7 Steps towards Reproducible Research
This workshop aims to take you further down your reproducibility path, by providing concepts and tools you can use in your everyday workflows. It is discipline and experience agnostic, and no coding experience is needed.
We will also examine how Reproducible Research builds business continuity...
Keywords: reproducibility, Reproducibility, reproducible workflows
Resource type: full-course, tutorial
7 Steps towards Reproducible Research
https://amandamiotto.github.io/ReproducibleResearch/
https://dresa.org.au/materials/7-steps-towards-reproducible-research
This workshop aims to take you further down your reproducibility path, by providing concepts and tools you can use in your everyday workflows. It is discipline and experience agnostic, and no coding experience is needed.
We will also examine how Reproducible Research builds business continuity into your research group, how the culture in your institute ecosystem can affect Reproducibility and how you can identify and address risks to your knowledge.
The workshop can be used as self-paced or as an instructor
Amanda Miotto - a.miotto@griffith.edu.au
Amanda Miotto
reproducibility, Reproducibility, reproducible workflows
phd
support
Open Ecoacoustics make your own recogniser
Includes the requirements and practical steps required to make your own automated call recogniser using a convolution neural network.
The "Requirements" section includes demo data and requirements for the data you should include to develop your own recogniser as well as links to Anaconda &...
Keywords: Ecoacoustics, call recogniser, convolutional neural network
Open Ecoacoustics make your own recogniser
https://openecoacoustics.org/resources/lessons/make-your-own-recognizer/
https://dresa.org.au/materials/open-ecoacoustics-make-your-own-recogniser
Includes the requirements and practical steps required to make your own automated call recogniser using a convolution neural network.
The "Requirements" section includes demo data and requirements for the data you should include to develop your own recogniser as well as links to Anaconda & Raven Lite software.
The "Practical Steps" provides instructions to run the required Jupyter notebook to build a recogniser with CNN.
* Note additional AI methods will be available soon
https://openecoacoustics.org/contact/
Dr Philip Eichinski
Dr Lance De Vine
Ecoacoustics, call recogniser, convolutional neural network
Open Ecoacoustics wrangling sound files
An introduction to slicing, dicing, chopping, resampling, compressing etc sound files with an introduction to command line and graphical tools.
A "Requirements" section with demo data, file dependencies, and required software.
A "Presentation" section with an online introduction to storing...
Keywords: Ecoacoustics, sound files, data wrangling
Open Ecoacoustics wrangling sound files
https://openecoacoustics.org/resources/lessons/wrangling-sound-files/
https://dresa.org.au/materials/open-ecoacoustics-wrangling-sound-files
An introduction to slicing, dicing, chopping, resampling, compressing etc sound files with an introduction to command line and graphical tools.
A "Requirements" section with demo data, file dependencies, and required software.
A "Presentation" section with an online introduction to storing data, repairing data and segmenting files.
A "Practical" section inclusive of setup, Terminal use, manipulating files with FFmpeg, using the AnalysisPrograms audio cutter, run EMU software
https://openecoacoustics.org/contact/
Dr Anthony Truskinger
Ecoacoustics, sound files, data wrangling
Open Ecoacoustics acoustic indices
Provides an introduction to and generation of false-colour spectrograms and indices.
Includes a "Requirements" section where demo audio files, other dependencies and required software.
Includes a "Presentation" section providing an online presentation on false colour...
Keywords: Ecoacoustics, false-colour spectrograms, acoustic indices
Open Ecoacoustics acoustic indices
https://openecoacoustics.org/resources/lessons/acoustics-indices/
https://dresa.org.au/materials/open-ecoacoustics-acoustic-indices
Provides an introduction to and generation of false-colour spectrograms and indices.
Includes a "Requirements" section where demo audio files, other dependencies and required software.
Includes a "Presentation" section providing an online presentation on false colour spectrograms.
