Safet
y
9
1
Keep Evone away from high capacity transformers, electric motors and other devices which
may create strong electromagnetic fields. Please note that this medical equipment complies
with the requirements of the applicable EMC-standards. Electronic equipment exceeding the
radiation limits defined in the EMC-standards may affect the working of our equipment.
Table 1.2 List of applicable cautions
1.9 References
1
Schmidt, J. et al. Glottic visibility for laryngeal surgery: Tritube vs. microlaryngeal tube:
A randomised controlled trial. Eur J Anaesthesiol 36, 963–971 (2019).
2
Schmidt, J. et al. Improved lung recruitment and oxygenation during mandatory ventilation
with a new expiratory ventilation assistance device: A controlled interventional trial in healthy
pigs.
Eur J Anaesthesiol 35, 736–744 (2018).
3
Spraider, P. et al. Individualized flow-controlled ventilation compared to best clinical practice
pressure-controlled ventilation: a prospective randomized porcine study. Crit Care 24,
662 (2020).
4
Schmidt, J. et al. Flow-Controlled Ventilation Attenuates Lung Injury in a Porcine Model of
Acute Respiratory Distress Syndrome: A Preclinical Randomized Controlled Study.
Crit Care Med 48, e241–e248 (2020).
5
Weber, J. et al. Flow-controlled ventilation (FCV) improves regional ventilation in obese
patients – a randomized controlled crossover trial. BMC Anesthesiology 20, 24 (2020).
6
Weber, J. et al. Flow-controlled ventilation improves gas exchange in lung-healthy
patients— a randomized interventional cross-over study. Acta Anaesthesiologica Scandinavica
64, 481–488 (2020).
7
Barnes, T. & Enk, D. Ventilation for low dissipated energy achieved using flow control during
both inspiration and expiration. Trends in Anaesthesia and Critical Care 24, 5–12 (2019).
8
Barnes, T. et al. Minimisation of dissipated energy in the airways during mechanical
ventilation by using constant inspiratory and expiratory flows - Flow-controlled ventilation
(FCV).
Med. Hypotheses 121, 167–176 (2018).
