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About Pediatric ENT

Sources and Guidelines Referenced

The clinical standards, diagnostic criteria, and treatment protocols described in this guide are derived from published practice guidelines and landmark studies from leading international otolaryngology and pediatric societies, including the American Academy of Otolaryngology–Head and Neck Surgery (AAO-HNS), the American Academy of Pediatrics (AAP), the American Society of Pediatric Otolaryngology (ASPO), and the National Institute for Health and Care Excellence (NICE). Named guidelines and studies cited inline include: AAO-HNS Clinical Practice Guideline: Tonsillectomy in Children (Mitchell et al., 2019); AAO-HNS Clinical Practice Guideline: Tympanostomy Tubes in Children (Rosenfeld et al., 2022); AAP/AAO-HNS Clinical Practice Guideline: Otitis Media with Effusion (Rosenfeld et al., 2016); Childhood Adenotonsillectomy Trial (CHAT Study, Marcus et al., NEJM 2013); PARADISE Trial on Adenotonsillectomy (Paradise et al., 2000); and NICE Guideline NG29: Otitis Media with Effusion in Under 12s (2023).

Pediatric ENT: A Comprehensive Patient Guide

1. Definition and Medical Identity

Pediatric ENT, formally known as pediatric otorhinolaryngology, is the surgical subspecialty dedicated to diagnosing and managing medical and surgical conditions of the ears, nose, throat, larynx, pharynx, and related head and neck structures in individuals from birth through late adolescence. It focuses on functional restoration, preservation of physiological growth, and elimination of localized airway and ear pathology.

Pediatric otorhinolaryngology encompasses both minor outpatient procedures, such as myringotomy with tympanostomy tube insertion, and complex inpatient interventions, including laryngotracheal reconstruction, endoscopic sinus surgery, and congenital head and neck tumor resection. Unlike adult otorhinolaryngology, pediatric ENT operates within the context of active craniofacial growth, developing immune systems, and evolving speech-language acquisition.

2. The Underlying Condition or Need

Pediatric ENT addresses pathological conditions stemming from congenital malformations, structural airway narrowing, immunological hyper-responsiveness, and anatomical susceptibility to fluid retention and infection. The structural architecture of a child's head and neck differs significantly from an adult's, making children especially vulnerable to obstructive and infectious disorders.

Without targeted intervention, persistent upper respiratory conditions can alter child development. Chronic middle ear effusion leads to persistent conductive hearing loss, which impairs auditory processing and speech development during critical developmental windows (AAO-HNS Guideline: Otitis Media with Effusion, 2016). Severe adenotonsillar hypertrophy causing untreated pediatric obstructive sleep apnea (OSA) can lead to alveolar hypoventilation, neurocognitive deficits, behavioral disturbances resembling attention-deficit/hyperactivity disorder (ADHD), and, in severe cases, pulmonary hypertension and cor pulmonale (CHAT Study, 2013).

3. How the Treatment Works — Mechanism

Pediatric ENT therapies work by mechanical clearance, structural enlargement of narrowed anatomical pathways, surgical eradication of infected tissue, or functional augmentation. Surgical interventions alter localized anatomy to re-establish physiological air, fluid, or acoustic pathways.

In otologic interventions, such as tympanostomy tube placement, a tiny biocompatible tube is inserted into an incision in the tympanic membrane (eardrum). This bypasses an impaired Eustachian tube, equilibrating pressure between the ambient environment and the middle ear cleft, while allowing chronic middle ear effusion (fluid) to drain. In airway and pharyngeal procedures, such as adenotonsillectomy, hyperplastic lymphatic tissue is removed via targeted thermal or mechanical energy (e.g., coblation, electrocautery, microdebrider), enlarging the nasopharyngeal and oropharyngeal cross-sectional areas. This decreases airflow resistance, eliminates nocturnal upper airway collapse, and clears chronic bacterial biofilms.

4. Types and Variations

Pediatric ENT covers several sub-disciplines and procedural categories, chosen based on the anatomical region, underlying etiology, and disease severity.

