SPEECH PATHOLOGIST ROLE IN BREATHING AND COMMUNICATION CHANGES FOLLOWING A TOTAL LARYNGECTOMY MID KANSAS EAR, NOSE & THROAT ASSOCIATES RENEE’ L EDIGER, MA, CCC-SLP Disclosure • The presenter wishes to acknowledge that she has no proprietary interest in any products mentioned; she nor members of her family do not have any equity interest in any of the products covered; and she has not and does not receive payments either formal or any kind for any product discussed. RESPIRATORY TRACT BEFORE LARYNGECTOMY • Upper Respiratory Tract --Nose --Nasal Cavity --Pharynx • Lower Respiratory Tract --Larynx --Trachea --Bronchi --Lungs Breathing with Normal Anatomy Inhaled air passes through the nose, nasal cavities, pharynx, and the larynx where it is: •Filtered- Airways have cilia that trap foreign particles (bacteria, dust, etc.)and sweep the particles up to the mouth or nose where they are swallowed, coughed, or sneezed out of the body. •Warmed-inhaled air is warmed to 97⁰F •Humidified to 98⁰F by the time it reaches trachea •Meets resistance which causes deeper breathing compared to mouth or stoma breathing-results in complete expansion of lungs Breathing after a Laryngectomy • The upper respiratory tract and larynx are bypassed after a laryngectomy and inhalation begins at the trachea • Breathing air that is cold, dry and unfiltered of dust and other particulate matter will cause the lungs to produce more mucous. • Mucous is intended to moisten the mucosa and provide a medium in which to cough out the particulate matter. • An open stoma provides little breathing resistance and results in shallow breaths. Factors Affecting Mucus Production in the Laryngectomee Patient • Normal age-related decline in overall pulmonary function • COPD is common due to smoking history • Progressive impairment of bronchial obstruction and tracheal infection during the first year post laryngectomy • Significant increase in mucous for 2 months post laryngectomy during the hypersecretory phase Todisco, et al., Laryngeal cancer: Long term follow-up of respiratory functions after laryngectomy. Respiration 1984. Pulmonary rehabilitation of the laryngectomee patient involves heat, humidity, filtration, and resistance to their respiration Stoma Covers • Effective for covering the stoma visibly • Do not provide any heat or moisture to the inhaled air • Minimal filtering • Do not provide much resistance to breathing Heat and Moisture Exchange Device (HME) – Nasal Breathing • Air of 72⁰ F and 40% Relative Humidity is Conditioned to 90⁰ F and 99% RH at the trachea – Laryngectomee with HME • Air of 72⁰ F and 40% Relative Humidity is Conditioned to 81⁰ F and 50% RH Keck et. Al. Laryngoscope 2005 Different types of HME’s External Housings • Disks that adhere to the peristomal area and provide a housing for the HME device. Intra-luminal Housings Housing Seal –The key to maximizing effectiveness of any HME is the airtight SEAL of the housing around the stoma. Inhaled and exhaled air MUST pass through the HME. Suggestions for obtaining a good adhesive seal • Start with a CLEAN peri-stomal area • Use Skin-Prep • Use Skin Tac (some patients use Silicon Glue for a better seal) • Allow time for the adhesive to set before using HME for Tracheoesophageal speech (particularly with the hands free) Troubleshooting • Many choices of HME housings, HME’s, Accessories, Voice Prostheses and hands free devices. • Communicate with sales representatives for information regarding new products or to ask questions about current products • Try different products….what works best for one patient may not work for another • Continuing Education courses • Consult with other SLP’s • Some patients may choose not to use HME due to cost, personal choice, etc. Rescue Breathing—Total Neck Breather • Important to carry a card, wear a bracelet, make family members and local EMS people aware that person is now a total neck breather and would need CPR through stoma in an emergency situation COMMUNICATION OPTIONS FOLLOWING TOTAL LARYNGECTOMY OPTIONS FOR COMMUNICATION FOLLOWING A TOTAL LARYNGECTOMY 1. Artificial Laryngeal Devices • Transcervical (Neck Type) • Intraoral (Mouth Type) • Pneumatic methods exist (i.e. Tokyo device), but are infrequently used 2. Esophageal Speech • Costs less because no equipment • Takes several hours of practice with low success rate (20-60%) 3. Tracheoesophageal Speech (TEP) • Not everyone is a candidate • Can be expensive depending on insurance Artificial Larynx: Neck and intra-oral Artificial Laryngeal