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410
Fig. 29.14 Rolled mesh plug
Fig. 29.15 Rutkow­Robbins hand-rolled cone
A. Bates and S. Docimo Jr.
add bulk to the repair (Fig.29.16). The plug was secured to the ring of the defect using eight to ten Vicryl sutures. Along with the plug, a 3cm×6cm at mesh was included for the patch. For small defects, including femoral defects, petals could be removed from the plug to decrease its size. Furthermore, the plug was offered in multiple sizes to customize the repair for patient habitus and defect morphology.
Rutkow and Robbins had effectively streamlined and standardized open inguinal hernia repair. They performed over 3200 mesh plug repairs, including over 1500 PerFix plug repairs. They reported a less than 1% recurrence for primary hernias and 3% recurrence for recurrent hernias. However, once multiply recurrent, they recommended alternative repairs due to a recurrence rate of 9% with the PerFix technique [17]. That said, the PerFix repair remains one of the most common ingui­nal hernia repairs performed today.
29 Open Techniques: Mesh andNon-mesh Anatomical Repairs
Fig. 29.16 Bard PerFix plug-and-patch
411
Complications ofthePlug-and-Patch
Many complications have been reported with the mesh plug, partially to no fault of the device itself. Many surgeons have modied the technique that was standardized by Rutkow and Robbins, and it can be assumed that many complications are attrib­utable to improper technique. There are multiple reports of mesh erosion and migra­tion [1820]. Erosion has been reported into the urinary bladder, colon, small bowel, and iliac vessels, causing signicant morbidity.
The issue of mesh migration may be attributable to mesh shrinkage. During incorporation and scarring, synthetic mesh will lose approximately 20% of its sur­face area. When shaped as a cone, this shrinkage may result in up to a 70% reduc­tion in plug volume [21].
Postoperative chronic groin pain is a complex entity whose etiology is difcult to elucidate. Many surgeons have attributed groin pain in some patients to the mesh material itself. However, it is our belief that the inguinal dissection and placement of the mesh is the main determinant of postoperative groin pain. For example, the protection of at-risk nerves within their investing fascia while performing a dissec­tion with minimal tissue trauma will help protect the majority of patients from post­operative groin pain.

Post-herniorrhaphy Inguinodynia

Post-herniorrhaphy inguinodynia can be divided into nociceptive pain and neuro­pathic pain. Nociceptive pain is caused by tissue injury or inammatory reaction. These signals originate at nociceptors in the tissues themselves and travel to the brain via A-delta and C-bers. The use of local anesthesia also helps control the production of nociceptive molecules.
412
A. Bates and S. Docimo Jr.
Neuropathic pain is caused by direct nerve injury. These injuries include myelin separation, axon crystallization, and other structural changes [22]. They can be caused by direct mesh-to-nerve contact or nerve entrapment from sutures, tacks, or folded mesh. The proper positioning of mesh and the protection of at-risk nerves within investing fascia help protect the nerves from iatrogenic injury and mesh con­tact, which can lower the risk of inguinodynia from 6–8% to 1% [23].
Outcomes ofOpen Techniques
Despite a drop in recurrence rates among tension-free repairs, concerns regarding the use of prosthetic material have been raised. Chronic groin pain (>3months) or inguinodynia is a clinically challenging complication following hernia repair [24]. Attempts at limiting postoperative pain have been made. A self-gripping mesh, which eliminates the need for sutures or tacs, demonstrated a decrease in short-term pain (<1year postoperatively) [25, 26]. However, an increase in recurrences follow­ing the use of self-gripping meshes has been reported [24, 27, 28].
Due to the widespread use of hernioplasty, tissue repairs have fallen by the way­side in most surgical residency programs. However, in certain settings, such as a contaminated surgical eld or patient objection to mesh, the knowledge of various tissue repair techniques and their outcomes is paramount. Currently, data supports the Shouldice technique as the tissue repair of choice, compared to Bassini and McVay. The recurrence rate of a Shouldice repair has been typically reported to be in the range of 1–5% in well-selected patients [2931]. A 2009 Cochrane review demonstrated a lower pooled recurrence rate for the Shouldice repair compared to other tissue repairs (odds ratio, 0.62; 95% CI 0.45–0.85) [31]. Comparison of the Shouldice technique to mesh repairs demonstrated a longer postoperative hospital stay (not signicant) for the tissue repair and signicantly reduced recurrences (3.6% vs. 0.8%) among the mesh repairs [32].
Overall, the best outcomes for a Shouldice repair are typically achieved in the hands of those well trained in the technique. Malik et al. evaluated 235,192 Ontario residents who underwent primary elective inguinal hernia repair at either a hernia specialty hospital (Shouldice Hospital) or a general hospital. Patients at the Shouldice Hospital had an age-standardized recurrence risk of 1.15% (95% CI
1.05–1.25%) in contrast to recurrence of 4.79% (95% CI 4.54–5.04%) at the high­est volume general hospitals [33]. Compared to the Bassini and McVay repairs, the Shouldice technique also remains superior. The recurrence rate for Bassini repairs has been quoted as high as 21% [34]. A prospective study comparing the use of Bassini and McVay tissue repairs with a follow-up range of 10–208months demonstrated a recurrence rate of 2.67% in the McVay group and 2.89% in the Bassini group [34]. Due to the higher recurrence rate following the Bassini and McVay repair, the Shouldice technique remains the preferred method of tissue repair [1].
Synthetics, such as polypropylene, ePTFE, and polyesters, were heralded as a major breakthrough in the tension-free repair of inguinal hernias with the promise to
29 Open Techniques: Mesh andNon-mesh Anatomical Repairs
413
limit recurrence. More recent evidence brought to light complications associated with synthetic mesh such as pain [35]. Mechanism of pain at the tissue-mesh plane has been demonstrated as nerve growth within the weaves of meshes which then become entrapped, leading to pain [36], and the possible need for mesh explantation.

