Tracheocutaneous Fistula Research Articles

Management of Pediatric Tracheocutaneous Fistulae.

Pediatric tracheocutaneous fistulae are best managed initially with secondary closure techniques. This procedure can be performed twice before significant further evaluation should be undertaken. Further studies are still needed with larger patient volumes to power management minutiae for pediatric tracheocutaneous fistulae.

Revision of the Retracted Posttracheostomy Scar by Anatomical Restoration; Four Layer Closure

AbstractMost tracheostomy scars are depressive and adherent to the underlying trachea, which causes up and down movement when swallowing. This tracheocutaneous tethering causes discomfort, pain, dysphagia, and bad appearance. A tracheocutaneous fistula may be accompanied. Here, we present a new method for reconstructing a tracheostomy scar deformity with tracheocutaneous tethering: layer-by-layer restoration of the anatomical structure with a subcutaneous fat tissue blanket. The scar tissue was fully excised, with the associated skin and subcutaneous tissue. The bilateral strap muscles around the scar were dissected proximally and distally and approximated to the midline, secured without tension. Bilateral platysma muscle flaps cover them firmly. The subcutaneous tissue around the incision margin, which included the superficial cervical fascia was elevated to form a fat blanket, closed transversely. The skin was closed after confirming the absence of retraction upon swallowing. From 2010 to 2018, 10 patients with tracheocutaneous tethering and one patient with tracheocutaneous fistula underwent surgery. All patients were functionally and aesthetically satisfied with the results. The only complication was a hypertrophic scar in one patient, which was managed with a triamcinolone injection. An anatomical layer-by-layer restoration with a fat blanket provided consistent, satisfying results for correcting tracheostomy scar deformities without using additional tissue. This simple method was effective for reconstructing tracheocutaneous tethering.

Perioperative management of tracheocutaneous fistula closure: a narrative review

Perioperative management of tracheocutaneous fistula closure: a narrative review

Closing the Gap: Exploring the Role of Cap Grafts in Tracheocutaneous Fistula Closure.

Exploring the Role of Cap Grafts in tracheocutaneous fistula Closure. A tracheocutaneous fistula (TCF) is an abnormal connection that forms between the trachea (windpipe) and the skin of the neck. If spontaneous closure does not occur, fibrosis of the surrounding tissue may result in a persistent TCF and in some cases, iatrogenic laryngotracheal stenosis at the level of tracheostoma, the so-called A-frame deformity. In all 5 patients, Conchal cartilage was harvested. The new de-epithelialized stoma is measured, and the previously harvested graft is cut to match the defect. Passing through the centre of the tracheal cartilage and into the centre of the auricular cartilage graft, 3-0 PDS, horizontal mattress sutures are placed sequentially around the periphery of the graft, stabilised with Right SCM flap and skin was closed in layers. In each of the five cases, we achieved a resounding success by skilfully closing the fistulas and meticulously restoring the structural integrity. Equally noteworthy, all patients expressed contentment with the cosmetic outcomes at both the donor site and the neck region, deeming it as an acceptable aesthetic result.

Pediatric Tracheotomy Stomal Maturation and Tracheocutaneous Fistulas.

The purpose of this study is to determine whether tracheostomy stomal maturation affects the risk of tracheocutaneous fistula (TCF) in children. A retrospective chart review was conducted for all children who both underwent a tracheostomy and were decannulated between 2012 and 2021 at a tertiary children's hospital. Charts were analyzed for demographics, surgical technique, and development of a TCF. TCF was defined as a persistent fistula following 3 months after decannulation. 179 children met inclusion criteria. The median (interquartile range) age at tracheostomy was 1.5 (82.4) months, average (standard deviation [SD]) duration of tracheotomy was 20.0 (20.6) months, and length of follow-up after decannulation (range; SD) was 39.3 (4.4-110.0; 26.7) months. 107 patients (60.0%) underwent stomal maturation and 98 patients developed a TCF (54.7%). Younger age at tracheostomy placement was significantly associated with increased risk of TCF, mean (SD) age 28.4 (51.4) version 80.1 (77.5) months (p < 0.001). Increased duration of tracheostomy was significantly associated with increased risk of TCF, 27.5 (18.4) version 11.0 (18.2) months (p < 0.001). Stomal maturation was not significantly associated with the risk of TCF, including on multivariable analysis adjusting for age at tracheostomy and duration of tracheostomy (p = 0.089). Tracheostomy stomal maturation did not affect the risk of TCF in children, even after adjusting for age and duration of tracheostomy. 4 Laryngoscope, 134:2941-2944, 2024.