Includes a "Practical" section that provides the setup, use of terminal, Analysis Programs software, and calculation of acoustic indices.
https://openecoacoustics.org/contact/
Marina D. A. Scarpelli
Ecoacoustics, false-colour spectrograms, acoustic indices
Open Ecoacoustics recording and labelling
This module includes recommendations for deployment, recording and labelling sounds, playing those sounds and annotation using Audacity and Raven software.
The "Requirements" section includes downloads of example data, required dependencies and software.
The "Presentation" walks through an...
Keywords: Ecoacoustics, recording sound, labelling sound, spectrograms
Open Ecoacoustics recording and labelling
https://openecoacoustics.org/resources/lessons/labelling/
https://dresa.org.au/materials/open-ecoacoustics-recording-and-labelling
This module includes recommendations for deployment, recording and labelling sounds, playing those sounds and annotation using Audacity and Raven software.
The "Requirements" section includes downloads of example data, required dependencies and software.
The "Presentation" walks through an online presentation with recommendations recorder deployment recommendations, annotation, raven software, & manual validation
The "Practical" includes setup, single species annotation of spectrograms, multi-species, and generating images
https://openecoacoustics.org/contact/
Callan Alexander
Ecoacoustics, recording sound, labelling sound, spectrograms
Open Ecoacoustics sound basics
This online presentation provides a review of five key concepts related to ecoacoustics: 1. Decibels, 2. clipping and gain, 3. ADC: Sample rate & bit depth, 4. Fast Fourier Transform (FFT), and 5. Spectrograms: time / frequency trade off.
Keywords: Ecoacoustics, sound basics, decibels, gain, sample rate, FFT, spectrograms
Open Ecoacoustics sound basics
https://openecoacoustics.org/resources/lessons/sound-basics/presentation/
https://dresa.org.au/materials/open-ecoacoustics-sound-basics
This online presentation provides a review of five key concepts related to ecoacoustics: 1. Decibels, 2. clipping and gain, 3. ADC: Sample rate & bit depth, 4. Fast Fourier Transform (FFT), and 5. Spectrograms: time / frequency trade off.
https://openecoacoustics.org/contact/
Dr Michael Towsey
Ecoacoustics, sound basics, decibels, gain, sample rate, FFT, spectrograms
Ecoacoustics & EcoCommons Generalised Dissimilarity Modelling (GDM) use case
This example highlights how data collected with passive acoustic monitoring (PAM) can be used to examine spatial variation in species composition.
This example draws from an R package developed to make GDM more accessible: https://github.com/EcoCommons-Australia/community-modelling
Keywords: Generalised Dissimilarity Modelling, Ecoacoustics, EcoCommons
Ecoacoustics & EcoCommons Generalised Dissimilarity Modelling (GDM) use case
https://openecoacoustics.org/resources/use-cases/gdm/
https://dresa.org.au/materials/ecoacoustics-ecocommons-generalised-dissimilarity-modelling-gdm-use-case
This example highlights how data collected with passive acoustic monitoring (PAM) can be used to examine spatial variation in species composition.
This example draws from an R package developed to make GDM more accessible: https://github.com/EcoCommons-Australia/community-modelling
https://openecoacoustics.org/contact/
Generalised Dissimilarity Modelling, Ecoacoustics, EcoCommons
EcoCommons & Open EcoAcoustics SDM use case
- Examples of code and the associated text summaries describe how open ecoacoustics https://openecoacoustics.org/ data can generate better SDM predictions. By using long-term monitoring data from https://acousticobservatory.org/ which allows analysts to infer absence locations, which does a much...
Keywords: Species Distribution Modelling, Ecoacoustics, Ecology, Owls, Mapping uncertainty
EcoCommons & Open EcoAcoustics SDM use case
https://www.ecocommons.org.au/acoustic-sdm-use-case/
https://dresa.org.au/materials/ecocommons-open-ecoacoustics-sdm-use-case
1. Examples of code and the associated text summaries describe how open ecoacoustics https://openecoacoustics.org/ data can generate better SDM predictions. By using long-term monitoring data from https://acousticobservatory.org/ which allows analysts to infer absence locations, which does a much better job at predicting distributions than presence only methods, and which facilitate use of call frequency as a response variable rather than presence absence.
