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Medical Studies/Studia Medyczne
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vol. 31
Original paper

Feasibility and early outcomes of laparoscopic plicated sleeve gastrectomy: a case-control study

Tomasz Rogula

Medical Studies/Studia Medyczne 2015; 31 (4): 235–240
Online publish date: 2016/01/11
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The morbid obesity epidemic continues to be a daunting problem in both the developed and developing worlds. It is directly linked to the increased prevalence of comorbidities such as type II diabetes mellitus, hypertension, hyperlipidemia and cardiovascular disease, all of which continue to be of great financial strain on the worldwide healthcare system. Furthermore, morbid obesity reduces the life expectancy of men by 12 years and women by 9 years, with a great toll on the quality of life and mental health of those affected [1]. The World Health Organization (WHO) formally recognized morbid obesity as an epidemic in 1997 and by 2008, 1.5 billion adults were overweight [2].
Bariatric surgery has made formidable advances in the treatment of obesity and its associated comorbidities. It is now considered to be the most effective means for excess weight loss (EWL) [3] and is viewed by some as the most efficacious treatment for diabetes [4]. Bariatric surgery has been classified into three mechanisms of action: restrictive, malabsorptive, and combined restrictive and malabsorptive [5]. The most common procedures performed include the laparoscopic Roux-en-Y gastric bypass (LRYGB), a combined mechanism, and laparoscopic sleeve gastrectomy (LSG), laparoscopic adjustable gastric banding (LAGB) and laparoscopic gastric greater curvature plication (LGCP), which all have restrictive mechanisms.
Gastric plication was introduced as an attempt to decrease the risk of complications from LSG (mainly staple line leak) and to provide a non-stapled, reversible weight-loss solution [6]. However, gastric plication has its own set of procedure-specific side effects and complications, including postoperative nausea and vomiting, which may be related to the large stomach folds imbricated into the gastric lumen [7]. Long-term outcomes are still under investigation, but some studies have already shown partial weight regain, likely due to flattening of the imbricated gastric folds over time [8].
Laparoscopic sleeve gastrectomy continues to gain widespread acceptance, with long-term outcomes that are comparable to other bariatric approaches [5]. Despite the recent surge in popularity, LSG is not without its own procedure-specific complications. For instance, the long staple line inherent to LSG has been recognized as a potential source of disruption and leak – a very difficult complication to treat [9]. Hence, some surgeons began oversewing the staple line in hopes of reducing leak rates by creating additional protective layers of tissue. The outcomes of this approach are still being evaluated, with some studies showing it to be effective in leak prevention and others demonstrating no benefit [10, 11]. Another yet to be established controversy with LSG is sleeve size and calibration. Whereas a smaller diameter of the sleeve may improve weight loss, it may also result in poor meal tolerance, nausea and frequent vomiting [12].

Aim of the research

Herein, we introduce a novel bariatric procedure: laparoscopic plicated sleeve gastrectomy (LPSG). By definition, it is a modified LSG with the remaining dorsal aspect of the stomach plicated over the sleeve. In creating and investigating a hybrid of the LSG and LGCP, we hope to ameliorate the side effects and complications inherent to LSG and LGCP: stricture, impaired gastric emptying and regurgitation related to a tight sleeve.

Material and methods

This retrospective study included patients who underwent LPSG (study group) or standard LSG (control group) at the Cleveland Clinic from January 2008 to October 2012 with at least 12 months follow-up. The inclusion criteria for all groups were age between 18 and 65 years and body mass index (BMI) greater than 35 kg/m2. The exclusion criteria were previous gastric surgery, psychiatric illness and severe gastroesophageal reflux disease. The study and control groups were matched for preoperative weight, BMI, sex and age. The prospectively collected data included patient demographics, operative parameters and postoperative outcomes. Patient demographics extracted included age, sex, BMI and comorbidities. Surgical time was calculated from incision time to start of wound closure. Both intra- and postoperative complications were recorded and analyzed. All patients were assessed at 1, 3, 6 and 12 months. During follow-up visits, weight-loss and complications were recorded. Minor complications included nausea, vomiting, dietary difficulties, vitamin deficiency, seroma, wound infection and acid reflux. Major complications included mortality, dehiscence, staple line leak or narrowing, re-operation, readmission, revision, blood transfusion, and hernia. All patients met NIH criteria for bariatric surgery and underwent our institute’s standard preoperative evaluation, including internal medicine, psychology and nutrition consultations. Informed consent for all procedures was obtained. Permission to perform the laparoscopic plicated sleeve gastrectomy was obtained from the Cleveland Clinic Internal Review Board.

