Literature DB >> 32440331

Robotic approach to treat Median Arcuate Ligament syndrome: a case report.

Roberto Bustos1, Michail Papamichail1, Alberto Mangano1, Valentina Valle1, Pier Cristoforo Giulianotti1.   

Abstract

The Median Arcuate Ligament (MAL) syndrome is the symptomatic compression of the celiac trunk by the MAL and other ganglionic periaortic tissue. Despite its rarity, this condition is significant from a clinical, diagnostic and management standpoint and it is usually a diagnosis of exclusion. A 61-year-old female with history of intermittent postprandial epigastric pain was diagnosed with MAL syndrome during CT scan imaging (no other causes of pain were identified). Patient successfully underwent robotic MAL release with symptoms improvement after surgery. The robotic approach is feasible and may allow a very precise and delicate dissection with release of the MAL. Published by Oxford University Press and JSCR Publishing Ltd. All rights reserved.
© The Author(s) 2020.

Entities:  

Keywords:  MAL syndrome; Median Arcuate Ligament; celiac artery stenosis; robotic

Year:  2020        PMID: 32440331      PMCID: PMC7232935          DOI: 10.1093/jscr/rjaa088

Source DB:  PubMed          Journal:  J Surg Case Rep        ISSN: 2042-8812


INTRODUCTION

The Median Arcuate Ligament (MAL) is a diaphragmatic fibrous arch connecting the crura and forming the aortic hiatus. It is hypothesized that the compression of the celiac trunk by the MAL and other ganglionic periaortic tissue causes the MAL syndrome [1]. It has been proposed that 10–24% of the population have certain degree of compression of the celiac artery [2]. Nevertheless, this finding is clinically significant only in a small subgroup of patients [1]. In case other conceivable causes for the abdominal symptoms have been ruled out, the patient may benefit from a surgical decompression [3]. Minimally invasive techniques, especially a robotic approach, may offer superior accuracy during the dissection maneuvers and potentially can provide a more effective release of the MAL [4].

CASE PRESENTATION

A 61-year-old female presented with a 1 year history of intermittent epigastric pain worsened by eating, nausea and diarrhea. She had a past medical history of hypertension, irritable bowel syndrome and GERD. CT imaging revealed celiac artery stenosis and a possible MAL syndrome (Fig. 1). No other causes were identified (normal EGD, normal barium swallow and no improvement with non-pharmacological measures). The case was extensively discussed and there was a consensus to proceed to surgery.
Figure 1

Preoperative CT scan. Legend: celiac artery stenosis (arrow).

Preoperative CT scan. Legend: celiac artery stenosis (arrow). The operation was performed using the Da Vinci Xi (Intuitive Surgical, Sunnyvale, CA). Trocar positioning is shown in Figure 2.
Figure 2

Port placement.

Port placement. Initially, the left lateral segment of the liver was retracted and the gastro-hepatic ligament was divided to facilitate the identification of the right crus of the diaphragm. The local anatomy made difficult to access the celiac trunk through the gastro-hepatic ligament. The lesser sac was approached opening the gastro-colic ligament, and lifting up the posterior wall of the stomach using the robotic third arm. This maneuver also put in tension the left gastric artery making easier to reach the celiac trunk. All associated lymph nodes and fibrotic tissue that were crossing in front of the origin of the common hepatic and splenic artery were removed (Fig. 3). The dissection continued along the common trunk (Fig. 4). Neural fibers were divided and the origin of the celiac artery was fully exposed free (Fig. 5). Postoperative course was uneventful and the patient was discharged the next day without any dietary restriction. The pain was managed with acetaminophen only after discharge. At 5 months follow up, the patient showed complete resolution of symptoms.
Figure 3

Intraoperative images during lymphanedectomy. Legend: left: lymphadenectomy on the left side of the celiac trunk. Right: lymphadenectomy on the right side of the celiac trunk.

Figure 4

Arterial structures exposure. Legend: upper images: arterial structures before release of the MAL. Lower images: arterial structures during release of the MAL. S: stomach, CHA: common hepatic artery, CA: celiac artery, LGA: left gastric artery and SA: splenic artery.

Figure 5

Completed dissection.

Intraoperative images during lymphanedectomy. Legend: left: lymphadenectomy on the left side of the celiac trunk. Right: lymphadenectomy on the right side of the celiac trunk. Arterial structures exposure. Legend: upper images: arterial structures before release of the MAL. Lower images: arterial structures during release of the MAL. S: stomach, CHA: common hepatic artery, CA: celiac artery, LGA: left gastric artery and SA: splenic artery. Completed dissection.

