Tracheostomy with Tracheocutaneous Adhesion and Cartilage Preservation Technique

The video describes a tracheostomy technique. The tracheostomy performed by  tracheocutaneous adhesion that is suturing stoma to skin directly without violating cartilage during the surgery. This result in stoma that opens directly in trachea without risk of false tract formation. This technique makes tube reinsertion easier in accidental decannulation and avoid consequences of false tract.

The Advantage of this technique is avoidance of tracheal cartilage violation and subsequent airway deformity. It allow faster maturation of tract. Lastly, prevent false tract formation and subsequent complications related to it.

This technique was described by Dr.Jaber Alshammeri, consultant pediatric otolaryngology and director of pediatric otolaryngology fellowship at King Abdullah Specialized Children Hospital, Ministry of National Guard Health Affairs, Riyadh, Kingdom of Saudi Arabia.

Endoscopic Anterior and Posterior Cricoid Split

This video provides an elucidation of the surgical steps involved in performing an endoscopic anterior and posterior cricoid split in a neonate with bilateral vocal fold paralysis.

Endoscopic laryngeal web repair

This video elucidates the procedural technique employed for endoscopic laryngeal web repair in pediatric patients, wherein a laryngeal anterior commissure stent (LACS) is inserted.

It delineates the steps of the surgical intervention, as well as the subsequent postoperative assessment by awake fiberoptic nasolaryngoscopy examination.

Balloon dilation of acquired subglottic stenosis in pediatric

This video shows the steps of how we do endoscopic balloon dilation of acquired subglottic stenosis in pediatrics. 

The video has subtitles with all important steps.

Suture lateralization of right vocal cord in pediatric bilateral vocal cord palsy

It describes how we do the endo-extralaryngeal technique of suture lateralization of vocal cord in pediatric bilateral vocal cord palsy. 

It shows the important steps of the surgery and also the follow up awake fiber optic laryngoscopy exam.

Supraglottoplasty

A procedure done to treat pediatric lar

Endoscopic Nd:Yag and Bleomycin Injection for the management of a Hypopharyngeal Venous Malformation

Venous malformations (VM) are congenital lesions, frequently affecting the head and neck, with poor respect for tissue planes. Established treatments include observation, sclerotherapy, laser, and surgical resection.1  

Lesions affecting the upper airways present unique challenge due to frequent unresectability and difficult access/exposure for alternative standard treatments. We describe our approach of standard endoscopic airway techniques for the administration of advanced treatment modalities including simultaneous laser and sclerotherapy for an extensive airway VM.

Our patient is a 16-year-old female with an extensive multi-spatial VM with associated airway obstruction.  The patient suffered from severe obstructive sleep apnea (OSA) and continuous positive airway pressure (CPAP) dependence as a result of airway compression. Direct laryngoscopy and bronchoscopy demonstrated extensive venous staining and large vascular channels of the hypopharynx. Lumenis Nd:Yag laser (Yokneam, Israel) via 550 micron fiber was passed under telescopic visualization. Treatment via previously described “polka dot” technique was performed (15W, 0.5 pulse duration) with immediate tissue response. The largest vascular channel was accessed via 25-gauge butterfly needle. Immediate return of blood following lesion puncture confirmed intralesional placement. Reconstituted bleomycin (1 U/kg; max dose = 15 U per treatment) was injected and hemostasis achieved with afrin pledgets. The patient was intubated overnight. She was extubated the next morning and advanced to a regular diet, discharging post-operative day two. Post-operative flexible laryngoscopy demonstrated significant improvement in the treatment areas, and follow up sleep study demonstrated sleep apnea resolution with liberation of her CPAP therapy.

Anterior cervical tracheoplasty using thyroid ala cartilage graft

Acquired tracheomalacia in the form of suprastomal collapse may occur as a complication of long-term tracheotomy dependence. Prolapse of the weakened suprastomal segment of trachea during inspiration may prevent safe decannulation. Management of such an issue may require a secondary surgical procedure such as anterior tracheoplasty.2 In 2001, Forte et al described the use of thyroid ala cartilage as a reliable cartilage source for anterior augmentation laryngotracheal reconstruction in neonates. This technique may yield a favorable result given similar thickness of the cartilages and use of a single incision operation for airway reconstruction.1 Here, we present a modification of the procedure described by Forte for anterior cervical tracheoplasty for the indication of suprastomal collapse preventing decannulation. The procedure begins with nasotracheal intubation and excision of tracheostomy tract and stoma. Strap muscles are then divided to expose the laryngotracheal cartilages. Cartilages are divided at the midline anteriorly, and the diseased segment of anterior trachea is discarded. The defect is measured, and if the size match is favorable, the superior thyroid alar cartilage is harvested. The resulting cartilage graft is slightly larger than the tracheal defect and is placed so that the perichondrium is facing into the airway lumen. Interrupted sutures of 4-0 vicryl are used to inset the graft in a submucosal fashion. Once the graft is secured with sutures, a Valsalva maneuver is performed after the cuff of the endotracheal tube is taken down to assure no leak. Strap muscles are reapproximated, a Penrose drain is placed, and the skin is closed. The child is kept intubated and sedated for 3 days before subsequent extubation in the intensive care unit. A bronchoscopy is performed at the 6-week postoperative interval to assure successful healing and to remove any persistent granulation tissue if present.