References

1. Amid PK.Groin hernia repair: open techniques. World J Surg. 2005;29(8):1046–51.
2. Amid PK, Shulman AG, Lichtenstein IL.Critical scrutiny of the open tension-free hernio-
plasty. Am J Surg. 1993;165:369–71.
3. Amid PK. Lichtenstein tension-free hernioplasty: its inception, evolution, and principles.
Hernia. 2004;8:1–7.
4. Scott NW, McCormack K, Graham P, Go PM, Ross SJ, Grant AM.Open mesh versus non-mesh
for repair of femoral and inguinal hernia. Cochrane Database Syst Rev. 2002;(4):CD002197.
5. Simons MP, Aufenacker T, Bay Nielsoen M, etal. European Hernia Society guidelines on the
treatment of inguinal hernia in adult patients. Hernia. 2009;13:343–403.
6. Amid PK. New understanding of the causes and surgical treatment of postherniorrhaphy
inguinodynia and orchialgia. J Am Coll Surg. 2007;205:381–5.
7. Peiper C, Junge K, Klinge U, Strehlau E, Ottinger A, Schumpelick V.Is there a risk of infertility
after inguinal hernia repair? Experimental studies in pig and rabbit. Hernia. 2006;10(1):7–12.
8. Fitzgibbons RJ Jr, Richards AT, Quinn TH.Open hernia repair. In: Souba WW, Fink MP,
Jurkovich GJ, Kaiser LR, Pearce WH, Pemberton JH, Soper NJ, editors. ACS surgery: prin­ciples and practice. NewYork: WebMD Professional Publishing; 2005. p.603–24.
9. O’neill SM, etal. Groin hernia repair: open techniques. In: Novitsky YW, editor. Hernia sur-
gery: current principles. Cham: Springer; 2016. p.437–49.
10. Bendavid R, Koch A, Iakovlev VV.The Shouldice repair 2016. In: Hope WW, Cobb WS,
Adrales GL, editors. The textbook of hernia. Cham: Springer International Publishing; 2017. p.53–68.
11. Amid PK, Shulman AG, Lichtenstein IL.Local anesthesia for inguinal hernia repair: step-by-
step procedure. Ann Surg. 1994;220(6):735–7.
12. Lichtenstein IL, Shore JM.Simplied repair of femoral and recurrent inguinal hernias by a
“plug” technique. Am J Surg. 1974;128:439–44.
13. Shulman AG, Amid PK, Lichtenstein IL.The plug repair of 1402 recurrent inguinal hernias.
Arch Surg. 1990;125:265–7.
14. Gilbert AI.Chapter 177: Generations of the plug and patch repair: its development and lessons
from history. Mastery of surgery. 5th ed. Philadelphia: Lippincott Williams & Wilkins; 2007. p.1940–3.
15. Robbins AW, Rutkow IM. The mesh-plug hernioplasty. Surg Clin North Am.
1993;73(3):501–11.
16. Rutkow AW, Robbins IM. The Marlex mesh prex plug groin hernioplasty. Eur J Surg.
1998;164:549.
17. Rutkow AW, Robbins IM.The mesh plug technique for recurrent groin herniorrhaphy: a nine
year experience of 407 repairs. Surgery. 1998;124(5):844–7.
18. Cristaldi M, Pisacreta M, etal. Femoro-popliteal bypass occlusion following mesh-plug for
prevascular femoral hernia repair. Hernia. 1997;1:197–9.
19. Dieter RA.Mesh plug migration into scrotum: a new complication of hernia repair. Int Surg.
1999;84:57–9.
20. Jeans S, Williams G, Stephenson B.Migration after open mesh plug inguinal hernioplasty: a
review of the literature. Am Surg. 2004;70:298–9.
21. LeBlanc KA.Complications associated with the plug and patch method of inguinal hernior-
rhaphy. Hernia. 2001;5:135–8.
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22. Aleri S, Rotandi F, etal. Inuence of preservation versus division of ilioinguinal, iliohypo-
