Previous Grants

Over the last 30 years, the Foundation has supported by way of grants a diverse range of medical research projects. These have included:

Prof Stephen Haswell, Deakin University, Advanced zoonotic disease detection through lab-on-a-chip technology, $372,000 (3 years, 2015-2017)

Funded through a partnership between the NFMRI and the NSW Department of Primary Industries, Prof Haswell’s project focuses on the design, manufacture and commercialization of a cost-effective lab-on-a-chip device that can rapidly identify the presence of infection and the causative virus from a range of existing possibilities. The device, which will cost less than $20, will take less than an hour to generate results and will be able to be linked wirelessly to a database to produce a range of control and treatment options, including vaccine-specific selections, where appropriate.

Prof Michael Good AO, Griffith University, Producing and testing a GMP grade peptide conjugate vaccine to prevent infection with group A streptococcus, $251,000 (3 years, 2015-2017)

Following an impressive 20 years of work on the development of a vaccine developed to prevent infection with group A streptococcus – the causative agent of tonsillitis, deep tissue septis, pyoderma and rheumatic heart disease – this project will focus on producing, at clinical grade, a novel GMP grade peptide conjugate vaccine for a Phase 1 trial.

Professor Mark Smythe, The development of human Hematopoietic Prostaglandin D2 Synthase Inhibitors (HPGD2S) for allergic asthma, $80,078 (1 year, 2016)

Professor Smythe’s research team is pursuing new and innovative asthma therapies by targeting a different and specific enzyme, HPGD2S, involved in the inflammatory mechanisms of asthma. His team has developed and optimised a series of potent and specific inhibitors of HPGD2S that are orally bioavailable and efficacious in in vivo animal models. NFMRI’s support will provide access to additional research studies and facilities to profile the compounds on human bronchial epithelial cells in order to study respiratory function. These studies will aid in the selection of drug candidates, which will provide efficacious treatment for the cause, not symptoms, of asthma. The funding in particular will provide access to external collaborator Asterand Bioscience in order to accelerate the identification and validation of their drug candidates.

Dr Tim Molloy, miR-127a as a biomarker and druggable target for radiotherapy resistance in breast cancer, $126,000 (3 years, 2014-2016)

Radiotherapy is an essential component of treatment for almost all breast cancer patients, and confers a profound benefit to patient survival. However, the presence of radiotherapy-resistant cells within the tumours of a significant minority of patients can lead to treatment failure resulting in relapse and death. Additionally, there are currently no biomarkers in clinical use which can identify resistant tumours to allow the proper tailoring of radiotherapy treatments to individual patients. Our group seeks to identify and characterise “microRNA” master regulators which control the processes of radiotherapy resistance in breast cancer. In preliminary work we identified a novel microRNA, called miR-1274a, which when at high levels in breast cancer cells significantly increases their resistance to radiotherapy. In the current study we aim to further investigate miR-1274a. We hypothesize that the miRNA itself or the genes that it regulates may be valuable biomarkers of radiotherapy resistance, and therefore could form the basis of diagnostic tests which may be useful in the clinic. In addition, we hypothesize that by treating radioresistant breast tumours with synthetic miR-1274a inhibitors in vivo, we can re-sensitise them to radiotherapy, thereby improving the efficacy of this vital treatment in otherwise recalcitrant tumours.

A/Prof Lenka Munoz, The University of Sydney, Improving chemotherapy response rates in brain cancer, $396,103.50 (4 years 2013-2016)

In a search for ways to limit the spread and to stop lethal recurrence of brain cancer, Dr Munoz’ research focuses on the inflammation caused by the tumour as a key to brain cancer progression. This research has found that cells surrounded with inflammation appear to move further because the inflammation makes it easier for tumour cells to propel themselves through tissue. The more inflammation in the proximity of a tumour cell, the faster glioblastoma cells travel. This project will make this the first group to report that drugs turning off the activity of an inflammatory protein called MK2 are effective in blocking inflammation in brain tumours. Blocking inflammation may prevent the invasive spread of cancer cells into healthy brain tissue, thus preventing the formation of novel tumours and potentially improving patient’s response to temozolomide (Temodal) during chemotherapy.

