Data-driven control of infinite dimensional systems: Application to a continuous crystallizer
Pauline Kergus

TL;DR
This paper compares two data-driven control strategies for infinite dimensional systems, specifically a continuous crystallizer, highlighting their effectiveness and potential for practical implementation.
Contribution
It introduces and compares a structured robust technique and the L-DDC method based on Loewner interpolation for controlling complex infinite dimensional systems.
Findings
Both methods effectively control the continuous crystallizer.
The L-DDC approach simplifies controller design without extensive model reduction.
Structured robust technique offers high robustness in control performance.
Abstract
Controlling infinite dimensional models remains a challenging task for many practitioners since they are not suitable for traditional control design techniques or will result in a high-order controller too complex for implementation. Therefore, the model or the controller need to be reduced to an acceptable dimension, which is time-consuming, requires some expertise and may introduce numerical error. This paper tackles the control of such a system, namely a continuous crystallizer, and compares two different data-driven strategies: the first one is a structured robust technique while the other one, called L-DDC, is based on the Loewner interpolatory framework.
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Taxonomy
TopicsControl Systems and Identification · Model Reduction and Neural Networks · Advanced Control Systems Optimization
