Table 1

Available methods/tools for regulatory network prediction

MethodTypeOpen source availa-bilityShort summaryLink
LEAPCorrelationYesLEAP infers gene regulatory networks based on gene co-expression relationships and considers possible lags in time.https://cran.r-project.org/web/packages/LEAP/index.html
dynGENIE3RegressionYesdynGENIE3 extends GENIE3 by considering changes in expression over time and building dynamic models based on ordinary differential equations.https://github.com/vahuynh/dynGENIE3
InferelatorRegressionYesInferelator infers gene regulatory networks by selecting the regulators whose levels are most predictive of gene expression based on a LASSO regression model.https://github.com/baliga-lab/cMonkeyNwInf
SWINGGranger causalityYesSWING is a gene regulatory network inference framework based on multivariate Granger causality and sliding window regression.https://github.com/bagherilab/SWING
DREMProbabilistic graph modelYesDREM integrates time-series gene expression data and static or dynamic transcription factor–gene interaction data (e.g. ChIP-seq data) and produces as output a dynamic regulatory map.http://sb.cs.cmu.edu/drem/
MethodTypeOpen source availa-bilityShort summaryLink
LEAPCorrelationYesLEAP infers gene regulatory networks based on gene co-expression relationships and considers possible lags in time.https://cran.r-project.org/web/packages/LEAP/index.html
dynGENIE3RegressionYesdynGENIE3 extends GENIE3 by considering changes in expression over time and building dynamic models based on ordinary differential equations.https://github.com/vahuynh/dynGENIE3
InferelatorRegressionYesInferelator infers gene regulatory networks by selecting the regulators whose levels are most predictive of gene expression based on a LASSO regression model.https://github.com/baliga-lab/cMonkeyNwInf
SWINGGranger causalityYesSWING is a gene regulatory network inference framework based on multivariate Granger causality and sliding window regression.https://github.com/bagherilab/SWING
DREMProbabilistic graph modelYesDREM integrates time-series gene expression data and static or dynamic transcription factor–gene interaction data (e.g. ChIP-seq data) and produces as output a dynamic regulatory map.http://sb.cs.cmu.edu/drem/

LEAP, lag-based expression association for pseudotime-series; dynGENIE3, dynamical GENIE3; SWING, sliding window inference for network generation; DREM, Dynamic Regulatory Events Miner.

Table 1

Available methods/tools for regulatory network prediction

MethodTypeOpen source availa-bilityShort summaryLink
LEAPCorrelationYesLEAP infers gene regulatory networks based on gene co-expression relationships and considers possible lags in time.https://cran.r-project.org/web/packages/LEAP/index.html
dynGENIE3RegressionYesdynGENIE3 extends GENIE3 by considering changes in expression over time and building dynamic models based on ordinary differential equations.https://github.com/vahuynh/dynGENIE3
InferelatorRegressionYesInferelator infers gene regulatory networks by selecting the regulators whose levels are most predictive of gene expression based on a LASSO regression model.https://github.com/baliga-lab/cMonkeyNwInf
SWINGGranger causalityYesSWING is a gene regulatory network inference framework based on multivariate Granger causality and sliding window regression.https://github.com/bagherilab/SWING
DREMProbabilistic graph modelYesDREM integrates time-series gene expression data and static or dynamic transcription factor–gene interaction data (e.g. ChIP-seq data) and produces as output a dynamic regulatory map.http://sb.cs.cmu.edu/drem/
MethodTypeOpen source availa-bilityShort summaryLink
LEAPCorrelationYesLEAP infers gene regulatory networks based on gene co-expression relationships and considers possible lags in time.https://cran.r-project.org/web/packages/LEAP/index.html
dynGENIE3RegressionYesdynGENIE3 extends GENIE3 by considering changes in expression over time and building dynamic models based on ordinary differential equations.https://github.com/vahuynh/dynGENIE3
InferelatorRegressionYesInferelator infers gene regulatory networks by selecting the regulators whose levels are most predictive of gene expression based on a LASSO regression model.https://github.com/baliga-lab/cMonkeyNwInf
SWINGGranger causalityYesSWING is a gene regulatory network inference framework based on multivariate Granger causality and sliding window regression.https://github.com/bagherilab/SWING
DREMProbabilistic graph modelYesDREM integrates time-series gene expression data and static or dynamic transcription factor–gene interaction data (e.g. ChIP-seq data) and produces as output a dynamic regulatory map.http://sb.cs.cmu.edu/drem/

LEAP, lag-based expression association for pseudotime-series; dynGENIE3, dynamical GENIE3; SWING, sliding window inference for network generation; DREM, Dynamic Regulatory Events Miner.

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