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Alex Burnham - Keynote: Lowering the barrier of entry to spatiotemporal data analysis
Learn about SpaceTime, a Python/R toolkit that simplifies spatiotemporal data analysis for non-GIS experts, featuring efficient data alignment and cube operations.
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    SpaceTime is a Python/R toolkit aimed at lowering barriers for spatiotemporal data analysis, particularly for researchers in life sciences and social sciences who aren’t GIS experts 
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    Key capabilities include: - Reading common raster data types (TIFFs, NC4, PNGs, etc.)
- Aligning datasets with different spatial reference systems and grid sizes
- Trimming datasets to common bounding boxes
- Scaling time dimensions (e.g., daily to monthly)
- Mathematical operations between cubes (“cube smasher”)
- Converting to/from tabular formats
 
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    The workflow has two main components: - Pre-cube operations: cleaning and aligning raw files
- Post-cube operations: manipulating clean spatiotemporal cubes
 
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    Built on Google Earth Engine with focus on user-friendly defaults while maintaining power/flexibility 
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    Reduces code complexity compared to alternatives (fewer lines of code needed) while maintaining computational efficiency 
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    Current limitations/future work: - Working on distributed computing capabilities
- Building open source community
- Improving documentation
- Adding network/connectivity analysis features
- Expanding beyond raster data
 
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    Ideal for ecological/environmental applications like: - Climate change analysis
- Species distribution modeling
- Agricultural modeling
- Weather data analysis
 
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    Available on PyPI (Python) and GitHub (R version), with ongoing development prioritizing the Python version 
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    Focus on academic/research use cases but potential for commercial applications 
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    Emphasizes compatibility with other tools/formats while simplifying initial data preparation steps 
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    Development supported by NSF EPSCoR grant through Barracuda project collaboration between UVM and UMaine