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Search DetailsSUETSUGU KenjiGraduate School of Science / Division of BiologyProfessor
Researcher basic information
■ Research news- 21 Aug. 2020, What kind of animal transports the seeds of the world's smallest fruit-bearing plants?
- 11 Aug. 2020, An ancient association? Crickets disperse seeds of the early-diverging orchid Apostasia nipponica
- 24 Jan. 2020, How old are they? Some non-photosynthetic orchids consist of dead wood
- 02 Aug. 2019, Discovery of non-blooming orchid on Japanese subtropical islands
- 17 Jan. 2019, Wasps, cockroaches and crickets are pollinators too
- 21 Sep. 2018, What’s eating these endangered orchids?
- 13 Sep. 2018, New plant species discovered in museum is probably extinct
- 29 May 2018, The stick insects that survive being eaten by birds
- 23 Mar. 2018, Freeloading orchid relies on mushrooms above and below ground
- 11 Jan. 2018, Closed marriage: an orchid that never blooms
- 15 Nov. 2017, Flower attracts insects by pretending to be a mushroom: The true pollinators for one of the strangest flowers are finally revealed
- 14 Nov. 2017, Parasitic plants rely on unusual method to spread their seeds: convergent evolution of internal seed dispersal by camel crickets
- 25 Jul. 2017, New non-photosynthesizing plant species discovered on Ishigaki island, Japan
- 30 Jun. 2017, Mistaken identity of East Asian vine species resolved after 100 years
- 07 Apr. 2017, Two new species of orchids discovered in Okinawa
- 14 Feb. 2017, Genes in albino orchids may hold clues to parasitic mechanism used by non-photosynthetic plants
- 03 Nov. 2016, New species of parasitic plant discovered in Japan-Yakushima’s forest ecosystems support many endangered species-
- 14 Oct. 2016, Plant discovered that neither photosynthesizes nor blooms
- 20 Feb. 2016, New plant species discovered on Yakushima -Time for a closer look at the island's lowland primeval forests
Research activity information
■ Award- Oct. 2024 神戸大学, 令和6年度神戸大学学長表彰
- Apr. 2024 日本植物学会, 2024年度JPR論文賞
- Mar. 2024 村尾育英会, 学術奨励賞
- Jun. 2022 神戸大学, 優秀若手研究者賞
- Mar. 2020 日本生態学会, 宮地賞
- Feb. 2020 松下幸之助記念志財団, 松下幸之助花の万博記念賞 松下幸之助記念奨励賞
- Oct. 2018 神戸大学, 第10回神戸大学学長表彰, 従属栄養植物の新種発見とその生態解明末次氏の専門は、従属栄養植物と呼ばれる「光合成をやめた植物」である。これらの植物は、開花期のわずかな期間しか姿を現さないため、分布情報すら明らかではない種が多く、その研究には困難を伴った。そこで末次氏は、精力的なフィールドでの探索を行い、詳細な研究の遂行に成功した。さらに末次氏は、最新の解析技術と自身が明らかにした生態情報を発展的に組み合わせ、陸上植物に生態的ならびに形態的な多様性を生み出した従属栄養性進化のパターンとメカニズムを解明しつつある。末次氏の研究成果は、植物が「光合成をやめる」という究極の選択をした過程で起こった変化を包括的に理解するものとの評価を受け、ここ3年の間に次々と所属学会(日本植物分類学会、日本植物学会、日本生態学会)の奨励賞を受賞したほか、2016年12月には、科学技術・学術政策研究所(文部科学省)より、神戸大学では初となる「Others
- Apr. 2018 文部科学省, 平成30年度科学技術分野の文部科学大臣表彰(若手科学者賞), 従属栄養植物の進化生態学研究Others
- May 2017 日本植物学会, 平成29年度(第14回)日本植物学会奨励賞, 菌従属栄養植物の分類学的整理と生態解明Japan society
- Dec. 2016 科学技術・学術政策研究所(NISTEP), 科学技術への顕著な貢献2016(ナイスステップな研究者)/末次健司, 光合成をやめた植物の新種発見と生態解明International academic award
- Feb. 2016 井上科学振興財団, 第32回井上研究奨励賞, 従属栄養植物が宿主や送粉者、種子散布者 と織りなす多様な相互作用Publisher
- Jun. 2025, Plant Biology, English[Refereed]Scientific journal
- Jun. 2025, Plant Biology, English[Refereed]Scientific journal
- May 2025, Annals Of BotanyScientific journal
- May 2025, Proceedings of the Royal Society B: Biological SciencesScientific journal
- Apr. 2025, The Bulletin of the Ecological Society of America, 106(2) (2), e2217, EnglishScientific journal
- Mar. 2025, Journal of Plant Research, English[Refereed]Scientific journal
- Mar. 2025, ENTOMOLOGICAL NEWS, 132(2) (2), 238 - 243, EnglishPOLLINATION OF THE MYCOHETEROTROPHIC ORCHID GASTRODIA ELATA VAR. PALLENS BY LASIOGLOSSUM SPHECODICOLOR (HALICTIDAE)[Refereed]Scientific journal
- Mar. 2025, Plant Biology, 27, 224 - 230, English[Refereed]Scientific journal
- Feb. 2025, Journal of Japanese Botany, 100(1) (1), 18 - 30, English[Refereed]
- Feb. 2025, Mycorrhiza, 35(1) (1), 9, English[Refereed]Scientific journal
- Feb. 2025, The Plant Journal, 121(4) (4), e70045, English[Refereed]Scientific journal
- Feb. 2025, New Phytologist, 245(4) (4), 1705 - 1717, English[Refereed]Scientific journal
- Jan. 2025, PLANTS, PEOPLE, PLANET, English[Refereed]Scientific journal
- Last, Jan. 2025, BOTANICAL JOURNAL OF THE LINNEAN SOCIETY, English[Refereed]Scientific journal
- 2025, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 76(1) (1), 73 - 76, English[Refereed]Scientific journal
- Jan. 2025, Ecology, 106(1) (1), e4522, English[Refereed]Scientific journal
- Jan. 2025, Ecology, 106(1) (1), e4506, English[Refereed]Scientific journal
- Jan. 2025, Ecology, 106(1) (1), e4464, English[Refereed]Scientific journal
- Jan. 2025, Ecology, 106(1) (1), e4465, English[Refereed]Scientific journal
- Jan. 2025, The Bulletin of the Ecological Society of America, 106(1) (1), e02205, EnglishScientific journal
- Jan. 2025, The Bulletin of the Ecological Society of America, 106, e02202, EnglishScientific journal
- Jan. 2025, Functional Ecology, 39(1) (1), 199 - 208, English[Refereed]Scientific journal
- Jan. 2025, Plant, Cell & Environment, 48(1) (1), 792 - 804, English[Refereed]Scientific journal
- Dec. 2024, JOURNAL OF PLANT RESEARCH, 138, 323 - 336, English[Refereed]Scientific journal
- Adaptive introgression plays a vital role in allowing recipient species to adapt and colonize new environments. However, our understanding of such environment-dependent introgressions is primarily limited to specific plant taxa in particular settings. In Japan, two related orchid species, the autonomously self-pollinating Pogonia minor and the outcrossing Pogonia japonica, typically inhabit dry grasslands and wetlands, respectively. Intriguingly, an island ecotype of P. japonica exists in arid, wind-swept, open sites on volcanic mountain slopes on Kozu Island, in the oceanic Izu Islands. To investigate potential introgression and its implications between P. japonica and P. minor on Kozu Island, we applied a comprehensive approach that included examining morphological traits, genome-wide SNP data, and plastid DNA sequences. We also examined the breeding systems of these species on Kozu Island through artificial pollination experiments to determine if introgression from P. minor has endowed the P. japonica ecotype with selfing capabilities. Extensive sampling on Kozu Island revealed that all P. japonica specimens exhibit signs of introgression from P. minor, suggesting the absence of pure P. japonica populations on the island. Furthermore, the chloroplast haplotypes of the insular P. japonica ecotype consistently match those of P. minor, indicating a predominantly asymmetrical initial hybridization with P. minor acting mainly as the maternal parent in the formation of F1 hybrids. Despite the advantages of self-fertilization in isolated environments, the insular P. japonica does not exhibit autogamy. Consequently, the scarcity of moist habitats, rather than selection pressure for selfing, likely contributes to the observed widespread introgression. Our study strongly suggests that the arid-environment-adapted P. minor has introgressed into the insular ecotype of P. japonica, enabling its successful colonization of arid volcanic mountain slopes of the oceanic island.Dec. 2024, Evolution Letters, 8(6) (6), 799 - 812, English[Refereed]Scientific journal
- Dec. 2024, Botanical Journal of the Linnean Society, 206, 313 - 326, English[Refereed]Scientific journal
- Dec. 2024, Plant Biology, 26, 1193 - 1198, English[Refereed]Scientific journal
- Dec. 2024, Entomological Science, 27(4) (4), English[Refereed]Scientific journal
- Nov. 2024, BMC PLANT BIOLOGY, 24(1) (1), English[Refereed]
- 日本植物分類学会, Nov. 2024, 植物地理・分類研究, 72(2) (2), 161 - 165, Japanese[Refereed]
- Last, 日本植物分類学会, Nov. 2024, 植物地理・分類研究, 72(2) (2), 157 - 160, Japanese[Refereed]
- 日本植物分類学会, Nov. 2024, 植物地理・分類研究, 72(2) (2), 167 - 170, Japanese[Refereed]
- 日本植物分類学会, Nov. 2024, 植物地理・分類研究, 72(2) (2), 153 - 155, Japanese[Refereed]
- Nov. 2024, FRONTIERS IN ECOLOGY AND THE ENVIRONMENT, 22(9) (9), e2813, English[Refereed]Scientific journal
- Societal Impact Statement: This study illuminates the underappreciated role of invertebrates in seed dispersal, extending beyond the well-documented contributions of ants. Focusing on Monotropastrum humile (銀竜草 [silver dragon plant] or 水晶蘭 [crystal orchid]), a non-photosynthetic plant known for its minuscule, dust-like seeds, the present research uncovers their seed dispersal roles of woodlice and earwigs in Japan. Remarkably, these invertebrates include the smallest known endozoochorous seed dispersers. Summary: Endozoochory, or internal seed dispersal through the digestive tracts of animals, has been less studied in invertebrates compared with vertebrates. Nonetheless, endozoochory is plausible whenever seeds are small enough for ingestion by frugivorous animals, suggesting a potential role for invertebrates in seed dispersal, especially for plants with minute seeds. Monotropastrum humile (Ericaceae), characterized by its fleshy fruits and dust-like seeds, is known to utilize invertebrate agents such as camel crickets and cockroaches for seed dispersal. Here, we investigate this seed dispersal mechanism using time-lapse photography, feeding experiments, and seed coat anatomy analysis, particularly focusing on interactions among undocumented invertebrate internal seed dispersers. Field observations indicated that in the studied population, M. humile fruits were primarily consumed by camel crickets, woodlice, and earwigs. Their effectiveness as seed dispersers varied, with camel crickets primarily acting as dispersers, whereas earwigs and woodlice were more inclined toward seed predation. Nonetheless, some seeds defecated by earwigs and woodlice remained intact, suggesting that they could also function as dispersal agents. The woodlouse Porcellio scaber is now recognized as the world's smallest internal seed dispersal agent. Combined with earlier discoveries, such as seed dispersal by camel crickets, cockroaches, and ants, and the fact that P. scaber is an exotic species in the study site, M. humile likely depends on a broad spectrum of local invertebrates. The engagement of multiple invertebrate dispersers may enhance seed dispersal across diverse habitats.Nov. 2024, PLANTS, PEOPLE, PLANET, 6(6) (6), 1159 - 1166, English[Refereed]Scientific journal
- Abstract While most flowering plants engage in mutualistic interactions with their pollinators, Arisaema species employ a unique, seemingly antagonistic strategy by imprisoning and causing the pollinators to perish within their spathes. Recent studies have revealed that Arisaema thunbergii primarily relies on a fungus gnat, Leia ishitanii, with some individuals possibly escaping female spathes after oviposition. We investigated interactions between A. urashima and its pollinating fungus gnats, given that A. urashima is closely related to A. thunbergii. Specifically, we tested whether decaying A. urashima serve as brood‐sites for some pollinators and whether these pollinators can escape seemingly lethal floral traps. We retrieved A. urashima spathes together with adult insect corpses trapped within the spathes and incubated the spathes to see if conspecific insects emerged. In addition, under laboratory conditions, we observed the escape behaviour of Sciophila yokoyamai, whose next‐generation adults most frequently emerge from the decaying spathes. Our findings indicate that S. yokoyamai almost always escapes from the female spathe after oviposition while using the inflorescence as a nursery. In contrast, other pollinators of A. urashima, including Mycetophila spp., remain trapped and perished within the spathes. This study demonstrates that A. urashima spathes can function both as lethal traps and mutualistic nurseries, with outcomes differing among pollinator species. Our results also suggest that the contribution of certain pollinators to Arisaema reproduction is underestimated or even neglected, given that information on their pollinator assemblages has been based on floral visitors trapped within the inflorescences.Wiley, Sep. 2024, Plant Biology, 26, 1154 - 1161, English[Refereed]Scientific journal
- Summary To evaluate the nutritional modes of orchids associated with ‘rhizoctonia’ fungi, analyses of hydrogen (δ2H), carbon (δ13C), and nitrogen (δ15N) stable isotope ratios are usually adopted. However, previous studies have not fully accounted for exchangeable hydrogens, which could affect these evaluations. Here, we performed standard δ13C, δ15N, and δ2H analyses on bulk samples. Additionally, we conducted δ2H analysis on α‐cellulose and cellulose nitrate samples to investigate whether the heterogeneity of exchangeable hydrogens among plant species influences the assessment of nutritional modes. The δ2H of orchids were consistently higher than those of surrounding autotrophic plants, irrespective of the three pretreatments. Although the rhizoctonia‐associated orchid exhibited lower δ13C, its δ2H was higher than those of the autotrophs. Notably, among all response variables, δ15N and δ2H exhibited high abilities for discriminating the nutritional modes of rhizoctonia‐associated orchids. These results indicate that a time‐efficient bulk sample analysis is an effective method for evaluating plant nutritional modes, as the heterogeneity of exchangeable hydrogens does not significantly impact the estimation. Using δ15N and δ2H benefits the assessment of partial mycoheterotrophy among rhizoctonia‐associated orchids.Wiley, Sep. 2024, New Phytologist, 243(6) (6), 2430 - 2441, English, International magazine[Refereed]Scientific journal
