Summary tables detailing ventilation, haemodynamics, fluid balance, biochemistry and histology can be found in Additional file 1.
In this study, we were unable to evaluate the effects of ventilation rates, because we did not collect detailed information on ventilation practices.
Data on physiological variables were obtained from a computerized patient-data management system (Picis Critical Care Manager, Picis Inc, Wakefield, MA) that prospectively collects a wide range of clinical information, including detailed data on mechanical ventilation, body temperature, blood pressure, and heart rate.
Among the concerns detailed in the report: *Better ventilation is needed because existing equipment can move air only in one direction, so fresh air cannot be pumped into the tunnels as smoke is sucked out.
Pulmonary and extrapulmonary deposition and the penetration index according to both ventilation modes are detailed in Table 3.
Geometric sub-model consisting of details on foot-print, floor height, exposed perimeter and wall area and roof-area; Physics sub-model consisting of details on ventilation and U-values of walls, windows, roof and floors; Usage sub-model consisting of details on the type and use of heating system, heating controls and electrical appliances.
Details of ventilation during anaesthesia are summarized in Table 2.
In detail the ventilation groups were as follows: Vt 5 ml/kg without PEEP (n = 7), Vt 7 ml/kg without PEEP (n = 7), Vt 10 ml/kg without PEEP (n = 6), Vt 5 ml/kg + PEEP (n = 5), Vt 7 ml/kg + PEEP (n = 6), Vt 10 ml/kg + PEEP (n = 7).
The results of these studies are detailed and design recommendations to improve the ventilation of tropical greenhouses are suggested.
Detailed follow-up of pneumonias associated to mechanical ventilation and incidence of accidental extubation (AE).
