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292 Part III Esophagus
FIGURE 14-1 Type I hiatal hernia or sliding hiatal hernia.
(Oelschlager B, Eubanks T, Pellegrini C. Sabiston Textbook of Surgery, 18th ed, Chapter 42.)
Clinical Presentation
Presentation of patients with PEH can vary widely from an incidental nding to an emergent presentation involving strangulation. Symptoms are often nonspecic and can include nausea, dysphagia, dyspnea, heartburn, regurgitation, bloating, chest pain, abdominal pain, early satiety, and aspira­tion leading to pneumonia. Severe pain is an ominous sign and usually indicates volvulus or incarceration evolving to strangulation. Symptoms can also be vague and intermittent with patients experiencing relief of their symptoms with shift­ing of their hernia contents or with relief of visceral torsion.
Iron deciency anemia resulting from gastrointestinal (GI) bleeding due to mucosal ischemia is a common present­ing nding in patients with PEH, aecting over one-third of patients with this condition.
1
is results from mucosal
FIGURE 14-2 Type II hiatal hernia. (Oelschlager B, Eubanks T,
Pellegrini C. Sabiston Textbook of Surgery, 18th ed, Chapter 42.)
FIGURE 14-3 Type III hiatal hernia. (Oelschlager B, Eubanks T,
Pellegrini C. Sabiston Textbook of Surgery, 18th ed, Chapter 42.)
Chapter 14 Benign Esophageal Disorders 293
irritation and ischemia occurring at the neck of the hernia sac where the crura are extrinsically compressing and rub­bing against the gastric fundus, resulting in the linear gastric
1–3
erosions known as Cameron’s ulcers.
It is usually not until after exhaustive workup for other causes of anemia that the diagnosis of PEH as the oending agent is obtained. Surgical correction of the hernia results in resolution of the anemia.
4
While the natural history of paraesophageal hernias is not clearly known, it is known that many of these hernias are incidental ndings. ey are commonly discovered on chest x-rays, CT scans, or during upper endoscopies being per­formed for other reasons. is is revealing as it tells us that the true incidence remains unclear.
Diagnosis and Evaluation
e physical examination is frequently unimpressive and nonspecic in these patients. Abdominal examination is usually unremarkable. Chest examination with ausculta­tion may reveal decreased breath sounds on the aected side or the presence of bowel sounds within the chest. It is not uncommon for patients to undergo extensive workup for noncardiac chest or abdominal pain, ultimately arriving at upper GI (UGI) evaluation with which the diagnosis is made. Upper GI endoscopy and imaging studies are the mainstays of diagnosis and evaluation.
Imaging Studies
Chest x-rays, whether obtained for entirely unrelated reasons or not, can give the diagnosis of PEH. Common ndings on chest lms include a retrocardiac air-uid level, resulting from an intrathoracic stomach (Fig. 14-4). Coiling of a nasogastric tube above the diaphragm is another classic nding.
e upper GI barium swallow/esophagogram is an essen­tial part of the workup for these patients and often gives the most accurate information regarding the hernia’s anatomy and position, as well as the location of the gastroesopha­geal junction. It can also oer some functional information regarding esophageal peristalsis and reux, though it is not the best test to evaluate esophageal function (Fig. 14-5).
Computed tomography (CT) is not typically used in the workup of PEH. Its frequent use in patient workup for other reasons often leads to diagnosis of PEH when present. CT is a good modality to dierentiate from other hernias of the diaphragm such as Morgagni’s hernia or to evaluate hernia contents in a type IV hiatal hernia.
FIGURE 14-4 Chest x-ray—retrocardiac air-uid level (arrow)
resulting from intrathoracic stomach with paraesophageal hernia. (Used with permission from Saurabh Khandelwal, MD, University of Washington.)
are both seen best on retroexion. Navigating the anatomy can be a challenge as displacement and extrinsic compression of the esophageal lumen or stomach alter anatomic land­marks. An important part of the endoscopic evaluation is to screen for Barrett’s esophagus and malignancy. e presence of either of these can alter therapy.
