Numerical and Clinical Analysis of an Eyeball Injuries under Direc Impact

Mateusz Koberda; Andrzej Skorek; Paweł Kłosowski; Marcin Adam Zmuda Trzebiatowski; Krzysztof Żerdzicki; Paweł Lemski; Urszula Stodolska-Koberda

doi:10.13075/ijomeh.1896.01913

Numerical and Clinical Analysis of an Eyeball Injuries under Direc Impact

Abstrakt

Objectives: The objective of this study was to develop a numerical model of the eyeball and orbit to simulate a blunt injury to the eyeball leading to its rupture, as well as to conduct a comparative analysis of the results obtained using the finite element method against the clinical material concerning patients who had suffered an eyeball rupture due to a blunt force trauma. Material and Methods: Using available sclera biometric and strength data, a numerical model of the eyeball, the orbital contents, and the bony walls were developed from the ground up. Then, 8 different blunt force injury scenarios were simulated. The results of numerical analyses made it possible to identify possible locations and configurations of scleral rupture. The obtained results were compared against the clinical picture of patients hospitalized at the Department of Ophtalmology, Medical University of Gdańsk in 2010–2016 due to isolated blunt force trauma to the eyeball. Results: It has been demonstrated that the extent of damage observed on the numerical model that indicated a possible location of eyeball rupture did not differ from the clinically observed configurations of the scleral injuries. It has been found that the direction of the impact applied determines the location of eyeball rupture. Most often the rupture occurs at the point opposite to the clock-hour/positions of the impact application. The eyeball rupture occurs in the first 7–8 ms after the contact with the striking rigid object. It has been established that the injuries most often affected the upper sectors of the eyeball. Men are definitely more likely to sustain such injuries. Eyeball ruptures lead to significant impairment of visual acuity. Conclusions: This study may contribute to a better understanding of injury mechanisms and better treatment planning. It may also contribute to the development of eyeball protection methods for employees exposed to ocular injuries.

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Autorzy (7)

Mateusz Koberda dr med.
Andrzej Skorek dr hab. med.
Paweł Kłosowski prof. dr hab. inż.
Marcin Adam Zmuda Trzebiatowski (dawniej: Marcin Zmuda Trzebiatowski) dr inż.
Krzysztof Żerdzicki dr inż.
Paweł Lemski lek. med.
Urszula Stodolska-Koberda lek. med.

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Wersja publikacji: Accepted albo Published Version
DOI:: Cyfrowy identyfikator dokumentu elektronicznego (otwiera się w nowej karcie) 10.13075/ijomeh.1896.01913
Licencja: otwiera się w nowej karcie

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Słowa kluczowe

TRAUMA, NUMERICAL MODEL, FINITE ELEMENT METHOD, BLUNT FORCE TRAUMA, EYEBALL RUPTURE, EYE PROTECTION

Informacje szczegółowe

Kategoria:

Publikacja w czasopiśmie

Typ:

artykuły w czasopismach

Opublikowano w:

International Journal of Occupational Medicine and Environmental Health nr 36, strony 263 - 273,
ISSN: 1232-1087

Język:

angielski

Rok wydania:

2023

Opis bibliograficzny:

Koberda M., Skorek A., Kłosowski P., Zmuda Trzebiatowski M., Żerdzicki K., Lemski P., Stodolska-Koberda U.: Numerical and Clinical Analysis of an Eyeball Injuries under Direc Impact// International Journal of Occupational Medicine and Environmental Health -Vol. 36,iss. 2 (2023), s.1-11

DOI: