Prof David Thorburn
Prof David Thorburn
Details
Role
Group Leader / Snr Princ Research Fellow
Research area
Genomic Medicine
Group
Brain and Mitochondrial
Contact
Phone
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Professor David Thorburn is co-Group Leader of Brain & Mitochondrial Research at the Murdoch Children's Research Institute and an Honorary Professorial Fellow in the Department of Paediatrics at the University of Melbourne. He is also a National Health & Medical Research Council Principal Research Fellow and leads the Victorian Clinical Genetics Services Mitochondrial Diagnostic Laboratory.
His group is primarily involved in researching the genetic basis of mitochondrial energy generation disorders. They were among the first to use Next Generation Sequencing technologies to identify mutations in known and novel disease genes. This subsequently expanded into multi-omic approaches incorporating transcriptomics and proteomics to identify candidate genes and provide functional validation of genomic variants. His team has identified pathogenic mutations in >600 patients in >100 genes, including 13 mitochondrial DNA genes and 30 novel nuclear disease genes.
As co-lead of the Australian Genomics Mitochondrial Flagship (2017-20) and Lead of the Medical Research Future Fund-supported MitoMDT project (2021-25), he has developed national networks seeking to incorporate genomic and multi-omic testing into Australian healthcare. He is a member of the executive of RDNow, whose vision is to enable all children seen on the Royal Children’s Hospital campus with a rare disease to receive an accurate diagnosis, care, and available therapy within one year of coming to medical attention. As a Director of the Mito Foundation, he was the academic/research Lead for the Foundation’s campaign to legalise mitochondrial donation, culminating in Maeve’s law being legislated in 2022.
His group is primarily involved in researching the genetic basis of mitochondrial energy generation disorders. They were among the first to use Next Generation Sequencing technologies to identify mutations in known and novel disease genes. This subsequently expanded into multi-omic approaches incorporating transcriptomics and proteomics to identify candidate genes and provide functional validation of genomic variants. His team has identified pathogenic mutations in >600 patients in >100 genes, including 13 mitochondrial DNA genes and 30 novel nuclear disease genes.
As co-lead of the Australian Genomics Mitochondrial Flagship (2017-20) and Lead of the Medical Research Future Fund-supported MitoMDT project (2021-25), he has developed national networks seeking to incorporate genomic and multi-omic testing into Australian healthcare. He is a member of the executive of RDNow, whose vision is to enable all children seen on the Royal Children’s Hospital campus with a rare disease to receive an accurate diagnosis, care, and available therapy within one year of coming to medical attention. As a Director of the Mito Foundation, he was the academic/research Lead for the Foundation’s campaign to legalise mitochondrial donation, culminating in Maeve’s law being legislated in 2022.
Professor David Thorburn is co-Group Leader of Brain & Mitochondrial Research at the Murdoch Children's Research Institute and an Honorary Professorial Fellow in the Department of Paediatrics at the University of Melbourne. He is also a National...
Professor David Thorburn is co-Group Leader of Brain & Mitochondrial Research at the Murdoch Children's Research Institute and an Honorary Professorial Fellow in the Department of Paediatrics at the University of Melbourne. He is also a National Health & Medical Research Council Principal Research Fellow and leads the Victorian Clinical Genetics Services Mitochondrial Diagnostic Laboratory.
His group is primarily involved in researching the genetic basis of mitochondrial energy generation disorders. They were among the first to use Next Generation Sequencing technologies to identify mutations in known and novel disease genes. This subsequently expanded into multi-omic approaches incorporating transcriptomics and proteomics to identify candidate genes and provide functional validation of genomic variants. His team has identified pathogenic mutations in >600 patients in >100 genes, including 13 mitochondrial DNA genes and 30 novel nuclear disease genes.
As co-lead of the Australian Genomics Mitochondrial Flagship (2017-20) and Lead of the Medical Research Future Fund-supported MitoMDT project (2021-25), he has developed national networks seeking to incorporate genomic and multi-omic testing into Australian healthcare. He is a member of the executive of RDNow, whose vision is to enable all children seen on the Royal Children’s Hospital campus with a rare disease to receive an accurate diagnosis, care, and available therapy within one year of coming to medical attention. As a Director of the Mito Foundation, he was the academic/research Lead for the Foundation’s campaign to legalise mitochondrial donation, culminating in Maeve’s law being legislated in 2022.
His group is primarily involved in researching the genetic basis of mitochondrial energy generation disorders. They were among the first to use Next Generation Sequencing technologies to identify mutations in known and novel disease genes. This subsequently expanded into multi-omic approaches incorporating transcriptomics and proteomics to identify candidate genes and provide functional validation of genomic variants. His team has identified pathogenic mutations in >600 patients in >100 genes, including 13 mitochondrial DNA genes and 30 novel nuclear disease genes.
As co-lead of the Australian Genomics Mitochondrial Flagship (2017-20) and Lead of the Medical Research Future Fund-supported MitoMDT project (2021-25), he has developed national networks seeking to incorporate genomic and multi-omic testing into Australian healthcare. He is a member of the executive of RDNow, whose vision is to enable all children seen on the Royal Children’s Hospital campus with a rare disease to receive an accurate diagnosis, care, and available therapy within one year of coming to medical attention. As a Director of the Mito Foundation, he was the academic/research Lead for the Foundation’s campaign to legalise mitochondrial donation, culminating in Maeve’s law being legislated in 2022.
Top Publications
- Frazier, AE, Compton, AG, Kishita, Y, Hock, DH, Welch, AE, Amarasekera, SSC, Rius, R, Formosa, LE, Imai-Okazaki, A, Francis, D, et al. Fatal perinatal mitochondrial cardiac failure caused by recurrent de novo duplications in the ATAD3 locus.. Med 2(1) : 49 -73 2021 view publication
- Chen, Y, Dawes, R, Kim, HC, Ljungdahl, A, Stenton, SL, Walker, S, Lord, J, Lemire, G, Martin-Geary, AC, Ganesh, VS, et al. De novo variants in the RNU4-2 snRNA cause a frequent neurodevelopmental syndrome.. Nature 2024 view publication
- Bernhardt, I, Frajman, LE, Ryder, B, Andersen, E, Wilson, C, McKeown, C, Anderson, T, Coman, D, Vincent, AL, Buchanan, C, et al. Further delineation of short-chain enoyl-CoA hydratase deficiency in the Pacific population.. Mol Genet Metab 142(3) : 108508 2024 view publication
- Chen, Y, Dawes, R, Kim, HC, Stenton, SL, Walker, S, Ljungdahl, A, Lord, J, Ganesh, VS, Ma, J, Martin-Geary, AC, et al. De novo variants in the non-coding spliceosomal snRNA gene RNU4-2 are a frequent cause of syndromic neurodevelopmental disorders.. medRxiv 2024 view publication
- Baker, MJ, Blau, KU, Anderson, AJ, Palmer, CS, Fielden, LF, Crameri, JJ, Milenkovic, D, Thorburn, DR, Frazier, AE, Langer, T, et al. CLPB disaggregase dysfunction impacts the functional integrity of the proteolytic SPY complex.. J Cell Biol 223(3) : 2024 view publication
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