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Файл:Ординатура / Хирургия / Библиотека им академика М.И. Перельмана / Книга_1100_Библиотеки_им_академика_М_И_Перельмана.pdf
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- •Foreword
- •Preface
- •Contents
- •Contributors
- •Part I
- •Esophageal Surgery
- •Tracheo-Esophageal Fistula
- •Overview
- •Etiology
- •Clinical Presentation
- •Diagnosis
- •Management
- •Conservative Management
- •Endoscopic Management
- •Operative Management
- •Postesophagectomy TEF
- •Postintubation TEF
- •Bronchoesophageal Fistula
- •Prevention of Tracheoesophageal Fistula
- •Outcomes
- •Conclusion
- •Five Key Points to Avoid Complications
- •Five Key Points to Diagnose or Manage Complications Intra or Postoperatively
- •References
- •Esophageal Strictures Refractory to Endoscopic Dilatation
- •Introduction
- •Etiology of Esophageal Strictures
- •Treatment
- •Treatment of Benign Esophageal Strictures
- •Nonsurgical Options
- •Endoscopic Dilatation
- •Steroid Injection
- •Esophageal Stenting
- •Rendez-Vous Procedure
- •Incisional Therapy
- •Surgical Options
- •Antireflux Surgery for Peptic Strictures
- •Esophagectomy
- •Malignant Esophageal Strictures
- •Endoscopic Treatment
- •Dilatation
- •Stent Placement
- •Laser Therapy
- •Brachytherapy
- •Chemotherapy and Radiation Therapy
- •Surgical Treatment
- •Conclusion
- •Key Points for Avoiding Postsurgical Esophageal Strictures
- •Key Points for Managing Esophageal Strictures
- •References
- •Esophageal Anastomotic Leak
- •Introduction
- •Risk Factors for Anastomotic Leak
- •Presentation and Identification of a Leak
- •Prevention and Management of Anastomotic Leaks
- •Future Directions
- •Conclusion
- •Key Points on Avoiding an Esophageal Anastomotic Leak
- •Key Points on Diagnosis and Managing an Esophageal Anastomotic Leak
- •References
- •Transhiatal Esophagectomy—Intraoperative Disasters
- •Introduction
- •Preoperative Risk Factors for Bleeding with a THE
- •General Considerations
- •Anesthetic Considerations
- •Conduct of the Operation
- •Bleeding Scenarios During THE
- •Tracheal Tear
- •Summary
- •Key Points: Avoiding Catastrophic Complications—Mediastinal Bleeding and Airway Injury—During Transhiatal Esophagectomy
- •Key Points: Diagnosing and Managing Catastrophic Complications—Mediastinal Bleeding and Airway Injury—During Transhiatal Esophagectomy
- •References
- •Chyle Leak After Esophageal Surgery
- •Introduction
- •Historical Review
- •Basic Science
- •Embryology
- •Anatomy
- •Physiology
- •Composition of Chyle
- •Chylothorax
- •Etiology/Cause
- •Post-esophagectomy Chylothorax
- •Diagnosis
- •Clinical Features
- •Fluid Studies
- •Imaging
- •Treatment
- •Conservative Management
- •Surgical Management
- •Summary
- •Key Points on Avoiding an Esophageal Anastomotic Leak
- •Key Points on Diagnosis and Managing an Esophageal Anastomotic Leak
- •References
- •Evaluation of the Vocal Cords
- •Treatment of Unilateral Vocal Cord Dysfunction
- •Injection Augmentation
- •Framework Surgery for Unilateral Vocal Cord Dysfunction
- •Treatment of Bilateral Vocal Paralysis
- •Key Summary Points
- •References
- •Introduction
- •Pathophysiology
- •Classification
- •Symptoms
- •Diagnosis
- •Management of Airway, Hoarseness, and Vocal Cord Dysfunction After Esophagectomy
- •Introduction
- •Vocal Fold Dysfunction
- •Symptoms of Unilateral Vocal Cord Dysfunction
- •Symptoms of Bilateral Vocal Cord Dysfunction
- •Treatment
- •Complications
- •Conclusion
- •Five Key Points on How to Avoid Complications
- •Five Key Points on Diagnosing and/or Managing the Complications Either Intraoperatively or Postoperatively
- •References
- •Intraoperative Solutions for the Gastric Conduit that Will Not Reach
- •Colon as an Alternative Conduit
- •Jejunum as an Alternative Conduit
- •Pedicled Jejunal Interposition
- •Free Jejunal Interposition
- •Summary
- •Key Points
- •References
- •Injury to the Right Gastroepiploic Artery
- •Introduction
- •Anatomy of the RGEA
- •Vascular Considerations in Esophagectomy
- •Preoperative Evaluation of the RGEA
- •Preparation and Mobilization of the Gastric Conduit
- •Techniques for Improving Tissue Oxygenation
- •Tension-Free Anastomosis
- •“Supercharging”
- •Venous Drainage
- •Conclusion
- •Five Key Points: Avoiding Injury to the Right Gastroepiploic Artery
- •References
- •Intra-Operative Solutions for Ischemic Gastric Conduit
- •Gastric Esophageal Replacement Conduit
- •Diagnosis of Gastric Conduit Ischemia
- •Summary
- •Key Points for Avoiding Gastric Conduit Necrosis
- •Key Points for Managing Gastric Conduit Necrosis Postoperatively
- •References
- •Jejunal Feeding Tube Complications
- •Introduction
- •Technique for Placement
- •Open Surgical Jejunostomy Tubes
- •Laparoscopic Jejunostomy Tubes
- •Complications
- •Bowel Necrosis
- •Bowel Obstruction
- •Tube Dysfunction
- •Infectious Complications
- •Aspiration
- •Conclusion
- •Key Points
- •References
- •Part II
- •Gastric Surgery
- •Gastroparesis
- •Etiology
- •Clinical Presentation and Evaluation
- •Management
- •Bile Reflux
- •Etiology
- •Clinical Presentation and Evaluation
- •Management
- •Conclusion
- •Key Points (Prevention)
- •Key Points (Management)
- •References
- •Dealing with Dumping Syndrome
- •Introduction
- •Diagnosis
- •Prevention
- •Management of Dumping Syndrome
- •Diet
- •Pharmacologic Therapy
- •Acarbose
- •Somatostatin Analogs
- •Studies of the Fast-Acting Somatostatin Analog Octreotide
- •Studies of Long-Acting Octreotide LAR
- •Adverse Effects of Somatostatin Analogs
- •Surgical Treatment
- •Conversion of Billroth II to Billroth I Anastomosis
- •Roux-en-Y Conversion
- •Continuous Enteral Feeding
- •Conclusion
- •Key Points
- •References
- •Introduction
- •Epidemiology
- •Etiology
- •Pathophysiology
- •Clinical History
- •Physical Findings