- Dust seeds, which are minute and contain minimal energy reserves, are often associated with heterotrophy (plants that obtain carbon without photosynthesis). Consequently, previous studies have mainly focused on the relationships between dust seeds and heterotrophy. However, dust seeds are also found in green plants. This manuscript focuses on the seed ecology of the apparently autotrophic shrub Rhynchotechum discolor that produces dust seeds. Using time-lapse photography, feeding experiments, and germination tests, we show that camel crickets effectively disperse the seeds of this autotrophic shrub. This is the first study to document insect-mediated internal seed dispersal of an autotrophic plant in regions inhabited by terrestrial mammals, offering new insights into the evolutionary ecology of dust seeds.Aug. 2024, PLANTS, PEOPLE, PLANET, English[Refereed]Scientific journal
- Jul. 2024, PLANTS, PEOPLE, PLANET, 7(1) (1), 4 - 10, English[Refereed]Scientific journal
- Jul. 2024, PLANTS, PEOPLE, PLANET, 6(6) (6), 1167 - 1179, English[Refereed]Scientific journal
- Jul. 2024, Taiwania, 69(3) (3), 309 - 316, English[Refereed]Scientific journal
- The Calypsoinae orchid genus Dactylostalix, previously considered a monotypic genus endemic to Japan and the Russian Far East (the Kuril Islands and Sakhalin Island), is now redefined to encompass two species. This reclassification is based not only on the examination of type specimens and literature but also on molecular data. While Pergamena uniflora has long been regarded as a synonym of Dactylostalix ringens, it is distinguishable by its shorter scape, smaller flower, less spotted tepals, drooping sepals and lateral petals, labellum with smaller, narrowly triangular to ovate lateral lobes, more distinct keels on the adaxial surface of the lip, and a slender column with a smaller stigma and weakly developed clinandrium. We propose the new combination Dactylostalix uniflora, recognizing it as a distinct species within the genus Dactylostalix. Phylogenetic analysis utilizing genome-wide markers has also demonstrated that the two species are genetically distinct. Our findings, obtained through the integration of morphological data and molecular phylogenetics, indicate that D. uniflora represents a distinct evolutionary lineage from D. ringens. Examination of type specimens has led us to conclude that Calypso japonica, Dactylostalix maculosa, and Dactylostalix ringens f. punctatus are junior synonyms of D. ringens. Additionally, we designate the lectotypes for P. uniflora (= D. uniflora), C. japonica, and D. maculosa.Magnolia Press, Jun. 2024, Phytotaxa, 652(2) (2), 83 - 99, English[Refereed]Scientific journal
- May 2024, Ecological Entomology, 49, 970 - 973, English[Refereed]Scientific journal
- Last, 日本植物分類学会, May 2024, 植物地理・分類研究, 72(1) (1), 67 - 69, Japanese[Refereed]
- 日本植物分類学会, May 2024, 植物地理・分類研究, 72(1) (1), 57 - 59, Japanese[Refereed]
- Lead, 日本植物分類学会, May 2024, 植物地理・分類研究, 72(1) (1), 74, Japanese
- May 2024, Journal of Plant Research, 137(3) (3), 411 - 422, English[Refereed]Scientific journal
- The research explores the complex interaction between flowering plants and their pollinators, specifically focusing on the genus Arisaema. Unlike most plants, Arisaema has a distinctive trait in which killing pollinators can be beneficial. Traditionally, this interaction has been viewed as highly antagonistic because it appears to favor the plants at the expense of the pollinators. However, new evidence reveals that a pollinator uses the lethal floral trap of Arisaema thunbergii as a nursery. Remarkably, some individuals probably even escape from the trap after laying eggs. This finding challenges the prevailing notion that deceptive pollination is the sole outcome in Arisaema, a genus known for its intricate lethal pollination mechanisms.May 2024, PLANTS, PEOPLE, PLANET, 6(3) (3), 536 - 543, English[Refereed]Scientific journal
- Springer Science and Business Media LLC, Apr. 2024, Mycorrhiza, 34(1) (1), 33 - 44, English[Refereed]Scientific journal
- Last, Mar. 2024, Journal of Ecology, 112(6) (6), 1287 - 1300, English[Refereed]Scientific journal
- Last, Jan. 2024, JOURNAL OF PLANT RESEARCH, 137(1) (1), 157 - 157, English[Refereed]
- 2024, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 75(3) (3), 179 - 183, English[Refereed]Scientific journal
- 2024, Mycoscience, 65(2) (2), 68 - 78, English, Domestic magazine[Refereed]Scientific journal
- 日本植物分類学会, Nov. 2023, 植物地理・分類研究, 71(2) (2), 161 - 164, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Nov. 2023, 植物地理・分類研究, 71(2) (2), 145 - 148, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Nov. 2023, 植物地理・分類研究, 71(2) (2), 141 - 144, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Nov. 2023, 植物地理・分類研究, 71(2) (2), 183 - 185, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Nov. 2023, 植物地理・分類研究, 71(2) (2), 187 - 189, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Nov. 2023, 植物地理・分類研究, 71(2) (2), 191 - 193, Japanese[Refereed]Scientific journal
- Nov. 2023, Ecology, 104(11) (11), e4152, English, International magazine[Refereed]Scientific journal
- Last, Nov. 2023, Journal of Plant Research, 136(6) (6), 853 - 863, English, Domestic magazine[Refereed]Scientific journal
- Oct. 2023, Acta Phytotaxonomica et Geobotanica, 74(3) (3), 177 - 182, English[Refereed]Scientific journal
- Oct. 2023, The New phytologist, 241(3) (3), 1321 - 1333, English, International magazine[Refereed]Scientific journal
- Oct. 2023, Proceedings. Biological sciences, 290(2008) (2008), 20231708 - 20231708, English, International magazine[Refereed]Scientific journal
- Oct. 2023, Nordic Journal of Botany, English[Refereed]Scientific journal
- Oct. 2023, The Bulletin of the Ecological Society of America, English[Refereed]Scientific journal
- Oxford University Press (OUP), Sep. 2023, Plant Physiology, 194(1) (1), 546 - 563, English, International magazine[Refereed]Scientific journal
- 東京 : 福音館書店, Sep. 2023, たくさんのふしぎ, (462) (462), 1冊, Japanese「植物」をやめた植物たち—MUSHROOM MUNCHERS : The Fascinating World of Non-Photosynthetic Plants
- Aug. 2023, New Phytologist, 239(4) (4), 1166 - 1172, English, International magazine[Refereed]Scientific journal
- Jul. 2023, Acta Phytotaxonomica et Geobotanica, 74(2) (2), 121 - 129, English[Refereed]Scientific journal
- Jul. 2023, EnglishScientific journal
- 東京 : 日経サイエンス ; 1990-, Jul. 2023, 日経サイエンス, 53(7) (7), 58 - 65, Japanese光合成はもうやめた : 末次健司が語る多様性の謎—特集 進化する植物愛Scientific journal
- Jun. 2023, Phytotaxa, 599(3) (3), 139 - 149, English[Refereed]Scientific journal
- 日本植物分類学会, May 2023, 植物地理・分類研究, 71(1) (1), 86 - 87, Japanese[Refereed]
- Japanese Society for Plant Systematics, May 2023, The Journal of Phytogeography and Taxonomy, 71(1) (1), 57 - 60, Japanese[Refereed]Scientific journal
- Japanese Society for Plant Systematics, May 2023, The Journal of Phytogeography and Taxonomy, 71(1) (1), 79 - 82, Japanese[Refereed]Scientific journal
- May 2023, English[Refereed]Scientific journal
- May 2023, Journal of Plant Research, 136(3) (3), 333 - 348, English, Domestic magazine[Refereed]Scientific journal
- 東京 : 岩波書店, Apr. 2023, 科学, 93(4) (4), 335 - 339, Japanese朽ち木を食べる植物「腐生植物」の進化の道のり—Unveiling the evolutionary process of the plants feeding on deadwood—特集 植物にときめく! ; 生きかたの妙にせまるScientific journal
- Apr. 2023, The Bulletin of the Ecological Society of America, EnglishScientific journal
- Mar. 2023, Frontiers in Ecology and the Environment, 21(2) (2), 103, English[Refereed]Scientific journal
- Feb. 2023, Acta Phytotaxonomica et Geobotanica, 74(1) (1), 39 - 45, English[Refereed]Scientific journal
- Feb. 2023, Phytotaxa, 585(2) (2), 102 - 112, English[Refereed]Scientific journal
- Feb. 2023, The New phytologist, 238(3) (3), 932 - 937, English, International magazine[Refereed]Scientific journal
- Feb. 2023, bioRxiv : the preprint server for biology, 184(7) (7), 525 - 540, English, International magazineScientific journal
- Feb. 2023, Phytotaxa, 583(3) (3), 251 - 259, English[Refereed]Scientific journal
- Jan. 2023, Ecology, 104(4) (4), e3972, English, International magazine[Refereed]Scientific journal
- Jan. 2023, Phytotaxa, 578(1) (1), 1 - 10, English[Refereed]Scientific journal
- Jan. 2023, Journal of plant research, 136(1) (1), 3 - 18, English, Domestic magazine[Refereed]Scientific journal
- Japanese Society for Plant Systematics, Nov. 2022, The Journal of Phytogeography and Taxonomy, 70(2) (2), 191 - 195, Japanese[Refereed]Scientific journal
- 東京 : 自然環境復元学会編集委員会, Nov. 2022, 自然環境復元研究 / 自然環境復元学会・編集委員会 編, 13(1) (1), 5 - 9, Japanese福井県高浜町におけるキンラン花茎への袋掛けおよび薬剤散布によるランミモグリバエ対策—Measures against Japanagromyza tokunagai by bagging treatment and insecticide application to flower stem of Cephalanthera falcata in Takahama Town, Fukui Prefecture, Japan[Refereed]Scientific journal
- Japanese Society for Plant Systematics, Nov. 2022, The Journal of Phytogeography and Taxonomy, 70(2) (2), 187 - 189, Japanese[Refereed]Scientific journal
- Japanese Society for Plant Systematics, Nov. 2022, The Journal of Phytogeography and Taxonomy, 70(2) (2), 183 - 185, Japanese[Refereed]Scientific journal
- 東京 : 北隆館, Oct. 2022, アグリバイオ = Agricultural biotechnology, 6(11) (11), 1048 - 1052, Japanese鳥類の捕食による昆虫の次世代の産出と新たな分布拡大メカニズム—Possible role of avian predation in the egg dispersal and subsequent distribution expansion of the insectsScientific journal
- Oct. 2022, The Bulletin of the Ecological Society of America, EnglishScientific journal
- Oct. 2022, The Bulletin of the Ecological Society of America, EnglishScientific journal
- Sep. 2022, New Phytologist, 237(1) (1), 323 - 338, English, International magazine[Refereed]Scientific journal
- Sep. 2022, PLANTS, PEOPLE, PLANET, 5(1) (1), 5 - 13, English[Refereed]Scientific journal
- Sep. 2022, Ecology, 103(9) (9), e3782, English, International magazine[Refereed]Scientific journal
- Sep. 2022, Ecology, 103(9) (9), e3781, English, International magazine[Refereed]Scientific journal
- Sep. 2022, PLANTS, PEOPLE, PLANET, 4(5) (5), 418 - 422, English[Refereed]Scientific journal
- Aug. 2022, New Phytologist, 235(3) (3), 836 - 841, English, International magazine[Refereed]Scientific journal
- Jul. 2022, ENTOMOLOGICAL NEWS, 130(3) (3), 318 - 320, EnglishLEAPING BY SOFT-BODIED DROSOPHILID LARVAE[Refereed]Scientific journal
- Jul. 2022, Mycorrhiza, 32(3-4) (3-4), 269 - 280, English, International magazine[Refereed]Scientific journal
- Wiley, Jul. 2022, Ecology, 103(7) (7), e3701, English, International magazine[Refereed]Scientific journal
- Jun. 2022, Journal of Experimental Botany, 73(12) (12), 4204 - 4213, English, International magazine[Refereed]Scientific journal
- 東京 : 青土社, May 2022, ユリイカ, 54(6) (6), 107 - 110, Japanese植物と菌類との助け合いと騙しあい : 実はしたたかな共生関係の実態—特集 菌類の世界 : きのこ・カビ・酵母
- May 2022, PLANTS, PEOPLE, PLANET, 4(3) (3), 196 - 200, English[Refereed]Scientific journal
- May 2022, Plant Species Biology, 37(3) (3), 257 - 264, English[Refereed]Scientific journal
- Kitakyushu Museum of Natural History and Human History, Mar. 2022, Bulletin of the Kitakyushu Museum of Natural History and Human History, Series A (Natural History), 20(20) (20), 1 - 4, Japanese
- Feb. 2022, FRONTIERS IN ECOLOGY AND THE ENVIRONMENT, 20(1) (1), 9 - 9, English[Refereed]
- 東京 : 北隆館, 2022, アグリバイオ, 6(6) (6), 68 - 72, Japanese鳥類の捕食による昆虫の次世代の産出と新たな分布拡大メカニズムScientific journal
- 2022, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 73(3) (3), 211 - 217, English[Refereed]Scientific journal
- 2022, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 73(3) (3), 233 - 238, English[Refereed]Scientific journal
- 2022, PhytoKeys, 212(212) (212), 111 - 134, English, International magazine[Refereed]Scientific journal
- 2022, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 73(2) (2), 147 - 150, English[Refereed]Scientific journal
- Dec. 2021, Frontiers in Ecology and the Environment, 19(10) (10), 556 - 556, English[Refereed]
- Nov. 2021, Phytotaxa, 527(2) (2), 89 - 96, English[Refereed]Scientific journal
- Japanese Society for Plant Systematics, Nov. 2021, The Journal of Phytogeography and Taxonomy, 69(2) (2), 189 - 191, Japanese
- Japanese Society for Plant Systematics, Nov. 2021, The Journal of Phytogeography and Taxonomy, 69(2) (2), 193 - 196, Japanese
- Nov. 2021, ZOOKEYS, 1073(1073) (1073), 201 - 204, English, International magazine[Refereed]Scientific journal
- Wiley, Oct. 2021, Environmental Microbiology, 23(10) (10), 6328 - 6343, English, International magazine[Refereed]Scientific journal
- Springer Science and Business Media {LLC}, Oct. 2021, Plant Systematics and Evolution, 307(5) (5), English[Refereed]Scientific journal
- Sep. 2021, Phytotaxa, 520(2) (2), 215 - 224, English[Refereed]
- Genetics Society of Japan, Sep. 2021, Genes & genetic systems, 96(4) (4), 199 - 203, English, Domestic magazine[Refereed]Scientific journal
- Sep. 2021, ZOOKEYS, 1060(1060) (1060), 171 - 181, English, International magazine[Refereed]Scientific journal
- Sep. 2021, Frontiers in Ecology and the Environment, 19(7) (7), 378, English[Refereed]
- Aug. 2021, TAIWANIA, 66(3) (3), 277 - 286, English[Refereed]Scientific journal
- Oxford University Press ({OUP}), Jul. 2021, Plant and Cell Physiology, 62(3) (3), 472 - 481, English, Domestic magazine[Refereed]Scientific journal
- Wiley, Jul. 2021, Functional Ecology, 35(10) (10), 2305 - 2315, English[Refereed]Scientific journal
- Wiley, Jul. 2021, New Phytologist, 231(5) (5), 1670 - 1675, English, International magazine[Refereed]
- Jun. 2021, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 72(2) (2), 153 - 160, English[Refereed]Scientific journal
- May 2021, Phytotaxa, 502(1) (1), 107 - 110, English[Refereed]
- 国立科学博物館, May 2021, Milsil : 自然と科学の情報誌, 14(3) (3), 18 - 21, Japanese光合成をやめ、菌類に寄生する植物の謎を解く : 菌類や昆虫をだまして生きる!? : 科学者の探究心にせまるScientific journal
- Lead, May 2021, Frontiers in Ecology and the Environment, 19(4) (4), 233, English[Refereed]Scientific journal
