控制理论(社会学)
心力衰竭
稳健性(进化)
抽吸
心输出量
血流动力学
控制器(灌溉)
心脏病学
计算机科学
生物医学工程
医学
工程类
生物
控制(管理)
农学
人工智能
机械工程
生物化学
基因
作者
Fangqun Wang,Fan Xu,Zhu Feng-lian,Shaojun Wang,Chenyang He,Litao Ding,M Li
标识
DOI:10.1177/03913988241262911
摘要
The main challenges of Biventricular Assist Devices (BiVAD) as a treatment modality for patients with Bicardiac heart failure heart failure are the balance of systemic blood flow during changes in physiological activity and the prevention of ventricular suction. In this study, a model of the Biventricular Circulatory System (BCS) was constructed and a physiological combination controller based on Starling-Like controller and Sliding Mode Controller (SMC) was proposed. The effects of the physiological controller on the hemodynamics of the BCS were investigated by simulating two sets of physiological state change experiments: elevated pulmonary artery resistance and resting-exercise, with constant speed (CS) control and combined Starling-like and PI control (SL-PI) as controllers. Simulation and experimental results showed that the Starling-like and Sliding Mode Control (SL-SMC) physiological combination controller was effective in preventing the occurrence of ventricular suction, providing higher cardiac output, maintain balance of systemic blood flow, and have higher response speed and robustness in the face of physiological state changes.
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