- •Differential Diagnosis
- •Diagnosis
- •Noninvasive Imaging Studies
- •Treatment
- •Medical Treatment
- •Endoscopic/Interventional Radiology
- •Surgical Intervention
- •Summary
- •Key Points for Avoiding
- •Key Points for Diagnosing/Managing
- •References
- •Duodenal Stump Blowout
- •Introduction
- •Clinical Presentation of Blowout
- •Mechanisms Contributing to Blowout
- •Staple Line Failure
- •Distal Obstruction
- •Malnutrition
- •The Difficult Duodenum
- •Techniques for Reducing the Risk of Blowout
- •Management of the Difficult Duodenum
- •General Principles of Closure
- •Nissen Technique
- •Bancroft Technique
- •Tube Duodenostomy and Drainage
- •Management of Stump Blowout
- •Medical Management
- •Percutaneous Radiologic Techniques
- •The Decision to Operate and Surgical Approach
- •Summary of Management
- •Ramifications of Blowout
- •Conclusions
- •Key Points: Avoiding Duodenal Stump Blowout
- •Key Points: Diagnosing and Managing Stump Blowout
- •References
- •Postoperative Complications After Surgery for Gastric Cancer: Anastomotic Leakage
- •Introduction
- •Incidence
- •Prospective Factors
- •Detection
- •Differential Diagnosis
- •General Management
- •External Drainage
- •Treatment of the Leakage Site
- •Duodenal Stump Leakage
- •Summary
- •Five Key Points to Avoid Anastomotic Leakage
- •Five Key Points to Diagnose and Manage Leakage
- •References
- •Part III
- •Hepatobiliary and Pancreatic Surgery
- •Introduction
- •Definition of PHI
- •Risk Factors for PHI
- •Prevention of PHI
- •Systematic Volumetry of the “Fully Functioning” Part of the Liver
- •Portal Vein Embolization
- •Limiting the Duration of Preoperative Chemotherapy
- •Treatment of PHI
- •Conclusion
- •Key Points
- •References
- •Biliary Leaks and Thoracobiliary Fistula
- •Introduction
- •Definitions
- •Biliary Leak and Grading System
- •Controlled and Uncontrolled Biliary Leaks
- •Source
- •Risk Factors and Prevention
- •Prevention
- •Risk Factors for Bile Leaks After Extrahepatic Bilioenteric Anastomosis
- •Prevention
- •Risk Factors for Bile Leak After Liver Resection
- •Prevention of Biliary Leaks After Hepatectomy
- •Intraoperative Tests for Bile Leaks
- •Postoperative Drains
- •Diagnosis
- •Investigations
- •Ultrasonography or CT Scan
- •Fistulogram
- •MRC, ERC, and PTC
- •HIDA
- •Management
- •Medical Management
- •Endoscopic Management
- •Interventional Radiology
- •Combined Endoscopic and Interventional Radiology Approaches—Rendezvous Procedures
- •Thoracobiliary Fistula
- •Diagnosis
- •Treatment
- •Five Key Points to Avoid Complications
- •Five Key Points to Diagnosis or Manage Complications
- •References
- •Contralateral Bile Duct Injury During Hepatic Resection
- •Introduction
- •Etiology and Risk Factors
- •Anatomical Variations
- •Difficult Surgical Resection and Reoperation
- •Type of Liver Resection
- •Aggressive Dissection and Devascularization of Bile Ducts
- •Initial Investigations and Management
- •Initial Investigations
- •Stabilization and Operative Planning
- •No Evidence of Distal Obstruction with Fistula
- •Evidence of Distal Obstruction with Fistula
- •Evidence of Distal Obstruction but no Fistula
- •Definitive Management
- •Anatomy Relevant to Operative Repair of Biliary Outflow of Remnant
- •Operative Repair
- •Repair of Injury to Right Liver Outflow
- •Repair of Injury to Left Liver Outflow
- •Prevention of Contralateral Bile Duct Injury
- •Attention to Variation in Biliary
- •Intrahepatic Control of Biliary Radicals
- •Tumor Close to the Hilum
- •Outcomes
- •Five Key Points to Avoid Contralateral Bile Duct Injury
- •Five Key Points to Diagnose and Treat Contralateral Bile Duct Injury
- •References
- •Massive Intraoperative Hemorrhage During Hepato-Biliary and Pancreatic Surgery
- •Introduction
- •Hemorrhage During Liver Surgery
- •Magnitude of Problem
- •Hepatic Vascular Anatomy
- •Prevention of Major Hemorrhage During Hepatic Resection
- •Techniques Aimed at Reducing Blood Loss During Hepatic Surgery
- •Deliberate Dissection and Exposure of Retro-Hepatic Vena Cava and Major Hepatic Veins
- •Hepatic Inflow Control
- •Vascular Isolation
- •Acute Normovolemic Hemodilution (ANH)
- •Management of Intra-Operating Bleeding During Liver Resection
- •Massive Hemorrhage During Pancreatic Surgery
- •Pancreatic Anatomy
- •Bleeding During Pancreaticoduodenectomy
- •Summary
- •5 Key Points to Avoid Complications
- •References
- •Intraoperative Injury to Hepatic Arterial Structures
- •Introduction
- •Normal Anatomy of the Hepatic Arterial Vasculature
- •Variant Anatomy of the Hepatic Arterial Vasculature
- •Replaced and Accessory Right Hepatic Arteries
- •Replaced and Accessory Left Hepatic Arteries
- •Replaced Common Hepatic Artery
- •Celiac Artery Stenosis
- •Preoperative Radiographic Assessment
- •Preoperative Considerations
- •Intraoperative Considerations
- •Specific Intraoperative Considerations
- •Pancreaticoduodenectomy (PD)
- •Replaced/Accessory Right Hepatic Artery
- •Replaced Common Hepatic Artery
- •Celiac Artery Stenosis
- •Hemi-hepatectomy
- •Conclusions
- •Key Points: Preoperative Interventions
- •Key Points: Intraoperative Principles
- •References
- •Hepatic Abscess
- •Etiology
- •Diagnosis
- •Computed Tomography
- •Ultrasound
- •Magnetic Resonance Imaging
- •Treatment
- •Five Key Points on How to Avoid Complications
- •Five Separate Key Points on Diagnosing and/or Managing the Complication
- •References
- •Hepaticojejunostomy Anastomotic Strictures
- •Introduction
- •Diagnosis
- •Clinical and Biological Presentation
- •Morphological Evaluation
- •Incidence and Risk Factors According to the Clinical Context
- •Iatrogenic Bile Duct Injury
- •Liver Transplantation (LT)
- •Pancreatic Head Resection
- •Choledochal Cyst
- •Therapeutic Options
- •Conservative Management
- •Choice of the Approach
- •To Stent or Not to Stent?