Repair of Tracheo-Cutaneous Fistula Following Tracheostomy

Tracheo-cutaneous fistula is a relatively uncommon complication that can occur after tracheotomy. The possibility of fistula increases in proportion to the duration of intubation and it occurs due to the transposition of stratified squamous epithelium in the passage between the tracheal mucosa and the skin. There are several surgical techniques to repair trachea-cutaneous fistula, such as primary suture, fistulectomy and primary suture, fistulectomy and secondary intention healing, and using local or regional flap. In addition to these techniques, we would like to introduce a technique used in our hospital.

Pediatric tracheostomy decannulation: what's the evidence?

Pediatric decannulation failure can be associated with large morbidity and mortality, yet there are no published evidence-based guidelines for pediatric tracheostomy decannulation. Tracheostomy is frequently performed in medically complex children in whom it can be difficult to predict when and how to safely decannulate. Published studies regarding pediatric decannulation are limited to reviews and case series from single institutions, with varying populations, indications for tracheostomy, and institutional resources. This article will provide a review of published decannulation protocols over the past 10 years. Endoscopic airway evaluation is required to assess the patency of the airway and address any airway obstruction prior to decannulation. There is considerable variability in tracheostomy tube modification between published protocols, though the majority support a capping trial and downsizing of the tracheostomy tube to facilitate capping. Most protocols include overnight capping in a monitored setting prior to decannulation with observation ranging from 24 to 48 h after decannulation. There is debate regarding which patients should have capped polysomnography (PSG) prior to decannulation, as this exam is resource-intensive and may not be widely available. Persistent tracheocutaneous fistulae are common following decannulation. Excision of the fistula tract with healing by secondary intention has a lower reported operative time, overall complication rate, and postoperative length of stay. Pediatric decannulation should occur in a stepwise process. The ideal decannulation protocol should be safe and expedient, without utilizing excessive healthcare resources. There may be variability in protocols based on patient population or institutional resources, but an explicitly described protocol within each institution is critical to consistent care and quality improvement over time. Further research is needed to identify selection criteria for who would most benefit from PSG prior to decannulation to guide allocation of this limited resource.

Safety evaluation of a stepwise tracheostomy decannulation program in pediatric patients.

In the event of failed tracheostomy decannulation, patients might have a tragic course of events. We retrospectively evaluated our stepwise tracheostomy decannulation program and examined its safety. A 12-year retrospective study of pediatric patients was conducted. The decannulation program was performed on patients who had airway patency by laryngobronchoscopy and whose cannula could be capped during the day. A stepwise decannulation program was performed: continuous 48-h capping trial during hospitalization (Phase 1), removal of the tracheostomy tube for 48h during hospitalization (Phase 2), and outpatient observation (Phase 3). If a persistent tracheocutaneous fistula existed, the fistula was closed by surgery (Phase 4). The 77 patients in the study underwent 86 trials. The age at the first time of the decannulation program was 6.5 ± 3.6years. Sixteen trials failed (18.6%): 8 trials in Phase 1, 2 trials in Phase 2, 4 trials in Phase 3, and 2 trials in Phase 4. Most decannulation failures were due to desaturation in Phase 1/2 and dyspnea in Phase 3/4. The time to reintubation after decannulation was 15-383days in Phase 3/4. Patients could fail at every phase of the program, suggesting that a stepwise decannulation program contributes to safety.

Surgical strategy for patients with papillary thyroid carcinoma invading the trachea: a comparison of tracheal sleeve resection with end-to-end anastomosis and window resection with tracheocutaneous fistula.

