Personnel Information

写真a

MIYAMOTO Takaaki


Job title

Junior Associate Professor
To the head of this page.▲

Graduating School 【 display / non-display 】

  • Okayama University, 2012.03, Graduated

To the head of this page.▲

Graduate School 【 display / non-display 】

  • Okayama University, Master's Course, 2014.03, Completed

  • Nara Institute of Science and Technology, Doctor's Course, 2017.03, Completed

To the head of this page.▲

Campus Career 【 display / non-display 】

  • 2025.02
    -
    Now
    Institute of Science Tokyo， -， Institute of Integrated Research， Division of Biomedical Materials， Soft Matter and Biomedical Engineering， Junior Associate Professor
To the head of this page.▲

External Career 【 display / non-display 】

  • 2017.04
    -
    2022.03
    RIKEN, RIKEN Center for Sustainable Resource Science, Biomacromolecules Research Team, Postdoctoral researcher
  • 2020.10
    -
    2023.03
    JST-ERATO Numata Organellar Reaction Cluster Project, Fusion Peptide Utilization Group, Group Leader
  • 2022.04
    -
    2025.01
    RIKEN, RIKEN Center for Sustainable Resource Science, Biomacromolecules Research Team, Research Scientist
To the head of this page.▲

Research Areas 【 display / non-display 】

  • Polymer chemistry

  • Bio chemistry

  • Nanobioscience

To the head of this page.▲
 

Research Theme 【 display / non-display 】

  • Micelle complexes displaying multiple functional peptides for efficient DNA delivery to plant mitochondria, 2019.04 - 2022.03

To the head of this page.▲

Published Papers & Misc 【 display / non-display 】

  1. A Chimeric Peptide for Shielding Plant Photosynthetic Systems against Excess Light Stress via Chloroplast-Targeted ROS Quenching 2024.10; 4 (12): 4691-4699. ( DOI )

  2. Phenylboronic Acid-Functionalized Micelles Dual-Targeting Boronic Acid Transporter and Polysaccharides for siRNA Delivery into Brown Algae 2024.03; 4 (4): 1385-1395. ( DOI )

  3. Design of an Artificial Peptide Inspired by Transmembrane Mitochondrial Protein for Escorting Exogenous DNA into the Mitochondria to Restore their Functions by Simultaneous Multiple Gene Expression 2023.11; ( DOI )

  4. Advancing Biomolecule Delivery in Plants: Harnessing Synthetic Nanocarriers to Overcome Multiscale Barriers for Cutting-Edge Plant Bioengineering 2023.09; 96 (9): 1026-1044. ( DOI )

  5. Plant Mitochondrial-Targeted Gene Delivery by Peptide/DNA Micelles Quantitatively Surface-Modified with Mitochondrial Targeting and Membrane-Penetrating Peptides. 2023.06; 24 (8): 3657-3665. ( PubMed, DOI )

  6. Organelle-targeted gene delivery in plants by nanomaterials 2023; 59 (47): 7166-7181. ( PubMed, DOI )

  7. Relaxation of the Plant Cell Wall Barrier via Zwitterionic Liquid Pretreatment for Micelle-Complex-Mediated DNA Delivery to Specific Plant Organelles. 2022.08; 61 (32): e202204234. ( PubMed, DOI )

  8. A Synthetic Multidomain Peptide That Drives a Macropinocytosis-Like Mechanism for Cytosolic Transport of Exogenous Proteins into Plants 2022.01; 2 (1): 223-233. ( PubMed, DOI )

  9. Fusion Peptide-Based Biomacromolecule Delivery System for Plant Cells. 2021.06; 7 (6): 2246-2254. ( PubMed, DOI )

  10. Endosome-escaping micelle complexes dually equipped with cell-penetrating and endosome-disrupting peptides for efficient DNA delivery into intact plants. 2021.03; 13 (11): 5679-5692. ( PubMed, DOI )

  11. Peptide-Mediated Gene Transfer into Marine Purple Photosynthetic Bacteria. 2020.11; 21 (22): ( PubMed, DOI )

  12. Dual Peptide-Based Gene Delivery System for the Efficient Transfection of Plant Callus Cells 2020.05; 21 (7): 2735-2744. ( PubMed, DOI )

  13. Zwitterionic Polypeptides: Chemoenzymatic Synthesis and Loosening Function for Cellulose Crystals. 2020.05; 21 (5): 1785-1794. ( PubMed, DOI )

  14. Construction of a Quadrangular Tetramer and a Cage-Like Hexamer from Three-Helix Bundle-Linked Fusion Proteins. 2019.05; 8 (5): 1112-1120. ( PubMed, DOI )

  15. Kousuke Tsuchiya, Yu Miyagi, Takaaki Miyamoto, Prashant G. Gudeangadi, Keiji Numata. Synthesis of Polypeptides (Chapter 8) Enzymatic Polymerization towards Green Polymer Chemistry. 2019; 233-265.

  16. Enhanced stability of Cu2+-ATCUN complexes under physiologically relevant conditions by insertion of structurally bulky and hydrophobic amino acid residues into the ATCUN motif 2016.06; 45 (23): 9436-9445. ( PubMed, DOI )

  17. Domain-swapped cytochrome cb(562) dimer and its nanocage encapsulating a Zn-SO4 cluster in the internal cavity 2015; 6 (12): 7336-7342. ( DOI )

  18. Basicity of N-Terminal Amine in ATCUN Peptide Regulates Stability Constant of Albumin-like Cu2+ Complex 2013.09; 42 (9): 1099-1101. ( DOI )

▼display all

To the head of this page.▲

Awards & Honors 【 display / non-display 】

  • RIKEN CSRS Incentive Award，RIKEN，2023.04

  • Protein Society Young Investigator Travel Award，The 30th Annual Symposium of the Protein Society，2016.07

To the head of this page.▲