This Program team will discover new things about immunity to cancer and virus infection and translate the information into novel therapies in patients with blood or solid cancers. The approaches will include new cellular or antibody therapies, alone or in combination. We will determine new predictive biomarkers to better select patients for therapy. We will overcome treatment resistance, improve the safety of combination therapies, and determine their best scheduling and dosing.
Malaria is one of the worlds most significant health problems and is caused by protozoan parasites of the genus Plasmodium. We aim to understand the biology, pathogenesis, and epidemiology of P. falciparum and P. vivax infections together with a strong translational direction. Our studies will thus lead to the discovery and development of novel tools aiding in the renewed efforts for the global elimination of malaria.
Human Epilepsy: Understanding Biology To Improve Outcomes
Funder
National Health and Medical Research Council
Funding Amount
$16,657,948.00
Summary
Our team of neurologists, molecular geneticists, physiologists and brain imaging specialists and leads the world in the discovery of the genetic causes of epilepsy. Through this work we will identify genes underlying epilepsy and study how genetic variations result in the development of seizures. Advanced brain imaging will be used to understand the effects of genetic variation on brain structure and function. This study may lead to new diagnostic methods and treatments for epilepsy.
The development of cures, vaccines and better treatments for HIV/AIDS is an urgent global health priority. This team of seven groups in Sydney and Melbourne will study how HIV can lie dormant in some parts of the body, evading eradication by HIV therapy, as well as how the immune system responds to the virus. This will allow for design of novel vaccines and treatments. The researchers have skills in basic virology and immunology, and translating laboratory findings into human clinical trials.
Infectious diseases plague mankind; with infections responsible for approximately 20% of all deaths worldwide. New strategies are urgently needed and we have positioned our research to address questions around how to forestall bacterial pathogens in the initial phases of invasion of human tissues and provide full understanding of the key molecules on the surfaces of bacterial cells. This fundamental knowledge is crucial to new drugs, vaccines and infection-resistant medical devices.
This research program aims to gain a detailed understanding of the organisation of the cell surface at the molecular level. The cell surface is organised into domains with distinct functions. Visualisation of these domains, identifying their important components, and understanding how they form and function will have huge importance for therapeutic strategies aimed at combatting the changes associated with cell transformation in cancer and in other human diseases such as muscular dystrophy.
Discovery And Development Of Better Pain Treatments
Funder
National Health and Medical Research Council
Funding Amount
$9,613,850.00
Summary
Many forms of pain remain poorly treated, leading to significant quality of life and economic losses. This Program grant will discover and characterise new peptides from cone snails and spiders that modulate specific channels in nerves that are critical to the transmission of pain signals to the brain. Using advanced chemical and structural approaches, promising leads will be optimised for potency and stability and evaluated in disease and pathway-specific models of pain to establish their clini ....Many forms of pain remain poorly treated, leading to significant quality of life and economic losses. This Program grant will discover and characterise new peptides from cone snails and spiders that modulate specific channels in nerves that are critical to the transmission of pain signals to the brain. Using advanced chemical and structural approaches, promising leads will be optimised for potency and stability and evaluated in disease and pathway-specific models of pain to establish their clinical potential.Read moreRead less