Freevent XtraCare Mini

Tracheostomised children have a high risk of respiratory infections^1,2,3. This is due to the naturally protective oral and nasal passages being bypassed, allowing microorganisms into the lower airways more easily. Also, the use of a tracheostomy tube can irritate the mucosa of the trachea, further increasing infection risk^3,4. 

Freevent XtraCare Mini was designed to give children extra protection and can be used both day and night. It helps to protect your child through effective filtration of inhaled air as well as their direct surroundings by effective filtration of the exhaled air*.

Filtration of bacteria > 99 %*⁵

Filtration of viruses > 99 %*⁶

Humidification and filtration are lost after a tracheostomy

A tracheostomy bypasses the upper airways, which means that the important humidification and filtration functions are largely lost. Combining a Heat and Moisture Exchanger (HME) with a filter not only provides good humidification but also effective filtration of airborne particles, for daily protection.

Freevent XtraCare Mini does just that. It’s a Heat and Moisture Exchange Filter (HMEF) that combines an HME with highly effective filtration, and provides your child with protection against airborne particles, such as viruses, bacteria and pollen.

• Effective filtration of bacteria >99%*
• Effective filtration of viruses >98% *
• Good humidification
• Compact design, tailored for pediatric patients
• Available in three different colors
• If supplemented oxygen is needed, Freevent XtraCare mini can be combined with Freevent O₂ Adaptor Mini
  

Meet Tom

When Tom was 8 months old, he was tracheostomized because of an overgrowth syndrome. As a result of this syndrome, his tongue is very large, and his tongue base can block the airway when he sleeps. Thanks to the tracheostomy tube, this blockage is bypassed.

*Please note: Since pathogens can enter and leave the human body in other ways, (such as the mouth, nose, and eyes), Freevent XtraCare Mini can never guarantee complete protection. Please read the Instructions for Use for guidance.

References:

1) Gipsman A, Prero M, Toltzis P, Craven D. Tracheobronchitis in children with tracheostomy tubes: Overview of a challenging problem. Pediatr Pulmonol. 2022.

2) Niederman MS , Ferranti RD , Zeigler A , Merrill WW , Reynolds HY . Respiratory infection complicating long-term tracheostomy. The implication of persistent gram-negative tracheobronchial colonization . Chest . 1984 ; 85 ( 1 ): 39 – 44.

3) Cline JM, Woods CR, Ervin SE, Rubin BK, Kirse DJ. Surveillance tracheal aspirate cultures do not reliably predict bacteria cultured at the time of an acute respiratory infection in children with tracheostomy tubes. Chest. 2012;141(3):625-31.

4) Griffith TE, Friedberg SA. Histologic changes in the trachea following laryngectomy. Ann Otol Rhinol Laryngol. 1964;73:883-92.

5) Nelson Laboratories, Bacterial Filtration Efficiency (BFE) GLP Report, Salt Lake City, USA. Available on request from Atos Medical. www.atosmedical.com. 2020.

6) Nelson Laboratories, Viral Filtration Efficiency (VFE) GLP Report, Salt Lake City, USA. Available on request from Atos Medical www.atosmedical.com. 2020.