Research

Three interlocking research themes, each led by a senior academic and each underpinned by modern manufacturing technology — flow, mechano-, photo-, bio-, organo-, combinatorial, and electrocatalysis — plus ML-guided discovery.

Theme 1

Catalysis in the Green Circular Economy

Theme Leader: A/Prof Anastasios (Tash) Polyzos, University of Melbourne

Green catalysis enables the conversion of waste into valuable products, reduces energy use, and closes material loops. We develop selective, efficient catalytic reactions for:

  • Depolymerisation and plastic recycling
  • Biomass conversion to platform molecules
  • Sustainable manufacture of fine chemicals and commodity chemicals
  • CO₂ utilisation

The work targets reduced reliance on finite resources, lower greenhouse gas emissions, and closed-loop industrial systems — with direct pathways into Australia's chemical manufacturing industry through our partner organisations.

Green circular economy chemistryGreen Circular Economy — waste → value
Theme 2

Catalysis in Bioprocessing

Theme Leader: Prof Colin Barrow, Deakin University

Bioprocessing uses enzymes, microbes, and bio-derived feedstocks to make high-value products — pharmaceuticals, bioactives, functional materials and foods — with far lower environmental footprint than traditional chemistry.

  • Enzyme and whole-cell biocatalysis
  • Marine and agricultural bioproducts
  • Nutraceuticals and bioactive compounds
  • Bio-based materials for industrial use

This theme draws on Deakin's Strategic Research Centre for Sustainable Bioproducts and the Marine Bioproducts CRC to connect fundamental research to scalable, commercial outcomes.

Bioprocessing and biocatalysisBioprocessing — nature as the catalyst
Theme 3

Sustainable Catalysts for Energy Applications

Theme Leader: Prof Rachel Caruso, RMIT University

The clean energy transition depends on catalysts — for electrolysers that split water into hydrogen, for fuel cells, and for batteries. Too many rely on scarce platinum-group metals. We design alternatives from abundant, low-cost elements.

  • Non-precious-metal electrocatalysts
  • Iridium-free electrolyser materials
  • Photocatalysis for solar-driven chemistry
  • Advanced materials for lithium-based batteries

This theme delivers the catalyst chemistry that will enable Australia's renewable-energy industries to scale economically.

Sustainable catalysts for energyEnergy — sustainable catalysts for a clean grid

Cross-cutting capability

Running across all three themes:

Publications, datasets and outputs

A live list of SAGE-M publications, datasets and IP will appear here once the Centre is in operation.

Enquire about collaborations