In sheep that required assisted ventilation, the Servo ventilator (model 900C, Siemens-Elena; Solna, Sweden) was the most commonly used device.
Given that a high number of asynchronies have been associated with suboptimal ventilator settings such as excessive levels of pressure support or poorly adapted expiratory trigger setting [ 9, 10], this new monitoring tool also offers the opportunity to better adapt ventilator settings during assisted ventilation by providing real-time feedback to intensive care clinicians.
Assisted ventilation by anesthetic machine ventilator was not applied if children could breathe spontaneously.
This phenomenon, commonly called patient-ventilator asynchrony [ 4], is related mainly to the fact that during assisted ventilation, especially during pressure support, ventilator-delivered pressurization does not exactly match the characteristics of patients' inspiratory demand [ 5].
As described above, nurses and physicians screened whether the ventilator could be switched to an assisted ventilation mode.
In case this was seen, the ventilator could be switched to an assisted ventilation mode, or additional sedation was given.
The mode of ventilation was either by manually assisted ventilation or controlled ventilation by anesthetic machine ventilator.
Introduction The ventilator associated pneumonia (VAP) is a common and severe complication of assisted ventilation.
Assisted ventilation is a highly complex process that requires an intimate interaction between the ventilator and the patient.
MV: Mechanical ventilation; NAVA: Neurally adjusted ventilator assist; PAV: Proportional assist ventilation; PSV: Pressure support ventilation; VT: Tidal volume.
Different modes of assisted mechanical ventilation may lead to increased variability of respiratory variables in the clinical practice, most notably proportional assist ventilation (PAV) and neurally adjusted ventilator assist (NAVA).