Manometry and pH Testing
Ambulatory pH testing and esophageal manometry may be useful adjuncts in the workup of PEH. ey can be technically
Endoscopy
Flexible esophagogastroduodenoscopy (EGD) is an extremely useful diagnostic test and one that is necessary as part of the workup for PEH. EGD allows the operator to evaluate the gastroesophageal junction and the size of the hernia, which
FIGURE 14-5 Upper gastrointestinal (GI) barium study. Type III
hiatal hernia demonstrated. (Used with permission from Saurabh Khandelwal, MD, University of Washington.)
294 Part III Esophagus
hard to perform, as intubation of the LES may be impossible to achieve due to anatomic distortion. Clarifying esophageal function in these patients with manometry, while useful, very rarely changes our operative plan. Only under circumstances of complete aperistalsis of the esophagus do we deviate from performing a routine Nissen fundoplication as part of the PEH repair. In these circumstances, either the fundoplication is omitted, or a partial fundoplication (Dor or Toupet) is per­formed. Because of the diculty in successfully performing the test and because reux is addressed surgically in our standard PEH repair with Nissen fundoplication, we do not mandate 24-hour pH testing. For those who perform fundoplication selectively, it may make even more sense to pursue 24-hour pH studies. at said, preoperative pH studies are probably a poor predictor of GERD after repair if a fundoplication is not done, because the hernia itself stretches the phrenoesophageal membrane and the other natural antireux anatomy. In other words, even if patients do not have GERD before repair, most will develop GERD if a fundoplication is not employed. For patients whose symptoms are primarily related to suspected GERD, pH monitoring should be done to conrm the reason for surgical intervention.
Indications For Treatment
8
is a reasonable strategy.
We believe that this is a reasonable approach, especially in elderly patients with multiple comor­bidities and asymptomatic hernias. We have found their data to be consistent with our clinical experience. Young (<65 years) and t patients, even if not symptomatic, should probably be considered candidates for repair because they have many years to become symptomatic or develop an acute volvulus. Obviously, patients who are symptomatic or who have demonstrated progression of their symptoms should be evaluated and taken for elective repair if their medical condi­tion allows.
Therapeutic Controversies
Widely diering opinions exist regarding the aspects of sur­gical management for paraesophageal hernias. ey center on the ideal approach, the use of mesh, management of the shortened esophagus, and the use of fundoplication. As one develops an operative strategy, it is important to keep in mind the fundamental steps that are considered universal in PEH repair: reduction of the stomach into the abdomen without tension, excision of the hernia sac, reapproximation of the crura, and anchoring of the stomach.
e indications for operating on patients with PEH con­tinue to evolve over time. Earlier surgical tenets deemed the diagnosis of PEH an indication for surgical correction. is was largely in part due to retrospective observations, pub­lished by Skinner, Belsey, and Hill in the late 1960s and early 1970s and from other small case series or reports in which a high incidence of complications and mortality associated with observation or emergent operation was observed. Skin­ner followed 21 asymptomatic patients, of which 6 (29%) developed complications of bleeding, perforation, or stran­gulation with observation. is, in addition to an observed pooled mortality rate of 17% with emergent operation but a 1% mortality rate with elective repair, led to the recommen­dation that all patients t for surgery should undergo repair
5–7
of PEH.
We now know that these hernias are not always symptomatic, often discovered incidentally, less likely than previously thought to present with acute complications, and may not necessarily require repair.
