Curriculum Vitaes

Kawaguchi Mari

  (川口 眞理)

Profile Information

Affiliation
Associate Professor, Faculty of Science and Technology, Department of Materials and Life Sciences, Sophia University
Degree
修士(理学)(東京都立大学)
博士(理学)(上智大学)

Researcher number
00612095
J-GLOBAL ID
201301084945465719
researchmap Member ID
7000004358

External link

2008年~2011年 東京大学大気海洋研究所
   「孵化酵素と卵膜の分子共進化」

2011年~現在 上智大学理工学部物質生命理工学科
   「魚類の繁殖戦略の進化」

(研究テーマ)
魚類の繁殖戦略の進化


Committee Memberships

 9

Papers

 54
  • Tatsuki Nagasawa, Nagatoshi Machii, Mitsuto Aibara, Mari Kawaguchi, Shigeki Yasumasu, Masato Nikaido
    Molecular Ecology, Jul, 2025  
  • Yukie Yokota, Nazuna Itabashi, Mari Kawaguchi, Hiroshi Uchida, Nick Serpone, Satoshi Horikoshi
    Molecules, 30(9) 1871-1871, Apr 22, 2025  Peer-reviewed
    In a ground-breaking recent study, we unveiled the remarkable cellular uptake of 60 nm ZnO and TiO2 nanoparticles by NIH/3T3 mouse skin fibroblasts under microwave irradiation. Even more stimulating is our current demonstration of the potent ability of Ag nanoparticles (147 nm) and Au nanoparticles (120 nm) to stifle the growth of Escherichia coli (E. coli—a prokaryote whose cells lack a membrane-bound nucleus and other membrane-bound organelles), vastly smaller than the NIH/3T3 cells, when exposed to significantly optimized low-power microwave irradiation conditions. Our rigorous assessment of the method’s effectiveness involved scrutinizing the growth rate of E. coli bacteria under diverse conditions involving silver and gold nanoparticles. This indisputably underscores the potential of microwave–nanoparticle interactions in impeding bacterial proliferation. Furthermore, our noteworthy findings on the uptake of fluorescent organosilica nanoparticles by E. coli cells following brief, repeated microwave irradiation highlight the bacteria’s remarkable ability to assimilate extraneous substances.
  • Sakuto Yamanaka, Mari Kawaguchi, Shigeki Yasumasu, Kenji Sato, Masato Kinoshita
    Journal of Experimental Zoology Part B: Molecular and Developmental Evolution, Jan, 2025  Peer-reviewed
  • Shigeki Yasumasu, Miyuki Horie, Mayuko Horie, Kodai Sakuma, Chihiro Sato, Hikari Sato, Taiki Nakajima, Tatsuki Nagasawa, Mari Kawaguchi, Ichiro Iuchi
    The Journal of Biochemistry, Sep 16, 2024  Peer-reviewed
    Abstract During the fertilization of fish eggs, the hardening of the egg envelope is mediated by transglutaminase (hTGase). After fertilization, TGase undergoes processing. We isolated hTGase from extracts of unfertilized and water-activated rainbow trout eggs. Rainbow trout hTGase (Rt-hTGase) appeared as an 80 kDa protein, and its processed form was 55 kDa. Their N-terminal amino acid sequences were nearly identical, suggesting processing in the C-terminal region. The specific activities were not significantly different, indicating that C-terminal processing does not activate the enzyme itself. We cloned the cDNA by reverse transcription polymerase chain reaction (RT-PCR) using degenerate primers followed by RACE-PCR. The deduced amino acid sequence of the cDNA was similar to that of factor XIII subunit A (FXIIIA). Molecular phylogenetic and gene syntenic analyses clearly showed that hTGase was produced by duplication of FXIIIA during the evolution to Teleostei. The 55 kDa processed form of Rt-hTGase is predominantly composed of an enzyme domain predicted from the amino acid sequence of the cDNA. It is hypothesized that the C-terminal domain of Rt-hTGase binds to egg envelope proteins, and that processing allows the enzyme to move freely within the egg envelope, increasing substrate–enzyme interaction and thereby accelerating hardening.