Surgical technique

Abdominal access and port placement were similar for both LPSG and SG. We used a standard 5-trocar approach, with 5 mm trocars placed at the left and right subcostal areas, two 12 mm trocars at the right paramedial area for staplers and suturing, and one port at the umbilicus (for the laparoscope). We used 5 mm and 12 mm ENDOPATH XCEL bladeless trocars with Optiview technology. The patients were placed in steep reverse Trendelenburg position, with the primary surgeon standing on the right and an assistant on the left. Access to the peritoneal cavity is achieved using 5 mm trocars at the left subcostal area. The short gastric vessels, gastro-splenic attachments and the omentum are taken down with a harmonic scalpel (Harmonic Ace).
Laparoscopic plicated sleeve gastrectomy starts with marking the distal point of resection. After division of the greater omentum along the greater curvature, the first green load endostapler (Echelon Flex) is applied about 5–7 cm proximal to the pylorus, parallel to the lesser curvature, with lateral flexion of the stapler. Attention is paid not to narrow the incisura angularis. Prior to firing the stapler, a 32 Fr gastroscope is passed down to the pre-pyloric area to prevent stricture and to calibrate the sleeve. A series of blue Endo GIA staple loads are then applied to complete the gastrectomy. Staple loads are applied without making the staple line too tight to the calibrating gastroscope, leaving at least a 2 cm distance between the gastroscope and the staple line both anteriorly and posteriorly. A distance of at least 5–7 cm is maintained at the prepyloric area, leaving it larger than the rest of the sleeve. The imbrication is done using an Endo Stitch with Surgidac 2-0 green suture. It starts at about 1–2 cm below the staple line, on the greater curvature of the pre-pyloric stomach. This area is plicated with a single layer interrupted suture, which continues over the staple line. The staple line is pushed down with a grasper and seromuscular bites are applied approximately 2 cm medially from the staple line on the anterior and posterior gastric wall. The imbrication is less at the upper part of the staple line to about 1 cm and it stops at about 2/3 of the length of the stapler line. If significant bleeding from the staple line is noticed or there is any concern about staple line disruption, the remainder of the staple line is oversewn without plication (Figures 1–2).
Standard LSG consists of mobilizing the greater curvature of the stomach from the angle of His to within 1 cm of the pylorus using the Harmonic scalpel. A Flexible endoscope is passed down the esophagus along the lesser curvature of the stomach into the pylorus. We then apply the green load stapler parallel to the lesser curvature beginning approximately 2 cm from the pylorus. One or two further green loads are applied parallel to the endoscope and then multiple blue loads are applied up toward the angle of His. Staple lines are examined on both sides. We oversew the staple line from the angle of His down to the distal end with Lambert invaginating sutures. The invagination involves only the staple line and about 5 mm of surrounding stomach wall, without an associated plication. In both procedures, the gastric remnant is removed in a sterile bag through the right upper quadrant port site. Endoscopy with insufflation is done to assess for leaks, bleeding, or obstruction. Of note, all SG cases were done by 1 of 3 experienced bariatric surgeons (TR, SB, PS); LPSG was done by one surgeon (TR).

Statistical analysis

Statistical analysis was carried out using JMP Pro, Version 9. SAS Institute Inc., Cary, NC, 1989-2013.


A total of 34 patients were included in the study (16 LPSG and 18 LSG). The average preoperative BMI values for the LPSG and LSG groups were 48.5 ±12.9 kg/m2 and 48.9 ±11.8 kg/m2, respectively, and the average ages were 52 ±3 years and 45 ±2 years, respectively. The remaining patient demographics are summarized in Table 1. Relevant comorbidities included hypertension in 26 (57%) subjects, diabetes mellitus in 14 (30%), hyperlipidemia in 13 (28%), obstructive sleep apnea in 11 (24%), fatty liver disease in 7 (15%), mild gastroesophageal reflux disease in 5 (11%), chronic obstructive lung disease in 2 (4%), and end stage renal disease in 1 (2%). Patients were matched for BMI and sex from our prospective database of all bariatric procedures between 2008 and 2012 at the Cleveland Clinic, Cleveland, Ohio. The present series indicates a comparable EWL at 1-year follow-up between the LPSG and LSG groups. The mean EWL ± standard deviation for the LPSG and LSG groups was 50.28 ±18.7 and 51.57 ±21.6, respectively (p = 0.43). The mean operative time was 98 ±26 min for LPSG and 109 ±33 min for SG (p = 0.16). None of the LPSG patients vomited postoperatively, while 1 LSG patient had at least one emesis episode (p > 0.05). Other minor complications included nausea (13% of LPSG and 22% of LSG; p > 0.05), 1 patient with minimal weight loss, one with vitamin deficiency, one with subjective heartburn, and one with difficulty in advancement of diet (resolved fully at follow-up). There were no major complications in either group.


