#chemistry

Catalytic Static Mixers in Organic Synthesis

This Project aims to invent new modes of heterogeneous catalysts (Catalytic Static Mixers - CSMs) to drive new and scalable chemical reactions. The expected outcome is to create catalysis technologies to broaden and sustain Australia’s chemical industries. The potential benefits are the creation of new catalysts, increased technology uptake by industry and the utilisation of critical minerals and rare earth elements in catalysts.

Hydrogels with mechanical properties for 3D in vitro cell models

This Project combines different polymer chemistries to develop hydrogels that can be made stiffer or softer on-demand, replicating physiological processes. The expected outcome is the creation of hydrogels for 3D cell culture that better mimic native tissues in different stages of their development and disease. The potential benefit is improved in vitro/non-animal models with lower attrition rates and cost in drug discovery and development of advanced therapies.

Quantifying methane emissions from wastewater treatment

This project aims to quantify methane emissions from wastewater treatment plants. The expected outcomes are improved understanding of methane emissions from within the plant, their spatial and temporal variability, and how they contribute to the total emissions. This may reduce emissions of methane.  

Repurposing & fortification of nutrient-rich waste streams

This project investigates the potential of the combined waste streams from the two industries to develop new ingredients for food applications. The expected outcome is a framework to develop products from reclaimed and fortified nutrient-rich fractions suited to their physico-chemical properties. The potential benefit is improved nutrient upcycling, reduced food waste and carbon footprint. 

Li-ion battery separator material recovery and utilisation

Sodium battery is a promising alternative for energy storage if precious metal prices for making LIB remain high. This Project will mainly focus on the recovery of LIB separator material and explore economic applications of the recovered separator materials, such as turning it into high-value hard carbon for making sodium battery anode material.

Compostable plastics

This Project aims to design and develop compostable plastics. The expected outcome is to produce new materials and compositions from sustainable sources to make plastics. This could benefit Australia to find new ways to make plastics that are sustainable and circular.