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List of contributors, vii
Foreword by Norihiro Kokudo, xi
Foreword by Keith D. Lillemoe, xii
Foreword by Jean-Nicolas Vauthey, xiii
Preface by Brice Gayet, xv
Preface by Claudius Conrad, xvii
Acknowledgments, xix
About the companion website, xxi
Part I: Textbook
Section 1: General considerations for advanced laparoscopic hepatopancreatobiliary surgery
1 The development of minimal access hepatopancreatobiliary surgery, 3Ruchir Puri, Nicolas Paleari, John Stauffer, and Horacio J. Asbun
2 Acquisition of specific laparoscopic skills for laparoscopic hepatopancreatobiliary surgery, 17Soeren Torge Mees and Guy Maddern
3 Optimal operating room set-up and equipment used in laparoscopic hepatopancreatobiliary surgery, 28Satoshi Ogiso, Kenichiro Araki, Brice Gayet, and Claudius Conrad
4 Augmented reality for laparoscopic liver surgery, 47Kate Gavaghan, Matteo Fusaglia, Matthias Peterhans, and Stefan Weber
5 Imaging of hepatopancreatobiliary diseases, 62Motoyo Yano, Hillary Shaw, and Kathryn J. Fowler
6 Role of staging laparoscopy in hepatopancreatobiliary malignancies, 85Anil K. Agarwal, Raja Kalayarasan, and Amit Javed
7 Interventional radiology in the management of hepatopancreatobiliary malignancy and surgical complications, 100Steven Y. Huang and Michael J. Wallace
8 Robotic hepatopancreatic surgery, 120Hop S. Tran Cao, Claudius Conrad, and Matthew H.G. Katz
9 Enhanced recovery after hepatopancreatobiliary surgery, 141David Fuks, Thomas A. Aloia, and Brice Gayet
Section 2: Advanced laparoscopic hepatobiliary surgery
10 Relevant hepatobiliary anatomy, 148Tadatoshi Takayama, Masatoshi Makuuchi, and Kimitaka Kogure
11 Anesthesia for laparoscopic liver surgery, 169Jonathan A. Wilks and Vijaya N.R. Gottumukkala
12 Oncological management of primary liver cancer in the era of minimal access surgery, 185Jennifer Chan
13 Oncological management of colorectal liver metastases in the era of minimal access surgery, 200Jennifer Chan
14 Resection of noncolorectal liver metastases, 214 Universe Leung and William R. Jarnagin
15 Intraoperative laparoscopic ultrasound for laparoscopic hepatopancreatobiliary surgery, 231Kenichiro Araki and Claudius Conrad
16 Minimally invasive liver surgery: indications and contraindications, 238Thomas A. Aloia
17 Laparoscopy (hybrid) and hand-assisted laparoscopy in liver surgery: why, when, and how? 250Yasushi Hasegawa and Go Wakabayashi
18 Ablation strategies for tumors of the liver and pancreas, 257Danielle K. DePeralta and Kenneth K. Tanabe
19 Technical considerations for advanced laparoscopic liver resection, 273Ho-Seong Han
20 Laparoscopic left lateral sectionectomy and left hepatectomy for living donation, 278Claire Goumard and Olivier Scatton
Section 3: Advanced laparoscopic pancreas surgery
21 Pancreatic anatomy in the era of extensive and less invasive surgery, 287Yoshihiro Sakamoto, Yoshihiro Mise, and Norihiro Kokudo
22 Management of solid and cystic lesions of the pancreas, 298David Fogelman and Robert A. Wolff
23 Laparoscopic pancreatic surgery, 322Daniel Richard Rutz and David A. Kooby
24 Indications and contraindications for laparoscopic pancreas surgery, 337Hanno Niess and Jens Werner
Part II: Video Atlas
List of Part II Video and Figure Abbreviations, 350
Section 1: Liver Laparoscopic minor liver resection and segmentectomy
1 Intraoperative ultrasonography for safe laparoscopic livery surgery, 351
2 Left lateral sectionectomy, 355
3 Left lateral sectionectomy using a laparoscopic single access device, 360
4 Segmentectomy I with resection of inferior vena cava, 364
5 Segmentectomy IV, 369
6 Segmentectomy IVa, 375
7 Segmentectomy IVb, 382
8 Bisegmentectomy IVb and V, 386
9 Segmentectomy VI, 392
10 Segmentectomy VII, 396
11 Segmentectomy VIII (transthoracic access), 400
Laparoscopic major liver resection 12 Left hepatectomy, 405
13 Right hepatectomy, 410
14 Left trisegmentectomy with caudate lobectomy, 416
15 Right trisegmentectomy, 422
16 Posterior sectionectomy, 427
17 Hilar lymphadenectomy (with right hepatectomy and caudate lobectomy for Klatskin tumor), 431
18 Mesohepatectomy, 438
Laparoscopic living donor liver transplantation
19 Living donor left lateral sectionectomy, 442
Section 2: Pancreas Laparoscopic splenic resection
20 Total splenectomy, 447
21 Partial splenectomy, 449
Laparoscopic pancreas resection
22 Pancreatic enucleation, 451
23 Cystgastrostomy, 453
