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blog_efflux/_posts/2022-11-07-moreno2022hstrat.md

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@@ -4,13 +4,13 @@ title: "hstrat: a Python Package for phylogenetic inference on distributed digit
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date: 2022-11-07
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permalink: "/pubs/:title"
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category: journal
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download: https://github.com/mmore500/hstrat/releases/download/as-submitted-joss/paper.pdf
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# doi: "10.1145/3520304.3533937"
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download: https://www.theoj.org/joss-papers/joss.04866/10.21105.joss.04866.pdf
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doi: "10.21105/joss.04866"
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authors:
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- Matthew Andres Moreno
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- Emily Dolson
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- Charles Ofria
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venue: Journal of Open Source Science (Under Revision)
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venue: Journal of Open Source Software
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projects:
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- hstrat
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abstract: |
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2020
Perfect observability, in particular, enables *in silico* experiments that would be otherwise impossible *in vitro* or *in vivo*.
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Notably, availability of the full evolutionary history (phylogeny) of a given population enables very powerful analyses.
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As a slow but highly parallelizable process, digital evolution will benefit greatly by continuing to capitalize on profound advances in parallel and distributed computing [@moreno2020practical;@ackley2014indefinitely], particularly emerging unconventional computing architectures [@ackley2011homeostatic;@lauterbach2021path;@furber2014spinnaker].
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As a slow but highly parallelizable process, digital evolution will benefit greatly by continuing to capitalize on profound advances in parallel and distributed computing, particularly emerging unconventional computing architectures.
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However, scaling up digital evolution presents many challenges.
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Among these is the existing centralized perfect-tracking phylogenetic data collection model, which is inefficient and difficult to realize in parallel and distributed contexts.
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Here, we implement an alternative approach to tracking phylogenies across vast and potentially unreliable hardware networks.
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The `hstrat` Python library exists to facilitate application of hereditary stratigraphy, a cutting-edge technique to enable phylogenetic inference over distributed digital evolution populations.
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This technique departs from the traditional perfect-tracking approach to phylogenetic record-keeping.
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Instead, hereditary stratigraphy enables phylogenetic history to be inferred from heritable annotations attached to evolving digital agents.
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This approach aligns with phylogenetic reconstruction methodologies in evolutionary biology.
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Hereditary stratigraphy attaches a set of immutable historical "checkpoints" --- referred to as _strata_ --- as an annotation on evolving genomes.
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Checkpoints can be strategically discarded to reduce annotation size at the cost of increasing inference uncertainty.
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A particular strategy for which checkpoints to discard when is referred to as a _stratum retention policy_.
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We refer to the set of retained strata as a _hereditary stratigraphic column_.
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Appropriate stratum retention policy choice varies by application.
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For example, if annotation size is not a concern it may be best to preserve all strata.
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In other situations, it may be necessary to constrain annotation size to remain within a fixed memory budget.
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Key features of the library include:
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- object-oriented hereditary stratigraphic column implementation to annotate arbitrary genomes,
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- modular interchangeability and user extensibility of stratum retention policies,
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- programmatic interface to query guarantees and behavior of stratum retention policy,
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- modular interchangeability and user extensibility of back-end data structure used to store annotation data,
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- a suite of visualization tools to elucidate stratum retention policies,
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- support for automatic parameterization of stratum retention policies to meet user size complexity or inference precision specifications,
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- tools to compare two columns and extract information about the phylogenetic relationship between them,
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- [extensive documentation](https://hstrat.readthedocs.io) hosted on [ReadTheDocs](https://readthedocs.io),
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- a comprehensive test suite to ensure stability and reliability,
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- convenient availability as a Python package via the [PyPI repository](https://pypi.org/), and
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- pure Python implementation to ensure universal portability.
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bibtex: |-
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@article{moreno2022hstrat,
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author = {Moreno, Matthew Andres and Dolson, Emily and Ofria, Charles},
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title = "{hstrat: a Python Package for phylogenetic inference on distributed digital evolution populations}",
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journal = {Journal of Open Source Software},
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year = {Under Revision},
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}
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citation: "Matthew Andres Moreno, Emily Dolson, and Charles Ofria. hstrat: a Python Package for phylogenetic inference on distributed digital evolution populations. Journal of Open Source Software. Under Revision."
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doi = {10.21105/joss.04866},
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url = {https://doi.org/10.21105/joss.04866},
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year = {2022}
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publisher = {The Open Journal},
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volume = {7},
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number = {80}
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pages = {4866}
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author = {Matthew Andres Moreno and Emily Dolson and Charles Ofria},
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title = {hstrat: a Python Package for phylogenetic inference on distributed digital evolution populations},
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journal = {Journal of Open Source Software}
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}
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citation: "Moreno et al., (2022). hstrat: a Python Package for phylogenetic inference on distributed digital evolution populations. Journal of Open Source Software, 7(80), 4866, https://doi.org/10.21105/joss.04866"
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