On Supporting the Learning of Biomechanics Using Multidisciplinary Physical Prototyping

Sébastian Hernandez, S. Achiche, Daniel Spooner, A. Vadean, M. Raison
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Abstract

Over the last decades, the use of multibody dynamics in biomechanics research has grown considerably and holds significant promises for the health and biomedical industries. Nowadays, it allows estimating internal data of the body that would be impractical or impossible to obtain experimentally, e.g. individual muscle forces. Also, multibody dynamics simulation allows one to constrain virtually any apparatus to the musculoskeletal system, helping to understand and improve the patient’s dynamic interactions with the device. The modeling and validation of human multibody models remain a tedious task to achieve for the research community and can vary significantly depending on the applications. Despite the advantages offered by the multibody modeling of the human body, its introduction in the biomedical engineering curriculum is not widespread. The present paper aims to evaluate the feasibility and the interest of introducing multibody modeling into multidisciplinary, real-world projects using 3D printed prototypes to add an experimental understanding of the difficulties and validation of the human body modeling. The proposed methodology is based on a literature review of the multibody dynamics teaching methods used in mechanical engineering, followed by a first pilot project and feedback from students and professors of the community through interviews. Finally, a project is proposed, using physical prototyping to support the learning.
运用多学科物理原型技术支持生物力学的学习
在过去的几十年里,多体动力学在生物力学研究中的应用得到了长足的发展,并为健康和生物医学行业带来了巨大的前景。如今,它可以估计身体的内部数据,这些数据在实验中是不切实际或不可能获得的,例如单个肌肉的力量。此外,多体动力学模拟允许人们约束几乎任何装置到肌肉骨骼系统,帮助理解和改善患者与设备的动态相互作用。人体多体模型的建模和验证对于研究界来说仍然是一项繁琐的任务,并且根据应用的不同会有很大的不同。尽管人体多体建模提供了优势,但在生物医学工程课程中引入人体多体建模的情况并不普遍。本文旨在评估使用3D打印原型将多体建模引入多学科,现实世界项目的可行性和兴趣,以增加对人体建模困难和验证的实验理解。提出的方法是基于对机械工程中使用的多体动力学教学方法的文献综述,随后是第一个试点项目,并通过访谈从学生和社区教授那里获得反馈。最后,提出了一个项目,使用物理原型来支持学习。
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