Fanconi Anaemia is the most common cause of inherited bone marrow failure with a median onset of only eight years of age. Bone marrow failure is fatal in Fanconi Anaemia except for one life saving therapy: a bone marrow transplant. However, transplants have risks to children, including life threatening toxicities and increased risk of developing secondary cancers. Such risks would be substantially reduced by using gene therapy, which corrects the genetic mutation that causes the bone marrow failure. Recent published clinical trials have proven gene therapy as a potential curative treatment for bone marrow failure in these patients. This project will investigate a new gene editing technology (Prime Editing), with the aim of efficiently correcting Fanconi mutations. If successful, this would provide a new alternative therapeutic option for preventing bone marrow failure in this patient group.
2021-2022 (Grant-in-Aid): Outcomes of Haematopoietic Stem Cell Transplantation for Paediatric Patients with Severe Aplastic Anaemia (SAA) and Bone Marrow Failure (BMF) Syndromes. Dr Steven Keogh, Australasian Bone Marrow Transplant Recipient ...
Read more2018-2020 (Grant-in-Aid): Predicting malignant transformation of Bone Marrow Failure Syndromes using longitudinal targeted sequencing of peripheral blood and cell-free DNA (cfDNA). Associate Professor Piers Blombery, Peter MacCallum Cancer ...
Read more2021-2023 (Grant-in-Aid): Curation of the DIAAMOND-based Aplastic Anaemia Biobank. Associate Professor Stephen Ting, Monash University. This project (the DIAAMOND biobank) is a sub-study of the DIAAMOND clinical trial and will collect, process ...
Read more2018-2023 (Grant-in-Aid): Using induced pluripotent stem cells to find causes and cures for bone marrow failure in children and young adults. Professor Andrew Elefanty, Murdoch Children’s Research Institute. Bone Marrow Failure Syndromes may be ...
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