Dr. Li’s research interests include the multiphysics modelling of soft matters, development of highly efficient numerical computational methodology, simulation of sustainable energy, and structural dynamics. He is the author of Smart Hydrogel Modeling, and co-author of Reduced Modeling of Planar Fuel Cells; Meshless Methods and Their Numericl Properties; and Rotating Shell Dynamics. He has authored or co-authored over 150 articles published in an array of international journals, and was awarded Winner of Top Project of the Singapore Maritime Institute Forum-Research Showcase 2015.

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• 1. Introduction to Modeling of Smart Hydrogels2. Development of Multi-Effect-Coupling Magnetic-Stimulus (MECm) Model for Magnetic-Sensitive Hydrogels3. Development of Multi-Effect-Coupling Magnetic-pH-Stimuli (MECmpH) Model for Dual Magnetic-pH-Sensitive Hydrogels4. Development of Magneto-Mechanical Model for Magnetic Elastomers Based Microactuators5. Development of Multi-Effect-Coupling Ionic-Strength-Stimulus (MECis) Model for Ionic-Strength-Sensitive Hydrogel6. Development of Multi-Effect-Coupling Photo-Stimulus (MECp) Model for Photon-Sensitive Hydrogel7. Development of Multi-Effect-Coupling Glucose-Stimulus (MECglu) Model for Glucose-Sensitive Hydrogel8. Development of Multi-Effect-Coupling Urea-Stimulus (MECu) Model for Urease-Loaded Hydrogels9. Development of Multi-Effect Coupling Oxygen-pH Stimuli (MECopH) Model for Hemoglobin-Loaded Polyelectrolyte10. Development of Multi-Effect-Coupling Pressure-Thermal-Stimuli (MECpresstherm) Model for Dual Pressure-Thermal-Sensitive Hydrogels11. Mechanical Characteristics of Gel, Dielectric Gel, and Smart Hydrogel by Finite Element Analysis12. Development of Chemo-Electro-Thermo-Mechanical Models for Transitions of Phases in Physical Hydrogels between Gel and Solution Phases Identified via Density of Crosslinks13. Theoretically Modeling Extension to Mimosa pudica as a Smart Natural Plant System