Sleeve resection with end-to-end anastomosis (Procedure A) and window resection with a tracheocutaneous fistula (Procedure B) are the major surgical procedures for patients with papillary thyroid carcinoma (PTC) exhibiting transluminal tracheal invasion. For each procedure, the indications, postoperative course, and treatment results were examined retrospectively. Of 1,456 patients with PTC (maximum tumor diameter >1 cm) who received initial treatment between 1993 and 2013, we reviewed 51 patients. Of these 51 cases, 45 showed full-layer tracheal invasion, and 6 did not reach the tracheal mucosa, but required full-layer tracheal resection. Twenty-four patients underwent Procedure A, and 27 patients underwent Procedure B. Regarding surgical procedure selection, Procedure B was selected significantly more frequently than Procedure A for cases with preoperative recurrent laryngeal nerve (RLN) palsy, tumor invasion of the esophagus, clinical lymph node metastasis, or a large number of resected tracheal rings. Postoperative airway-related complications were not significantly different between the procedures, but decreased with the use of intraoperative neuromonitoring (IONM). The postoperative hospital stay was significantly longer for Procedure B than for Procedure A. In addition, the rate of a permanent postoperative tracheostoma was higher with Procedure B than with Procedure A. Local recurrence-free survival (LRFS) and cause-specific survival (CSS) did not differ significantly between the two procedures. Certain patients may benefit from Procedure A with IONM in terms of a shorter hospital stay and avoiding the need for a permanent tracheostoma. Although Procedure B was indicated for patients with more advanced disease than Procedure A, treatment outcomes were similar.

103 Outcomes and Complications of Simple Layered Closure of Persistent Tracheocutaneous Fistula After Tracheostomy in Childhood

Abstract Aim Up to half of all children with a tracheostomy develop persistent trachea-cutaneous fistula (TCF) after decannulation. Surgical closure of it is technically easy but post-operative complications can be immediate and life-threatening. We reviewed our experience in TCF closures to identify potential risk factors for complications. Method Retrospective case records review of all children (0-16 years) who underwent surgical TCF closure between January 2010 and December 2021 following the development of a persistent TCF after decannulation of a tracheostomy. Results 67 children were identified. They ranged in age from 14 months to 16 years (median 3 years 10 months) at the time of the TCF closure. Major medical comorbidities were present in 90%. Pre-operative pulse oximetry with the fistula occluded was used in 29 children (43%). An underwater leak test was performed in 28 (42%). A non-suction drain was used in 29 children (43%). Prophylactic antibiotics were prescribed for 30 children (45%). Post-operative complications occurred in 15 children (22%): life-threatening air leak occurred in the immediate post-operative period in 2 children (3%) and respiratory distress in 3 children (4%) in the recovery area immediately after surgery. None required re-tracheostomy. Three children suffered post-operative pneumonia (4%), and wound infections occurred in 8 children (12%). We were unable to show a significant association between patient or surgical factors and complications. Conclusions Further analysis of the potential associations between patient factors, surgical factors, and complications is necessitated in guiding future practice.

FTP8.14 Outcomes and complications of simple layered closure of persistent tracheocutaneous fistula after tracheostomy in childhood

Abstract Up to half of all children with a tracheostomy develop persistent trachea-cutaneous fistula (TCF) after decannulation. Surgical closure of it is technically easy but post-operative complications can be immediate and life-threatening. We reviewed our experience in TCF closures to identify potential risk factors for complications. Methods Retrospective case records review of all children (0-16 years) who underwent surgical TCF closure between January 2010 and December 2021 following the development of a persistent TCF after decannulation of a tracheostomy. Results 67 children were identified. They ranged in age from 14 months to 16 years (median 3 years 10 months) at the time of the TCF closure. Major medical comorbidities were present in 90%. Pre-operative pulse oximetry with the fistula occluded was used in 29 children (43%). An underwater leak test was performed in 28 (42%). A non-suction drain was used in 29 children (43%). Prophylactic antibiotics were prescribed for 30 children (45%). Post-operative complications occurred in 15 children (22%): life-threatening air leak occurred in the immediate post-operative period in 2 children (3%) and respiratory distress in 3 children (4%) in the recovery area immediately after surgery. None required re-tracheostomy. Three children suffered post-operative pneumonia (4%), and wound infections occurred in 8 children (12%). We were unable to show a significant association between patient or surgical factors and complications. Conclusion Further analysis of the potential associations between patient factors, surgical factors, and complications is necessitated in guiding future practice.