Subspecialty / CategoryKey Procedures IncludedPrimary Anatomical TargetsTypical Clinical Indications
Pediatric OtologyTympanostomy tube insertion, tympanoplasty, mastoidectomy, cochlear implantationTympanic membrane, middle ear cleft, mastoid bone, cochleaRecurrent acute otitis media, chronic otitis media with effusion, tympanic membrane perforation, sensorineural hearing loss
Pediatric RhinologyAdenoidectomy, functional endoscopic sinus surgery (FESS), choanal atresia repairNasopharynx, paranasal sinuses, posterior nasal cavityAdenoid hypertrophy, chronic rhinosinusitis, nasal polyposis, congenital nasal obstruction
Pediatric Laryngology & AirwaySupraglottoplasty, micro-laryngoscopy, laryngotracheal reconstruction, tracheostomyLarynx, vocal cords, subglottis, tracheaLaryngomalacia, subglottic stenosis, vocal cord paralysis, recurrent respiratory papillomatosis
Head & Neck / OrofacialFrenotomy, excision of branchial cleft cysts, thyroglossal duct cyst excision (Sistrunk procedure)Lingual frenulum, cervical soft tissues, anterior neck structuresAnkyloglossia (tongue-tie), congenital neck masses, persistent thyroglossal duct cysts

Selection of surgical technique depends on child age, anatomical variations, comorbid conditions (such as Down syndrome or neuromuscular disorders), and disease severity determined by objective diagnostic tests.

5. Who the Treatment Is For — Indications

Indications for pediatric ENT interventions are strictly defined by published clinical practice guidelines to prevent unnecessary surgical exposure.

  • Adenotonsillectomy for Obstructive Sleep Apnea: Indicated in children with documented pediatric OSA via polysomnography (sleep study) showing an Apnea-Hypopnea Index (AHI) greater than 1, or clinical OSA accompanied by tonsillar and adenoid hypertrophy, growth faltering, or neurobehavioral disruption (AAO-HNS Guideline: Tonsillectomy in Children, 2019).
  • Adenotonsillectomy for Recurrent Tonsillitis: Indicated when Paradise criteria are met: 7 or more documented episodes of throat infection in the preceding 1 year, 5 or more episodes per year for 2 consecutive years, or 3 or more episodes per year for 3 consecutive years, with each episode documented by clinical features (fever, lymphadenopathy, exudate, or positive Group A Streptococcus culture) (Paradise et al., 2000).
  • Tympanostomy Tubes: Indicated for persistent bilateral otitis media with effusion lasting 3 months or longer with documented hearing impairment, or recurrent acute otitis media defined as 3 or more discrete episodes in 6 months or 4 or more episodes in 12 months with at least 1 episode in the preceding 6 months (AAO-HNS Guideline: Tympanostomy Tubes in Children, 2022).
  • Supraglottoplasty: Indicated for severe laryngomalacia associated with severe stridor, persistent intercostal retractions, failure to thrive, or feeding difficulty with recurrent aspiration (ASPO Consensus Guidelines).

6. Who the Treatment Is NOT For — Contraindications

Surgical interventions in pediatric ENT carry specific absolute and relative contraindications that require careful preoperative screening.

  • Absolute Contraindications: Active, uncorrected severe coagulopathy or bleeding diathesis (for elective resections like tonsillectomy); unmanaged severe systemic instability; or presence of severe subglottic inflammation precluding safe endotracheal intubation.
  • Relative Contraindications: Submucous cleft palate (relative contraindication for routine complete adenoidectomy due to the risk of postoperative velopharyngeal insufficiency and hypernasal speech); active acute upper respiratory infection (which increases perioperative bronchospasm and laryngospasm risk, often requiring postponement of elective surgery by 2 to 4 weeks); and uncorrected craniofacial dysmorphism without specialized airway management protocols.

7. Alternatives and Clinical Comparison

Non-surgical and conservative alternatives are evaluated prior to proceeding with pediatric ENT procedures, depending on disease acuity and clinical severity.