- •Periprocedural Management
- •Surgery
- •Revisionary Surgery
- •Liver Resection
- •Liver Transplantation (LT)
- •Key Points: How to Avoid HJ Stricture
- •Key Points: Diagnostic and Management
- •References
- •Defining Pancreatico-Jejunostomy Strictures (PJS) and Pancreatico-Jejunostomy Strictures (PGS) by Symptoms, Morphology and Function
- •Management of Intractable Pain Due to PJA or PGS Stenosis in Surgical Case Series
- •Endoscopic Techniques for Management of PJA Strictures
- •Technical Clinical Results for ERP
- •EUS-Guided Access and Drainage
- •EUS-Guided Rendezvous
- •Pancreatic Antegrade Needle Knife (PANK) Technique
- •EUS-Guided Pancreatogastrostomy
- •Jejunal Stenosis Mimicking PJA Stenosis
- •Conclusions
- •Key Points
- •References
- •Postoperative Portal, Mesenteric, and Splenic Vein Thrombosis
- •Introduction
- •Pathophysiology
- •Diagnosis: Clinical Manifestations and Blood Tests
- •Diagnosis: Imaging Tests
- •Treatment
- •Anticoagulation
- •Interventional Techniques
- •Surgery
- •Conclusion
- •Key Points for Diagnosis
- •Key Points for Treatment
- •References
- •Postpancreatectomy Hemorrhage: Early and Late
- •Introduction
- •Prevention of Late PPH
- •The Falciform Ligament
- •The Portal Dissection
- •GDA Ligation
- •Reinforcing the Pancreatic Transection Site (Distal Pancreatectomy)
- •Diagnosis of Late PPH
- •Symptoms/Signs
- •Imaging for Late PPH
- •Management of PPH
- •Early PPH
- •Late PPH
- •Conclusion
- •Key Points to Avoid Complications
- •Key Points to Diagnose/Manage
- •References
- •Major Disruptions of Pancreaticojejunostomy
- •Introduction
- •Conclusion
- •Key Points: How to Avoid Complications
- •Key Points: Diagnosis/Management
- •References
- •Persistent Pancreatic Fistula
- •Introduction
- •Definition of Pancreatic Fistula
- •Procedure-Specific Incidence and Risk Factors for Pancreatic Fistula
- •Pancreaticoduodenectomy
- •Distal Pancretectomy
- •Duodenum-Preserving Pancreatic Head Resection/Lateral Pancreaticojejunostomy
- •Pancreatic Pseudocyst Drainage/Pancreatic Necrosectomy
- •Other Pancreatic Resections
- •Prevention of Pancreatic Fistula
- •Complications of Pancreatic Fistula
- •Management of Pancreatic Fistula
- •Initial Management
- •Delineation of Pancreatic Duct
- •Definitive Treatment of Pancreatic Fistula
- •Operative Management of Pancreatic Fistula
- •Conclusion
- •Key Points to Avoid Complications
- •Key Points: Diagnosing and/or Managing Complications Either Intra- or Postoperatively
- •References
- •Management of Chyle Leaks Following Pancreatic Resection
- •Introduction
- •Background
- •Anatomy and Physiology of Visceral Lymphatics
- •Diagnosis of a Chyle Leak
- •Management of a Chyle Leak
- •The Contained Chyle Leak
- •Chylous Ascites
- •Management of Refractory Chyle Leaks
- •Conclusion
- •Key Points in Managing a Chyle Leak
- •References
- •Overview
- •Diagnosis
- •Prevention
- •Identifying Risk Factors
- •Role of Octreotide
- •Role of Pancreatic Stenting
- •Dissection and Management of the Pancreatic Stump
- •Minimally Invasive Versus Open Techniques
- •Drain Placement and Management
- •Management of Complications of Pancreatic Leak
- •Goal-Directed Resuscitation and Infection Control
- •Further Definition of Anatomy and Source Control
- •Optimizing Patient Clinical Status for Ongoing Conservative Management
- •Deliberate Reintervention When Clinically Indicated
- •Summary
- •Key Points on Avoiding Complications
- •Key Points on Diagnosis/Management of Complications
- •References
- •Part IV
- •Colorectal Surgery
- •Pearls for the Small Bowel and Colon That Will Not Reach
- •Introduction
- •Anatomic Constraints
- •Diagnosing the Problem
- •Specific Techniques: Making It Reach
- •Colorectal and Coloanal Anastomosis
- •Lateral-to-Medial Approach
- •Medial-to-Lateral Approach
- •Ileal-Pouch Anal Anastomosis (IPAA)
- •Stomas that Do Not Reach
- •Bailout Maneuvers—It Just Does Not Reach
- •Conclusions
- •Key Points on How to Avoid the Complication
- •Key Points on Diagnosing/Managing the Complication
- •References
- •Anastomotic Leak/Pelvic Abscess
- •Introduction
- •Prevention
- •Diagnosis and Management
- •Diagnosis
- •Management
- •Type I: Generalized Peritonitis
- •Type II: Localized Pelvic Abscess
- •Type III: Fistula
- •Long-Term Outcome
- •Need for a Permanent Stoma
- •Stenosis or Stricture
- •Local Recurrence
- •References
- •Management of Anastomotic Stricture
- •Introduction
- •Etiology of Anastomotic Stricture
- •Presentation and Diagnosis
- •Nonoperative Treatment
- •Balloon Dilation and Endoscopic Options
- •Stents
- •Operative Treatment
- •Reoperative Surgery
- •Anastomotic Revision and Diverting Stomas
- •New Technology
- •Conclusion
- •To Avoid Anastomotic Strictures in Colorectal Resections
- •Five Points on Diagnosing and Managing Anastomotic Strictures
- •References
- •Intraoperative Ureteral Injury
- •Introduction
- •Role of Preoperative Stenting
- •Incidence of Ureteric Injury and Early Identification of Injury
- •Placement of Ureteral Stents
- •Detection of Ureter Injury
- •Management of Ureter Injury
- •Proximal Third Injuries
- •Middle Third Ureteral Injuries
- •Lower Third Ureteral Injuries
- •Delayed Ureteral Transection or Ligation
- •Management Post Repair
- •Outcomes
- •Key Points to Avoiding Injury
- •Key Points to Diagnosis and Manage the Complication
- •References
- •Introduction
- •Anatomy
- •Incidence
- •Types of Prostatic Urethral Injury
- •Prevention
- •Detection
- •Management
- •Delayed Rectourethral Fistula
- •Conclusion
- •Key Points on Avoiding Complications
- •Key Points on Diagnosing/Managing Prostatic Urethral Injuries
- •References
- •Vaginal Injury During Stapled Anastomosis
- •Introduction
- •How to Avoid Vaginal Injury
- •How to Fix Vaginal Injury
- •Key Points on How to Avoid Vaginal Injury
- •Management of Rectovaginal Fistula
- •Introduction
- •General Principles
- •Local Repair
- •Mucosal Advancement Flap Repair
- •Endorectal Advancement Flap with Muscular Plication (Anterior Levatorplasty)
- •Transanal Sleeve Advancement Flap
- •Transvaginal Repair
- •Fistulotomy
- •Ligation of Intersphincteric FistulaTract
- •Biological Agents: Fibrin Glue and Fistula Plug
- •Miscellaneous
- •Tissue Transfer Procedures
