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Professor Denise Doolan
Professor

Denise Doolan

Email: 
Phone: 
+61 7 334 62159

Overview

Background

Professor Denise Doolan is Director of Research at the Institute for Molecular Bioscience. She joined IMB in 2022 and was previously Deputy Director of the Australian Institute of Tropical Health and Medicine, and Director of the JCU Centre for Molecular Therapeutics, at James Cook University.

She is a molecular immunologist, working on the development of vaccines, diagnostics and host-directed therapeutics for infectious and chronic diseases that impact global public health, with a particular focus on malaria. Her cross-disciplinary research program spans host-pathogen immunity, antigen discovery, vaccine engineering, and biomarker discovery. A particular interest is the application of state-of-the-art genome-based technologies and human models of disease system to identify novel targets for intervention against disease or that predict risk of disease.

She is a recognized world expert in malaria immunology, vaccinology, and omic-based approaches for therapeutic and diagnostic development. She has been honoured as a Fellow of the International Society for Vaccines (2017) and a Fellow of the Australian Society of Parasitology (2019) in recognition of her leadership and contribution to health and medical science in Australia and internationally.

Professor Doolan serves on a number of Executive Boards and Advisory Boards. Most recently, she has been elected as President of the International Society for Vaccines (2021-2023), and has been appointed to the Federal Government’s Australian Medical Research Advisory Board (AMRAB; 2021-2026) to provide specialist insights into Australia’s medical research and innovation priorities.

Availability

Professor Denise Doolan is:
Available for supervision

Fields of research

Qualifications

  • Bachelor of Science, The University of Queensland
  • B Sc Hons (Biochemistry), The University of Queensland
  • M Phil (Life Sciences), Griffith University
  • PhD (Molecular Immunology), The University of Queensland

Works

Search Professor Denise Doolan’s works on UQ eSpace

219 works between 1987 and 2024

81 - 100 of 219 works

2016

Journal Article

Systematic evaluation of self-adjuvanting lipopeptide nano-vaccine platforms for the induction of potent CD8+ T-cell responses

Apte, Simon H., Stephenson, Rachel J., Simerska, Pavla, Groves, Penny L., Aljohani, Salwa, Eskandari, Sharareh, Toth, Istvan and Doolan, Denise L. (2016). Systematic evaluation of self-adjuvanting lipopeptide nano-vaccine platforms for the induction of potent CD8+ T-cell responses. Nanomedicine, 11 (2), 137-152. doi: 10.2217/nnm.15.184

Systematic evaluation of self-adjuvanting lipopeptide nano-vaccine platforms for the induction of potent CD8+ T-cell responses

2015

Journal Article

Large screen approaches to identify novel malaria vaccine candidates

Davies, D Huw, Duffy, Patrick, Bodmer, Jean-Luc, Felgner, Philip L. and Doolan, Denise L. (2015). Large screen approaches to identify novel malaria vaccine candidates. Vaccine, 33 (52), 7496-7505. doi: 10.1016/j.vaccine.2015.09.059

Large screen approaches to identify novel malaria vaccine candidates

2015

Journal Article

Synthesis and characterisation of self-assembled and self-adjuvanting asymmetric multi-epitope lipopeptides of ovalbumin

Eskandari, Sharareh, Stephenson, Rachel J., Fuaad, Abdullah Ahmad, Apte, Simon H., Doolan, Denise L. and Toth, Istvan (2015). Synthesis and characterisation of self-assembled and self-adjuvanting asymmetric multi-epitope lipopeptides of ovalbumin. Chemistry - A European Journal, 21 (3), 1251-1261. doi: 10.1002/chem.201404997

Synthesis and characterisation of self-assembled and self-adjuvanting asymmetric multi-epitope lipopeptides of ovalbumin

2015

Journal Article

Development of a cytokine-secreting-based assay for the identification, sorting and transcriptomic analysis of polyfunctional human T cells

Burel, Julie G., Apte, Simon H. and Doolan, Denise L. (2015). Development of a cytokine-secreting-based assay for the identification, sorting and transcriptomic analysis of polyfunctional human T cells. European Cytokine Network, 26 (4), 67-72. doi: 10.1684/ecn.2015.0369

Development of a cytokine-secreting-based assay for the identification, sorting and transcriptomic analysis of polyfunctional human T cells

2015

Journal Article

Of monkeys and men: immunomic profiling of sera from humans and non-human primates resistant to schistosomiasis reveals novel potential vaccine candidates

