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In-silico assessment of the dynamic effects of amiodarone and dronedarone on human atrial patho-electrophysiology.
Author: BarthelPetra, DösselOlaf, LoeweAxel, LutzYannick, SchmidtGeorg, ScholzEberhard P, SeemannGunnar, SinneckerDaniel, WilhelmsMathias
Original Abstract of the Article :
The clinical efficacy in preventing the recurrence of atrial fibrillation (AF) is higher for amiodarone than for dronedarone. Moreover, pharmacotherapy with these drugs is less successful in patients with remodelled substrate induced by chronic AF (cAF) and patients suffering from familial AF. To da...See full text at original site
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引用元:
https://doi.org/10.1093/europace/euu230
データ提供:米国国立医学図書館(NLM)
Unraveling the Mysteries of Atrial Fibrillation: A Computational Model
The field of cardiac electrophysiology is vast, like the desert sands, but within it lies a crucial challenge: understanding atrial fibrillation (AF), a common heart rhythm disorder. This research explores the effectiveness of amiodarone and dronedarone, two medications used to prevent AF recurrence, by employing a computational model of atrial electrophysiology. The researchers aimed to uncover the reasons behind the varying efficacy of these drugs, especially in patients with remodeled heart tissue caused by chronic AF (cAF) or familial AF. Their findings have significant implications for developing personalized treatments for AF, which is a significant concern for millions worldwide.
A Computational Approach to Uncovering AF Mechanisms
The computational model analyzed the effects of amiodarone and dronedarone on atrial electrophysiology, shedding light on the complex interactions between these medications and the heart's electrical activity. These findings could pave the way for more precise and targeted treatments for AF, potentially reducing the risk of recurrence and improving the quality of life for patients.
From Desert Sands to Personalized Medicine
This research emphasizes the importance of understanding the individual factors that influence AF treatment efficacy, such as heart tissue remodeling. By utilizing computational models, we can better grasp the intricacies of the heart and develop personalized treatment plans for patients. This approach could be as revolutionary as finding a hidden oasis in the vast desert, providing much-needed relief and hope for patients suffering from AF.
Dr.Camel's Conclusion
This study represents a crucial step forward in understanding the complexities of atrial fibrillation and developing effective treatments. By simulating the heart's electrical activity, researchers can unlock the secrets behind AF recurrence and pave the way for personalized treatments that are tailored to individual patients. This research is like a beacon in the desert, guiding us towards a better understanding of this common heart rhythm disorder.
Date :
- Date Completed 2015-07-01
- Date Revised 2018-12-02
Further Info :
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