- •Gracilis Muscle Interposition Flap
- •Martius Flap
- •Abdominal Procedure
- •Transperineal Omental Flap
- •Perioperative Management
- •Conclusion
- •Key Points to Avoid Complications
- •Key Points on Diagnosis and/or Managing Complications
- •References
- •Management of Presacral/Pelvic Bleeding
- •Introduction
- •Anatomy
- •Patterns of Injury
- •Management
- •Role of the Anaesthesiologist
- •Role of the Surgeon
- •Minimal-Access Surgery
- •The Postoperative Period
- •Summary
- •Key Points
- •References
- •Introduction
- •Preoperative Evaluation
- •Medical Comorbidities
- •Radiation Therapy
- •Chemotherapy
- •Imaging
- •Timing of Reconstruction
- •Classification of Defect
- •Reconstructive Surgical Tenants
- •Adjuncts to Flap Surgery
- •Negative Pressure Wound Therapy
- •Tissue Expansion
- •Biologic Tissue Matrices
- •Rectus Abdominis Muscle
- •Gracilis Muscle Flap
- •Gluteus Maximus Muscle
- •Pudendal Flap
- •Anteriolateral Thigh Flap
- •Postoperative Care
- •Ambulation
- •Drain Management
- •Complications
- •Summary
- •Key Points: Preventing Complications
- •Key Points: Managing Complications
- •References
- •Complications After TEM (Transanal Endoscopic Microsurgery) and TAMIS (Transanal Minimally Invasive Surgery)
- •Background
- •Complications of TEM and TAMIS
- •Postoperative Fever
- •Wound Dehiscence
- •Rectal Pain
- •Peritoneal Perforation
- •Pelvic Phlegmon and Abscess
- •Fistula
- •Bleeding
- •Incontinence
- •Conclusion
- •Key Points: Avoiding a Complication
- •Key Points: Managing/Diagnosing Septic Complications
- •References
- •Parastomal Hernia
- •Overview
- •Definition and Classification
- •Incidence
- •Pathophysiology
- •Risk Factors
- •Complications
- •Prevention
- •Preoperative Considerations
- •Operative Considerations
- •Diagnosis
- •History and Physical Exam
- •Imaging
- •Management
- •Nonoperative Management
- •Operative Management
- •Open Approach
- •Laparoscopic Approach
- •Postoperative Complications
- •Management of Recurrent Parastomal Hernias
- •Key Points: Diagnosing/Managing Parastomal Hernia
- •Key Points: Avoiding Parastomal Hernia Complications
- •References
- •Stoma Retraction/Ischemia/Stenosis
- •Introduction
- •Etiology/Incidence/Risk Factors
- •Prevention
- •Recognition/Assessment/Severity/Therapy
- •Conclusions
- •Five Keys Points in Diagnosing and Managing Stenosis, Retraction, and Ischemia in an Ostomy
- •Five Key Points on How to Avoid Tension and Ischemia in an Ostomy
- •References
- •Incontinence After Lateral Internal Sphincterotomy/Fistulotomy
- •Introduction
- •Lateral Internal Sphincterotomy
- •Fistulotomy
- •Management
- •Evaluation
- •Treatment
- •Injectables
- •Magnetic Bowel Sphincter
- •Sacral Nerve Stimulator
- •Artificial Bowel Sphincter
- •Diversion
- •Key Points: Strategies to Avoid the Complication of Incontinence
- •Key Points: Diagnosing and/or Managing the Complication of Incontinence Either Intraoperatively or Postoperatively
- •References
- •Anal Stenosis After Hemorrhoidectomy: Avoidance and Management
- •Introduction
- •Diagnosis
- •Classification of Stenosis
- •Treatment
- •Prevention
- •Nonoperative Intervention
- •Operative Intervention
- •Anatomic Versus Functional Stenoses
- •Preoperative Planning
- •Postoperative Care
- •Summary
- •Key Points: Managing Complications
- •References
- •Part V
- •Other Considerations
- •Delivering Bad News: Conversations with My Surgeon
- •Introduction
- •Informed Consent
- •The Family Does Not Want the Patient to be Fully Informed
- •Perioperative Death
- •When an Intraoperative Death Does Occur
- •Discussion of Unresectability or Metastatic Disease that Precludes Resection
- •Discussion of a Postoperative Complication
- •Discussion of the Unanticipated Major Postoperative Complication
- •Discussion of Operative Findings
- •The Need for Reoperation
- •Complications that Occur in your Absence from the Hospital
- •Withdrawal of Life-Sustaining Measures
- •Discussing the Pathology Report
- •Discussion of Long-term Survival Prospect
- •Management of the Difficult Family
- •References
- •Index

4 D. J. Mathisen and A. Muniappan
Table 1.1 Incidence of postesophagectomy tracheoesophageal fistula
Author (reference) Country Incidence Percentage
Iannettoni [6] USA 1/856 0.12
Bartels [7] Germany 4/501 0.80
Buskens [5] Netherlands 1/383 0.26
Maruyama [8] Japan 2/305 0.66
Yasuda [9] Japan 9/603 1.49
Schweigert [10] Germany 7/222 3.15
Kuwabara [11] Japan 9/475 1.89
Total 33/3345 0.99
contribute to airway ischemia [8]. While gastric
conduit ischemia and necrosis most commonly
Diagnosis
leads to mediastinal sepsis, it may also promote
formation of a TEF. A late presentation of PETEF
may be due to an ulcer in the gastric conduit or
staple line erosion into the airway, and may occur
decades after esophagectomy [12, 13].
A chest x-ray may find a dilated esophagus or
gastric conduit secondary to air leakage through
the TEF. Computed tomography (CT) delineates
the fistula with good detail in large or giant TEFs,
which are defined as a fistula involving the entire
width of the membranous wall. The CT may also
Clinical Presentation
identify anastomotic or conduit disruption after
esophagectomy and also accurately reveals me-
There are a number of signs and symptoms of
TEF which are related to the size, location, and
stage of the TEF. Early and small fistulas may
simply present with cough after oral ingestion,
also known as Ono’s sign. Persistent airway soilage typically leads to pneumonia, and signs of
sepsis and respiratory insufficiency follow. In
PETEF developing after an anastomotic leak,
there may be accompanying mediastinal sepsis,
and patients are usually critically ill with multiorgan dysfunction.
If a TEF develops in a mechanically ventilated
patient, there is usually a sudden increase in airway secretions, which represents contamination
with saliva or gastric contents. It may be difficult
to maintain a seal with the endotracheal tube’s
cuff, and in extreme cases, ventilation may become impossible if the tip of the tube migrates
into the fistula. Positive pressure ventilation may
lead to air leakage into the esophagus or gastric
conduit and leads to abdominal distention or air
escaping the pharynx.
diastinal and pleural collections.