Recently, Stylopoulos and colleagues performed a population-based study showing that mortality rates associ­ated with observation to be lower than previously reported, and the mortality associated with emergent operation to be
5.4% rather than 17%. eir study used a population-based decision model to estimate the risk of watchful waiting ver­sus repair in a cohort of 5 million patients, using available data from the 1997 Nationwide Inpatient Sample (NIS) on PEHs. ey estimated that the perioperative mortality rate of those undergoing elective repair to be 1.4% and the annual risk of complications associated with watchful waiting to be 1%. As a result, they concluded that watchful waiting in an asymptomatic or minimally symptomatic population
OPERATIVE APPROACH
Laparoscopic, open laparotomy, and transthoracic approaches have been described for PEH repair. Each has advantages and disadvantages. oracotomy oers excellent visualization and it is easier to perform gastroplasty for esophageal lengthening from this approach. Performing a fundoplication from the chest, however, is dicult to accomplish. is approach con­fers the most morbidity, with longer hospital stays, need for single-lung ventilation, and postoperative chest-tube drain­age. Open laparotomy approach is familiar to most surgeons, avoids a chest incision and its associated morbidity, and may result in decreased operative time. Visualization of the mediastinal structures and exposure of the hiatus, however, are dicult with this approach.
e laparoscopic approach overcomes many of the drawbacks of the two conventional open approaches. It provides good visualization of the hiatus and mediastinal structures, and allows for easier creation of a fundoplication. High mobiliza­tion of the esophagus into the mediastinum is possible. Avoid­ing the chest as an open operative eld eliminates the need for single-lung ventilation, chest tubes, and the postoperative pain associated with thoracotomy. Since the introduction of laparo­scopic techniques, many studies have conrmed its feasibility,
9,10
safety, quicker recovery, and shorter length of stay.
While our approach is laparoscopic, we cannot overemphasize that these are complex operations to perform laparoscopically, even for those with advanced laparoscopic foregut experience. ey should be left in the hands of experienced laparoscopic foregut surgeons. No randomized clinical trials have been performed comparing the various approaches.
Chapter 14 Benign Esophageal Disorders 295
17
CRURAL REPAIR
As recurrence is a major outcome measure with any hernia repair, it is important to examine the crural repair compo­nent of PEH repair. Crural repair and its longevity, as with any hernia repair, depends on a tension-free closure. Many strategies have been employed to overcome the tendency toward recurrence and improve the chances of healing at the hiatus. ese have included the use of pledgets, relaxing inci­sions, and various types of prosthetic mesh. Two randomized
result in erosions or strictures. brosis at the hiatus have been reported with biologic mesh, but not erosion. A recent review of mesh-related complica­tions by Stadlhuber and colleagues summarizes the current literature in this regard.
18
we feel that the true incidence is likely underreported. At this time, we feel that biologic mesh oers the best ecacy and safety prole of the available hiatal mesh prostheses, and do recommend its use during PEH repair.
Problems with stenosis and
Like most surgical complications,
trials comparing hiatal closure with and without mesh were
11,12
performed by Frantzides et al and Carlson et al.
Carl­son’s study randomized patients with PEH to simple suture cruroplasty or cruroplasty with polytetrauoroethylene (PTFE) and all patients had a Nissen fundoplication. ey showed a reduction in hiatal hernia recurrence in patients who received a mesh closure (18.8% recurrence with simple cruroplasty vs 0% recurrence with PTFE-reinforced cruro­plasty). Frantzides performed a study that included patients with all types of hiatal hernia (type I–IV) in which patients with hernia defects of greater than 8cm were randomized to simple suture cruroplasty or cruroplasty with PTFE mesh. At a median follow-up of 2.5 years, a 22% recurrence rate with simple cruroplasty was observed and no recurrences with mesh repair.
Initial enthusiasm and results, mostly from small series,
have been tempered with increasing reports of complica-
ROUTINE FUNDOPLICATION
Routine partial or total fundoplication should be performed at the time of PEH repair for several reasons. First, there is a signicant incidence of postoperative abnormal acid exposure
19,20
as seen on 24-hour pH testing.
In addition to the already abnormal gastroesophageal junction anatomy associated with PEH, further dissection at the time of surgery likely disrupts this natural barrier even more, eliminating its contribution to the natural antireux mechanism of the hiatus. Second, the creation of a fundoplication acts as a gastropexy mechanism anchoring the stomach below the diaphragm, likely reducing recurrence rates. Total fundoplication (360 degrees) has not been associated with increased rates of dysphagia in patients
21,22
with impaired peristalsis.