A/Prof Janet Davies, Queensland University of Technology, Towards an improved allergen immunotherapy vaccine targeting subtropical grass pollens, $100,000 (2 years, 2015-2016)

Grass pollen allergens are a major cause of hayfever and allergic asthma worldwide. Treatment by grass pollen immnotherapy vaccines improves patients’ symptoms, quality of life and productivity. Importantly, such therapy can reduce the burden of asthma. However, most vaccines are based on pollens of temperate rather than subtropical grasses. Optimised vaccines based on subtropical grass pollens are needed to provide more specific and effective allergen desensitisation treatment for patients in subtropical regions. Here we aim to utilise our intellectual property and know how pertaining to subtropical grass pollen allergens to develop a new method to measure and standardise the allergen content of subtropical grass pollen allergy vaccine products. The outcomes will have the potential to meet the growing need of patients in subtropical regions of Australia, Asia, Africa and America. An additional utility for this novel method is in outdoor allergen monitoring.

Dr Sanjaya Kuruppu, Monash University,  A Potential New Treatment for Alzheimer’s Disease from a Snake Venom, $90,000 (1 year, 2016)

The project outlined in this application relates to a novel molecule that we have discovered from the venom of a snake. We have made a synthetic version of this molecule and have conducted an extensive array of in vitro studies. Our current data look very promising, and indicate that this molecule targets two enzymes that play a key role in the initiation and progression of Alzheimer’s disease. We believe that this molecule will serve as a template for the development of a whole new class of compounds that could be used in the fight against Alzheimer’s disease. However the in vivo efficacy of the compound we have developed must first be determined. In the studies outlined here-in we will test this molecule in a mouse model of Alzheimer’s disease. Our laboratory currently lacks the technical expertise to conduct these in vivo studies. Therefore we will collaborate with the laboratory of Prof David Small (Menzies Research Institute, University of Tasmania) who is a leading expert in the field of Alzheimer’s disease research.

A/Prof Bernard Flynn, Monash University, Sphingolipid targeting agents in the treatment of cardiac fibrosis, $100,000 (1 year, 2016)

The particular focus of this application, cardiac fibrosis, is the lead cause of heart failure and a major cause of death in the western world. This collaborative research group has drawn together experts in cardiac fibrosis, cell signalling pathways, enzyme assays, medicinal chemistry and metabolomics to help identify a suitable biomolecular target for fibrosis and to design drug molecules to inhibit this target. The focus has been on a class of lipid signalling molecules called sphingolipids, which control cell functions particularly during infection, inflammation and wound healing. Support from NFMRI will enable A/Prof Flynn to access both internal collaborators such as the Monash Centre for Drug Candidate Optimisation and external collaborators such vivoPharm to assist with targeted studies.

Dr Andrew Mitchell, The University of Sydney, Towards new treatments for bacterial meningitis,  $28,892 (1 year, 2015)

Dr Andrew Mitchell, a young researcher from the University of Sydney, has identified a previously unknown cell type that drives inflammation. The results of his study will form the foundation for developing innovative new therapies for bacterial meningitis.

Prof Nicholas Shackel, The University of Sydney, Biomarker research for liver cancer,  $225,500 (3 years, 2013-2015)

This research will develop new clinical tests in liver cancer, which will impact on diagnosis and determine outcomes using new genomic technologies. The research is novel and will lead to the development of personalised genomic medicine in which an individual can be uniquely assessed for the likelihood of developing liver cancer, enhance diagnosis, determine the risk of cancer spread and responses to treatment.