Restrictive bariatric surgery has recently gained popularity, mainly because it avoids the malabsorptive side effects of intestinal bypass and the complications that surround anastomotic leak. However, LSG can result in staple line disruption or leak, a situation which is very difficult to manage [13–15]. Another feared complication of LSG is sleeve stricture, a serious complication that often needs revisional intervention [13–15]. The size of the gastric sleeve remains a debatable issue, with some authors recommending a gastric tube less than 40 Fr [12]. Whereas resection of the fundus and gastric body has been commonly adapted, the size of the pre-pyloric area varies depending on the surgeon. Some authors report improved outcomes by creating a very tight sleeve after complete resection of the greater curvature all the way down to the pylorus. This technique may result in impaired stomach emptying and significant regurgitation of gastric contents [16].
Creating a total sleeve can be technically challenging, especially at the incisura angularis, where the staple line turns and may result in narrowing or kinking of the gastric sleeve; this decrease in luminal diameter can also lead to impaired emptying and regurgitation. Theoretically, leaving this part of the stomach intact could prevent this phenomenon, but it is unclear if it would compromise weight loss [7].
Over-sewing and buttresing the staple line with the intention of reducing the staple line leak remains controversial. Some studies suggested no impact on risk of leakage after over-sewing [10, 11].
Greater curvature plication was introduced as an attempt to avoid staple line disruption and to minimize the amount of foreign bodies (staples) left in situ. Furthermore, it was invented as a potentially reversible procedure that could be less expensive than LSG. Although it appears to be safe, with less frequent severe complications, gastric plication has its own set of problems, mainly postoperative nausea/vomiting and poor long-term weight loss. Recurrent emesis is postulated to be due to the large plicated stomach folds occupying the proximal gastric lumen; poor weight-loss is likely related to flattening of the gastric folds over time [6, 8].
In the present study, we present initial comparative outcomes of a novel hybrid procedure which combines key elements of both LSG and LGCP. By leaving the distal stomach unstapled, we aim to avoid permanent narrowing of the antrum or incisura angularis by ensuring a straight staple line. To maintain the desired lumen and meal size, we plicate the pre-pyloric stomach under endoscopic control. Stitches may be removed and placed at a further distance, which allows for appropriate calibration, even after surgery. The larger/adjustable volume of the distal stomach theoretically should decrease back-pressure on the proximal staple line, thus decreasing the chance of staple line disruption and leakage [17, 18]. Furthermore, we postulate that gastric emptying may be improved in plicated sleeves, which should hopefully decrease postoperative nausea, vomiting and regurgitation. By resecting the proximal part of the stomach, including the body and the fundus, we aim to avoid the typical LGCP side effects of nausea/vomiting, fundus prolapse, and intra-fold abscess from small gastric wall perforations caused by stitches.
As shown in our 12-month follow-up, the weight loss achieved in the LPSG group was at least as good as the LSG group. A mean EWL of 50.3 ±18.7% and 51.6 ±21.6% was achieved for LPSG and SG, respectively. This is likely to be due to resecting the fundus and thus avoiding expansion of this part of the stomach, which may lead to weight regain. We acknowledge that other studies have shown a 12-month EWL of 60–65% [3] for LGCP, and thus continued investigation of our novel procedure will be required to ascertain its true efficacy. There was no significant difference in surgical time between the two procedures.
This study does have limitations including retrospective design, small patient numbers and a relatively short follow-up period; the long-term efficacy of our LPSG requires continued evaluation. Another limitation worth noting is that 1-year follow-up was performed over the phone for 13 (38%) patients. The LPSG procedures were performed by only one surgeon, compared to 3 different surgeons for LSG, and this is another potential limitation. Furthermore, despite an attempt to standardize our LSG and LPSG approaches, some differences in surgical technique may have occurred between the various surgeons. Three patients initially assigned to the study group had to be removed due to steroid therapy for an unrelated condition which resulted in significant weight regain or the need for a second stage procedure (gastric bypass) prior to 1-year follow-up (2 patients). Lastly, measurement of the gastric volume was estimated subjectively based on endoscopic evaluation. Further prospective studies of longer duration are needed to properly assess the utility of this novel procedure.


Based on our experience, laparoscopic plicated sleeve gastrectomy is safe and feasible with no increase in operative time compared to sleeve gastrectomy. It combines features of sleeve gastrectomy and gastric plication with very similar weight-loss efficacy to sleeve gastrectomy and less postoperative nausea and vomiting. The volume of the unresected antrum may be easily adjusted by reversible plication of the greater curvature.

Conflict of interest

The authors declare no conflict of interest.


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Address for correspondence:

Tomasz Rogula MD, PhD
Department of Surgery
Case Western Reserve
University School of Medicine
2109 Adelbert Rd
44106 Cleveland, OH, USA
Phone: +1 2162969053
E-mail: tomrogula@gmail.com
Copyright: © 2016 Jan Kochanowski University in Kielce This is an Open Access article distributed under the terms of the Creative Commons Attribution-NonCommercial-ShareAlike 4.0 International (CC BY-NC-SA 4.0) License (http://creativecommons.org/licenses/by-nc-sa/4.0/), allowing third parties to copy and redistribute the material in any medium or format and to remix, transform, and build upon the material, provided the original work is properly cited and states its license.
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