Division of Pharmaceutical Sciences

1. Synthesis of Biologically Active Molecules
2. Development of New Synthetic Methodology for Complex Molecules
3. Molecular Architecture of Unique Organic Materials
4. Chemistry of Strained Molecules
5. Control of Molecular Dynamism

1. Design of environmentally friendly organocatalysts for process chemistry
2. Development of new reagents and synthetic methods using unique elements.
3. Total synthesis of biologically important synthetic and natural products
4. Molecular modification using multi-functional heterocycles
5. Innovative catalysts for large- and medium-sized glycopeptides

1. Elucidation of the action mechanisms of antimicrobial peptides
2. Initiation mechanism of Alzheimer’s disease
3. Elucidation of membrane protein folding
4. Regulation of function of G-protein coupled receptors
5. Protein structure determination by NMR

1. Structural-basis for pharmacologic behaviour of ATP binding Cassette transporters
2. Development of a new technique of X-ray crystallography by X-ray free electron laser

1. Development of novel analytical technologies for proteomics
2. Functional analysis of human proteomes by high resolution LC/MS/MS
3. Elucidation of intracellular phosphorylation network analysis
4. Intelligent proteome analysis by biomolecular mass spectrometry integrated with statistical signal processing
5. Metaproteome analysis of microbiomes in human diseases.

1. Ca²⁺ signaling from intracellular stores
2. Novel signaling in central nervous system
3. Structure and function of muscle membrane systems

Professor
Takahiro ITO

1. Regulatory mechanisms of cell fates in stem cells and cancer
2. Metabolic regulation of cancer cell fates in leukemia
3. Cell fate regulation by RNA binding proteins in myogenesis and muscle functions
4. Drug discovery and modulation of cell fates as therapeutic strategies in human malignancies

Genetics

Professor
Tatsushi IGAKI

1. Mechanism of cell competition
2. Genetic basis of tissue growth regulation
3. Molecular basis of tumor progression and metastasis

1. Signal transduction pathways involved in cancer progression.
2. Regulation of amino acid metabolism in cancer cells.

Associate Professor

Miki IMANISHI

1. Creation of bioactive proteins that control cell function and genes
2. Development of peptide-based intracellular delivery systems for biomacromolecules
3. Design of peptides and proteins that induce membrane curvature
4. Design of artificial transcription factors that regulate gene expression
5. Assembly control of membrane proteins and the regulation of biological signals