A novel LabVIEW-based multi-channel non-invasive abdominal maternal-fetal electrocardiogram signal generator

This paper describes the design, construction, and testing of a multi-channel fetal electrocardiogram (fECG) signal generator based on LabVIEW. Special attention is paid to the fetal heart development in relation to the fetus' anatomy, physiology, and pathology. The non-invasive signal generato...

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Veröffentlicht in:Physiological measurement 2016-02, Vol.37 (2), p.238-256
Hauptverfasser: Martinek, Radek, Kelnar, Michal, Koudelka, Petr, Vanus, Jan, Bilik, Petr, Janku, Petr, Nazeran, Homer, Zidek, Jan
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container_end_page 256
container_issue 2
container_start_page 238
container_title Physiological measurement
container_volume 37
creator Martinek, Radek
Kelnar, Michal
Koudelka, Petr
Vanus, Jan
Bilik, Petr
Janku, Petr
Nazeran, Homer
Zidek, Jan
description This paper describes the design, construction, and testing of a multi-channel fetal electrocardiogram (fECG) signal generator based on LabVIEW. Special attention is paid to the fetal heart development in relation to the fetus' anatomy, physiology, and pathology. The non-invasive signal generator enables many parameters to be set, including fetal heart rate (FHR), maternal heart rate (MHR), gestational age (GA), fECG interferences (biological and technical artifacts), as well as other fECG signal characteristics. Furthermore, based on the change in the FHR and in the T wave-to-QRS complex ratio (T/QRS), the generator enables manifestations of hypoxic states (hypoxemia, hypoxia, and asphyxia) to be monitored while complying with clinical recommendations for classifications in cardiotocography (CTG) and fECG ST segment analysis (STAN). The generator can also produce synthetic signals with defined properties for 6 input leads (4 abdominal and 2 thoracic). Such signals are well suited to the testing of new and existing methods of fECG processing and are effective in suppressing maternal ECG while non-invasively monitoring abdominal fECG. They may also contribute to the development of a new diagnostic method, which may be referred to as non-invasive trans-abdominal CTG  +  STAN. The functional prototype is based on virtual instrumentation using the LabVIEW developmental environment and its associated data acquisition measurement cards (DAQmx). The generator also makes it possible to create synthetic signals and measure actual fetal and maternal ECGs by means of bioelectrodes.
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Special attention is paid to the fetal heart development in relation to the fetus' anatomy, physiology, and pathology. The non-invasive signal generator enables many parameters to be set, including fetal heart rate (FHR), maternal heart rate (MHR), gestational age (GA), fECG interferences (biological and technical artifacts), as well as other fECG signal characteristics. Furthermore, based on the change in the FHR and in the T wave-to-QRS complex ratio (T/QRS), the generator enables manifestations of hypoxic states (hypoxemia, hypoxia, and asphyxia) to be monitored while complying with clinical recommendations for classifications in cardiotocography (CTG) and fECG ST segment analysis (STAN). The generator can also produce synthetic signals with defined properties for 6 input leads (4 abdominal and 2 thoracic). Such signals are well suited to the testing of new and existing methods of fECG processing and are effective in suppressing maternal ECG while non-invasively monitoring abdominal fECG. They may also contribute to the development of a new diagnostic method, which may be referred to as non-invasive trans-abdominal CTG  +  STAN. The functional prototype is based on virtual instrumentation using the LabVIEW developmental environment and its associated data acquisition measurement cards (DAQmx). 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Such signals are well suited to the testing of new and existing methods of fECG processing and are effective in suppressing maternal ECG while non-invasively monitoring abdominal fECG. They may also contribute to the development of a new diagnostic method, which may be referred to as non-invasive trans-abdominal CTG  +  STAN. The functional prototype is based on virtual instrumentation using the LabVIEW developmental environment and its associated data acquisition measurement cards (DAQmx). 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subjects Abdomen - physiology
Algorithms
Cardiotocography
CTG
Electrocardiography - methods
Female
Fetal Monitoring - methods
Fetus - physiology
fetus' gestational age
Gestational Age
Heart - physiology
Heart Rate, Fetal - physiology
Humans
hypoxic states
modeling ECGs
multi-channel abdominal fECG
non-invasive fECG
Nonlinear Dynamics
Pregnancy
Signal Processing, Computer-Assisted
STAN
title A novel LabVIEW-based multi-channel non-invasive abdominal maternal-fetal electrocardiogram signal generator
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