DeepFake electrocardiograms: the key for open science for artificial intelligence in medicine

Research output: Working paperPreprintResearch

Standard

DeepFake electrocardiograms : the key for open science for artificial intelligence in medicine. / Thambawita, V.; Isaksen, Jonas L.; Hicks, S.A.; Ghouse, Jonas; Ahlberg, Gustav; Linneberg, Allan; Grarup, Niels; Ellervik, Christina; Olesen, Morten Salling; Hansen, Torben; Graff, C.; Holstein-Rathlou, N.-H.; Strümke, I.; Hammer, H.L.; Maleckar, M.; Halvorsen, P.; Riegler, M.A.; Kanters, Jørgen K.

2022.

Research output: Working paperPreprintResearch

Harvard

Thambawita, V, Isaksen, JL, Hicks, SA, Ghouse, J, Ahlberg, G, Linneberg, A, Grarup, N, Ellervik, C, Olesen, MS, Hansen, T, Graff, C, Holstein-Rathlou, N-H, Strümke, I, Hammer, HL, Maleckar, M, Halvorsen, P, Riegler, MA & Kanters, JK 2022 'DeepFake electrocardiograms: the key for open science for artificial intelligence in medicine'. https://doi.org/10.1101/2021.04.27.21256189

APA

Thambawita, V., Isaksen, J. L., Hicks, S. A., Ghouse, J., Ahlberg, G., Linneberg, A., Grarup, N., Ellervik, C., Olesen, M. S., Hansen, T., Graff, C., Holstein-Rathlou, N-H., Strümke, I., Hammer, H. L., Maleckar, M., Halvorsen, P., Riegler, M. A., & Kanters, J. K. (2022). DeepFake electrocardiograms: the key for open science for artificial intelligence in medicine. medRxiv https://doi.org/10.1101/2021.04.27.21256189

Vancouver

Thambawita V, Isaksen JL, Hicks SA, Ghouse J, Ahlberg G, Linneberg A et al. DeepFake electrocardiograms: the key for open science for artificial intelligence in medicine. 2022. https://doi.org/10.1101/2021.04.27.21256189

Author

Thambawita, V. ; Isaksen, Jonas L. ; Hicks, S.A. ; Ghouse, Jonas ; Ahlberg, Gustav ; Linneberg, Allan ; Grarup, Niels ; Ellervik, Christina ; Olesen, Morten Salling ; Hansen, Torben ; Graff, C. ; Holstein-Rathlou, N.-H. ; Strümke, I. ; Hammer, H.L. ; Maleckar, M. ; Halvorsen, P. ; Riegler, M.A. ; Kanters, Jørgen K. / DeepFake electrocardiograms : the key for open science for artificial intelligence in medicine. 2022. (medRxiv).

Bibtex

@techreport{0245958241774b4d9224f486e61dcfd3,
title = "DeepFake electrocardiograms: the key for open science for artificial intelligence in medicine",
abstract = "Recent global developments underscore the prominent role big data have in modern medical science. Privacy issues are a prevalent problem for collecting and sharing data between researchers. Synthetic data generated to represent real data carrying similar information and distribution may alleviate the privacy issue.In this study, we present generative adversarial networks (GANs) capable of generating realistic synthetic DeepFake 12-lead 10-sec electrocardiograms (ECGs). We have developed and compare two methods, WaveGAN* and Pulse2Pulse GAN. We trained the GANs with 7,233 real normal ECG to produce 121,977 DeepFake normal ECGs. By verifying the ECGs using a commercial ECG interpretation program (MUSE 12SL, GE Healthcare), we demonstrate that the Pulse2Pulse GAN was superior to the WaveGAN to produce realistic ECGs. ECG intervals and amplitudes were similar between the DeepFake and real ECGs. These synthetic ECGs are fully anonymous and cannot be referred to any individual, hence they may be used freely. The synthetic dataset will be available as open access for researchers at OSF.io and the DeepFake generator available at the Python Package Index (PyPI) for generating synthetic ECGs.In conclusion, we were able to generate realistic synthetic ECGs using adversarial neural networks on normal ECGs from two population studies, i.e., there by addressing the relevant privacy issues in medical datasets.",
author = "V. Thambawita and Isaksen, {Jonas L.} and S.A. Hicks and Jonas Ghouse and Gustav Ahlberg and Allan Linneberg and Niels Grarup and Christina Ellervik and Olesen, {Morten Salling} and Torben Hansen and C. Graff and N.-H. Holstein-Rathlou and I. Str{\"u}mke and H.L. Hammer and M. Maleckar and P. Halvorsen and M.A. Riegler and Kanters, {J{\o}rgen K.}",
year = "2022",
doi = "10.1101/2021.04.27.21256189",
language = "English",
series = "medRxiv",
publisher = "Cold Spring Harbor Laboratory Press",
type = "WorkingPaper",
institution = "Cold Spring Harbor Laboratory Press",

}

RIS

TY - UNPB

T1 - DeepFake electrocardiograms

T2 - the key for open science for artificial intelligence in medicine

AU - Thambawita, V.

AU - Isaksen, Jonas L.

AU - Hicks, S.A.

AU - Ghouse, Jonas

AU - Ahlberg, Gustav

AU - Linneberg, Allan

AU - Grarup, Niels

AU - Ellervik, Christina

AU - Olesen, Morten Salling

AU - Hansen, Torben

AU - Graff, C.

AU - Holstein-Rathlou, N.-H.

AU - Strümke, I.

AU - Hammer, H.L.

AU - Maleckar, M.

AU - Halvorsen, P.

AU - Riegler, M.A.

AU - Kanters, Jørgen K.

PY - 2022

Y1 - 2022

N2 - Recent global developments underscore the prominent role big data have in modern medical science. Privacy issues are a prevalent problem for collecting and sharing data between researchers. Synthetic data generated to represent real data carrying similar information and distribution may alleviate the privacy issue.In this study, we present generative adversarial networks (GANs) capable of generating realistic synthetic DeepFake 12-lead 10-sec electrocardiograms (ECGs). We have developed and compare two methods, WaveGAN* and Pulse2Pulse GAN. We trained the GANs with 7,233 real normal ECG to produce 121,977 DeepFake normal ECGs. By verifying the ECGs using a commercial ECG interpretation program (MUSE 12SL, GE Healthcare), we demonstrate that the Pulse2Pulse GAN was superior to the WaveGAN to produce realistic ECGs. ECG intervals and amplitudes were similar between the DeepFake and real ECGs. These synthetic ECGs are fully anonymous and cannot be referred to any individual, hence they may be used freely. The synthetic dataset will be available as open access for researchers at OSF.io and the DeepFake generator available at the Python Package Index (PyPI) for generating synthetic ECGs.In conclusion, we were able to generate realistic synthetic ECGs using adversarial neural networks on normal ECGs from two population studies, i.e., there by addressing the relevant privacy issues in medical datasets.

AB - Recent global developments underscore the prominent role big data have in modern medical science. Privacy issues are a prevalent problem for collecting and sharing data between researchers. Synthetic data generated to represent real data carrying similar information and distribution may alleviate the privacy issue.In this study, we present generative adversarial networks (GANs) capable of generating realistic synthetic DeepFake 12-lead 10-sec electrocardiograms (ECGs). We have developed and compare two methods, WaveGAN* and Pulse2Pulse GAN. We trained the GANs with 7,233 real normal ECG to produce 121,977 DeepFake normal ECGs. By verifying the ECGs using a commercial ECG interpretation program (MUSE 12SL, GE Healthcare), we demonstrate that the Pulse2Pulse GAN was superior to the WaveGAN to produce realistic ECGs. ECG intervals and amplitudes were similar between the DeepFake and real ECGs. These synthetic ECGs are fully anonymous and cannot be referred to any individual, hence they may be used freely. The synthetic dataset will be available as open access for researchers at OSF.io and the DeepFake generator available at the Python Package Index (PyPI) for generating synthetic ECGs.In conclusion, we were able to generate realistic synthetic ECGs using adversarial neural networks on normal ECGs from two population studies, i.e., there by addressing the relevant privacy issues in medical datasets.

U2 - 10.1101/2021.04.27.21256189

DO - 10.1101/2021.04.27.21256189

M3 - Preprint

T3 - medRxiv

BT - DeepFake electrocardiograms

ER -

ID: 345640397