  • Christian Nanga Chick, Yusuke Sasaki, Mari Kawaguchi, Eri Tanaka, Takako Niikura, Toyonobu Usuki
    Bioorganic & Medicinal Chemistry, 90 117351-117351, Jul, 2023  Peer-reviewedCorresponding author
  • Mari Kawaguchi, Wen-Shan Chang, Hazuki Tsuchiya, Nana Kinoshita, Akira Miyaji, Ryouka Kawahara-Miki, Kenji Tomita, Atsushi Sogabe, Makiko Yorifuji, Tomohiro Kono, Toyoji Kaneko, Shigeki Yasumasu
    Cell and Tissue Research, May 25, 2023  Peer-reviewedLead authorCorresponding author
  • Masahiro Sano, Hikaru Iwashita, Chihiro Suzuki, Mari Kawaguchi, Atsuhiko Chiba
    NeuroReport, 34(9) 457-462, May 10, 2023  Peer-reviewed
  • Yuko Nakano, Tatsuki Nagasawa, Yohei Okazawa, Naoya Mashiko, Shigeki Yasumasu, Mari Kawaguchi
    Journal of Experimental Zoology Part B: Molecular and Developmental Evolution, Apr 24, 2023  Peer-reviewedLast authorCorresponding author
  • Christian Nanga Chick, Tomoo Inoue, Natsuki Mori, Eri Tanaka, Mari Kawaguchi, Toshiyuki Takahashi, Junya Hanakita, Manabu Minami, Ryo Kanematsu, Toyonobu Usuki
    Bioorganic & Medicinal Chemistry, 82 117216-117216, Mar, 2023  Peer-reviewed
  • Hikaru Iwashita, Masahiro Sano, Mari Kawaguchi, Atsuhiko Chiba
    NeuroReport, 34(5) 299-307, Mar 1, 2023  Peer-reviewed
  • Satoshi Horikoshi, Miho Iwabuchi, Mari Kawaguchi, Shigeki Yasumasu, Nick Serpone
    Photochemical & Photobiological Sciences, Jul 4, 2022  Peer-reviewed
  • Akari Harada, Ryotaro Shiota, Ryohei Okubo, Makiko Yorifuji, Atsushi Sogabe, Hiroyuki Motomura, Junya Hiroi, Shigeki Yasumasu, Mari Kawaguchi
    Placenta, 120 88-96, Feb 23, 2022  Peer-reviewedLast authorCorresponding author
    INTRODUCTION: Fishes of the Syngnathidae family are rare in having male pregnancy: males receive eggs from females and egg development occurs in the male brood pouch that diverged during evolution. The family is divided into two subfamilies: Nerophinae and Syngnathinae. METHODS: We compared histologically five types of the brood pouch in Syngnathinae: an open pouch without skinfolds (alligator pipefish); an open pouch with skinfolds (messmate pipefish); a closed pouch with skinfolds (seaweed pipefish); and closed pouches with a sac-like pouch on the tail (pot-bellied seahorse) or within a body cavity (Japanese pygmy seahorse). RESULTS: Histological observations revealed that all the examined species possess vascular egg compartments during the brooding period. The present immunohistochemical study revealed that the pregnant egg compartment epithelium grows thin in both open and closed pouches. The placenta of open and closed pouches is composed of dermis and reticulin fibers, respectively. The closed pouch placenta is a flexible and moist tissue, suitable for substance transport between the father and embryos through the epithelium and blood vessels and responsible for supplying nutrition and removing waste. DISCUSSION: These results suggest that the basic egg incubation structures were established at an early stage of Syngnathinae evolution. On the other hand, it is likely that the innovation of tissue structure, where dermis was replaced with reticular fibers, occurred in closed brood pouches to regulate the pregnant pouch environment. The present study presents the morphological evolutionary pathway of the brood pouch in Syngnathinae, providing a basis for further molecular-level evolutionary studies.
