TY - JOUR
T1 - Optimal management of the critically Ill
T2 - Anaesthesia, monitoring, data capture, and point-of-care technological practices in ovine models of critical care
AU - Chemonges, Saul
AU - Shekar, Kiran
AU - Tung, John-Paul
AU - Dunster, Kimble R.
AU - Diab, Sara
AU - Platts, David
AU - Watts, Ryan P.
AU - Gregory, Shaun D.
AU - Foley, Samuel
AU - Simonova, Gabriela
AU - McDonald, Charles
AU - Hayes, Rylan
AU - Bellpart, Judith
AU - Timms, Daniel
AU - Chew, Michelle
AU - Fung, Yoke L.
AU - Toon, Michael
AU - Maybauer, Marc O.
AU - Fraser, John F.
PY - 2014/1/1
Y1 - 2014/1/1
N2 - Animal models of critical illness are vital in biomedical research. They provide possibilities for the investigation of pathophysiological processes that may not otherwise be possible in humans. In order to be clinically applicable, the model should simulate the critical care situation realistically, including anaesthesia, monitoring, sampling, utilising appropriate personnel skill mix, and therapeutic interventions. There are limited data documenting the constitution of ideal technologically advanced large animal critical care practices and all the processes of the animal model. In this paper, we describe the procedure of animal preparation, anaesthesia induction and maintenance, physiologic monitoring, data capture, point-of-care technology, and animal aftercare that has been successfully used to study several novel ovine models of critical illness. The relevant investigations are on respiratory failure due to smoke inhalation, transfusion related acute lung injury, endotoxin-induced proteogenomic alterations, haemorrhagic shock, septic shock, brain death, cerebral microcirculation, and artificial heart studies. We have demonstrated the functionality of monitoring practices during anaesthesia required to provide a platform for undertaking systematic investigations in complex ovine models of critical illness.
AB - Animal models of critical illness are vital in biomedical research. They provide possibilities for the investigation of pathophysiological processes that may not otherwise be possible in humans. In order to be clinically applicable, the model should simulate the critical care situation realistically, including anaesthesia, monitoring, sampling, utilising appropriate personnel skill mix, and therapeutic interventions. There are limited data documenting the constitution of ideal technologically advanced large animal critical care practices and all the processes of the animal model. In this paper, we describe the procedure of animal preparation, anaesthesia induction and maintenance, physiologic monitoring, data capture, point-of-care technology, and animal aftercare that has been successfully used to study several novel ovine models of critical illness. The relevant investigations are on respiratory failure due to smoke inhalation, transfusion related acute lung injury, endotoxin-induced proteogenomic alterations, haemorrhagic shock, septic shock, brain death, cerebral microcirculation, and artificial heart studies. We have demonstrated the functionality of monitoring practices during anaesthesia required to provide a platform for undertaking systematic investigations in complex ovine models of critical illness.
UR - http://www.scopus.com/inward/record.url?scp=84899532193&partnerID=8YFLogxK
U2 - 10.1155/2014/468309
DO - 10.1155/2014/468309
M3 - Review Article
C2 - 24783206
AN - SCOPUS:84899532193
SN - 2314-6133
VL - 2014
JO - BioMed Research International
JF - BioMed Research International
M1 - 468309
ER -