Outcomes of pediatric tracheostomy after surgery for congenital heart disease: A 20-year experience.

Children with congenital heart defects (CHD) requiring cardiovascular surgery (CVS) rarely require tracheostomy placement; however the mortality rate remains high. The study aimed to analyze the incidence of tracheostomy in children with CHD, and to determine factors contributing to postoperative outcomes, decannulation rates, and mortality. Retrospective case series of children ≤18 years old with CHD status post-CVS who underwent tracheostomy placement between January 1, 2001 and December 31, 2020. Variables analyzed included demographic information, presence of comorbidities including prematurity, respiratory diseases, presence of genetic syndromes, decannulation status, type of repair (univentricular vs. biventricular), and need for cardiopulmonary bypass. Adverse events analyzed included all-cause mortality, development of mediastinitis, fatal decannulation, and persistence of tracheocutaneous fistula. Fifty-one patients were analyzed. The incidence of tracheostomy was 0.8%. Median age at tracheostomy was 5.3 months. The 5-year survival estimate was 56.3% (95% confidence interval 43.6%, 72.6%). Age ≤6 months at the time of tracheostomy placement (p = .03), and the presence of tracheomalacia (p = .04) were factors significantly associated with 5-year survival. Two patients (3.9%) experienced fatal decannulation, and one patient (2.0%) developed postoperative mediastinitis. The 10-year decannulation rate estimate was 47.8% (30.5%, 63.2%). Seven patients (13.7%) had a persistent tracheocutaneous fistula. This study corroborates high mortality rates in this population. Factors associated with improved survival were younger age at the time of tracheostomy and presence of tracheomalacia. Decannulation rates were low, but estimates improved over 10 years. Further studies are needed to determine optimal indications and timing for tracheostomy placement in this patient population. 4.

Comparison Between Flap and Primary Closures of Persistent Tracheocutaneous Fistula: A Scoping Review.

Objectives: To compare the susceptibility and complication rates between flap and primary closures for tracheocutaneous fistula (TCF). Methods: We searched 4 online databases (Web of Science, Cochrane Library, PubMed, and Scopus) for relevant articles published from study inception until August 2022. Studies including at least 5 adult or child patients with persistent TCFs who underwent closure surgery via primary or flap repair were included. All included studies reported outcomes of surgical repairs such as successful closure rates and complications. In addition, we performed single-arm meta-analyses for each surgical method using the Open Meta-Analyst software to calculate the pooled event rate with a 95% confidence interval (CI); compared the 2 surgical procedures using the Review Manager software using the risk ratio with 95% CI; and assessed study quality based on the National Heart, Lung, and Blood Institute criteria. Results: Overall, 27 studies with 997 patients were included. No significant difference was observed between the closure success and major complication rates of surgical methods. The primary and flap closures had overall success rates of 0.979 and 0.98, respectively. The overall major complication rates in primary and flap closures were 0.034 and 0.021, respectively; and that of minor were 0.045 and 0.04, respectively. In primary closure, a significant decrease in the success rate with increasing age at the time of decannulation was observed. In addition, the risk of major complications increased with increasing time from decannulation to closure. Conclusions: Both the primary and flap repairs of TCF are effective based on closure success and complication rates; therefore, they are both acceptable therapeutic alternatives, and flap repair can be considered when other techniques have failed. However, further prospective randomized studies comparing these 2 procedures are needed to support our results.

Tracheocutaneous Fistula After Tracheostomy: Spotlight on a Closure Technique With a High Success Rate.