  • Kaori Sano, Sho Shimada, Hideki Mibu, Mizuki Taguchi, Takasumi Ohsawa, Mari Kawaguchi, Shigeki Yasumasu
    Journal of experimental zoology. Part B, Molecular and developmental evolution, Feb 21, 2022  Peer-reviewed
    The zona pellucida (ZP) protein constitutes the egg envelope, which surrounds the vertebrate embryo. We performed a comprehensive study on the molecular evolution of ZP genes in Teleostei by cloning and analyzing the expression of ZP genes in fish of Anguilliformes in Elopomorpha, Osteoglossiformes in Osteoglossomorpha, and Clupeiformes in Otocephala to cover unsurveyed fish groups in Teleostei. The present results confirmed findings from our previous reports that the principal organ of ZP gene expression changed from ovary to liver in the common ancestors of Clupeocephala. Even fish species that synthesize egg envelopes in the liver carry the ovary-expressed ZP proteins as minor egg envelope components that were produced by gene duplication during the early stage of Teleostei evolution. The amino acid repeat sequences located at the N-terminal region of ZP proteins are known to be the substrates of transglutaminase responsible for egg envelope hardening and hatching. A repeat sequence was found in zona pellucida Cs of phylogenetically early diverged fish. After changing the synthesis organ, its role is inherited by the N-terminal Pro-Gln-Xaa repeat sequence in liver-expressed zona pellucida B genes of Clupeocephala. These results suggest that teleost ZP genes have independently evolved to maintain fish-specific functions, such as egg envelope hardening and egg envelope digestion, at hatching.
  • Tatsuki Nagasawa, Mari Kawaguchi, Kohki Nishi, Shigeki Yasumasu
    BMC ecology and evolution, 22(1) 9-9, Feb 2, 2022  Peer-reviewed
    BACKGROUND: Hatching is identified as one of the most important events in the reproduction of oviparous vertebrates. The genes for hatching enzymes, which are vital in the hatching process, are conserved among vertebrates. However, especially in teleost, it is difficult to trace their molecular evolution in detail due to the presence of other C6astacins, which are the subfamily to which the genes for hatching enzymes belong and are highly diverged. In particular, the hatching enzyme genes are diversified with frequent genome translocations due to retrocopy. RESULTS: In this study, we took advantage of the rapid expansion of whole-genome data in recent years to examine the molecular evolutionary process of these genes in vertebrates. The phylogenetic analysis and the genomic synteny analysis revealed C6astacin genes other than the hatching enzyme genes, which was previously considered to be retained only in teleosts, was also retained in the genomes of basal ray-finned fishes, coelacanths, and cartilaginous fishes. These results suggest that the common ancestor of these genes can be traced back to at least the common ancestor of the Gnathostomata. Moreover, we also found that many of the C6astacin genes underwent multiple gene duplications during vertebrate evolution, and the results of