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Monday, July 24, between 18:00 CEST and 19:00 CEST
Tuesday, July 25, between 18:00 CEST and 19:00 CEST
Session A Poster Set-up and Dismantle
Session A Posters set up:
Monday, July 24, between 08:00 CEST and 08:45 CEST
Session A Posters dismantle:
Monday, July 24, at 19:00 CEST
Session B Poster Set-up and Dismantle
Session B Posters set up:
Tuesday, July 25, between 08:00 CEST and 08:45 CEST
Session B Posters dismantle:
Tuesday, July 25, at 19:00 CEST
Wednesday, July 26, between 18:00 CEST and 19:00 CEST
Session C Poster Set-up and Dismantle
Session C Posters set up:
Wednesday, July 26,between 08:00 CEST and 08:45 CEST
Session C Posters dismantle:
Wednesday, July 26, at 19:00 CEST
Virtual
Topological Data Analysis and Persistence Theory Applications to Heart Arrhythmia
Track: BioVis
  • Justin Zhang, Bergen County Academies, United States
  • William Song, Bergen County Academies, United States
  • Giacomo Pugliese, Bergen County Academies, United States


Presentation Overview: Show

Our research project utilizes rigorous techniques from topological data analysis, a type of data analysis based on a mathematical field known as algebraic topology and machine learning, to computationally visualize and analyze electrocardiogram (ECG) data of patients with various heart conditions, including Ventricular Tachycardia, Ventricular Flutter, and Ventricular Fibrillation. By leveraging sophisticated analysis tools such as persistent homology and simplicial complexes, including the Vietoris Rips Complex, we obtain a highly precise modeling of the ECG data, enabling us to distinguish between the ECG data of patients suffering from these debilitating illnesses from healthy individuals. Our novel approach involves extracting critical geometric features from the persistence diagrams and images obtained from our persistent homologies of the patient ECG data. These features are then input into an algorithm based on our topological data analysis, enabling us to classify, with virtually complete accuracy, which of these three conditions a patient is suffering from. Our research project represents a key step forward in the field of heart disease diagnosis, potentially offering a non-invasive, highly accurate method for diagnosing the hundreds of thousands of patients suffering from these conditions.