gastric, and genital nerves during open mesh herniorrhaphy. Prospective multicenter study of chronic pain. Ann Surg. 2006;243(4):553–8.
23. Wijsmuller AR, Lang JFM, etal. Surgical technique preventing chronic pain after Lichtenstein
hernia repair; state of the art vs. daily practice in the Netherlands. Hernia. 2007;11:147–51.
24. Zwaans WAR, Verhagen T, Wouters L, Loos MJA, Roumen RMH, Scheltinga MRM.Groin
pain characteristics and recurrence rates: three-year results of a randomized controlled trial comparing self-gripping Progrip mesh and sutured polypropylene mesh for open inguinal her­nia repair. Ann Surg. 2018;267(6):1028–33.
25. Sanders DL, Waydia S.A systematic review of randomised control trials assessing mesh xa-
tion in open inguinal hernia repair. Hernia. 2014;18:165–76.
26. Kingsnorth A, Gingell-Littlejohn M, Nienhuijs S, etal. Randomized controlled multicenter
international clinical trial of self-gripping Parietex ProGrip polyester mesh versus lightweight polypropylene mesh in open inguinal hernia repair: interim results at 3 months. Hernia. 2012;16:287–94.
27. Weyhe D, Belyaev O, Muller C, etal. Improving outcomes in hernia repair by the use of light
meshes: a comparison of different implant constructions based on a critical appraisal of the literature. World J Surg. 2007;31(1):234–44.
28. Verhagen T, Zwaans WA, Loos MJ, et al. Randomized clinical trial comparing self-grip-
ping mesh with a standard polypropylene mesh for open inguinal hernia repair. Br J Surg. 2016;103:812–8.
29. Bendavid R.The need for mesh. In: Bendavid R, editor. Prosthesis and abdominal wall her-
nias. Austin: RG Landes Co; 1994. p.116–22.
30. Devlin HB, Gillen PHA, Waxman BP, MacNay RA.Short stay surgery for inguinal hernia:
experience of the Shouldice operation, 1970-1982. Br J Surg. 1986;73:123–4.
31. Simons MP, Kleijnen J, Van Geldere D, Hoitsma HFW, Obertop H.Role of the Shouldice tech-
nique in inguinal hernia repair: a systematic review of controlled trials and a meta-analysis. Br J Surg. 1996;83(6):734–8.
32. Amato B, Moja L, Panico S, Persico G, Rispoli C, Rocco N, Moschetti I. Shouldice tech-
nique versus other open techniques for inguinal hernia repair. Cochrane Database Syst Rev. 2012;(4):CD001543.
33. Malik A, Bell CM, Stukel TA, Urbach DR. Recurrence of inguinal hernias repaired in a
large hernia surgical specialty hospital and general hospitals in Ontario, Canada. Can J Surg. 2016;59(1):19–25.
34. Dirksen CD, Beets GL, Go PM, Geisler FE, Baeten CG, Kootstra G.Bassini repair compared
with laparoscopic repair for primary inguinal hernia: a randomised controlled trial. Eur J Surg. 1998;164(6):439–47.
35. Magnusson N, Gunnarsson U, Nordin P, Smedberg S, Hedberg M, Sandblom G.Reoperation
for persistent pain after groin hernia surgery: a population based study. Hernia. 2015;19:45–51.
36. Bendavid R, Koch A, Morrison J, Petersen K, Grischkan D, Iakovlev V.A mechanism of mesh-
related post-herniorrhaphy neuralgia. Hernia. 2016;20(3):357–65.
A. Bates and S. Docimo Jr.
MIS Techniques: Lap TAPP andrTAPP
30
EdmundoInga-Zapata andFernandoGarcía