Pediatric Tracheostomy

Paediatric Tracheostomy

Position the child with chin extension appropriately
Drape the child as shown in the video
Mark the incision line
Use 15 number blade for skin incision
Remove the excessive subcutaneous fat tissue
Find the median raphe and strap muscles
Retract the strap muscles laterally
Identify the tracheal ring
Create the impression of tube for appropriate size incision
Place the stay sutures as shown in the video
incise the trachea with 11 number blade
Secure the maturation sutures
Insert the tracheostomy tube
Confirm the position and then inflate the cuff
Secure the ties and dressing at the end.

Microdebrider Assisted Lingual Tonsillectomy

Microdebrider Assisted Lingual Tonsillectomy

Adrian Williamson, Michael Kubala MD, Adam Johnson MD PhD, Megan Gaffey MD, and Gresham Richter MD

The lingual tonsils are a collection of lymphoid tissue found on the base of the tongue. The lingual tonsils along with the adenoid, tubal tonsils, palatine tonsils make up Waldeyer’s tonsillar ring. Hypertrophy of the lingual tonsils contributes to obstructive sleep apnea and lingual tonsillectomy can alleviate this intermittent airway obstruction.1,2 Lingual tonsil hypertrophy can manifest more rarely with chronic infection or dysphagia. A lingual tonsil grading system has been purposed by Friedman et al 2015, which rates lingual tonsils between grade 0 and grade 4. Friedman et al define grade 0 as absent lingual tonsils and grade 4 lingual tonsils as lymphoid tissue covering the entire base of tongue and rising above the tip of the epiglottis in thickness.3

Lingual tonsillectomy has been approached by a variety of different surgical techniques including electrocautery, CO2 laser, cold ablation (coblation) and microdebridement.4-9 Transoral robotic surgery (TORS) has also been used to improve exposure of the tongue base to perform lingual tonsillectomy.10-13 At this time, there is not enough evidence to support that one of these techniques is superior.

Here, we describe the microdebrider assisted lingual tonsillectomy in an 8 year-old female with Down Syndrome. This patient was following in Arkansas Children’s Sleep Disorders Center and found to have persistent moderate obstructive sleep apnea despite previous adenoidectomy and palatine tonsillectomy. Unfortunately, she did not tolerate her continuous positive airway pressure (CPAP) device. The patient underwent polysomnography 2 months preoperatively which revealed an oxygen saturation nadir of 90%, an apnea-hypopnea index of 7.7, and an arousal index of 16.9. There was no evidence of central sleep apnea. The patient was referred to otolaryngology to evaluate for possible surgical management.

Given the severity of the patient’s symptoms and clinical appearance, a drug induced sleep state endoscopy with possible surgical intervention was planned. The drug induced sleep state endoscopy revealed grade IV lingual tonsil hypertrophy causing obstruction of the airway with collapse of the epiglottis to the posterior pharyngeal wall. A jaw thrust was found to relieve this displacement and airway obstruction. The turbinates and pharyngeal tonsils were not causing significant obstruction of the airway. At this time the decision was made to proceed with microdebrider assisted lingual tonsillectomy.

First, microlaryngoscopy and bronchoscopy were performed followed by orotracheal intubation using a Phillips 1 blade and a 0 degree Hopkins rod. Surgical exposure was achieved using suspension laryngoscopy with the Lindholm laryngoscope and the 0 degree Hopkins rod. 1% lidocaine with epinephrine is injected into the base of tongue for hemostatic control using a laryngeal needle under the guidance of the 0 degree Hopkins rod. 1.     The 4 mm Tricut Sinus Microdebrider blade was set to 5000 RPM and inserted between the laryngoscope and the lips to resect the lingual tonsils. Oxymetazoline-soaked pledgets were used periodically during resection to maintain hemostasis and proper visualization. A subtotal lingual tonsillectomy was completed with preservation of the fascia overlying the musculature at the base of tongue.

She was extubated following surgery and there were no postoperative complications. Four months after postoperatively the patient followed up at Arkansas Children’s Sleep Disorders Center and was found to have notable clinical improvement especially with her daytime symptoms. A postoperative polysomnography was not performed given the patient’s clinical improvement.

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