Pearson, Mark S, Becker, Luke, Driguez, Patrick, Young, Neil D, Gaze, Soraya, Mendes, Tiago, Li, Xiao-Hong, Doolan, Denise L, Midzi, Nicholas, Mduluza, Takafira, McManus, Donald P, Wilson, R Alan, Bethony, Jeffrey M, Nausch, Norman, Mutapi, Francisca, Felgner, Philip L and Loukas, Alex (2015). Of monkeys and men: immunomic profiling of sera from humans and non-human primates resistant to schistosomiasis reveals novel potential vaccine candidates. Frontiers in immunology, 6 (MAY) 213, 1-13. doi: 10.3389/fimmu.2015.00213

Of monkeys and men: immunomic profiling of sera from humans and non-human primates resistant to schistosomiasis reveals novel potential vaccine candidates

2015

Journal Article

Probing of a human proteome microarray with a recombinant pathogen protein reveals a novel mechanism by which hookworms suppress B-cell receptor signaling

Tribolet, Leon, Cantacessi, Cinzia, Pickering, Darren A., Navarro, Severine, Doolan, Denise L., Trieu, Angela, Fei, Huang, Chao, Yang, Hofmann, Andreas, Gasser, Robin B., Giacomin, Paul R. and Loukas, Alex (2015). Probing of a human proteome microarray with a recombinant pathogen protein reveals a novel mechanism by which hookworms suppress B-cell receptor signaling. The Journal of Infectious Diseases, 211 (3), 416-425. doi: 10.1093/infdis/jiu451

Probing of a human proteome microarray with a recombinant pathogen protein reveals a novel mechanism by which hookworms suppress B-cell receptor signaling

2015

Journal Article

The case for a rational genome-based vaccine against malaria

Proietti, Carla and Doolan, Denise L. (2015). The case for a rational genome-based vaccine against malaria. Frontiers in Microbiology, 5 (DEC) 741, 1-19. doi: 10.3389/fmicb.2014.00741

The case for a rational genome-based vaccine against malaria

2015

Journal Article

Synthesis and characterisation of self-assembled and self-adjuvanting asymmetric multi-epitope lipopeptides of ovalbumin

Eskandari, Sharareh, Stephenson, Rachel J., Fuaad, Abdullah Ahmad, Apte, Simon H., Doolan, Denise L. and Toth, Istvan (2015). Synthesis and characterisation of self-assembled and self-adjuvanting asymmetric multi-epitope lipopeptides of ovalbumin. Chemistry: A European Journal, 21 (3), 1251-1261. doi: 10.1002/chem.201404997

Synthesis and characterisation of self-assembled and self-adjuvanting asymmetric multi-epitope lipopeptides of ovalbumin

2015

Journal Article

Antibody signatures reflect different disease pathologies in schistosomiasis japonica

Driguez, Patrick, Li, Yuesheng, Gaze, Soraya, Pearson, Mark S., Nakajima, Rie, Trieu, Angela, Doolan, Denise L., Felgner, Philip L., Hou, Xunya, Cardoso, Fernanda C., Jasinskas, Algis, Gobert, Geoffrey, Loukas, Alexander C. and McManus, Donald P. (2015). Antibody signatures reflect different disease pathologies in schistosomiasis japonica. Journal of Infectious Diseases, 213 (1), 122-130. doi: 10.1093/infdis/jiv356

Antibody signatures reflect different disease pathologies in schistosomiasis japonica

2015

Book Chapter

Protein microarrays for parasite antigen discovery

Driguez, Patrick, Doolan, Denise L., Molina, Douglas M., Loukas, Alex, Trieu, Angela, Felgner, Phil L. and McManus, Donald P. (2015). Protein microarrays for parasite antigen discovery. Parasite genomics protocols . (pp. 221-33) edited by Christopher Peacock. Cham, Switzerland: Springer. doi: 10.1007/978-1-4939-1438-8_13

Protein microarrays for parasite antigen discovery

2015

Journal Article

Specific humoral response of hosts with variable schistosomiasis susceptibility

Driguez, Patrick, McWilliam, Hamish E. G., Gaze, Soraya, Piedrafita, David, Pearson, Mark S., Nakajima, Rie, Duke, Mary, Trieu, Angela, Doolan, Denise L., Cardoso, Fernanda C., Jasinskas, Algis, Gobert, Geoffrey N., Felgner, Philip L., Loukas, Alex, Meeusen, Els and McManus, Donald P. (2015). Specific humoral response of hosts with variable schistosomiasis susceptibility. Immunology and Cell Biology, 94 (1), 52-65. doi: 10.1038/icb.2015.61

