Development of a simulation model of a photoplethysmographic signal under psychoemotional stress
A simulation model of a photoplethysmographic signal under psychoemotional stress taking into account the nature of signals of biological origin and stress response stages was developed. The method of constructing the simulation model is based on reconstructing the waveform and coding points of the...
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doaj-50002be182c14c108faf9efb6002947d2021-05-11T13:11:03ZengPC Technology CenterEastern-European Journal of Enterprise Technologies1729-37741729-40612021-04-0129 (110)364510.15587/1729-4061.2021.227001264507Development of a simulation model of a photoplethysmographic signal under psychoemotional stressEvhenia Yavorska0https://orcid.org/0000-0001-6341-1710Oksana Strembitska1https://orcid.org/0000-0002-2200-071XMichael Strembitskyi2https://orcid.org/0000-0002-5713-1672Iryna Pankiv3https://orcid.org/0000-0001-6210-3556Ternopil Ivan Puluj National Technical UniversityTernopil Ivan Puluj National Technical UniversityTernopil Ivan Puluj National Technical UniversityTernopil Ivan Puluj National Technical UniversityA simulation model of a photoplethysmographic signal under psychoemotional stress taking into account the nature of signals of biological origin and stress response stages was developed. The method of constructing the simulation model is based on reconstructing the waveform and coding points of the signal taking into account the stress response curve using harmonic functions at characteristic time intervals. Using the simulation model of the photoplethysmographic signal under psychoemotional stress with previously known parameters allows validation of methods and algorithms for processing such data. It was found that in the process of simulation, it is necessary to take into account the signal frequency, random component and stress response curve. This complicates the simulation algorithm. However, using the simulation model with variable input parameters allows reproducing the signal with an emphasis on stress response stages. One of the features of the proposed model is the ability to reproduce the signal by coding points for amplitude and time intervals using harmonic functions. The relative error for the amplitude variation of the model and experimental data is 3.97 %, and for the period – 3.41 %. Calculation of Student's t-test showed a statistically insignificant difference: p=0.296 for the amplitude and p=0.275 for the period. This indicates that the simulation model takes into account the signal characteristics under stress: frequency, random component and stress response curve. Using the proposed simulation model is an adequate way to assess methods and algorithms for analyzing the state of the cardiovascular system under psychoemotional stresshttp://journals.uran.ua/eejet/article/view/227001harmonic functionsimulation modelperiodic signalpsychoemotional stressphotoplethysmographic signal |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Evhenia Yavorska Oksana Strembitska Michael Strembitskyi Iryna Pankiv |
spellingShingle |
Evhenia Yavorska Oksana Strembitska Michael Strembitskyi Iryna Pankiv Development of a simulation model of a photoplethysmographic signal under psychoemotional stress Eastern-European Journal of Enterprise Technologies harmonic function simulation model periodic signal psychoemotional stress photoplethysmographic signal |
author_facet |
Evhenia Yavorska Oksana Strembitska Michael Strembitskyi Iryna Pankiv |
author_sort |
Evhenia Yavorska |
title |
Development of a simulation model of a photoplethysmographic signal under psychoemotional stress |
title_short |
Development of a simulation model of a photoplethysmographic signal under psychoemotional stress |
title_full |
Development of a simulation model of a photoplethysmographic signal under psychoemotional stress |
title_fullStr |
Development of a simulation model of a photoplethysmographic signal under psychoemotional stress |
title_full_unstemmed |
Development of a simulation model of a photoplethysmographic signal under psychoemotional stress |
title_sort |
development of a simulation model of a photoplethysmographic signal under psychoemotional stress |
publisher |
PC Technology Center |
series |
Eastern-European Journal of Enterprise Technologies |
issn |
1729-3774 1729-4061 |
publishDate |
2021-04-01 |
description |
A simulation model of a photoplethysmographic signal under psychoemotional stress taking into account the nature of signals of biological origin and stress response stages was developed. The method of constructing the simulation model is based on reconstructing the waveform and coding points of the signal taking into account the stress response curve using harmonic functions at characteristic time intervals. Using the simulation model of the photoplethysmographic signal under psychoemotional stress with previously known parameters allows validation of methods and algorithms for processing such data. It was found that in the process of simulation, it is necessary to take into account the signal frequency, random component and stress response curve. This complicates the simulation algorithm. However, using the simulation model with variable input parameters allows reproducing the signal with an emphasis on stress response stages. One of the features of the proposed model is the ability to reproduce the signal by coding points for amplitude and time intervals using harmonic functions. The relative error for the amplitude variation of the model and experimental data is 3.97 %, and for the period – 3.41 %. Calculation of Student's t-test showed a statistically insignificant difference: p=0.296 for the amplitude and p=0.275 for the period. This indicates that the simulation model takes into account the signal characteristics under stress: frequency, random component and stress response curve. Using the proposed simulation model is an adequate way to assess methods and algorithms for analyzing the state of the cardiovascular system under psychoemotional stress |
topic |
harmonic function simulation model periodic signal psychoemotional stress photoplethysmographic signal |
url |
http://journals.uran.ua/eejet/article/view/227001 |
work_keys_str_mv |
AT evheniayavorska developmentofasimulationmodelofaphotoplethysmographicsignalunderpsychoemotionalstress AT oksanastrembitska developmentofasimulationmodelofaphotoplethysmographicsignalunderpsychoemotionalstress AT michaelstrembitskyi developmentofasimulationmodelofaphotoplethysmographicsignalunderpsychoemotionalstress AT irynapankiv developmentofasimulationmodelofaphotoplethysmographicsignalunderpsychoemotionalstress |
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