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Graph-Theoretic Methods for Reproducible Protein–Protein Interaction Network Analysis
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Emad Fadhal

Emad Fadhal

King Faisal University, University of the Western Cape

Dr. Emad Fadhal is an associate professor in the Department of Mathematics and Statistics at King Faisal University and a researcher at the Department of Mathematics and Applied Mathematics at the University of the Western Cape. His research focuses on graph-theoretic modeling of biological networks, including protein–protein interaction (PPI) networks, cancer systems biology, and the development of algorithmic approaches for network controllability and therapeutic target discovery. He has led projects integrating metric-space embeddings, dominating-set formulations, and centrality analyses to identify essential proteins and pathway bottlenecks across multiple cancer types. Dr. Fadhal has authored and co-authored peer-reviewed publications at the interface of mathematics and bioinformatics and routinely collaborates with molecular biologists and clinicians to translate computational findings into experimentally testable hypotheses.

Collection Overview

Protein–protein interaction (PPI) networks underpin most cellular processes and are central to understanding disease mechanisms and therapeutic opportunities. However, methodological heterogeneity (data acquisition, curation, graph construction, noise filtering, and downstream analytics) often limits reproducibility and cross-study comparability. This Methods Collection assembles cutting-edge, open, and reproducible protocols for constructing and analyzing PPI networks, focusing on graph-theoretic foundations.


Contributed articles will cover the following:

  1. Standardized pipelines for integrating multi-source interactomes and context-specific subnetworks
  2. Robust preprocessing (confidence scoring, bias assessment, batch/assay harmonization)
  3. Graph embeddings and metric-space formulations for topology-aware inference
  4. Dominating-set and related covering/controllability frameworks for identifying minimal driver sets
  5. Centrality and community-structure analyses linked to pathway enrichment
  6. End-to-end workflows that tie computational predictions to experimental validation


By emphasizing transparent code, shareable datasets, parameter logging, and environment capture, the collection aims to raise methodological standards, facilitate fair comparisons across tools, and accelerate translation of PPI network analyses to target discovery in oncology and other disease areas.

Articles

Graph-theoretical Analysis of a Modeled Protein-protein Interaction Network in the RAS Signaling Pathway

Graph-theoretical Analysis of a Modeled Protein-protein Interaction Network in the RAS Signaling Pathway

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2026

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