Optimum anastomosis angle of end-to-side microsurgical anastomosis for preventing future shear-related risk of thrombosis by computational modeling

End-to-side (ETS) microsurgical anastomosis is a powerful technique in microsurgery. It can overcome vessel's diameter discrepancy and preserve the distal blood flow. Optimal angle of the ETS anastomosis has been debated and studied, and is currently limited to animal models. Computational model using Finite Element Analysis (FEA) was used to simulate the models with 45 (model<sub>45</sub>), 90 (model<sub>90</sub>), and 135 (model<sub>135</sub>) ETS anastomosis angles. Flow dynamics including flow velocity and wall shear rate were studied and compared. Maximum flow velocity ranged from the highest to the lowest in model<sub>135</sub>, model<sub>90</sub>, and model<sub>45</sub>, respectively. The velocity in model135 showed fluctuation flow. The maximum wall shear rate and distribution were highest in model<sub>45</sub> and lowest in model<sub>90</sub>. ETS anastomosis angle of 90 degrees provided the most favourable flow dynamics to prevent shear related thrombosis in comparison to ETS anastomosis at 45 and 135 degrees.

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Publication Details

Journal
Scientific Reports
Published
2024-10-28
DOI
https://doi.org/10.1038/s41598-024-77390-x
Citations
1
Primary Topic
Coronary Interventions and Diagnostics
Type
article
Field-Weighted Citation Impact
0.57

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article

Optimum anastomosis angle of end-to-side microsurgical anastomosis for preventing future shear-related risk of thrombosis by computational modeling

Patcharaporn Wongchadakul, Apram Jyot, Kongkrit Chaiyasate, Suphalerk Lohasammakul
1 citations
Scientific Reports
Coronary Interventions and Diagnostics
0.57
article

Optimum anastomosis angle of end-to-side microsurgical anastomosis for preventing future shear-related risk of thrombosis by computational modeling

Patcharaporn Wongchadakul, Apram Jyot, Kongkrit Chaiyasate, Suphalerk Lohasammakul
article en
1 citations

Abstract

End-to-side (ETS) microsurgical anastomosis is a powerful technique in microsurgery. It can overcome vessel's diameter discrepancy and preserve the distal blood flow. Optimal angle of the ETS anastomosis has been debated and studied, and is currently limited to animal models. Computational model using Finite Element Analysis (FEA) was used to simulate the models with 45 (model<sub>45</sub>), 90 (model<sub>90</sub>), and 135 (model<sub>135</sub>) ETS anastomosis angles. Flow dynamics including flow velocity and wall shear rate were studied and compared. Maximum flow velocity ranged from the highest to the lowest in model<sub>135</sub>, model<sub>90</sub>, and model<sub>45</sub>, respectively. The velocity in model135 showed fluctuation flow. The maximum wall shear rate and distribution were highest in model<sub>45</sub> and lowest in model<sub>90</sub>. ETS anastomosis angle of 90 degrees provided the most favourable flow dynamics to prevent shear related thrombosis in comparison to ETS anastomosis at 45 and 135 degrees.

Scientific ReportsVol. 14(1)
Siriraj Hospital (TH), Chulabhorn Hospital (TH), Beaumont Hospital, Royal Oak (US), Corewell Health
Chulabhorn Royal Academy, Thailand Science Research and Innovation
Life below water
Openalex Percentile: Top 28%
Coronary Interventions and Diagnostics
0.57
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Optimum anastomosis angle of end-to-side microsurgical anastomosis for preventing future shear-related risk of thrombosis by computational modeling — Patcharaporn Wongchadakul, Apram Jyot, et al. · Scientific Reports (2024) | TGRS Research Map | TGRS