Emeritus Prof John McAvoy, Save Sight Institute, Chair in experimental ophthalmology,  $3,669,902 (15 years, 2001-2015)

With approximately 20 million people affected, cataract is the most common cause of blindness in the world today. Currently, the most effective treatment for cataract is surgery, which involves removal of opaque cellular material and insertion of a plastic intraocular lens into the remaining capsular bag. Although initially effective in restoring sight, a complication of surgery is the development of a secondary cataract. A major focus of this research has been to identify ways of maintaining the normal lens cell phenotypes and provide conditions that promote regeneration of normal lens structure and function. To achieve this goal, greater understanding is required on the factors that maintain epithelial cells and promote their growth and differentiation into the highly elongated and oriented/aligned fibres that determine lens optical properties. In other words, the team needs to find out how to recapitulate normal developmental processes in order to successfully regenerate lenses after cataract surgery.

A/Prof Wendy Cooper, Royal Prince Alfred Hospital, Personalised medicine in lung cancer,  $95,000 (2 years, 2014-2015)

There is a revolution underway in cancer management whereby treatment is ‘personalised’ to the genetic changes in each person’s cancer. This promises to maximize the benefit of specific treatments and reduce harmful side effects. A key part of this process is finding biomarkers that predict response to particular treatments. The aim of this research project is to identify biomarkers in lung cancer and mesothelioma that can be used to help select the best treatment for every individual patient. The team is investigating abnormal expression of protein and amplification of genes in lung cancer and mesothelioma that can potentially determine how well a patient will respond to treatment or how quickly or slowly their disease is likely to progress. This research has provided new diagnostic capability at Royal Prince Alfred Hospital and is now scaling up to assist more patients in need.

A/Prof Max Conway,The University of Sydney , Research into ocular melanoma,  $215,000 (5 years, 2010-2014)

Eye melanoma is the most common primary intraocular cancer in humans. Up to 60% of patients die due to secondary spread many years after the primary cancer is removed surgically. There is currently no effective treatment for metastatic disease. Recently, a promising new class of anticancer drugs (Histone Deacetylase inhibitors or HDACi that are less toxic than conventional therapies, but can enhance their activity) have been identified. These novel, non-toxic agents may have the potential to improve the management of eye melanoma.This project aims to examine the potential for these agents to be used in eye melanoma sufferers.

A/Prof Michael Buckland, Brain and Mind Research Institute, Molecular changes in gliomas,  $270,000 (3 years, 2012-2014)

Gliomas are the most common type of brain cancer and cause many deaths in Australia every year. In order to design effective strategies for the treatment and detection of glioma, it is important to understand the underlying genetic mutations, which lead to disease. Recent studies have found that the isocitrate dehydrogenase (IDH) gene is mutated in 70-80% of some glioma subtypes, suggesting it may be an early mutation that plays an important role in the development of brain cancer. It is thought that IDH mutations may contribute to cancer by changing patterns of methylcytosine and hydroxymethylcytosine on DNA, thereby changing gene expression to favour cancer development. This study aims to validate this theory by investigating how patterns of methylation and hydroxymethylation change in gliomas, and whether they differ between gliomas with and without IDH mutation.

A/Prof Michele Madigan, Save Sight Institute, Dry age-related macular degeneration,  $180,000 (3 years, 2012-2014)

This research project is directed towards improving understanding of the role of the immune system in normal ageing of the eye and age-related macular degeneration (AMD). This information will also be useful for identifying potential therapeutic targets relevant to AMD patients.

A/Prof Wendy Cooper, Royal Prince Alfred Hospital, Personalise medicine for lung cancer and mesothelioma,  $125,000 (2 years, 2012-2013)

There is a revolution underway in cancer management whereby treatment is “personalised” to the genetic changes in each person’s cancer. This promises to maximise benefit of specific treatments and reduce harmful side effects. A key part of this process is finding biomarkers that predict response to particular treatments. The aim of our research project is to identify biomarkers in lung cancer and mesothelioma that can be used to help select the best treatment for every individual patient.

