Bailey Laboratory

We investigate how genetic diseases and cancers develop at the molecular level.

The Bailey Laboratory uses multidisciplinary approaches to understand what drives diseases at the molecular level. Our research incorporates molecular and cellular biology, biochemistry, genetics, proteomics, immunology and bioinformatics, giving us a comprehensive toolkit to investigate how diseases begin and progress.

We study key genes that normally protect cells from becoming cancerous, as well as the major regulators that control how genes are switched on and off. By examining how these systems break down—through harmful mutations or disrupted gene activity—we can uncover the root causes of disease. Using advanced “multi‑omics” technologies, we’re able to map the full biological picture rather than looking at just one layer at a time.

We’re also working to improve adeno‑associated virus (AAV) gene therapies for rare diseases by focusing on how these therapies are taken up in the human body. Recently, we discovered a previously unknown receptor on human cells, called AAVR2, which acts as a new entry point for AAV. This breakthrough could lead to safer, more effective gene therapies for conditions such as Duchenne muscular dystrophy, Pompe disease and haemophilia.

 

ALL PUBLICATIONS

People

  • Dr Mehdi Sharifi Tabar

    Research Officer

  • Dr Chirag Parsania

    Research Officer

  • Cynthia Metierre

    Research Officer

  • Rajini Nagarajah

    Senior Research Assistant

  • Veona Cutinho

    PhD student

  • Seral Ye

    PhD student

  • Damian Nguyen

    SOMS Honours student

  • Joey Wu

    SOMS Honours student

  • Mengyang Yu

    SOMS Honours student

  • Chelsea Leung

    Biomedical Engineering thesis student

  • Daffine Putri

    Biomedical Engineering thesis student

Student opportunities

The Bailey Laboratory is committed to developing and training the next generation of early career researchers. Multidisciplinary projects are currently available for prospective PhD, MPhil, Masters and honours students.

To learn more about current opportunities, please contact Associate Professor Chuck Bailey.

Targeting Neuroinflammation with Novel Epigenetic Drugs

Projects: Honours, Masters & PhD

Project details

Primary Supervisor: Dr Mehdi Sharifi Tabar
Supervisory Team: Dr Chuck Bailey
Centre: Rare Diseases & Gene Therapy

Central nervous system-related autoimmune diseases, such as Aicardi-Goutières syndrome, and systemic conditions like Sjögren’s syndrome and systemic lupus erythematosus, are driven by the persistent overactivation of interferon-stimulated genes (ISGs). This persistent ISG activity causes inflammation and can lead to brain tissue damage. Currently, there are no effective treatments, highlighting an urgent need for innovative therapies. Our recent research has identified TRIP (Transcriptional Regulator of the Interferon Pathway) as a key epigenetic regulator of neuroinflammatory ISG expression, making it a highly promising therapeutic target for these diseases.

In this project, using a multidisciplinary approach, combining molecular, cellular, biochemical, and genetic experiments, we aim to examine two new immunoregulatory drugs that selectively target TRIP mRNA and protein to suppress neuroinflammatory ISGs.

* For intellectual property reasons, we have named the gene TRIP

Defining novel cellular entry pathways that enhance AAV gene therapy efficiency

Projects:  PhD, Masters, Honours

Project details

Primary Supervisor: Dr Chuck Bailey
Supervisory Team: Dr Chuck Bailey
Centre: Rare Diseases & Gene Therapy

Adeno-associated virus (AAV) vectors have revolutionised the treatment of genetic disease due to their tissue tropism and safety profile. However, the wider adoption of AAV vectors, currently used in 8 approved therapies, is limited by dose-related toxicities. We recently identified a new AAV receptor, called AAVR2, which mediates cellular entry of clinically important gene therapy vectors (published in Cell, 2025). Our advanced proteomics studies have identified cellular factors that regulate AAVR2 (and AAVR) trafficking, and hence AAV uptake. Molecular, cellular, proteomic and single molecule tracking techniques will be used to examine AAV uptake and localisation during the modulation of these factors. Outcomes include defining novel pathways and compounds that can enhance AAV uptake.

Techniques: DNA cloning, cell culture, Western blotting, CRISPR/Cas9, AAV transductions, co-immunoprecipitation, BioID, mass spectrometry, flow cytometry, confocal microscopy, super-resolution microscopy, animal models.

Functional characterisation of drivers of 3D growth in cancer

Projects: PhD, Masters, Honours

Project details

Primary Supervisor: Dr Chuck Bailey
Supervisory Team: Dr Chuck Bailey
Centre: Rare Diseases & Gene Therapy

Carboxypeptidase D (CPD) has been identified from genetic screens of actionable cancer vulnerabilities to be essential for the 3D spheroid growth of lung cancer. However, the exact mechanism by which CPD contributes to 3D tumour growth is poorly understood. Using two unique gene knockout mouse models, this project will examine the role of CPD in normal mouse development, as well as malignant cell growth. Specific reagents will be used that detect defects in IGF1R and nitric oxide signaling, angiogenesis and formation of lymphatic vasculature. Integrated transcriptomic and proteomic analysis of specific tissues will be used to map the defects in organogenesis and 3D tumour growth due to CPD loss.

Techniques: Molecular and cellular biology, extraction of organs and tissue, qRT-PCR, genotyping, Western blotting, cell culture, 3D spheroid culture, lentiviral vector transduction, flow cytometry, immunofluorescence, confocal microscopy, RNAseq and mass spectrometry, animal models, bioinformatics.

Characterising alternative splicing dysregulation in ectodermal dysplasia

Projects: PhD, Masters, Honours

Project details

Primary Supervisor: Dr Chuck Bailey
Supervisory Team: Dr Chuck Bailey
Centre: Rare Diseases & Gene Therapy

Alternative splicing of genes generates multiple protein isoforms each with potentially different biological functions. We have uncovered a new evolutionarily-conserved mechanism by which functional protein diversity is conferred by an RNA binding protein (RBP) mediating ‘switching’ at tandem splice sites. Mice deficient for this RBP are embryonic lethal with severe morphological defects during embryogenesis. Small in-frame protein variations, we refer to as ‘molecular micro-switches’, occur in ~20% of events. These micro-switches occur in the functional domains of many developmentally important proteins. This project will examine the biochemical and structural bases for a key micro-switch which is disrupted in the rare disease ectodermal dysplasia. This project can be configured for a wet-lab project or for bioinformatics analysis only. 

Techniques: DNA cloning, cell culture, Western blotting, CRISPR/Cas9, proteomics, flow cytometry, animal models, recombinant protein production, bioinformatics.