The code and data used to generate these examples:
https://github.com/andrew-1234/sdm-usecase-master
2. Shows one way to overlay areas with the least geographically and environmentally representative sampling in addition to the predicted probability of occurrence generated by an SDM. This shows how to spatially represent areas where additional acoustic sampling would increase representative sampling most.
The code used in this example:
https://github.com/EcoCommons-Australia/educational_material/tree/main/SDMs_in_R/Scripts/adding_uncertainty_to_the_map
https://www.ecocommons.org.au/contact/
Species Distribution Modelling, Ecoacoustics, Ecology, Owls, Mapping uncertainty
ugrad
masters
mbr
phd
How can software containers help your research?
This video explains software containers to a research audience. It is an introduction to why containers are beneficial for research. These benefits are standardisation, portability, reliability and reproducibility.
Software Containers in research are a solution that addresses the challenge of a...
Keywords: containers, software, research, reproducibility, RSE, standard, agility, portable, reusable, code, application, reproducible, standardisation, package, system, cloud, server, version, reliability, program, collaborator, ARDC_AU, training material
How can software containers help your research?
https://zenodo.org/records/5091260
https://dresa.org.au/materials/how-can-software-containers-help-your-research-ca0f9d41-d83b-463b-a548-402c6c642fbf
This video explains software containers to a research audience. It is an introduction to why containers are beneficial for research. These benefits are standardisation, portability, reliability and reproducibility.
Software Containers in research are a solution that addresses the challenge of a replicable computational environment and supports reproducibility of research results. Understanding the concept of software containers enables researchers to better communicate their research needs with their colleagues and other researchers using and developing containers.
Watch the video here: https://www.youtube.com/watch?v=HelrQnm3v4g
If you want to share this video please use this:
Australian Research Data Commons, 2021. How can software containers help your research?. [video] Available at: https://www.youtube.com/watch?v=HelrQnm3v4g DOI: http://doi.org/10.5281/zenodo.5091260 [Accessed dd Month YYYY].
contact@ardc.edu.au
Australian Research Data Commons
Martinez, Paula Andrea (type: ProjectLeader)
Sam Muirhead (type: Producer)
The ARDC Communications Team (type: Editor)
The ARDC Skills and Workforce Development Team (type: ProjectMember)
The ARDC eResearch Infrastructure & Services (type: ProjectMember)
The ARDC Nectar Cloud Services team (type: ProjectMember)
containers, software, research, reproducibility, RSE, standard, agility, portable, reusable, code, application, reproducible, standardisation, package, system, cloud, server, version, reliability, program, collaborator, ARDC_AU, training material
CheckEM User Guide
CheckEM is an open-source web based application which provides quality control assessments on metadata and image annotations of fish stereo-imagery. It is available at marine-ecology.shinyapps.io/CheckEM. The application can assess a range of sampling methods and annotation data formats for...
Keywords: stereo-video, fish, annotation
CheckEM User Guide
https://globalarchivemanual.github.io/CheckEM/articles/manuals/CheckEM_user_guide.html
https://dresa.org.au/materials/checkem-user-guide
CheckEM is an open-source web based application which provides quality control assessments on metadata and image annotations of fish stereo-imagery. It is available at marine-ecology.shinyapps.io/CheckEM. The application can assess a range of sampling methods and annotation data formats for common inaccuracies made whilst annotating stereo imagery. CheckEM creates interactive plots and tables in a graphical interface, and provides summarised data and a report of potential errors to download.