Specific humoral response of hosts with variable schistosomiasis susceptibility

2014

Journal Article

An immunomics approach to schistosome antigen discovery: antibody signatures of naturally resistant and chronically infected individuals from endemic areas

Gaze, Soraya, Driguez, Patrick, Pearson, Mark S., Mendes, Tiago, Doolan, Denise L., Trieu, Angela, McManus, Donald P., Gobert, Geoffrey N., Periago, Maria Victoria, Correa Oliveira, Rodrigo, Cardoso, Fernanda C., Oliveira, Guilherme, Nakajima, Rie, Jasinskas, Al, Hung, Chris, Liang, Li, Pablo, Jozelyn, Bethony, Jeffrey M., Felgner, Philip L. and Loukas, Alex (2014). An immunomics approach to schistosome antigen discovery: antibody signatures of naturally resistant and chronically infected individuals from endemic areas. PLoS Pathogens, 10 (3) e1004033, e1004033.1-e1004033.16. doi: 10.1371/journal.ppat.1004033

An immunomics approach to schistosome antigen discovery: antibody signatures of naturally resistant and chronically infected individuals from endemic areas

2014

Journal Article

Genome- and proteome-wide screening strategies for antigen discovery and immunogen design

Schussek, Sophie, Trieu, Angela and Doolan, Denise L. (2014). Genome- and proteome-wide screening strategies for antigen discovery and immunogen design. Biotechnology Advances, 32 (2), 403-414. doi: 10.1016/j.biotechadv.2013.12.006

Genome- and proteome-wide screening strategies for antigen discovery and immunogen design

2014

Journal Article

Genome-based vaccine design: The promise for malaria and other infectious diseases

Doolan, Denise L., Apte, Simon H. and Proietti, Carla (2014). Genome-based vaccine design: The promise for malaria and other infectious diseases. International Journal for Parasitology, 44 (12), 901-913. doi: 10.1016/j.ijpara.2014.07.010

Genome-based vaccine design: The promise for malaria and other infectious diseases

2013

Journal Article

Correction: a novel candidate vaccine for Cytauxzoonosis inferred from comparative apicomplexan genomics

Tarigo, Jaime L., Scholl, Elizabeth H., Bird, David McK., Brown, Corrie C., Cohn, Leah A., Dean, Gregg A., Levy, Michael G., Doolan, Denise L., Trieu, Angela, Nordone, Shila K., Felgner, Philip L., Vigil, Adam and Birkenheuer, Adam J. (2013). Correction: a novel candidate vaccine for Cytauxzoonosis inferred from comparative apicomplexan genomics. PLoS One, 8 (10) e71233, 1-9. doi: 10.1371/annotation/943b121e-343b-4df1-a06b-7f8a205a057d

Correction: a novel candidate vaccine for Cytauxzoonosis inferred from comparative apicomplexan genomics

2013

Journal Article

Subcutaneous cholera toxin exposure induces potent CD103+ dermal dendritic cell activation and migration

Apte, Simon H., Redmond, Andrew M., Groves, Penny L., Schussek, Sophie, Pattinson, David J. and Doolan, Denise L. (2013). Subcutaneous cholera toxin exposure induces potent CD103+ dermal dendritic cell activation and migration. European Journal of Immunology, 43 (10), 2707-2717. doi: 10.1002/eji.201343475

Subcutaneous cholera toxin exposure induces potent CD103+ dermal dendritic cell activation and migration

2013

Journal Article

Highly sensitive quantitative real-time PCR for the detection of Plasmodium liver-stage parasite burden following low-dose sporozoite challenge

Schussek, Sophie, Groves, Penny L., Apte, Simon H. and Doolan, Denise L. (2013). Highly sensitive quantitative real-time PCR for the detection of Plasmodium liver-stage parasite burden following low-dose sporozoite challenge. PLoS One, 8 (10) e77811, e77811.1-e77811.10. doi: 10.1371/journal.pone.0077811

Highly sensitive quantitative real-time PCR for the detection of Plasmodium liver-stage parasite burden following low-dose sporozoite challenge

2013

Journal Article

Immunization with apical membrane antigen 1 confers sterile infection-blocking immunity against Plasmodium sporozoite challenge in a rodent model