- Springer Science and Business Media LLC, May 2021, Biodiversity and Conservation, 30(6) (6), 1913 - 1927, English[Refereed]Scientific journal
- Springer Science and Business Media LLC, May 2021, Mycorrhiza, 31(3) (3), 301 - 312, English, International magazine[Refereed]Scientific journal
- 東京 : ニュートンプレス, Apr. 2021, Newton = ニュートン : graphic science magazine, 41(5) (5), 84 - 99, Japanese光合成をやめた植物たち : 菌類から栄養を奪って生きる植物
- Apr. 2021, NEW PHYTOLOGIST, 235(1) (1), 333 - 343, English, International magazine[Refereed]Scientific journal
- Mar. 2021, Entomological News, 129(5) (5), 559 - 563, English[Refereed]Scientific journal
- Mar. 2021, Mycorrhiza, 31(2) (2), 243 - 250, English[Refereed]Scientific journal
- Mar. 2021, Mycorrhiza, 31(2) (2), 219 - 229, English[Refereed]Scientific journal
- Mar. 2021, FRONTIERS IN ECOLOGY AND THE ENVIRONMENT, 19(2) (2), 125 - 125, English[Refereed]
- Feb. 2021, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 72(1) (1), 67 - 72, English[Refereed]Scientific journal
- Feb. 2021, New Phytologist, 229(4) (4), 2302 - 2310, English[Refereed]Scientific journal
- Feb. 2021, Ecology, 102(2) (2), English[Refereed]Scientific journal
- Feb. 2021, FRONTIERS IN ECOLOGY AND THE ENVIRONMENT, 19(1) (1), 65 - 65, English[Refereed]
- Feb. 2021, Taiwania, 66(1) (1), 113 - 120, English[Refereed]Scientific journal
- Feb. 2021, Ecology, 100(2) (2), e0235 - e02535, English[Refereed]Scientific journal
- Japanese Society for Plant Systematics, 2021, The Journal of Phytogeography and Taxonomy, 69(2) (2), 258, Japanese
- Japanese Society for Plant Systematics, 2021, The Journal of Phytogeography and Taxonomy, 69(2) (2), 264, Japanese
- Jan. 2021, PAN-PACIFIC ENTOMOLOGIST, 97(1) (1), 1 - 5, English
- Wiley, Jan. 2021, The Bulletin of the Ecological Society of America, 102(1) (1)Scientific journal
- Jan. 2021, ENTOMOLOGICAL SCIENCE, 24(2) (2), 123 - 126, English[Refereed]Scientific journal
- 東京 : 日本植物園協会, Dec. 2020, 日本植物園協会誌, (55) (55), 75 - 79, Japaneseサギソウ生育地における防獣ネット設置効果の検証—Effect of obstruction nets from animals on habitat protection of Pecteilis radiata
- Dec. 2020, Coleopterists Bulletin, 74(4) (4), 652 - 655, English[Refereed]Scientific journal
- Nov. 2020, Ecology, 101(11) (11), English[Refereed]Scientific journal
- Oct. 2020, PeerJ, 8, e10272 - e10272, English[Refereed]Scientific journal
- Wiley, Oct. 2020, The Bulletin of the Ecological Society of America, 101(4) (4)Scientific journal
- Oct. 2020, EVOLUTION LETTERS, 4(5) (5), 457 - 464, English[Refereed]Scientific journal
- Oct. 2020, New Phytologist, 228(2) (2), 415 - 419, English[Refereed]Scientific journal
- Sep. 2020, Phytotaxa, 459(1) (1), 25 - 38, English[Refereed]Scientific journal
- Sep. 2020, New Phytologist, 227(5) (5), 1519 - 1529, English[Refereed]Scientific journal
- Jul. 2020, Journal of Plant Research, 133(4) (4), 507 - 508, English[Refereed]Scientific journal
- Jun. 2020, Botanical Journal of the Linnean Society, 193(3) (3), 287 - 315, English[Refereed]Scientific journal
- Jun. 2020, Frontiers in Ecology and the Environment, 18(5) (5), 280 - 280, English[Refereed]
- May 2020, Frontiers in Ecology and the Environment, 18(4) (4), 187 - 187, English[Refereed]
- May 2020, Symbiosis, 81(1) (1), 53 - 63, English[Refereed]Scientific journal
- We found that the sheet TNS111013 that has been treated as the holotype of Lecanorchis kiusiana Tuyama (Orchidaceae) comprises more than one gathering and even more than one taxon. The fruiting individual on the left side of the sheet, with larger habit, distinctly longer capsules and thicker stems, can be identified as L. japonica Blume. Therefore, the fruiting individual are excluded from the type material. The flowering stalks and dissected flowers on the sheet also do not belong to the gathering that Tuyama (1955) cited as the type, since they were collected on a different date. Nonetheless, since the figures and description of floral parts in the protologue are based on the specimen of flowering plants and dissected flowers, flowering plants and dissected flowers could be considered as paratypes. Consequently, the center- and right-hand fruiting individuals on the sheet TNS111013 should be designated as the holotype.The Editorial Board of The Journal of Japanese Botany, Apr. 2020, The Journal of Japanese Botany, 95(2) (2), 111 - 114, Japanese
- Apr. 2020, Frontiers in Ecology and the Environment, 18(3) (3), 158 - 158, English[Refereed]
- Apr. 2020, Entomological News, 129(2) (2), 213 - 216, English[Refereed]Scientific journal
- Apr. 2020, American Journal of Botany, 107(4) (4), 650 - 657, English[Refereed]Scientific journal
- Apr. 2020, Oecologia, 192(4) (4), 929 - 937, English[Refereed]Scientific journal
- 静岡 : 静岡県自然保護協会, Mar. 2020, 東海自然誌 = Natural history of the Tokai district, (13) (13), 127 - 130, Japanese東限新産となる静岡県産ヤクシマヒメアリドオシラン(ラン科)—Easternmost locality of Odontochilus yakushimensis (Orchidaceae) from Shizuoka Prefecture, Japan[Refereed]
- Mar. 2020, Phytotaxa, 436(2) (2), 157 - 166, English[Refereed]Scientific journal
- Feb. 2020, Frontiers in Ecology and the Environment, 18(1) (1), 9 - 9, English[Refereed]
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(2) (2), 167, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(2) (2), 139, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(1) (1), 43, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(2) (2), 131, Japanese
- 日本植物分類学会, 2020, 植物地理・分類研究, 68(2) (2), 89, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(1) (1), 51, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(2) (2), 169, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(1) (1), 77, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(2) (2), 135, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(1) (1), 76, Japanese
- Japanese Society for Plant Systematics, 2020, The Journal of Phytogeography and Taxonomy, 68(1) (1), 74, Japanese
- 2020, Acta Phytotaxonomica et Geobotanica, 71(2) (2), 163 - 169, English[Refereed]Scientific journal
- 2020, Journal of Plant Research, 133(4) (4), 499 - 506, English[Refereed]Scientific journal
- 2020, Acta Phytotaxonomica et Geobotanica, 71(2) (2), 177 - 184, English[Refereed]Scientific journal
- 2020, Plant Signaling and Behavior, 15(9) (9), 1785667 - 1785667, English[Refereed]Scientific journal
- 2020, Acta Phytotaxonomica et Geobotanica, 71(3) (3), 243 - 248, English[Refereed]Scientific journal
- Dec. 2019, Coleopterists Bulletin, 73(4) (4), 1108 - 1110, English[Refereed]Scientific journal
- Dec. 2019, Entomological Science, 22(4) (4), 413 - 417, English[Refereed]Scientific journal
- Nov. 2019, PHYTOTAXA, 423(4) (4), 238 - 246, English[Refereed]Scientific journal
- Sep. 2019, Molecular Ecology, 28(18) (18), 4290 - 4299, English, International magazine[Refereed]Scientific journal
- Sep. 2019, Journal of Asia-Pacific Entomology, 22(3) (3), 816 - 819, English[Refereed]Scientific journal
- Aug. 2019, Phytotaxa, 413(3) (3), 225 - 230, English[Refereed]Scientific journal
- Aug. 2019, Ecology, 100(8) (8), e02683 - e02683, English[Refereed]Scientific journal
- Aug. 2019, Phytotaxa, 413(3) (3), 231 - 243, English[Refereed]Scientific journal
- Jul. 2019, Botanical Journal of the Linnean Society, 190(4) (4), 436 - 449, English[Refereed]Scientific journal
- Jul. 2019, Ecology, 100(7) (7), e02683 - e02683, English[Refereed]Scientific journal
- 奄美大島でラン科のコカゲランDidymoplexiella siamensis (Rolfe ex Downie) Seidenf.の開花個体を発見した.これは,タイ,ベトナム,香港,海南島,台湾と屋久島に次ぐ産地である.琉球列島で,菌従属栄養植物の新分類群や新産地の報告が相次いでいることを考えると,他の琉球列島の島々においても,本種が分布している可能性があり,詳細な分布状況の検討が望まれる.The Editorial Board of The Journal of Japanese Botany, Jun. 2019, Journal of Japanese Botany, 94(3) (3), 190 - 192, English[Refereed]Scientific journal
- Jun. 2019, Entomological Science, 22(2) (2), 121 - 125, English[Refereed]Scientific journal
- May 2019, Phytotaxa, 404(4) (4), 137 - 145, English[Refereed]Scientific journal
- May 2019, Journal of Molluscan Studies, 85(2) (2), 284 - 285, English[Refereed]Scientific journal
- Lecanorchis taiwaniana S. S. Ying (Orchidaceae) is newly recorded from India. Its taxonomic relationships with hitherto known species of the genus Lecanorchis are examined and discussed.The Editorial Board of The Journal of Japanese Botany, Apr. 2019, The Journal of Japanese Botany, 94(2) (2), 103 - 108, English
- 大阪市立自然史博物館標本庫(OSA),首都大学東京牧野標本館(MAK)と鹿児島大学総合研究博物館植物標本室(KAG)における標本調査の結果,鹿児島県の奄美大島,中之島および黒島で採取されていたムヨウラン属の未同定標本のなかに,ムロトムヨウランを見出すことができた.これらは,黒島,中之島および奄美大島におけるムロトムヨウランの初記録となる.本種は,閉鎖花のみをつけるクロムヨウランの開花型の変種であるトサノクロムヨウランやヤクムヨウランに似るが,1)花茎がより長い,2)花序がより長い,3)萼片および花弁の幅がより狭い,4)唇弁の先端部がごくわずかに3裂する,5)蕊柱の長さの3/5–2/3程度が唇弁と癒合する,6)結実時の果実の色が茶褐色である,7)蒴果が斜上に着く,等の特徴から区別が可能である. The mycoheterotrophic orchid Lecanorchis taiwaniana were discovered from Kuroshima, Nakanoshima and Amami-Oshima Islands, Kagoshima Prefecture, Japan during the recent herbarium surveys. Lecanorchis taiwaniana can be distinguished from its morphologically similar taxa L. nigricans by a combination of several characteristics such as including the longer peduncles, rachis, and internodes, the narrower sepals and petals, the slightly 3-lobed labellum, the column that’s more than half fused with the labellum and the dark brown, ascending capsules.大阪市立自然史博物館, Mar. 2019, 大阪市立自然史博物館研究報告, 73, 19 - 22, Japanese[Refereed]Research institution
- Feb. 2019, Evolutionary Ecology, 33(1) (1), 55 - 69, English[Refereed]Scientific journal
- Jan. 2019, Phytotaxa, 388(2) (2), 174 - 178, English[Refereed]Scientific journal
- 日本植物分類学会, 2019, 植物地理・分類研究, 67(1) (1), 83 - 83, Japanese
- 日本植物分類学会, 2019, 植物地理・分類研究, 67(1) (1), 84 - 84, Japanese
- Japanese Society for Plant Systematics, 2019, The Journal of Phytogeography and Taxonomy, 67(2) (2), 184 - 184, Japanese
- Japanese Society for Plant Systematics, 2019, The Journal of Phytogeography and Taxonomy, 67(1) (1), 49 - 51, Japanese
- Japanese Society for Plant Systematics, 2019, The Journal of Phytogeography and Taxonomy, 67(1) (1), 63 - 65, Japanese
- 日本植物分類学会, 2019, 植物地理・分類研究, 67(1) (1), 74 - 75, Japanese
- 日本植物分類学会, 2019, 植物地理・分類研究, 67(1) (1), 76 - 77, Japanese
- 2019, Genes and Genetic Systems, 94(2) (2), 95 - 98, English, Domestic magazine[Refereed]Scientific journal
- 2019, Genes and Genetic Systems, 94(5) (5), 225 - 229, English, Domestic magazine[Refereed]Scientific journal
- 2019, Entomological Science, 22(2) (2), 194 - 197, English[Refereed]Scientific journal
- 2019, Entomological Science, 22(3) (3), 297 - 300, English[Refereed]Scientific journal
- 2019, Acta Phytotaxonomica et Geobotanica, 70(2) (2), 135 - 138, English[Refereed]Scientific journal
- 2019, Taiwania, 64(4) (4), 347 - 352, English[Refereed]Scientific journal
- 2019, Acta Phytotaxonomica et Geobotanica, 70(3) (3), 201 - 204, English[Refereed]Scientific journal
- 2019, Acta Phytotaxonomica et Geobotanica, 70(3) (3), 205 - 208, English[Refereed]Scientific journal
- 2019, Acta Phytotaxonomica et Geobotanica, 70(3) (3), 183 - 188, English[Refereed]Scientific journal
- Jan. 2019, The Bulletin of the Ecological Society of America, 100(1) (1), e01477, EnglishThrips partially contribute to pollination of an orchid with granular pollinia.[Refereed]Scientific journal
- Wiley, Jan. 2019, Plant Biology, 21(1) (1), 176 - 182, English[Refereed]Scientific journal
- 2019, Acta Phytotaxonomica et Geobotanica, 70(1) (1), 41 - 47, English[Refereed]Scientific journal
- 2019, Acta Phytotaxonomica et Geobotanica, 70(1) (1), 49 - 55, English[Refereed]Scientific journal
- [つくば] : 日本植物分類学会, Dec. 2018, 植物地理・分類研究 = The journal of phytogeography and taxonomy, 66(2) (2), 161 - 163, Japanese
- 日本植物分類学会, Dec. 2018, 植物地理・分類研究, 66(2) (2), 211, JapaneseムロトムヨウランLecanorchis taiwanianaをラオス北部より記録する (Suetsugu et al. 2018 APG 69: 139–141.の解説記事)[Refereed]Scientific journal
- 日本植物分類学会, Dec. 2018, 植物地理・分類研究, 66(2) (2), 173 - 174, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Dec. 2018, 植物地理・分類研究, 66(2) (2), 155 - 157, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Dec. 2018, 植物地理・分類研究, 66(2) (2), 159 - 160, Japanese[Refereed]Scientific journal
- 日本植物分類学会, Dec. 2018, 植物地理・分類研究, 66(2) (2), 165 - 167, Japanese[Refereed]Scientific journal
- We found a mycoheterotrophic plant Sciaphila corniculata (Triuridaceae) on Okinawa Island, Okinawa Pref., Japan. This habitat represents the northernmost locality of the species.The Editorial Board of The Journal of Japanese Botany, Dec. 2018, Journal of Japanese Botany, 93(6) (6), 394 - 397, English[Refereed]Scientific journal
- Dec. 2018, Ecology, 99(12) (12), 2871 - 2873, English[Refereed]Scientific journal
- Dec. 2018, Journal of Asia-Pacific Entomology, 21(4) (4), 1289 - 1291, English[Refereed]Scientific journal
- 日本植物分類学会, Dec. 2018, 植物地理・分類研究, 66(2) (2), 210, JapaneseGastrodia spathulataを西ジャワより記録する(Suetsugu et al. 2018 APG 69: 135–137.の解説記事)[Refereed]Scientific journal
- Nov. 2018, Taiwania, 63(4) (4), 351 - 355, English[Refereed]Scientific journal
- JAPANESE SOCIETY OF APPLIED ENTOMOLOGY AND ZOOLOGY, Nov. 2018, 日本応用動物昆虫学会誌, 62(4) (4), 249 - 255, Japanese
Flies infesting orchid flowers and fruits were collected from 16 orchid species from nine prefectures in Japan. Fifteen orchid species collected from Fukushima to Kumamoto Prefectures were infested by Japanagromyza tokunagai(Sasakawa). These results suggest that this agromyzid fly feeds on a wide range of orchid species, and is widely distributed in Japan. On the other hand, two orchids were injured by Chyliza vittata Meigen. Because these orchids were collected from Hokkaido Prefecture or high-altitude areas in Yamanashi Prefecture, this fly species seems to be distributed in cool temperate areas, but further investigations are required.