24 Distal pancreaticosplenectomy, 455
25 Spleen-preserving pancreatectomy of the body and tail, 457
26 Pancreaticoduodenectomy, 460
Afterword by Beat Müller-Stich, Adrian T. Billeter, and Markus W. Büchler, 465
Afterword by Pierre-Alain Clavien, 467
Index, 469
Ruchir Puri, Nicolas Paleari, John Stauffer, and Horacio J. Asbun
Department of General Surgery, Mayo Clinic, Jacksonville, USA
This wonderful chapter, which may spark the interest of surgeons beyond the field of HPB surgery, is an account of the challenges faced by the pioneers of minimally invasive HPB surgery, challenges of a scientific but also a social nature. Some of these pioneers' careers took an unfavorable turn because of their dedication to innovation. We owe these legends and also their families gratitude, not only for their ingenuity and the inquisitiveness from which the patients of minimally invasive HPB surgeons benefit in the operating room every day but also for taking on the societal challenge and risks to their career in order to drive innovation. The chapter also explores the available data on the development of modern laparoscopic and robotic liver, biliary, and pancreas surgery from its beginnings of limited resection to the advanced minimally invasive surgery that is practiced at many centers around the world today.
Keywords: advanced minimally invasive HPB surgery, history of minimally invasive HPB surgery
All truth passes through three stages:
Arthur Schopenhauer
Hepatopancreatobiliary (HPB) operations are some of the most technically challenging procedures in surgery owing to the complex anatomy and proximity to vital structures. Over the years HPB procedures have excited, enthralled, and humbled surgeons all over the world. At the same time, the complexities of the disease processes have driven innovation not just in surgery but in medicine in general. The development of minimally invasive HPB surgery is synonymous with the development of laparoscopy and is perhaps the "holy grail" of laparoscopic surgery.
The term laparoscopy comes from "laparoskopie," which is derived from two Greek words: laparo, meaning "flank," and the verb skopos, meaning "to look or observe" [1]. The exploration of the human body through small or natural orifices dates back to the time of Hippocrates [2]. Hippocrates described the use of a primitive anoscope for the examination of hemorrhoids in 400 BC [2]. An Arab physician, Abulcasis, added a light source to the instrument for the exploration of the cervix in AD 1000 [2,3]. Many centuries later, in 1585, Giulio Cesare Aranzi inspected the nasal cavity by reflecting a beam of light through water [2].
In 1805 Phillipp Bozzini examined the urethra using an instrument that consisted of a wax candlelit chamber inside a tube which reflected light from a concave mirror [2,3]. Bozzini called it the "lichtleiter," and it is considered the first real endoscope (Figure 1.1 and Figure 1.2) [2,3]. Using his lichtleiter, Bozzini managed to study the bladder directly, and his pioneering efforts laid the foundations of modern endoscopy.
Figure 1.1 Self-portrait of a young Bozzini (ca. 1805). Source: Frankfurt town archives.
Figure 1.2 The lichtleiter (an original owned by the American College of Surgeons, Bush Collection). The 200th Anniversary of the First Endoscope: Phillip Bozzini (1773-1809). Source: Morgenstern 2005 [4]. Reproduced with permission of Sage Publications.
Over the next century, Pierre Salomon Segalas and Antoine Jean Desormeaux from France refined Bozzini's lichtleiter and took the first steps in developing the modern cystoscope [2,3]. Desormeaux presented his idea to the Academy of Medicine in Paris, and for his efforts he is considered the "father of cystoscopy" [3]. Around the same time, over in the United States, John Fischer in Boston was using a similar instrument to perform vaginoscopies, and in Dublin, Ireland, Francis Cruise was performing endoscopies on the rectum [2].
In 1877 a urologist from Berlin, Maximilian Nitze, created what is considered the first modern endoscope using a platinum wire heated by electricity and encased in a metal tube (Figure 1.3 and Figure 1.4) [2,3]. A few years later, in 1880, Thomas Edison invented the light bulb, which revolutionized the way endoscopies were performed [3,6]. While these innovations all made advances in laparoscopy possible, little else occurred in the field until the beginning of the twentieth century.
