソウ葉組織の単一細胞種を用いた二次代謝機構の解析Oral presentation
- 日本植物学会第77回大会, Sep. 2013, Japanese, 札幌, Domestic conferenceシロイヌナズナ植物体のオーキシン添加に応答する 代謝変動解析Poster presentation
- 日本植物学会大会研究発表記録, Aug. 2013, Japanese苔類ゼニゴケの活性酸素種生成酵素の機能解析
- 日本植物学会大会研究発表記録, Aug. 2013, Japanese苔類ゼニゴケにおけるAUX/IAA‐ARF相互作用を介したオーキシン転写制御機構の解析
- バイオイメージング, Aug. 2013, Japanese植物の活性酸素種生成酵素の発現部位・活性制御機構の網羅的解析
- 日本植物生理学会年会要旨集, Mar. 2013, Japanese苔類ゼニゴケにおけるGI,FKFを介した日長依存的な成長相制御機構
- 日本植物生理学会年会要旨集, Mar. 2013, Japanese苔類ゼニゴケの背腹性決定は青色光受容体フォトトロピンとオーキシン極性輸送によって制御される
- 日本植物生理学会年会要旨集, Mar. 2013, Japanese苔類ゼニゴケにおける青色光受容体フォトトロピンが関与する葉緑体光定位運動の解析
- 日本植物生理学会年会要旨集, Mar. 2013, Japanese苔類ゼニゴケにおけるHY5を介した光形態形成シグナル伝達経路の解析
- 日本植物生理学会年会要旨集, Mar. 2013, Japaneseゼニゴケの赤色光によるサイクリンD遺伝子発現制御機構
- 日本植物生理学会年会要旨集, Mar. 2013, JapaneseNOPPERABO1は細胞膜に局在し,ゼニゴケ気室の発生初期段階を制御する
- 日本植物生理学会年会要旨集, Mar. 2013, Japanese苔類ゼニゴケにおける転写因子PIFを介した赤色光シグナル伝達機構
- 日本植物生理学会年会要旨集, Mar. 2013, Japanese原核生物型PEBPファミリータンパク質CORのシロイヌナズナとゼニゴケにおける機能解析
- 日本植物生理学会年会要旨集, Mar. 2013, Japaneseゼニゴケを用いたミトコンドリア分裂因子の解析
- 日本植物学会第77回大会, 2013, Japanese, 札幌, Domestic conference落葉性木本植物のリン酸分配・転流機構の解析Oral presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conference苔類におけるアブシジン酸受容体の解析Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conference苔類ゼニゴケにおける光依存的な細胞分裂活性制御機構Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conference苔類ゼニゴケにおけるAUX/IAA-ARF相互作用を介したオーキシン転写制御機構の解析Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conference赤色光受容体フィトクロムと光合成によるゼニゴケ細胞周期の光制御Poster presentation
- 日本農芸化学会関西支部第479回講演会, 2013, Japanese, 京都府立大学, Domestic conference光合成生物における生存前略の分子機構に関する研究Oral presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conference基部陸上植物ゼニゴケにおける転写因子PIFを介した赤色光シグナル伝達機構Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conferenceゼニゴケ葉状体における暗誘導老化Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conferenceゼニゴケを用いた植物特異的膜交通経路の研究Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conferenceゼニゴケのオーキシン信号伝達因子MpARF1による無性芽発生制御Poster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conferenceゼニゴケNOPPERABO1はE3ユビキチンリガーゼとして気室の細胞間隙形成を正に制御するPoster presentation