gene expression analysis in frogs implied that genes derived from hatching enzyme genes underwent neo-functionalization. CONCLUSIONS: In this study, we describe in detail the molecular evolution of the C6astacin gene in vertebrates, which has not been summarized previously. The results revealed the presence of the previously unknown C6astacin gene in the basal-lineage of jawed vertebrates and large-scale gene duplication of hatching enzyme genes in amphibians. The comprehensive investigation reported in this study will be an important basis for studying the molecular evolution of the vertebrate C6astacin genes, hatching enzyme, and its paralogous genes and for identifying these genes without the need for gene expression and functional analysis.
  • Mari Kawaguchi, Yohei Okazawa, Aiko Imafuku, Yuko Nakano, Risa Shimizu, Reiji Ishizuka, Tianlong Jiang, Tatsuki Nagasawa, Junya Hiroi, Shigeki Yasumasu
    Scientific Reports, 11(1), Dec, 2021  Peer-reviewedLead authorCorresponding author
    <title>Abstract</title>Generally, animals extract nutrients from food by degradation using digestive enzymes. Trypsin and chymotrypsin, one of the major digestive enzymes in vertebrates, are pancreatic proenzymes secreted into the intestines. In this investigation, we report the identification of a digestive teleost enzyme, a pancreatic astacin that we termed pactacin. Pactacin, which belongs to the astacin metalloprotease family, emerged during the evolution of teleosts through gene duplication of astacin family enzymes containing six cysteine residues (C6astacin, or C6AST). In this study, we first cloned C6AST genes from pot-bellied seahorse (<italic>Hippocampus abdominalis</italic>) and analyzed their phylogenetic relationships using over 100 C6AST genes. Nearly all these genes belong to one of three clades: pactacin, nephrosin, and patristacin. Genes of the pactacin clade were further divided into three subclades. To compare the localization and functions of the three pactacin subclades, we studied pactacin enzymes in pot-bellied seahorse and medaka (<italic>Oryzias latipes</italic>). In situ hybridization revealed that genes of all three subclades were commonly expressed in the pancreas. Western blot analysis indicated storage of pactacin pro-enzyme form in the pancreas, and conversion to the active forms in the intestine. Finally, we partially purified the pactacin from digestive fluid, and found that pactacin is novel digestive enzyme that is specific in teleosts.
  • Romain Feron, Qiaowei Pan, Ming Wen, Boudjema Imarazene, Elodie Jouanno, Jennifer Anderson, Amaury Herpin, Laurent Journot, Hugues Parrinello, Christophe Klopp, Verena A. Kottler, Alvaro S. Roco, Kang Du, Susanne Kneitz, Mateus Adolfi, Catherine A. Wilson, Braedan McCluskey, Angel Amores, Thomas Desvignes, Frederick W. Goetz, Ato Takanashi, Mari Kawaguchi, Harry William Detrich, Marcos A. Oliveira, Rafael H. Nóbrega, Takashi Sakamoto, Masatoshi Nakamoto, Anna Wargelius, Ørjan Karlsen, Zhongwei Wang, Matthias Stöck, Robert M. Waterhouse, Ingo Braasch, John H. Postlethwait, Manfred Schartl, Yann Guiguen
    Molecular Ecology Resources, 21(5) 1715-1731, Jul, 2021  Peer-reviewed
  • Huixian Zhang, Bo Zhang, Mari Kawaguchi, Qiang Lin
    Molecular reproduction and development, 88(6) 459-470, Jun, 2021  Peer-reviewedCorresponding author
