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Research

Overview

My research sits at the intersection of optimization, artificial intelligence, and sustainability, tackling problems where uncertainty, complexity, and real-world constraints demand rigorous, scalable solutions.

Core areas of focus include enterprise-wide optimization under uncertainty, integrated process models (spanning control, scheduling, and planning), agent-based modeling, interpretable machine learning, and sustainability analysis via LCA/TEA.


Research Themes

1. Optimization Under Uncertainty

Visualization of stochastic optimization framework capturing disruption spectra in supply chain networks

Developing mathematical frameworks that account for the inherent unpredictability of real-world systems.

  • Partial disruption modeling for supply chains using stochastic programming
  • Mixed-integer optimization under uncertainty for robust planning and resource allocation
  • Focus on capturing disruption spectra rather than binary failure assumptions

Key Contribution

A novel partial disruption model for pharmaceutical supply chains that reveals hidden risk exposure missed by traditional total-disruption approaches.


2. Integrated Systems Modeling

Diagram of multi-agent systems architecture for advisor-student matching and complex allocation problems

Building models that bridge traditionally siloed decision layers, from real-time control to long-term strategic planning.

  • Multi-agent systems for complex matching and allocation problems
  • Advisor-student matching optimization using agent-based simulation
  • Integration of scheduling, planning, and control into unified decision frameworks

Key Contribution

An agent-based simulation framework for graduate advisor-student matching that systematically outperforms ad hoc and purely preference-based approaches.


3. Sustainability & Decision Support

Chart showing LCA/TEA decision boundaries mapping cost-sustainability trade-off frontiers

Quantifying environmental and economic trade-offs to support strategic decision-making in industrial contexts.

  • Life Cycle Assessment (LCA) and Techno-Economic Analysis (TEA) for process evaluation
  • AWARE water footprint methodology for water-intensive industries
  • Decision support tools that integrate sustainability metrics into capital allocation

Key Contribution

Integrated LCA/TEA models revealing scenarios where sustainability improvements align with cost reductions, and identifying decision boundaries where trade-offs become unavoidable.


Selected Publications

Publication Venue Link
Partial Disruption Modeling for Pharmaceutical Supply Chains In progress Coming soon
Agent-Based Advisor-Student Matching In progress Coming soon
Sustainability Analysis via LCA/TEA In progress Coming soon

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Cite This Work

BibTeX — Partial Disruption Modeling for Pharmaceutical Supply Chains
@article{badejo2025partialdisruption,
  title   = {Partial Disruption Modeling for Pharmaceutical Supply Chains},
  author  = {Badejo, Oluwadare},
  year    = {2025},
  note    = {In progress},
  url     = {https://Dare-Badejo-001.github.io/research/}
}
BibTeX — Agent-Based Advisor-Student Matching
@article{badejo2025agentmatching,
  title   = {Agent-Based Advisor-Student Matching Optimization},
  author  = {Badejo, Oluwadare},
  year    = {2025},
  note    = {In progress},
  url     = {https://Dare-Badejo-001.github.io/research/}
}
BibTeX — Sustainability Analysis via LCA/TEA
@article{badejo2025lcatea,
  title   = {Sustainability Analysis via Integrated LCA/TEA Models},
  author  = {Badejo, Oluwadare},
  year    = {2025},
  note    = {In progress},
  url     = {https://Dare-Badejo-001.github.io/research/}
}

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