[Refereed]Scientific journal - Oct. 2018, Entomological News, 128(1) (1), 87 - 90, English[Refereed]Scientific journal
- Oct. 2018, The Bulletin of the Ecological Society of America, 99(4) (4), e01450, EnglishMany Japanese orchids produce few seeds due to heavy seed predation by the agromyzid fly.[Refereed]Scientific journal
- Sep. 2018, Phytotaxa, 369(2) (2), 121 - 125, English[Refereed]Scientific journal
- 日本甲虫学会, Sep. 2018, さやばねニューシリーズ, 31, 45 - 46, Japaneseツヤハダヒメゾウムシ(コウチュウ目ゾウムシ科)に関する生態覚書[Refereed]Scientific journal
- Sep. 2018, American Journal of Botany, 105(9) (9), 1595 - 1600, English[Refereed]Scientific journal
- Aug. 2018, Phytotaxa, 367(1) (1), 85 - 90, English[Refereed]Scientific journal
- Aug. 2018, Phytotaxa, 367(1) (1), 78 - 84, English[Refereed]Scientific journal
- Aug. 2018, Taiwania, 63(3) (3), 220 - 226, English, Co-authored internationally[Refereed]Scientific journal
- Jul. 2018, Phytotaxa, 360(2) (2), 174 - 178, English[Refereed]Scientific journal
- Jul. 2018, Phytotaxa, 360(2) (2), 145 - 152, English[Refereed]Scientific journal
- Jul. 2018, Nordic Journal of Botany, 36(7) (7), English[Refereed]Scientific journal
- 日本植物分類学会, Jul. 2018, 植物地理・分類研究, 66(1) (1), 89, Japanese日本新産の菌従属栄養植物ノソコソウSciaphila corniculata(Suetsugu and Sugimoto 2018 APG 69: 69–74.の解説記事)[Refereed]Scientific journal
- 日本植物分類学会, Jul. 2018, 植物地理・分類研究, 66(1) (1), 83 - 84, Japanese混合栄養性ラン科植物ユウシュンランにおけるアルビノ突然変異体(Suetsugu 2017 APG 68: 199–201.の解説記事)[Refereed]Scientific journal
- Wiley, Jul. 2018, Plant Biology, 20(4) (4), 707 - 712, English[Refereed]Scientific journal
- Jul. 2018, Nordic Journal of Botany, 36(7) (7), e01862, EnglishEffect of historical factors on genetic variation in the three terrestrial orchids Cephalanthera erecta, Cephalanthera falcata, and Cephalanthera longibracteata on the Korean Peninsula differing in breeding systems.[Refereed]Scientific journal
- Jul. 2018, Journal of Plant Research, 131(4) (4), 589 - 597, English[Refereed]Scientific journal
- Jun. 2018, Ecology, 99(6) (6), 1504 - 1506, English[Refereed]Scientific journal
- Jun. 2018, Cambodian Journal of Natural History, 2018(1) (1), 6 - 8, EnglishLecanorchis vietnamica (Orchidaceae), a newly recorded mycoheterotrophic genus and species from Cambodia.[Refereed]Scientific journal
- Jun. 2018, Ecology, 99(6) (6), 1498 - 1500, EnglishScientific journal
- May 2018, Journal of Plant Research, 131(3) (3), 497 - 503, English[Refereed]Scientific journal
- Most of plants show remarkable developmental plasticity in the generation of diverse types of new organs upon external stimuli, allowing them to adapt to their environment. Haustorial formation in parasitic plants is an example of such developmental reprogramming, but its molecular mechanism is largely unknown. In this study, we performed field-omics using transcriptomics and metabolomics to profile the molecular switch occurring in haustorial formation of the root parasitic plant, Thesium chinense, collected from its natural habitat. RNA-sequencing with de novo assembly revealed that the transcripts of very-long-chain fatty acid (VLCFA) biosynthesis genes, auxin biosynthesis/signaling-related genes, and lateral root developmental genes are highly abundant in the haustoria. Gene co-expression network analysis identified a network module linking VLCFA and auxin-responsive lateral root development pathway. GC-TOF-MS analysis consistently revealed a unique metabolome profile with many types of fatty acids in the T. chinense root system, including the accumulation of a 25-carbon long chain saturated fatty acid in the haustoria. Our field-omics data provide evidence supporting the hypotOXFORD UNIV PRESS, Apr. 2018, Plant & cell physiology, 59(4) (4), 724 - 733, English[Refereed]Scientific journal
- Apr. 2018, Plant and Cell Physiology, 59(4) (4), 724 - 733, English[Refereed]Scientific journal
- Apr. 2018, Entomological News, 127(4) (4), 386 - 389, English[Refereed]Scientific journal
- Apr. 2018, Phytotaxa, 347(2) (2), 193 - 196, English[Refereed]Scientific journal
- Feb. 2018, Phytotaxa, 338(1) (1), 135 - 139, English[Refereed]Scientific journal
- 岡山理科大学自然植物園, Feb. 2018, Naturalistae, 22(22) (22), 5 - 7, JapaneseRecent discoveries of Lecanorchis kiusiana Tuyama (Orchidaceae) from Kyoto Prefecture, Japan
- I found a rare mycoheterotrophic plant Gastrodia flexistyloides from Fukuejima Island, Nagasaki Prefecture, Japan. Because G. flexistyloides was previously discovered only from Takeshima Island, Kuroshima Island and Iojima Island, northern Ryukyu, Japan, this habitat represents the northernmost locality of the species.The Editorial Board of The Journal of Japanese Botany, Feb. 2018, Journal of Japanese Botany, 93(1) (1), 61 - 64, English
- Jan. 2018, Phytotaxa, 336(1) (1), 89 - 94, English[Refereed]Scientific journal
- Jan. 2018, Phytotaxa, 334(1) (1), 65 - 69, English[Refereed]Scientific journal
- 日本植物分類学会, 2018, 植物地理・分類研究, 66(2) (2), 139 - 139, Japanese
- 日本植物分類学会, 2018, 植物地理・分類研究, 66(2) (2), 135 - 135, Japanese
- 2018, Japanese Journal of Applied Entomology and Zoology, 62(4) (4), 249 - 255, Japanese[Refereed]Scientific journal
- 2018, Makunagi: Acta Dipterologica, 29, 45 - 53, EnglishTaxonomic notes on fungus gnat genus Cordyla Meigen (Diptera: Mycetophilidae) pollinating terrestrial flowers.[Refereed]Scientific journal
- 2018, PhytoKeys, 92(92) (92), 17 - 35, English[Refereed]Scientific journal
- Jan. 2018, Ecology, 99(1) (1), 244 - 246, English[Refereed]Scientific journal
- Jan. 2018, New Phytologist, 217(2) (2), 828 - 835, English[Refereed]Scientific journal
- 2018, Acta Phytotaxonomica et Geobotanica, 69(1) (1), 69 - 74, English[Refereed]Scientific journal
- 2018, Acta Phytotaxonomica et Geobotanica, 69(1) (1), 63 - 67, English[Refereed]Scientific journal
- 2018, PeerJ, 2018(5) (5), e4828 - e4828, English[Refereed]Scientific journal
- 2018, Acta Phytotaxonomica et Geobotanica, 69(2) (2), 139 - 141, English[Refereed]Scientific journal
- 2018, Acta Phytotaxonomica et Geobotanica, 69(2) (2), 135 - 137, English[Refereed]Scientific journal
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 71 - 73, Japanese
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 88 - 88, Japanese
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 47 - 50, Japanese
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 39 - 41, Japanese
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 37 - 38, Japanese
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 43 - 46, Japanese
- 2018, Acta Phytotaxonomica et Geobotanica, 69(3) (3), 175 - 180, English[Refereed]Scientific journal
- 2018, Acta Phytotaxonomica et Geobotanica, 69(3) (3), 191 - 193, English[Refereed]Scientific journal
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(2) (2), 169 - 169, Japanese
- 日本植物分類学会, 2018, 植物地理・分類研究, 66(2) (2), 161 - 161, Japanese
- 2018, PhytoKeys, 113(113) (113), 59 - 67, English[Refereed]Scientific journal
- Japanese Society for Plant Systematics, Oct. 2017, 分類, 17(1) (1), 167 - 171, Japanese[Refereed]Scientific journal
- Sep. 2017, Journal of Asia-Pacific Entomology, 20(3) (3), 914 - 917, English[Refereed]Scientific journal
- Jul. 2017, Phytotaxa, 314(2) (2), 279 - 284, English[Refereed]Scientific journal
- Jul. 2017, Phytotaxa, 314(1) (1), 103 - 109, English[Refereed]Scientific journal
- Jul. 2017, Phytotaxa, 312(1) (1), 135 - 138, English[Refereed]Scientific journal
- 日本植物調節剤研究協会, Jul. 2017, 植調, 51(4) (4), 115–117 - 117, Japaneseネジバナの形態変異と分類Scientific journal
- Jun. 2017, Phytotaxa, 311(3) (3), 255 - 262, English[Refereed]Scientific journal
- Jun. 2017, Phytotaxa, 309(3) (3), 259 - 264, English[Refereed]Scientific journal
- May 2017, Phytotaxa, 306(3) (3), 217 - 222, English[Refereed]Scientific journal
- Apr. 2017, Journal of Natural History, 51(13-14) (13-14), 783 - 792, English[Refereed]Scientific journal
- Apr. 2017, Phytotaxa, 302(3) (3), 251 - 258, English[Refereed]Scientific journal
- We describe a new form of Cypripedium debile whose lip excepting basal area, column, stigma, and staminode is lacking in purple coloration in Kiso County, Nagano Pref., Japan The ecological significance of the new form Cypripedium debile f. shinanoense is also discussed.The Editorial Board of The Journal of Japanese Botany, Apr. 2017, Journal of Japanese Botany, 92(2) (2), 119 - 122, English
- Centro de Referencia em Informacao Ambiental, Mar. 2017, Check List, 13(2) (2), 2070, English[Refereed]Scientific journal
- Mar. 2017, Molecular Ecology, 26(6) (6), 1652 - 1669, English[Refereed]Scientific journal
- Feb. 2017, 神奈川自然誌資料, (38) (38), 9‐11, Japanese東京都新産の従属栄養性ラン科植物エンシュウムヨウラン[Refereed]
- Kanagawa Prefectural Museum of Natural History (Kanagawa Prefectural Museum), Feb. 2017, 神奈川県自然誌資料, 2017(38) (38), 9 - 11, Japanese[Refereed]Scientific journal
- Feb. 2017, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 68(1) (1), 53 - 57, English[Refereed]Scientific journal
- 2017, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 68(3) (3), 204 - 204, English[Refereed]
- 2017, Acta Phytotaxonomica et Geobotanica, 68(1) (1), 53 - 57, English[Refereed]Scientific journal
- 2017, Cambodian Journal of Natural History, 2017(1) (1), 10 - 13, EnglishGastrodia exilis (Orchidaceae), a newly recorded mycoheterotrophic genus and species from Cambodia[Refereed]Scientific journal
- 鹿児島県立博物館, 2017, 鹿児島県立博物館研究報告, (36) (36), 35-37 - 37, JapaneseA new locality of Lecanorchis taiwaniana Ying (Orchidaceae) from Kyushu mainland, Japan
- 2017, Acta Phytotaxonomica et Geobotanica, 68(2) (2), 123 - 126, English[Refereed]Scientific journal
- 2017, Acta Phytotaxonomica et Geobotanica, 68(2) (2), 117 - 121, English[Refereed]Scientific journal
- 2017, Acta Phytotaxonomica et Geobotanica, 68(2) (2), 105 - 109, English[Refereed]Scientific journal
- 日本植物分類学会, 2017, 分類, 17(1) (1), 67 - 70, Japanese
- 日本植物分類学会, 2017, 分類, 17(1) (1), 71 - 73, Japanese
- 日本植物分類学会, 2017, 分類, 17(1) (1), 53 - 58, Japanese
- 2017, Acta Phytotaxonomica et Geobotanica, 68(3) (3), 199 - 201, English[Refereed]Scientific journal
- Dec. 2016, Entomological News, 126(3) (3), 231 - 236, English[Refereed]Scientific journal
