Publication Date
Fall 2025
Degree Type
Master's Project
Degree Name
Master of Science in Computer Science (MSCS)
Department
Computer Science
First Advisor
Katerina Potika
Second Advisor
William Andreopoulos
Third Advisor
Rohan Mohapatra
Keywords
Influence Maximization, Fairness, Social Network Analysis, Gini Coefficient, Multi-objective Optimization, Genetic Algorithms, Pareto Front, Information Dissemination
Abstract
Influence Maximization (IM) focuses on identifying a small set of influential nodes (seed nodes) in social networks to maximize the spread of information, ideas, or behaviors efficiently. Traditional IM methods prioritize overall influence spread, neglecting fairness considerations regarding who benefits from that spread. This oversight might result in particular disadvantaged demographic groups being omitted from seed selection and thus receiving critical information later, or not at all. This raises ethical concerns in scenarios involving health, education, or employment resources. Fair Influence Maximization (FIM) seeks to ensure equitable diffusion across predefined groups. While early FIM approaches, such as max–min fairness, address disparities in a simple way, they fail to capture subtler inequities. Recent frameworks incorporate statistical measures such as the Gini coefficient to evaluate inequality across influenced nodes. This work introduces FIMMOGA++, an enhanced genetic algorithm that integrates multi-objective optimization and fairness-aware design. It combines traditional IM heuristics with Reverse Influence Sampling (RIS) and the Non-dominated Sorting Genetic Algorithm III (NSGA-III) to simultaneously optimize influence spread and multiple fairness criteria. By producing a Pareto-optimal set of solutions, FIMMOGA++ provides balanced strategies that advance both theoretical understanding and practical implementation of fair influence maximization in large-scale networks.
Recommended Citation
Janardhan Srinivas, Akash, "Fair Influence Maximization with Reverse Influence Sampling Boosted Multi-Objective Genetic Algorithms" (2025). Master's Projects. 1594.
DOI: https://doi.org/10.31979/etd.h3vg-9brd
https://scholarworks.sjsu.edu/etd_projects/1594