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Medicine

Laparoscopic Repair of Para-Esophageal Hernia Using Absorbable Biosynthetic Mesh

Published: September 11, 2021 doi: 10.3791/59565

Summary

Presented here is a protocol of para-esophageal hernia repair. Use of absorbable biosynthetic mesh avoids the risk of erosion through the esophagus whilst reinforcing the repair. Glue fixation is preferred to avoid the risk of trauma such as bleeding or cardiac tamponade, which are associated with stitches or tacks.

Abstract

Para-esophageal hernia repairs are challenging procedures and there is no consensus on the optimal approach to repair. Mesh reinforcement has been associated with lesser hernia recurrence when compared to the primary suture repair. The type of mesh that is most appropriate is still debatable. Synthetic and biosynthetic materials have been studied in the literature. It is well documented that a synthetic mesh is associated with esophageal erosion and migration into the stomach. Though there are limited long-term data on biosynthetic mesh, the short-term results are excellent and promising.

This paper illustrates how a biosynthetic prosthesis can be safely used with fibrin glue fixation and anterior Dor fundoplication to repair any para-esophageal defect. The absorbable biosynthetic mesh has been shown to produce good long-term patient satisfaction outcomes and low recurrence rates compared to conventional methods including repair with synthetic mesh. This technique also avoids the risk of esophageal erosion whilst strengthening the repair. Tacks that are still widely used to secure the mesh can be abandoned due to the associated risk of developing cardiac tamponade, or other disastrous consequences. This repair method, also, highlights how the prosthesis can be fashioned into a V-shape and easily placed in an onlay fashion behind the esophagus. The protocol demonstrates an alternative and safer method for mesh fixation using fibrin glue.

Introduction

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The most recent meta-analysis review on para-esophageal hernia repair concluded that mesh reinforcement was superior and was associated with lower recurrence rates compared to the suture repair1. However, the preferred type of mesh remains controversial due to the study heterogeneity. Some included in the review had inconsistent definitions not only of para-esophageal hernias (which were either determined pre-operatively or intra-operatively) or hernia recurrences (which were based, either on symptoms or investigations), but also unspecified loss to follow-up. This manuscript highlights successful repair of a large hiatus hernia using biosynthetic mesh.

The most common biosynthetic mesh used is composed of 67% polyglycolic acid and 33% trimethylene carbonate. This prosthesis is gradually absorbed over 6 months and is replaced by the vascularized soft tissue and collagen. This biosynthetic mesh has been studied in 395 patients and in this large study, 16.1% of them experienced recurrent symptoms at 24 months (range, 2-69 months) and 7.3% had objective recurrence2. Only one patient had a major post-operative complication (esophageal stenosis) that required percutaneous endoscopic gastrostomy tube insertion and subsequently, re-operation with no recurrence at 44 months. Similar smaller studies reported symptom recurrence rates ranging from 0%-9%, objective recurrence rates 0.9%-25%, and re-operations ranging from 0%-10%4,5,6,7,8. None of the studies reported mesh-related complications.

The protocol detailed below was performed on a 68-year-old female who presented with a one-year history of severe reflux symptoms unresponsive to medical treatment and iron deficiency anemia, in the setting of previous Helicobacter pylori gastritis and NSAID-induced gastric ulcer. Pre-operative gastroscopy demonstrated Cameron's ulcers, large linear erosions in the gastric body and a 10 cm rolling hiatus hernia (compared to 4 cm in the previous gastroscopy one year earlier). Chest CT-scan confirmed the diagnosis of intra-thoracic para-esophageal hernia.

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Protocol

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The protocol follows the guidelines of the authors’ institution’s human research ethics committee (South-Western Health District).

1. Pre-operative preparation

  1. Place the patient on low calorie high protein nutritional diet for a week to reduce the liver size and facilitate improved access to the hiatus hernia.
  2. Under general anesthesia, place the patient in lithotomy and reverse Trendelenburg position.
  3. Intra-operatively, prescribe first-generation cephalosporin prophylactic (2 g) intravenous antibiotic and anticoagulation for deep vein thrombosis prophylaxis.

