mSystemsMicrobiologyPeer-reviewed journal article
Gempipe: a tool for drafting, curating and analyzing pan and multi-strain genome-scale metabolic models.
Gioele LazzariiD, Giovanna E. FelisiD, Elisa SalvettiiD, Matteo CalgaroiD, Francesca Di CesareiD, Bas TeusinkiD, Nicola VituloiD
Abstract
Genome-scale metabolic models (GSMMs) can mechanistically explain phenotypic differences among closely-related bacterial strains. However, high-throughput multi-strain reconstructions of GSMMs are still challenging: reference-based methods inherit curated information while missing new contents; alternatively, (universe-based) reference-free methods could cover strain-specific reactions, but they disregard curated information. Ideally, references should be curated pan-GSMMs for species (or genus), but their reconstruction is extremely demanding, making them still rare in literature. Here Gempipe is presented, a computational tool streamlining the multi-strain reconstruction and analysis of GSMMs, going through the production of a pan-GSMM. Its reconstruction method is hybrid, as an optional reference GSMM is automatically expanded with extra reactions taken from a reference-free reconstruction. Gempipe also downloads, filters and annotates genomes; performs in-depth gene recovery; annotates models contents; predicts strain-specific capabilities. The companion programming interface includes functions ranging from the (pan-)GSMMs curation to the multi-strain analysis. Gempipe was validated using multi-strain datasets, showing improved accuracy when compared with state-of-the-art tools. Moreover, metabolic diversities within Limosilactobacillus reuteri were explored, grouping strains into metabolically coherent clusters and systematically predicting health-related metabolites biosynthesis. IMPORTANCEAvailable GSMM reconstruction tools present major limitations in the context of multi-strain modeling. Gempipe surpasses these limitations by implementing a novel, hybrid reconstruction strategy. Not only it produces more accurate strain-specific GSMMs, but also pan-GSMMs when the only available reference is a manually curated model for a single strain, which is currently the most common case. With the vast availability of genome sequences, the high-throughput, multi-strain GSMM reconstruction and analysis approach provided by Gempipe will facilitate large-scale studies of the exploration and bioprospecting of strain-level bacterial metabolic diversity, moving a step forward in strains screening and rational selection.
- organism: bacteria (other)
- assay: whole-genome sequencing
- research focus: variant calling
- research focus: gene regulatory network inference
- approach: deep learning
- approach: statistical model
- Citations
- 0
- FWCI
- 0.00
- Field percentile
- 25th percentile
Reproducibility ledger
Nobody has reported trying to reproduce this paper yet. Did you replicate an experiment or run the code? Your report saves the next lab a week.
Sign in to file a reproducibility report.
Related papers
- metaGEM: reconstruction of genome scale metabolic models directly from metagenomes.
Francisco Zorrilla, Filip Buric, … Aleksej Zelezniak·Nucleic Acids ResearchPeer-reviewed·Sep 30, 2021
- CarveMe-GutMicrobes: Automated Metabolic Model Reconstruction for Gut Microbial Species and Communities
Arianna Basile, Indra Roux, … Kiran Raosaheb Patil·bioRxiv·Jun 28, 2026
- GALLANT: A Scalable Computational Platform for Microbial Consortium Interaction and Population Heterogeneity Analysis
David San León, Juan Nogales·bioRxiv·Dec 12, 2025
- Sysrecon: A systematic data-driven tool for genome-scale metabolic reconstructions
Shilin Ouyang, Zihao Li, … Longfei Mao·bioRxiv·Dec 13, 2023
- GEMsembler: cross-tool structural comparison and ensemble modeling improve metabolic model performance
Elena K. Matveishina, Bartosz Jan Bartmanski, … Maria Zimmermann‐Kogadeeva·bioRxiv·Apr 9, 2025
- Fast automated reconstruction of genome-scale metabolic models for microbial species and communities
Daniel Machado, Sergej Andrejev, … Kiran Raosaheb Patil·Nucleic Acids ResearchPeer-reviewed·May 29, 2018