Cardiopulmonary exercise testing is a non-invasive method widely used to monitor various physiological signals, describing the cardiac and respiratory response of the patient to increasing workload. Since this method is physically very demanding, innovative data analysis techniques are needed to predict patient response thus lowering body stress and avoiding cardiopulmonary overload. This paper proposes the Cardiopulmonary Response Prediction (CRP) framework for early predicting the physiological signal values that can be reached during an incremental exercise test. The learning phase creates different models tailored to specific conditions (i.e., single test and multiple-test models). Each model can be exploited in the real-time stream prediction phase to periodically predict, during the test execution, signal values achievable by the patient. Experimental results on a real dataset showed that CRP prediction is performed with a limited and acceptable error

Predicting cardiopulmonary response to incremental exercise test / Baralis, ELENA MARIA; Cerquitelli, Tania; Chiusano, SILVIA ANNA; Giordano, Andrea; Mezzani, Alessandro; Susta, Davide; Xiao, Xin. - STAMPA. - 2015-:(2015), pp. 135-140. (Intervento presentato al convegno 28th IEEE International Symposium on Computer-Based Medical Systems, CBMS 2015 tenutosi a University of Sao Paulo, bra nel 2015) [10.1109/CBMS.2015.60].

Predicting cardiopulmonary response to incremental exercise test

BARALIS, ELENA MARIA;CERQUITELLI, TANIA;CHIUSANO, SILVIA ANNA;XIAO, XIN
2015

Abstract

Cardiopulmonary exercise testing is a non-invasive method widely used to monitor various physiological signals, describing the cardiac and respiratory response of the patient to increasing workload. Since this method is physically very demanding, innovative data analysis techniques are needed to predict patient response thus lowering body stress and avoiding cardiopulmonary overload. This paper proposes the Cardiopulmonary Response Prediction (CRP) framework for early predicting the physiological signal values that can be reached during an incremental exercise test. The learning phase creates different models tailored to specific conditions (i.e., single test and multiple-test models). Each model can be exploited in the real-time stream prediction phase to periodically predict, during the test execution, signal values achievable by the patient. Experimental results on a real dataset showed that CRP prediction is performed with a limited and acceptable error
2015
9781467367752
9781467367752
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Utilizza questo identificativo per citare o creare un link a questo documento: https://hdl.handle.net/11583/2630075
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