The Investigating Host-Guest Interactions in Metal-Organic Frameworks (MOFs) PhD Scholarship is a fully funded Higher Degree Research (HDR) scholarship offered by the University of New South Wales (UNSW Sydney), Australia. The project is hosted by the School of Chemistry and led by the Macreadie Research Group, which specializes in inorganic and supramolecular chemistry. The scholarship supports doctoral research that explores host-guest interactions within metal-organic frameworks (MOFs) and examines how these interactions influence the structural and functional properties of porous materials. Moreover, the project advances the development of innovative materials for energy, environmental, and industrial applications.

Background and Purpose

The project aims to achieve sub-angstrom control over the pore environments of metal-organic frameworks by combining inorganic chemistry with supramolecular chemistry. Researchers investigate how different guest molecules interact with MOFs and how these interactions affect gas capture, gas storage, molecular separation, and catalytic performance. Furthermore, the project examines how MOF structures respond to changes in temperature and pressure while evaluating the catalytic behavior of newly developed framework materials. A major research focus involves developing three-dimensional linker metal-organic frameworks (3DL-MOFs), which provide more host-guest interaction sites than conventional MOFs and deliver enhanced functionality. As a result, the research supports the design of advanced porous materials with improved performance across a range of scientific and industrial applications.

Investigating Host-Guest Interactions in Metal-Organic Frameworks PhD Scholarship Benefits

The scholarship provides a living stipend of AUD 37,684 per annum based on the 2024 rate for up to 3.5 years. In addition, eligible international applicants receive a Tuition Fee Scholarship. Two scholarships are available for this project. Scholars also receive advanced training in single-crystal X-ray diffraction, powder X-ray diffraction, organic and inorganic synthesis, gas and vapor adsorption techniques, crystallography, and advanced structural characterization. Furthermore, students conduct research at the Australian Synchrotron and collaborate with international research teams from Australia, New Zealand, the United States, and the United Kingdom. Consequently, recipients gain world-class research experience and valuable international collaboration opportunities.

Eligibility Criteria

Applicants must satisfy the admission requirements for a PhD at UNSW and demonstrate excellent academic achievement and strong research potential. Both domestic and international applicants are eligible to apply. Furthermore, applicants should have a strong academic background in chemistry, particularly inorganic coordination chemistry, organic synthesis, and nuclear magnetic resonance (NMR) interpretation. Previous laboratory research experience in these areas will strengthen an application.

Investigating Host-Guest Interactions in Metal-Organic Frameworks PhD Scholarship Application Process

Applicants should contact the project supervisor before submitting a Higher Degree Research application to UNSW. They must provide all required academic documents and demonstrate how their qualifications, laboratory experience, and research interests align with the project’s objectives. After receiving a positive response, applicants should complete the university’s PhD admission process. Therefore, early communication with the supervisor and careful preparation of the application can improve the likelihood of selection.

Opportunities for Scholars

The scholarship provides an outstanding opportunity to conduct internationally recognized research in inorganic chemistry, supramolecular chemistry, and advanced materials science. Moreover, scholars collaborate with leading researchers while developing expertise in MOF synthesis, crystallography, synchrotron characterization, and gas adsorption analysis. Their research contributes to advances in gas storage, molecular separation, catalysis, and sustainable materials development. Consequently, graduates are well prepared for careers in academia, chemical research, advanced materials, clean energy, environmental technologies, and high-technology industries.