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22 Robotic Gastric Bypass
247
Fig. 22.20 After a successful dissection of the fatty tissue, the last sta­pler is inserted, and the gastric pouch is nished
Fig. 22.21 The bougie is pulled back a bit, and the pouch is opened up at the conjunction of the two perpendicular staple lines
Fig. 22.22 To ensure a correct opening, the gastric mucosa must be visualized
Fig. 22.23 The greater omentum is lifted toward the abdominal wall, and the ligament of Treitz is identied
248
J.-N. Kersebaum and J. H. Beckmann
Fig. 22.24 Using the grasper as a ruler
Fig. 22.25 Starting from the ligament of Treitz, the biliopancreatic
limb is measured
Fig. 22.26 100 cm aborally from the ligament of Treitz, the small bowel is grabbed and moved toward the gastric pouch to ensure a good positioning without tension
Fig. 22.27 The small bowel is opened up antimesenterically
22 Robotic Gastric Bypass
249
Fig. 22.28 Using all three arms, the small intestine is presented toward the stapler
Fig. 22.29 The stapler is being inserted with the bigger side and slow oscillating movement to avoid mucosal stress and injuries
Fig. 22.30 Using the tip-up grasper as counter bearing, the stapler is bent
Fig. 22.31 The small intestine is approximated with the priorly formed gastric pouch via the inserted linear stapler
250
J.-N. Kersebaum and J. H. Beckmann
Fig. 22.32 The opening of the gastric pouch is visualized, and the small end of the stapler is carefully inserted to avoid a dissection of the gastric wall
Fig. 22.33 Fashioning the gastrojejunostomy
Fig. 22.34 On retraction, the stapler is only opened halfway to avoid
stress on the anastomosis and a bigger enterostomy
Fig. 22.35 Closing the enterostomy with a 15cm, unidirectional 2–0 Stratax (Ethicon, Johnson & Johnson, Cincinnati, OH, USA) thread beginning from the far left
22 Robotic Gastric Bypass
251
Fig. 22.36 We use continuous seromuscular stitches
Fig. 22.37 After nishing half of the anastomosis, a second 15 cm,
unidirectional 2–0 Stratax (Ethicon, Johnson & Johnson, Cincinnati, OH, USA) thread is used closing up the enterostomy from the far right
Fig. 22.38 Adjusting the tension using the needle driver as a bearing point
Fig. 22.39 The enterostomy is nished by two opposing stitches from each side
252
J.-N. Kersebaum and J. H. Beckmann
Fig. 22.40 Proximal to the anastomosis, the small bowel is positioned
Fig. 22.41 The mesentery is opened with the energy device. This should neither be too close to the gastrojejunostomy to avoid a poor perfusion nor too long to avoid a blind loop
Fig. 22.42 Dissection of the small intestine proximal of the anastomo­sis with a linear stapler
Fig. 22.43 Opening the small intestine for the anastomosis
22 Robotic Gastric Bypass
253
Fig. 22.44 Measurement of the Roux limb (150cm)
Fig. 22.45 Opening of the small intestine antimesenterically 150cm
aboral of the gastrojejunostomy
Fig. 22.46 After inserting the linear stapling device, the jejunal loop is approximated toward the dissected small intestine
Fig. 22.47 Fashioning of the jejunojejunostomy with the linear stapler
254
J.-N. Kersebaum and J. H. Beckmann
Fig. 22.48 To ensure low tension while stitching, the anastomosis is positioned as follows
Fig. 22.49 Closure of the enterostomy using a 15cm, unidirectional 3–0 Stratax (Ethicon, Johnson & Johnson, Cincinnati, OH, USA) thread
Fig. 22.50 Finished jejunojejunostomy
Fig. 22.51 Perform hemostasis if necessary. In this case with bipolar
forceps
22 Robotic Gastric Bypass
255
Fig. 22.52 Covering of the anastomosis with the omentum majus
Fig. 22.53 Methylene blue test of the gastrojejunostomy via the 40
Charrier Bougie with an additional gastric tube
Fig. 22.55 Positioning of the drainage under the left liver lobe

References

1. Welbourn R, Hollyman M, Kinsman R, Dixon J, Liem R, Ottosson
J, etal. Bariatric surgery worldwide: baseline demographic descrip-
tion and one-year outcomes from the fourth IFSO global registry
report 2018. Obes Surg. 2019;29(3):782–95.
