Tracheostomy In Operating Room Research Articles

Creation of an Open Bedside Tracheostomy Program at a Community Hospital With a Single Surgeon.

To assess the adverse event rate and operating cost of open bedside tracheostomy (OBT) at a community hospital. To present a model for creating an OBT program at a community hospital with a single surgeon. Retrospective case series pilot study. Academic-affiliated community hospital. Retrospective chart review of surgical OBT and operating room tracheostomy (ORT) at a community hospital from 2016 to 2021. Primary outcomes included operation duration; perioperative, postoperative, and long-term complications; and crude time-based estimation of operating cost to the hospital using annual operating cost. Clinical outcomes of OBT were assessed with ORT as a comparison using ttests and Fisher's exact tests. Fifty-five OBT and 14 ORT were identified. Intensive care unit (ICU) staff training in preparing for and assisting with OBT was successfully implemented by an Otolaryngologist and ICU nursing management. Operation duration was 20.3 minutes for OBT and 25.2 minutes for ORT (p = .14). Two percent, 18%, and 10% of OBT had perioperative, postoperative, and long-term complications, respectively; this was comparable to rates for ORT (p = .10). The hospital saved a crude estimate of $1902 in operating costs per tracheostomy when performed in the ICU. An OBT protocol can be successfully implemented at a single-surgeon community hospital. We present a model for creating an OBT program at a community hospital with limited staff and resources.

Cricoid Palpability as a Selection Criterion for Bedside Tracheostomy

To prospectively evaluate the significance of cricoid cartilage palpability as a selection criterion for bedside tracheostomy and to prospectively compare a cohort of patients undergoing bedside tracheostomy with another cohort receiving operating room tracheostomy. Prospective trial comparing 2 cohorts of patients receiving tracheostomies at a tertiary care center (university hospital). In all, 220 consecutive intubated patients selected for elective tracheostomy were enrolled. Of them, 134 patients had palpable cricoid cartilage and underwent open surgical tracheostomy at the bedside. The remaining 68 patients received open surgical tracheostomies in the operating room. Demographic data, patient anatomic features, and perioperative complications were prospectively recorded. There were no statistically significant differences in age, gender, reason for admission, indication for tracheostomy, Acute Physiology and Chronic Health Evaluation II score, number of days intubated, or time required to perform the procedure for those patients whose tracheostomies were performed in the operating room versus the intensive care unit. Patients with a palpable cricoid cartilage had a significantly reduced perioperative complication rate compared with those without a palpable cricoid cartilage (2% vs 22%, P < 0.001). Comparison of cervical girth, mental-to-sternum distance, and thyroid-notch-to-sternum distance showed no significant difference between the 2 groups and did not further define selection criteria. This investigation prospectively confirms the safety of bedside tracheostomy placement in properly selected patients. Complication incidences are defined for open surgical tracheostomy at the bedside and in the operating room. Palpability of the cricoid cartilage has significant value as a selection criterion for bedside tracheostomy. These findings will aid in the development of protocols and pathways for surgical airway management in critically ill patients to maximize cost-effective, high-quality care.

Safety of pediatric bedside tracheostomy in the intensive care unit.

Elective bedside pediatric tracheostomies in the intensive care unit have not been widely reported. Unlike in the adult population, this is not yet considered a safe or routine procedure in the pediatric population. We performed a preliminary study suggesting that bedside pediatric tracheostomies can be done safely and at reduced cost. Retrospective medical chart review. Tertiary care referral center at a single university hospital. Fifty-seven patients, ranging in age from 15 days to 8 years. Thirty operating room tracheostomies and 27 bedside tracheostomies were performed during a 6-year period. The mean age of the patients was 20.5 months, with no significant age difference between the 2 groups. The top 3 diagnoses necessitating tracheostomy were laryngotracheal disorders (18 patients [32%]), bronchopulmonary dysplasia (9 [16%]), and neurologic disorders (6 [11%]). Tracheostomy. The initial 48-hour postoperative period was examined to compare complication rates between groups. Overall, the 2 groups had similar complication rates (chi(2) = 0.12; P =.73). The operating room group had 3 complications (10%) related to bleeding, infection, and pneumothorax. The bedside group had 2 complications (7%), both involving pneumothorax. Each operating room tracheostomy incurred charges totaling $1693 vs $235 for each bedside tracheostomy. Historically, pediatric tracheostomy has been viewed as a technically demanding procedure with a high complication rate, thus encouraging routine operating room use. We found that pediatric tracheostomy performed in the intensive care unit, with attention to prudent patient selection and adherence to consistent, sound techniques, was as safe as operating room tracheostomy.