Manual of
Robotic Surgery in Gynecology
Manual of
Robotic Surgery in Gynecology Editors
Richa Sharma MS MNAMS FICOG FICMCH FMAS Director-Professor Department of Obstetrics and Gynaecology University College of Medical Sciences and GTB Hospital, Delhi
Bijoy Kumar Nayak MBBS MD
Anuradha Panda MD DGO FICOG
Head Department of Gynecology, Endoscopy and Robotic Surgery Max Super Speciality Hospital, Dwarka, Delhi
Senior Consultant Laparoscopic and Robotic Surgeon Apollo Hospitals Hyderabad
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eISBN: 978-93-490-5738-8 Copyright © Authors and Publisher First e Book Edition: 2025
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Representatives Hyderabad Pune Nagpur Manipal Vijayawada Patna
vii
Foreword
I
t is my privilege to write the Foreword to the Manual of Robotic Surgery in Gynecology. After being initiated into the robotic programme, I find that it does make complex gynecological surgeries easy with unprecedented precision, dexterity and control. It would be a good proposition to learn the art, a good book on robotics is necessary with more and more laparoscopic surgeons venturing into the new field. This book provides an authoritative and up-to-date overview of the subject, technical nuances and practical tips. The editors and authors have done a commendable job in selecting the topics and keeping the narrative to the point. Readers will gain an insight into patient selection, surgical steps and postoperative care. This book will be valuable for budding gynecologists, beginners and those into the field of robotic surgery.
Padmashri Dr Alka Kriplani
MBBS, MD, FRCOG, FAMS, FICOG, FIMSA, FICMCH, FCLS
Chairperson—Obstetrics, Gynaecology & ART Paras Health, Gurugram
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Contents Contributors Foreword by Padmashri Dr Alka Kriplani Preface
v vii ix
Part 1: Basics: Understanding the Robot and Its Working 1. Evolution of Robotics in Gynecological Surgeries
3
Salvatore Giovanni Vitale, Liliana Mereu, Stefania Saponara
2. Robotic da Vinci System: Machine and Instruments
17
Anupama Bahadur, Richa Sharma
3. Energy Sources in Robotics
27
Anuradha Panda, M Keerthi Reddy
4. Robotic OT Setup and Ergonomics
33
Anuradha Panda, Deepika HK
5. Training and Learning Curve in Robotic Surgery
45
Rooma Sinha, Rupa Bana
6. Role of First Assistant in Robotic Surgery
49
Mariam Anjum Ifthikar, Neha Kamath
Part 2: Robotic Benign Surgery
7. Robotic Hysterectomy for Benign Conditions
57
Rooma Sinha, Rupa Bana
8. Robot-Assisted Laparoscopic Myomectomy (RALM)
70
Anupama Bahadur, Rajlaxmi Mundhra
9. Robotic Surgery for Endometriosis
78
Abhishek Mangeshikar
10. Robot-Assisted Pelvic Organ Prolapse Repair
94
Dinesh Kansal, Supriya Mahipal, Yamini Kansal
11. Robotics in Infertility Management
101
Mala Srivastava, Neema Tufchi, Ankita Srivastava
12. Robotics in Adnexal Surgery
108
Mala Srivastava, Neema Tufchi, Ankita Srivastava
13. Robotic Management of Urinary Fistulas Amita Jain
114
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Manual of Robotic Surgery in Gynecology
Part 3: Robotic Management in Malignancy
14. Robotic Assisted Pelvic and Para-aortic Lymph Node Dissection
125
Rohit Raghunath Ranade, Shree Bharati
15. Robot-Assisted Surgery in Cervical Cancer
143
Rohit Raghunath Ranade, Abhirami Giri Ramani
16. Robotic Surgery for Endometrial Cancer
157
Yogesh Kulkarni, Deepali Raina
17. Robotic Surgery in Ovarian Cancer
168
Yogesh Kulkarni, Deepali Raina
Part 4: Miscellaneous
18. Anesthesia in Robotic Gynecological Surgery
177
Sanath Reddy, Santhosh Kumari
19. Minimal Invasive vs Robotics: Evidence-based Practices in Gynecology
198
Bijoy Nayak, Dhiranjali, Richa Sharma
20. Complications in Robotic Surgery: Prevention and Management Strategy
202
Abhishek Chandna, Gourab Misra, Lyndon Gommersall, Girdhar Singh Bora
21. Robotic Management of Complex Vesico-vaginal Fistula
212
Abhishek Chandna, Lyndon Gommersall, Giridhar Singh Bora
Index
221
Evolution of Robotics in Gynecological Surgeries
5
robotic systems expanded, including myomectomies, ovarian cystectomies, and even some cancer surgeries.1–3 The early 2000s also saw the development of training programs and certification processes for surgeons wishing to specialize in robotic surgery.2,3 These programs were crucial in ensuring surgeons were adequately prepared to use the new technology safely and effectively. The development of these training programs marked a significant step forward in integrating robotic systems into mainstream surgical practice.
