Research projects & supervision summary

Professor Ringer is currently looking to recruit high quality individuals aspiring to undertake research at the Honours/Final year project level, summer interns, Master and Ph.D. students, and postdoctoral researchers. A range of projects are available that span fundamental to industry-based, and across structural materials and functional materials.

Hot topics emerging just now for which opportunities exist include:

  • Atomic-scale materials design (quantum nanomaterials, nanocomposites, alloys and more)
  • Functionalised photovoltaic surfaces
  • Additive manufacturing
  • New frontiers in atom probe microscopy
  • New frontiers in transmission electron microscopy

What's it like?

Working in Professor Ringer's research team places you in the midst of a wonderful institutional, national and international network. Former team members are now working in companies all over the world from large multinational corporations, the defence industry, state and federal governments, and technology start-up ventures. Other members have gone on to academic roles or are conducting further research at places such as Texas A&M University, Nanjing University of Science and Technology, The University of Oxford, Central South University, Deakin University, Curtin University, and the Max Plank Institute for Iron and Steel.


You may choose to focus on challenges around structural materials, or functional materials. Most of the group are either trying to understand the fundamental origins of materials behaviour, or striving to develop materials with new properties. We need certain key 'tools' that allow us to be successful in this very challenging research. These tools include atom probe microscopy, transmission electron microscopy, density functional theory, and various other computational modelling techniques. Indeed, very often, the team need to create methodological innovations in imaging and characterisation in order to gain fresh insights into how materials work. Therefore, some members of the team focus on advanced techniques in microscopy and microanalysis.


Please look carefully at the University of Sydney's scholarships page if this sounds interesting for you.

RESEARCH PROJECTS & ACTIVITIES

  • PROJECT
    The development of additively manufactured permanent magnets
    8 Sep 2025
    Project leaders:
    • Ringer S
    The development of additively manufactured permanent magnets
  • PROJECT
    3D printing of rare-earth permanent magnets
    1 Jun 2024
    Project leaders:
  • RESEARCH-BASED DEGREE SUPERVISION
    Advancing Additive Manufacturing of Copper Alloys: Processing, Microstructure, and Property Optimisation
  • RESEARCH-BASED DEGREE SUPERVISION
    AlFeCoNi high entropy alloy fabricated by powder-bed arc additive manufacturing
  • RESEARCH-BASED DEGREE SUPERVISION
    Alloying-Driven Microstructure and Mechanical Performance in Tungsten Carbide−Cobalt (WC–Co) Cemented Carbides
  • RESEARCH-BASED DEGREE SUPERVISION
    Atom probe analysis of the gettering phenomena in passivating films for silicon photovoltaics
  • RESEARCH-BASED DEGREE SUPERVISION
    Atomic Scale Microscopy of Zr-based Bulk Metallic Glasses Processed by Various Routes
  • RESEARCH-BASED DEGREE SUPERVISION
    Combined ex-situ and in-situ atomic-scale observation of interactions of defects in metallic materials
  • RESEARCH-BASED DEGREE SUPERVISION
    Computational Intelligence for Alloy Design, Microstructure Tailoring, Property Prediction, and Algorithm Design for Microscopy Data Analysis to Prevent Hydrogen Embrittlement
  • RESEARCH-BASED DEGREE SUPERVISION
    Design of Thermomechanical Processing Routes for Advanced High Strength Steels: Microstructure and Properties
  • RESEARCH-BASED DEGREE SUPERVISION
    Developing stronger and highly conductive copper materials via additive manufacturing
  • RESEARCH-BASED DEGREE SUPERVISION
    Development and Transition of Enhanced Computer Vision Algorithms for Applications in Material Science
  • RESEARCH-BASED DEGREE SUPERVISION
    Effects of external stimuli on the microstructures of ferroelectric materials
  • RESEARCH-BASED DEGREE SUPERVISION
    Effects of Scandium and Zirconium on Advanced Aluminium Alloys
  • RESEARCH-BASED DEGREE SUPERVISION
    Evolution of microstructures in an Al-Zn-Mg-Cu alloy processed by multi-stage high pressure torsion and annealing
  • RESEARCH-BASED DEGREE SUPERVISION
    Exploring the mechanism of room-temperature superplasticity of Al-Zn alloys
  • RESEARCH-BASED DEGREE SUPERVISION
    Fabrication of Metallic Materials with Combined Chemical and Structural Heterogeneities
  • RESEARCH-BASED DEGREE SUPERVISION
    From first principles: grain boundary segregation and cohesion in engineering alloys
  • RESEARCH-BASED DEGREE SUPERVISION
    Improving the mechanical properties of metallic materials via combined structural and compositional gradients
  • RESEARCH-BASED DEGREE SUPERVISION
    Improving the performance and sustainability of additively manufactured AlSi7Mg
  • RESEARCH-BASED DEGREE SUPERVISION
    In-situ electron microscopy investigation of the thermal stability of a nanocrystalline CrMnFeCoNi high-entropy alloy
  • RESEARCH-BASED DEGREE SUPERVISION
    Integrated Microwave Photonics Signal Processing
  • RESEARCH-BASED DEGREE SUPERVISION
    Microstructural Characterisation of Aged Ti-6Al-2Sn-4Zr-2Mo Produced by Additive Manufacturing
  • RESEARCH-BASED DEGREE SUPERVISION
    Microstructural evolution and mechanical properties of dissimilar structures manufactured by additive manufacturing
  • RESEARCH-BASED DEGREE SUPERVISION
    Microstructural evolutions in additively manufactured metallic materials