    In the present study, we aimed to evaluate the effects of hatching enzymes on the egg envelope digestion during the hatching period in the male brooding seahorse. The complementary DNAs encoding two hatching-enzyme genes, high choriolytic enzyme (HCE) and low choriolytic enzyme (LCE), were cloned and functionally characterized from the lined seahorse (Hippocampus erectus). The genomic-synteny analysis confirmed that teleosts shared LCE gene synteny. In contrast, the genomic location of HCE was found to be conserved with pipefish, but not other teleosts, suggesting that translocation into a novel genomic location occurred. Whole-mount in situ hybridization showed that HCE and LCE mRNAs were expressed in hatching gland cells. To determine the digestion mechanisms of HCE and LCE in hatching, recombinant HCE and LCE were generated and their enzyme activities were examined using fertilized egg envelopes and synthetic peptides. Seahorse HCE and LCE independently digested and softened the egg envelopes of the lined seahorse. Although the egg envelope was digested more following HCE and LCE co-treatment, envelope solubilization was not observed. Indeed, both HCE and LCE showed similar substrate specificities toward four different synthetic peptides designed from the cleavage sites of egg envelope proteins. HCE and LCE proteins from other euteleostean fishes showed different specificities, and the egg envelope was solubilized by the cooperative action of HCE and LCE. These results suggest that the function of LCE was degenerated in the lined seahorse. Our results imply a digestion mechanism for evolutionary adaptation in ovoviviparous fish with male pregnancy.
  • Yusuke Takehana, Margot Zahm, Cédric Cabau, Christophe Klopp, Céline Roques, Olivier Bouchez, Cécile Donnadieu, Celia Barrachina, Laurent Journot, Mari Kawaguchi, Shigeki Yasumasu, Satoshi Ansai, Kiyoshi Naruse, Koji Inoue, Chuya Shinzato, Manfred Schartl, Yann Guiguen, Amaury Herpin
    G3-GENES GENOMES GENETICS, 10(3) 907-915, Mar 1, 2020  Peer-reviewed
    The genus Oryzias consists of 35 medaka-fish species each exhibiting various ecological, morphological and physiological peculiarities and adaptations. Beyond of being a comprehensive phylogenetic group for studying intra-genus evolution of several traits like sex determination, behaviour, morphology or adaptation through comparative genomic approaches, all medaka species share many advantages of experimental model organisms including small size and short generation time, transparent embryos and genome editing tools for reverse and forward genetic studies. The Java medaka, Oryzias javanicus, is one of the two species of medaka perfectly adapted for living in brackish/sea-waters. Being an important component of the mangrove ecosystem, O. javanicus is also used as a valuable marine test-fish for ecotoxicology studies. Here, we sequenced and assembled the whole genome of O. javanicus, and anticipate this resource will be catalytic for a wide range of comparative genomic, phylogenetic and functional studies. Complementary sequencing approaches including long-read technology and data integration with a genetic map allowed the final assembly of 908 Mbp of the O. javanicus genome. Further analyses estimate that the O. javanicus genome contains 33% of repeat sequences and has a heterozygosity of 0.96%. The achieved draft assembly contains 525 scaffolds with a total length of 809.7 Mbp, a N50 of 6,3 Mbp and a L50 of 37 scaffolds. We identified 21454 predicted transcripts for a total transcriptome size of 57, 146, 583 bps. We provide here a high-quality chromosome scale draft genome assembly of the euryhaline Javafish medaka (321 scaffolds anchored on 24 chromosomes (representing 97.7% of the total bases)), and give emphasis on the evolutionary adaptation to salinity.
