dc.identifier.citation |
[1] U Rajendra Acharya, Hamido Fujita, Oh Shu Lih, Muhammad Adam, Jen Hong Tan, and Chua Kuang Chua. Automated detection of coronary artery disease using di erent durations of ecg segments with convolutional neural network. Knowledge-Based Systems, 132:62{71, 2017. [2] Ruhi Mahajan, Rishikesan Kamaleswaran, John Andrew Howe, and Oguz Akbilgic. Cardiac rhythm classi cation from a short single lead ecg recording via random forest. In 2017 Computing in Cardiology (CinC), pages 1{4. IEEE, 2017. [3] U Rajendra Acharya, Hamido Fujita, Shu Lih Oh, Yuki Hagiwara, Jen Hong Tan, and Muhammad Adam. Application of deep convolutional neural network for automated detection of myocardial infarction using ecg signals. Information Sciences, 415:190{198, 2017. [4] Naser Safdarian, Nader Jafarnia Dabanloo, and Gholamreza Attarodi. A new pattern recognition method for detection and localization of myocardial infarction using t-wave integral and total integral as extracted features from one cycle of ecg signal. Journal of Biomedical Science and Engineering, 7(10):818, 2014. [5] Muhammad Arif, Ijaz A Malagore, and Fayyaz A Afsar. Detection and localization of myocardial infarction using k-nearest neighbor classi er. Journal of medical systems, 36(1):279{289, 2012. [6] Martin Zihlmann, Dmytro Perekrestenko, and Michael Tschannen. Convolutional recurrent neural networks for electrocardiogram classi- cation. In 2017 Computing in Cardiology (CinC), pages 1{4. IEEE, 2017. [7] Dionisije Sopic, Elisabetta De Giovanni, Amir Aminifar, and David Atienza. Hierarchical cardiac-rhythm classi cation based on electrocardiogram morphology. In 2017 Computing in Cardiology (CinC), pages 1{4. IEEE, 2017. 49 BIBLIOGRAPHY 50 [8] Fernando Andreotti, Oliver Carr, Marco AF Pimentel, Adam Mahdi, and Maarten De Vos. Comparing feature-based classi ers and convolutional neural networks to detect arrhythmia from short segments of ecg. In 2017 Computing in Cardiology (CinC), pages 1{4. IEEE, 2017. [9] Gari D Cli ord, Chengyu Liu, Benjamin Moody, H Lehman Li-wei, Ikaro Silva, Qiao Li, AE Johnson, and Roger G Mark. Af classi cation from a short single lead ecg recording: the physionet/computing in cardiology challenge 2017. In 2017 Computing in Cardiology (CinC), pages 1{4. IEEE, 2017. [10] Terry T. Um, Franz M. J. P ster, Daniel Pichler, Satoshi Endo, Muriel Lang, Sandra Hirche, Urban Fietzek, and Dana Kuli c. Data augmentation of wearable sensor data for parkinson's disease monitoring using convolutional neural networks. In Proceedings of the 19th ACM In- ternational Conference on Multimodal Interaction, ICMI 2017, pages 216{220, New York, NY, USA, 2017. ACM. |
en_US |
dc.description.abstract |
Atrial brillation (AF) is an abnormal heart rhythm that takes place
when electrical impulses re o from multiple places in the atria (the top
chambers of the heart) in a disorganized way. This causes the atria to twitch
and results in an irregular heartbeat or pulse. Atrial brillation is a major
cause of stroke. Atrial Fibrillation is usually screened manually with
the help of Electrocardiodiagram (ECG) reading. Manually reading ECG
is usually a tedious and time-consuming task, which is laden with human
errors. Therefore, an automated process is quintessential. However, discerning
anomaly in heart function using an e cient automated process has been
a challenging task for quite some time. In this paper we propose two intricate
Neural Network architectures for the classi cation amongst four types
of heart condition-Normal, Atrial Fibrillation, Noisy Sinus Rhythm and Alternative
Rhythm, using a dataset from PhysioNet/2017 challenge. Volunteers
in PhysioNet/2017 challenge dataset came from diverse background
and had a wide window of variation in their physical attributes, making
the dataset su ciently reliable. Also, the size of this dataset exceeded any
other before it on this topic, which further adds to the comprehensiveness
of this dataset.Initially, a preprocessing is done on the dataset to make it
more robust and push the accuracy to its edge. We then trained a Deep
Neural Network, which combined feature extraction layers of CNN with
long-short term memory (LSTM). Our method reached a summit accuracy
of 91.19%.The second model just applied a CNN model and the resulting
output reached an accuracy of 84.3% |
en_US |