- 日本植物学会第77回大会, 2013, Japanese, 北海道大学札幌キャンパス, Domestic conferenceシロイヌナズナ側根形成におけるLBD16の下流遺伝子TOLS2の解析Oral presentation
- 植物の生長調節, Oct. 2012, Japaneseゼニゴケにおけるアレンオキシドシクラーゼの機能解析
- 日本植物学会大会研究発表記録, Sep. 2012, Japaneseゼニゴケ気室形成制御遺伝子の機能解析
- 日本植物学会大会研究発表記録, Sep. 2012, Japanese苔類ゼニゴケ葉状体の背腹性はフォトトロピンを介して青色光依存的に決定される
- 日本植物学会大会研究発表記録, Sep. 2012, Japaneseゼニゴケのフィトクロムによる細胞周期制御機構
- 日本植物生理学会年会要旨集, Mar. 2012, JapaneseメリステムにおけるDNA複製のイメージング解析
- 日本植物生理学会年会要旨集, Mar. 2012, Japanese苔類ゼニゴケにおける赤色光による細胞周期制御機構
- 日本農芸化学会大会講演要旨集(Web), Mar. 2012, Japanese青色光受容体フォトトロピンは苔類ゼニゴケの葉状体背腹性決定を制御する
- 日本農芸化学会大会講演要旨集(Web), Mar. 2012, Japanese赤色光は苔類ゼニゴケの細胞分裂を制御する
- 日本分子生物学会、第35回年会、於 パシフィコ横浜、2011年12月, 2011, Japaneseゼニゴケ葉緑体RNAポリメラーゼシグマ因子(Mpsig1)変異体の解析から明らかとなった陸上植物シグマ因子の機能分化
- 日本植物学会大会研究発表記録, Sep. 2010, Japanese苔類ゼニゴケにおけるPEBP family遺伝子の機能解析
- 日本植物学会大会研究発表記録, Sep. 2010, Japanese苔類ゼニゴケにおけるLEAFY相同遺伝子MpLFYの機能解析
- 日本植物生理学会年会要旨集, Mar. 2010, JapaneseゼニゴケFLO/LFY相同遺伝子の機能解析
- 日本植物生理学会、 第51回年会、於 熊本大学、2010年3月, 2010, Japanese新規ゼニゴケ核ゲノム形質転換選抜用マーカーの開発
- Marchantia workshop 2010, March 11-12, 2010, Kyoto, Japan, 2010, EnglishDevelopment of a novel selectable marker for liverwort (Marchantia polymorpha).
- 日本植物学会大会研究発表記録, Sep. 2009, JapaneseゼニゴケFLO/LFY相同遺伝子の機能解析
- 日本植物生理学会年会要旨集, Mar. 2009, JapaneseゼニゴケFLO/LFY相同遺伝子の単離と解析
- Memorial Symposium for the 25th International Prize for Biology Celebrating Dr. Winslow R. Briggs, 2009, EnglishThe liverwort Marchantia polymorpha as an emerging model plant
- 日本植物学会大会研究発表記録, Sep. 2008, JapaneseゼニゴケFLO/LFY相同遺伝子の単離と解析
- PLANT AND CELL PHYSIOLOGY, 2006, English, OXFORD UNIV PRESSThe critical role of Arabidopsis electron-transfer flavoprotein ubiquinone oxidereductase during dark induced starvation
- PLANT AND CELL PHYSIOLOGY, 2003, English, OXFORD UNIV PRESSGene organization of the Y chromosome of the liverwort, Marchantia polymorpha
- PLANT PHYSIOLOGY, Jul. 1997, English, AMER SOC PLANT PHYSIOLOGISTSIsolation of high-CO2 requiring mutants from Chlamydomonas reinhardtii by gene tagging.