  • Tatsuki Nagasawa, Mari Kawaguchi, Tohru Yano, Sho Isoyama, Shigeki Yasumasu, Masataka Okabe
    Scientific Reports, 9(1) 2448, Dec, 2019  Peer-reviewed
  • Ganesh Acharya, Marisa Bartolomei, Anthony M. Carter, Larry Chamley, Charles F. Cotton, Junichi Hasegawa, Yuri Hasegawa, Satoshi Hayakawa, Mari Kawaguchi, Chaini Konwar, Shoichi Magawa, Kiyonori Miura, Hirotaka Nishi, Carlos Salomon, Keiichi Sato, Hidenobu Soejima, Hiroaki Soma, Anne S{\o}rensen, Hironori Takahashi, Taketeru Tomita, Camilla M. Whittington, Victor Yuan, Perrie O{\textquotesingle}Tierney-Ginn
    Placenta, 84 4-8, Sep, 2019  Peer-reviewed
  • Sano, K, Yokoyama, R, Kitano, T, Takegaki, T, Kitazawa, N, Kaneko, T, Nishino, Y, Yasumasu, S, Kawaguchi, M
    J. Exp. Zool. B, 332(3-4) 81-91, May, 2019  Peer-reviewedLast authorCorresponding author
  • Mari Kawaguchi, Ryohei Okubo, Akari Harada, Kazuki Miyasaka, Kensuke Takada, Junya Hiroi, Shigeki Yasumasu
    Zoological Letters, 3(1) 19, Oct, 2017  Peer-reviewedLead authorCorresponding author
  • Kaori Sano, Mari Kawaguchi, Keita Katano, Kenji Tomita, Mayu Inokuchi, Tatsuki Nagasawa, Junya Hiroi, Toyoji Kaneko, Takashi Kitagawa, Takafumi Fujimoto, Katsutoshi Arai, Masaru Tanaka, Shigeki Yasumasu
    JOURNAL OF EXPERIMENTAL ZOOLOGY PART B-MOLECULAR AND DEVELOPMENTAL EVOLUTION, 328(3) 240-258, May, 2017  Peer-reviewed
  • Tatsuki Nagasawa, Mari Kawaguchi, Tohru Yano, Kaori Sano, Masataka Okabe, Shigeki Yasumasu
    ZOOLOGICAL SCIENCE, 33(3) 272-281, Jun, 2016  Peer-reviewed
  • Satoshi Horikoshi, Kota Nakamura, Mari Kawaguchi, Jiro Kondo, Nick Serpone
    RSC ADVANCES, 6(53) 48237-48244, May, 2016  Peer-reviewed
  • Tatsuki Nagasawa, Kaori Sano, Mari Kawaguchi, Ken-Ichiro Kobayashi, Shigeki Yasumasu, Tomofumi Inokuchi
    Journal of Biochemistry, 159(4) 449-460, Apr 1, 2016  Peer-reviewed
  • Mari Kawaguchi, Yuko Nakano, Ryouka Kawahara-Miki, Mayu Inokuchi, Makiko Yorifuji, Ryohei Okubo, Tatsuki Nagasawa, Junya Hiroi, Tomohiro Kono, Toyoji Kaneko
    JOURNAL OF EXPERIMENTAL ZOOLOGY PART B-MOLECULAR AND DEVELOPMENTAL EVOLUTION, 326(2) 125-135, Mar, 2016  Peer-reviewedLead authorCorresponding author
  • Tatsuki Nagasawa, Mari Kawaguchi, Kaori Sano, Shigeki Yasumasu
    Journal of Experimental Zoology Part B: Molecular and Developmental Evolution, 324(8) 720-732, Dec 15, 2015  Peer-reviewed
  • Satoshi Horikoshi, Taichiro Nakamura, Mari Kawaguchi, Nick Serpone
    JOURNAL OF MOLECULAR CATALYSIS B-ENZYMATIC, 116 52-59, Jun, 2015  Peer-reviewed
  • Mari Kawaguchi, Kenji Tomita, Kaori Sano, Toyoji Kaneko
    JOURNAL OF EXPERIMENTAL ZOOLOGY PART B-MOLECULAR AND DEVELOPMENTAL EVOLUTION, 324(1) 41-50, Jan, 2015  Peer-reviewedLead authorCorresponding author
  • Mari Kawaguchi, Kaori Sano, Norio Yoshizaki, Daisuke Shimizu, Yuichiro Fujinami, Tsutomu Noda, Shigeki Yasumasu
    ZOOLOGICAL SCIENCE, 31(11) 709-715, Nov, 2014  Peer-reviewedLead author
  • Kaori Sano, Mari Kawaguchi, Satoshi Watanabe, Shigeki Yasumasu