A/Prof Sasha Klistorner, Save Sight Institute, Multifocal visual evoked potentials in optic neuropathies: understanding the mechanism of axonal loss in optic neuritis and enhancing early detection of glaucoma,  $903,531 (10 years, 2004-2013)

Save Sight Institute recently reported the first successful simultaneous binocular recording of a VEP from multiple points in the visual field, and established that it could be used to detect blind spots objectively. It has now established a potentially major advance in detecting functional loss by utilising the phenomenon of binocular interaction as a means of enhancing early defects. This study will explore this concept extensively and lead to a better understanding of the pathophysiology of early glaucomatous damage by comparing subjective thresholds, objective functional signals monocularly and binocularly, with structural changes all in the same individual. The technique will aid in the diagnosis and management of glaucoma – a disease that currently is one of the 3 most common causes of blindness in the western world. Earlier diagnosis of glaucoma and/or earlier detection of progression would enable earlier institution of appropriate therapy to help preserve vision among our elderly, and would be another step toward reducing the burden of glaucoma-related morbidity in the world.

Prof David Ma, St Vincent’s Centre for Applied Medical Research, Role of MicroRNAs as regulators of cell survival and differentiation in acute myeloid leukaemia,  $292,500 (3 years, 2011-2013)

Acute Myeloid Leukaemia (AML) is a cancer of the blood. It is caused by the accumulation of genetic abnormalities leading to uncontrolled cell growth, bone marrow failure and death. While unique gene defects have been discovered in some AML types, the cause of the leukaemic transformation remains unknown in a significant proportion of cases. This shortcoming in understanding AML hampers the ability to cure the disease. Abnormal alterations in small regulatory genes called microRNAs have recently been shown to be involved in the development of many cancers. Studies using gene chip technology have uncovered previously unknown abnormalities in microRNAs in unique subtypes of AML. In this study, the research team postulated that microRNAs contribute to the development of subtypes of AML in two ways: by enhancing cell survival and preventing blood cells from reaching maturity. The new knowledge generated by this research will lead to a better understanding of the biology of this rapidly fatal cancer. This may aid in the invention of diagnostic tests and target specific drugs, thus improving patient survival.

Prof Douglas Joshua and Dr Ross Brown, Royal Prince Alfred Hospital, The inhibitors of immune effectors in multiple myeloma, $240,000 (3 years, 2011-2013

Tumour cells should be removed and destroyed by the body’s own defence mechanisms in a similar way that viruses and bacteria are removed. However, the tumour cells themselves upset this normal process and so the normal process of so-called immune control is destroyed, or at least suppressed. Prof Joshua and Dr Brown have been trying to identify how this suppression works and to identify ways to allow the normal anti-tumour immune control to be restored. This work has identified several important new mechanisms and has in several cases identified how to correct the deficiencies.

Other grants include:

  • Early treatment of AIDS
  • Cancer of the prostate
  • Malignant tumors of the eye, focusing on childhood
  • The growth of malignant tissue cells outside the body and developing methods of modifying the activity of those cells without damaging normal cells
  • The mode of development of the lens of the eye and formation of cataracts
  • The relationship between some cancers and viruses
  • The early electronic diagnosis of glaucoma and the accurate monitoring of progress, reducing the risk of blindness
  • The accurate definition and tracking of nerve fibres from the eye to the brain and the influence of those fibres on the interpretation, by the brain, of the visual signals
  • Funding the internet enablement of the South Eastern Sydney Illawarra Health’s Service’s electronic medical library
  • Prevention of bony Metastases in Prostate and Breast cancers
  • Chemical induced Neurotoxicity in Cancer treatment
  • Vascular growth and tumour invasion in retinoblastoma and ureal melanoma
  • Research fellowship at the Save Sigh Institute, Sydney Hospital
  • Molecular profiling re myeloid leukaemia
  • Gene expression profiling of lymphoma
  • Restoration of pathology specimens, Pathology Museum
  • Winston Library: purchase of medical research books






Looking beyond the research and considering translational needs when funding research. How well are your expectations, application and review processes, measures of success and funding strategy aligned with the next steps for translation?

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