Tracheostomy is a commonly performed procedure in patients requiring prolonged mechanical ventilation. While it effectively provides a secure airway, tracheostomy can lead to complications, such as tracheal stenosis, tracheomalacia granulation tissue, pneumonia, aspiration tracheovascular fistula, tracheoesophageal fistula, and tracheocutaneous fistula. In this systematic review, we aim to identify the most suitable closure method and compare recurrence outcomes between methods for persistent tracheocutaneous fistula (TCF) in all age groups. We conducted a bibliographic search between January 1st, 2011 and March 10th, 2021 in the PubMed, B-on, Scopus, and Web of Science databases, and also performed a manual search to identify relevant articles. Our inclusion criteria were case series or comparative studies of surgery for persistent TCF and the success rate of TCF closure in patients both below and above 18 years of age. After applying the inclusion criteria to the research results, we included nine studies in our analysis. We found that closure by secondary intention is the most effective method for TCF closure, followed by primary and secondary intention combined. The success rate with most of the techniques was high, regardless of the size of the fistula or associated comorbidities, and its simplicity makes it an appealing treatment option in the care of patients with TCF. In conclusion, this systematic review highlights the importance of selecting an appropriate closure method for persistent TCF and provides valuable insights into the success rate of various techniques.

Closure of Tracheocutaneous Fistulae in Patients With Challenged Wound Healing.

To describe and evaluate the surgical outcomes of multilayered closure of persistent tracheocutaneous fistulae (TCF) in patients with challenged wound healing. A retrospective chart review of all patients who underwent closure of TCF by the senior author between October 2011 and December 2021 was performed. Age, body mass index (BMI), time between decannulation and TCF repair, medical comorbidities, procedure duration, length of hospitalization, and postoperative complications were recorded. The primary outcomes were closure of the fistula, postoperative subcutaneous emphysema, pneumomediastinum, pneumothorax, wound infection, or breakdown. Outcomes of patients with and without challenged wound healing were compared. Thirty-five patients who underwent TCF repair during the study period were identified. The mean age and BMI were 62.9 years and 28.43 respectively. Twenty-six (74%) patients met criteria for challenged wound healing at the time of the TCF repair. There was 1 (3.84%) minor complication in the challenged wound healing group and none (0%) in the control group (P = 1.00). No patients experienced wound breakdown or air leak noted on exam or chest radiography. Multilayered closure of persistent tracheocutaneous fistulae is a simple technique which is safe and effective even in patients with challenged wound healing.

Surgical treatment of tracheocutaneous fistula and tracheostomy scars using a hinged flap and local myocutaneous flap.

Tracheocutaneous fistula and tracheostomy scar are complications associated with the prolonged use of tracheostomy tubes. They have functional and cosmetic problems owing to tracheal tugging during swallowing and easily visible scars. Although many procedures exist to correct this issue, there is no consensus on the optimal surgical technique. Therefore, an ideal surgical procedure was devised. The study was performed on 12 patients between September 2016 and May 2021. All patients had persistent tracheocutaneous fistulas or hypertrophic scars on the neck after tracheostomy. All procedures were performed using a hinged flap and two myocutaneous local flaps. All patients had no complications, and their aesthetics were excellent in postoperative photographs. The scar was better on the straight scar when the flap's skin is denuded than on the VY advancement flap. It should be noted, however, that this procedure can cause the flap to become congested in a short period after head and neck surgery. This procedure is safe, reliable and simple for surgical closure. This was found to produce excellent cosmetic results with no major complications.

The Predictors of Persistent Posttracheostomy Tracheocutaneous Fistula and Successful Surgical Closure.