Schussek, Sophie, Trieu, Angela, Apte, Simon H., Sidney, John, Sette, Alessandro and Doolan, Denise L. (2013). Immunization with apical membrane antigen 1 confers sterile infection-blocking immunity against Plasmodium sporozoite challenge in a rodent model. Infection and Immunity, 81 (10), 3586-3599. doi: 10.1128/IAI.00544-13

Immunization with apical membrane antigen 1 confers sterile infection-blocking immunity against Plasmodium sporozoite challenge in a rodent model

2013

Journal Article

A novel candidate vaccine for Cytauxzoonosis inferred from comparative apicomplexan genomics

Tarigo, Jaime L., Scholl, Elizabeth H., Bird, David McK, Brown, Corrie C., Cohn, Leah A., Dean, Gregg A., Levy, Michael G., Doolan, Denise L., Trieu, Angela, Nordone, Shila K., Felgner, Philip L., Vigil, Adam and Birkenheuer, Adam J. (2013). A novel candidate vaccine for Cytauxzoonosis inferred from comparative apicomplexan genomics. PLoS One, 8 (8) e71233, 1-9. doi: 10.1371/journal.pone.0071233

A novel candidate vaccine for Cytauxzoonosis inferred from comparative apicomplexan genomics

2013

Journal Article

Identification of minimal human MHC-restricted CD8+ T-cell epitopes within the Plasmodium falciparum circumsporozoite protein (CSP)

Sedegah, Martha, Kim, Yohan, Ganeshan, Harini, Huang, Jun, Belmonte, Maria, Abot, Esteban, Banania, Jo Glenna, Farooq, Fouzia, McGrath, Shannon, Peters, Bjoern, Sette, Alessandro, Soisson, Lorraine, Diggs, Carter, Doolan, Denise L, Tamminga, Cindy, Villasante, Eileen, Hollingdale, Michael R and Richie, Thomas L. (2013). Identification of minimal human MHC-restricted CD8+ T-cell epitopes within the Plasmodium falciparum circumsporozoite protein (CSP). Malaria Journal, 12 (1) 185. doi: 10.1186/1475-2875-12-185

Identification of minimal human MHC-restricted CD8+ T-cell epitopes within the Plasmodium falciparum circumsporozoite protein (CSP)

Funding

Current funding

  • 2024 - 2025
    Development of a multi-antigen T-cell malaria vaccine
    James Cook University
    Open grant
  • 2024 - 2026
    Effective Multiple Sclerosis diagnosis based on EBV proteome screening
    MS Research Australia Project Grant
    Open grant
  • 2023 - 2025
    Human-informed data-driven development of next-generation T cell vaccine against malaria
    United States National Institutes of Health
    Open grant

Past funding

  • 2013 - 2017
    Tropical disease - immunity, pathogenesis and vaccine development: global translation (NHMRC Program Grant administered by Griffith University)
    Griffith University
    Open grant
  • 2012 - 2014
    ResTeach Funding 2012 0.1 FTE School of Medicine/School of Chemisty and Molecular Biosciences
    UQ ResTeach
    Open grant

Supervision

Availability

Professor Denise Doolan is:
Available for supervision

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Available projects

  • UNDERSTANDING THE LINK BETWEEN EBV AND MULTIPLE SCLEROSIS

    An opportunity exists for a PhD position in molecular immunology, where cutting-edge technologies will be applied to understand the molecular basis of the link between EBV and Multiple Sclerosis. Epstein-Barr virus (EBV) is the top identified causative agent of Multiple Sclerosis, but how this occurs is not known. This project aims to apply an innovative approach using proteome-wide screening of EBV to identify the subset of EBV proteins from the complete EBV proteome that triggers MS. It will compare responses in individuals with different stages of MS and apply sophisticated computational analytics to identify specific EBV proteins that predict MS disease. This EBV signature of MS could be translated into a clinic-friendly point-of-care test. If successful, this project could revolutionize the diagnosis and management of MS, providing patients with a quicker and more accurate diagnosis and enhanced quality of life.

    Subject areas: Immunology, Molecular immunology, Systems biology, Multiple Sclerosis, Autoimmunity, EBV

    Eligibility: Entry: Bachelor degree with Honours Class I (or equivalent via outstanding record of professional or research achievements) Experience/Background: laboratory-based experience in immunology, host-pathogen interactions, immune regulation and infectious diseases; excellent computer, communication, and organisational skills are required.

