Research



Research Vision

My research focuses on algorithmic metamodeling for complex systems. I develop mathematical and computational frameworks to represent, predict, and prescriptively orient complex dynamics under uncertainty, partial observability, and structural constraints.

My work combines applied mathematics, system identification, scientific machine learning, structure-preserving modeling, and predictive and prescriptive analytics, with applications to industrial, financial, and networked cyber-physical-human systems (CPHS).

A current direction of this program is the development of stable step strategies: algorithmic metamodels for sustainable cooperation in networked cyber-physical-human systems, aimed at identifying how distributed systems can preserve functionality, redistribute resources, and maintain coherent behavior under uncertainty.

Research Interests

  • Algorithmic metamodeling for complex systems
  • Structure-preserving function approximation and modeling
  • System identification and scientific machine learning
  • Reservoir computing and neural representations of dynamical systems
  • Koopman-based spectral methods and pseudospectral analysis
  • Dynamical systems on networks
  • Model reduction and surrogate modeling
  • Optimization, control, and prescriptive analytics under uncertainty
  • Networked cyber-physical-human systems


Selected Publications

Structured Reservoir Computing, System Identification, and CPHS

Optimization, Control, and Surrogate Modeling

Structure-Preserving Matrix Analysis and Operator-Theoretic Methods