In cases of complete aperistalsis,
a partial fundoplication is a reasonable option.
tions at the hiatus because of prosthetic mesh placement, including migration, infection, dysphagia, and erosion into the esophagus. Polypropylene exhibits signicant shrinkage due to hydrolysis and adhesions, and we do not recommend
Operative Technique: Laparoscopic Paraesophageal Hernia Repair
its use at the hiatus. PTFE produces fewer adhesions, but
13
erosion into the esophagus can occur.
Erosion into the esophagus is a serious complication that usually requires esophagogastrectomy for treatment and is a matter of high consequence.
Our preference has been to use a biologic mesh product to reinforce the primary closure. Biologic meshes act as a collagen-based absorbable bioscaold into which native tissue ingrowth occurs. ese materials potentially address the con­cerns of erosion, infection, and dysphagia associated with per-
14
manent prosthetic mesh placement at the hiatus.
To test this
POSITIONING AND PORTS
e patient is positioned in the low lithotomy position, using a beanbag and gel pad to form a padded mold for support. e operation is performed in the steep reverse Trendelen­burg’s position (Fig. 14-6).
Access and insuation are obtained per the surgeon’s pref­erence. We gain access at the left upper quadrant, immediately below the costal margin, using a Veress needle and an optical bladed trocar. Our ports are placed in what we refer to as our standard esophageal operating position (Fig. 14-7).
approach, we conducted a multicenter randomized trial in which patients were randomized to primary repair (n=57) or primary repair buttressed with a biologic prosthesis (n =51, small intestinal submucosa [SIS]). e primary outcome measure was recurrence seen on UGI. Upon completion of our study, we observed a reduction in hernia recurrence rate from 24% down to 9% in 95 patients at 6 months. While our results only represent a 6-month follow-up, Jacobs and colleagues demonstrated excellent results with SIS mesh cruroplasty at a median follow-up of 28 months without complications and with similarly low recurrence rates. Desai and colleagues performed a histologic analysis at 1-year follow-up in a canine model in which SIS mesh was used to repair hiatal defects. ey demonstrated that good tissue ingrowth occurred and that SIS mesh cruroplasty did not
DISSECTION
e surgeon begins by gently reducing the stomach into the abdomen. e short gastric vessels are then divided using an appropriate energy source. ese vessels are usually long and
15
attenuated due to the fundus’ displacement into the chest, and they will lead to the base of the left crus. We use a left crus approach as our group previously described. is sharply entered using electrocautery at the base of the left
16
crus. It is important to stay in the correct plane and divide
23
the entire hernia sac. Great care must be taken to avoid injur­ing the crural pillars, which are usually thin and attenuated. e dissection between the sac and the mediastinal structures is carried up and to the right, proceeding circumferentially
e hernia sac
296 Part III Esophagus
taken higher if needed. e goal is to dissect enough so that the gastroesophageal junction lies easily and without tension within the abdomen. Once the sac is reduced and the esopha­gus mobilized, the sac is resected en bloc, beginning to the left of the anterior vagus nerve. We feel this aides with the creation of the fundoplication by keeping this extra tissue out of the wrap.
CRURAL REPAIR
Posterior crural reapproximation is the next step after mobi­lization of the esophagus is completed. Either intracorporeal suturing with free needles or a laparoscopic suturing device can be used. We begin inferiorly just above the median arc­uate ligament and proceed up the pillars with our sutures. Depending on the size of the defect, three to eight no. 0 or 1 braided, nonabsorbable sutures are placed in interrupted fash­ion. e 52F bougie can be advanced into the stomach at this time to gauge the cruroplasty. e tip of a blunt instrument should pass in the space between the bougie-lled esophagus and the reapproximated crura. On rare occasions, the nal posterior crural sutures, if placed, can cause excessive anterior
FIGURE 14-6 Patient in low lithotomy position for optimal access
and exposure for the hiatus.
around the hiatus. e anterior vagus nerve (as it is often displaced away from the esophagus by the sac and is easily divided) and the esophagus must be clearly identied. e esophagus is distorted, and identication is aided by the care­ful passage of a lighted bougie placed in the esophagus. e bougie should be pulled back once the esophagus is identied, as traction against it can lead to perforation.