- JAPAN SOCIETY FOR BIOSCIENCE
- THE BOTANICAL SOCIETY OF JAPAN
- THE JAPANESE SOCIETY OF PLANT PHYSIOLOGISTS
- 日本学術振興会, 科学研究費助成事業, 挑戦的研究(開拓), 宇都宮大学, 28 Jun. 2024 - 31 Mar. 2028植物に存在するステロイドホルモンの進化的起源の解明
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research (B), Apr. 2019 - Mar. 2022, Principal investigatorコケ植物繁殖子の休眠を制御する分子メカニズムの解明Competitive research funding
- Ministry of Education, Culture, Sports, Science and Technology-Japan, Grant-in-Aid for Scientific Research on Innovative Areas, Sep. 2017 - Mar. 2021リプログラミングによる植物幹細胞の新生機構の解明Competitive research funding
- 科学研究費補助金/基盤研究(B), Apr. 2015 - Mar. 2019, Principal investigatorCompetitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (C), Kobe University, 01 Apr. 2015 - 31 Mar. 2018Investigation on the evolution of the multicellular body plan in plants by focusing on comparative and functional genomics in charophycean algaeIn order to investigate the evolution of the multicellular body plan in land plants and charophycean algae, in this study, we compared their multicellular gametophyte and sporophyte generations based on their genes and genomes. We identified the developmental genes specifically expressed in different tissues/cells of C. braunii. Moreover, we explored the expression/function of these developmental genes in charalean algae in detail and discussed the evolution of the multicellular body plan in land plants and charophycean algae. We were also tried to introduce the exogenous gene into Chara cells using the native promoter of the Chara gene by microinjection and particle bombardment.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (C), Kyoto University, 01 Apr. 2015 - 31 Mar. 2018Identification and analysis of a novel master transcription factor for sexual organ development in lant plantsHere we identified a master transcription factor MpBONOBO (MpBNB) that controls sexual organ development in the liverwort Marchantia polymorpha. MpBNB is expressed in the initial cells that are destined to develop into archegonia and antheridia, suggesting its major role in archegonial/antheridial development. Phylogenetic analysis suggested that MpBNB is a member of an evolutionarily conserved transcription factor family. Arabidopsis BNB1 and BNB2 are redundantly required for specification of generative cell in developing pollen, and are functionally replaceable with MpBNB. These findings suggest evolutionarily conserved role of BNB family proteins in the regulation of germ cell differentiation from gametophytes in land plants.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (C), Kindai University, 01 Apr. 2015 - 31 Mar. 2018Genome editing by microinjection in the model organism Marchantia polymorphaDNA-free genome editing allows target-specific manipulation of a given genome. CRISPR RNA and Cas9 protein can be directly introduced into target cells and lead to genome-editing. We have successfully performed DNA-free genome editing mediated by microinjection of CRISPR/Cas9 complex in the liverwort Marchantia polymorpha. NOPPERABO1 (NOP1), of which loss-of-function mutation causes impaired air-chamber formation and thus can be found readily, was selected as a target gene. Custom gRNA and commercially available Cas9 protein were first allowed to form RNA-protein complex and then injected into single-cell sporelings by a laser thermal microinjector. One of the thalli grown from microinjected sporelings formed a sector that showed the nop1 mutant phenotype, and DNA isolated from the sector showed 5-bp deletion in the target coding sequence. This is the first demonstration of DNA-free genome-editing by microinjection in plants.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (B), Nagoya University, 01 Apr. 2015 - 31 Mar. 2018Elucidation of physiological roles and regulation of the plasma membrane H+-ATPaseThe plasma membrane (PM) H+-ATPase in plants mediates numerous important physiological processes, such nutrient uptake in roots, stomatal opening, and phloem loading. However, the molecular and regulatory mechanisms of this enzyme is still remains unknown. In this study, we investigated regulatory mechanism and physiological roles of PM H+-ATPase in plants and found that PM H+-ATPase is regulated photosynthesis-dependent manner in Arabidopsis and Klebsormidium, and that PM H+-ATPase in rice roots are activated by one of nutrient silicon, which has important role for the stress tolerant in rice. Furthermore, we found that plant hormones brassinosteroid and auxin activate PM H+-ATPase in etiolated hypocotyl in Arabidopsis through their receptors, BRI1 and TIR1, respectively. These results provide important information for understanding molecular mechanism and physiological role of PM H+-ATPase in plant growth.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research on Innovative Areas (Research in a proposed research area), Kyoto University, 28 Jun. 2013 - 31 Mar. 2018Evolutionary and molecuar genetic studies to logics in plant developmentWe studied the logics of plant development from a point of evolutionary view using the liverwort, Marchantia polymorpha, a member of basal land plant lineages as a model. We developed the genome database, genome editing vectors, and other molecular tools for experimental biology of M. polymorpha. By the comparative and reverse genetic studies of fundamental factors known to regulate angiosperm development, we showed that the common ancestor of land plants had acquired the basic system of plant development including auxin-dependent three-dimensional growth, light signaling pathways, cell division regulation, and environmental induction of sexual reproduction. Starting with the mutant analysis and its causal gene identification in M. polymorpha, we identified the master regulator, BONOBO, which determines the germline cell lineage in land plants. We concluded the evolutionary strategies to plant developmental biology are highly effective and informative.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Challenging Exploratory Research, Kobe University, 01 Apr. 2015 - 31 Mar. 2017Development of research base to elucidate the mechanism of stem endodermis formationOn the cross section of the stem of the plant, tissues such as epidermis, cortex and endodermis are concentrically arranged from the outside. Radial patterns of such tissues are formed from undifferentiated tissues at the tip of the stem (shoot apical meristem), but their formation mechanisms are hardly elucidated. This research aims to understand the mechanism of radial pattern formation of the stem as a major objective, focusing on endodermis layer of the stem. The research infrastructure for the elucidation of the endodermis formation mechanism of stem was improved by trying to identify the endodermis stem cells in the shoot apical meristem and the genes associated with endodermis formation, through devising research materials and using observation techniques developed recently.
