Yuki Suzuki

Associate Professor

Mie university

Japan

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Yuki Suzuki is an Associate Professor at Mie University in Japan. His research interests focus on the development of innovative DNA origami techniques for constructing artificial nanostructures, as well as the exploration of mechanical effects on cellular processes. Recent articles include studies on DNA-based actuators, the modulation of cell migration, and real-time monitoring of amyloid peptide transitions.

Articles (20)

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2025

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2021

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2021

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2020

Collaborators (2)

Yusuke Sato

Associate Professor

Kyushu Institute of Technology

JAPAN

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Ryuji Kawano

Tokyo University of Agriculture and Technology

JAPAN

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Yuki Suzuki

Research Interests

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Articles (20)

DNA Origami-Based Lattice Actuator for Constructing Multi-Responsive, Multi-Reconfigurable Artificial Nanostructures

Logic-Gated Modulation of Cell Migration via Mesoscale Mechanical Uncaging Effects

Modular photostable fluorescent DNA blocks dissect the effects of pathogenic mutant kinesin on collective transport

DNA‐Origami‐Armored DNA Condensates

DNA-origami-armored DNA condensates

Modular photostable fluorescent DNA blocks dissect the effects of pathogenic mutant kinesin on collective transport

Multi-Reconfigurable DNA Origami Nanolattice Driven by the Combination of Orthogonal Signals.

Chemo-mechanical forces modulate the topology dynamics of mesoscale DNA assemblies

Real-time monitoring of the amyloid β<sub>1-42</sub> monomer-to-oligomer channel transition using a lipid bilayer system

Real-time monitoring of the amyloid β1–42 monomer-to-oligomer channel transition using a lipid bilayer system

Chemo-mechanical forces modulate the topology dynamics of mesoscale DNA assemblies

Algorithmic Design of 3D Wireframe RNA Polyhedra

Anisotropic, Degradable Polymer Assemblies Driven by a Rigid Hydrogen-Bonding Motif That Induce Shape-Specific Cell Responses

Lipid bilayer-assisted dynamic self-assembly of hexagonal DNA origami blocks into monolayer crystalline structures with designed geometries

Chemo-Mechanical Modulation of Cell Motions Using DNA Nanosprings

DNA nanotechnology provides an avenue for the construction of programmable dynamic molecular systems

Flexible Assembly of Engineered Tetrahymena Ribozymes Forming Polygonal RNA Nanostructures with Catalytic Ability

Folding RNA-Protein Complex into Designed Nanostructures

Mechanochemical properties of DNA origami nanosprings revealed by force jumps in optical tweezers

Large Deformation of a DNA‐Origami Nanoarm Induced by the Cumulative Actuation of Tension‐Adjustable Modules

Collaborators (2)

Yusuke Sato

Ryuji Kawano

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