Treatment OptionMechanism of ActionInvasivenessPrimary IndicationsClinical Trade-offs & Efficacy
Pediatric ENT Surgery (e.g., Adenotonsillectomy / Tubes)Surgical removal of tissue or mechanical ventilation of middle ear spaceInvasive (Requires general anesthesia)Severe OSA, refractory otitis media, anatomical airway obstructionHigh immediate efficacy; permanent anatomical resolution; carries surgical and anesthetic risks.
Watchful Waiting & SurveillanceMonitoring natural disease resolution over defined clinical intervals (3–6 months)Non-invasiveMild otitis media with effusion, mild adenoid hypertrophy without hypoxemiaAvoids surgical risks; higher rate of spontaneous disease persistence; potential delay in hearing recovery.
Topical Corticosteroid TherapyIntranasal anti-inflammatory spray reducing lymphoid tissue and mucosal swellingNon-invasiveMild-to-moderate adenoid hypertrophy, allergic rhinitis, mild rhinosinusitisLow risk profile; moderate symptom relief; variable response rate; requires ongoing compliance.
Antibiotic Therapy & ProphylaxisEradication of active bacterial pathogens in upper respiratory structuresNon-invasiveAcute otitis media, acute bacterial tonsillitis, acute bacterial rhinosinusitisEffective for acute bacterial flares; high risk of pathogen resistance; limited long-term success for fluid clearance.

8. Pre-Treatment Phase

The pre-treatment phase establishes diagnosis, quantifies disease severity, and screens for surgical and anesthetic risks. The clinician reviews the child's complete medical history, focusing on gestational age at birth, prior airway issues, history of bleeding, and formal developmental milestones.

Diagnostic workup may include pneumatic otoscopy, tympanometry (testing eardrum mobility), behavioral audiometry or objective auditory brainstem response (ABR) testing, baseline pediatric polysomnography (for sleep-disordered breathing), and flexible diagnostic nasopharyngoscopy. Informed consent discussions cover procedure-specific benefits, alternative non-surgical options, expected pain levels, and rare perioperative risks. Strict fasting (NPO) guidelines must be followed: clear liquids up to 2 hours before induction, breast milk up to 4 hours, and solid foods or formula up to 6 hours prior to hospital arrival.

9. The Procedure — Step-by-Step Clinical Detail

Pediatric ENT surgical procedures follow standardized intraoperative protocols executed in a dedicated pediatric operating room suite under general anesthesia.

Step 1: Anesthetic Induction and Airway Securing

The pediatric patient undergoes general anesthesia, typically initiated via inhaled volatile anesthetics (such as sevoflurane) mixed with nitrous oxide and oxygen, followed by intravenous line placement. The airway is secured using an endotracheal tube or a laryngeal mask airway (LMA), depending on whether the procedure involves the pharynx, airway, or ears.

Step 2: Patient Positioning and Exposure

For pharyngeal and upper airway procedures, the patient is placed in the supine position with slight neck extension. A specialized pediatric oral retractor (such as a McIvor or Crowe-Davis mouth gag) is placed to depress the tongue and stabilize the oral cavity, providing clear visualization of the palatine tonsils and nasopharynx.

Step 3: Surgical Execution — Adenotonsillectomy

If performing adenotonsillectomy, the adenoid tissue in the nasopharynx is visualized using a indirect mirror or 70-degree endoscope. Tissue is ablated or excised using coblation (controlled plasma ablation), monopolar or bipolar electrocautery, or a powered microdebrider. The palatine tonsils are subsequently dissected from the underlying superior pharyngeal constrictor muscle bed along the peritonsillar fascial plane. Complete thermal or suture hemostasis is achieved.

Step 4: Surgical Execution — Myringotomy and Tympanostomy Tube Placement

For otologic procedures, an operating microscope provides visualization of the external auditory canal and tympanic membrane. Cerumen is cleared. A radial incision (1.5 to 2.0 mm) is made in the anterior-inferior quadrant of the eardrum using a micro-myringotomy knife. Thick or mucoid middle ear effusion is cleared using micro-suction tubes. A sterile fluoroplastic, silicone, or titanium tympanostomy tube is placed across the incised membrane. Otic antibiotic drops are instilled into the ear canal.

Step 5: Hemostasis Verification, Extubation, and Transport

The surgical field is carefully checked for residual bleeding. Oral secretions are cleared under direct visualization. Anesthetic agents are discontinued, and once the child demonstrates intact protective airway reflexes and spontaneous ventilation, extubation is performed. The patient is transferred to the Post-Anesthesia Care Unit (PACU).

10. Immediate Post-Procedure Period

In the Post-Anesthesia Care Unit (PACU), the child's oxygen saturation, heart rate, respiratory rate, and pain scores are continuously monitored. Emergence delirium—a temporary state of confusion or agitation following volatile gas anesthesia—occurs in up to 15% of young children and is managed with calm sensory environment design and short-acting intravenous sedatives if severe.

