[2O09a-1] Mechanosensory Systems

Thu. Jul 29, 2021 4:40 PM - 5:25 PM Room 9 (504+505, Conference Center)

Chairperson: KAZUHIRO WADA (Hokkaido University), Fumi Kubo

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4:40 PM - 4:55 PM

[2O09a-1-01] Neural encoding system for acoustic features in higher auditory cortices of female zebra finches (Taeniopygia guttata)

〇Masahiro Inda¹, Kohji Hotta¹, Kotaro Oka¹ (1.Department of Biosciences & Informatics, Keio University, Kanagawa, Japan)

4:55 PM - 5:10 PM

[2O09a-1-02] Toward the understanding of molecular mechanism of electrical sensation and response using the nematode C. elegans

〇Ling Fei Tee¹, Jared Young², Keisuke Maruyama¹, Ryoga Suzuki¹, Kotaro Kimura¹ (1.Graduate School of Science, Nagoya City University, Japan, 2.Biology Department, Mills College, USA)

5:10 PM - 5:25 PM

[2O09a-1-03] In vivo Ca²⁺ imaging during head movement with a tiltable objective microscope visualizes topographic organization of response selectivity for stimulus direction and modality in the vestibular periphery

〇Masashi Tanimoto^1,2, Shin-ichi Higashijima^1,2 (1.National Institute for Basic Biology, Okazaki, Japan, 2.Exploratory Research Center on Life and Living Systems (ExCELLS), Okazaki, Japan)

Session information

[2O09a-1] Mechanosensory Systems

[2O09a-1-01] Neural encoding system for acoustic features in higher auditory cortices of female zebra finches (Taeniopygia guttata)

[2O09a-1-02] Toward the understanding of molecular mechanism of electrical sensation and response using the nematode C. elegans

[2O09a-1-03] In vivo Ca²⁺ imaging during head movement with a tiltable objective microscope visualizes topographic organization of response selectivity for stimulus direction and modality in the vestibular periphery

Authentication

Session information

[2O09a-1] Mechanosensory Systems

[2O09a-1-01] Neural encoding system for acoustic features in higher auditory cortices of female zebra finches (Taeniopygia guttata)

[2O09a-1-02] Toward the understanding of molecular mechanism of electrical sensation and response using the nematode C. elegans

[2O09a-1-03] In vivo Ca2+ imaging during head movement with a tiltable objective microscope visualizes topographic organization of response selectivity for stimulus direction and modality in the vestibular periphery

Authentication

[2O09a-1-03] In vivo Ca²⁺ imaging during head movement with a tiltable objective microscope visualizes topographic organization of response selectivity for stimulus direction and modality in the vestibular periphery