- The orchid Spiranthes sinensis has been classified into separate varieties based on the presence or absence of hairs on their inflorescence stems and ovaries: S. sinensis var. amoena, which is considered puberulous, and S. sinensis var. sinensis, which is glabrous. The current study analyzed the internal transcribed spacer region of the nuclear DNA and the trnL–F intergenic spacer region of the chloroplast DNA to characterize the glabrous population of S. sinensis found in Kumamoto Pref., Japan. The results indicated that the DNA sequences of the Kumamoto specimens were identical to those of S. sinensis var. amoena, which infers that these glabrous specimens should be considered a hairless variant of S. sinensis var. amoena rather than a new distribution record for S. sinensis var. sinensis. The current study also found that the flowering season of the S. sinensis population in Kumamoto Pref. was somewhat earlier than usual for S. sinensis var. amoena (late March to late April vs. June for S. sinensis in Kumamoto Pref. and usual S. sinensis var. amoena, respectively), indicating that the Kumamoto population is ecologically distinct from typical S. sinensis var. amoena.The Editorial Board of The Journal of Japanese Botany, Dec. 2016, Journal of Japanese Botany, 91(6) (6), 331 - 336, English
- I found Gastrodia fontinalis T. P. Lin (Orchidaceae) in bamboo forests on Kuroshima Island, the northernmost island of the Ryukyu Islands in Japan. This habitat represents the northernmost locality of the species.The Editorial Board of The Journal of Japanese Botany, Dec. 2016, Journal of Japanese Botany, 91(6) (6), 358 - 361, English
- Nov. 2016, Journal of Plant Research, 129(6) (6), 1013 - 1020, English[Refereed]Scientific journal
- Oct. 2016, Phytotaxa, 278(3) (3), 265 - 272, English[Refereed]Scientific journal
- Sep. 2016, American Journal of Botany, 103(9) (9), 1618 - 1629, English[Refereed]Scientific journal
- The Editorial Board of The Journal of Japanese Botany, Aug. 2016, Journal of Japanese Botany, 91(4) (4), 250 - 253, EnglishScientific journal
- Jun. 2016, Phytotaxa, 265(2) (2), 157 - 163, English[Refereed]Scientific journal
- Apr. 2016, Plant Species Biology, 31(2) (2), 148 - 152, English[Refereed]Scientific journal
- Mar. 2016, Entomological News, 125(5) (5), 368 - 373, English[Refereed]Scientific journal
- The Editorial Board of The Journal of Japanese Botany, Feb. 2016, Journal of Japanese Botany, 91(1) (1), 1 - 6, EnglishScientific journal
- 2016, Acta Phytotaxonomica et Geobotanica, 67(1) (1), 55 - 59, English[Refereed]Scientific journal
- 2016, European Journal of Entomology, 113, 393 - 396, English[Refereed]Scientific journal
- Pensoft Publishers, 2016, PhytoKeys, 73, 125 - 135, English[Refereed]Scientific journal
- The Editorial Board of The Journal of Japanese Botany, Oct. 2015, Journal of Japanese Botany, 90(5) (5), 359 - 363, JapaneseScientific journal
- Oct. 2015, Entomological Science, 18(4) (4), 523 - 526, English[Refereed]Scientific journal
- Oct. 2015, ACTA PHYTOTAXONOMICA ET GEOBOTANICA, 66(3) (3), 193 - 196, English[Refereed]Scientific journal
- Jul. 2015, Journal of Plant Research, 128(4) (4), 585 - 594, EnglishScientific journal
- Jun. 2015, Entomological News, 125(1) (1), 7 - 11, English[Refereed]Scientific journal
- May 2015, Ecological Research, 30(3) (3), 507 - 515, EnglishScientific journal
- May 2015, NATURE PLANTS, 1(5) (5), 1 - 2, EnglishScientific journal
- Jan. 2015, Plant Species Biology, 30(1) (1), 37 - 41, English[Refereed]Scientific journal
- 2015, European Journal of Entomology, 112(2) (2), 393 - 397, English[Refereed]Scientific journal
- Japanese Society for Plant Systematics, 2015, BUNRUI, 15(2) (2), 191 - 194, Japanese
- College of Life Science, Dec. 2014, Taiwania, 59(4) (4), 383 - 386, English
- Sep. 2014, Entomological News, 124(2) (2), 145 - 147, English[Refereed]Scientific journal
- Sep. 2014, Plant Species Biology, 29(3) (3), 294 - 299, English[Refereed]Scientific journal
- Jun. 2014, Phytotaxa, 170(4) (4), 283 - 290, English[Refereed]Scientific journal
- May 2014, Journal of Natural History, 48(17-18) (17-18), 1103 - 1109, English[Refereed]Scientific journal
- Apr. 2014, Entomological Science, 17(2) (2), 262 - 264, English[Refereed]Scientific journal
- Mar. 2014, Plant Systematics and Evolution, 300(3) (3), 453 - 459, EnglishScientific journal
- 公益社団法人 日本植物学会, 2014, 植物科学の最前線, 5(C) (C), 93 - 109
- 2014, Phytotaxa, 175(5) (5), 270 - 274, English[Refereed]Scientific journal
- Jan. 2014, Plant Species Biology, 29(1) (1), 57 - 64, English[Refereed]Scientific journal
- 2014, Entomological Science, 17(4) (4), 443 - 445, English[Refereed]Scientific journal
- Jan. 2014, Entomological Science, 17(1) (1), 122 - 124, English[Refereed]Scientific journal
- Jan. 2014, Journal of Plant Research, 128(1) (1), 115 - 125, EnglishScientific journal
- Dec. 2013, Annales Botanici Fennici, 50(6) (6), 375 - 378, English[Refereed]Scientific journal
- Dec. 2013, Botanical Journal of the Linnean Society, 173(4) (4), 733 - 743, English[Refereed]Scientific journal
- May 2013, Entomological News, 123(1) (1), 78 - 80, English[Refereed]Scientific journal
- Mar. 2013, Plant Systematics and Evolution, 299(3) (3), 481 - 486, English[Refereed]Scientific journal
- 2013, European Journal of Entomology, 110(3) (3), 545 - 548, English[Refereed]Scientific journal
- Sep. 2012, Botanical Journal of the Linnean Society, 170(1) (1), 69 - 78, English[Refereed]Scientific journal
- アキザキヤツシロランは,通常,植物体全体が褐色を呈するが,緑色を強く帯びた個体が新たに見つかったので,新品種ヒスイアキザキヤツシロラン Gastrodia confusa Honda et Tuyama forma viridis Suetsuguとして記載した。タイプ産地では,およそ100個体すべてが緑色を強く帯びる個体で,通常の個体とは混生していなかった。植物地理・分類学会 = The Society for the Study of Phytogeography and Taxonomy, Mar. 2012, 植物地理・分類研究 = The journal of phytogeography and taxonomy, 59(2) (2), 125 - 126, English[Refereed]
- The Editorial Board of The Journal of Japanese Botany, Feb. 2012, Journal of Japanese Botany, 87(1) (1), 62 - 64, English[Refereed]Scientific journal
- ものづくり境界領域の統合的教育方法の試み—Challenge of Interdisciplinary and Integrated Education for Manufacturingapplication/pdf福岡大学研究推進部, Mar. 2010, 福岡大学工学集報, 84, 53 - 60, JapaneseResearch institution
- Jul. 2008, Annals of Botany, 102(1) (1), 49 - 55, English[Refereed]Scientific journal
- 狛江 : [電力中央研究所システム技術研究所], May 2007, 電力中央研究所報告. 研究報告. R / [電力中央研究所システム技術研究所] 編, (06008) (06008), Japanese瞬時電圧低下情報を用いた故障点標定手法の開発--プロトタイプツールの開発と実系統データを用いた評価—Development of power system fault locating method using voltage sag data: development of prototype tool for fault location and evaluation using practical power system data
- Jun. 2024, Frontiers in Ecology and the Environment, 22(5) (5)Report scientific journal
- 東京 : 日本光合成研究会, 2022, 光合成研究, 32(1) (1), 4 - 11, JapaneseEvolutionary history of mycoheterotrophic plants
- Mar. 2021, 日本植物分類学会大会研究発表要旨集, 20th (CD-ROM)網羅的タクソンサンプリングに基づく分子系統解析から見えてきた日本産テンナンショウ属マムシグサ節の多様性と分類学的課題
- 2021, 日本生態学会大会講演要旨(Web), 68thRole of pollinator shifts in adaptive radiation of Arisaema in the Japanese Archipelago
- 2020, 日本植物学会大会研究発表記録(CD-ROM), 84thゲノムワイドSNPデータに基づく系統解析から明らかになるテンナンショウ属の多様化と送粉様式の進化
- 2020, 日本生態学会大会講演要旨(Web), 67thNutritional mode of orchids associated with Rhizoctonia: Are they mixotroph?
- 2020, 日本植物分類学会大会研究発表要旨集, 19thラン科以外の種子植物から初めて発見された部分的菌従属栄養植物のアルビノ個体
- 2020, Genes and Genetic Systems, 95(1) (1), 52 - 53, English
- 09 Feb. 2019, 日本生態学会大会講演要旨(Web), 66th, ROMBUNNO.P1‐160 (WEB ONLY), Japanese国内希少野生動植物種のヤクシマソウは雑種を形成するのか?
- Japanese Society for Plant Systematics, 2019, The Journal of Phytogeography and Taxonomy, 67(2) (2), 157 - 159, Japanese[Refereed]
- Japanese Society for Plant Systematics, 2019, The Journal of Phytogeography and Taxonomy, 67(2) (2), 153 - 155, Japanese
- 神戸大学理学部同窓会 くさの会, Dec. 2018, くさだより, 29, 18, Japanese文部科学大臣表彰若手科学者賞を受賞[Refereed]Introduction research institution
- 日本緑化センター, Sep. 2018, グリーンエージ, 45(9) (9), 29 - 31, Japanese人と環境 (第23回) ナナフシが植物に似ているのは見た目だけではない!? 鳥による捕食が駆動する長距離分散の可能性
- 岩波書店, Aug. 2018, 科学, 88(9) (9), 859, Japanese広辞苑を3倍楽しむ (第102回) ななふし[Refereed]
- 化学同人, Jun. 2018, 化学, 73, 72, Japaneseクロヤツシロランのキノコに依存した生存戦略を発見[Refereed]Introduction scientific journal
- Japanese Society for Plant Systematics, 2018, The Journal of Phytogeography and Taxonomy, 66(1) (1), 89 - 89, Japanese
- Dec. 2017, 開塾タイムス 2017年12月号, 24 - 25, Japanese研究最前線 光合成しない植物[Refereed]Introduction commerce magazine
- 山と渓谷社, Nov. 2017, 図鑑.jp, Japanese末次博士の新種発見記 第3回 牧野富太郎も気付かなかった!?「リュウキュウサネカズラ」[Refereed]Introduction commerce magazine
- 山と渓谷社, Oct. 2017, 図鑑.jp, Japanese末次博士の新種発見記 第2回 世界で屋久島にだけ。新種「ヤクシマソウ」の発見[Refereed]Introduction commerce magazine
- 日本植物分類学会, Oct. 2017, 分類, 17(1) (1), 204, Japanese[Refereed]
- 日本植物分類学会, Oct. 2017, 分類, 17(1) (1), 211, Japanese[Refereed]
- 日本植物分類学会, Oct. 2017, 分類, 17(1) (1), 210 - 211, Japanese[Refereed]
- 日本植物分類学会, Oct. 2017, 分類, 17(1) (1), 209, Japanese[Refereed]
- 山と渓谷社, Sep. 2017, 図鑑.jp, Japanese末次博士の新種発見記 第1回 光合成も開花もやめた不思議な植物「タケシマヤツシロラン」[Refereed]Introduction commerce magazine
- 日本植物分類学会, 2017, 分類, 17(1) (1), 59 - 61, Japanese
- Dec. 2016, くさだより, (27) (27), 24, Japanese光合成をやめた植物ヤクシマソウ発見[Refereed]Introduction other
- Sep. 2016, 京都大学環境報告書 2016年度, 50, Japanese生物多様性の保全 幻のラン「タブガワヤツシロラン」の発見[Refereed]Introduction research institution
- Mar. 2016, 京都大学人環フォーラム, (35) (35), 46 - 47, Japaneseフィールド便り 光合成をやめた不思議な植物―その生態を野外観察で探る[Refereed]Introduction research institution
- Feb. 2016, 分類, 16(1) (1), 75 - 76, Japanese屋久島において発見された日本初記録種タブガワヤツシロラン[Refereed]Introduction commerce magazine
- 2016, 近畿植物同好会総会会報, (123) (123), 12, Japanese光合成をやめた不思議な植物―その生態を野外観察で探る[Refereed]Introduction other
- 2016, Orchid Sciences, (27) (27), 10, Japaneseラン科植物の送粉者をあざむく巧みな戦略[Refereed]Introduction other
- Japanese Society for Plant Systematics, 2016, BUNRUI, 16(2) (2), 224 - 224, Japanese
- Japanese Society for Plant Systematics, 2016, BUNRUI, 16(2) (2), 207 - 209, Japanese
- Oct. 2015, 京都大学白眉センターだより, (10) (10), 17, Japanese白眉研究ピックアップ 光合成をやめた植物の奇妙な生活[Refereed]Introduction research institution
- Oct. 2015, 園芸JAPAN 2015年10月号, 74 - 75, Japaneseカメラが捉えた決定的瞬間 フウランの送粉者はスズメガ[Refereed]Introduction commerce magazine
- 日本緑化センター, May 2015, グリーンエージ 2015年5月号, 42(5) (5), 28 - 30, Japanese人と環境 光合成をやめた不思議な植物-菌従属栄養植物
- Japanese Society for Plant Systematics, 2015, BUNRUI, 15(2) (2), 99 - 108, Japanese
- 森林文化協会, Apr. 2014, グリーン・パワー, (424) (424), 12 - 12, Japanese森の研究 : 私のテーマ(第39回)光合成をせず、菌に寄生する植物 一見有利な生活は進化の袋小路?
