Session Details
[2AS-05]【J】Frontiers of multicellular tissue dormancy research and technology development
Thu. Dec 4, 2025 9:00 AM - 11:00 AM JST
Thu. Dec 4, 2025 12:00 AM - 2:00 AM UTC
Thu. Dec 4, 2025 12:00 AM - 2:00 AM UTC
Room 5(Pacifico Yokohama Conference Center 3F, 304)
Organizer: Katsuyoshi Takaoka (Tokushima university), Mizuki HONDA (Hiroshima University)
The phenomenon of dormancy in multicellular tissues, exemplified by developmental diapause in mammalian embryos, nematode dormancy, cancer latency, and tissue stem cell quiescence, is observed across a wide range of biological processes. In previous studies, research on topics such as “developmental diapause," “tissue stem cell quiescence," and “cancer dormancy" has been conducted within distinct and specialized fields. This symposium aims to unite researchers from diverse areas of dormancy science and developers of innovative technologies to explore the commonalities and variations of dormancy in multicellular tissues from a holistic perspective.
Introduction
[2AS-05-01]Mechanism of embryonic diapause during mouse preimplantation
○Katsuyoshi TAKAOKA1 (1. Tokushima University)
[2AS-05-02]Visualization and analysis of cellular quiescence using Photo-Isolation Chemistry
○Mizuki Honda1 (1. Hiroshima University)
[2AS-05-03]Development of Medium-Range Intercellular Interaction Analysis Technology for Elucidating “Philostasis” Mechanisms
○Haruka Hirose Hirose1 (1. National Cancer Center)
[2AS-05-04(2P-607)]Nectin-1 regulates neural stem cell function in hypothalamic tanycytes
○Tatsuhiro Shimizu1, Yoshimi Takai1 (1. Kobe Univ.)
[2AS-05-05]p53-inducible lncRNA causes genotoxic stress-induced maldifferentiation and cancer chemoresistance in human embryonic stem cells
○Kazuyuki YAMAGATA1 (1. The University of Tokyo)
[2AS-05-06(2P-809)]A new function of an ATG gene in the regulation of cold-inducible diapause in C. elegans
○Makoto Horikawa Horikawa1, Shuhei Nakamura1 (1. Nara Med. Univ., Dept. Biochem.)
[2AS-05-07]Insights into the biology of aging from studying adult reproductive diapause in C. elegans
○Kazuto Kawamura1, Anna Diederich1, Birgit Gerisch1, Roberto Ripa1, Christian Latza1, Joachim Steiner1, Stephanie Fernandes1, Filippo Artoni1, David Meyer2, Damini Sant1, Simon Oehm2, Franziska Grundmann2, Roman-Ulrich Muller2, Constantinos Demetriades1, Adam Antebi1 (1. Max Planck Institute for Biology of Ageing, 2. University of Cologne)