If an aberrant left hepatic artery is encountered, all attempts should be made to preserve it. e sac is then dis­sected o the right crus, taking care to identify and not injure the posterior vagus nerve. Great caution must be taken to identify and avoid injuring the left gastric artery and vein as they may be stretched and entering the mediastinum. Once the hernia sac is released and reduced from the mediasti­num, ½-in Penrose drain is placed around the esophagus at the gastroesophageal junction and used to provide traction. e assistant, through the left ank port, grasps the drain to manipulate the esophagus in order to provide exposure.
All of the hernia sac should be reduced, after which mediastinal dissection is carried out to free up the esopha­gus and gain length. Dissection of the esophagus is routinely carried up to the level of the pulmonary veins and can be
SLH
LR
Camera
FIGURE 14-7 Port placement for access to the hiatus. ARH,
assistant’s right hand; LR, liver retractor; SLH, surgeon’s left hand; SRH, surgeon’s right hand. (Used with permission from Saurabh Khandelwal, MD, University of Washington.)
SRH
ARH
Chapter 14 Benign Esophageal Disorders 297
FIGURE 14-8 Schematic of paraesophageal hernia (PEH) repair
with U-shaped mesh in position. (Used with permission from Saurabh Khandelwal, MD, University of Washington.)
angulation of the esophagus. In this case, we omit them and place anterior crural sutures using the same technique.
A biologic mesh is next used to buttress the crural repair. A U-shaped mesh is fashioned, using six-ply mesh, and axed to the apex of the right and left crura with suture, then secured posteriorly with brin glue (Fig. 14-8).
FUNDOPLICATION
Fundoplication is then performed over a bougie to ensure appropriate sizing. To ensure correct geometry and position­ing of the fundoplication, we rst place a marking suture posteriorly on the fundus 3 cm below the gastroesophageal junction and 2 cm from the greater curve. is is brought to the patient’s right side posteriorly through the retroesophageal window, at which point this suture is grasped. A mirror image is created with the anterior fundus, and they are brought together at the 10 o’clock position at the hiatus. A “shoeshine” maneuver is performed, bringing the posterior fundus back through the retroesophageal space to the left side, checking to see that an equal length of fundus is used on either side of the greater curve, as marked by the ligated short gastric vessels. is ensures that, when constructed, the sutures on the wrap should be 180 degrees opposite the greater curve.
Four sutures are placed, 1 cm apart, to create a 3-cm wrap. is is done over a 52F bougie. ree additional coronal sutures are placed. e rst two are placed on the left and right sides respectively, through the top of the fundoplica­tion, taking a good bite of the esophageal muscle, and nally through that respective right or left crus. e last suture is placed posteriorly where the fundoplication lies naturally against the now closed hiatus (Fig. 14-9).
FIGURE 14-9 Construction of Nissen fundoplication after
paraesophageal hernia (PEH) repair. (Oelschlager B, Eubanks T, Pellegrini C. Sabiston Textbook of Surgery, 18th ed, Chapter 42.)
For the open technique, essentially the same steps are taken
but through a midline incision.
MOTILITY DISORDERS
Spastic Motility Disorders
Primary esophageal motility disorders (PEMDs) encompass both spastic disorders and achalasia. Spastic disorders include nutcracker esophagus, diuse esophageal spasm (DES), and hypertensive lower esophageal sphincter (HLES). ese rare disorders can present with variable or nonspecic symptoms and can be dicult to diagnose and treat. Symptoms frequently include chest pain, GERD, regurgitation, and less commonly dysphagia. e clinician must pay careful attention to presenting complaints and beware of what symptoms typically respond to treatments and which do not. It is important to distinguish between the primary motility disorders just mentioned and those symp­toms secondary to GERD. GERD is a signicant cause of esophageal dysmotility and should be evaluated for its pres­ence. Its successful treatment, medically or surgically, often mitigates the symptoms suered by many patients. ese patients may be initially diagnosed with esophageal motility disorders but in actuality have a signicant reux compo­nent to their problem. motility disorders can include diabetes mellitus, Chagas’ disease, collagen vascular diseases, and multiple sclerosis. If such conditions exist, their severity and prognosis should be taken into consideration when forming a diagnosis and prior to embarking on any therapy.