Introduction

The transabdominal preperitoneal approach (TAPP) was described more than 25years ago by several surgeons [1], and although the main principles are kept, there are several variations and details worth mentioning [2]. Diverse technical details have emerged from formal research and surgical social media [3, 4] that are important for successful outcomes.
While the TEP technique goes directly to the preperitoneal space, the TAPP tech­nique reaches the same preperitoneal space after rst entering the peritoneal cavity. Despite TAPP being considered as more invasive and taking longer to perform than TEP [5], it is surgically straightforward when it comes to understanding and learn­ing the anatomy and the complexity of the repair; for this reason many surgeons see it as the rst choice when learning MIS hernia repair [6, 7].
Over the last three decades the TAPP technique has evolved and has been rened, with successful innovations including central aspects like xation and mesh types, but also creative and interesting (although never widely adopted) like combined approach [8], dissection aided by water [9], preperitoneal anesthetic injection to decrease pain [10], and self-expanding mesh [11]. Therefore, we decided to include the more relevant steps proposed by many groups to reduce recurrences and mini­mize complications.
E. Inga-Zapata, M.D., M.Sc, F.A.C.S. (*) Surgical Andean Group, Lima, Peru
F. García, M.D., F.A.C.S. John Peter Smith Hospital, Fort Worth, TX, USA e-mail: surgmdfg@aol.com
© Society of American Gastrointestinal and Endoscopic Surgeons (SAGES) 2019 S. S. Davis Jr. et al. (eds.), The SAGES Manual of Hernia Surgery,
https://doi.org/10.1007/978-3-319-78411-3_30
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E. Inga-Zapata and F. García

Preoperative Aspects

The patient is placed supine with arms tucked. The surgeon stands on the side oppo­site the hernia with the monitor near the feet of the bed facing the surgeon. The TAPP repair has been performed with all the types of anesthesia: general, regional [12, 13], and even with only local anesthesia plus sedation [14]; nonetheless, the most common practice is to use general anesthesia [15] because it guarantees more relaxation of the abdominal wall (Fig.30.1).
Laparoscopic hernia repairs are less dynamic than other abdominal major lapa­roscopic interventions; nonetheless, it is important to secure the patient well to the operating room table so that rotation and Trendelenburg can be used and to allow gravity to move bowel cephalad and allow for better exposure of the intra- abdominal groin region, particularly important in TAPP in comparison to TEP.
Although conservative surgeons probably favor a Foley catheter to guarantee blad­der emptiness as a mean to secure and facilitate dissection of the space of Retzius, there is the counterpart emerging position toward no longer use Foley catheter by default in all patients, but only optionally in cases expected to take longer than usual [16] and simply prevent the patient to void the bladder right before surgery [17, 18].
Fig. 30.1 Patient position and OR distribution. Arms tucked and surgeon contralateral to hernia site
30 MIS Techniques: Lap TAPP andrTAPP
417

