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--- | ||
title: Australian Amphibian and Reptile Genomics (AusARG) | ||
title: Workspace for the Australian Amphibian and Reptile Genomics (AusARG) | ||
description: Bioinformatics analyses for the Australian Amphibian and Reptile Genomics initiative. | ||
toc: false | ||
type: projects | ||
type: ABLeS Participant | ||
--- | ||
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## Bioinformatics leads | ||
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## Project title | ||
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Workspace for the Australian Amphibian and Reptile Genomics (AusARG) | ||
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## Collaborators and funding | ||
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## Contact(s) | ||
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- Hardip Patel <[email protected]> | ||
- Terry Bertozzi <[email protected]> | ||
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## Details | ||
## Project description and aims | ||
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The [Australian Amphibian and Reptile Genomics Initiative (AusARG)](https://ausargenomics.com/) is a national collaborative project that will facilitate research using genomics approaches towards a more thorough understanding of evolution and conservation of Australia’s unique native amphibians and reptiles that are now under threat, through climate, disease or habitat modification. | ||
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@@ -21,4 +29,15 @@ AusARG's mission is to build genomic resources to understand and protect Austral | |
+ Phylogenomics | ||
+ Conservation and Taxonomy genomics | ||
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### [GitHub link](https://github.com/AusARG) | ||
[GitHub link](https://github.com/AusARG) | ||
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## How is ABLeS supporting this work? | ||
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This work is supported through the reference data asset creation scheme provided by ABLeS. The support includes 135 TB long term storage, 1 TB temoprary storage on scratch and 100 KSUs per quarter. | ||
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## Expected outputs enabled by participation in ABLeS | ||
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<br/> | ||
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> *These details have been provided by project members at project initiation. For more information on the project, please consult the contact(s) or project links above.* |
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--- | ||
title: Australian Wine Research Institute | ||
title: Workspace for Australian Wine Research Institute | ||
description: Genetic diversity of Australian wine grapevine germplasm. | ||
toc: false | ||
type: projects | ||
type: ABLeS Participant | ||
--- | ||
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## Bioinformatics leads | ||
## Project title | ||
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Markus Herderich <[email protected]> | ||
Workspace for Australian Wine Research Institute | ||
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## Collaborators and funding | ||
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## Details | ||
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## Contact(s) | ||
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- Markus Herderich <[email protected]> | ||
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## Project description and aims | ||
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Grapevine cultivars can be unequivocally typed by both physical differences (ampelography) and genetic tests. However, due to their very similar characteristics, the identification of clones within a cultivar relies on the accurate tracing of supply records to the point of origin. Such records are not always available or reliable, particularly for older accessions. | ||
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Whole genome sequencing (WGS) provides the most highly detailed methodology for defining grapevine cultivars and more importantly, this can be extended to differentiating clones within those cultivars. The [AWRI](https://www.awri.com.au/) has developed a world-first clonal sequencing pipeline that has been successfully used to define grapevine clones as true-to-sequence. This information will underpin investments in replanting, facilitate vineyard recovery and improve income for Australian grape grower and wine producers. | ||
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## How is ABLeS supporting this work? | ||
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This work is supported through the production bioinformatics scheme provided by ABLeS. The supports includes unlimited temporary storage on scratch, 1 TB permenant storage and 50 KSUs per quarter. | ||
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## Expected outputs enabled by participation in ABLeS | ||
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<br/> | ||
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> *These details have been provided by project members at project initiation. For more information on the project, please consult the contact(s) or project links above.* |
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title: Benchmarking life science software on national and institutional HPC platforms. | ||
description: A benchmarking project across multiple research organisations. | ||
toc: false | ||
type: projects | ||
type: ABLeS Participant | ||
--- | ||
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## Bioinformatics leads | ||
## Project title | ||
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Johan Gustafsson <[email protected]>, Ziad Al Bkhetan <[email protected]>, Edward Yang <[email protected]>, Julie Iskander <[email protected]> | ||
Benchmarking life science software on national and institutional HPC platforms. | ||
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## Collaborators and funding | ||
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## Details | ||
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## Contact(s) | ||
