In this paper, we introduce a variable-gain control strategy for mechanical ventilators in the respiratory systems. Respiratory systems assist the patients who have difficulty breathing on their own. For the comfort of the patient, fast pressure buildup (and release) and a stable flow response are desired. However, linear controllers typically need to balance between these conflicting objectives. In order to balance this tradeoff in a more desirable manner, a variable-gain controller is proposed, which switches the controller gain based on the magnitude of the patient flow. The effectiveness of the control strategy is demonstrated in experiments on different test lungs.Team DeSchutte
Mechanical ventilation, as a resource for critical care, is a balancing act. Every day physicians, n...
Abstract- This paper presents an optimized controller to achieve better synchrony in human-ventilato...
Closed-loop control of mechanical ventilators could have a positive impact on pre-hospital patient c...
In this paper, we introduce a variable-gain control strategy for mechanical ventilators in the respi...
In this paper, we introduce a switching control strategy for mechanical ventilators in medical respi...
PURPOSE: There is growing interest in the use of both variable and pressure-controlled ventilation (...
Introducing mathematically derived variability (MVV) into the otherwise monotonous conventional mech...
Respiratory modules are medical devices used to assist patients to breathe. The aim of this article ...
Mechanical ventilators sustain life of patients that are unable to breathe on their own. The aim of ...
In this paper, we develop a sliding mode control architecture to control lung volume and minute vent...
Critical care patients are often connected to ventilators, to support or replace their breathing. Th...
The present paper describes the functional features of an advanced lung ventilation system (ALVS) pr...
Abstract: This research focuses on developing an automatic control scheme to maintain a constant pre...
Mechanical ventilation, as a resource for critical care, is a balancing act. Every day physicians, n...
Abstract- This paper presents an optimized controller to achieve better synchrony in human-ventilato...
Closed-loop control of mechanical ventilators could have a positive impact on pre-hospital patient c...
In this paper, we introduce a variable-gain control strategy for mechanical ventilators in the respi...
In this paper, we introduce a switching control strategy for mechanical ventilators in medical respi...
PURPOSE: There is growing interest in the use of both variable and pressure-controlled ventilation (...
Introducing mathematically derived variability (MVV) into the otherwise monotonous conventional mech...
Respiratory modules are medical devices used to assist patients to breathe. The aim of this article ...
Mechanical ventilators sustain life of patients that are unable to breathe on their own. The aim of ...
In this paper, we develop a sliding mode control architecture to control lung volume and minute vent...
Critical care patients are often connected to ventilators, to support or replace their breathing. Th...
The present paper describes the functional features of an advanced lung ventilation system (ALVS) pr...
Abstract: This research focuses on developing an automatic control scheme to maintain a constant pre...
Mechanical ventilation, as a resource for critical care, is a balancing act. Every day physicians, n...
Abstract- This paper presents an optimized controller to achieve better synchrony in human-ventilato...
Closed-loop control of mechanical ventilators could have a positive impact on pre-hospital patient c...