Richard M. Satava · Achille Gaspari · Nicola Di Lorenzo (Eds.)
Emerging Technologies in Surgery
Richard M. Satava · Achille Gaspari Nicola Di Lorenzo
Emerging
Technologies in Surgery
With 90 Figures and 2 Tables
123
Library of Congress Control Number: 2006934463
ISBN 978-3-540-39599-7 Springer Berlin Heidelberg New York
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Printed on acid-free paper 24/3180/YL 5 4 3 2 1 0 Richard M. Satava, MD
Professor of Surgery Department of Surgery
University of Washington Medical Center 1959 NE Pacific St Rm BB487
Seattle, WA 98195 USA
Achille Gaspari, MD
Tor Vergata University of Rome Department of General Surgery Viale Oxford, 81
00133 Rome, Italy Nicola Di Lorenzo, MD Tor Vergata University of Rome Department of General Surgery Viale Oxford, 81
00133 Rome, Italy
Supported by:
Dedication
To our devoted wives, Judith Satava, Franca Gaspari, and Fabiola di Lorenzo, without whose encouragement and patience this would not have been possible.
During times of worry and frustration, you were there to console, advise, and help us.
But most of all, you were our Muses, and gave us that unique inspiration that lifts the mundane to the sublime.
For us, it was having you there to add that special sense of the aesthetic that has made this monograph a true labor of love.
We live in a technological age, and the practice of sur- gery is not exempt from this. Furthermore, predic- tions are that the inevitable trend in surgical practice is toward increasing dependence on high-technology equipment. Thus, Emerging Technologies in Surgery ed- ited by Richard Satava, Achille Gaspari, and Nicola Di Lorenzo, is timely and appropriate. My experience with use of medical technologies together with my involve- ment in related research and development work over many years has led me to classify these technologies in four categories all expertly covered in this book: (1) fa- cilitative—improve the efficiency of performance and reduce the degree of difficulty of execution of specific tasks; (2) additive—bring technical sophistication and accuracy to surgical manipulations/interventions that are not considered essential to existing practice; (3) enabling—make possible certain surgical interventions or open new therapeutic approaches; and (4) disrup- tive—technologies that, by breaking new ground, un- derpin real progress. The term “disruptive technologies”
was first coined by Clayton M. Christensen in 1997 in his book The Innovator’s Dilemma (Harvard Business School Press),to refer to technologies that, as they ma- ture, alter the way humans live and work.
Wisely, the three editors of this book, rather than pigeonholing the technologies covered in this ex- cellent monograph, have adopted a different layout more suited—from a practical and educational stand- point—to the current and future practice of surgery;
however, examples of all these categories are included in the various sections. The contributions to all these sections are by leading-edge experts in the respec- tive fields, and after reading all the chapters, I have no doubts that the editors chose their contributors wisely.
Emerging Technologies in Surgery should be of interest to both the surgical trainees and their trainers, because it contains a wealth of useful and practical informa- tion on the subject. It is appropriate in my view that emphasis has been made on education and training, as they are axiomatic to quality care in surgical practice.
The advances in virtual surgical simulation that, after
a shaky start, have in the last few years progressed to a stage where no surgical training program can afford to overlook their importance; the apprenticeship system of training is no longer sufficient, especially with the curtailment of the training period. The World Wide Web and progress in medical informatics in general (disruptive technologies in the extreme) have removed all possible excuses for all healthcare providers—let alone surgeons—to be misinformed or be lacking in medical up-to-date information, because the technol- ogy brings accurate information to the shop floor of medical practice. There is, however, one issue directly related to the increasing dependence of surgical care on high technology that I feel has been overlooked in all training programs and which needs emphasis: Sur- geons and other interventionalists increasingly use so- phisticated energized equipment often and regrettably, without an adequate understanding of the physical and engineering principles involved. This cognitive deficit of current training program needs correction.
