MICROCUFF* Adult Endotracheal Tubes feature an advanced micro-thin polyurethane cuff, virtually eliminating the formation of channels typically found in PVC cuffs. This provides a superior tracheal seal proven to reduce leakage of potentially infectious secretions.1
MICROCUFF* Pediatric Endotracheal Tubes, designed specifically for the pediatric anatomy, offer the advantages of a cuffed tube, while reducing re-intubation rates and tracheal trauma.2
MICROCUFF* Subglottic Suctioning Endotracheal Tube
RINSE. SUCTION. CLEAR.
Combining more effective subglottic suctioning with our advanced BALLARD* polyurethane cuff technology, you can finally provide the BEST protection against microaspirtion. MICROCUFF* Subglottic Suctioning Endotracheal Tubes are proven to be more effective at preventing and clearing clogs. Now you no longer have to struggle to make subglottic suctioning actually work!5,7,8
Finally, a Clear Change to Subglottic Suctioning
Using a subglottic suctioning endotracheal tube can cause clogged lumens. This makes it difficult and sometimes impossible to clear out using air bolus.
THE NEED FOR CHANGE WAS CLEAR. THE STRUGGLE WITH CLOGS IS OVER.
3 Simple Steps: Rinse. Suction. Clear.
MICROCUFF* Subglottic Suctioning ETT enables the safe use of saline rinsing to effectively clear clogs.7,9
- Suction lumens clog up to 44% of the time -preventing effective suctioning of secretions.9
- Saline rinsing is more effective than air bolus at loosening and clearing clogged suction lumens.9
- The suction valve with integrated rinse port enables both suctioning and saline rinsing, without opening the suction circuit, preventing cross-contamination to both caregiver and patient.7
Suctions Secretions More Effectively and Efficiently…with a Push of a Button
- When clogged lumens prevent effective suctioning, subglottic secretions are known to accumulate up to 13mL per hour, increasing the risk of microaspiration.2
- With reports of suctioning dysfunction as high as 48% due to clogs,1,2 suctioning is inconsistent.
A Clear Change for Clearly Superior Results
- A polyurethane cuff reduces channel formation, minimizing cuff leakage and enabling the use of saline6.
- Polyurethane cuffs prevent fluid leakage, demonstrating 93% less mircroaspiration than TaperGuardtm Evac ETT.7
- Because saline rinsing is more effective than air bolus at clearing clogs, subglottic secretions are suctioned more effectively9.
MICROCUFF* Adult Endotracheal Tube
Provides A Superior Tracheal Seal (3,4) … Proven to Reduce Leakage
Micro-aspiration of potentially infectious secretions through gaps in the endotracheal tube cuff is known to be a leading cause of VAP1. The cuff seal is the final barrier that protects the lungs from aspiration of potentially infectious pharyngeal secretions. When intubated, conventional high volume, low pressure (HVLP) PVC cuffs create channels that permit fluid to leak through the cuff and into the lungs.
MICROCUFF* features an advanced microthin polyurethane cuff, allowing channels to “self-seal” for increased protection against fluid leakage:
- Polyurethane (10 microns) cuff membranes are substantially thinner than conventional PVC cuffs (50-80 microns)
- Provides an effective seal at low cuff pressure
- Designed for better contact with tracheal contour
- Allows for greater visualization of vocal cords when cuff is deflated
- Puncture strength is almost double compared to conventional2
- Burst pressure is more than double compared to conventional2
The better the seal, the less micro-aspiration, the lower the risk of VAE and VAP.
“In conclusion, our in-vitro experiments show the recently introduced MICROCUFF* tube cuff to be the only one of the tested HVLP endotracheal tube cuffs that effectively prevents fluid leakage around the tracheal tube when cuff pressure was set to 30 cm H2O or less.”
-Dullenkopf, et al. Intensive Care Medicine, 2003
MICROCUFF* Pediatric Endotracheal Tube
A new standard for pediatric airway management
MICROCUFF* Pediatric Endotracheal Tubes, designed specifically for the pediatric anatomy, offer the advantages of a cuffed tube, reducing tracheal trauma and providing a sealed airway that allows minimal and low flow anesthesia use.1 Its short and cylindrical cuff membrane compensates for different sized and shaped pediatric airways, reducing the need for replacing oversized tracheal tubes, and resulting in lower re-intubation rates.1
Designed for ideal anatomical cuff placement
- Advanced microthin polyurethane material (10 microns) permits a true high volume, low pressure (HVLP) cuff, effectively sealing at an average of 11 cm H201, about half the pressure of conventional tubes
- Anatomically-based intubation depth mark results in correct placement and a cuff-free subglottic zone2
- Precision bands facilitate and confirm optimal tube placement
Offers the advantages of a cuffed tube with a NEW level of safety
- Seal with a cuff membrane in the trachea, instead of rigid tube shaft in the cricoids
- Low rate of re-intubation1, as MICROCUFF* reduces need to replace oversized tracheal tubes, resulting in less patient trauma, time and material costs
- Reduced risk of aspiration of blood and secretions due to improved seal
- Sealing with a cuff compensates for different sized and shaped airways
1 Dullenkopf KA. Gerber AC, Weiss M. Fluid leakage past tracheal tube cuffs: evaluation of the new MICROCUFF* endotracheal tube. Intensive Care Medicine. 2003; 29:1849-1853.
2 Dullenkopf KA. Gerber AC, Weiss M. Fit and seal characteristic of a new pediatric tracheal tube with a high volume-low pressure polyurethane cuff. Acta Anaesthesiol Scand. 2005;49:232-237.
1. Dragoumanis, et. al Investigating the Failure to Aspirate subglottic secretions with
EVAC Endotracheal Tube Oct 2007.
2. DePew, et. al Subglottic Secretion Drainage: A Literature Review AACN V18N4 2007.
3. ATS Guidelines for the management of adults with HA, VA, and HCA Pneumonia Dec 2004.
4. Ricard, et. Al Influence of tracheal suctioning systems on health care workers’ gloves and equipment
contamination: A comparison of closed and open systems, 2011 Association for Professionals in Infection
Control and Epidemiology.
5. Freytag C.C., Thies F.L., Konig W., Welte, T. Infection, Clinical and Epidemiological Society. 31-2003-No.1.
6. Lorente, et. al, Influence of an Endotracheal Tube with polyurethane cuff and subglottic secretion drainage
on Pneumonia, May 2007.
7. Data on file 510K Clearance K120985.
8. Data on file. Directions for Use for the Halyard MICROCUFF Subglottic Suctioning Endotracheal Tube.
9. Data on file #R151219. Evaluation of Fluid Leakage Past Tracheal Tube Cuffs: Effects of Tracheal Size
and Cuff Pressure.
10. TaperGuard™ EVAC EET Directions for Use (2011).
11. S. Mehta and HM Myat. The cross-sectional shape and circumference of the human trachea. Annals of
the Royal College of Surgeons of England, 1984; 66: 356-358 & NT Griscom, B Wohl.
1 Chastre J, Fagon J. Ventilator-associated pneumonia. Crit Care Med. 2002; 165: 867-903.
2 Data on file. Roswell, GA, KCWW.
3 CDC. Guidelines for Preventing Health-Care-Associated Pneumonia, 2003. Recommendations of the CDC and the Healthcare Infection Control Practices Advisory Committee. MMWR 2004;53 (No. RR-3).
4 Rello J, Ollendorf DA, Oster G, Vera-Llonch M, Bellm L, Redman R, et al. Epidemiology and outcomes of ventilator-associated pneumonia in a large US database. Chest. 2002;122(6):2115-21.