• Skip to primary navigation
  • Skip to main content
  • Home
  • People
    • Professor
    • Postdoctoral Researcher
    • PhD Students
    • MS Students
    • Undergraduate Students
    • Visiting Scholar
    • Alumni
  • Research
    • Multiscale Modeling
      • Accelerated Heterogeneous Catalysis
      • Crystallization
      • Microwave Reactor Modeling
      • Paper Manufacturing
      • Lignocellulosic Biomass Fractionation
    • Hybrid Modeling
      • Hybrid Modeling of Chemical Processes
      • Application of Hybrid Modeling to Fermentation Processes
    • Data Science & Machine Learning
      • Data-driven Adaptive Modeling
      • Control Beyond the Training Domains
      • Battery Modeling and Monitoring
      • Fault Prognosis using Data-driven Adaptive Models
      • Machine Learning-Enhanced Crystallization
      • Model Reduction
    • Drug Discovery
      • Transformer-Driven ADMET Screening for Efficient Drug Evaluation
      • Latent Space Optimization for Molecular Design
      • Hybrid PBPK Modeling with Transformer-Based Pharmacokinetic Predictions
    • Molecular Dynamics Modeling
      • DFT-kMC-LSTM Energy Materials
      • Cellular Biochemical Reaction Pathways
      • Supramolecular Assemblies
    • Hydraulic Fracturing
      • Hydraulic Fracturing for Enhanced Productivity
      • Wastewater and Shale Gas
  • Publications
  • Presentations
  • Recent News
  • Location
  • Gallery

Kwon Research Group

Texas A&M University College of Engineering

Fault Prognosis using Data-driven Adaptive Models

The traditional fault detection and diagnosis (FDD) methods employed for process monitoring follow a reactive fault management approach. These methods detect an already present fault and take corrective action to mitigate the damage to the process. In order to minimize the degradation that a fault can bring to a process, fault diagnosis methods aim at achieving early fault detection, which is still reactive fault management. By the time the fault has been detected and managed, the process might have been affected to some degree. This situation can be avoided by implementing fault prognosis approaches that predict the occurrence of an impending fault ahead of its time and take appropriate action beforehand. For fault prediction, it is essential to track the varying process dynamics in order to predict a fault in advance. For this purpose, employing an adaptive model such as OASIS that can readily cope with changing dynamics will aid in forecasting the future process behavior reasonably well, thereafter providing an early fault prediction.

Literature:

B. Bhadriraju, F. Khan, and J. S. Kwon, “OASIS-P: Operable adaptive sparse identification of systems for fault prognosis of chemical processes”, Journal of Process Control, 2021, 107, 114-126.

© 2016–2025 Kwon Research Group Log in

Texas A&M Engineering Experiment Station Logo
  • State of Texas
  • Open Records
  • Risk, Fraud & Misconduct Hotline
  • Statewide Search
  • Site Links & Policies
  • Accommodations
  • Environmental Health, Safety & Security
  • Employment