    Supervisors:

    Professor Denise Doolan & Dr Carla Proietti

  • MOLECULAR IMMUNOLOGY OF MALARIA

    An opportunity exists for a PhD position in the molecular immunology of malaria. The focus of this project will be to apply cutting-edge technologies to understand the molecular basis of protective immunity to malaria. It will take advantage of controlled human infection models and as well as animal models to explore the mechanisms underlying protective immunity to malaria and immune responsiveness. Using a range of interdisciplinary approaches, including immune profiling, transcriptomics, proteomics, and small molecule characterization, the project aims to define the critical cells and signalling pathways required for protective immunity against malaria. It is anticipated that this research will have broad application to a wide range of infectious and chronic diseases, with important implications for vaccination.

    Subject areas: Immunology, Molecular immunology, Systems biology, Vaccinology, Malaria

    Eligibility: Entry: Bachelor degree with Honours Class I (or equivalent via outstanding record of professional or research achievements) Experience/Background: laboratory-based experience in immunology, host-pathogen interactions, immune regulation and infectious diseases; excellent computer, communication, and organisational skills are required.

    Supervisors:

    Professor Denise Doolan (IMB) & Dr Carla Proietti (IMB)

  • VACCINE ENGINEERING

    An opportunity exists for a PhD position in vaccine engineering. Vaccines are one of the most effective health care interventions but remain a challenge for many diseases, and in particular intracellular pathogens such as malaria where T cell responses are particularly desirable. We have been exploring novel approaches to rationally design an effective vaccine against challenging disease targets. By taking advantage of recent advances in genomic sequencing, proteomics, transcriptional profiling, and molecular immunology, we have discovered unique targets of T cell responses or antibody response. This project will test these antigens as vaccine candidates by assessing immunogenicity, protective capacity and biological function using different vaccine platforms. By designing an effective vaccine from genomic data, this project is expected to result in significance advances in vaccinology as well as immunology, with important public health outcomes.

    Subject areas: Immunology, Vaccinology, Molecular immunology, Malaria, Vaccine engineering, Vaccine design

    Eligibility: Entry: Bachelor degree with Honours Class I (or equivalent via outstanding record of professional or research achievements) Experience/Background: laboratory-based experience in immunology, host-pathogen interactions, immune regulation and infectious diseases; excellent computer, communication, and organisational skills are required.

    Supervisor:

    Professor Denise Doolan (IMB) & Professor Carla Proietti (IMB)

  • SYSTEMS IMMUNOLOGY AND MULTI-OMICS APPROACHES TO UNDERSTAND PROTECTIVE IMMUNITY TO HUMAN MALARIA

    This PhD project aims to develop and apply computational approaches that integrate systems biology and molecular immunology to understand host-pathogen immunity and predict immune control of malaria. The project will utilise systems-based immunology and multi-omics approaches to profile the host immune response in controlled infection models of malaria at molecular, cellular, transcriptome and proteome-wide scale.

    The overall aim will be to develop and apply omics-based technologies and computational tools, including network theory and machine learning, to integrate multiple high-dimensional datasets and reveal novel insights into host-pathogen immunity and predict immune responsiveness and parasite control. Modelling of large-scale existing datasets, including those generated by single-cell RNA-sequencing technologies, may also be a feature of this project. The opportunity to identify new knowledge and integrate this with experimental data produced by our laboratory will be instrumental to extending the impact of these bioinformatics analyses. This project will provide an opportunity to be at the forefront in cutting-edge technologies and advances in computational analysis of integrated high-dimensional omic data.

    Methodologies: Bioinformatics, Machine Learning, Immunology, Systems Immunology, Systems Biology, Genomics/Proteomics/Transcriptomics, Molecular and Cell Biology, Statistics

    Eligibility: Entry: BSc Honours Class I (or equivalent via outstanding record of professional or research achievements) Experience/Background: Experience with programming languages, mathematics, statistics and/or background in immunology and molecular sciences, with an interest in integrating the fields of immunology and bioinformatics.

    Excellent computer, communication, and organisational skills are required. Forward thinking, innovation and creativity are encouraged.

    Supervisors:

    Professor Denise Doolan (IMB) & Dr Carla Proietti (IMB)

    Associate Professor Jessica Mar (AIBN)

Supervision history

Current supervision

  • Doctor Philosophy

    Understanding the Molecular Basis of Immune Heterogeneity using Systems Immunology

    Principal Advisor

  • Doctor Philosophy

    Systems immunology and multi-omics approaches to understand protective immunity to human malaria

    Principal Advisor

Completed supervision

Media

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