DISCUSSION

When a low insertion of the MAL or high origin of the celiac artery exists, external compression and narrowing of the celiac artery may occur. In symptomatic patients, other causes of abdominal pain and vomiting should be excluded before confirming the diagnosis of MAL syndrome [5]. Cross-sectional imaging (CT/MR angiography) is usually able to demonstrate the narrowing at the origin of the celiac artery. Doppler ultrasonography is the method of choice when available, as it measures accurately the end-inspiratory and the end-expiratory blood flow velocities in the celiac trunk [6]. Lateral mesenteric angiography with breathing maneuvers is the gold standard for confirming the diagnosis [1, 3]. Laparoscopic decompression of celiac artery, by removing all associated connective and perineural tissue, can offer immediate symptomatic relief and long term maintenance in 85% of patients [4]. Nevertheless, instrument maneuverability is limited and it may lead to a high conversion rate (9–10%) [7]. Robotic surgery has shown promising short-term results [8]. The robotic system can offer a magnified 3D field visualization and instruments with articulated joints [9] allowing increased fluency in motion also within a confined space. These features, combined with the use of the third arm, can also minimize the need for assistant retraction [10]. Tight bands are often adherent to and indistinguishable from the celiac arterial wall, which might be prone to traumatic injury during dissection [7]. The surgeon can perform precise maneuvers with no tremor while creating a safe surgical plane. This approach is an attractive option for the treatment of MAL syndrome. Treatment success depends upon the appropriate exclusion of other pathologies and an accurate surgical technique. A larger series of robotic cases should be reported to further evaluate the long-term outcomes of this promising technique.

CONFLICT OF INTEREST STATEMENT

Pier C. Giulianotti has a consultant agreement with Covidien Medtronic and Ethicon Endosurgery, and he also has an institutional agreement (University of Illinois at Chicago) for training with Intuitive. The rest of authors don’t have any conflicts of interest.
  10 in total

Review 1.  Median Arcuate Ligament Syndrome-Review of This Rare Disease.

Authors:  Erinn N Kim; Kathleen Lamb; Daniel Relles; Neil Moudgill; Paul J DiMuzio; Joshua A Eisenberg
Journal:  JAMA Surg       Date:  2016-05-01       Impact factor: 14.766

2.  Compression of the celiac trunk caused by median arcuate ligament in children and adolescent subjects: evaluation with contrast-enhanced MR angiography and comparison with Doppler US evaluation.

Authors:  René Aschenbach; Steffen Basche; Thomas J Vogl
Journal:  J Vasc Interv Radiol       Date:  2011-04       Impact factor: 3.464

3.  Robotic-assisted laparoscopic median arcuate ligament release: 7-year experience from a single tertiary care center.

Authors:  Usah Khrucharoen; Yen-Yi Juo; Yas Sanaiha; Yijun Chen; Juan C Jimenez; Erik P Dutson
Journal:  Surg Endosc       Date:  2018-05-21       Impact factor: 4.584

Review 4.  Median arcuate ligament syndrome: evaluation with CT angiography.

Authors:  Karen M Horton; Mark A Talamini; Elliot K Fishman
Journal:  Radiographics       Date:  2005 Sep-Oct       Impact factor: 5.333

5.  Technique and outcomes of robot-assisted median arcuate ligament release for celiac artery compression syndrome.

Authors:  Stijn J J Thoolen; Walderik J van der Vliet; Tara S Kent; Mark P Callery; Martin J Dib; Allen Hamdan; Marc L Schermerhorn; A James Moser
Journal:  J Vasc Surg       Date:  2015-01-16       Impact factor: 4.268

Review 6.  Laparoscopic decompression as treatment for median arcuate ligament syndrome.

Authors:  M Rubinkiewicz; P K Ramakrishnan; B M Henry; J Roy; A Budzynski
Journal:  Ann R Coll Surg Engl       Date:  2015-09       Impact factor: 1.891

7.  Median arcuate ligament syndrome: vascular surgical therapy and follow-up of 18 patients.

Authors:  Dirk Grotemeyer; Mansur Duran; Franziska Iskandar; Dirk Blondin; Kim Nguyen; Wilhelm Sandmann
Journal:  Langenbecks Arch Surg       Date:  2009-06-09       Impact factor: 3.445

8.  Laparoscopic versus robot-assisted surgery for median arcuate ligament syndrome.

Authors:  Michael V Do; Taylor A Smith; Hernan A Bazan; W C Sternbergh; Abbas E Abbas; William S Richardson
Journal:  Surg Endosc       Date:  2013-07-12       Impact factor: 4.584

Review 9.  Robotic-assisted approach to Median Arcuate Ligament Syndrome with left gastric artery originating directly from the aorta. Report of a case and review of the current mini-invasive treatment modalities.

Authors:  Mauro Podda; Gian Pietro Gusai; Francesco Balestra; Giulio Argenio; Fabio Pulighe; Salomone Di Saverio; Carlo De Nisco
Journal:  Int J Med Robot       Date:  2018-05-09       Impact factor: 2.547

10.  First Report of Gallbladder Volvulus Managed with a Robotic Approach.

Authors:  Roberto Bustos; Hassan Mashbari; Antonio Gangemi
Journal:  Case Rep Surg       Date:  2019-07-14
  10 in total

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