- 科学研究費補助金/新学術領域研究, Apr. 2015 - Mar. 2017, Principal investigatorCompetitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Challenging Exploratory Research, Kyoto University, 01 Apr. 2014 - 31 Mar. 2016Genomic studies of transcription factors and experimental analysis of their functions by genome editing in Marchantia polymorphaLand plants acquired a system to coordinate developmental program with environment during evolution. Transcriptional regulation is one of the major mechanisms for the adaptive growth and development in plants. As a basal land plant, the liverwort Marchantia polymorpha is an attractive model organism with haploid-dominant life cycle. In addition, sophisticated experimental systems such as efficient genetic transformation and genome information have been developed in M. polymorpha. We deduced the entire set of genes for transcription factors from the draft genome sequences of M. polymorpha. To experimentally analyze gene function efficiently, the CRISPR/Cas9-mediated genome editing is a simple and straightforward method to disrupt genes of interest. We significantly improved the efficiency of genome editing by optimizing Cas9 expression and CRISPR design. Simple, rapid and efficient mutagenesis by CRISPR/Cas9 enabled systematic analysis of transcription factors in M. polymorpha.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (C), Kyoto University, 01 Apr. 2012 - 31 Mar. 2015Analyses on photoregulation of the cell cycle and mechanisms of cell division in plantsIn plants, light plays critical roles in processes that accompany with cell proliferation, such as organogenesis and regeneration. For the liverwort Marchantia polymorpha, a bryophyte, red light promotes cell proliferation. This research project revealed that red light regulates different steps of expression of a gene that regulates S-phase entry by signaling via photosynthesis and the red-light receptor phytochrome, and that the phytochrome also promotes isotropic cell growth. Functional analysis on the microtubule-based motor protein that is localized to the cell plate suggested that the protein may play a role in the transport of membrane vesicles for cell-plate formation. As this gene was found to be essential, a vector and a protocol for obtaining conditional knockout mutants were created.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (C), Kinki University, 01 Apr. 2012 - 31 Mar. 2015Search for sex determination genes in Marchantia polymorphaFive sequences of a female genomic data were identified as X-linked by comparing with a male genomic data. RNA-seq data obtained from a variety of tissues were mapped onto the X-linked sequences, and genes expressed specifically in female sexual organs were searched. RT-PCR revealed one of the candidate genes was indeed expressed specifically in female sexual organs. The candidate X-linked gene is similar to those involved in regulation of DNA methylation.
