Our research

We study the cellular and molecular signals that determine whether the immune system can control disease. Our work spans cancer, chronic inflammation and infection, and it runs from fundamental discovery through to therapies entering the clinic.

Our laboratory has made significant contributions to understanding how immune cells behave inside immunosuppressive microenvironments, whether those environments are shaped by tumours, infection or chronic inflammation. We have identified the regulatory factors that hold immune responses back, and we have shown how those brakes can be released.

We take a systems immunology approach to this problem. Using single-cell and spatial technologies, high-dimensional cytometry and computational analysis, we map immune cell states across human tissue and disease. We then test the mechanisms we uncover in preclinical models. This moves us from correlation to causation, and from broad description to specific, druggable targets.

Natural killer (NK) cells remain a central interest of the laboratory and the area in which we are best known. Our current programs extend across stem cell development into tumoricidal lymphocytes, the wider innate and adaptive immune compartments, including T cells, myeloid populations and the stromal signals that shape them.

From discovery to therapy

We build new therapies from our own discoveries. Our therapeutic development programs include the engineering of chimeric antigen receptor (CAR) cell therapies, the generation and validation of novel monoclonal antibodies, and the design of rational combination immunotherapies. We take candidates through target validation, preclinical efficacy and safety testing, and manufacturing, working alongside clinicians, industry partners and commercialisation teams to move them towards first-in-human trials.

Our translational focus is deliberate. We want our science to reach patients, not stop at publication.

Our vision

We envision awakening the cure inside us: discovering how to activate and maximise immunological responses using the patient's own immune system.

Guimaraes Group

Alumni

  • Mrs Melissa Elliott: Clinical Research & Operations Manager - UQ Child Health Research Centre
  • Dr Ilan Mears: Centre Manager - UQ ARC COE for Engineered Quantum Systems
  • Ms Giaan Hull (Hons 1st Class): Research Assistant - UQ IMB
  • Ms Aneena Shajan: Research Assistant - Children’s Medical Research Institute 
  • Dr Allie Lam: Wesley Research Institute
  • Dr Tim McCulloch: University of Bonn
  • Dr Michael Lin: Walter and Eliza Hall Institute
  • Hannah Tompkins (Hons 1st class): BASE mRNA Facility
  • Maria Victorova (Hons 1st class): BASE mRNA Facility
  • Bronte Ruegg (Hons 1st class): VAXXAS
  • Dr Gustavo Rossi: Australian Red Cross - Lifeblood 

 

Our projects are multidisciplinary by necessity. We combine immunology, cancer biology, cellular and molecular biology, computational biology, pharmacology and proteomics, and we use advanced models to mimic disease, validate discoveries, define mechanisms of action and build new therapeutics. The through line is consistent: understand how immune cells are regulated, then use that knowledge to intervene.

Our current programs fall into five areas.

1. Systems immunology of immune regulation

We use single-cell transcriptomics, spatial profiling, high-dimensional cytometry and computational modelling to map how immune cells are wired in health and disease. This lets us find regulatory nodes that conventional approaches miss, and to prioritise the ones worth targeting.

2. Discovery of novel immune checkpoints

We identify and characterise new inhibitory and activating receptors that control immune cell function. We then determine how they operate at a signalling level, and whether blocking or engaging them restores anti-tumour or anti-inflammatory immunity.

3. Engineered cellular therapies

We design and build chimeric antigen receptor (CAR) therapies across both T cell and NK cell platforms, and we choose the platform to suit the disease rather than the other way around. CAR T cells offer potency and persistence. CAR NK cells offer an allogeneic, off-the-shelf route with a different safety profile. Our work covers receptor design, armouring strategies to resist the suppressive tumour microenvironment, approaches to improve persistence and trafficking, and the manufacturing and scale-up challenges that limit translation. We also develop strategies to personalise these therapies to individual patients and tumours.

Through our manufacturing infrastructure we can take an engineered cell product from initial design through preclinical validation to clinical trial-enabling production.

4. Antibody discovery and rational combination immunotherapy

We generate and validate novel monoclonal antibodies against targets emerging from our discovery work, and test them alone and in combination with existing immunotherapies. The goal is combinations built on mechanism rather than trial and error.

5. Advanced preclinical and human models

We develop models that better reflect human disease, including humanised systems, patient-derived material and organotypic culture. These serve both our own mechanistic questions and the preclinical validation required to move a candidate toward the clinic.

Opportunities for students

We host Honours, MPhil, PhD and summer research students, and we welcome enquiries from students with backgrounds in immunology, biomedical science, biotechnology, bioengineering and computational biology.

Projects are available across all five research areas above and are shaped around the student's interests and strengths. Depending on the project, you will gain skills in:

  • single-cell and spatial transcriptomics, and the computational analysis that goes with them
  • high-dimensional flow and mass cytometry
  • CRISPR-based, mRNA and lentiviral-based gene editing
  • primary human immune cell culture and functional assays
  • CAR construct design, viral and non-viral gene delivery, and engineering of both T and NK cell products
  • antibody generation, characterisation and validation
  • preclinical models of cancer and inflammatory disease

Students in our laboratory are part of a translational research environment. You will work alongside clinicians, industry partners and commercialisation teams, and you will see how a discovery becomes a therapeutic candidate. Our students present at national and international meetings and are supported to publish.

If you are interested in joining us, contact us with your CV, academic transcript and a short note on which research area interests you and why.

Funding

Our work is supported by competitive government funding, philanthropy, industry and international agencies.

Government and competitive schemes

  • Medical Research Future Fund (MRFF)
  • Australia's Economic Accelerator (AEA)
  • Queensland Government
  • Therapeutic Innovation Australia
  • Health Translation Queensland (HTQ)
  • Sanofi Translational Science Hub (TSH)

Philanthropy and disease foundations

  • Cure Cancer Australia
  • National Breast Cancer Foundation
  • Ovarian Cancer Research Foundation
  • Australian and New Zealand Sarcoma Association
  • Cooper Rice-Brading Foundation
  • Richie's Rainbow Foundation
  • Lions Medical Research Foundation
  • Children's Hospital Foundation (Queensland)
  • PA Research Foundation
  • The Tie Dye Project
  • Australia and New Zealand Sarcoma Association (ANZSA)
  • Mac Drystale

International

  • Congressionally Directed Medical Research Program (USA)
  • CAPES/PrInt Program (Brazil)
  • Erasmus+ (Europe)