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Ibtihal Sabah Majeed

Research Interests

Pure Mathimatic

Applied Mathematics

Algebra of groups and rings

Numerical analysis

Gender FEMALE
Place of Work Technical Engineering College for Computer and AI / Kirkuk
Department Information Technology Engineering and Networks
Qualification Ph.d
Speciality Computational Mathematics
Email ebtehal.sabah23@ntu.edu.iq
Phone .
Address ., ., Kirkuk, Iraq
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Ibtihal Sabah Majeed received the B.Sc. degree in Mathematics from Computer Science and Mathematics College of Mosul University , Iraq, the M.Sc. in Pure Mathematics from Mosul University, Iraq, and PhD in Computational Mathematics from Mosul University, Iraq, She is working as Lecturer at Northern Technical University.

Languages

Arabic (100%)
English (60%)
Turkish (50%)

Skills

Engaged in scientific research in the fields of Computational and Pure Mathematics (90%)
working experience

Academic Qualification

Bachelor's degree from the University of Mosul
Sep 20, 2011 - Jul 1, 2015

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Master degree from the University of Mosul
Sep 19, 2017 - Dec 29, 2019

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PhD from the University of Mosul
Sep 19, 2021 - Oct 9, 2024

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Publications

Variational Iteration Method for Solving Electrocardiography Inverse Problem
Oct 7, 2023

publisher Slovene Society Informatika

DOI 10.31449/INF.V47I10.5260

Issue 10

Volume 47

In this paper, the variational iteration method is proposed as a solution to an inverse problem in electrocardiography. The aim is to obtain approximate solutions to the model with the lowest error rate. This is crucial in determining the patient's heart activity and facilitating rapid medical intervention. The main challenges in accurately computing clinically relevant maps of cardiac depolarization stem from the ill-posed nature of the continuous problem and the presence of noise in the data. To tackle these difficulties, we have developed regularizing iterative algorithms based on domain decomposition techniques. These algorithms reformulate the inverse problem into several cases, depending on the solution area. This formulation has enabled us to establish a new stopping criterion that is more responsive and accurately reflects the behavior of the error on the non-accessible part of the boundary. The numerical results obtained through the variational iteration method demonstrate that the proposed approach effectively captures the error behavior on the non-accessible boundary. An additional advantage of these approaches is their ability to reduce execution time through their parallelized versions. Thus, we have successfully demonstrated the effectiveness of these methods in terms of quality (accuracy of approximation) and quantitative aspects (computation cost).