At the heart of our research lies a simple yet ambitious question: How can we design polymers that not only perform exceptionally today, but also address the material challenges of tomorrow?

We approach this by creating functional macromolecules whose topology and functionality are precisely controlled using efficient and click reactions. These molecular design elements—often overlooked—are in fact the “architectural codes” that dictate how polymers self-assemble, how they phase-separate in colloidal systems, and how the resulting bulk materials express their unique morphologies and properties. By decoding these relationships, we turn molecular blueprints into purposeful materials.

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This vision drives three interconnected research directions:

1. Sustainable polymer design – Synthesis of degradable functional polymers with controlled topology and tunable properties.

2. Smart soft materials – Engineering polymer nanomaterials and hydrogels whose properties are fine-tuned for specific, high-value applications.

3. Multifunctional porous materials – Designing multifunctional porous polymers for demanding roles in catalysis, separation, and environmental remediation.

 

Together, these efforts form a research ecosystem where fundamental insight fuels innovation, and innovation feeds directly into real-world solutions.

 

Representative publications are listed below:

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