Key Robotic Procedures in Gynecology Hysterectomy Robotic-assisted hysterectomy is frequently employed to remove the uterus, often addressing benign conditions like uterine fibroids or endometriosis. This minimally invasive procedure has gained popularity due to its numerous benefits, including smaller incisions, reduced blood loss, and quicker recovery times than traditional open surgery.4 The precision provided by robotic systems allows surgeons to navigate complex anatomical structures with ease, ensuring accuracy and care.4 A recent meta-analysis found no significant differences between robotic and laparoscopic hysterectomies for benign disease regarding estimated blood loss, bleedingrelated complications, hospital stay length, postoperative pain levels, recovery time, and total operating time. Despite ongoing debates about the utility of robotic hysterectomy
Fig. 1.1: Key robotic procedures in gynecology
Basics: Understanding the Robot and Its Working
Current State of Robotic Surgery in Gynecology Today, robotic surgery is widely used in various gynecological procedures (Fig. 1.1). The da Vinci® system remains the leading platform, continuously evolving with newer models such as the da Vinci® Xi and da Vinci® 5, which offer improved capabilities and flexibility2 (Fig. 1.2A and B).
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Manual of Robotic Surgery in Gynecology
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(A)
(B)
Fig. 1.2A and B: da Vinci® systems: (A) The first generation, 1999; (B) the fifth generation, 2024. © Intuitive Surgical
Part 1
for benign diseases, postoperative quality of life has been reported to be significantly higher in the robotic group.5
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Myomectomy Robotic-assisted myomectomy is another prevalent application in gynecology, involving the surgical removal of uterine fibroids. This method offers several advantages over conventional approaches, such as enhanced visualization and dexterity, allowing surgeons to remove fibroids while preserving the uterus.4 This is particularly beneficial for women aiming to maintain fertility. The minimally invasive approach reduces postoperative pain and shortens hospital stays, improving patient experience.4 A recent meta-analysis indicated better outcomes with robotic-assisted myomectomy, including fewer complications, less estimated blood loss, fewer blood transfusions, and shorter hospital stays, though the surgery duration was longer than open myomectomy.6 The conversion rate to laparotomy was also much lower than that of laparoscopic surgery. The robotic platform’s 3D vision system allows for precise and ergonomic suturing, reducing complication rates compared to laparoscopic and open surgeries.6 Further studies are needed to assess long-term outcomes such as postoperative pain and fertility. Ovarian Cystectomy Robotic-assisted ovarian cystectomy involves the removal of cysts from the ovaries with minimal damage to surrounding tissues, preserving ovarian function and fertility. The precision and control offered by robotic systems allow for the excision of cysts while maintaining ovarian integrity. Enhanced visualization helps identify and remove cysts that might be challenging to detect using traditional surgical methods.4
Evolution of Robotics in Gynecological Surgeries
11
Advantages and Limitations of Robotic Surgery in Gynecology Advantages Robotic surgery has revolutionized gynecological surgical practices, offering numerous benefits that enhance surgical precision and patient outcomes (Table 1.1). A key advantage is the improved operative field visualization, allowing for more precise and accurate procedures. Surgeons gain a clear, magnified view of anatomical structures, enabling them to navigate intricate surgical pathways with confidence. This enhanced visual clarity significantly improves surgical outcomes and increases patient safety.33 The dexterity provided by the robot’s arms is another crucial benefit, giving surgeons greater precision and control. This capability allows for the execution of complex procedures with increased ease and efficiency, achieving optimal results while minimizing the risk of errors. The intuitive motion-scaling technology of robotic systems enables precise tissue manipulation, facilitating delicate navigation through complex anatomical structures.2,33 Robotic surgery also mitigates the effects of surgeon tremors by providing steady robotic arms, reducing the risk of complications. Surgeons can perform precise Table 1.1: Advantages and limitations of robotic surgery in obstetrics and gynecology Advantages
Limitations
Enhanced visualization for precise and accurate High cost of robotic surgery procedures Greater precision and control with robot's arms
Steep learning curve requiring extensive training
