4.7 Article

Monitoring, Control System Development, and Experimental Validation for a Novel Extrapulmonary Respiratory Support Setup

Journal

IEEE-ASME TRANSACTIONS ON MECHATRONICS
Volume 27, Issue 5, Pages 4177-4187

Publisher

IEEE-INST ELECTRICAL ELECTRONICS ENGINEERS INC
DOI: 10.1109/TMECH.2022.3145832

Keywords

Biomedical application; control; data acquisition; respiratory support

Funding

  1. Mechanical Engineering Department, The University of Maryland (UMD)
  2. The UMD Device Development Fund
  3. UMD
  4. National Science Foundation (NSF) EAGER Grant through NSF CMMI Award [2031251, 2031245]

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This article introduces a novel mechatronic setup designed to provide respiratory support for patients with pulmonary failure. The setup circulates oxygenated perfluorocarbon (PFC) through the abdominal cavity, potentially transporting oxygen to the bloodstream. However, the viability of CO2 clearance with this technology is uncertain, and there is a lack of experimental data on the underlying dynamics. The article outlines the design of the experimental perfusion setup, data acquisition system, and control algorithms developed for monitoring key variables.
This article presents a novel mechatronic setup intended for providing respiratory support to patients suffering from pulmonary failure. The setup relies upon the circulation of an oxygenated perfluorocarbon (PFC) through the abdominal cavity. Such circulation provides a potential pathway for the transport of oxygen to the bloodstream. However, the viability of this technology for CO2 clearance has not been established. Moreover, there is a lack of experimental data enabling the modeling and identification of the underlying dynamics of this technology. To address these gaps, we develop a flexible experimental perfusion setup capable of monitoring and controlling key variables, such as perfusate flowrate, temperature, pressure, and oxygenation. One important scientific objective of this setup is to enable the measurement of the impact of abdominal PFC perfusion on CO2 clearance. The article 1) summarizes the design of this setup; 2) highlights the degree to which its data acquisition system enables the collection and cross-correlation of both perfusionrelated and physiological variables; and 3) discusses the development of flow, pressure, and temperature control algorithms for the setup. Experiments with large animals (swine) show that perfusion can potentially affect both O2 and CO2 dynamics, and that the setup succeeds in recording key data needed for modeling these dynamics.

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