Profile

Introduction

I am a neuroscientist at Institute of Molecular and Clinical Ophthalmology Basel (IOB).

Education

March 2020

Department of Complexity Science and Engineering, Graduate School of Frontier Sciences, The University of Tokyo

Doctor of Philosophy, Laboratory of Dr. Akinao Nose

March 2017

Department of Complexity Science and Engineering, Graduate School of Frontier Sciences, The University of Tokyo

Master of Science, Laboratory of Dr. Akinao Nose

March 2015

Undergraduate Course Program of Environmental Engineering, Faculty of Engineering, Kyoto University

Bachelor of Engineering, Laboratory of Prof. Yuzuru Matsuoka

Fellowships and Awards

Fellowships

June 2019 - November 2019

Academic Research Grant for GSFS Doctor Course Students

June 2018 - November 2018

Academic Research Grant for GSFS Doctor Course Students

June 2017 - November 2017

Academic Research Grant for GSFS Doctor Course Students

Awards

2022

Toshihiko Tokizane Memorial Award for Excellent Graduate Study in Neuroscience, The Japan Neuroscience Society

2020

Repayment Exemption for Students with Excellent Grades, Japan Student Services Organization (JASSO) Type I (interest-free) scholarship.

2019

Travel award to attend The 42nd Annual Meeting of the Japan Neuroscience Society

2017

Repayment Exemption for Students with Excellent Grades, Japan Student Services Organization (JASSO) Type I (interest-free) scholarship.

Skills

in Mus musculus

AAV injection

Electrophysiology

Patch-seq

Two photon Ca2+ imaging

in Drosophila

Ca2+ imaging

behavior assay

connectomics analysis

optogenetics

in Escherichia coli

subcloning

Languages

Human

Japanese

English

Computer

Python

HTML

CSS

JavaScript

PHP

Researches in Institute of Molecular and Clinical Ophthalmology Basel

in preparation

Researches in The University of Tokyo

Neural circuits which generate rhythmical pattern in typical locomotion.

Typical patterned movements in animals are achieved through combinations of contraction and delayed relaxation of groups of muscles. However, how intersegmentally coordinated patterns of muscular relaxation are regulated by the neural circuits remains poorly understood. In this study, I used Drosophila larvae as a model to explore the mechanism of neural circuits that control muscle relaxation and identified Canon (Cholinergic ascending neurons organizing their network), a class of higher-order premotor interneurons, that regulates muscular relaxation during backward locomotion of Drosophila larvae. Using connectomics analysis, calcium imaging, and optogenetics, I clarified the neural circuit structure from brain to muscle. And I found that Canon neurons play an essential role in inducing muscle relaxation and control the timing of their own activity along the anterior and posterior ventral nerve cord neuromeres to achieve coordinated muscle relaxation between body segments.

Publication

Articles

2021

Conference oral presentations

2019

Conference poster presentations

2018
2017
2016

CV

Curriculum Vitae

Contact

Twitter

GitHub