    BMC EVOLUTIONARY BIOLOGY, 14 221, Oct, 2014  Peer-reviewed
  • Mari Kawaguchi, Koji Inoue, Ichiro Iuchi, Mutsumi Nishida, Shigeki Yasumasu
    BMC EVOLUTIONARY BIOLOGY, 13(1) 231, Oct, 2013  Peer-reviewedLead author
  • Kaori Sano, Mari Kawaguchi, Satoshi Watanabe, Yoshitomo Nagakura, Takashi Hiraki, Shigeki Yasumasu
    Journal of Experimental Zoology Part B: Molecular and Developmental Evolution, 320(5) 332-343, Jul, 2013  Peer-reviewed
  • Mari Kawaguchi, Hiroshi Takahashi, Yusuke Takehana, Kiyoshi Naruse, Mutsumi Nishida, Shigeki Yasumasu
    Journal of Experimental Zoology Part B: Molecular and Developmental Evolution, 320(3) 140-150, May, 2013  Peer-reviewedLead authorCorresponding author
  • M. Kawaguchi, S. Yasumasu, A. Shimizu, N. Kudo, K. Sano, I. Iuchi, M. Nishida
    Journal of Experimental Biology, 216(9) 1609-1615, May 1, 2013  Peer-reviewedLead author
  • Shigeki Yasumasu, Mari Kawaguchi
    Handbook of Proteolytic Enzymes, 1 942-945, 2013  Peer-reviewed
  • Shigeki Yasumasu, Mari Kawaguchi
    Handbook of Proteolytic Enzymes, 1 945-949, 2013  Peer-reviewed
  • Mari Kawaguchi, S{\'{e } }bastien Lavou{\'{e } }, Junya Hiroi, Hirofumi Hayano, Ichiro Iuchi, Shigeki Yasumasu, Mutsumi Nishida
    Environmental Biology of Fishes, 94(3) 567-576, Jul, 2012  Peer-reviewedLead author
  • Kaori Sano, Mari Kawaguchi, Masayuki Yoshikawa, Toyoji Kaneko, Toshiomi Tanaka, Ichiro Iuchi, Shigeki Yasumasu
    FEBS Journal, 278(19) 3711-3723, Oct, 2011  Peer-reviewed
  • Mari Kawaguchi, Shigeki Yasumasu, Akio Shimizu, Kaori Sano, Ichiro Iuchi, Mutsumi Nishida
    FEBS Journal, 277(23) 4973-4987, Dec, 2010  Peer-reviewedLead author
  • Kaori Sano, Mari Kawaguchi, Masayuki Yoshikawa, Ichiro Iuchi, Shigeki Yasumasu
    FEBS Journal, 277(22) 4674-4684, Nov, 2010  Peer-reviewed
  • Shigeki Yasumasu, Mari Kawaguchi, Satoshi Ouchi, Kaori Sano, Kenji Murata, Hitoshi Sugiyama, Tatsuo Akema, Ichiro Iuchi
    JOURNAL OF BIOCHEMISTRY, 148(4) 439-448, Oct, 2010  Peer-reviewed
  • Mari Kawaguchi, Junya Hiroi, Masaki Miya, Mutsumi Nishida, Ichiro Iuchi, Shigeki Yasumasu
    BMC EVOLUTIONARY BIOLOGY, 10 260, Aug, 2010  Peer-reviewedLead author
  • Mari Kawaguchi, Hideaki Fujita, Norio Yoshizaki, Junya Hiroi, Hiroyuki Okouchi, Yoshitomo Nagakura, Tsutomu Noda, Satoshi Watanabe, Satoshi Katayama, Shawichi Iwamuro, Mutsumi Nishida, Ichiro Iuchi, Shigeki Yasumasu
    Journal of Experimental Zoology Part B: Molecular and Developmental Evolution, 312(2) 95-107, Mar 15, 2009  Peer-reviewedLead author
  • Kaori Sano, Keiji Inohaya, Mari Kawaguchi, Norio Yoshizaki, Ichiro Iuchi, Shigeki Yasumasu
    FEBS Journal, 275(23) 5934-5946, Dec, 2008  Peer-reviewed
  • Mari Kawaguchi, Masahiro Nakagawa, Tsutomu Noda, Norio Yoshizaki, Junya Hiroi, Mutsumi Nishida, Ichiro Iuchi, Shigeki Yasumasu
    FEBS Journal, 275(11) 2884-2898, Jun, 2008  Peer-reviewedLead author
  • Marl Kawaguchi, Shigeki Yasumasu, Junya Hiroi, Kiyoshi Naruse, Tohru Suzuki, Ichiro Iuchi
    GENE, 392(1-2) 77-88, May, 2007  Peer-reviewedLead author
  • Mari Kawaguchi, Shigeki Yasumasu, Junya Hiroi, Kiyoshi Naruse, Masayuki Inoue, Ichiro Iuchi
    Development Genes and Evolution, 216(12) 769-784, Nov 21, 2006  Peer-reviewedLead author

Misc.

 13

Books and Other Publications

 5

Presentations

 149

Research Projects

 21

Social Activities

 5

Media Coverage

 16