The research group is at the forefront of advancing sustainable materials science, with a focused emphasis on revolutionizing the recycling and upcycling of post-consumer plastics, particularly thermosets and thermoplastics, through the innovative application of vitrimer chemistry. A key area of exploration is the development of dynamic covalent networks based on vitrimers, which enable the creation of reprocessable and recyclable thermosets. These 'thermoplastic epoxies' offer versatile solutions for a broad spectrum of applications, overcoming the traditional limitations of irreversibly crosslinked polymers.
The research group is at the forefront of advancing sustainable materials science, with a focused emphasis on revolutionizing the recycling and upcycling of post-consumer plastics, particularly thermosets and thermoplastics, through the innovative application of vitrimer chemistry. A key area of exploration is the development of dynamic covalent networks based on vitrimers, which enable the creation of reprocessable and recyclable thermosets. These 'thermoplastic epoxies' offer versatile solutions for a broad spectrum of applications, overcoming the traditional limitations of irreversibly crosslinked polymers.
The group is also pioneering strategies to integrate vitrimer functionalities into thermoplastic matrices, facilitating the reprocessing and upcycling of traditionally difficult-to-recycle thermoplastic blends. By leveraging the dynamic bond exchange capabilities of vitrimers, they are enabling the creation of reconfigurable and self-healing thermoplastic composites.
The group is also pioneering strategies to integrate vitrimer functionalities into thermoplastic matrices, facilitating the reprocessing and upcycling of traditionally difficult-to-recycle thermoplastic blends. By leveraging the dynamic bond exchange capabilities of vitrimers, they are enabling the creation of reconfigurable and self-healing thermoplastic composites.
Furthermore, the group explores the development of complex multiphase polymer microstructures, including vitrimer-modified blends, using advanced melt flow processes. This research delves into the intricate structure-property relationships in these systems, aiming to unlock new possibilities in material performance and recyclability. This includes the ability to selectively break down specific polymer phases within a mixture, to aid in separation and efficient recycling.
Furthermore, the group explores the development of complex multiphase polymer microstructures, including vitrimer-modified blends, using advanced melt flow processes. This research delves into the intricate structure-property relationships in these systems, aiming to unlock new possibilities in material performance and recyclability. This includes the ability to selectively break down specific polymer phases within a mixture, to aid in separation and efficient recycling.
Together, these initiatives, centered on the strategic use of vitrimers, reflect the group’s commitment to addressing global challenges in sustainability and material innovation, particularly in transforming the landscape of plastic waste management by enabling the circular economy of both thermosets and thermoplastics.
Together, these initiatives, centered on the strategic use of vitrimers, reflect the group’s commitment to addressing global challenges in sustainability and material innovation, particularly in transforming the landscape of plastic waste management by enabling the circular economy of both thermosets and thermoplastics.