Contrast esophagography has a role in milder presentations of TEF, when patients are able
to participate in a swallow study. Water soluble
contrast agents are strictly avoided as they can
severely exacerbate pulmonary injury. Barium is
typically used, and contrast outlining the trachea
or bronchus is seen. An experienced radiologist
is able to localize the level of fistula with respect
to the airway and the esophagus (or neo-esophagus).
Endoscopic inspection of the tracheobronchial
tree and esophagus further elucidate the location
and nature of the fistula. While a small fistula may
be difficult to appreciate in the folded mucosa of
the esophagus or gastric conduit at esophagoscopy, it is usually apparent at bronchoscopy. In
mechanically ventilated patients, the orotracheal
or tracheostomy tube may need to be withdrawn
to reveal the fistula. Esophagoscopy is useful to
assess the integrity of an esophagogastric anastomosis and viability of a gastric conduit in patients
with PETEF.

51 Tracheo-Esophageal Fistula
Management
Effective management of TEF requires a combination of conservative, endoscopic, and operative
measures. The therapies chosen are predicated on
the patient’s presentation and condition.
Conservative Management
When a patient presents early after a small TEF
develops, the only complaint may be a cough
with oral ingestion. Even before the diagnosis is
confirmed, the patient is made strict nil per os.
The patient is instructed to stay upright at all
times, which minimizes reflux and ensures drainage of the gastric conduit in patients presenting
after esophagectomy. When there are signs of
tracheobronchitis or early pneumonia there is a
low threshold to start empiric antibiotic therapy.
A more severe presentation of TEF is the patient with advanced pneumonia and frank respiratory failure. Mechanical ventilation is unavoidable in this situation. It is important to position
endotracheal tubes with the cuff inflated beyond
the location of the tracheal fistula, if possible.
Bronchoscopic guidance of ortracheal and tracheostomy tubes is invaluable in these circumstances. Imprecise positioning can lead to exacerbation of the fistula, if the balloon is inflated adjacent to or within the fistula. When initially intubating the patient with a TEF, it is best to guide
the tracheal tube over a bronchoscope, in order to
avoid intubation of the fistula, a life-threatening
event if it is not recognized immediately.
Even with the cuff positioned and inflated beyond the TEF, airway contamination is possible.
Appropriate measures to decompress the stomach
or gastric conduit are indicated to prevent ongoing soilage across the fistula. An aggressive pulmonary toilet with bronchoscopy and appropriate
antibiotic therapy are the mainstays of treating
pneumonia after the development of TEF. Weaning from positive pressure ventilation remains a
priority and greatly facilitates the medical and
surgical management of patients with TEF, as emphasized in the section on operative techniques.
Especially in the mechanically ventilated patient with a TEF, there is early consideration of
jejunostomy tube placement to provide adequate
enteral nutrition. A gastrostomy may also be considered to prevent reflux of gastric contents into
the TEF.
There are a few reports of spontaneous closure of TEF with conservative management
alone [14]. Only early and the tiniest of fistulas
are expected to heal without operative management. These patients presumably had fistula
tracts that had not already epithelialized, and
ongoing drainage across the fistula was minimal. The fistula tracts that spontaneously close
are usually long and likely lead into pulmonary
parenchyma rather than the trachea or main-stem
bronchus. Such patients are not ill, and a trial of
conservative management is reasonable, as long
as patients are closely observed for deterioration.
In the vast majority of patients presenting with
clinically significant TEFs, conservative management is expected to fail in the long-term.
Endoscopic Management
An increasing experience with esophageal and
airway stents has led to their application in the
management of anastomotic leaks and TEF.
Exclusion of the fistula by covered stents may
partially or completely control exchange of air
and fluid across the fistula. There are isolated
reports of acquired TEFs resolving after stenting
[10]. As with the patients that had TEFs resolve
with conservative management alone, stents are
likely associated with fistula closure only when
the TEF is extremely small and the tract is still
not epithelialized, which is most commonly not
the case. More typical of expected outcomes are
the experiences of Blackmon et al., who placed
stents to control the TEF in four patients with two
patients succumbing to their TEF related medical problems and two reported to have control of
the fistula without evidence of healing [15]. Even
more concerning are the outcomes of Eleftheriadis et al., who used stents in 12 patients with TEF,
observed nine deaths, and had 3 patients who

6 D. J. Mathisen and A. Muniappan
went on to definitive operative management, as
the TEF persisted after the stent placement [16].
Esophageal stents may actually potentiate the
TEF-associated pathology. In one report, giant
TEFs were induced by esophageal stents placed
for a benign stricture or esophageal perforation
[17]. The radial force of self-expanding esophageal stents has the potential to enlarge the TEF
or exclude abscesses that would normally drain
back into the esophagus. Another concern is that
stenting does not address mediastinal sepsis that
may accompany anastomotic disruptions or gastric conduit necrosis. Persistent mediastinal contamination and inflammation not only leads to
TEF, but may also result in aortoesophageal fistula, which is almost uniformly fatal. One report,
in which a silicone airway stent controlled a
PETEF, describes a patient who eventually succumbed to hemorrhage that appeared suspicious
for aortogastric fistula [18]. A further concern
with airway stenting is that it induces inflammation and granulation. This may extend the length
of airway injury, which complicates or precludes
definitive operative repair. A technical difficulty
with esophageal stent deployment for the PETEF
is that there is only a limited esophageal length
to accommodate the stent after a cervical anastomosis. Additionally, the anastomosis, conduit,
and esophagus are relatively capacious relative
to the stent’s diameter, and stent migration and
poor sealing of the fistula are common.
There is very little role for esophageal or airway stenting to control the benign TEF. Conservative measures such as careful positioning of
an endotracheal tube’s cuff, gastric decompression, and jejunal feeding are sufficient to allow
a patient to recover from complications of a TEF
prior to operative repair. Moreover, in patients
with evidence of conduit necrosis and significant
mediastinal or pleural contamination after an
esophagectomy, stenting is absolutely contraindicated, and is expected to fail quite quickly. In
contradistinction, esophageal stenting is the standard of care for the management of malignant
TEF, and is quite effective in controlling the TEF
during the short life-expectancy of such patients
[19].
An alternative endoscopic strategy that is
sometimes promoted is fistula control with glue
or endoscopically applied clips. This strategy is
most effective in pediatric cases of benign TEF,
where fistulas are typically pinpoint and there
is minimal associated pathology in the esophagus, airway, and mediastinum. Fistula closure is
achieved by deepithelializing the fistula tract and
sealing the defect with glue or clips [20]. Efficacy in adult cases of TEF is anecdotal and there
is no reliable data to suggest that there is a role
for endoscopically applied clips or glue in the
management of acquired TEF, such as those that
occur postesophagectomy.
