Data-Driven Modeling and Control of Complex Dynamical Systems Arising in Renal Anemia Therapy
Sabrina Casper, Doris H. Fuertinger, Peter Kotanko, Luca Mechelli, Jan, Rohleff, Stefan Volkwein

TL;DR
This paper presents a data-driven approach combining extended dynamic mode decomposition and model predictive control to efficiently model and control erythropoiesis in anemia therapy, demonstrating comparable results to traditional methods.
Contribution
It introduces a novel application of EDMD and MPC to a complex biological system, enabling efficient control strategies for anemia treatment models.
Findings
EDMD effectively approximates non-linear erythropoiesis dynamics.
MPC based on EDMD achieves control results comparable to traditional methods.
The approach enhances computational efficiency in modeling complex biological systems.
Abstract
This project is based on a mathematical model of erythropoiesis for anemia, which consists of five hyperbolic population equations describing the production of red blood cells under treatment with epoetin-alfa (EPO). Extended dynamic mode decomposition (EDMD) is utilized to approximate the non-linear dynamical systems by linear ones. This allows for efficient and reliable strategies based on a combination of EDMD and model predictive control (MPC), which produces results comparable with the one obtained in past publications for the original model.
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Taxonomy
TopicsErythropoietin and Anemia Treatment · Advanced Control Systems Optimization · Model Reduction and Neural Networks
