Environmental Census: Modeling Synthetic Biology Ecological Risk with Metagenomic Enzymatic Data and High-Performance Computing

Engineered microorganisms in biotechnology present biosafety and environmental management challenges. As the synthetic biology market develops and deploys new technologies, these engineered organisms may escape into unintended environments. Improved predictive computational tools are necessary to assess the potential establishment risk and environmental location of these escaped engineered microorganisms, assisting their design and management. Here, we present <i>EnCen</i>, a risk assessment Python software package that predicts the environmental range of engineered microorganisms through annotated functional one-hot-encoded similarity between the engineered microorganism and resident microorganisms of a given environment. <i>EnCen</i> utilizes publicly available composite metagenomes as representatives of microbial environments that occur along an agriculture-water cycle and can be customized for any additional target environment. This tool was deployed against case studies reported in the literature and to reassess commercially available bacterial biopesticides, highlighting both the successful recapture of previously reported dynamics and the identification of select commercial products that pose a wider establishment risk in multiple environments. When further utilizing <i>EnCen</i> to investigate the receiving environments comprising the central database, key enzyme classes are mapped as characteristics to select environments, prioritizing certain modifications likely leading to a greater risk (or effectiveness) of establishment. The results demonstrate that <i>EnCen</i> meaningfully summarizes publicly available metagenomic data, prioritizes environments to monitor for adverse effects, and analyzes potential impacts on microbial community composition and functioning. Overall, this study demonstrates a computational approach to managing engineered microorganisms, aiding in the safe deployment and benefit of industrial synthetic biology.

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Publication Details

Journal
ACS Synthetic Biology
Published
2025-12-03
DOI
https://doi.org/10.1021/acssynbio.5c00618
Primary Topic
Microbial Community Ecology and Physiology
Type
article
Field-Weighted Citation Impact
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article

Environmental Census: Modeling Synthetic Biology Ecological Risk with Metagenomic Enzymatic Data and High-Performance Computing

Cresten Mansfeldt, John Docter
ACS Synthetic Biology
Microbial Community Ecology and Physiology
article

Environmental Census: Modeling Synthetic Biology Ecological Risk with Metagenomic Enzymatic Data and High-Performance Computing

Cresten Mansfeldt, John Docter
article en

Abstract

Engineered microorganisms in biotechnology present biosafety and environmental management challenges. As the synthetic biology market develops and deploys new technologies, these engineered organisms may escape into unintended environments. Improved predictive computational tools are necessary to assess the potential establishment risk and environmental location of these escaped engineered microorganisms, assisting their design and management. Here, we present <i>EnCen</i>, a risk assessment Python software package that predicts the environmental range of engineered microorganisms through annotated functional one-hot-encoded similarity between the engineered microorganism and resident microorganisms of a given environment. <i>EnCen</i> utilizes publicly available composite metagenomes as representatives of microbial environments that occur along an agriculture-water cycle and can be customized for any additional target environment. This tool was deployed against case studies reported in the literature and to reassess commercially available bacterial biopesticides, highlighting both the successful recapture of previously reported dynamics and the identification of select commercial products that pose a wider establishment risk in multiple environments. When further utilizing <i>EnCen</i> to investigate the receiving environments comprising the central database, key enzyme classes are mapped as characteristics to select environments, prioritizing certain modifications likely leading to a greater risk (or effectiveness) of establishment. The results demonstrate that <i>EnCen</i> meaningfully summarizes publicly available metagenomic data, prioritizes environments to monitor for adverse effects, and analyzes potential impacts on microbial community composition and functioning. Overall, this study demonstrates a computational approach to managing engineered microorganisms, aiding in the safe deployment and benefit of industrial synthetic biology.

ACS Synthetic BiologyVol. 14(12)
University of Colorado Boulder (US), University of Colorado System (US)
Openalex Percentile: Top 63%
Microbial Community Ecology and Physiology
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