Research projects & supervision summary

We believe in diversity is strength and welcome students, projects and ideas to grow and transform our research and group culture.

Find out more about the Polymer Nanostructures Group.

 

The following research projects are currently available:

 

  • Nanoscale polymer discs via self-assembly. 2D polymer assemblies are difficult to realise as self-assmebly typically favours spherical morphologies. Our new apporach uses topology to influence the self-assmebly process, enabling the formation of polymer nanodiscs in water. We are interested in learning how these discs form, how we can influences their formation and how we can establish nanodiscs as a potent drug delivery platform for nanomedicine.
  • Injectable hydrogels made from polymer architectures. We are interested in designing new polymer-based building blocks capable of being injected to form hydrogel matrices. Such hydrogels feature tunable mechanical properties including stimuli-responsiveness for advanced applications in organoid and drug delivery research.
  • Porous nanomaterials from polymer templates. Polymers can direct the synthesis of inorganic materials to allow for the tuning of porousity and composition. In contrast to hydrothermal and solid state chemistry, templating produces nanocrystalline materials with large surface areas with ease. Templating methods can further be modified to generate mixed metal oxides. We have developed several strategies to produce titania and niobium oxides for energy applications using polymer self-assembly and naturally occuring polyphenols. We would like to test our materials in batteries, as well as photocatalytcial applications, such as water splitting.

 

  • For undergraduate students: We have undergraduate Honours research projects on offer. We can also co-design projects based on your individual interests. Please get in touch to discuss possibilities for you to be involved.
  • For postgraduate students: We offer PhD projects for domestic and international students. Potential candidates with degrees in chemistry, polymer chemistry, materials science, biochemistry or related disciplines are encouraged to contact Professor Müllner via email (please include your CV and research interests).
  • For postdoctoral researchers: Please get in touch to discuss possible fellowships and projects

 

Please contact Professor Müllner at markus.muellner@sydney.edu.au

RESEARCH PROJECTS & ACTIVITIES

  • RESEARCH-BASED DEGREE SUPERVISION
    Analysis of Amphiphilic Block-copolymer behavior towards Dual-Responsive Hydrogel Systems.
  • RESEARCH-BASED DEGREE SUPERVISION
    Bottlebrush copolymers as building blocks for Hydrogels
  • RESEARCH-BASED DEGREE SUPERVISION
    Bottlebrush Polymers as Building Blocks for Hydrogel Design
  • RESEARCH-BASED DEGREE SUPERVISION
    Carborane-Containing Polymers as Advanced Materials
  • RESEARCH-BASED DEGREE SUPERVISION
    Controlled Polymer Photosynthesis
  • RESEARCH-BASED DEGREE SUPERVISION
    Developing a polymeric nanocomplexes platform for gene editing in plant pollen grains
  • RESEARCH-BASED DEGREE SUPERVISION
    Exploring the in Vitro Behavior of Polymer Nanodiscs.
  • RESEARCH-BASED DEGREE SUPERVISION
    Fluorescent Sensor Array for Intracellular pH and Saccharide Detection
  • RESEARCH-BASED DEGREE SUPERVISION
    Fluorescent sensor arrays to monitor heavy metals and therapeutic drugs in biological systems
  • RESEARCH-BASED DEGREE SUPERVISION
    Functional Polymer Templates for Metal Oxide Nanostructures
  • RESEARCH-BASED DEGREE SUPERVISION
    High Surface Area Nanostructures for Lithium Ion Batteries
  • RESEARCH-BASED DEGREE SUPERVISION
    Molecular Polymer Bottlebrushes with Tunable Hydrophilic-Hydrophobic Character and their Interaction with Serum Proteins Cancer Cells and Tumours
  • RESEARCH-BASED DEGREE SUPERVISION
    Multifunctional signal transducers from stimuli responsive molecular polymer bottlebrushes
  • RESEARCH-BASED DEGREE SUPERVISION
    Nanoscale Electrochemical Imaging for Clean Energy Development
  • RESEARCH-BASED DEGREE SUPERVISION
    Nanostructured Soft Matter from Compartmentalised Molecular Polymer Brushes
  • RESEARCH-BASED DEGREE SUPERVISION
    Polymeric nanodiscs from bottlebrush block copolymers for biomedical applications
  • RESEARCH-BASED DEGREE SUPERVISION
    Revealing structure-composition-function of energy materials via multi-scale electrochemical method
  • RESEARCH-BASED DEGREE SUPERVISION
    Self-adhesive Conductive Polymer Composites for Long-term Skin Electrodes
  • RESEARCH-BASED DEGREE SUPERVISION
    Self-assembly of Functional Nanodiscs from ROMP-derived Copolymers
  • RESEARCH-BASED DEGREE SUPERVISION
    Squaramide Based Receptors for the Selective Recognition of Sulfate
  • RESEARCH-BASED DEGREE SUPERVISION
    Study of Charge Transfer Dynamics in Organic Solar Cells via Drift-Diffusion Simulation
  • RESEARCH-BASED DEGREE SUPERVISION
    Synthesis and Self-assembly of Asymmetric Block Copolymers Towards Nanodiscs
  • RESEARCH-BASED DEGREE SUPERVISION
    The Impact of Macromolecular Architecture on the Self-Assembly and Functionality of Polymer Nanoparticles
  • RESEARCH-BASED DEGREE SUPERVISION
    Triplet dynamics of donor-acceptor and multi-resonance thermally activated delayed fluorescent emitters