Shintaro Itoh

Associate Professor

Nagoya University

Japan

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About

Shintaro Itoh is an Associate Professor at Nagoya University in Japan. His research focuses on tribological behavior, interfacial slip in nanogaps, and molecular dynamics pertaining to confined liquid films. Recent articles have explored topics such as the effects of polymer conformation on lubricating films, as well as the behavior of DNA molecules in nanogaps. His work contributes to advancements in understanding material interactions at the nanoscale.

Articles (16)

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2025

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2020

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2020

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2020

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2020

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2020

Collaborators (2)

Tomoko Hirayama

Kyoto University

JAPAN

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Norifumi Yamada

Associate Professor

High Energy Accelerator Research Organization

JAPAN

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Shintaro Itoh

Research Interests

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Articles (16)

Emergent Tribological Behavior from Concentration-Driven Conformational Transitions in Adsorbed Polymer Films

Interfacial slip quantification in nanogaps using squeeze flow velocimetry

Stretching and immobilizing a single DNA molecule on a glass surface using pressure flow in a microchannel for super-resolution imaging

Molecular dynamics study of confined liquid film viscosity in Constant-Pressure and Constant-Distance systems

Effect of thickness of surface silicon oxide on liquid advancement in nanogaps between synthetic quartz mold and silicon substrate surfaces in UV nanoimprinting

Correlation between viscoelastic response and frictional properties of hydrated zwitterionic polymer brush film in narrowing shear gap

Revealing the Dependence of Lubricant Viscosity on Molecular Structure by Measuring the Temperature Dependence of Dielectric Relaxation and Viscosity

High temporal resolution measurement of the curing process of nanometer-thick photocurable liquid films using the fiber wobbling method

Effects of Polarity of Polymers on Conformation and Lubricating Film Formation of Adsorbed Films

Measurement of escape time of concentrated DNA molecules in front of a nanogap

Super-localization of individual fluorophores along a DNA strand in a microchannel

Effect of transverse dissipative particle dynamics on dynamic properties of nanometer-thick liquid films on solid surfaces

Experimental study of application of molecules with a cyclic head group containing a free radical as organic friction modifiers

Extension of measurement range of lubrication gap shape using vertical-objective-type ellipsometric microscopy with two compensator angles

Optimizing on-chip concentration of DNA molecules against a nanoslit barrier

ReaxFF Reactive Molecular Dynamics Simulations of Mechano-Chemical Decomposition of Perfluoropolyether Lubricants in Heat-Assisted Magnetic Recording

Collaborators (2)

Tomoko Hirayama

Norifumi Yamada

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