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Polymer for Healthcare
Macromolecules bearing precisely placed functionalities have been integral in advancing biomedical engineering and drug delivery technology. Over the past decade, extensive research and development have emphasized the rational design of polymers tailored for specific cargo and engineered to exert distinct biological functions.
Our research focuses on developing bio-inspired macromolecules based on bio-sourced molecules/monomers bearing precisely placed pendant functionalities. These macromolecules are employed for constructing targeted drug delivery vehicles, anti-protein fouling coating materials, multi-stimuli responsive sensors/actuators, and polymeric hydrogels, contributing to the next generation of healthcare technologies.
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JACS Au. 2023, 3, 2117-2122
Macromol. Biosci. 2014, 14, 929-935
Polymer for Energy
Global warming, driven by excessive fossil fuel use, deforestation, industrialization, and urbanization, has severely disrupted the carbon cycle. Achieving a net-zero balance in greenhouse gas emissions is now an urgent global priority.
Our research group is dedicated to developing innovative materials and processes to harness renewable energy sources. We focus on advancing next-generation energy storage technologies and renewable energy solutions, including green hydrogen. Additionally, we are working on graphene-based batteries and polymeric gel electrolytes to enhance energy storage efficiency and sustainability.
We are also developing cost-effective, self-healing sealants for photovoltaics that can autonomously repair surface damage, thereby prolonging device lifespans. By integrating these cutting-edge technologies, our research aims to contribute to the transition toward sustainable energy systems, addressing global energy challenges while promoting environmental conservation.
Mater. Lett. 2022, 315, 131935
Polymer for Sustainability
Plastics play a crucial role in nearly every industrial sector, but their non-degradable nature has significantly contributed to plastic pollution and environmental challenges globally. Most conventional plastics are not aligned with the principles of a sustainable circular economy. Achieving sustainable development goals requires utilizing renewable, waste, or recycled feedstock to create materials that can be reprocessed, chemically recycled, or biodegraded at the end of their lifecycle.
Our research group focuses on developing bio-derived and biodegradable polymers from naturally available materials, emphasizing sustainability and circular economy principles. In addition, we are actively working on the depolymerization of commercial plastics to enable efficient recycling and minimize environmental impact. By advancing these materials and technologies, we aim to address the growing plastic waste crisis and foster a greener, more sustainable future.
ACS Sustainable Resour. Manage. 2024, 1(12), 2547-2553