Modeling and evaluation of biomechanics and hemodynamic based on patient-specific small intracranial aneurysm using fluid-structure interaction

Ma, Zijian; Zhuang, Yijie; Long, Xiaoao; Yu, Bo; Li, Jiawang; Yang, Yan; Yu, Yingxin

doi:10.1016/j.cmpb.2023.107963

Computer Methods and Programs in Biomedicine

2024

DOI: 10.1016/j.cmpb.2023.107963

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Modeling and evaluation of biomechanics and hemodynamic based on patient-specific small intracranial aneurysm using fluid-structure interaction

Zijian Ma,

Yijie Zhuang,

Xiaoao Long

et al.

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Cited by 4 publications

References 57 publications

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Influence of vascular embolism level and drug injection rate on thrombolytic therapy of bifurcated femoral vein: Numerical simulation and validation study

Zhang,

Cheng,

Lin

et al. 2025

Computer Methods and Programs in Biomedicine

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Influence of vascular embolism level and drug injection rate on thrombolytic therapy of bifurcated femoral vein: Numerical simulation and validation study

Zhang,

Cheng,

Lin

et al. 2025

Computer Methods and Programs in Biomedicine

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Histopathology-based near-realistic arterial wall reconstruction of a patient-specific cerebral aneurysm for fluid-structure interaction studies

Alagan,

Valeti,

Bolem

et al. 2025

Computers in Biology and Medicine

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Influence of wall thickness on the rupture risk of a patient-specific cerebral aneurysm: A fluid–structure interaction study

Valeti,

Bolem,

Alagan

et al. 2024

Physics of Fluids

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Cerebral aneurysms are the bulges in arteries that have the potential to rupture, as thin-walled regions of an aneurysm are more vulnerable. Understanding the correlation between the wall thickness and the corresponding wall stresses can facilitate better prediction using fluid–structure interaction tools. However, obtaining the actual in vivo wall thickness variation of the aneurysm dome and neck is vital for an accurate prediction of wall stresses. Invasive methods of obtaining wall thickness variation of an abnormal artery may further aggravate the rupture risk of these aneurysms. Modeling aneurysmal wall thickness reconstruction, closer to the in vivo conditions from the histopathological slices, is an apt approach to follow. To this end, the present study performs a comparative assessment of uniform, variable, and patient-specific wall thickness on the hemodynamic and biomechanical wall stresses. Simulations show that maximum wall stresses for the uniform, variable, and patient-specific wall thickness are 13.6, 27.6, and 48.4 kPa, respectively. The maximum wall displacements for the uniform, variable, and patient-specific wall thickness were observed to be 58.5, 126, and 162 μm, respectively. It is observed that the uniform wall thickness model is conservative and underestimates the risk in the prediction of biomechanical stresses and wall displacements. Thinner wall regions experience higher stress for the same internal pressure than thicker wall regions, indicating regions that are more susceptible to rupture. The generation of a variable wall thickness model was observed to be an apt approach, as patient-specific wall thickness information can only be retrospective in the current scientific scenario.

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Modeling and evaluation of biomechanics and hemodynamic based on patient-specific small intracranial aneurysm using fluid-structure interaction

Cited by 4 publications

References 57 publications

Influence of vascular embolism level and drug injection rate on thrombolytic therapy of bifurcated femoral vein: Numerical simulation and validation study

Influence of vascular embolism level and drug injection rate on thrombolytic therapy of bifurcated femoral vein: Numerical simulation and validation study

Histopathology-based near-realistic arterial wall reconstruction of a patient-specific cerebral aneurysm for fluid-structure interaction studies

Influence of wall thickness on the rupture risk of a patient-specific cerebral aneurysm: A fluid–structure interaction study

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