Devices--Examples Basic Introduction to Artificial Laryngeal Device • • • • • • How does the device work? Basic placement goals---get a good seal and find “sweet spot” Rate and --speak slow and overaticulate Basic on-off control---timing of device Nonverbal factors---head position, facial hair, etc Have patient try and learn use of device with non-dominant hand Primary Goals of Treatment Placement of device • Proper placement neck type—help patient find the “sweet spot” With both neck and intraoral type this will be the spot with the best transmission Sometimes difficult due to neck tissue, surgery and/or radiotherapy Avoid fibrotic tissue and facial hair Demonstrate placement, pressure, and a good seal with the palm of your hand and then on neck (too little pressure will cause external noise and too much pressure will cause a weaken signal) May be too tender for neck placement when early post-op Primary Goals of Treatment Placement of device Proper placement of intraoral type Typically 1-2 inches in mouth Trial and error works best to find the “sweet spot” Slight adjustments make a huge difference (tip up, middle, or down) Side of the mouth is best if possible Be aware of saliva and hygiene issues Primary Goals of Treatment Rate and Overarticulation of Speech • Work on Slow rate with over emphasized speech • Start with common words or phrases and gradually progress to longer phrases and sentences • Practice, practice, practice!!!! • Begin and end treatment sessions with success Primary Goals of Treatment On/Off timing of Device • Is best learned with practice • Sometimes a difficult skill to acquire • Opt for “on” too soon and “off” too late • Must have good dexterity and finger control Anatomy of Esophageal Speech •Air in the mouth and throat (A) is passed into the P-E segment (B) and immediately returned causing vibration of the air in the mouth & throat(C) which is shaped into speech by the lips, tongue and teeth (D) ESOPHAGEAL SPEECH • Advantages No cost associated with devices or batteries….nothing can “break down” Hands free Speech quality sounds more natural to listeners Can modulate pitch and rate when proficient • Disadvantages Significant investment of time and effort with high failure rate (only 20-60% success rate for those that try and learn) Not everyone is a good candidate for esophageal speech Loudness can be an issue What interferes with Esophageal Speech? • Oral problems—limited mobility of tongue/jaw or absent dentition • Pharyngeal/esophageal problems—trouble swallowing due to extensive surgery or presence of a stricture • Hearing impairment • Lack of motivation and/or poor health • Lack of access to good resources for training Pharyngoesophageal (P-E) Segment • Area where muscle fibers from inferior pharyngeal constrictor, cricopharyngeus and cervical esophagus blend together • Shape and length vary • Usually located at level of C4-C7 • Tonicity (amount of tone) is very important Methods of Getting Air into P-E segment • Injection methods--Push air down into the P-E segment using the tongue. Teaching the Injection Method (Build up intra-oral pressure to push air into P-E segment) Tongue pump—push whole of tongue up against roof of mouth Tongue sweep—compress air from front to back in sweeping motion Both can be done with or without lip seal Facilitators—puffing cheeks, blowing balloons, lowering/turning head, starting swallow, using air from deflating balloon Methods of Getting Air into P-E segment • Inhalation method--Suck air down into the P-E segment by taking a quick breath Create negative pressure in esophagus to “suck” air down With mouth open, take a sudden breath as if surprised Take a long breath in until lungs half full then “sniff” suddenly Facilitators—Stretching/relaxation, yawning, sighing, sucking/sipping air, and raising, turning or jerking head back Returning the air for phonation • Listen for “click” as air passes through P-E segment or ask patient to monitor the feeling of air “going down” • Use gentle abdominal pressure to return • Do not exhale forcefully or push too hard as this will produce noisy exhalation from the stoma (stoma blast) which interferes with communication • Start with sustained phonation “ah” (once patient is consistent…i.e. five successful attempts consecutively) • Progress to single syllable words • PRACTICE, PRACTICE, PRACTICE + MOTIVATION Tracheoesophageal Voice:How does it work? • TE puncture between trachea and esophagus • Prosthesis stents tract, one way valve to shunt air and prevent aspiration • Stomal occlusion • Diverts pulmonary airflow into esophagus for vibration • Sound to mouth and articulators shape sound Tracheoesophageal Voice Restoration • State-of-the-art method of voice restoration • Most comparable to the laryngeal (someone with normal larynx) speaker in quality, fluency, and ease of production • Maintains pulmonary airflow Louder voice with better quality Longer phonatory duration NOT synthesized speech Sound generator = esophageal walls Who is a candidate for TE Speech • Not every patient is a candidate for a TEP • Success depends on the patient and the expertise of the medical staff working with he or she (SLP, ENT, etc) • Comprehensive Pre-Operative Evaluation Surgery and reconstruction Radiation therapy Patient’s reliability and commitment (Independence, support, etc) Cognition Substance abuse Manual dexterity and vision Insurance Primary vs Secondary TEP • Primary TEP Performed at time of the total laryngectomy • Secondary TEP Performed after the total laryngectomy Involved another procedure in operating room or outpatient procedure room • For either Primary or Secondary puncture a red rubber catheter or a TEP is placed at the time of the procedure • SLP evaluates patient approximately 7-10 days after puncture for TEP placement or assessment for proper size and fit Selection of the Voice Prosthesis • Standard Voice Prosthesis (price approximately $57-$97 depending on brand and style) Diameter (16, 17, or 20FR) Length (4mm-28mm) Cheaper than indwelling Managed by patient/caregiver strap stays on more frequent replacements (approximately 2-3 months) Insertion methods—Gel caps or loading sticks Selection of the Voice Prosthesis • Indwelling Voice Prosthesis (price $218-$1896 depending on brand and style) – Diameter (16, 20, or 22.5FR) – managed by healthcare professional – strap optional – usually longer duration (approximately 3-5 months) Insertion Methods Inserters/sticks Gel caps Loading tubes Radiopaque Candida-resistant Silicone, Titanium, Magnets, Silver Oxide Sizing of the Voice Prosthesis • Proper Fit Collars should be flush with mucosal walls No pistoning No leakage No tissue induration • Improper Fit Too long Too short Post Placement Assessment and Instruction • Assessment Assess vocal quality with prosthesis in place Assess fluency and effort Assess for leakage (through and around prosthesis) • Speech Training Stomal occlusion, breath support, timing, and phrasing • Cleaning Flushing (pipette vs syringe) Brushing Tweezers • Troubleshooting • Need for Hands Free TE Speech Devices • Emergency catheter kit Troubleshooting • Leakage through the prosthesis Prosthesis too old—replace prosthesis Candida—replace prosthesis and patient use anti-fungal or use anti-fungal TEP Increased Intraesophageal pressure—increased resistance TEP, Duckbill, Activalve, NID • Leakage around the prosthesis Prosthesis too long—remove TEP and resize Enlarged TEP—will require enlarged anterior or retention collar….do not place bigger prosthesis • Post fitting Aphonia Mucous/food obstructing TEP—Clean prosthesis Prosthesis not fully inserted—remove TEP and resize Posterior TE tract stenosis or closure—remove TEP, dilate, resize and replace or repuncture Hypertonicity or PE spasm—Insufflation testing, botox injections Insufflation Testing Issues with using a TEP • • • • Involved medical history Younger population who demand premorbid abilities Unrealistic patient expectations Advanced technology and more options, but less access (clinician and resources) • Rising costs of prostheses (supplies); healthcare in general • Troubleshooting—sometimes you just can’t make it work Take Home Messages • Patients are younger, more demanding, and more medically complex • Successful TE speech is more than just placing the prosthesis • Know when to step away from the patient • Know limitations • Ask questions • Know products • Mentoring with experienced clinicians • Etiology is not always obvious and may be a combination of problems that require multiple interventions Wichita Support Group for Laryngectomees • Place: • Meeting time: • Meeting Place: • Contacts: Chisholm Trail New Voice Club 11:00AM 3rd Wednesday of each month Via Christi Cancer Resource Room • 817 N Emporia • Wichita, KS Renee’ L Ediger, MA, CCC-SLP • (316)928-4950 • Susan Kennedy, MS, CCC-SLP • (316)573-6802 RESOURCES • Cavanagh (2011) • Doyle (1994) • Doyle & Keith (2005) • Keck et. Al. Laryngoscope (2005) • Palmer , A.D. & Graham, M.S. (2004) • (Rohe 1986; Shanks, 1995) • Todisco, et al., (1984)