Discharge criteria require stable vital signs, an open airway without stridor or desaturation, controlled pain, absence of active surgical site bleeding, and tolerance of clear oral fluids. Most myringotomy tube insertions and uncomplicated adenotonsillectomies are performed as day surgeries, with patients discharged 2 to 4 hours postoperatively. Children under three years of age, those with severe OSA (AHI > 10), or patients with severe comorbid conditions (e.g., neuromuscular disease, trisomy 21) are admitted for overnight inpatient pulse oximetry monitoring.

11. Recovery — Short and Long Term

The recovery process varies based on the anatomical structures involved in surgery.

  • Days 1 to 3: Throats are sore following tonsillectomy, and referred ear pain (otalgia) transmitted via the glossopharyngeal nerve (CN IX) is common. Regular administration of non-opioid analgesics (acetaminophen and ibuprofen) is maintained around the clock. Soft, cold foods and liquids (water, electrolyte solutions, ice pops) are emphasized. After ear tube placement, mild clear or light pink otorrhea (ear drainage) may occur for 2 to 3 days and is managed with prescribed antibiotic ear drops.
  • Days 4 to 8: Throat pain often peaks during this window as white-yellow fibrin eschars over the tonsillar beds begin to slough off. Caregivers must watch for secondary hemorrhage (bright red bleeding from the mouth or nose). Vigorous physical activity, jumping, and strenuous play are prohibited to minimize bleeding risk.
  • Days 9 to 14: Pain decreases rapidly. The tonsillar beds complete primary re-epithelialization. Patients gradually return to a normal diet and resume school or daycare activities once analgesics are no longer required and activity tolerance is normal.
  • Long-Term Follow-up: A routine postoperative visit is scheduled 4 to 6 weeks after surgery. For otology patients, a postoperative audiogram is performed to document recovery of hearing thresholds. For sleep apnea patients, clinical resolution of snoring and breathing pauses is evaluated, with repeat polysomnography reserved for persistent symptoms or high-risk patients.

12. Risks, Side Effects, and Complications

Surgical risks in pediatric ENT vary by procedure, patient age, and comorbid conditions.

Severity LevelComplication / Side EffectEstimated IncidencesClinical Description & Management
Common / MildTransient otalgia, halitosis, mild nausea, low-grade fever20% – 50%Referred glossopharyngeal pain and benign tissue eschar formation; managed with oral analgesics, fluid hydration, and antiemetics.
Uncommon / ModerateOtorrhea through tympanostomy tubes10% – 15%Bacterial or viral middle ear discharge through the tube lumen; managed with topical fluoroquinolone otic drops.
Uncommon / ModerateSecondary post-tonsillectomy hemorrhage2% – 5%Bleeding occurring 5 to 10 days postoperatively during eschar sloughing; requires emergency medical evaluation and potential re-cauterization under anesthesia.
Rare / SeriousPrimary post-tonsillectomy hemorrhage0.5% – 1%Bleeding within the first 24 hours postoperatively; urgent surgical re-exploration required.
Rare / SeriousVelopharyngeal Insufficiency (VPI)< 0.1%Incomplete soft palate closure following adenoidectomy resulting in hypernasal speech and fluid reflux into the nose; requires speech therapy or secondary pharyngoplasty.
Rare / SeriousPersistent tympanic membrane perforation1% – 2% (after tube extrusion)Failure of the eardrum to heal after tube falls out; managed with monitoring or eventual tympanoplasty.

13. Lifestyle and Behavioural Considerations

Postoperative outcomes depend heavily on caregiver compliance with dietary, activity, and medication regimens. Following pharyngeal surgery, adequate hydration is essential; dehydration increases muscle spasms in the pharyngeal constrictors, worsening pain and increasing secondary bleeding risk.

For children with tympanostomy tubes, water precautions (such as using silicone earplugs during swimming in non-chlorinated open water or deep diving) are individualized based on surgeon preference, though routine surface swimming in treated pool water generally does not require ear protection according to current AAO-HNS guidelines. Passive smoke exposure must be strictly avoided, as environmental tobacco smoke impairs mucociliary clearance, delays mucosal healing, increases adenoid re-growth risk, and elevates rates of middle ear effusion.

