Dynamic Identification of Reflux Condenser in Batch Reactors for Phenolic Resin Production by Volterra–Genocchi Model

This study focuses on modeling and dynamic identification of a reflux condenser in a batch reactor system. The model uses data from real industrial conditions, along with the Volterra series and Genocchi orthogonal polynomials, to capture the condenser’s nonlinear behavior. Identifying the dynamic behavior of the reflux condenser is essential for the safe and efficient production of phenolic resole resin in batch reactors. The condenser plays a key role in controlling the process temperature during exothermic polymerization by cooling and returning reflux material to the reactor. The model was validated with data from a 3500 kg industrial reactor, achieving a thermal energy prediction error of less than 2.5% during the critical polymerization phase. The results show that the model accurately reflects the condenser’s behavior, supporting its application in advanced control strategies for monitoring and regulating process temperature. Using these strategies can prevent uncontrolled reactions and improve operational safety and the quality of resole phenolic resin production.

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Publication Details

Journal
Processes
Published
2026-01-29
DOI
https://doi.org/10.3390/pr14030472
Primary Topic
Advanced Control Systems Optimization
Type
article
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article

Dynamic Identification of Reflux Condenser in Batch Reactors for Phenolic Resin Production by Volterra–Genocchi Model

Warren Reátegui, Daniel Carbonel, Roxana Pastrana, Roger Metzger et al.
Processes
Advanced Control Systems Optimization
article

Dynamic Identification of Reflux Condenser in Batch Reactors for Phenolic Resin Production by Volterra–Genocchi Model

Warren Reátegui, Daniel Carbonel, Roxana Pastrana, Roger Metzger, Carlos Medina, Judith Betetta
article en

Abstract

This study focuses on modeling and dynamic identification of a reflux condenser in a batch reactor system. The model uses data from real industrial conditions, along with the Volterra series and Genocchi orthogonal polynomials, to capture the condenser’s nonlinear behavior. Identifying the dynamic behavior of the reflux condenser is essential for the safe and efficient production of phenolic resole resin in batch reactors. The condenser plays a key role in controlling the process temperature during exothermic polymerization by cooling and returning reflux material to the reactor. The model was validated with data from a 3500 kg industrial reactor, achieving a thermal energy prediction error of less than 2.5% during the critical polymerization phase. The results show that the model accurately reflects the condenser’s behavior, supporting its application in advanced control strategies for monitoring and regulating process temperature. Using these strategies can prevent uncontrolled reactions and improve operational safety and the quality of resole phenolic resin production.

ProcessesVol. 14(3)
National University of Engineering (PE)
Affordable and clean energy
Openalex Percentile: Top 73%
Advanced Control Systems Optimization
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Dynamic Identification of Reflux Condenser in Batch Reactors for Phenolic Resin Production by Volterra–Genocchi Model — Warren Reátegui, Daniel Carbonel, et al. · Processes (2026) | TGRS Research Map | TGRS