Indirect lung injury predictive model in experimental trauma
Închide
Conţinutul numărului revistei
Articolul precedent
Articolul urmator
396 4
Ultima descărcare din IBN:
2022-12-15 01:55
Căutarea după subiecte
similare conform CZU
616.24-001-092.9 (1)
Patologia sistemului respirator. Tulburări ale organelor de respiraţie (757)
SM ISO690:2012
ARNAUT, Oleg, GRABOVSCHI, Ion, ŞANDRU, Serghei, ROJNOVEANU, Gheorghe, BALTAGA, Ruslan. Indirect lung injury predictive model in experimental trauma. In: Moldovan Medical Journal, 2021, nr. 2(64), pp. 21-25. ISSN 2537-6373. DOI: https://doi.org/10.52418/moldovan-med-j.64-2.21.04
EXPORT metadate:
Google Scholar
Crossref
CERIF

DataCite
Dublin Core
Moldovan Medical Journal
Numărul 2(64) / 2021 / ISSN 2537-6373 /ISSNe 2537-6381

Indirect lung injury predictive model in experimental trauma

DOI:https://doi.org/10.52418/moldovan-med-j.64-2.21.04
CZU: 616.24-001-092.9

Pag. 21-25

Arnaut Oleg, Grabovschi Ion, Şandru Serghei, Rojnoveanu Gheorghe, Baltaga Ruslan
 
”Nicolae Testemițanu” State University of Medicine and Pharmacy
 
 
Disponibil în IBN: 4 mai 2021


Rezumat

Background: Trauma remains a medical-social problem, still having high lethality rate. Indirect lung injury (ILI) occurs in trauma due to systemic neutrophils activation and proteases release into primarily intact tissues. There are no data in the literature regarding ILI predictive models in trauma. Material and methods: In the experimental study (19 traumatized male rabbits), the proteases, antiproteases and the pulmonary morphological changes, assessed according to the SAMCRS score (Semiquantitative Reflected Qualitative Changes Assessment Scale) were followed. There were used two statistical instruments – correlational analysis and multivariate linear regression. Results: Initially, a correlational analysis between the values of the SAMCRS score and the proteases/ anti proteases was performed. The null hypothesis was rejected (F = 7.017, p = .002). The correlation coefficient of the predicted results and the real values of SAMCRSlungs was .854, the determination coefficient being .626. The final model included the following parameters: constant (B = 9.427; 95% CI 7.341, 11.513; p <.001); α2-macroglobulin0 (B = -4.053; 95% Cl -6.350, -1.757; p = .002); AEAMP0 (B = .002; 95% CI .000, .004; p = .075); AEAMP24 (B = -. 006; 95% CI -.010, -.002; p = .003); AECG2 (B = .081; 95% CI .040, .122; p = .001); AEE0 (B = -. 026; 95% CI -.040, -.011; p = .002). Conclusions: In this research, a predictive model for indirect lung injury in experimental trauma was developed, the predictors being some elements of the proteases/antiproteases system. This, in turn, allows the hypotheses emission regarding the pathophysiology, prophylaxis and treatment of ILI.

Cuvinte-cheie
trauma, indirect lung injury, predictive model