Biomechanics Assist Measurement, Modeling, Engineering Applications, and Clinical Decision Making in Medicine

Chi, Qingjia; Liu, Pengchao; Liang, Huaping

doi:10.3390/bioengineering10010020

Cited by 2 publications

(2 citation statements)

References 36 publications

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“…This numerical analysis aimed to evaluate how intervertebral disc wear affects the biomechanical response of the neck and spine during a frontal impact. The described biomodels were analyzed by implementing the finite element method, which was used to simulate the behavior of tissues and bone structures [19]. The numerical analysis aimed to provide relevant data for the design of safety measures for players and for injury prevention in individuals with intervertebral disc wear.…”

Section: Maskmentioning

confidence: 99%

Numerical Evaluation Using the Finite Element Method on Frontal Craniocervical Impact Directed at Intervertebral Disc Wear

Trejo-Enriquez,

Urriolagoitia-Sosa,

Romero-Ángeles

et al. 2023

Applied Sciences

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Traumatic cervical pathology is an injury that emerges due to trauma or being subjected to constant impact loading, affecting the ligaments, muscles, bones, and spinal cord. In contact sports (the practice of American football, karate, boxing, and motor sports, among others), the reporting of this type of injury is very common. Therefore, it is imperative to have preventive measures so players do not suffer from such injuries, since bad practices or accidents can put their lives at risk. This research evaluated cervical and skull biomechanical responses during a frontal impact, taking into consideration injury caused by wear on the intervertebral disc. Intervertebral disc wear is a degenerative condition that affects human mobility; it is common in people who practice contact sports and it can influence the response of the cervical system to an impact load. The main objective of this work is to evaluate the effects caused by impact loading and strains generated throughout the bone structure (composed of the skull and the cervical spine). The numerical evaluation was developed using the finite element method and the construction of the biomodel from computational axial tomography. In addition, the numerical simulation allowed us to observe how the intervertebral disc’s wear affected the cervical region’s biomechanical response. In addition, a comparison could be made between a healthy system and a disc that had suffered wear. Finally, the analysis provided information valuable to understanding how an impact, force-related injury can be affected and enabled us to propose better physiotherapeutic procedures.

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Section: Maskmentioning

confidence: 99%

Numerical Evaluation Using the Finite Element Method on Frontal Craniocervical Impact Directed at Intervertebral Disc Wear

Trejo-Enriquez,

Urriolagoitia-Sosa,

Romero-Ángeles

et al. 2023

Applied Sciences

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“…Finally, the paper "Biomechanics Assist Measurement, Modeling, Engineering Applications, and Clinical Decision Making in Medicine" by Chi et al (2023) [61] reports an overview of engineering methods for medicine, with a particular focus on hollow organs and structures. Attention is paid not only to pre-clinical planning of interventions but also to engineering methods for a more rational clinical decision-making process.…”

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confidence: 99%

Biomechanics of Hollow Organs: Experimental Testing and Computational Modeling

Fontanella

Carniel

2023

Bioengineering

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Biomechanics Assist Measurement, Modeling, Engineering Applications, and Clinical Decision Making in Medicine

Abstract: Biomechanical studies of surgeries and medical devices are usually performed with human or animal models [...]

Cited by 2 publications

References 36 publications

Numerical Evaluation Using the Finite Element Method on Frontal Craniocervical Impact Directed at Intervertebral Disc Wear

Numerical Evaluation Using the Finite Element Method on Frontal Craniocervical Impact Directed at Intervertebral Disc Wear

Biomechanics of Hollow Organs: Experimental Testing and Computational Modeling

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