2. Horgan S, Vanuno D.Robots in laparoscopic surgery. J Laparoendosc
Adv Surg Tech [Internet]. 2001 [cited 2019 Aug 11];11(6):415–9.
Available from: http://www.ncbi.nlm.nih.gov/pubmed/11814134.
3. Szold A, Bergamaschi R, Broeders I, Dankelman J, Forgione A,
Langø T, etal. European association of endoscopic surgeons (EAES)
consensus statement on the use of robotics in general surgery. Surg
Endosc [Internet]. 2015 [cited 2019 Aug 11];29(2):253–88. Available
from: http://link.springer.com/10.1007/s00464-014-3916-9.
Fig. 22.54 Retracting the liver paddle in view to avoid tissue damage
Robotic Duodenal Switch (rDS)
Duodenal switch
andRobotic Single Anastomosis Duodenal-Ileal Bypass withSleeve Gastrectomy (rSADI-S)
CurtisPeery
23
Successful long-term treatment of obesity has only been achieved with bariatric surgery. The sleeve gastrectomy (SG) and Roux-en-Y (RNY) gastric bypass are the most commonly performed bariatric surgeries in the United States. Very few biliopancreatic diversions with duodenal switch, commonly known as the duodenal switch (DS), are performed in com­parison (0.9%). Several reasons may be responsible for this. First, management of these patients is complex with a higher risk for malnutrition and vitamin and mineral deciencies. Second, historically the DS has had increased mortality and morbidity in comparison to the SG or RNY gastric bypass. Most DS have been performed either open or laparoscopically. It is well-known that open surgery increases surgical compli­cations, and a laparoscopic DS is an overly complex procedure with safe results difcult to reproduce. As a result, surgical complications have been higher for the DS as compared to the gastric bypass and sleeve gastrectomy.
A modication of the DS has become increasingly popu­lar and appears to have fewer metabolic and surgical compli­cations. This modication is known by many different names: the single anastomosis DS, single anastomosis duodenal- ileal bypass with sleeve gastrectomy (SADI-S), loop DS, or stomach intestinal pylorus-sparing surgery (SIPS). The American Society for Metabolic and Bariatric Surgery (ASMBS) in 2020 came out with an endorsement of these procedures as an acceptable modication of the DS.To avoid confusion, we will refer to this modication as the SADI-S from here on out.
Because of the worsening obesity epidemic and increas­ing population of super-morbidly obese individuals, there has been a renewed interest in the DS and SADI-S.Also, robotic bariatric surgery is rapidly gaining acceptance, par­ticularly for more complex surgeries such as bariatric proce-
C. Peery (*) Department of Surgery, Sanford School of Medicine University of South Dakota, Sioux Falls, SD, USA e-mail: curtis.peery@sanfordhealth.org
dures. When surgeons are adequately trained, the introduction of robotics into a bariatric surgeon’s practice can be safe and increase the surgeon’s ability to perform these more complex surgeries such as the DS, SADI-S, and revisions. This chap­ter discusses the utilization of the robotic platform as a tool to safely perform the DS and SADI-S (Figs.23.1, 23.2, 23.3,
23.4, 23.5, 23.6, 23.7, 23.8, 23.9, 23.10, 23.11, 23.12, 23.13,
23.14, 23.15, 23.16, 23.17, 23.18, 23.19, 23.20, 23.21, 23.22,
23.23, 23.24, 23.25, 23.26, 23.27, 23.28, 23.29, 23.30, 23.31,
23.32, 23.33, 23.34, 23.35, 23.36, 23.37, 23.38, 23.39, 23.40,
23.41, 23.42, 23.43, and 23.44).
Food
Digestive juice
Fig. 23.1 This is an illustration of the essential components of the duo­denal switch (DS). A sleeve gastrectomy has been created and the duo­denum divided in the rst portion. The small bowel is then recongured creating a Roux limb otherwise known as the alimentary limb. The bil­iopancreatic (BP) limb is anastomosed to the ileum leaving a common channel. In practice these limbs may vary in length, but the common channel is usually 100–200cm long
© The Author(s), under exclusive license to Springer Nature Switzerland AG 2022 O. Y. Kudsi, P. P. Grimminger (eds.), Atlas of Robotic Upper Gastrointestinal Surgery,
https://doi.org/10.1007/978-3-030-86578-8_23
257