Reduced surgeon tremors and improved Need for more high-quality evidence and longinstrument control term data Ergonomic design reduces surgeon fatigue and Longer operative times during initial stages strain Minimally invasive procedures with smaller Maintenance and calibration of robotic equipment incisions and faster recovery add complexity and cost Shorter hospital stays and less postoperative pain Limited accessibility in certain regions or healthcare for patients systems Reduced risk of infection and complications Risks of complications such as infection, bleeding, associated with larger incisions or tissue damage Promotes surgeon well-being and performance
Need for standardization in robotic surgery techniques
Basics: Understanding the Robot and Its Working
patients with endometrial cancer has an advantage in terms of reduced invasiveness for patients in the first BMI class.32 R-LSS appears to be a viable and effective alternative to traditional multi-port laparoscopic and robotic-assisted surgeries in gynecology. It offers several technical advantages, such as restored triangulation at the surgical site, enhanced ergonomics, and improved cosmetic outcomes.24,27 However, more randomized controlled trials are necessary to establish high-quality evidence regarding its non-inferiority and safety compared to other minimally invasive approaches. Additionally, comprehensive costbenefit analyses are crucial to justify the higher financial costs associated with robotic surgery, limiting its application to selected patients.
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Manual of Robotic Surgery in Gynecology
Part 1
maneuvers without the interference of involuntary movements, ensuring consistent instrument control and minimizing tissue trauma. This feature is particularly beneficial in delicate procedures, enhancing surgical accuracy and patient safety.2,33 Additionally, the ergonomic design of the robotic platform reduces surgeon fatigue and strain, leading to a more comfortable surgical experience. This ergonomic advantage is crucial during lengthy procedures, allowing surgeons to maintain their focus and precision throughout the operation, ultimately benefiting patient outcomes. Surgeons operate seated at a console with ergonomic hand controls and adjustable display settings, minimizing physical discomfort during prolonged procedures. This ergonomic optimization promotes surgeon well-being and enhances overall surgical performance. The console’s design allows surgeons to maintain a comfortable posture, reducing the risk of musculoskeletal strain and fatigue, which is particularly important during lengthy and complex surgeries.2,33 The robotic platform’s ability to facilitate minimally invasive procedures results in smaller incisions, reduced blood loss, and faster patient recovery times. These benefits contribute to a more positive patient experience, less postoperative pain and shorter hospital stays. The minimally invasive nature of robotic surgery also reduces the risk of infection and other complications associated with larger incisions, further enhancing patient safety and recovery.1,33 This combination of advantages makes robotic surgery an attractive option for patients and surgeons, driving its continued adoption and integration into gynecologic practice.
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Limitations Despite its numerous advantages, robotic surgery in obstetrics and gynecology also presents challenges and limitations that impact its widespread adoption and utilization (Table 1.1). The high cost of robotic surgery is a significant barrier, as it is considerably higher than traditional surgical techniques, potentially limiting access for patients and healthcare institutions.2,11 Additionally, there is a steep learning curve associated with robotic surgery, requiring surgeons to undergo extensive training to attain proficiency. This learning curve can result in longer operative times and increased costs during the initial stages of implementation.2,11 Moreover, the need for more high-quality evidence and long-term data comparing the outcomes of robotic surgery with traditional techniques poses a challenge. While robotic surgery offers improved visualization and dexterity, it may not necessarily translate into shorter operative times compared to open or conventional laparoscopic techniques. Furthermore, the maintenance and calibration of robotic equipment add to surgical procedures’ complexity and overall cost. Accessibility to robotic surgery may be limited due to its high cost and restricted availability in certain regions or healthcare systems, contributing to disparities in patient access to advanced surgical care.2,11 Like any surgical procedure, robotic surgery carries risks of complications such as infection, bleeding, or damage to surrounding tissues. The need for standardization in robotic surgery techniques further complicates matters, leading to inconsistencies in surgical approach and outcomes. While robotic surgery offers considerable advantages in obstetrics and gynecology, including improved precision and patient outcomes, it also presents significant challenges that must be addressed to optimize its utilization and accessibility in clinical practice.2,11 Efforts to mitigate these challenges, such as reducing costs, enhancing