Operative Management
Operative repair of an acquired TEF is indicated
in all patients with a reasonable life expectancy.
This includes patients who have undergone complete resection of esophageal cancer and develop
PETEF. The patient is weaned from mechanical
ventilation, as tracheal repairs should ideally not
be exposed to positive pressure ventilation. Aggressive pulmonary toilet, appropriate antibiotic
therapy, and reliable enteral nutrition are essential for the patient’s recovery. This may require
tracheostomy and feeding tube placement if the
patient does not quickly improve after presentation. The operative techniques are selected based
upon the location and size of the TEF as well as
the associated pathology (e.g., conduit necrosis).
Postesophagectomy TEF
PETEF occurs primarily after an anastomotic
leak or gastric conduit necrosis. Patients are
quite ill from pulmonary, mediastinal, and pleural contamination. Early operative intervention
is typically necessary in these patients. Fistulas
are predominantly located in the distal half of
the trachea or proximal main-stem bronchus, but
may be located more proximally if the anastomosis was constructed close to the cricopharyngeus.
Preoperative endoscopy localizes the TEF and
guides the surgeon as to whether the fistula may

71 Tracheo-Esophageal Fistula
be approached with a low cervical collar incision
or by thoracotomy. Endoscopy also establishes
whether or not the conduit is ischemic. Flexible
and rigid bronchoscopy determine whether there
is any tracheal stenosis and to measure the distance of the fistula from the larynx and carina.
When conduit necrosis or major anastomotic
dehiscence results in a TEF several days after an
esophagectomy, and patients are critically ill, the
appropriate operation is trans-thoracic takedown
of the anastomosis. Nonviable stomach is resected, and the remainder is returned to the abdomen. The tracheal or bronchial defect is repaired
primarily with interrupted vicryl suture, which
minimizes airway granulation. The defect is buttressed with robust vascularized tissue, such as an
intercostal muscle flap. The proximal esophagus
is used to construct an esophagostomy, preserving as much esophagus as possible to facilitate
future reconstruction. Thorough irrigation and
drainage of the mediastinum and pleura, including decortication of the lung, is essential.
A TEF that occurs months to years after an
esophagectomy is quite different in terms of presentation and pathology. There is minimal or no
mediastinal inflammation and contamination.
The conduit is viable and the anastomosis may be
completely healed and intact. A more measured
approach to operative repair may be taken and the
patient’s condition is optimized with simple conservative measures. It is important to determine
whether or not there is tracheal stenosis in addition to the TEF, as this will dictate whether or not
a simple fistula division is all that is required or if
a tracheal resection and reconstruction is necessary to address a significant stricture. All but the
lowest supracarinal TEFs may be approached via
a low cervical collar incision (Fig.
patients with a small fistula and normal trachea,
the fistula is approached from the side, through
the cervical incision (Fig.
nerve on the side the fistula is approached from
is at great risk, and care should be taken to avoid
retractor injury or inadvertent division. Once the
fistula is isolated and divided, the trachea is repaired with interrupted absorbable vicryl sutures.
The esophageal or gastric conduit defect is repaired with a two-layered closure whenever possible. The inner layer is an interrupted inverted
1.2).
1.1).
In TEF
The recurrent
silk closure. A second outer layer is constructed
with interrupted silk sutures approximating
esophageal muscle or gastric serosa. A pedicled
strap muscle is sutured in place to buttress and
isolate the esophageal and tracheal suture lines,
which otherwise would lie next to each other and
predispose to fistula recurrence. When there is a
relatively large defect in the membranous wall of
the trachea and there is a concern of airway narrowing with primary repair, a small amount of
esophageal wall may be left behind on the tracheal aspect of the fistula to augment the amount
of tissue available to reconstruct the membranous
wall. There is little concern about narrowing the
lumen of the esophagus with this maneuver, as
long as the residual lumen easily accommodates
a nasogastric tube. Patients are extubated in the
operating room whenever possible. A contrast
esophagogram is performed after 7 days to ensure healing before starting oral alimentation.
Postintubation TEF
Postintubation TEF also exhibit circumferential
tracheal damage and stenosis induced by cuff
injury or granulation and scar from the tracheotomy. Operative repair requires not just division
and repair of the TEF, but also resection and reconstruction of the diseased segment of the trachea. While the airway reconstruction adds to
the complexity of the operation, the fistula repair
is actually facilitated by the airway resection,
which allows direct approach and repair of the
fistula, as opposed to the approach from the side.
The operation is performed through a low cervical collar incision (Fig. 1.1). The diseased segment of the trachea is circumferentially dissected,
taking care to dissect close to the airway to avoid
injury to the recurrent nerves. Division of the airway requires cross-field ventilation of the distal
airway and is performed with close collaboration
of the anesthesiologist (Fig. 1.3a). The diseased
airway is resected, taking care not to remove trachea before determining that a tension-free repair
is feasible. The esophageal defect is closed over
a nasogastric tube using a two-layer closure as
described above (Fig. 1.3b). The tracheal reconstruction is performed using an interrupted vicryl

8 D. J. Mathisen and A. Muniappan
Fig. 1.1 Surgical approach for tracheoesophageal fistula
( TEF). A low-collar incision permits access to all but the
lowest TEFs. Occasionally, a vertical midline extension
suture technique (Fig. 1.3d), using the principles
we have described previously [2].
Separation of the tracheal and esophageal suture lines is accomplished with a pedicled strap
muscle (Fig. 1.3c). The anterior aspect of the tracheal anastomosis is also covered with another
strap muscle or thyroid isthmus. Prolonged mechanical ventilation is avoided after a tracheal
anastomosis, and patients are normally extubated
in the operating room. If a tracheostomy is necessary, it is placed at least two rings caudal to the
anastomosis. In some instances, the length of
tracheal stenosis exceeds the limits of how much
trachea may be safely resected. In these cases, the
division and repair of the fistula is still warrant-
to the sternal angle enhances access to the mediastinal trachea, necessary for the repair of lower TEFs. (With permission from [2] © Elsevier)
ed, and the remaining airway stenosis is managed
with a T-tube placed through a tracheotomy.
Bronchoesophageal Fistula
Most reports describing the management of TEF
lump together fistulas to the trachea and the
mainstem bronchus. There are, however, some
differences between TEF and bronchoesophageal
fistulas (BEF) that should be highlighted. BEFs
are typically smaller than true TEFs, and small
fistulas may be easily missed at esophagoscopy
or bronchoscopy. A high index of suspicion and
an expert contrast esophagogram are often nec-

91 Tracheo-Esophageal Fistula
Fig. 1.2 a Lateral approach of a small tracheoesophageal
fistula ( TEF) without tracheal stenosis. b Primary repair of
esophageal and tracheal membranous wall defects without
tracheal resection. (With permission from [2] © Elsevier)
essary to establish the diagnosis. As with TEF,
BEF are best managed by surgical division of the
fistula and repair of the airway and esophageal
defects. A right thoracotomy is the primary incision used to approach fistulas to either the proximal right or left main-stem bronchus. Resection
of the bronchus or lung is almost never necessary,
and the goal should be to preserve all functioning
pulmonary tissue. The intercostal muscle flap is
the most robust and versatile tissue for buttressing the esophageal and bronchial repairs.
