TABLE 2.
Essential gene databases and computational programs to predict essential genes and design genomic deletions.
Program | Function | URL | References |
---|---|---|---|
DEG 15 | Database of essential genomic regions based on experimental data with embedded BLAST tools for homology searches | www.essentialgene.org/ | Luo et al. (2021) |
pDEG | Database of predicted essential genes within Mycoplasma strains | http://tubic.org/pdeg/ | Lin and Zhang, (2011) |
NetGenes | Database of predicted essential genes for more than 2,700 organisms based on protein-protein interaction network features | https://rbc-dsai-iitm.github.io/NetGenes/ | Senthamizhan et al. (2021) |
ePath | Database of predicted essential genes for more than 4,000 organisms based on previous experimental data and functional KEGG orthologs | https://www.pubapps.vcu.edu/epath/ | Kong et al. (2019) |
OGEE | Database of essential genes from experimental data for 91 bacterial strains with additional gene features like expression profiles, conservation, evolutionary origins etc. | http://ogeedb.embl.de | Chen et al. (2017) |
EGGS | Database of essential genes from experimental data for 11 different species with visualization and analysis on a subsystem diagram | https://pubseed.theseed.org/FIG/eggs.cgi | Gerdes et al. (2006) |
Overbeek et al. (2005) | |||
CEG | Database of essential genes based on data from DEG that are clustered based on function | http://cefg.uestc.cn/ceg | Liu et al. (2020a) |
Ye et al. (2013) | |||
CEG_Match | Within the CEG database, bases the prediction of essential genes on function | http://cefg.uestc.cn/ceg | Liu et al. (2020a) |
Ye et al. (2013) | |||
ZCURVE 3.0 | Predicts genes from an unannotated genome and will also predict essential genes from that | http://guolab.whu.edu.cn/zcurve/ | Hua et al. (2015) |
Geptop 2.0 | Predicts gene essentiality based on sequence conservation and orthology with comparing a fully sequenced organism to 37 other species | http://guolab.whu.edu.cn/geptop/ | Wen et al. (2019) |
EGP | Machine learning-based method applying sequence composition features to predict essential genes with the input of nucleotide sequence | http://cefg.uestc.edu.cn:9999/egp | Ning et al. (2014) |
Deeply Essential | Deep neural network to identify essential genes in bacteria based on sequence features only | https://github.com/ucrbioinfo/DeeplyEssential | Hasan and Lonardi, (2020) |
DELEAT | Prediction of essential genes based on 6 features not dependent on experimental or functional data with design of large genomic deletions to minimize the organism’s genome | https://github.com/jime-sg/deleat | Solana et al. (2021) |
MinGenome | Minimal genome design with large deletion predictions using whole cell models using biological knowledge on gene locations and essentiality | https://github.com/maranasgroup/MinimalGenome | Wang and Maranas, (2018) |
GAMA | Comprehensive and computationally intensive simulation of gene essentiality with gene deletions to construct a true minimal cell that cannot be run on a single computer | https://github.com/GriersonMarucciLab | Rees-Garbutt et al. (2020) |
Minesweeper | Simultaneously assesses genomic regions that can be deleted, starting with larger deletion regions moving to individual genes | https://github.com/GriersonMarucciLab | Rees-Garbutt et al. (2020) |