24–27
Secondary causes of esophageal
298 Part III Esophagus
PATIENT PRESENTATION AND EVALUATION
Prior to investigation of the esophagus as the cause of symp­toms, a cardiopulmonary evaluation should be performed to rule out the heart or lungs as the cause. e evaluation of motil­ity disorders should include a careful history taking. is may help clarify the diagnosis and should allow the examiner to pick up on any confounding psychiatric illness or disorder that may be responsible, such as rumination syndrome. A systematic workup should include endoscopy and UGI barium swallow to evaluate the anatomy and rule out malignancy or other lesions as a cause. Esophageal manometry is an essential component of the workup, and 24-hour pH study should be performed to evaluate for reux (Fig. 14-10).
DIFFUSE ESOPHAGEAL SPASM
Diuse esophageal spasm (DES) was rst described by
28
Osgood in 1889.
Typically, patients aected by DES will complain of chest pain and dysphagia, and may present with functional obstructive symptoms. Symptoms of DES can be dicult to distinguish from GERD; both pH and manome­try should be performed as part of the workup to evaluate the patient. If abnormal reux is found on testing, the rst treat­ment strategy should be to control GERD with antisecretory therapy. e dening characteristics of DES on manometry include greater than 10% (but <100%) of wet swallows that are followed by simultaneous esophageal contractions
29,30
of amplitude 30 mm Hg or greater (Fig. 14-11).
LES dysfunction, manifested by improper relaxation and/or hypertensive state, is seen in over half of patients diagnosed
31
with DES.
Intermittent peristalsis and prolonged contrac­tions are also ndings seen on manometry. DES is a rare true nding and is estimated to be found only in 3–5% of patients
32
evaluated for an esophageal motility disorder.
Whereas previously there was thought to be little role for surgical treat­ment in DES, more recent reports of small series have shown good results for relief of dysphagia after esophageal myotomy in up to 80% of highly selected patients, while chest pain
24,31,33
is more dicult to cure.
A careful, thorough workup and exclusion of GERD as a confounding factor should be done before attempting to diagnose and surgically treat DES. Medical management is an appropriate initial approach.
NUTCRACKER ESOPHAGUS
Nutcracker esophagus (NE) was rst described by Brand and
34
associates later.
in 1977 and named as such by Castell several years
35
Typical presenting symptoms of patients with NE include chest pain and less frequently dysphagia. Its dening characteristics on manometry include hypertensive esophageal contractions of greater than 180 mm Hg (Fig. 14-12). Patti and colleagues performed myotomy for these patients and observed that dysphagia was controlled in 80% of patients,
31
but that chest pain persisted in 50% of them.
Interestingly,
in the patients with recurrent pain, they developed dysphagia postoperatively, possibly because of weakening of peristalsis
by performing the myotomy. Most patients with this mano­metric nding consistent with NE and presenting with chest pain do not need an operation, and consideration for surgery should rather be carefully given to patients with dysphagia as the presenting symptom. e best candidates may be a small subgroup in which manometry demonstrates a hypertensive LES in addition to NE ndings as well as a functional obstruc­tion on UGI. As with DES, one must evaluate for GERD and treat if present. GERD, when present in conjunction with hypertensive esophageal contractions, can be an inciting factor causing further esophageal irritation in a hypersensitive esoph­agus. erapy aimed at correcting abnormal acid exposure and irritation can lead to signicant improvement in symptoms. e mainstay of treatment is medical therapy. Calcium chan­nel blockers have shown benet in symptom improvement.
36
Tricyclic antidepressants may also provide symptom relief and benet to patients.