- The Japanese Society for Plant Systematics, 2014, Acta Phytotaxonomica et Geobotanica, 65(1) (1), 49 - 51, English
- A new species, Gastrodia takeshimensis Suetsugu (Orchidaceae: Epidendroideae, Gastrodieae) from Takeshima Island, Kagoshima Prefecture, Japan, is described and illustrated. Its elongated corolla tube suggests a close affinity to G. nipponica, but it is easily distinguished from G. nipponica by its narrower and enclosed perianth tube, a lip that is joined with the perianth tube without any appendage , and a taller inflorescence during the flowering period.Finnish Zoological and Botanical Publishing Board, 10 Oct. 2013, Annales Botanici Fennici, 50(5) (5), 375 - 378, English
- A new, peloric form of Cymbidium nagifolium Masam., discovered within a population in Miyazaki Prefecture, southern Japan, is described. The peloric form can be categorized as Type B peloria where the labellum is replaced by a third petal resembling the lateral petals. The mutation may be widespread within the population, since three individuals from different locations had peloric flowers.The Japanese Society for Plant Systematics, 2013, Acta phytotaxonomica et geobotanica, 64(1) (1), 41 - 43, English
- Flowering individuals of a species of Gastrodia (Orchidaceae) with a closed perianth tube, a petaloid lip without appendages or calluses, and a column with a large, bifid ventral appendage were discovered in the northern part of Okinawa Island, Okinawa Prefecture, the Ryukyus. This combination of characters is known only in Gastrodia clausa, a recently described species from Taiwan. The characteristics of the Okinawan plants agree with the description of G. clausa. We therefore conclude that our plants represent the first record of G. clausa in Japan.The Japanese Society for Plant Systematics, 2013, Acta phytotaxonomica et geobotanica, 64(3) (3), 155 - 158, English
- 和歌山県新宮市で,開花時の茎や花が鮮黄色で,褐色を帯びないムヨウラン属植物を発見した。このような紫色や褐色系の色素を欠くムヨウラン属植物としては,キイムヨウラン,キバナエンシュウムヨウラン,キバナウスキムヨウランが知られている。形態的な特徴を精査した結果今回発見された個体は,キバナウスキムヨウランであることが確認された。キバナウスキムヨウランは,高知県高知市で1987年に発見された標本をもとに福永らにより2008年に記載されたものの,その後1999年に2株発見されて以降タイプ産地でも発見されておらず,今回発見された産地が,現在確認されている現存する産地としては唯一のものである。植物地理・分類学会 = The Society for the Study of Phytogeography and Taxonomy, Dec. 2012, 植物地理・分類研究, 60(1) (1), 35 - 37, English
- The Editorial Board of The Journal of Japanese Botany, Feb. 2012, The Journal of Japanese Botany, 87(1) (1), 62 - 64, English
- Japanese Society for Plant Systematics, 2012, BUNRUI, 12(1) (1), 59 - 61, Japanese
- タヌキノショクダイ科の植物は稀産であり目立たないものが多く、そのためその分布情報は極めて不足している。我々はタヌキノショクダイの新産地として神津島を報告する。またタヌキノショクダイの菌根を観察したところ、他の近縁種と同じく、侵入した細胞内でコイルを形成しつつ細胞から細胞へと侵入しながら広がるパリス型のアーバスキュラー菌根性であることが分かった。植物地理・分類学会 = The Society for the Study of Phytogeography and Taxonomy, Dec. 2011, 植物地理・分類研究, 59(1) (1), 43 - 45, English
- Single work, 福音館書店, Nov. 2024, Japanese, ISBN: 9784834088113「植物」をやめた植物たち たくさんのふしぎ傑作集General book
- Contributor, 光合成をやめた不思議な植物「菌従属栄養植物」をめぐる冒険, 築地書館, Sep. 2023もっと菌根の世界
- Single work, 福音館書店, Sep. 2023「植物」をやめた植物たち
- Contributor, 光合成も開花もやめた植物 タケシマヤツシロラン, 山と溪谷社, 2023, Japanese新種発見! 見つけて、調べて、名付ける方法General book
- 福音館書店, Sep. 2021, Japaneseナナフシ
- 科学雑誌Newton, Apr. 2021光合成をやめた植物たち 菌類から栄養を奪って生きる植物
- Others, 文一総合出版, Apr. 2018, Japanese生物学者、地球を行く ーまだ知らない生きものを調べに、深海から宇宙までScholarly book
- Others, 奈良県くらし創造部景観・環境局, May 2017, Japanese大切にしたい奈良県の野生動植物 奈良県版レッドデータブックScholarly book
- Others, 東海大学出版会, Feb. 2017, Japanese驚きの菌ワールド―菌類の知られざる世界Scholarly book
- Others, 山と渓谷社, 2015, Japanese絶滅危惧植物図鑑レッドデータプランツ増補改訂版Dictionary or encycropedia
- 第3回自然と人間との共生フォーラム ~見えないけど、そこにいる、菌~, Feb. 2025, Japanese希少植物を支えるキノコのちから[Invited]Public discourse
- 第14回同位体環境学シンポジウム, Dec. 2024, JapaneseDoes stable isotope analysis indicate partial mycoheterotrophy of Botrychium sporophytes?Poster presentation
- 第14回同位体環境学シンポジウム, Dec. 2024, Japanese安定同位体分析を用いた着生ランの部分的菌従属栄養性の評価Poster presentation
- 第24回名古屋大学遺伝子実験施設公開セミナーアドバンス生命理学特論, Dec. 2024, Japanese光合成をやめた植物の不思議な生活 植物の構造デザインにみる生存戦略[Invited]Public discourse
- ミニシンポ『搾取する植物』, Dec. 2024, Japanese光合成をやめた植物「従属栄養植物」の不思議な生活 第56回種生物学シンポジウム[Invited]Nominated symposium
- 第13回サイエンスフロンティア研究発表会, Oct. 2024, Japanese花と花をゆりかごとして利用する昆虫の助け合いはどのように維持されているかPoster presentation
- さきがけ「植物分子の機能と制御」領域開催公開シンポジウム「植物の不思議な生き方」, Oct. 2024, Japanese光合成をやめた植物のしたたかな生存戦略[Invited]Nominated symposium
- シンポジウム「さきがけ「植物分子の機能と制御」第3回成果報告会 ~植物分子を介した生物間の駆け引き~」 日本植物学会第88回全国大会, Sep. 2024, Japanese栄養摂取様式の揺らぎを利用した菌従属栄養性の分子メカニズムの解明[Invited]Nominated symposium
- International Congress of Entomology, EnglishThe irreversible parthenogenesis in the Japanese common stick insect, Ramulus mikadoOral presentation
- 神戸大学高等学術研究院卓越教員シンポジウム, Aug. 2024, Japanese光合成をやめた植物の新種発見と生態解明~100年ぶりの新属・新種ムジナノショクダイを中心に~Poster presentation
- International Botanical Congress 2024, Jul. 2024, English, International conferenceWhat does the floral morphology of the holoparasitic family Mitrastemonaceae (Ericales) tell us about its systematic position?Poster presentation
- International Botanical Congress 2024, Jul. 2024, English, International conferenceRepeated switching between pollination by sciarid and mycetophilid fungus gnats associated with the radiation of the genus Arisaema in JapanPoster presentation
- 九州大学, Jun. 2024, Japanese光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- 東北植物研究会, Jun. 2024, Japanese「植物」をやめた植物たちはどう生きているか[Invited]Invited oral presentation
- 日本植物分類学会第23回大会公開シンポジウム, Mar. 2024, Japaneseキノコを食べる植物『菌従属栄養植物』の新種発見と生態解明[Invited]Nominated symposium
- 7th International Conference on Comparative Biology of Monocotyledons, Mar. 2024, English, International conferenceThe plastid genome of Oxygyne shinzatoi and the evolution of ThismiaceaeOral presentation
- 京都府立植物園 洋ラン展, Feb. 2024, Japanese, Domestic conference光合成をやめた植物「菌従属栄養植物」をめぐる冒険[Invited]Invited oral presentation
- 第13回同位体環境学シンポジウム, Dec. 2023, Japanese, Domestic conference水素安定同位体比を用いたラン科植物の栄養摂取様式の評価Poster presentation
- 岐阜県高等学校教育研究会生物部会研究大会, Nov. 2023, Japanese, Domestic conference光合成をやめた植物をめぐる冒険[Invited]Invited oral presentation
- 生態研セミナー, Oct. 2023, Japanese, Domestic conference光合成をやめた植物「従属栄養植物」をめぐる冒険[Invited]Invited oral presentation
- 日本植物学会第87回全国大会, Sep. 2023, Japanese, Domestic conference色素体ゲノムを縮退・喪失させた植物のドラマチック・ライフ シンポジウム「シン・プラスチド ~変幻自在な色素体が織りなす植物のドラマチック・ライフ~」[Invited]Invited oral presentation
- 早稲田大学エクステンションセンター, Sep. 2023, Japanese, Domestic conference光合成をやめた植物のしたたかな生存戦略[Invited]Invited oral presentation
- 2023 ESA Annual Meeting, Aug. 2023, English, International conferenceEvolution of increased sprouting and reproduction associated with the evolutionary transition to mycoheterotrophy in Pyrola speciesOral presentation
- Xishuangbanna Tropical Botanical Garden, Aug. 2023, English, International conferenceThe evolution and biogeography of Balanophoraceae: holoparasitic plants with extremely reduces plastid genomesOral presentation
- 神戸大学高等学術研究院卓越教員シンポジウム, Aug. 2023, Japanese, Domestic conference光合成をやめた植物の新種発見と生態解明Poster presentation
- 神戸大学高等学術研究院卓越教員シンポジウム, Aug. 2023, Japanese, Domestic conference光合成をやめた植物をめぐる冒険[Invited]Invited oral presentation
- 早稲田大学エクステンションセンター, Aug. 2023, Japanese, Domestic conference植物をめぐる助け合いと騙しあい:実はしたたかな生物同士の繋がり[Invited]Invited oral presentation
- 福井県立大学海洋生物資源学部専門特別講義II, Aug. 2023, Japanese, Domestic conference光合成をやめた植物をめぐる冒険[Invited]Invited oral presentation
- Botany 2023, Jul. 2023, English, International conferenceReconstructing the invasion history of Microstegium vimineum using plastid genome sequencing and herbariomicsOral presentation
- Botany 2023, Jul. 2023, English, International conferenceIncorporating natural history collections and low-coverage genome sequencing in evolutionary ecology of the invasive Miscrostegium vimineumOral presentation
- Plant Biology 2023, Jul. 2023, English, International conferenceThe evolution of Balanophoraceae: holoparasitic plants with extremely reduced plastid genomesPoster presentation
- Joint Poster Session of OIST & ERATO Evolving Symbiosis Project Members 2023, May 2023, English, International conferenceOn the way to heterotrophy: Genomics of parasitic and mycoheterotrophic plantsPoster presentation
- 日本菌学会第67回大会公開シンポジウム, May 2023, Japanese, Domestic conference光合成をやめた植物「菌従属栄養植物」をめぐる冒険[Invited]Invited oral presentation
- STG Forum 2023, Mar. 2023, English, International conferenceOn the way to heterotrophy: Genomics of parasitic and mycoheterotrophic plantsPoster presentation
- 神戸大学創立120周年記念式典シンポジウム「~ひとりひとりが輝く未来に向けて~ 」, Dec. 2022, Japaneseキノコが救う!? 地球の未来[Invited]Invited oral presentation
- 第12回同位体環境学シンポジウム, Dec. 2022, Japanese水素安定同位体比を用いた植物の栄養摂取様式評価法の検討Poster presentation
- Invasion Genomics 2022, Aug. 2022, English, International conferenceReconstructing invasion history via seed dispersal with complete plastid genomes in Microstegium vimineumOral presentation
- Invasion Genomics 2022, Aug. 2022, English, International conferenceTesting the utility of ISSR sequence capture to elucidate the invasion history of Microstegium vimineumOral presentation
- 神戸大学 理学部 Webオープンキャンパス2022, Aug. 2022, Japanese光合成をやめた植物をめぐる冒険[Invited]Invited oral presentation
- 神戸大学理学部生物学セミナー, Jun. 2022, Japanese寄生と共生をめぐるナチュラルヒストリー〜光合成をやめた植物の不思議な生態を中心に〜[Invited]Invited oral presentation
- 第388回昆虫学土曜セミナー, May 2022, Japanese光合成をやめた植物「従属栄養植物」の不思議な生活[Invited]Invited oral presentation
- 第6回ERATO共生進化機構先端セミナー, Apr. 2022, Japanese寄生と共生をめぐるナチュラルヒストリー:光合成をやめた植物の不思議な生態を中心に[Invited]Invited oral presentation
- 第63回日本植物生理学会年会, Mar. 2022, Japanese, Domestic conference情報分子が介在した植物による菌根菌への寄生能力獲得[Invited]Invited oral presentation
- 日本植物分類学会大会研究発表要旨集, Mar. 2021, Japanese網羅的タクソンサンプリングに基づく分子系統解析から見えてきた日本産テンナンショウ属マムシグサ節の多様性と分類学的課題
- ふじのくに地球環境史ミュージアム, Jul. 2020光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- 兵庫県立 人と自然の博物館, Jul. 2020光合成をやめた植物「従属栄養植物」の新種発見と生態解明 ―博物館標本が果たす役割を中心に―[Invited]Invited oral presentation
- 日本生態学会 第67回全国大会, Mar. 2020寄生と共生をめぐるナチュラルヒストリー[Invited]Invited oral presentation
- 日本生態学会 第67回全国大会, Mar. 2020腐生植物は存在するのか!? 大気圏内核実験由来の放射性炭素同位体を用いた新たな検証Oral presentation
- 日本生態学会 第67回全国大会, Mar. 2020Rhizoctoniaと共生するラン科植物の栄養摂取様式の解明Poster presentation
- 西宮市生涯学習大学「宮水学園」, Feb. 2020光合成をやめた植物の不思議な生活[Invited]Public discourse
- 西宮市生涯学習大学「宮水学園」, Feb. 2020ラン科植物は何故多様なの?[Invited]Public discourse
- 第28回松下幸之助花の万博記念賞 松下幸之助記念奨励賞受賞記念講演, Feb. 2020光合成をやめた植物のしたたかな生存戦略[Invited]Invited oral presentation
- 近畿植物学会, Nov. 2019光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- マクロ生物学百花繚乱2019~世界一周~, Nov. 2019Rhizoctoniaと共生するラン科植物の栄養摂取様式の解明Poster presentation
- 第10回神戸大学サイエンスフロンティア研究会, Oct. 2019Rhizoctoniaと共生するラン科植物の栄養摂取様式の解明Poster presentation