Operative Aspects

Port position will be according to surgeon training and experience. One way to set up the ports is by looking for triangulation of the instruments, having the camera port placed at the umbilicus (to take advantage of the umbilicus) and two other lower prole ports lateral to the camera, to the right and left, for both hands.
Another common port conguration is in the classical TEP setup, in vertical midline position, having the camera at the umbilicus, and the two other ports below and in line downward. Although the surgeon will work with instruments in parallel (sacricing triangulation), they will nd it may be more ergonomic (Fig.30.2).
The surgical gesture entails grasping, pulling, scissoring, traction, and counter­traction. The goal is a proper dissection, and most surgeons use an atraumatic grasper in the nondominant hand and scissors or an atraumatic gaper in the domi­nant hand. A tacker or needle driver is also used for peritoneal closure and often for mesh xation. Minor bleeding is controlled by cauterizing and can be comple­mented by pressure with a gauze and better if humidied to more easily and gently wiping the lm blood cloths out [19, 20]. Aspiration is barely needed, but it is con­venient to have an aspirator always ready.
Development ofthePeritoneal Pocket
After port placement and inspection of the contralateral groin, the peritoneum is incised, following an imaginary line starting close to the anterior iliac spine, hori­zontally toward the midline. Different styles for opening the peritoneum have been
Fig. 30.2 Port positions: the classic triangulating position (left image) and some variants (middle and right images)
418
E. Inga-Zapata and F. García
described: transverse, curved cephalad convex, and an “s”-shaped incision [21]. Many favor the transverse incision. The peritoneum is incised, and the peritoneal space is developed in large part with blunt dissection combined with sharp or elec­trocautery dissection by scissor or hook (Fig.30.3).
As the peritoneum is opened and the preperitoneal space developed, a thorough knowledge of the anatomy is essential. The well-known critical view of safety (CVS) for cholecystectomy [22] has its sister in the critical view of the myopectin­eal orice (CVMPO) [23], widely accepted and described in a previous chapter. The principles of the CVMPO were developed after years of research and academic exchange in surgical social media. Adherence to these principles ensures identica­tion of critical anatomical landmarks and a successful endoscopic TAPP repair, whether laparoscopic or robotic (Fig.30.4).
The development of the peritoneal ap from the anterior superior iliac spine region to the umbilical ligament region may be interrupted in the middle by the cord and its parietal peritoneum if there is an indirect sac. Because it takes time, patience, and precision to develop a peritoneal opening in a bloodless fashion, it is helpful to start the dissection laterally, where the space is more easily created by means of gentle traction and countertraction. The pubic tubercle and Cooper’s ligament are
Fig. 30.3 Types of peritoneal openings: transverse (horizontally), convex shaped, and “s” shaped
Fig. 30.4 Two spaces of dissection (blue) with a midstructure and line of peritoneal edge
30 MIS Techniques: Lap TAPP andrTAPP
419
found medially and used as landmarks for dissection. The rst main danger zone to pay attention to is the connection between the upper and lower venous systems called the corona mortis [24]. About this anatomical landmark, it is interesting to see that the less insufating pressure you work with, the more visible the corona mortis becomes [25].
Gentle grasping of the peritoneum to pull it away from adherent fat with con­comitant sweeping of the areolar attachments and countertraction with the opposite hand/instrument is key to dissecting out the spermatic cord, vas deferens, and any indirect sac. The medial (not median) umbilical ligaments could be but do not nec­essarily need to be transected and are easily pushed away when dissecting. Options to treat the sac include simple peeling off of the cord until a point where our cepha­lad peritoneal traction does not move the cord.
For very large indirect sacs, amputation of the sac with adequate parietalization and closure of the peritoneal defect is an option. Special care needs to be given to cord lipomas whenever they arise because they might be a reason for patient dis­comfort or a feeling of a persistent hernia; therefore, removal is advised.
Unlike the TEP approach where the type of hernia ends up being determined only after a careful dissection during the procedure itself, the TAPP approach offers immediate and workless identication of direct and indirect hernias on both sides, being this probably its main advantage over the TEP technique. Nevertheless, this diagnostic accuracy does not readily identify the third common type of groin hernia, femoral. For this, special attention is needed with focused dissection in the area below Cooper’s in the vicinity of the iliac vein where—again—we usually will nd lipoma like tissue covering the femoral entrance and not necessarily a classic peri­toneal sac.
In general, lipomas and lipoma-like tissues are usually found at the medial umbilical ligaments, the base of indirect sacs, deep in indirect sacs, and outside indirect sacs attached to the cord structures (Fig.30.5).
Fig. 30.5 Cord lipoma found on TAPP