2. Surgery

  1. Prepare the sterile field by shaving the patient’s abdomen, applying antiseptic solution to the skin and draping the patient. Ensure that the first surgeon stands between the patient’s legs and the assistant is on the left side.
  2. Establish Pneumoperitoneum of 12 mm Hg via a left subcostal Veress needle at Palmer’s point9 (3 cm below the subcostal margin in the left mid-clavicular line). Using a direct bladeless optical access entry system, insert the ports which is supra-umbilical, one hand-span from the costal margin and to the left of the midline, for the camera.
  3. Elevate the left lobe of the liver with a Nathanson liver retractor through a small left para-xiphoid incision.
  4. Place two further 5 mm ports under direct vision alongside the camera port: one at the level of the right mid-clavicular line, the second port on the left anterior axillary line. Insert a 10 mm port that is more cephalad at the left mid-clavicular line to create an ideal working triangulation.
    NOTE: See Supplementary Figure 1 for port placement.
  5. At this stage ensure that most of the stomach will be herniating into the mediastinum. Therefore, pull the incarcerated stomach back into the abdominal cavity with continuous traction from the assistant to view the gastro-esophageal junction.
  6. Enter the lesser curvature at the level of the pars flaccida of the gastrohepatic ligament, and progressively dissect, reduce and excise the hernia sac using cauterization. This will lead to the gradual exposure of both diaphragmatic crura. This is made of the inferior vena cava and the caudate lobe of the liver in relation to the right crus.
  7. Mobilize the esophagus circumferentially by dividing all the congenital peri-esophageal adhesions within the hiatus. Continue mobilizing the hiatus hernia off the bilateral crura to assist in retracting the hernia sac into the abdominal cavity. Identify and preserve the vagus nerves and both pleurae.
  8. Create a window posteriorly between the esophagus and thoracic aorta and place a tape around the distal esophagus to allow gentle traction.
  9. Mobilize the distal esophagus proximally (≥10 cm distance), until there is adequate intra-abdominal esophageal length (3-4 cm) and so the esophagus lies free of tension.
  10. Approximate the diaphragmatic crura with 3 or 4 interrupted 1.0 non-absorbable braided sutures and reinforce the repair with a pre-shaped biosynthetic mesh that is introduced behind the esophagus in an onlay fashion.
    NOTE: The right edge of the mesh should slide under the caudate lobe of the liver. If necessary, divide the left triangular ligament to accommodate the mesh. No pledgets are required if the quality and the tension of the crura is adequate. The extent of the crural closure should not cause narrowing or compression on the lower esophagus. A rough guide to adequate closure is being able to pass a grasper through the remaining gap.
  11. Secure the biosynthetic mesh with 4 mL of fibrin glue.
  12. Perform a modified 180˚ anterior Dor fundoplication using 2.0 non-absorbable braided sutures by suturing the gastric fundus to the left crus, then sequentially fixing the folded greater curvature of the stomach anteriorly to the diaphragm, and all the way to the proximal right crus. Four sutures are usually required. Incorporate the mesh into the first suture. Take care not to injure the pericardium during the fundoplication. A bougie is not used.
  13. Insert a closed-suction drain.
  14. Close skin with subcuticular 3.0 synthetic, absorbable and monofilament sutures.

3. Post-operative procedures

  1. Post-operatively, elevate the patient’s head to 30˚ to avoid aspiration.
  2. Perform early chest X-ray in recovery to exclude possible pneumothorax or atelectasis.
  3. Commence the patient on clear fluids on day one. Give regular anti-emetics for the first 24 h. Commence the patient on daily anticoagulation for deep vein thrombosis (DVT) prevention as per the hospital protocol.
  4. Commence the patient on puree diet on day two. Remove the drain after 24 to 48 hours.
  5. Continue puree diet for two weeks. Afterwards, place the patient on to a more solid but soft diet for three weeks.
  6. Continue DVT prophylaxis until the patient goes home. Extended course can be given at the surgeon’s discretion if deemed necessary.
  7. Follow-up the patient at 2 and 6 weeks for routine surgical review.
  8. Perform repeat gastroscopy at 4,12 and 24-months post-operative.