- 日本花粉学会第60回大会特別講演, Oct. 2019光合成をやめた植物の不思議な花粉媒介システム ―高知ゆかりの植物を中心に[Invited]Public discourse
- 「次世代を救う 広大発 Green Revolution を創出する植物研究拠点」セミナー, Aug. 2019光合成をやめた植物「菌従属栄養植物」のしたたかな生存戦略[Invited]Invited oral presentation
- 11th Flora Malesiana Symposium, Jul. 2019, English, International conferencePhylogeny of Asian Thismia (Thismiaceae, Dioscoreales) with implications for its morphological evolution and infrageneric taxonomyOral presentation
- 青葉山麓研究所, Jul. 2019豊かな森に支えられた光合成をやめた不思議な植物[Invited]Invited oral presentation
- 東京大学理学系研究科第1264回生物科学セミナー, Jul. 2019光合成をやめた植物「菌従属栄養植物」のしたたかな生存戦略[Invited]Invited oral presentation
- 天下一植物界, Jun. 2019光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- 灘浜サイエンススクエアの自然教室, Jun. 2019生き物同士の助け合いの実態[Invited]Invited oral presentation
- 神戸大学生物学セミナー, May 2019光合成をやめた不思議な植物 ―その生態を野外観察で探る―[Invited]Invited oral presentation
- 日本生態学会 第66回全国大会, Mar. 2019, Japanese, 神戸, Domestic conference鳥による捕食が駆動するナナフシの長距離分散の可能性Oral presentation
- 日本生態学会 第66回全国大会, Mar. 2019, Japanese, 神戸, Domestic conference国内希少野生動植物種のヤクシマソウは雑種を形成するのか?Poster presentation
- マクロ生物学百花繚乱2018~アジアの生物多様性~, Feb. 2019, Japanese, 京都, Domestic conference菌従属栄養植物における宿主特異性の収斂進化のパターンとその至近要因Poster presentation
- 兵庫植物誌研究会総会, Jan. 2019, Japanese, 明石, Domestic conference光合成をやめた植物「従属栄養植物」の新種発見と生態解明[Invited]Invited oral presentation
- 第18回分類学会連合公開シンポジウム「最近話題となった日本からの新種、珍種、新発見」, Jan. 2019, Japanese, 日本分類学会連合, 上野, Domestic conferenceキノコを食べる植物「菌従属栄養植物」の新種発見、分類学的整理と生態解明[Invited]Invited oral presentation
- 日本植物学会一般向け講演会「植物が好き! 植物科学が拓く新しい世界」, Dec. 2018, Japanese, 日本植物学会, 東京, Domestic conference光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- いきもにあ2018, Dec. 2018, Japanese, 神戸, Domestic conference光合成をやめた植物のしたたかなニート生活[Invited]Invited oral presentation
- The 2nd International Academic Conference on the Formation Mechanism of Plant Diversity and Conservation of Endangered Plants in East Asia, Nov. 2018, English, International conferenceGenetic variation of newly described complete cleistogamous species I-Microsatellite allele fixation in Gastrodia takeshimensis-Poster presentation
- シンポジウム 京都・きのこ・菌従属栄養植物 民族自然誌研究会 第92回例会, Nov. 2018, Japanese, 京都, Domestic conference光合成をやめた植物「菌従属栄養植物」のしたたかな生存戦略[Invited]Invited oral presentation
- The 2nd International Academic Conference on the Formation Mechanism of Plant Diversity and Conservation of Endangered Plants in East Asia, Nov. 2018, English, The Royal Park Hotel, Kyoto, International conferenceGenetic variation of newly described complete cleistogamous species II- Microsatellite allele difference between cleistogamous Gastrodia kuroshimensis and its sister species-.Poster presentation
- シンポジウム 一芸に秀でた植物たち 日本植物学会 第82回全国大会, Sep. 2018, Japanese, 広島, Domestic conference光合成をやめた植物「菌従属栄養植物」のしたたかなニート生活[Invited]Invited oral presentation
- Summer STEM Research Poster Session, Aug. 2018, English, International conferenceEffect of substances secreted from the roots of the mycoheterotrophic plant Gastrodia pubilabiata on the growth of its mycorrhizal fungiPoster presentation
- The 2nd International Academic Conference on the Formation Mechanism of Plant Diversity and Conservation of Endangered Plants in East Asia, Aug. 2018, English, International conferenceGenetic variation of newly described complete cleistogamous species II- Microsatellite allele difference between cleistogamous Gastrodia kuroshimensis and its sister speciesPoster presentation
- シンポジウム 植物の進化研究最前線:多様な適応戦略の謎に迫る 日本進化学会 第20回全国大会, Aug. 2018, Japanese, 駒場, Domestic conference光合成をやめキノコを食べる植物の不思議な生活[Invited]Invited oral presentation
- Summer STEM Research Poster Session, Aug. 2018, English, Seattle, USA, International conferenceA Effect of substances secreted from the roots of the mycoheterotrophic plant Gastrodia pubilabiata on the growth of its mycorrhizal fungi.Poster presentation
- 4th Science Conference in Hyogo, Jul. 2018, English, International conferenceEffect of substances secreted from the roots of the mycoheterotrophic plant Gastrodia pubilabiata on the growth of its mycorrhizal fungiPoster presentation
- 4th Science Conference in Hyogo, Jul. 2018, English, Kobe, Japan, International conferenceA Effect of substances secreted from the roots of the mycoheterotrophic plant Gastrodia pubilabiata on the growth of its mycorrhizal fungi.Poster presentation
- 日本植物分類学会 第17回全国大会, Mar. 2018, Japanese, 金沢, Domestic conference数十年間も別の花を勘違い 本物の「クロムヨウラン」は花が咲かないOral presentation
- 65th Annual Meeting of Ecological Society of Japan, Mar. 2018, English, Sapporo, Japan, International conferenceParental analysis of seeds from wild population suggests overdominance rather than disassortative mating as the evolutionary maintenance mechanism of distyly in Primula kisoanaOral presentation
- 名古屋大学大学院環境学研究科「人間生態システム論」, Dec. 2017, Japanese, 名古屋大学, 名古屋, Domestic conference光合成をやめた不思議な植物 ―その生態を野外観察で探る―Public discourse
- 日本植物学会 第81回全国大会, Sep. 2017, Japanese, 野田, Domestic conference菌従属栄養植物の分類学的整理と生態解明(第14回日本植物学会奨励賞受賞講演)[Invited]Invited oral presentation
- 日本進化学会第19回大会市民公開講座, Aug. 2017, Japanese, 京都, Domestic conferenceキノコを食べる植物の不思議な生活[Invited]Invited oral presentation
- 2017年度神戸大学理学部サイエンスセミナー, Jul. 2017, Japanese, 神戸, Domestic conference光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- ナイスステップな研究者2016講演会, Jul. 2017, Japanese, 東京, Domestic conferenceキノコを食べる植物の不思議な生活[Invited]Invited oral presentation
- The 14th World Congress on Parasitic Plants, Jun. 2017, English, California (The United States of America), International conferenceA potential key factor for the evolution of parasitic plantsOral presentation
- 森林総合研究所九州支所特別セミナー, May 2017, Japanese, 熊本, Domestic conference光合成をやめた不思議な植物 ―その生態を野外観察で探る―[Invited]Invited oral presentation
- 熊本大学自然科学研究科特別セミナー, May 2017, Japanese, 熊本, Domestic conference光合成をやめた植物 ―その不思議な生態を野外観察で探る―[Invited]Invited oral presentation
- トヨタ財団オープンワークショップ「社会の新たな価値の創出をめざして」, May 2017, Japanese, 福岡, Domestic conferenceキーストーン種となる菌寄生植物の探索とその共生菌の解明―豊かな森の地下生態系の保護方策の確立を目指して―[Invited]Invited oral presentation
- 日本植物分類学会 第16回全国大会, Mar. 2017, Japanese, 京都, Domestic conference葉のないランは光合成をやめてしまっているのか?Oral presentation
- 第58回日本植物生理学会年会, Mar. 2017, Japanese, 鹿児島, Domestic conference無葉の菌従属栄養性ラン科植物マヤランの果実が持つ光合成能力Poster presentation
- 日本植物分類学会 第16回全国大会, Mar. 2017, Japanese, 京都, Domestic conferenceマルハナバチがいない海洋島におけるシュスランとアケボノシュスランの形態変異と送粉様式Oral presentation
- 橿原市昆虫館友の会総会, Mar. 2017, Japanese, 橿原, Domestic conferenceキノコを食べる植物の不思議な生活[Invited]Invited oral presentation
- 科学技術への顕著な貢献2016(ナイスステップな研究者)受賞者研究成果発表会, Feb. 2017, Japanese, 神戸, Domestic conference光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- The 14th World Congress on Parasitic Plants, Jan. 2017, English, International conferenceA potential key factor for the evolution of parasitic plantsOral presentation
- 高知大学農学部セミナー, Jan. 2017, Japanese, 高知, Domestic conferenceキノコを食べる植物の不思議な生活[Invited]Invited oral presentation
- 屋久島学ソサエティ第4回大会「屋久島低地照葉樹林の多様性とその保全ー新種発見が相次ぐ菌従属栄養植物が明らかにする世界ー」, Nov. 2016, Japanese, 屋久島, Domestic conference屋久島の豊かな森に支えられた光合成をやめた不思議な植物[Invited]Invited oral presentation
- 神奈川県立生命の星・地球博物館講演会, Oct. 2016, Japanese, 小田原, Domestic conference生き物同士の助け合いの実態[Invited]Invited oral presentation
- 神奈川県立生命の星・地球博物館講演会, Oct. 2016, Japanese, 小田原, Domestic conference光合成をやめた植物の特殊な繁殖戦略[Invited]Invited oral presentation
- East Asian Plant Diversity and Conservation, Aug. 2016, English, International conferenceTracking leaf size reduction during two independent evolutions to full mycoheterotrophy in the genus Pyrola LPoster presentation
- East Asian Plant Diversity and Conservation, Aug. 2016, English, International conferenceTracking leaf size reduction during two independent evolutions to full mycoheterotrophy in the genus Pyrola L.Poster presentation
- 総合地球環境学研究所 (陀安研) セミナー, Jul. 2016, Japanese, 京都, Domestic conferenceキノコを食べる植物の不思議な繁殖戦略[Invited]Invited oral presentation
- 第113回白眉セミナー, May 2016, Japanese, 京都大学白眉センター, 京都, Domestic conferenceキノコを食べる植物の特殊な繁殖戦略[Invited]Invited oral presentation
- 蚕糸・昆虫機能利用学術講演会 第86回全国大会, Mar. 2016, Japanese, 京都, Domestic conference鳥類に食下,排泄されたクワコ卵の単為発生Oral presentation
- 自由集会 ナチュラルヒストリーと生態学 ~あなたの目を輝かせ続けるために~ 日本生態学会 第63回全国大会, Mar. 2016, Japanese, 仙台, Domestic conference植物界のニート!?: 光合成をせず、菌に寄生する植物の不思議な生活Oral presentation
- 2016年度近畿植物同好会総会, Mar. 2016, Japanese, 大阪, Domestic conference光合成をやめた不思議な植物―その生態を野外観察で探る[Invited]Invited oral presentation
- 日本生態学会 第63回全国大会, Mar. 2016, Japanese, 仙台, Domestic conference光合成をやめたラン科植物の種子散布Oral presentation
- 日本植物分類学会 第15回全国大会, Mar. 2016, Japanese, 富山, Domestic conference菌従属栄養性ラン科植物の種子散布Oral presentation
- 日本植物分類学会 第15回全国大会, Mar. 2016, Japanese, 富山, Domestic conference菌従属栄養性の進化に伴う微妙に異なった形態変化―イチヤクソウ属の2系統を対象にした標本調査による検討―Oral presentation
- 第6回進化多様性生物学オープンセミナー, Feb. 2016, Japanese, 京都府立大学生命環境学部, 京都, Domestic conferenceキノコを食べる植物の特殊な繁殖戦略[Invited]Invited oral presentation
- 神戸大学生態学系研究室合同セミナー, Jan. 2016, Japanese, 神戸, Domestic conference光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- 平成27年度富山県中央植物園研究発表会, Jan. 2016, Japanese, 富山, Domestic conferenceオニノヤガラ属(Gastrodia)の種子発芽Oral presentation
- 東京大学駒場セミナー, Nov. 2015, Japanese, 東京大学駒場キャンパス, 駒場, Domestic conference従属栄養植物の不思議な生活[Invited]Invited oral presentation
- 鳥取大学農学部セミナー, Oct. 2015, Japanese, 鳥取大学農学部, 鳥取, Domestic conference従属栄養植物の奇妙な繁殖戦略[Invited]Invited oral presentation
- 第101回白眉セミナー, Oct. 2015, Japanese, 京都大学白眉センター, 京都, Domestic conference光合成をやめ、菌に寄生する植物たちの不思議な生活[Invited]Invited oral presentation
- 森林環境科学セミナー, Oct. 2015, Japanese, 東京農工大学農学部, 府中, Domestic conference光合成をやめた植物の繁殖戦略[Invited]Invited oral presentation
- 第25回植物微生物研究交流会, Sep. 2015, Japanese, 植物微生物研究会, 筑波, Domestic conferenceハマカキランのアルビノ個体を用いたトランスクリプトーム解析による菌従属栄養性に関与 する遺伝子群の探索Oral presentation
- 九州昆虫セミナー, Jul. 2015, Japanese, 佐賀大学農学部, 佐賀, Domestic conference光合成をやめた植物たちの不思議な生活―共生関係の変化に着目して[Invited]Invited oral presentation
- 昆虫学格致セミナー, Jun. 2015, Japanese, 京都大学農学部, 京都, Domestic conference光合成をやめた植物の不思議な生活を探る[Invited]Invited oral presentation
- 第8回 「みんなで守ろう 日本の野生ラン」, Jun. 2015, Japanese, 神代植物公園植物多様性センター, 調布, Domestic conferenceラン科植物の送粉者をあざむく巧みな戦略[Invited]Invited oral presentation
- 八ヶ岳アルペンナビ/八ヶ岳観光協会―自然と森の学校 希少植物観察会, May 2015, Japanese, 茅野, Domestic conferenceラン科植物の送粉者をあざむく巧みな戦略[Invited]Invited oral presentation
- 日本生態学会 第62回全国大会, Mar. 2015, Japanese, 鹿児島, Domestic conference炭素及び窒素安定同位体比を用いたギンリョウソウにおける菌従属栄養性の解析Poster presentation
- 日本生態学会 第62回全国大会, Mar. 2015, Japanese, 鹿児島, Domestic conference光合成をやめた植物の不思議な生活[Invited]Invited oral presentation