- 科学研究費補助金/新学術領域研究, Apr. 2013 - Mar. 2015, Principal investigatorCompetitive research funding
- 科学研究費補助金/新学術領域研究, Apr. 2013 - Mar. 2015, Principal investigatorCompetitive research funding
- 学術研究助成基金助成金/基盤研究(C), Apr. 2012 - Mar. 2015, Principal investigatorCompetitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Challenging Exploratory Research, Kyoto University, 01 Apr. 2012 - 31 Mar. 2014Systematic analysis of transcription factors in Marchantia polymorphaTranscription factors are major regulators for various biological processes including development and environmental responses. Arabidopsis thaliana and Physcomitrella patens have 2,000 and 1,200 transcription factors, respectively. The liverwort Marchantia polymorpha is an emerging model organism for developmental and evolutional studies. M. polymorpha occupies a crucial position in the evolution of land plant and has the haploid-dominant life cycle, which provides advantages over diploid plants for molecular genetic analysis. In this study, we identified ca. 300 transcription factors in M. polymorpha by searching our EST and RNA-sequence databases that include more than 20,000 genes. Surprisingly, M. polymorpha had 38 transcription factor families that are common numbers with A. thaliana. These results indicate that redundancy of transcription factors in M. polymorpha should be very low and that M. polymoroha provides suitable system for genetic analysis.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Challenging Exploratory Research, Nara Institute of Science and Technology, 01 Apr. 2012 - 31 Mar. 2014Proteomic identification of dephosphorylated proteins by phosphatase proteinProtein phosphorylation and dephosphorylation by protein kinases and phosphatases regulate many biological events in plants. To identify as many phosphoproteins as possible, several purification methods of phosphopeptides have been established. Here, we used two kind of phosphopeptides purification columns (PhosTio and PolyMac) and each method allowed identifying 771 and 641 phosphopeptides in rice cultured cells. Also, 913 and 802 phosphopeptides were identified in rice cultured cells treated with rice blast fungus. These results indicate that phosphorylation of several proteins are induced responded to pathogen attack and may have a role in disease resistances.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (B), Kyoto University, 01 Apr. 2011 - 31 Mar. 2014Molecular genetic studies on flowering control by VOZ1 and VOZ2 in ArabidopsisThe phase transition of vegetative to reproductive growth in plants is regulated by various environmental factors including day length and light quality. Two Arabidopsis thaliana genes, VASCULAR PLANT ONE ZINC FINGER1 and VOZ2 mediated phyB-dependent flowering regulation. By mutant complementation assays, VOZ1 and VOZ2 expressed in vascular bundles functioned as transcriptional regulators in nucleus. Genetic and molecular researches suggested that VOZ1 and VOZ2 promote growth-phase transition to flowering by down-regulating FLC and its closely related homologs MAF1 to MAF5 by a pathway that is independent to vernalization pathway.
- Ministry of Education, Culture, Sports, Science and Technology-Japan, Grant-in-Aid for Scientific Research on Innovative Areas, Apr. 2011 - Mar. 2013, Principal investigator環境変動下における生存戦略としての栄養生殖機構の解析Competitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (B), University of Shizuoka, 2010 - 2012Reverse genetics and recombinationTo facilitate reverse genetic approaches, which include homologous recombination-mediated gene targeting using positive-negative selection and gene tagging employing endogenous nDart1-related DNA transposons, we were attempting to elucidate recombination mechanisms and their regulation mechanisms associated with gene targeting and tagging. We also characterized the functions of the genes identified by gene targeting and tagging.
- Japan Society for the Promotion of Science, Grant-in-Aid for Young Scientists (B), Apr. 2010 - Mar. 2011, Principal investigatorフィトクロムによる植物成長相転換制御の基本プログラムCompetitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Challenging Exploratory Research, Kyoto University, 2010 - 2011Development of molecular tools for forward genetics in the liverwort Marchantia polymorphaThe liverwort Marchantia polymorpha is an emerging model of evodevo studies in land plants. We developed molecular tools for forward genetics for M. polymorpha. DNA polymorphism between the standard accession Takaragaike-1 and the reference accession Kitashirakawa was systematically detected and used for genetic mapping with high resolution. We also applied the T-DNA tagging to isolate developmental mutants and to identify causal genes in M. polymorpha.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research, Grant-in-Aid for Scientific Research (C), Kyoto University, 2008 - 2010Evolution of sex chromosomes in haploid genomeAmong the genes identified in the Y chromosomal region under investigation, eight appears to have essential functions and thus are expected to have their homologs on the X chromosome. In fact, the Y-chromosomal M547D3.1 gene has its X-chromosomal partner M547D3.1F. Additional 39 X-chromosomal counterparts were obtained from female genomic data provided from JGI.
- Ministry of Education, Culture, Sports, Science and Technology-Japan, Grant-in-Aid for Young Scientists (B), Apr. 2008 - Mar. 2009, Principal investigator光情報による陸上植物生長相転換制御メカニズムCompetitive research funding
- Japan Society for the Promotion of Science, Grant-in-Aid for Research Activity start-up, Apr. 2007 - Mar. 2008, Principal investigator陸上植物における生殖成長相移行の基本プログラムCompetitive research funding