Persistent tracheocutaneous fistula is a well-described complication of prolonged tracheostomy, with a prevalence of about 70% when decannulation is performed after more than 16 weeks. Predictors of its occurrence and outcome of treatment in adults remain unclear. The aim of the study was to describe our experience with the treatment of persistent posttracheostomy tracheocutaneous fistula in adults and to investigate factors associated with its formation and with the success of surgical closure. Retrospective cohort. Tertiary medical center. Patients who underwent open-approach tracheostomy between 2000 and 2020 were identified by database review. Data on background, need for surgical closure, and the surgical outcome was collected from the medical files and analyzed statistically between groups. Of 516 patients identified, 127 with sufficient long-term follow-up data were included in the study. Compared to patients whose fistula closed spontaneously (n = 85), patients who required surgical closure (n = 42) had significantly higher rates of smoking, laryngeal or thyroid malignancy, and airway obstruction as the indication for tracheostomy, on both univariate and multivariate analysis. In a comparison of patients with successful (n = 29) or failed (n = 11) surgical closure, factors significantly associated with failure were prior radiotherapy and lower preoperative albumin level, on univariate analysis. Smoking, thyroid or laryngeal malignancy, and airway obstruction indication are risk factors for persistent posttracheostomy tracheocutaneous fistula. Patients should be closely followed after tracheostomy and referred for surgery if the fistula fails to close. Before surgery, careful evaluation of the patient's nutritional status and consideration of prior radiation treatment is mandatory.

Outcomes and complications of simple layered closure of persistent tracheocutaneous fistula after tracheostomy in childhood.

Up to half of all children who have a tracheostomy will develop a persistent tracheo-cutaneous fistula (TCF) after decannulation. Surgical closure of the TCF is technically easy but post-operative complications can be immediate and life-threatening. These include air leak from the tracheal repair leading to massive surgical emphysema or pneumothorax. We reviewed our experience of TCF closure to try to identify potential risk factors for complications. Retrospective case record review of all children (0-16 years) who underwent surgical TCF closure between January 2010 and December 2021 following development of a persistent TCF after decannulation of a tracheostomy. We identified 67 children. They ranged in age from 14 months to 16 years (median 3 years 10 months) at the time of the TCF closure. Major medical comorbidities were present in 90%. Pre-operative pulse oximetry with the fistula occluded was used in 29 children (43%). An underwater leak test was performed in 28 (42%). A non-suction drain was used in 29 children (43%). Prophylactic antibiotics were prescribed for 30 children (45%). Post-operative complications occurred in 15 children (22%). Life-threatening air leak occurred in the immediate post-operative period in 2 children (3%). Respiratory distress occurred in 3 children (4%) in the recovery area immediately after surgery. None required re-tracheostomy. Three children suffered post-operative pneumonia (4%), and wound infections occurred in 8 children (12%). We were unable to show a significant association between patient or surgical factors and complications. Complications for TCF closure are unfortunately common and it is unclear from the available evidence how best to prevent them. Further research is required.

Outcomes of newborns with tracheostomy: single center experience.

Babies with severe bronchopulmonary dysplasia (BPD) are discharged with the support of a home-type mechanical ventilator, after opening a tracheostomy. In addition, although rare, tracheostomy is required in the neonatal period in congenital airway malformations. Early tracheostomy is appropriate to prevent complications due to prolonged intubation. We aimed to find the appropriate time for tracheostomy by examining the tracheostomy opening and closing times, complications and demographic characteristics of the patients, who were hospitalized and underwent tracheostomy in our neonatal intensive care unit. This retrospective study involved infants admitted to the neonatal intensive care unit between January 2014 and 2019 and discharged following tracheostomy. Information acquired from hospital data was enrolled. The protocol was registered with ClinicalTrials.gov identifier NCT04497740. Twenty-six neonates with median 27.5 weeks gestational age and birth weight 885 gr were enrolled in the study. The mean opening time for tracheostomy was 54 ± 24 days, and the postmenstrual age (PMA) was 36 ± 3 weeks. The mean time to closure of tracheostomy in newborns with a tracheostomy was 387 ± 164 days. The duration of accidental decannulation developed as an early complication in 8 patients was mean 11 ± 8 days. Aspiration pneumonia in 2, subglottic stenosis in 5, accidental decannulation in 2, suprastomal collapse in 7, tracheocutaneous fistula in 8 and granulation tissue in 2 patients were found to be late complications, which occurred within median 90 days. If there is no evidence that breathing has improved and the patient is still using a mechanical ventilator at high pressures and high oxygen concentration, a tracheostomy placement should be considered within two months.

Closure of large tracheocutaneous fistula: how we did it

Closure of large tracheocutaneous fistula: how we did it