14. How Outcomes Are Measured

Clinical success in pediatric ENT is measured using physiological, objective, and validated quality-of-life parameters.

  • Otologic Outcomes: Measured by pure-tone audiometry and tympanometry. Success is defined as closure of the air-bone gap to within 10 dB of baseline, restoration of normal Type A tympanograms, and absence of recurrent acute otitis media (fewer than 3 episodes per year). Tympanostomy tubes typically remain in place for 6 to 18 months before naturally extruding into the ear canal.
  • Obstructive Sleep Apnea Outcomes: Measured by resolution of nocturnal snoring, breath-holding spells, and daytime somnolence or hyperactive behavior. In research and high-risk clinical settings, post-treatment success is defined as a reduction in the polysomnographic Apnea-Hypopnea Index (AHI) to under 1 to 2 events per hour (CHAT Study, 2013). Validated surveys like the OSA-18 questionnaire assess improvements in caregiver-reported quality of life.
  • Infectious Outcomes: Measured by tracking the annual frequency of documented acute tonsillitis or rhinosinusitis episodes, days of missed school/daycare, and systemic antibiotic courses required over a 12-to-24-month postoperative surveillance period.

15. Recent Advances and Current Standard of Care

Pediatric ENT has advanced significantly over the past two decades, shifting from aggressive tissue excision toward targeted, minimal-thermal-damage surgical modalities.

Standard full-thickness tonsillectomy (excision of the tonsil down to the muscular bed) is increasingly supplemented by intracapsular tonsillectomy (partial tonsillotomy). Using coblation or microdebriders, surgeons remove 90% to 95% of the obstructive tonsillar mass while leaving a thin rim of tissue protecting the underlying pharyngeal constrictor muscle and blood vessels. Multi-center studies demonstrate that intracapsular tonsillectomy reduces postoperative pain scores, accelerates return to normal diet by 2 to 4 days, and lowers secondary hemorrhage rates from ~4% to under 1% (Bent et al., 2010; AAO-HNS Guideline, 2019).

Additionally, advances in pediatric high-definition endoscopes (flexible and rigid) allow detailed evaluation of infant airways without open surgical neck exploration. Standard diagnostic procedures now include drug-induced sleep endoscopy (DISE) for identifying persistent multi-level upper airway collapse in children with complex sleep apnea.

16. Common Myths and Misconceptions

Myth: Children outgrow all ear infections, so surgical tubes are unnecessary.
Reality: While Eustachian tube function matures with age, persistent middle ear effusion lasting over 3 months causes conductive hearing loss, which can impair speech and language acquisition during critical early developmental windows (AAO-HNS Guideline, 2016).

Myth: Tonsillectomy permanently weakens a child's immune system.
Reality: Palatine tonsils and adenoids are part of Waldeyer's ring of lymphoid tissue, but their surgical removal does not compromise systemic immunity or immunoglobulin levels. Surrounding mucosa and bone marrow maintain full immunocompetence (AAO-HNS Guideline, 2019).

Myth: Snoring in young children is normal and cute.
Reality: Habitual loud snoring in children is a sign of upper airway resistance or obstructive sleep apnea. Untreated pediatric sleep apnea is associated with neurocognitive delays, behavioral problems, and growth restriction (CHAT Study, 2013).

Myth: Ear tubes must be surgically removed after they are inserted.
Reality: Standard grommet tympanostomy tubes are designed to spontaneously extrude from the eardrum out into the external ear canal within 6 to 18 months as the tympanic membrane naturally heals and sheds epithelial layers.

Myth: Eating ice cream right after tonsillectomy speeds up surgical healing.
Reality: Cold foods like ice cream help soothe local pharyngeal pain, but milk-based products can create thick mucus sensations in the throat. Soft, cold liquids or water-based popsicles are often better tolerated immediately post-op.

Myth: Laser or electrocautery surgery guarantees zero post-tonsillectomy bleeding.
Reality: Secondary post-tonsillectomy hemorrhage occurs when protective fibrin eschars slough off between post-op days 5 and 10, regardless of the initial surgical technology used.

17. Frequently Asked Questions

At what age can a child safely undergo pediatric ENT surgery?

Pediatric ENT procedures can be performed at any age, including in neonates, when medically necessary. Minor interventions like frenotomy are performed in newborns, while procedures under general anesthesia like tympanostomy tube placement or airway surgery are frequently performed in infants aged 6 to 12 months when indicated. Anesthesia risks are minimized by specialized pediatric surgical teams.

