Worldwide, almost 1 million infants die each year from respiratory distress.1 With conventional Bubble CPAP therapy, respiratory muscle exhaustion is a major cause of failure.1 Early intervention with non-invasive therapy is the first choice for treatment, but it’s not always successful.
The Seattle PAP plus Bubble CPAP system from Dräger offers a solution for such complications. This patented system is designed to create continuous positive airway pressure and pressure oscillations. The 135° angle in the submersed tube increases the amplitude of oscillations. This provides effects similar to high frequency oscillatory ventilation for improving gas exchange and offers more efficient respiratory support than other methods of non-invasive respiratory support.2, 3 These oscillations are thought to lessen the work required from respiratory muscles, which would make it easier for babies to breathe.1, 5, 6, 7
- Easily adjust CPAP from 4.5 to 10 cm H2O
- Quickly connect the Bubble CPAP system to your choice of BabyFlow® CPAP interface solutions
- Treat patients with the needed masks and prongs in combination with BabyFlow plus
Inadvertent changes in the position of the tube changes the CPAP level – which can cause serious harm to the infant. With the Seattle PAP plus, you select your desired settings by locking the tube in the set position. This unique safety feature avoids accidental changes of CPAP levels.
The Seattle PAP plus is also designed to manage the water level. The peak water level is clearly marked for users not to exceed. There is also a port to attach a water refill bag so there is no therapy interruption.
The Seattle PAP plus system is a complete system packaged together for ease of use and setup. The Babyflow plus is a full system to customize the interface to the exact patient needs supporting better compliance and more positive outcomes with this therapy.
1 Short term evaluation of respiratory effort by premature infants supported with bubble nasal continuous airway pressure using Seattle-PAP and a standard bubble device. PLOS ONE, March 28, 2018, Stephen E. Welty, Craig G. Rusin, Larissa I. Stanberry, George T. Mandy, Alfred L. Gest, Jeremy M. Ford, Carl H. Backes, Jr, C. Peter Richardson, Christopher R. Howard, Thomas N. Hansen, Charles V. Smith
2 Mechanisms of gas transport during ventilation by highfrequency oscillation. J Appl Physiol 1984;56(3):553-563, Chang HK.
3 High-Frequency Oscillatory Ventilation: Theory and Practical Applications, Jane Pillow, Dräger Booklet 9102693 from 2016
4 Effects of condensate in the exhalation limb of neonatal circuits on airway pressure during bubble CPAP. Respir Care. 2013 Nov;58(11):1840-6. doi: 10.4187/respcare.02322. Epub 2013 Mar 12, Youngquist TM1, Richardson CP, Diblasi RM.
5 Bubble CPAP: is the noise important? An invitro study. Pediatr Res 2005;57(6):826-830. Pillow JJ, Travadi JN.
6 A comparison of underwater bubble CPAP with ventilator derived CPAP in premature neonates ready for extubation. Biol Neonate 1998;73(2):69-75, Lee KY, Dunn MS, Fenwick M, Shennan AT.
7 A Study to Evaluate the Efficacy of Seattle-PAP for the Respiratory Support of Premature Infants, ClinicalTrials.gov Identifier: NCT0308532