brooke.gibbons@uwa.edu.au
Brooke Gibbons
stereo-video, fish, annotation
EventMeasure Annotation Guide
EventMeasure annotation guide for baited remote underwater stereo video systems (stereo-BRUVs) for count and length
Keywords: fish, stereo-video, annotation
EventMeasure Annotation Guide
https://globalarchivemanual.github.io/CheckEM/articles/manuals/EventMeasure_annotation_guide.html
https://dresa.org.au/materials/eventmeasure-annotation-guide
EventMeasure annotation guide for baited remote underwater stereo video systems (stereo-BRUVs) for count and length
tim.langlois@uwa.edu.au
Brooke Gibbons
Tim Langlois
Claude Spencer
fish, stereo-video, annotation
Stereo-video workflows for fish and benthic ecologists
Stereo imagery is widely used by research institutions and management bodies around the world as a cost-effective and non-destructive method to research and monitor fish and habitats (Whitmarsh, Fairweather and Huveneers, 2017). Stereo-video can provide accurate and precise size and range...
Keywords: stereo-video, fish, sharks, habitats
Resource type: tutorial
Stereo-video workflows for fish and benthic ecologists
https://globalarchivemanual.github.io/CheckEM/index.html
https://dresa.org.au/materials/stereo-video-workflows-for-fish-and-benthic-ecologists
Stereo imagery is widely used by research institutions and management bodies around the world as a cost-effective and non-destructive method to research and monitor fish and habitats (Whitmarsh, Fairweather and Huveneers, 2017). Stereo-video can provide accurate and precise size and range measurements and can be used to study spatial and temporal patterns in fish assemblages (McLean et al., 2016), habitat composition and complexity (Collins et al., 2017), behaviour (Goetze et al., 2017), responses to anthropogenic pressures (Bosch et al., 2022) and the recovery and growth of benthic fauna (Langlois et al. 2020). It is important that users of stereo-video collect, annotate, quality control and store their data in a consistent manner, to ensure data produced is of the highest quality possible and to enable large scale collaborations. Here we collate existing best practices and propose new tools to equip ecologists to ensure that all aspects of the stereo-video workflow are performed in a consistent way.
tim.langlois@uwa.edu.au
Tim Langlois
Brooke Gibbons
Claude Spencer
stereo-video, fish, sharks, habitats
10 Reproducible Research things - Building Business Continuity
The idea that you can duplicate an experiment and get the same conclusion is the basis for all scientific discoveries. Reproducible research is data analysis that starts with the raw data and offers a transparent workflow to arrive at the same results and conclusions. However not all studies are...
Keywords: reproducibility, data management
Resource type: tutorial, video
10 Reproducible Research things - Building Business Continuity
https://guereslib.github.io/ten-reproducible-research-things/
https://dresa.org.au/materials/9-reproducible-research-things-building-business-continuity
The idea that you can duplicate an experiment and get the same conclusion is the basis for all scientific discoveries. Reproducible research is data analysis that starts with the raw data and offers a transparent workflow to arrive at the same results and conclusions. However not all studies are replicable due to lack of information on the process. Therefore, reproducibility in research is extremely important.
Researchers genuinely want to make their research more reproducible, but sometimes don’t know where to start and often don’t have the available time to investigate or establish methods on how reproducible research can speed up every day work. We aim for the philosophy “Be better than you were yesterday”. Reproducibility is a process, and we highlight there is no expectation to go from beginner to expert in a single workshop. Instead, we offer some steps you can take towards the reproducibility path following our Steps to Reproducible Research self paced program.
Video:
https://www.youtube.com/watch?v=bANTr9RvnGg
Tutorial:
https://guereslib.github.io/ten-reproducible-research-things/
a.miotto@griffith.edu.au; s.stapleton@griffith.edu.au; i.jennings@griffith.edu.au;
Amanda Miotto
Julie Toohey
Sharron Stapleton
Isaac Jennings
reproducibility, data management
masters
phd
ecr
researcher
support