Prevention of Tracheoesophageal Fistula
It is remarkable that there is about a 30-fold difference in the incidence of PETEF (0.1–3 %) in several large series of esophagectomies (Table 1.1).
While there are certainly patient variables such
as preoperative chemoradiotherapy and malnutrition that contribute to the development of TEF,
there are also just as certainly operative variables
as well. It is easy to see that minimizing the rate
of postesophagectomy anastomotic leaks should
also minimize the risk of the TEF development.
The author is troubled by the tolerance of anastomotic leak rates greater than 5 %, when it is feasible to virtually eliminate the incidence of anas-
Fig. 1.3 Surgical management of postintubation tracheo-
esophageal fistula ( TEF). a Exposure of TEF after the
division of the trachea distal to fistula. Distal trachea is
intubated for cross-field ventilation. b Two-layer closure
of esophageal defect. The first layer is an inverted interrupted suture closure, and the second layer is a simple
interrupted layer to bring the muscle together. c Strapmuscle reinforcement of the esophageal repair, which
buttresses the closure and separates it from the tracheal
anastomotic suture line. d Primary reconstruction of trachea with an interrupted anastomotic suture technique.
(With permission from [2] © Elsevier)

10 D. J. Mathisen and A. Muniappan
tomotic leaks [21, 22]. Attention to anastomotic
technique and consideration of buttressing anastomoses with omentum or muscle may mitigate
anastomotic leaks and reduce the risk of TEF.
Aggressive nodal dissection and traumatic injury to the airway also predispose to the TEF formation after an esophagectomy. The incidence of
airway injury during a transhiatal esophagectomy
is as high as 1 %, although it is certainly much
lower at centers who practice this technique extensively [6]. If the surgeon cannot safely perform a transhiatal dissection in every instance,
the patient is better served by a technique that
incorporates transthoracic or video assisted thoracic surgery (VATS) techniques that allow safe
dissection of the esophagus from the airway.
Delayed TEFs after esophagectomy may arise
many years after the original operation. They typically arise due to perforated ulcers in the gastric
conduit, or erosion of the staple line used to construct the gastric conduit. While the development
of an ulcer is unlikely to be preventable, staple
line erosion can be mitigated by over-sewing the
staple lines. This step is often omitted in minimally invasive esophagectomy, as it is relatively
inconvenient to perform and extends the operative time. In patients undergoing esophagectomy
for benign disease or early stage esophageal cancer and for whom life-expectancy is long, oversewing the gastric staple line is advisable.
Outcomes
Development of PETEF is associated with significant risk of mortality, in the range of 20–30 %
in most published series [9]. Patients may succumb either to respiratory failure or multiorgan
dysfunction. The greatest risk of mortality is in
patients with PETEF and gastric conduit necrosis. Patients with chronic or subacute TEFs do
much better and aggressive treatment is warranted to ensure complete recovery in the majority
of patients.
Conservative nonoperative management of
PETEFs is reported to be successful in scattered
reports. When described, the fistulas are usually
pinpoint in size and patients are otherwise well.
Conservative management is normally abandoned when the fistula fails to close in 4–6 weeks
[5]. Conservative management alone is insufficient for most patients with PETEF.
Endoscopic management of PETEF is also reported to succeed in scattered reports. One such
report claimed successful closure of PETEF in
four patients undergoing stent placement [10].
A closer examination of their results reveals that
two patients died with the stent left in place. The
two other patients who had successful healing of
the TEF had esophageal stents placed for anastomotic leaks, and the size and location of the
fistula was not precisely defined. Of the seven
patients with PETEF, only two survived. We are
of the opinion that stents and endoscopic application of glue and clips only delay definitive treatment. Moreover, we are wary of stent induced
complications such as pressure induced necrosis
of the airway and gastric conduit as well as possible aorto-enteric fistula.
The most reliable approach to the management of TEF is operative, using the principles
outlined above. A cervical approach, and occasionally a cervico-mediastinal approach where
a partial upper sternotomy is also performed, is
suitable for 90
our experience [1]. About three-fourths of our
patients required tracheal resection and reconstruction, while the remainder simply underwent
membranous wall repair after fistula division. All
four PETEF patients underwent primary repair
without tracheal resection in our series. Patients
undergoing surgical management of TEFs have
mortality rates of about 3
of the fistula is expected
of patients, and the majority of patients resume
oral alimentation and breathe
appliance.
% of operative repairs of
%. Successful closure
in approximately 90
without a tracheal
TEF, in
%
Conclusion
Although the incidence of PETEF is relatively
low, the significant morbidity and mortality associated with this condition dictate that this complication is avoided by minimizing the risk of
anastomotic leaks and taking care to preserve the

111 Tracheo-Esophageal Fistula
vasculature of the airway and the gastric conduit.
If a TEF occurs, there is a step-wise and ordered
approach to the management that encompasses
conservative, endoscopic, and operative measures. An individualized approach to TEF management that takes into consideration the size and
location of the TEF as well as the condition of
the gastric conduit will ensure the best outcomes.
Five Key Points to Avoid Complications
1. Minimize airway ischemia by preserving
bronchial vasculature during nodal dissection.
2. Avoid prolonged nasogastric tube placement
in the setting of an inflated tracheal cuff.
3. Avoid inadvertent tracheobronchial trauma
when mobilizing esophagus.
4. Ensure gastric conduit is well perfused prior
to anastomosis.
5. Consider buttressing anastomosis routinely
or when there is a concern about anastomotic
healing. Consider over-sewing gastric stapleline.
Five Key Points to Diagnose or Manage Complications Intra or Postoperatively
1. Diagnosis of small TEFs requires a high index
of suspicion as well as radiographic and endoscopic examination to confirm.
2. Bronchoscopic guided placement of endotracheal or tracheostomy tubes is critical in patients requiring mechanical ventilation.
3. Wean patients from mechanical ventilation
prior to operative repair of TEF.
4. Avoid routine stenting of the esophagus or airway for management of PETEF.
5. Separate tracheal and esophageal suture lines
with pedicled muscle, after the division of the
TEF.
References
1. Muniappan A, Wain JC, Wright CD, et al. Surgical
treatment of nonmalignant tracheoesophageal fistula: a thirty-five year experience. Ann Thorac Surg.
2013;95:1141–6.
2. Mathisen DJ, Grillo HC, Wain JC, Hilgenber
AD. Management of acquired nonmalignant
tracheoesophageal fistula. Ann Thorac Surg.
1991;52:759–65.
3. Macchiarini P,
Dartevelle P. Evaluation and outcome of different surgical techniques for postintubation tracheoesophageal fistulas. J Thorac Cardiovasc Surg.
