Geophysical Research Data Processing and Modelling for 2030 Computation
The Cross-NCRIS National Data Assets program co-funded the ‘Geophysics 2030: Building a National High-Resolution Geophysics Reference Collection for 2030 Computation’ (Geophysics2030) project. At completion, Geophysics2030 i) trialled publishing vertically integrated geophysical datasets, making...
Keywords: Geophysics, Applied mathematics, Physical sciences, Computer and information sciences
Resource type: presentation
Geophysical Research Data Processing and Modelling for 2030 Computation
https://zenodo.org/records/11100591
https://dresa.org.au/materials/geophysical-research-data-processing-and-modelling-for-2030-computation
The Cross-NCRIS National Data Assets program co-funded the ‘Geophysics 2030: Building a National High-Resolution Geophysics Reference Collection for 2030 Computation’ (Geophysics2030) project. At completion, Geophysics2030 i) trialled publishing vertically integrated geophysical datasets, making both raw datasets and successive levels of derivative data products available online in a new international self-describing data standard (first published in 2022); ii) co-located these datasets/data products with HPC computing resources required to process datasets at scale; and iii) developed new community software and environments allowing researchers to exploit the new data sets at high-resolution on a continental-scale. This ARDC, AuScope, NCI and TERN-funded project created new high-performance dataset and introduced a new, world-leading community platform that allows researchers to combine high-performance computing, high-resolution datasets, and flexible software workflows. The world-leading innovation was evidenced by new projects in collaboration with leading international researchers, including Jared Peacock, the United States Geological Survey-based leader of the new standards for Magnetotelluric (MT) data and Karl Kappler, DIAS Geophysics, who leads the development of ‘Aurora’, a National Science Foundation (USA) funded open-source software package for processing MT data using the new MTH5 standards.
This Community Connect project, in partnership with NCI and AuScope, proposed to develop, deliver, and distribute a 2-day ‘Geophysical Research Data Processing and Modelling for 2030 Computation’ workshop in 2023. The training packages will consist of two parts, i) the utilisation of NCI for Geophysics processing and modelling, and ii) developing workflows for coupling Geophysical software, compute environments and datasets.
Through previous engagement with the Geophysics community, we knew users of the 2030 Geophysics Collection were experts in their fields of geophysics data acquisition, processing and modelling. The community had high levels of computer literacy and deep technical skills in geophysics and research expertise. The workshop was targeted to support this advanced community and facilitate the usage of large co-located datasets and high-performance computing at the NCI HPC/cloud platform.
rebecca@auscope.org.au
Lesley Wyborn
Nigel Rees
Hannes Hollmann
Jo Croucher
Jared Peacock
Karl Kappler
Rui Yang
Janelle Kerr
Stephan Thiel
Hoël Seille
Anandaroop Ray
Robert Pickle
Voon Hui Lai
Shang Wang
Ben Evans
Rebecca Farrington
Geophysics, Applied mathematics, Physical sciences, Computer and information sciences
TransectMeasure Annotation Guide
Annotation guide: benthic composition and relief for horizontally facing imagery
Keywords: benthos, video, annotation
TransectMeasure Annotation Guide
https://globalarchivemanual.github.io/CheckEM/articles/manuals/TransectMeasure_annotation_guide.html
https://dresa.org.au/materials/transectmeasure-annotation-guide
Annotation guide: benthic composition and relief for horizontally facing imagery
tim.langlois@uwa.edu.au
Brooke Gibbons
Claude Spencer
Tim Langlois
benthos, video, annotation
Fluoroquinolone antibiotics and Aortic Aneurysm or Dissection
The main objective of this project was to provide education on the use of data translated to the OMOP common data model. We aimed to showcase how the Atlas interface tool could be used to generate evidence for a highly relevant and significant research question. The clinical question that was...
Keywords: OMOP, Aortic Aneurysm, Fluoroquinolone antibiotics
Fluoroquinolone antibiotics and Aortic Aneurysm or Dissection
https://ohdsi-australia.org/full_tutorial.pdf
https://dresa.org.au/materials/fluoroquinolone-antibiotics-and-aortic-aneurysm-or-dissection
The main objective of this project was to provide education on the use of data translated to the OMOP common data model. We aimed to showcase how the Atlas interface tool could be used to generate evidence for a highly relevant and significant research question. The clinical question that was used to demonstrate the process revolved around investigating the potential association between the use of fluoroquinolones to treat urinary tract infection and the risk of experiencing aortic aneurysm and dissection within 30 days, 3 months, or 12 months of treatment initiation compared to other commonly used antibiotics. The workshop aimed to describe how data are translated to the OMOP CDM, how cohorts can be derived in these data, how to execute a robust analysis, and lastly, how to interpret the results of the study. Specifically, we described the process of translating Australian medicines dispensing data to the OMOP CDM, including the translation of the Australia Pharmaceutical Benefits Schedule data to the international RxNorm standard vocabulary.
The outcome of the project is an on-line training resource that highlights the process of study execution from start to finish. This training package will serve as an exemplar for researchers in Australia to unlock the value of their data that has been translated into the OMOP CDM. The audience for this project was database programmers, researchers, and decision-makers, and all those interested in using data to inform healthcare.
Roger Ward, Nicole Pratt
Roger Ward
Nicole Pratt
Christine Hallinan
OMOP, Aortic Aneurysm, Fluoroquinolone antibiotics