Dr Hana Starobova

Research Fellow

Institute for Molecular Bioscience

Overview

Hana Starobova is an early career research fellow at the Sensory Neuropharmacology Group at the University of Queensland (UQ). Her research focuses on the understanding of cancer therapy-induced side effects and the development of mechanism-based prevention strategies.

Hana’s long-term goal is to become a leading scientist conducting transformative science with translational potential and to create a research program bringing together researchers, industry, clinicians, and physiotherapists, who will work together towards innovative mechanism-based treatment strategies to improve the outcomes and the long-term impacts for cancer patients. This multidisciplinary collaborative research program will focus on preventing or treating cancer therapy induced-side effects in cancer patients with the long-term view to improve treatment outcomes and quality-of-life.

Hana was the first to discover that the Nod-like receptor 3 (NLRP3) activation and release of interleukin one beta drives the development of vincristine-induced peripheral neuropathy and the inhibition of those pathways effectively prevents the development of this debilitating side effect (JEM, 2021). Hana is an internationally recognised expert, and she has extensive experience in pharmacology, innate immunology, transcriptomics, peripheral pain mechanisms, rodent behavioural studies, target identification, development of new in vivo models and in vitro techniques and high throughput imaging. Moreover, her expertise includes the isolation and state of the art imaging of neuronal tissues. The quality of her research is evidenced by her track record, that is extraordinary for an early career researcher (PhD award July 2020), with a total of 18 publications (all Q1 journals) in the last 5 years which have attracted more than 1000 citations.

Hana has also been trained within the Homeward Bound Projects program (HB4, 2019-2020) to gain exceptional skills in leadership, supervision of younger generations, and the management of projects influencing policy and decision-making.

Research Interests

  • Development of mechanism based treatments of cancer therapy induced side effects
  • NLRP3 Inflammasome and Immunology
  • In vivo preclinical models
  • High-throughput Fluorescence Imaging

Qualifications

  • Doctor of Philosophy, The University of Queensland

Publications

View all Publications

Supervision

  • Doctor Philosophy

  • Doctor Philosophy

  • Doctor Philosophy

View all Supervision

Available Projects

  • Project available from January 2024

    Macrophages are innate immune cells that are crucial for initiating immune response. Macrophage activation is implicated in driving many painful pathological stages, including neuropathy and inflammatory pain. Potassium channels, such as Kv1.3, regulate cell potassium homeostasis, and any dysregulation in intracellular potassium can lead to macrophage activation and resultant cytokine and chemokine release, driving pathogenesis of pain. This project will investigate the effects of specific potassium channel-targeting toxins on macrophage activation using electrophysiology techniques, live cell fluorescent microscopy, and in vivo rodent behavioural studies.

    Supervisors: Prof Irina Vetter, Dr Hana Starobova

    Animal handling and behavioural assessments in rodents are vital for this project.

  • Project available from January 2024

    Treatments such as radiotherapy and chemotherapy for childhood and adult brain cancers save many lives. However, they also cause long-term debilitating adverse effects, also termed "late effects", such as pain, cognitive disabilities and sensory-motor neuropathies. Currently, no effective treatments are available, and brain cancer survivors are forced to live with long-term disabilities.

    Animal models are important for the understanding of disease pathology and for preclinical testing of novel treatment strategies. However, currently there are no appropriate animal models available for the testing of late effects of cancer therapy.

    To address this gap, this PhD project aims to develop in-vivo animal models of cancer therapy-induced late effects and to test the efficacy of novel treatment strategies. This project forms a foundation for future clinical studies.

    Project will be performed in collaboration with Prof. Irina Vetter (IMB) and A/Prof. Raelene Endersby (Telethon Kids Institute).

    Animal handling and behavioral assessments in rodents are vital for this project.

View all Available Projects

Publications

Journal Article

Conference Publication

Other Outputs

Grants (Administered at UQ)

PhD and MPhil Supervision

Current Supervision

Possible Research Projects

Note for students: The possible research projects listed on this page may not be comprehensive or up to date. Always feel free to contact the staff for more information, and also with your own research ideas.

  • Project available from January 2024

    Macrophages are innate immune cells that are crucial for initiating immune response. Macrophage activation is implicated in driving many painful pathological stages, including neuropathy and inflammatory pain. Potassium channels, such as Kv1.3, regulate cell potassium homeostasis, and any dysregulation in intracellular potassium can lead to macrophage activation and resultant cytokine and chemokine release, driving pathogenesis of pain. This project will investigate the effects of specific potassium channel-targeting toxins on macrophage activation using electrophysiology techniques, live cell fluorescent microscopy, and in vivo rodent behavioural studies.

    Supervisors: Prof Irina Vetter, Dr Hana Starobova

    Animal handling and behavioural assessments in rodents are vital for this project.

  • Project available from January 2024

    Treatments such as radiotherapy and chemotherapy for childhood and adult brain cancers save many lives. However, they also cause long-term debilitating adverse effects, also termed "late effects", such as pain, cognitive disabilities and sensory-motor neuropathies. Currently, no effective treatments are available, and brain cancer survivors are forced to live with long-term disabilities.

    Animal models are important for the understanding of disease pathology and for preclinical testing of novel treatment strategies. However, currently there are no appropriate animal models available for the testing of late effects of cancer therapy.

    To address this gap, this PhD project aims to develop in-vivo animal models of cancer therapy-induced late effects and to test the efficacy of novel treatment strategies. This project forms a foundation for future clinical studies.

    Project will be performed in collaboration with Prof. Irina Vetter (IMB) and A/Prof. Raelene Endersby (Telethon Kids Institute).

    Animal handling and behavioral assessments in rodents are vital for this project.