Our group studies transition metal catalysts using both magneto-optical spectroscopy and magnetic resonance techniques.

About

Our group studies transition metal catalysts using both magneto-optical spectroscopy and magnetic resonance techniques. These methods can be used to monitor: oxidation states, transients/intermediates, the binding of substrates as well as product formation and release, providing important complementary information to static spectroscopic and diffraction methods.

A key motivation of our research is to understand how biological systems use earth abundant metals including manganese to perform the difficult oxidative/reductive chemistry of small molecules such as water and oxygen. We are developing new methods to study these systems that are in principle transferable to metal oxide materials, which should in the future allow molecular level characterization of heterogeneous catalysis interfaced with electrodes.

Projects

Developing next-generation EPR and magnetic resonance methods, including in situ spectroelectrochemistry, transient EPR, and MCD spectroscopy, to reveal chemistry as it happens.

Theme

Catalysis, Inorganic Chemistry and Organometallic Chemistry, Physical and Biophysical Chemistry

Student intake

Open for Bachelor, Honours, Master students

Status

Potential

This project will magnetically label proteins for new electron paramagnetic resonance (EPR) experiments to study a protein’s structure and dynamics at low concentrations and in-cell, and then compute informative models from the measured EPR distances.

Theme

Physical and Biophysical Chemistry

Student intake

Open for Bachelor, Honours, Master students

Status

Potential

Developing next-generation EPR methods, especially 19F ENDOR, to reveal how proteins move, interact, and recognise drug molecules, using Australia's only high-field EPR facility.

Theme

Physical and Biophysical Chemistry

Student intake

Open for Bachelor, Honours, Master students

Status

Potential

Photosynthesis sustains almost all life on Earth, yet many of its molecular mechanisms remain unresolved. Students will use advanced spectroscopy to investigate photosynthetic proteins and pigments.

Theme

Energy, Environment and Green Chemistry, Physical and Biophysical Chemistry

Student intake

Open for Bachelor, Honours, Master students

Status

Potential

Conventional quantum computers require large coupled-qubit systems. Molecular qudits offer an alternative: encoding information in the many quantum states of a single molecule, using advanced EPR spectroscopy for quantum logic operations.

Theme

Functional Materials and Interfaces, Physical and Biophysical Chemistry

Student intake

Open for Bachelor, Honours, Master students

Status

Current

Members

Leader

Prof. Nick Cox

Professor

Researcher

Postdoctoral Fellow

News

Scientists have cracked a key step in nature's water-splitting recipe, which powers all plant life on Earth and may be harnessed to make a limitless supply of cheap renewable fuel.

Read the article