Research Areas

Operations Research (OR)  Methodologies: 

  • Mathematical Optimization or Prescriptive Analytics (PA):

    • Linear and integer programming
    • Stochastic programming (two-stage and multi-stage)
    • Non-linear programming
    • Dynamic programming
    • Neuro-dynamic programming (reinforcement learning) and machine learning
    • Heuristic optimization
  • Data Science and Statistics (DS&S):

    • Multiple imputation
    • Bootstrapping
  • Parallel Computing (PC) to efficiently solve large-scale OR problems

    • GPU Computing
    • MPI
    • Open MP
  • Machine Learning (ML):

    • Supervised learning
      • Feature selection using heuristic optimization
      • Classification and feature selection methods using nearest neighbor, linear regression, ridge regression, logistic regression, support vector machines, naive Bayes, decision trees, ensemble methods
    • Unsupervised learning:
      • Classification and feature selection methods using K-means clustering and Gaussian mixture models, Principal component analysis (PCA) and Kernel PCA
    • Deep learning
    • Reinforced Learning

Applications researched using PA, PC or ML:

    • Renewable energy planning considering multiple stochastic parameters
    • Supply Chain Optimization under uncertainty (food supply chains, recycling supply chains)
    • Cybersecurity of cyber-physical systems
    • Stochastic and dynamic facility layout problems
    • Quadratic assignment problem https://claranovoa.github.io/
    • Stochastic and dynamic vehicle routing
    • Supplier selection problems for electronic supply chains
    • Semiconductor testing

Applications researched using DS&S:

    • Design and analysis of experiments with missing values
    • Bootstrapping for time studies

Additive Manufacturing (AMA)

    • Design of experiments
    • Optimization
    • Materials science

Applications researched in AMA:

    • Optimizing the tensile strength of parts fabricated using Additive Manufacturing

Engineering Education (EE):

    • Improving the recruitment and retention of female in Engineering and Computer Science
    • Improving retention of first-year undergraduate students, especially underrepresented minorities, through (a) multi-disciplinary orientations  (b)  training workshops to refine students’ Spatial Visualization and Computational Thinking Skills (c) use of 3D printing.

Applications researched in EE:

    • Identifying critical activities that  promote the success of female cohorts in engineering and computer science
    • Identifying primary motivators for freshman students to pursue STEM careers
    • Assessing the benefits of Lego robotics activities, spatial skills training, and 3D printing experiences to develop students’ spatial and computational thinking skills