During injury or infection, our body’s immune system protects us by launching inflammation. But uncontrolled inflammation drives common diseases such as cancer, diabetes and Alzheimer’s. This project will reveal how the body produces interleukin-1? – a protein at the heart of inflammation and disease – so we can design better strategies for treating patients with inflammation-driven disease.
Inhibition Of Necroptosis As A Novel Strategy For The Prevention Of Bronchiolitis And Subsequent Asthma
Funder
National Health and Medical Research Council
Funding Amount
$658,015.00
Summary
Severe virus associated bronchiolitis is a major cause of infant mortality and a risk factor for asthma. Using a mouse model, we have shown that virus infection causes tissue damage, leading to the release of 'danger' molecules that promote excessive inflammation and tissue remodelling. We have identified an important mechanism by which the danger molecules are released. We will now assess whether blocking this process ameliorates viral bronchiolitis and breaks its nexus with subsequent asthma.
Excess inflammation is a major problem after injury and in many diseases. Upon injury molecules are release that act as danger signals to alert the immune system to start the repair process. However, high levels of these dangers signals can impair the final stages of healing. Understanding how to prevent the immune system being excessively stimulated by these danger signals is key to being able to dampen inflammation after injury improve the healing response.
Type I Interferon Signalling In Bacterial Infection
Funder
National Health and Medical Research Council
Funding Amount
$738,274.00
Summary
Infectious diseases are a leading cause of death in Australia. Activation of disease-fighting inflammasomes sets in motion rapid immune defenses against pathogens. In this project, we explore how cell-cell communication molecules known as type I interferons communicate with inflammasomes to achieve the best outcome in the body in response to deadly bacterial infection. Understanding how these signals communicate with one another could reveal new ways to fight infectious diseases.
The Role Of BAFF, Its Receptor TACI And Toll-like Receptors In Autoimmunity And Tolerance.
Funder
National Health and Medical Research Council
Funding Amount
$486,824.00
Summary
There are 2 types of immune cells, innate cells reacting broadly against microbial elements, and adaptive cells educated to remember pathogens and provide improved immune responses. Most treatments against lupus target the adaptive cells with mixed success. We have discovered a new mechanism driving lupus at the level of innate immunity. This proposal will identify molecular players driving this unappreciated form of lupus and validate new therapeutic targets.