2000;119:268–74.
4. Shen KR, Allen MS, Cassivi SD, et al. Surgical man
agement of acquired nonmalignant tracheoesophageal and bronchoesophageal fistulae. Ann Thorac
Surg. 2010;90:914–8.
5. Buskens CJ, Hulscher JBF, Fockens P, Obertop H,
van Lanschot JJB. Benign tracheo-n
fistulas after subtotal esophagectomy. Ann Thorac
Surg. 2001;72:221–4.
6. Iannettoni MD, Whyte RI, Orringer MB. Catastrophic complications
gastric anastomosis. J Thorac Cardiovasc Surg.
1995;110:1493–501.
7. Bartels HE, Stein HJ, Siewert JR. T
chial lesions following oesophagectomy: prevalence, predisposing factors and outcome. Br J Surg.
1998;85:403–6.
8. Maruyama K, Motoyama S, Sato
cheobronchial lesions following esophagectomy:
erosions, ulcers, and fistulae, and the predictive
value of lymph node-related factors. World J Surg.
2009;33:778–86.
9. Yasuda T
of gastro-tracheobronchial fistula: a serious complication after esophagectomy and reconstruction using
posterior mediastinal gastric tube. Dis Esophagus.
2012;25:687–93.
Schweigert M, Dubecz A, Beron M, Muschweck
10.
H, Stein HJ. Management of anastomotic leakageinduced tracheobronchial fistula following oesophagectomy: the role of endoscopic stent insertion. Eur J
Cardiothorac Surg. 2012;41:74–80.
Kuwabara S, Tonouchi
11.
strategy for benign gastric tube-tracheobronchial fistula after esophagectomy for esophageal cancer: 9
case reports and review of the literature. Esophagus.
2013;10:135–43.
Bakhos C, Alazemi S, Michaud G, DeCamp MM.
12.
Staged repair
tula 12 years after esophagectomy for esophageal
cancer. Ann Thorac Surg. 2010;90:83–5.
Verhoye JP, Chapelier A, Fadel E,
eo-esophageal
of the cervical esophago-
Y, et
, Sugimura K, Yamasaki M, et
A, Manabe S, et
of benign tracheo-neo-esophageal fis-
al. Ten
al. T
racheobron-
al. Tra
cases
reatment
g
-
-

12 D. J. Mathisen and A. Muniappan
18.
13. Kron IL, Johnson AM, Morgan RF. Gastrotracheal
fistula—a late complication after transhiatal esophagectomy. Ann Thorac Surg. 1989;47:767–8.
14.
Martin-Smith JD, Larkin JO, O'Connell F
Reynolds JV. Management of gastro-bronchial fistula complicating a subtotal esophagectomy: a case
report. BMC Surg. 2009;9:20.
15.
Blackmon SH, Santora R, Schwarz P, Barroso
Dunkin BJ. Utility of removable esophageal covered
self-expanding metal stents for leak and fistula management. Ann Thorac Surg. 2010;89:931–7.
Eleftheriadis E, Kotzampassi K. Temporary stent-
16.
ing of acquired benign tracheoesophageal fistulas
in critically ill ventilated patients. Surg Endosc.
2005;19:811–5.
17.
Han Y, Liu
induced tracheoesophageal fistula. J Thorac Cardiovasc Surg. 2009;137:813–7.
K, Li X, et
al. Repair of massive
, Ravi N,
A,
stent-
Sahebazamani M, Rubio E, Boyd M. Airway gastric
fistula after esophagectomy for esophageal cancer.
Ann Thorac Surg. 2012;93:988–90.
19.
Ross WA,
role of self-expanding
of malignant dysphagia and fistulas. Gastrointest
Endosc. 2007;65:70–6.
20.
Richter GT, Ryckman F
Endoscopic management of recurrent tracheoesophageal fistula. J Pediatr Surg. 2008;43:238–45.
21.
Mathisen DJ, Grillo HC, Wilkins EW
Hilgenberg AD. Trans-thoracic esophagectomy—a
safe approach to carcinoma of the esophagus. Ann
Thorac Surg. 1988;45:137–43.
22.
Heitmiller RF, Fischer
cal esophagogastric anastomosis: results following esophagectomy for carcinoma. Dis Esophagus.
1999;12:264–9.
Alkassab F, Lynch PM, et
metal stents in the treatment
, Brown RL, Rutter MJ.
A, Liddicoat JR. Cervi-
al. Evolving
, Moncure AC,

Esophageal Strictures Refractory to Endoscopic Dilatation
Shawn S. Groth, David D. Odell
and James D. Luketich
2
Introduction
Esophageal stricture is a common issue faced
by clinicians who care for patients with foregut
disorders. Generally, strictures can be effectively
managed using endoscopic techniques such as dilation. Improved control of the primary pathology, in most cases gastroesophageal reflux disease
(GERD), is also typically effective in limiting
recurrence of a stricture after therapy. However,
while many strictures are effectively managed
with simple dilatation, a minority remain refractory to treatment, posing a particularly difficult
challenge to both the patient and the physician.
We define such a “refractory” esophageal stricture if one or more of the following criteria are
met: (1) failure to achieve an adequate luminal
diameter to allow intake of solid food without
dysphagia despite up to four repeat dilatations
at 2-week intervals or (2) stricture which requires surgical intervention at any point. While
such strictures can be challenging to manage, a
thoughtful and systematic approach can allow the
J. D. Luketich () · S. S. Groth · D. D. Odell
Department of Cardiothoracic Surgery, University of
Pittsburgh Medical Center, Pittsburg, PA, USA
e-mail: luketichjd@upmc.edu
S. S. Groth
e-mail: grothss@upmc.edu
D. D. Odell
e-mail: odelldd@upmc.edu
restoration of good swallowing function for the
patient.
Etiology of Esophageal Strictures
Esophageal strictures form as the result of injury to the esophageal wall with the subsequent
development of scar tissue and secondary tissue
contraction. The vast majority of the time, stricture formation is associated with long-standing
GERD and may be seen in combination with a
primary motor disorder of the esophagus. However, approximately 20–30 % of cases are unrelated to GERD. These strictures may be associated with surgical anastomoses (such as following
esophagectomy), scar formation after antireflux
surgery, caustic ingestion, prior radiation treatment, or malignancy.
Typical esophageal strictures are characterized by a cicatricial, anatomic narrowing of the
esophagus, which we define as either simple or
complex strictures. Simple strictures are short
(< 2 cm) and focal, straight, and can be traversed
with an adult endoscope prior to dilatation. In
contrast, complex strictures are long (> 2 cm), irregular, angulated or difficult to traverse with an
endoscope [1].
T. M. Pawlik et al. (eds.), Gastrointestinal Surgery, DOI 10.1007/978-1-4939-2223-9_2,
© Springer Science+Business Media New York 2015
13
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