JUAN SHANG

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Assistant Professor

Kyushu University

Japan

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About

Juan Shang is an Assistant Professor at Kyushu University in Japan. His research focuses on materials science, particularly concerning hydrogen embrittlement in pipeline steels, mechanical integrity assessments, and the integration of renewable energy systems. Recent publications include studies on the effects of hydrogen and CO2 on steel properties and innovative approaches to enhance charge transfer in photovoltaic systems.

Recent Grants

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Quantum mechanics computational and experimental study on the collective effects of natural gas constituents on hydrogen embrittlement of pipeline steel

Open Date: 2024-07-01

Close Date: 2026-03-01

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2025

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2023

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2022

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2021

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2021

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2020

Collaborators (1)

Yuan Gao

Assistant Professor

Kyushu University

JAPAN

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JUAN SHANG

Research Interests

Explore related searches

Contact this professor

About

Recent Grants

Articles (19)

Unlocking predictive insights and interpretability in deep reinforcement learning for Building-Integrated Photovoltaic and Battery (BIPVB) systems

Suppressing gaseous hydrogen embrittlement of Cr–Mo steel by introducing water vapor: Insights from experiments and calculations

Research on the fracture toughness of pipeline steel X80 in a hydrogen environment

Content dependence of CO2 effect on the hydrogen embrittlement sensitivity of P110 steel for underground hydrogen storage: Experiments and DFT calculations

Coupling effect of H2S and H2 on the fracture mechanical properties of X80 pipeline steel: Experiment vs DFT

Mechanical integrity assessment of X80 pipeline steel for the high-pressure transport of actual hydrogen-blended natural gas

Evolution and mechanism of hydrogen gas embrittlement susceptibility for X80 pipeline steel within the service temperature range

Improved charge transfer performance of eosin Y-sensitized anatase TiO2 by anchoring group modification: from theoretical design to experiment

Enhanced hydrogen degradation of two pipeline steels by increasing inert gas pressure in hydrogen-containing mixtures: experimental and theoretical insights

Synergic effects of temperature and pressure on the hydrogen diffusion and dissolution behaviour of X80 pipeline steel

CO2 effect on the fatigue crack growth of X80 pipeline steel in hydrogen-enriched natural gas: Experiment vs DFT

Co-adsorption of H2+nCO+mO2 on α-Fe (110): Effect on hydrogen adsorption, dissociation and diffusion

Effects of plastic deformation on hydrogen trapping and hydrogen distribution in X80 pipeline steel

Pressure dependence of CO2 effect on hydrogen-assisted fatigue crack growth in two pipeline steels

Analysis of hydrogen distribution and diffusion in pre-strained SUS316L through scanning Kelvin probe force microscopy and thermal desorption spectroscopy

Hydrogen uptake induced by CO2 enhances hydrogen embrittlement of iron in hydrogen blended natural gas

Different effects of pure hydrogen vs. hydrogen/natural gas mixture on fracture toughness degradation of two carbon steels

A coupled cohesive modeling approach for predicting fractures in low alloy steel under high-pressure hydrogen gas

Enhanced hydrogen embrittlement of low-carbon steel to natural gas/hydrogen mixtures

Collaborators (1)

Yuan Gao

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