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- Johan Gustafsson <[email protected]> | ||
- Ziad Al Bkhetan <[email protected]> | ||
- Edward Yang <[email protected]> | ||
- Julie Iskander <[email protected]> | ||
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## Project description and aims | ||
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The goal of this project is to benchmark software that is commonly used throughout the life sciences on Australia’s national HPC facilities. The software benchmarked will span research areas such as bioinformatics and molecular dynamics, as well as general software that is commonly used such as [`NumPy`](https://bio.tools/numpy) and [`R`](https://bio.tools/r). The benchmarks also aim to test a variety of workloads, such as machine learning & artificial intelligence (ML/AI), traditional HPC (on a small to moderate scale), I/O dependent software (latency and bandwidth), and high throughput workloads. | ||
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- Establish an easy-to-setup benchmarking pipeline – facilitated by [`Nextflow`](https://bio.tools/nextflow). | ||
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All results and the pipeline will be made publicly available via GitHub. | ||
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## How is ABLeS supporting this work? | ||
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This work is supported through the production bioinformatics scheme provided by ABLeS. The supports includes 1 TB temprary storage, 1 TB long term storage and 10 KSUs per quarter. | ||
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## Expected outputs enabled by participation in ABLeS | ||
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Sharing benchmarking results with the broader bioinformatics comunity in Australia. | ||
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<br/> | ||
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> *These details have been provided by project members at project initiation. For more information on the project, please consult the contact(s) or project links above.* |
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--- | ||
title: Computational Structural Biology Node | ||
description: explore software and hardware efficiencies in the current deep learning revolution in computational structural biology. | ||
toc: false | ||
type: ABLeS Participant | ||
--- | ||
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## Project title | ||
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Computational Structural Biology Node | ||
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## Collaborators and funding | ||
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- [Structural Biology Facility, The University of New South Wales](https://www.analytical.unsw.edu.au/facilities/sbf) | ||
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- [The Australian BioCommons](https://www.biocommons.org.au/) | ||
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- [Pawsey Supercomputing Centre](https://pawsey.org.au/) | ||
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## Contact(s) | ||
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- Keiran Rowell - Scientific Officer - UNSW, Structural Biology Facility - <[email protected]> | ||
- Kate Michie - Chief Scientist - UNSW, Structural Biology Facility - <[email protected]> | ||
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## Project description and aims | ||
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Computational techniques applicable to all species, the focus is optimised and exploratory computation rather than investigation of any particular species. But we have local expertise in: | ||
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- Fundamental evolutionary biology: archeal protein development and divergence into eukaryotes | ||
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- Biomedical therapies in human genetic disorders: cardiomyopathy implicated protein mutations | ||
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The structural biology node will explore software and hardware efficiencies in the current deep learning revolution in computational structural biology. | ||
These findings will be shared with local and national HPC facilities, the steering committee, and scientific advisory board in order to formulate best-practice in this new style of compute for biomolecules and drive widespread adoption by biochemical/medical researchers in Australia. | ||
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Aims: | ||
- Benchmarking AlphaFold variants (e.g. OpenFold, FastFold) and optimising their use on HPC facilities | ||
- Apply protein generative AI (e.g. RFDiffusion, EvoDiff, ProteinMPNN) for generation of novel protein designs in fundamental biology (molecular motors) and antibodies therapeutics | ||
- Validating compilation of CUDA code of the above software onto AMD GPUs. | ||
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## How is ABLeS supporting this work? | ||
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This work is supported through the production bioinformatics scheme provided by ABLeS. The supports includes unlimited temporary storage on scratch, 5 TB permenant storage and 150 KSUs per quarter. | ||
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## Expected outputs enabled by participation in ABLeS | ||
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This project is to support the Structural Biology Node being responsive to the deep learning developments in structural biology compute, which is producing pre-print code at a rapid which, many of which find eventual publication in top-rank journals. This is the beginning of software explosion in this ecosystem, and so we will be continually validating new code as the leading-edge validators for wide use by the biological research participant. | ||
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<br/> | ||
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> *These details have been provided by project members at project initiation. For more information on the project, please consult the contact(s) or project links above.* |
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