Figure 1.3 Maxmilian Nitze. Source: https://de.wikipedia.org/wiki/Datei:Max_Nitze_Urologe.jpg#file. Used under CC BY-SA 3.0 - http://creativecommons.org/licenses/by-sa/3.0/legalcode.
Figure 1.4 Nitze cystoscope of 1877. Source: Mouton 1998 [5]. Reproduced with permission of Springer.
George Kelling from Germany is credited with exploring the abdominal cavity using a scope after creating pneumoperitoneum in 1901 (Figure 1.5). Kelling was a surgeon and first performed laparoscopies on dogs; he called the procedure "coelioskope" [2,3,6,7] (Box 1.1). The technique involved injecting the canine's abdomen with oxygen filtered through sterile cotton and then using Nitze's cystoscope to inspect the abdominal contents. Kelling performed this procedure in humans, but his findings were not published [3]. Around the same time, a Swedish internist called Hans Christian Jakobaeus popularized the procedure in humans by using a colposcope with a mirror to assess the abdomen of a pregnant woman [7]. In 1911 Jakobaeus presented his work Über Laparo- und Thorakoskopie and later continued his work in thoracoscopy (Figure 1.6) [3,6,7,8]. Jakobaeus used trocars very similar to the ones used today and is also credited with coining the term "laparoscopy" [3]. Not too far away in Petrograd (modern-day St Petersburg), Dimitri Ott performed the same procedure and called it "ventroscopy" [6,7]. The first to use the laparoscopic technique in the United States was Bertram M. Bernheim in 1911 [9]. Bernheim was a surgeon at the Johns Hopkins University, and he called this procedure "organoscopy" [2,3,6-8,11]. Bernheim, like many others at the time, had not heard of the work of Kelling and Jakobaeus.
Coelioscope: George Kelling, 1901 (Germany)
Ventroscopy: Dimitri Ott, 1901 (Petrograd/St Petersburg)
Organoscopy: Bertram Berheim, 1911 (Johns Hopkins University)
Figure 1.5 George Kelling. Source: https://en.wikipedia.org/wiki/Georg_Kelling#/media/File:Portrait_georg_kelling.jpg. Used under CC BY-SA 3.0 de - http://creativecommons.org/licenses/by-sa/3.0/de/deed.en.
Figure 1.6 Hans Christian Jakobaeus MD, performing a thoracoscopy. Source: Braimbridge 1993 [10]. Reproduced with permission of Elsevier.
Up to this point, all the procedures for exploring the abdominal cavity were performed with oxygen [3]. In 1924, Richard Zollikofer proposed that pneumoperitoneum be obtained using carbon dioxide. Carbon dioxide had two advantages: one was the rapid reabsorption of carbon dioxide by the peritoneal membrane and, unlike oxygen, it was noncombustible [3,6]. In 1929, Heinz Kalk, a German gastroenterologist, designed a new lens system with 135° vision and introduced the technique of "double trocar." This invention eventually led to more refinements and the introduction of instruments into the cavities [2,3,6,7]. Between 1929 and 1959, Kalk submitted many articles on diagnostic laparoscopy; he is considered the "father of modern laparoscopy" [3].
The first therapeutic intervention was carried out by the German physician Fervers, who performed the lysis of abdominal adhesions and a liver biopsy [3,6]. Another significant advancement in laparoscopy is credited to the Hungarian physician Janos Veress. In 1938, he created a retractable needle to create pneumoperitoneum. We are all familiar with the Veress needle, but interestingly, it was initially used for the treatment of tuberculosis with pneumothorax in the preantibiotic era [2,3,6,7]. This technique was not accepted by all surgeons as it was considered unsafe. This led, in 1974, to Chicago-based gynecologist Harrith M. Hasson creating the open technique to access the abdominal cavity and achieve placement of the trocar that bears his name [2]. Raoul Palmer performed diagnostic laparoscopies in women and advised placing the patient in the Trendelenburg position for better visualization of the pelvis [2]. In addition, he was the first to control abdominal pressure during the procedure - two important aspects of modern laparoscopy [2].
In 1952, laparoscopic surgery underwent a revolution when French scientists M. Fourestier, A. Gladu, and J. Vulmiere created fiber-optics with cold light [3]. Two years later, scientists Lawrence Curtiss, Basil Hirschowitz, and Wilbur Peters did the same at the University of Michigan and brought cold light fiber-optics into practice in 1957. With improved visualization of the abdominal cavity, the advances in laparoscopy gained momentum [2].
Few surgeons have influenced the development of laparoscopic surgery more than the German gynecologist Kurt Semm. A pioneer in minimally invasive surgery,...
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