- 日本植物分類学会 第14回全国大会, Mar. 2015, Japanese, 福島, Domestic conference光合成をやめた植物の生き様を覗く[Invited]Invited oral presentation
- つくば蘭展・ランの多様性と保全の日 ワークショップ「これからのラン保全」, Mar. 2015, Japanese, 国立科学博物館実験植物園, 筑波, Domestic conferenceラン科植物の送粉共生系の解明[Invited]Invited oral presentation
- 大阪自然史博物館友の会総会講演会, Jan. 2015, Japanese, 大阪, Domestic conference植物界のニート!?: 光合成をせず、菌に寄生する植物の不思議な生活[Invited]Invited oral presentation
- The 5th EAFES International Congress / the 59th Annual Meeting of Ecological Society of JAPAN, Mar. 2012, English, International conferencePollination biology of mycoheterotrophic orchid Gastrodia elata: Apomixis as insurance when insect-mediated pollination failsPoster presentation
- 日本花粉学会第60回大会特別講演光合成をやめた植物の不思議な花粉媒介システム ―高知ゆかりの植物を中心に―Public discourse
- 日本学術振興会, 科学研究費助成事業 挑戦的研究(萌芽), 挑戦的研究(萌芽), 東京農工大学, 09 Jul. 2021 - 31 Mar. 2024鳥類の捕食による昆虫の次世代の産出と新たな分布拡大メカニズム本研究の目的は、未受精卵を体内に持つ昆虫が鳥に捕食され、排泄された未消化の卵の単為発生率やその単為発生卵から孵化した個体の遺伝形質から、どのようなメカニズムで次世代が生じたのかを解析することである。 今年度、鳥類に昆虫の未受精卵が食下された場合、鳥の体温および消化液の酸により未授精卵の単為発生が誘発されると考えられ、カイコガの卵巣卵(未受精卵)に高温(温湯)処理を施すことによって誘発される単為発生個体について、その発生機構について遺伝学的に検討を行った。 温湯処理によってカイコ未受精卵の80%以上が単為発生した。その単為発生した卵から得られた個体の性状は母親と遺伝形質を示し、不還元型の単為発生が誘発されていた。カイコは2n=56であり、28本の染色体を一対有している。母親と単為発生個体の性染色体以外の27本の染色体構成をそれぞれの染色体上の分子マーカをPCRにより解析し、母蛾と単為発生個体が同じ染色体構成であることを明らかにした。また性染色体については交配実験から次代の性比および性クロマチン数を調査することによって、母蛾と単為発生個体が同じであること明らかにした。28本のすべての染色体構成が母親と同じことから、温湯処理によって誘発された不還元型の単為発生個体は母親のクローン個体であることが明らかにした。また、単為発生個体の細胞の数%が倍数化し、4n細胞も僅かだが混在することが示された。 これらの遺伝学的解析結果から、鳥類にカイコガの未授精卵が食下され、未受精卵が不還元型の単為発生した場合、その単為発生個体は母親と同じ遺伝子型のクローン個体であることが推定された。
- 科学技術振興機構, 戦略的な研究開発の推進 戦略的創造研究推進事業 さきがけ, 神戸大学, 2021 - 2024, Principal investigatorこれまで菌根共生の進化生態学的研究では、植物と菌根菌が互いに良いパートナーを選別できることが前提とされており、菌根菌に寄生する植物がどのように出現したのかは、大きな謎でした。本研究では、同一植物種において独立栄養性と菌従属栄養性の個体を自在に作出できる培養系と野外サンプルを用いた収斂解析で得られる知見を統合し、分野横断型のアプローチで、植物が菌根菌を騙すことを可能にしたメカニズムに迫ります。
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Scientific Research (B), Grant-in-Aid for Scientific Research (B), National Museum of Nature and Science, Tokyo, 01 Apr. 2019 - 31 Mar. 2022Evolution of floral mimicry: unveiling the mechanisms underlying mimicry of carrion, fermented substrates and mushroomsWe analyzed the overall patterns of floral scent profiles in the whole Heterotropa (genus Asarum; Aristolochiaceae) lineage and revealed that different species of dipeterans are pollinating on the 10 Heterotropa species. The floral scent profiles were further mapped onto the phylogeny of Heterotropa and used to identify the genes whose expression patterns are associated with the traits. In Arisaema (Araceae), we discovered not only the mushroom mimicry but also the possible cases of sexual mimicry. From the overview of these plant lineages, we have proposed that pollinator deception mechanism could be the key in the adaptive radiation of these plants.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Scientific Research (C), Grant-in-Aid for Scientific Research (C), Museum of Natural and Environmental History, Shizuoka, 01 Apr. 2019 - 31 Mar. 2022Elucidation of genetic differentiation process of a parasitic plant, Phacellanthus tubiflorus, through changes of host and reproduction modeResults of analyses of MIG-Seq and Flow Cytometry showed that Phacellanthus tubiflorus tended to be genetically divided into three clades. Each clade of P. tubiflorus corresponded to the polyploidy, i.e., diploid, triplople, and tetraploploid, rather than a regionality derived from geographic distance. According to previous reports (Nakanishi et al. 2006), it has been thought that triploids of P. tubiflorus are generated by hybridization between diploids and tetraploploids. However, from the distribution with the results of MIG-Seq, it was found that triploploids of P. tubiflorus were at least not the F1 hybrids of them. These facts suggest that diploids, triploploids, and tetraploploids of P. tubiflorus may each begin to speciate as their own lineage.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Challenging Research (Exploratory), Challenging Research (Exploratory), Kobe University, 29 Jun. 2018 - 31 Mar. 2021, Principal investigator植物は、様々な方法を用いて種子を遠くへ運び、分布域の拡大を図っている。その主要な方法の一つに、果肉を報酬として鳥に種子散布を託す方法(被食鳥散布)がある。一方で多くの鳥は、果実だけではなく、昆虫も重要な餌資源としている。そこで我々は、卵を持ったメス昆虫が鳥に摂食された場合に、未消化のまま卵が排泄されることで分散に寄与することがあるという仮説を立て、摂食実験を通してこの仮説を検証することにした。こうした鳥による被食を介した分散が成立するには、「卵殻が丈夫である」、「ふ化した幼虫が自力で餌場に到達する」、「単為生殖する」といった条件が必要である。そこで、これらの条件を満たすナナフシの卵をヒヨドリに摂食させた。その結果、多くの卵は破壊される一方で、無傷で排泄され、ふ化する卵もあることが明らかになった。 鳥に食べられても子孫を残す可能性を示す本成果は、昆虫が鳥に捕食されると例外なく死に至るものだという常識を覆すものである。地味な見た目をしていることからもわかる通り,ナナフシが積極的に鳥に食べられ分散している可能性は極めて低いと思われる。とはいえ、ナナフシの多くは、翅をもたず能動的な分散能力が極めて低いことが知られている。よって偶発的で低頻度なイベントであったとしても鳥による捕食が、移動分散や分布拡大、異なる個体群間での遺伝子交流に重要な役割を果たしている可能性もある。現在、ナナフシの全国的な遺伝構造を把握に努めており、鳥による捕食を介したナナフシの長距離分散が実際にどの程度の頻度で起こっているのかを検討していく予定である。Competitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Scientific Research (C), Grant-in-Aid for Scientific Research (C), Kyoto Prefectural University, 01 Apr. 2018 - 31 Mar. 2021Exploring the mechanism for complex petal morphogenesis: integration of the proximate and ultimate factorsWe investigated the morphology of the labellum in the white egret flower from viewpoints of (1) the genetic and cellular mechanisms of morphogenesis and (2) the co-evolution with pollinators. By comprehensive transcriptome analysis with RNA-sequencing, we identified transcription factors expressed in the labellum. We found that early cell division and later polar cell elongation were important during formation of labellum serration. The hawkmoth visited flowers and sucked honey with hovering but not landing on the flowers, and that elimination of the serration from labellum affected the fruit set and seed weight.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Scientific Research (C), Grant-in-Aid for Scientific Research (C), National Museum of Nature and Science, Tokyo, 01 Apr. 2018 - 31 Mar. 2021Mechanism of loss of photosynthetic function during mycoheterotrophic evolution - analysis using Neottia (Orchidaceae)-Mycoheterotrophic plants, that acquire carbon compounds from symbiotic fungi, evolved from photosynthetic autotrophic plants. Although this evolutionary process has received attention in recent years, previous studies have focused only on fungal functions, and the evolution of the loss of photosynthetic function has not been elucidated. In this study, we used the genus Neottia (Orchidaceae) to elucidate the evolutional level of mycoheterotrophy. Then, we clarified for the first time the mechanisms how the photosynthetic function was lost during the evolution of mycoheterotrophy, using plant physiological methods such as photosynthetic oxygen production rate analysis and photosynthesis-related gene analysis.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Scientific Research (C), Grant-in-Aid for Scientific Research (C), Fukushima University, 01 Apr. 2018 - 31 Mar. 2021Genetic variation of complete cleistogamous species in GastrodiaIn this study, we performed genetic analysis on two complete cleistogamous species and their ancestral species using newly developed microsatellite markers. Microsatellite analysis suggested the loss their variation at the microsatellite locus and the fixation to one allele in two complete cleistogamous species Gastrodia takeshimensis and G. kuroshimensis. Their ancestral species with opened flowers, G. nipponica and G. fontinalis, showed multiple alleles at the species or population level in several microsatellite loci, but their allelic variation was low. It is suggested that they are mainly propagated by self-fertilization, although they have open flowers. Self-breeding may have been established before the cleistogamous flower evolution in Gastrodia species.
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Young Scientists (A), Grant-in-Aid for Young Scientists (A), Kobe University, 01 Apr. 2017 - 31 Mar. 2021, Principal investigatorSo far, researches on mycoheterotrophy have focused on host identification. Therefore, I have developed a multifaceted approach to elucidate the evolution of mycoheterotrophs. As a result, I found that mycoheterotrophs have evolved not only by acquiring parasitic ability but also by special adaptation to pollination and seed dispersal. I also revealed that molecular basis of mycorrhizal symbiosis in mycoheterotrophs is largely shared with that of typical mycorrhizal mutualisms.Competitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for Young Scientists (B), Grant-in-Aid for Young Scientists (B), Kobe University, 01 Apr. 2015 - 31 Mar. 2017, Principal investigatorSeveral plant lineages have evolved dependence upon other organisms for their carbon demands, and consequently can be categorized as heterotrophs. Although the evolutionary shift to a heterotrophic lifestyle has liberated these plants from some of the physiologic burdens of photosynthesis, this may not come without costs. Actually, my studies have revealed novel breeding and seed dispersal systems imposed by a heterotrophic lifestyle. Superficially, the transition to an achlorophyllous status may appear to represent a loss of function, which could occur easily in mixotrophs that have already acquired the capacity for parasitism. However, the results of my investigations suggest that the transition to mycoheterotrophy and an achlorophyllous status requires the joint evolution of several aspects of their life history, including breeding and seed dispersal systems, which are apparently unrelated to a heterotrophic lifestyle.Competitive research funding
- Japan Society for the Promotion of Science, Grants-in-Aid for Scientific Research Grant-in-Aid for JSPS Fellows, Grant-in-Aid for JSPS Fellows, Kyoto University, 01 Apr. 2012 - 31 Mar. 2015菌従属栄養植物における生態適応:絶対菌寄生性の獲得と特異な送粉様式の進化従属栄養植物は、開花期以外は地上に姿を現さないため、分布情報すら明らかではない種が多く、生態学的な研究を行うには困難が伴った。そこで私は、従属栄養植物の精力的な探索と記載分類を地道に行い、詳細な研究を遂行するための土台を作成した。その上で、野外観察から分子生物学的手法に至る様々な手法を駆使し、従属栄養植物の実態に迫る研究を展開してきた。 特筆すべき点として、これまで注目されていなかった地上部での適応を含め検討したことが挙げられる。例えば、大半の従属栄養植物は虫媒の植物から起源しているが、それらの生育場所は薄暗い林床であり、ハナバチなどの訪花性見虫の賑わいとは無縁の世界である。このような環境に生育する従属栄養植物は、薄暗い林床で受粉を達成しなければならない。そこで従属栄養植物の送粉様式を調査したところ、多くの種類が昆虫に受粉を頼らずにすむ自動自家受粉を採用していることを明らかにした。こうした自殖の進化は暗い林床で確実に繁殖するのに役立つたと考えられる。しかし、暗い環境に進出可能な見虫を送粉者として利用できれば、林床でも他殖を行うことが可能かもしれない。このような例として、私は、ヤツシロラン節の多くの種が、ショウジョウバエ媒を採用していることを発見した。 また従属栄養植物の種子散布様式についても興味深い知見が得られた。そもそも従属栄養植物は、その寄生性ゆえに、胚乳などの養分を持たない非常に小さな種子を作る。そのため、従属栄養性と風による種子散布の間には関連があると考えられてきた。しかしながら暗く風通しの悪い林床では風散布は不適であるため、完全に光合成をやめた従属栄養植物の一部は、液果をつけ、周食動物散布を再獲得していることが明らかになった。