Department of Molecular & Cellular Physiology is focusing on the relevance
between synaptic defect and the pathophysiology of neurodevelopmental disorders,
such as autism.
Our department is focusing on the relevance between synaptic defect and the pathophysiology of neurodevelopmental disorders, such as autism.
OVERVIEW
In our laboratory, we investigate the impact of synaptic molecules on
neural circuit formation and synaptic function, as well as how their abnormalities
contribute to neurodevelopmental disorders using genetically modified mouse
models. Our research aims to elucidate the pathogenesis of neurodevelopmental
disorders through a combination of molecular, electrophysiological, and
behavioral analyses.
Our primary research focus is on synaptic molecules such as Neurexin/Neuroligin,
CASK, and IQSEC2. These molecules play a regulatory role in information
transmission between nerve cells, and their functional abnormalities have
been implicated in neurodevelopmental disorders. Neurexin/Neuroligin interact
at the pre- and post-synaptic membranes, playing crucial roles in synaptic
stabilization and functional regulation. Deficiencies or functional abnormalities
in these molecules affect the formation and function of neural circuits
and have been associated with neurodevelopmental disorders, such as autism
spectrum disorder (ASD). CASK is a multifunctional protein involved in
the formation and regulation of synaptic functions, and its genetic mutations
have been linked to intellectual disabilities and developmental delays.
IQSEC2 controls GTPase activated to regulate synaptic plasticity, and its
abnormalities have been implicated as causes of intellectual disabilities
and epilepsy. Through these studies, our laboratory aims to elucidate the
pathogenesis of neurodevelopmental disorders caused by synaptic molecules.
Furthermore, these findings are expected to contribute to the development
of new therapeutic strategies. Our laboratory actively pursues these objectives
and strives to discover further insights. We also hope that our research
findings will contribute to a better understanding and improvement of treatment
methods for neurodevelopmental disorders.
In our laboratory, researchers collaborate to solve challenges using cutting-edge technology and a multifaceted approach. Our research spans a wide range, from experiments using genetically modified mouse models to electrophysiological analysis of cultured neurons and brain slices, as well as behavioral evaluations, allowing us to capture the pathogenesis of neurodevelopmental disorders from multiple perspectives.
Our laboratory aims not only to analyze the functions of synaptic molecules
and elucidate neural circuits but also to produce research results that
lead to improvements in the diagnosis and treatment of neurodevelopmental
disorders. We also strive to give back to society through our research
findings and support patients with neurodevelopmental disorders and their
families. If you are interested in our research, we encourage you to visit
our laboratory's homepage or attend our presentations at conferences to
learn about our latest research findings. Alternatively, we would be delighted
if you could visit our laboratory or attend one of our seminars. We will
continue to work on unraveling the pathogenesis of neurodevelopmental disorders
and developing treatment methods.
NEWS新着情報
April 10, 2023
Marie-Louis Wronski from TUD will join as an exchange student.
April 1, 2023
Yuka Mizuno and Weichen Zang will join as master course students.
March 23, 2023
Anuradha Mehta obtained her Ph.D. degree and left for Johns Hopkins University
as a post-doc researchear.