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Representative Results

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Post-operatively the patient remained symptom free. Routine gastroscopies at 4, 12 and 24 months respectively showed that the cardio-esophageal junction remained at 38 cm from the dental arcade with no evidence of early recurrence or reflux esophagitis. There was mild gastritis of the antrum.

This technique has been performed in 32 patients using absorbable biosynthetic mesh. Only one patient reported complication (Table 1).

Number of cases using this technique 32
Median Follow-up 19 months
Gender 6 Male; 26 Female
Median Age 72
Hiatus Hernia Types 4^   Type I (>7cm)
23 Type III (3 recurrent)
5   Type IV
Recurrence 1
Complications 1* Mortality In a patient with recurrent hiatus hernia. Unrecognized cardiac tamponade 48 hours post-operatively.
2 Minor Atelectasis; deep vein thrombosis.

Table 1: Summary of Patient Cases. ^All were greater than 7 cm. *This patient had a recurrent type III hiatus hernia and this was a difficult dissection. Post-operatively she was initially quite well and was able to tolerate fluids for the first 48 h. She then unexpectedly rapidly decompensated from an unrecognized cardiac tamponade within 48 hours post-operatively.

Supplementary Figure 1: Port Placement. (1) Camera port: 10 mm supra-umbilical, one hand-span from the costal margin and to the left of the midline incision. (2) Liver retractor: left para-xiphoid incision. (3) Working port: 5 mm left mid-clavicular incision. (4) Working port: 10 mm right mid-clavicular incision. (5) Working port: 5 mm left anterior axillary incision. Please click here to download this figure.

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Discussion

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The key steps in para-esophageal hernia repair include port placement, total excision of the hernia sac, intra-abdominal esophageal lengthening, identification of both vagus nerves, atraumatic mesh reinforcement of the crus, and anterior fundoplication with gastroplasty.

This protocol highlights a 4-port method (one camera, three working ports) which uses only one assistant. Safe insufflation is achieved through a Veress needle inserted at Palmer’s point. An optical bladeless access system is used to place the camera port, which is inserted via a left para-median incision that is one hand-span from the costal margin. This position offers optimal vision of the hiatus hernia anatomy. An optical entry device is preferentially used to avoid potential injury to the superior epigastric artery or underlying visceral structure. A left para-xiphoid incision is used solely for the retractor to retract the left lobe of the liver and expose the esophageal hiatus. Hiatal dissection is facilitated by the triangulation of two 5 mm ports (right mid-clavicular; left anterior axillary) and a 10 mm port (cephalad to the two 5 mm ports, and in mid-clavicular line). The technique works with two 5 mm ports as the size of the port correlates with the tendency to develop port site hernias10.

Total hernia sac dissection and excision reduces recurrence rates11. Hernia sac excision is generally more difficult on the right side of the patient than on the left, as it corresponds to the territory of the left gastric vessels that should be reduced into the abdomen to prevent injury11. Sac excision also includes division of the phreno-esophageal and gastro-hepatic ligaments. Sac excision can be particularly more difficult due to adhesions around the stomach or due to large hiatal hernias11,12.

Adequate esophageal lengthening prevents recurrence. This protocol highlights that the extension of esophageal mobilization in the mediastinum depends on ensuring that 3 to 4 cm of the distal esophageal length remains in the abdomen tension-free. Dissection of the fat-pad off the gastro-esophageal junction is also helpful. In the rare cases where esophageal lengthening may not be possible, some authors suggest Collis gastroplasty, particularly in those with massive hernias12. We believe that a short esophagus can generally be dissected more proximally into the mediastinum, and that this is enough to avoid this extra step of the procedure. In our latest experience of over 50 large para-oesophageal hernia repairs, we did not have to perform a Collis gastroplasty.

