使用开放源代码的详细人体模型对爆炸造成的伤害进行数值研究。

IF 2.2 4区 医学 Q3 ENGINEERING, BIOMEDICAL
Alberto Morena, Lorenzo Peroni, Martina Scapin
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引用次数: 0

摘要

爆炸不仅是爆炸装置造成的威胁,也是气体泄漏或其他事故造成的威胁。数值模型有助于规划短期和长期的应对策略。然而,由于建模的复杂性,标准化的计算框架尚未建立。在这一具有挑战性的背景下,本研究通过使用全人类安全模型(THUMS)对爆炸引起的创伤进行了评估。行人模型是公开的,因此展示其预测爆炸伤害的适用性有助于建立一个通用的建模框架。因此,THUMS 人体模型在自由场和部分密闭空间中暴露于不同的爆炸场景,并对重要器官的反应进行了调查。THUMS 内脏器官的创伤模式与现有的实验数据和伤害阈值一致。总之,THUMS 开放源码人体模型证明了其在再现初级爆炸相关伤害方面的有效性,解决了人体对爆炸反应数值模拟标准化的发展问题。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Numerical Investigation of the Blast-Induced Injuries Using an Open-Source Detailed Human Model.

Blasts are a threat both in military and civil contexts due not only to explosive devices but also to gas leakages or other accidents. Numerical models could aid to plan response strategies in the short and long term. Nevertheless, due to modeling complexities, a standardized computational framework has not been established yet. In this challenging context, the present study assesses the prediction of blast-induced traumas by using the total human model for safety (THUMS) human model, which has never been attempted before to the authors knowledge. The pedestrian model is publicly available, hence the demonstration of its suitability to predict blast injuries could benefit the establishment of a common modeling framework. Therefore, the THUMS human model was exposed to different blast scenarios both in free field and partially confined spaces and the response of vital organs was investigated. Trauma patterns to internal organs of the THUMS were consistent with available experimental data and injury thresholds. In conclusion, THUMS open-source human model demonstrated its validity to reproduce primary blast-related injuries, addressing the development of standardization of numerical simulations of human response to explosions.

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来源期刊
International Journal for Numerical Methods in Biomedical Engineering
International Journal for Numerical Methods in Biomedical Engineering ENGINEERING, BIOMEDICAL-MATHEMATICAL & COMPUTATIONAL BIOLOGY
CiteScore
4.50
自引率
9.50%
发文量
103
审稿时长
3 months
期刊介绍: All differential equation based models for biomedical applications and their novel solutions (using either established numerical methods such as finite difference, finite element and finite volume methods or new numerical methods) are within the scope of this journal. Manuscripts with experimental and analytical themes are also welcome if a component of the paper deals with numerical methods. Special cases that may not involve differential equations such as image processing, meshing and artificial intelligence are within the scope. Any research that is broadly linked to the wellbeing of the human body, either directly or indirectly, is also within the scope of this journal.
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