ProfessorThomas Maschmeyer
Professor
Faculty of Science
Research projects & supervision summary
Our Vision
To lead in creating sustainable chemical solutions that power circular economies, renewable energy systems, and environmental stewardship—delivering innovations that matter for generations to come.
About Us
We are a collaborative research team at the University of Sydney, bringing together the expertise of Professor Thomas Maschmeyer, Dr Alexander Yuen, and Professor Anthony Masters. Our shared mission is simple yet ambitious: to use chemistry as a force for sustainability and innovation.
What We Do
Our work spans catalysis, advanced materials, and process intensification, tackling global challenges in renewable energy, resource recovery, and circular economy systems. We design catalysts with precision—guided by the principle of “selectivity tuning by active site design”—to make chemical transformations cleaner, more efficient, and scalable.
Key areas of research include:
- Plastic-to-resource technologies: Converting mixed end-of-life plastics into valuable oils using hydrothermal processes.
- Biomass liquefaction: Turning organic waste into renewable fuels.
- Energy storage innovation: Developing next-generation battery systems for renewable integration.
- Green hydrogen and low-emission processes: Creating pathways for a carbon-neutral future.
Our Philosophy
We believe chemistry should serve both knowledge and society. That means pushing the boundaries of science while ensuring our discoveries translate into real-world impact. Through companies that have been co-founded (Licella Holdings) or spun-out from our laboratory (Gelion plc, the university’s first publicly listed start-up) —we turn ideas into technologies that enable a cleaner, more resilient world.
RESEARCH PROJECTS & ACTIVITIES
- RESEARCH-BASED DEGREE SUPERVISIONAnalysis methods for fungal and hydrothermal plastic remediation
- RESEARCH-BASED DEGREE SUPERVISIONB.O.O.O.M. Battery Operando Optical Observation Methods
- RESEARCH-BASED DEGREE SUPERVISIONCatalysis for the modern nitrogen cycle.
- RESEARCH-BASED DEGREE SUPERVISIONChemical upgrading of biowaste and bio-sourced molecules through catalysis, green extraction and functional nanomaterials synthesis.
- RESEARCH-BASED DEGREE SUPERVISIONConverting Macroalgal Biomass into Biomaterials and Applications
- RESEARCH-BASED DEGREE SUPERVISIONConverting natural gas and water into hydrogen and liquid CO2
- RESEARCH-BASED DEGREE SUPERVISIONElectrocatalytic Synthesis of Carbon- and Nitrogen-Based Materials
- RESEARCH-BASED DEGREE SUPERVISIONElectrochemical Valorisation of Organic Materials
- RESEARCH-BASED DEGREE SUPERVISIONExploring the application of porous and ionic liquids for sustainable chemistry
- RESEARCH-BASED DEGREE SUPERVISIONFacets, junctions and functions – TiO2 a highly tuneable catalytic material
- RESEARCH-BASED DEGREE SUPERVISIONGreen Reactions and Technologies for Biomass Valorisation
- RESEARCH-BASED DEGREE SUPERVISIONInterface Design of Silicon Anodes Based on Potential Modulation
- RESEARCH-BASED DEGREE SUPERVISIONInvestigation of Structural-Catalytic Relationship of Mixed-Metal Layered Oxide Materials for Photocatalytic Overall Water Splitting
- RESEARCH-BASED DEGREE SUPERVISIONIonic Liquids as Functional Components- From Catalysis to Electrochemistry
- RESEARCH-BASED DEGREE SUPERVISIONOn Molybdenum Sulfides and Other Active Materials for Sustainable Energy Systems
- RESEARCH-BASED DEGREE SUPERVISIONProton insertion materials for electrochemical energy storage
- RESEARCH-BASED DEGREE SUPERVISIONSelective Electrocatalytic Oxidation of Methane and Coupling with Ammonia to Value-Added Chemicals
- RESEARCH-BASED DEGREE SUPERVISIONSupercritical water - actions and reactions during the thermal decomposition of plastics
- RESEARCH-BASED DEGREE SUPERVISIONSustainable processes for the chemical upgrading of renewables