In patients with dense intra-abdominal adhesions, conversion to laparotomy may be the safest option in order to reduce the entire stomach, completely excise the sac, or to minimize the risk of further complications such as iatrogenic esophageal perforation13. Vagal nerve injury has been reported to be at least 5% in the literature. This is usually in the context where the vagus nerve is adherent to the hernia sac. Also, tension on the fat pad from the posterior esophagus tends to pull the posterior vagus up and this can inadvertently lead to nerve injury12. Vagal nerve injury can lead to delayed gastric emptying.

Failure of para-esophageal hernia repair has been attributed to weak crus of the diaphragmatic hiatus14. Biosynthetic mesh has been used in large hernias for several years with growing interest, as outlined in a recent large retrospective study2. The authors showed that biosynthetic mesh was associated with long-term patient satisfaction outcomes and acceptable low rates of symptomatic recurrence. Like Olson et al2, this manuscript shows a posterior cruroplasty that is reinforced with absorbable biosynthetic mesh previously re-fashioned into a V-shape before being delivered behind the esophagus in an onlay fashion. Mesh use reduces crural tension and reinforces the crural repair. The crura is re-approximated posteriorly using 3 or 4 size 1/0 non-absorbable braided sutures depending on the size of the defect. This aims to place the cruroplasty as close as possible to the esophagus, but without creating any narrowing.

This technique is a highly technical procedure and should be performed by experienced surgeons. Otherwise, no real limitations exist with this technique.

This manuscript highlights how the mesh can be easily fixed using non-traumatic fibrin glue instead of tackers or sutures. This technique, which can be performed quickly and safely, has been previously reported in the literature15. As an alternative, non-absorbable sutures have also been used to secure the biosynthetic mesh with no mesh-related complications, as demonstrated in Asti’s observational cohort study16. However, the nature of the biosynthetic mesh thickness can make it difficult to be sutured onto the crura. Conversely, tackers have been associated with severe potential life-threatening risk of cardiac tamponade3. We, therefore, strongly advise against it.

Fundoplication in para-esophageal hernia repair buttresses the repair to reduce risk of recurrence and to prevent post-operative gastro-esophageal reflux11,17,18. This case highlights the benefit of anterior Dor fundoplication used as opposed to the Nissen technique as it is associated with lower incidences of dysphagia and gas-related symptoms in the long-term19. However, patients with severe reflux symptoms prior to surgery are more likely to experience residual mild reflux after Dor repair compared to Nissen fundoplication18. Furthermore, as the stomach is strongly secured to the diaphragm and crura with the Dor approach, there is a lower risk of hernia recurrence, whereas in the Nissen technique the stomach is only secured to the esophagus and theoretically more likely to migrate back into the chest.

The next phase of this technique for laparoscopic hiatus hernia repair with mesh is to trial a different biosynthetic mesh that is thinner and therefore easier to apply on the crus. This new mesh has a delayed reabsorption time of 18 months compared to 6 months.

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Disclosures

The authors have nothing to disclose.

Acknowledgments

The authors have no acknowledgements.

Materials

Name Company Catalog Number Comments
1.0 non-absorbable suture
10 mm port
3.0 absorbable suture
5mm port
Biosynthetic mesh GORE BIO-A
Bladeless optical access entry system Kii
Drain 
Fibrin glue Tiseel
Laparoscopic grasper Ethicon
Laparoscopic harmonic  scalpel Ethicon
Nathan liver retractor
Sling
Veress needle

