Sustainability and Efficiency in Energy Systems

The field of energy systems is moving towards increased sustainability and efficiency, with a focus on reducing carbon emissions and improving the performance of various energy-related processes. Recent developments have highlighted the importance of advanced modeling and control techniques in achieving these goals. The use of data-driven approaches, such as Koopman Operator Theory and Extended Kalman Filters, has shown promise in predicting and controlling complex nonlinear systems, including those found in electric vehicles and shipboard carbon capture systems. Additionally, the development of more accurate and efficient algorithms for estimating the state of charge and health of lithium-ion batteries is critical for effective battery management. Noteworthy papers include:

  • The paper on Adaptive Extended Kalman Filtering for battery state of charge estimation, which proposes a novel covariance adaptation technique and demonstrates superior estimation accuracy.
  • The paper on Deep Neural Koopman Operator-based Economic Model Predictive Control of shipboard carbon capture systems, which presents a data-driven approach for achieving safe and energy-efficient process operation.

Sources

Dynamical Simulation Model of the Pyro-Process in Cement Clinker Production

State estimation for gas purity monitoring and control in water electrolysis systems

Koopman-Based Methods for EV Climate Dynamics: Comparing eDMD Approaches

AI-Driven Prognostics for State of Health Prediction in Li-ion Batteries: A Comprehensive Analysis with Validation

Adaptive Extended Kalman Filtering for Battery State of Charge Estimation on STM32

A Control-Oriented Simplified Single Particle Model with Grouped Parameter and Sensitivity Analysis for Lithium-Ion Batteries

Deep Neural Koopman Operator-based Economic Model Predictive Control of Shipboard Carbon Capture System

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