PheNetic eQTL

PheNetic eQTL infers subnetworks from an organism-specific genome-wide interaction network to connect mutated genes with differentially expressed genes, prioritizing candidate driver genes from coupled genotype–expression phenotype (eQTL) data to interpret adaptive phenotypes.


Key Features:

  • Network-Based Approach: Leverages a network-based framework to interpret mutated genes within molecular pathways and detect pathway-level parallelism in clonal systems.
  • Input Requirements: Requires coupled genotype–expression phenotype (eQTL) data from independently evolved lines and an organism-specific genome-wide interaction network.
  • Subnetwork Inference Problem: Frames mutational consistency at the pathway level as a subnetwork inference problem by inferring subnetworks that optimally connect mutated genes and differentially expressed genes.
  • Driver Gene Prioritization: Prioritizes candidate driver genes by evaluating connectivity between mutated genes and differentially expressed genes within inferred subnetworks.
  • Validation and Application: Demonstrated using semisynthetic data and two publicly available datasets to prioritize driver genes and provide insights into molecular mechanisms underlying adaptive phenotypes.

Scientific Applications:

  • Evolutionary Biology and Genetics: Interprets the genetic basis of adaptation by linking mutations to expression changes in evolutionary biology and genetics studies.
  • Clonal Systems and Parallelism Detection: Detects pathway-level parallelism and elucidates adaptive mechanisms using data from independently evolved clonal lines.
  • eQTL Driver Discovery: Prioritizes candidate driver genes from eQTL datasets to connect genotype changes with expression phenotypes.

Methodology:

Infers subnetworks from an organism-specific genome-wide interaction network that optimally connect mutated genes with differentially expressed genes and evaluates connectivity within these subnetworks using coupled genotype–expression phenotype (eQTL) data from independently evolved lines.

Topics

Collections

Details

License:
GPL-2.0
Tool Type:
desktop application
Operating Systems:
Linux, Windows, Mac
Added:
9/1/2016
Last Updated:
11/25/2024

Operations

Publications

De Maeyer D, Weytjens B, De Raedt L, Marchal K. Network-Based Analysis of eQTL Data to Prioritize Driver Mutations. Genome Biology and Evolution. 2016;8(3):481-494. doi:10.1093/gbe/evw010. PMID:26802430. PMCID:PMC4825419.

Documentation