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References

  1. Sathasivam, R., et al. Mesh hiatal hernioplasty' versus 'suture cruroplasty' in laparoscopic para-oesophageal hernia surgery; a systematic review and meta-analysis. Asian Journal of Surgery. 42, (1), 53-60 (2018).
  2. Olson, M. T., et al. Primary paraesophageal hernia repair with Gore® Bio-A® tissue reinforcement: long-term outcomes and association of BMI and recurrence. Surgical Endoscopy. 32, (11), 4506-4516 (2018).
  3. Köckerling, F., Schug-Pass, C., Bittner, R. A word of caution: never use tacks for mesh fixation to the diaphragm. Surgical Endoscopy. 32, (7), 3295-3302 (2018).
  4. Asti, E., et al. Crura augmentation with Bio-A® mesh for laparoscopic repair of hiatal hernia: single-institution experience with 100 consecutive patients. Hernia. 21, (4), 623-628 (2017).
  5. Berselli, M., et al. Laparoscopic repair of voluminous symptomatic hiatal hernia using absorbable synthetic mesh. Minimally Invasive Therapy and Allied Technology. 24, (6), 372-376 (2015).
  6. Priego, P., et al. Long-term results and complications related to Crurasoft((R)) mesh repair for paraesophageal hiatal hernias. Hernia. 21, (2), 291-298 (2017).
  7. Alicuben, E. T., Worrell, S. G., DeMeester, S. R. Resorbable biosynthetic mesh for crural reinforcement during hiatal hernia repair. American Journal of Surgery. 80, (10), 1030-1033 (2014).
  8. Massullo, J. M., Singh, T. P., Dunnican, W. J., Binetti, B. R. Preliminary study of hiatal hernia repair using polyglycolic acid: trimethylene carbonate mesh. Journal of the Society of laproscopic and Robotic Surgeons. 16, (1), 55-59 (2012).
  9. Palmer, R. Safety in laparoscopy. Journal of Reproductive Medicine. 13, (1), 1-5 (1974).
  10. Owens, M., Barry, M., Janjua, A. Z., Winter, D. C. A systematic review of laparoscopic port site hernias in gastrointestinal surgery. Surgeon. 9, (4), 218-224 (2011).
  11. Kohn, G. P., et al. Guidelines for the management of hiatal hernia. Surgical Endoscopy. 27, (12), 4409-4428 (2013).
  12. Luketich, J. D., et al. Laparoscopic repair of giant paraesophageal hernia: 100 consecutive cases. Annals of Surgery. 232, (4), 608-618 (2000).
  13. Wiechmann, R. J., et al. Laparoscopic management of giant paraesophageal herniation. The Annals of Thoracic Surg. 71, (4), 1080-1086 (2001).
  14. Zaninotto, G., et al. Objective follow-up after laparoscopic repair of large type III hiatal hernia. Assessment of safety and durability. World Journal of Surgery. 31, (11), 2177-2183 (2007).
  15. Powell, B. S., Wandrey, D., Voeller, G. R. A technique for placement of a bioabsorbable prosthesis with fibrin glue fixation for reinforcement of the crural closure during hiatal hernia repair. Hernia. 17, (1), 81-84 (2013).
  16. Asti, E., et al. Laparoscopic management of large hiatus hernia: five-year cohort study and comparison of mesh-augmented versus standard crura repair. Surgical Endoscopy. 30, (12), 5404-5409 (2016).
  17. Lee, C. M., et al. Nationwide survey of partial fundoplication in Korea: comparison with total fundoplication. Annals of Surgical Treatment and Research. 94, (6), 298-305 (2018).
  18. Muller-Stich, B. P., et al. Repair of Paraesophageal Hiatal Hernias-Is a Fundoplication Needed? A Randomized Controlled Pilot Trial. Journal of the American College of Surgery. 221, (2), 602-610 (2015).
  19. Broeders, J. A., et al. Laparoscopic anterior 180-degree versus nissen fundoplication for gastroesophageal reflux disease: systematic review and meta-analysis of randomized clinical trials. Annals of Surgery. 257, (5), 850-859 (2013).
Laparoscopic Repair of Para-Esophageal Hernia Using Absorbable Biosynthetic Mesh
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Cite this Article

Pham, M., Cohen-Hallaleh, R., Berney, C. R. Laparoscopic Repair of Para-Esophageal Hernia Using Absorbable Biosynthetic Mesh. J. Vis. Exp. (175), e59565, doi:10.3791/59565 (2021).More

Pham, M., Cohen-Hallaleh, R., Berney, C. R. Laparoscopic Repair of Para-Esophageal Hernia Using Absorbable Biosynthetic Mesh. J. Vis. Exp. (175), e59565, doi:10.3791/59565 (2021).

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