HYPERTENSIVE LOWER ESOPHAGEAL SPHINCTER
Hypertensive lower esophageal sphincter (HLES) is a condi­tion dened as having a resting LES pressure of greater than 45 mm Hg with intact, normal peristalsis (Fig. 14-13). Incomplete relaxation of the LES may also be a feature. e
37
condition was rst described in 1960.
Patients with HLES can be a heterogeneous group and can present with symp­toms of chest pain and/or dysphagia. ey may also have symptoms of a functional obstruction at the LES. Presenta­tion can be with isolated symptoms or in association with GERD. Careful history taking and a thorough workup with manometry and pH testing are essential to clearly dene the symptoms andthe primary problem in terms of esopha­geal function. erapy should be tailored to the presenting symptoms. Medical management to reduce LES pressures with calcium channel blockers, botulinum toxin, and phos­phodiesterase inhibitors is typically the rst-line approach in management. ese drugs can have signicant side eects and decreasing ecacy with time. In patients with GERD and manometric ndings of HLES, Nissen fundoplication has shown good results in improvement of dysphagia and
38,39
chest pain.
is suggests that reux disease may be the etiology in these patients. Patients with dysphagia or chest pain as their predominant symptom and workup ndings of only isolated HLES without GERD are more likely to ben­et from myotomy and partial fundoplication for symptom relief, suggesting a primary sphincter dysfunction as the etiol­ogy of their symptoms. Good results have been reported by several groups that have used myotomy and partial fundopli­cation to treat this subset of patients, with relief of symptoms
31,38,40
persisting as far as 3 years out.
While medical manage­ment is usually a reasonable rst-line, conservative approach to treatment of HLES, in carefully selected and thoroughly worked up patients surgical treatment with either Nissen fun­doplication or myotomy and partial fundoplication (depend­ing on manometric and pH test ndings) can produce good results. As HLES is a rare disease with heterogeneous presen­tation, the importance of carefully and thoroughly working
Swallow
Chapter 14 Benign Esophageal Disorders 299
Swallow
0
5000
0
25
25
25
25
25
25
0
0
0
0
0
0
9:20.1
15 s
Normal peristalsis
10:
29
27
24
21
18
15
12
3
6
A
UES
relaxation
9
6
3
0
9:20.1
LES relaxation
15 s
Normal peristalsis
500
0
Ohms
%#
150 144
119
94
69
44
19
10 mm Hg
0
10:20.7
B
LES relaxation
FIGURE 14-10 Normal swallow on manometry (conventional and high-resolution manometry [HRM]). LES, lower esophageal sphincter.
(Used with permission from Roger P. Tatum, MD, Director, University of Washington Esophageal Motility Laboratory.)
300 Part III Esophagus
0
5000
0
50
0
50
0
50
0
50
0
50
0
50
0
3:07.2
A
30 s
26
24
22
20
18
16
14
12
10
8
6
4
2
0
2
4
6
15 s3:15.0 4:15.7
B
3000
2500
2000
1500
1000
500
0
Ohms
# %
150
130
110
90
70
50
30
10
10 mm Hg
0
FIGURE 14-11 Diuse esophageal spasm (conventional and high-resolution manometry [HRM]). LES, lower esophageal sphincter; UES, upper
esophageal sphincter. (Used with permission from Roger P. Tatum, MD, Director, University of Washington Esophageal Motility Laboratory.)
Chapter 14 Benign Esophageal Disorders 301
100
0
100
0
100
0
100
0
100
0
100
0
Hypertensive (>180 mm Hg)
contractions
LES
Relaxation
2:26.0
15 s 3:26.8
A
29
27
24
21
18
15
12
3
6
B
Hypertensive (>180 mm Hg)
contractions
9
6
3
0
2:17. 6
LES
relaxation
30 s
2500
2000
1500
1000
500
0
Ohms
# %
150
130
110
90
70
50
30
10
10 mm Hg
0
4:18.9
FIGURE 14-12 Nutcracker esophagus (conventional and high-resolution manometry [HRM]). LES, lower esophageal sphincter. (Used with
permission from Roger P. Tatum, MD, Director, University of Washington Esophageal Motility Laboratory.)