Insights into Degradable Branched Step-growth Polymers using Transfer-dominated Branching Radical Telomerisation
Lead Research Organisation:
University of Liverpool
Department Name: Chemistry
Abstract
Polymer degradation may be used to decrease environmental issues or to enable the function of various advanced technologies. For example, next generation drug delivery mechanisms often require a targeted degradation in response to local environmental changes (eg pH in a tumour). Branched polymers offer novel material behaviour and unique product benefits; several systems have been commercialised leading to significant market value. Many of the chemistries that are used for branched polymer production are difficult to perform. Often the type of material that can be made and the cost of manufacture mean that materials are not viable for a range of potential applications. Within this research, the programme of science that is proposed will establish a knowledge foundation for the future study and application of a new polymer synthesis platform.
Numerous opportunities exist within the new synthesis used here that allows the fine tuning of materials properties using techniques already known to industry but not previously applied in this manner. By providing evidence that a range of degradation opportunities exist, it is expected that the research here will stimulate considerable additional studies and industrial engagement.
Branched polymers are used in various commodity applications such a paper-manufacturing, coatings and sealants, laundry powders and water purification; however, uses in more advanced technologies is restricted by the chemistries that may be accessed in their synthesis. Additionally triggered and environmental degradation of branched polymers is difficult to control and design into the structures at the point of manufacture. The work presented here directly addresses these issues and aims to demonstrate the considerable flexibility available for future product design.
If fully successful, the programme will generate a world-leading position for UK academia and industry with the potential to generate considerable value for the UK economy through patented technologies and provide sustainable materials for numerous market sectors.
Numerous opportunities exist within the new synthesis used here that allows the fine tuning of materials properties using techniques already known to industry but not previously applied in this manner. By providing evidence that a range of degradation opportunities exist, it is expected that the research here will stimulate considerable additional studies and industrial engagement.
Branched polymers are used in various commodity applications such a paper-manufacturing, coatings and sealants, laundry powders and water purification; however, uses in more advanced technologies is restricted by the chemistries that may be accessed in their synthesis. Additionally triggered and environmental degradation of branched polymers is difficult to control and design into the structures at the point of manufacture. The work presented here directly addresses these issues and aims to demonstrate the considerable flexibility available for future product design.
If fully successful, the programme will generate a world-leading position for UK academia and industry with the potential to generate considerable value for the UK economy through patented technologies and provide sustainable materials for numerous market sectors.
Publications
Dwyer AB
(2024)
Employing transfer-dominated branching radical telomerisation (TBRT) and atom transfer radical polymerisation (ATRP) to form complex polyester-polymethacrylate branched-linear star copolymer hybrids via orthogonal initiation.
in Chemical communications (Cambridge, England)
Mckeating S
(2024)
Controlling enzyme hydrolysis of branched polymers synthesised using transfer-dominated branching radical telomerisation via telogen and taxogen selection.
in Communications chemistry
Mckeating S
(2025)
Novel hyperbranched polymers from transfer-dominated branching radical telomerisation (TBRT) of diacrylate taxogens
in Polymer Chemistry
Smith C
(2025)
Geometry-directed cyclisation within the transfer-dominated branching radical telomerisation of dimethacrylates
in Polymer Chemistry
| Description | Breakthroughs in Biocompatibility: Unlocking the potential of long-term Implantable Optical Sensors with Advanced Polymer Coatings |
| Organisation | Carbometrics |
| Country | United Kingdom |
| Sector | Private |
| PI Contribution | Design of novel polymers for sensor applications and provision for testing |
| Collaborator Contribution | Testing of materials for applicability in commercial product |
| Impact | Polymers were studied and showed initially interesting outcomes - further work required |
| Start Year | 2024 |
