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Artificial Intelligence in Health                                     ML models for heartbeat classification



            noise injection, alongside Pearson correlation and p-values,   Methodology: Marc Nshimiyimana, Jovial Niyogisubizo
            to enhance the classification performance to meet the level   Writing – original draft: All authors
            of 12-lead ECG analysis, which is considered the most   Writing – review & editing: All authors
            accurate analysis in clinical settings. Notably, the XGBoost
            method demonstrated exceptional performance, achieving   Ethics approval and consent to participate
            high accuracy in heartbeat classification. Conversely, NB   Not applicable.
            displayed suboptimal classification capabilities among
            the investigated models. The conclusions of this study are   Consent for publication
            summarized as follows:                             Not applicable.
            1.  Introducing FT-based feature extraction and
               Gaussian noise regularization substantially improved   Availability of data
               the  performance  and  robustness of  ECG  heartbeat
               classification models.                          The code and data related to this study, along with more
            2.  The findings provided valuable insights into the   technical  details,  can  be  found  here:  https://github.com/
               comparative performance of various ML algorithms,   jovialniyo93/heartbeat-classification-with-machine-models.
               assisting researchers and clinicians in selecting   Further disclosure
               the most appropriate model for specific healthcare
               applications.                                   We confirm that this work is the result of a collaborative
            3.  The FT technique enabled effective capture of   effort among three researchers, offering diverse perspectives,
               frequency-domain  information  that  is  critical  for   including AI in health and the application of ML to real-
               accurate heartbeat classification, thereby enhancing   world  problems.  The contributions  have been  significant,
               the models’ diagnostic capabilities.            enhancing expertise in the field and building on our previous
            4.  Controlled Gaussian noise injection during training   publication on predicting red wine quality using novel
               proved beneficial for model generalization in real-  ML methods. The first author (M.N.) is a Master’s student
               world scenarios.                                at the Southeast University with expertise in applying
            5.  Our findings demonstrated the potential of ML   AI, particularly ML algorithms to civil and geotechnical
               in advancing cardiac healthcare monitoring and   engineering fields. The third author, who is a Ph.D. student
               classification, offering practical tools for more accurate   at the Southeast University specializing in infrastructure
               and reliable ECG-based diagnoses.               resilience, project management, and risk management
                                                               (J.D.N.), contributed his perspectives to the present work.
              The study’s primary limitations are the requirements
            of advanced deep learning models and larger and diverse   References
            datasets to improve ECG heartbeat classification accuracy
            and robustness. To address these limitations, future   1.   Periyaswamy  T,  Balasubramanian  M.  Ambulatory  cardiac
            research should prioritize the exploration of deep learning   bio-signals: From mirage to clinical reality through a decade
                                                                  of progress. Int J Med Inform. 2019;130:103928.
            architectures and the acquisition of more comprehensive
            and varied datasets, which will ensure the reliability and      doi: 10.1016/j.ijmedinf.2019.07.007
            real-world applicability of the model in clinical settings.  2.   Siontis KC, Noseworthy PA, Attia ZI, Friedman PA. Artificial
                                                                  intelligence-enhanced electrocardiography in cardiovascular
            Acknowledgments                                       disease management. Nat Rev Cardiol. 2021;18(7):465-478.
            None.                                                 doi: 10.1038/s41569-020-00503-2

            Funding                                            3.   Goudis CA, Konstantinidis AK, Ntalas IV, Korantzopoulos P.
                                                                  Electrocardiographic abnormalities and cardiac arrhythmias
            None.                                                 in chronic obstructive pulmonary disease.  Int  J  Cardiol.
                                                                  2015;199:264-273.
            Conflict of interest                                  doi: 10.1016/j.ijcard.2015.06.096
            The authors declare no conflicts of interest.      4.   Teymouri N, Mesbah S, Navabian SMH, et al. ECG frequency
                                                                  changes in potassium disorders: A narrative review. Am J
            Author contributions                                  Cardiovasc Dis. 2022;12(3):112.
            Conceptualization: Jovial Niyogisubizo             5.   Faruk N, Abdulkarim A, Emmanuel I, et al. A comprehensive
            Formal analysis: Jovial Niyogisubizo, Marc Nshimiyimana  survey on low-cost ECG acquisition systems: Advances
            Investigation: Marc Nshimiyimana, Jovial Niyogisubizo  on design specifications, challenges and future direction.


            Volume 1 Issue 4 (2024)                         70                               doi: 10.36922/aih.3543
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