Benefit Of 2D-strain Surveillance In Improving Cardiovascular Outcomes In Cancer Patients Undergoing Cardiotoxic Chemotherapy
Funder
National Health and Medical Research Council
Funding Amount
$2,391,979.00
Summary
Cancer survivors are susceptible to heart failure (HF) caused by heart muscle damage from chemotherapy. The current testing for this problem is based on a measure that cannot identify minor changes of cardiac function. Cardiac strain is a sensitive new marker of cardiac function which is predictive of overt dysfunction & HF. This study seeks to identify whether strain can be used to assign treatments that lead to improved cardiac function and are eventually associated with a reduction in HF.
Screening Evaluation Of The Evolution Of New Heart Failure Extension Study
Funder
National Health and Medical Research Council
Funding Amount
$849,992.00
Summary
Heart failure is a major burden on patients with this condition and on the community. The SCReening Evaluation of the Evolution of New Heart Failure (SCREEN-HF) study is evaluating the use of a blood test to identify individuals with undiagnosed heart failure and abnormal heart function, and those at increased risk of these conditions, so that more people can benefit from currently available therapies for the treatment and prevention of heart failure.
ANNEXIN-A1 MIMETICS: A NOVEL THERAPEUTIC APPROACH FOR TARGETING THE CARDIAC COMPLICATIONS OF DIABETES
Funder
National Health and Medical Research Council
Funding Amount
$815,185.00
Summary
Diabetes affects almost 2 million Australians, creating an increasing heart failure burden. A/Prof Rebecca Ritchie’s team at Baker IDI are interested in the precise role of cardiac inflammation in the progression of cardiomyopathy resulting from diabetes. Using her exciting discovery that a naturally-occurring anti-inflammatory protein is a key regulator of cardiac muscle cell survival and function, A/Prof Ritchie’s team will develop therapies for diabetic cardiomyopathy based on this protein.
Exercise As Medicine For Heart Failure: A Novel Intervention To Improve Outcomes
Funder
National Health and Medical Research Council
Funding Amount
$665,585.00
Summary
Heart failure (HF) is a common, debilitating and expensive disease; prognosis remains poorer than for the most cancers. 30,000 Australians are diagnosed every year and 300,000 live with the HF, at an annual cost of ~$1Billion. Exercise training is effective therapy in HF, because it reverses many of the problems that contribute to the reduced lifespan and impaired quality of life of patients with HF. We will test an exciting new type of exercise that promising greater benefit, at lower risk.
Regulating Gene Expression Changes In Cardiac Hypertrophy
Funder
National Health and Medical Research Council
Funding Amount
$690,754.00
Summary
Following the success in decoding human genome, i.e. DNA sequence, a major task is to understand how the activity of genes with consequent changes in respective proteins. As proteins are an important component for cell structure and function, such changes in quantity and quality of proteins will play a pivotal role to affect disease development and progression.
Therapeutic Approaches To Circumvent NO• Resistance In The Type 2 Diabetic Heart And Vasculature
Funder
National Health and Medical Research Council
Funding Amount
$563,337.00
Summary
Type 2 diabetes (T2D) is Australia’s fastest growing chronic disease, affecting almost 2 million Australians (who face poor cardiovascular health outcomes). We have discovered an exciting new avenue that may potentially more effectively counteract heart and blood vessel disorders in T2D patients in an acute cardiovascular emergency, of substantial clinical importance.
Annexin-A1 Agonists Rescue Cardiac Contractile Function After Myocardial Infarction
Funder
National Health and Medical Research Council
Funding Amount
$621,419.00
Summary
Myocardial infarction (or heart attack, a result of reduced coronary blood flow) and subsequent heart failure are the major cause of death in Western societies; this is expanding to all corners of the globe. New treatments for heart attack are thus essential. We have discovered that the natural hormone annexin-A1 rescues heart muscle function over the short-term, and propose that drugs based on annexin-A1 will prevent cardiac dysfunction of heart muscle up to several weeks after heart attack.
The Dead Heart Project: When Is A 'dead' Heart Truly Dead?
Funder
National Health and Medical Research Council
Funding Amount
$1,672,053.00
Summary
Best practice treatment for end-stage heart failure is heart transplantation, yet donor heart availability is deficient and limited by current practices. Using extensive basic and clinical research approaches, this project aims to increase donor heart quantity and quality by profiling current and novel donor heart sources, and extending donor heart storage time and quality using a novel transport device and therapeutic agents - thus increasing the number of successful transplant recipients.
Cardiac Resynchronisation Therapy And AV Node Ablation For Atrial Fibrillation In Heart Failure
Funder
National Health and Medical Research Council
Funding Amount
$3,274,979.00
Summary
Heart failure (HF) and Atrial Fibrillation (AF) are both significant health issues that often coexist. Cardiac resynchronisation therapy (CRT) is a proven therapy for HF with ventricular dyssynchrony (uncoordinated contraction of the left ventricle). While CRT reduces symptoms and improves survival in normal rhythm, there are mixed reports in patients with AF. This prospective randomised multicentre study, will assess the role of AV node ablation to improve outcomes in CRT in AF.
Upscaling Cardiac Tissue Engineering: Differentiation Of IPS Cells, Enrichment And Bionic Approaches
Funder
National Health and Medical Research Council
Funding Amount
$709,758.00
Summary
Stem cell therapies to repair heart muscle are experimental methods which promise future clinical treatments. Our tissue engineering chamber model provides a protective environment for implanted cells and generates contracting heart tissue. Towards clinical application we will scale up the tissue volume produced by: improving cell supply with new stem cell technologies, design chambers for bulk cell implantation, adopt a bionic approach to cell pacing and apply the model into larger animals.