How long do tympanostomy tubes stay in a child's ear?

Standard short-term tympanostomy tubes typically remain in the tympanic membrane for 6 to 18 months before naturally extruding into the external auditory canal. Long-term tubes (such as T-tubes) may stay in place for 2 to 4 years if persistent middle ear ventilation is required for chronic structural dysfunction.

Will my child be in severe pain after a tonsillectomy?

Moderate to severe throat and ear pain is expected following a tonsillectomy and typically lasts 7 to 10 days. Pain often peaks around days 4 to 7 postoperatively. Pain is managed using around-the-clock non-opioid pain medications, soft cool fluids, and rest as prescribed by the surgical team.

Can tonsils or adenoids grow back after surgical removal?

Adenoid tissue can occasionally regrow because it lacks a discrete fibrous capsule, especially if removed in children under 2 years of age. Palatine tonsils removed via total extracapsular tonsillectomy do not regrow; however, small residual tissue left intentionally during partial intracapsular tonsillotomy has a 0.5% to 3% chance of clinically significant re-growth.

What should I do if my child starts bleeding from the mouth or nose after a tonsillectomy?

Any visible bright red blood from the mouth or nose post-tonsillectomy is a medical emergency. Have the child sit upright and lean slightly forward to prevent swallowing blood, avoid swallowing or gargling, and seek immediate emergency medical care for clinical evaluation and hemostasis.

How soon can my child return to school or daycare after ear tube surgery?

Most children recover rapidly from myringotomy tube placement and can return to school or regular daycare activities the day after surgery, provided they are alert, pain-free, and no longer under sedating medication effects.

Does my child need to wear earplugs when swimming with ear tubes?

Routine use of earplugs during surface swimming in chlorinated pools is generally not required according to AAO-HNS guidelines. However, earplugs are recommended when swimming in untreated fresh water (lakes, rivers), ocean water, or when deep underwater diving to prevent bacterial contamination of the middle ear.

Why does my child have ear pain when the surgical procedure was performed in the throat?

Post-tonsillectomy ear pain is a normal phenomenon called referred otalgia. The glossopharyngeal nerve (cranial nerve IX) provides sensory innervation to both the pharynx/tonsillar bed and the deep ear canal and middle ear structure, causing the brain to perceive throat pain as ear pain.

How does pediatric sleep apnea differ from adult sleep apnea?

Pediatric sleep apnea is primarily caused by anatomical adenotonsillar hypertrophy rather than obesity alone. Unlike adults who present with daytime sleepiness, children with OSA often exhibit paradoxical daytime hyperactivity, behavioral issues, bedwetting (enuresis), impaired school performance, and failure to thrive.

What is intracapsular tonsillectomy, and how does it compare to traditional tonsillectomy?

Intracapsular tonsillectomy (partial tonsillotomy) uses microdebriders or coblation to shave away 90-95% of the obstructive tonsil mass while preserving the outer tonsillar capsule over the pharyngeal muscle. This approach results in significantly less postoperative pain, faster recovery, and a lower risk of secondary postoperative bleeding compared to total tonsillectomy.

Can chronic ear infections cause permanent speech or learning delays?

Persistent middle ear fluid (otitis media with effusion) causes continuous conductive hearing loss of 10 to 25 decibels. If left untreated during critical early childhood windows (ages 1 to 3 years), this muffled hearing can delay language acquisition, speech sound articulation, and auditory processing skills.

What diagnostic tests are required before pediatric sleep apnea surgery?

Clinical practice guidelines recommend overnight polysomnography (sleep study) prior to tonsillectomy in children under 2 years of age, or in patients with complex conditions such as obesity, Down syndrome, neuromuscular disorders, or dysmorphic craniofacial features, as well as when physical exam findings do not match symptom severity.

How are infant tongue-ties (ankyloglossia) evaluated and managed in pediatric ENT?

Infant tongue-tie is evaluated using standardized scoring tools assessing lingual mobility and latch anatomy. If severe ankyloglossia impairs breastfeeding or causes maternal nipple pain, a minor in-office or outpatient procedure called a frenotomy (dividing the tight lingual frenulum) can be performed to restore tongue range of motion.

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