It seems to me that the approaches covered in the various sections of Emerging Technologies in Surgery are breaking down turf barriers between disciplines, such that patient management is slowly changing from iso- lated, single-discipline treatment to multidisciplinary treatment by disease-related treatment groups, which surgeons must buy into. The spate of integrations, wit- nessed on both sides of the Atlantic between vascular surgeons and interventional vascular radiologists over the past 5 years, is a pertinent example.
The editors are to be congratulated for an immensely readable and informative monograph. It deserves to be read and will, I am sure, be well received. I suspect, however, that we shall witness several future editions since one thing is sure: Medical technology does not stand still … for long.
Sir Alfred Cuschieri, FRS Professor of Surgery Pisa
Foreword
Tremendous acceleration and changes in our daily medical practice are occurring. Both as doctors and ordinary citizens, we are aware of living in a world more and more influenced by information technology.
In surgery, this revolution has brought about a dra- matic acceleration of the introduction of new devices, techniques, and procedures that are changing patients’
treatment and destiny. In the last 30 years, innova- tion has developed exponentially, forcing both current and future generations to deal with new technologies such as microsurgery or laparoscopy, and informatics.
Meanwhile, the old surgical approach still needs to be learned and mastered for patients’ safety.
Therefore, we decided to offer this book to illustrate to the practicing surgeon, who has precious little time to keep up with these rapid changes, what the impor- tant emerging technologies are that could affect his or her practice in the next 10–20 years. We approached this effort with the expectation that this book will serve as a useful reference to introduce surgeons of every generation to the principles of new technologies, and to familiarize them with those new procedures and de-
vices that seem to belong to the future but in reality are being implemented now. Because time and resources are not infinite for the surgeon, both in everyday life and in their busy practice, we hope this monograph will contribute to their ability to select those innova- tions that will positively impact on his or her practice.
To that end, we have invited eminent surgeons who are experts on emerging procedures and significant advances in their respective fields to participate. We have been fortunate to assemble authors who are ac- knowledged authorities in these areas, both in clinical practice as well as in surgical education. We are grate- ful to them for their essential contributions, to bring together, outline, and illustrate the future trends. We are especially indebted to Dr. Manzelli for his invalu- able support during the preparation of this work. We are proud to have the privilege to stand on the shoul- ders of these giants.
Richard M. Satava, Seattle Achille L. Gaspari, Roma Nicola Di Lorenzo, Roma
Preface
Part I Introduction
1 Overview of Emerging Technologies . . . 3
2 Economics of New Surgical Technologies . . . 7
2.1 Technology: A Definition of Terms . . . 7
2.2 A Brief History of Medical Technology . . . 7
2.3 The Economic Burden of Health Care . . . 8
2.4 A Technological Solution to Health Care Cost . . . 8
3 The Scientific, Social, and Ethical Implications of Disruptive Technologies . . . 11
3.1 Introduction . . . 11
3.2 Intelligent Computers and Robots . . . 13
3.3 Human Cloning . . . 13
3.4 Genetic Engineering . . . 13
3.5 Longevity . . . 14
3.6 Human–Machine Communication . . 14
3.7 Artificial Organs and Prostheses . . . . 14
3.8 Suspended Animation . . . 15
3.9 Summary . . . 15
Part II Education and Training
4 The World Virtual University and the Internet: http://www.websurg.com . . . 194.1 Surgical Operative Techniques . . . 21
4.2 Video Footage . . . 21
4.3 The Voices and Opinions of the Experts . . . 22
4.4 New Improvements for Access to Surgical Education . . . 22
4.5 Other Educational Services . . . 22
5 Virtual Reality: Objective Assessment, Education, and Training . . . 27
5.1 Simulation Development: Lessons Learned . . . 28
5.2 Simulation Training: Evidence-Based Adoption? . . . 28
5.3 Metrics for Objective Assessment . . . . 29
5.4 Education and Training . . . 30
5.5 Simulation Fidelity: Are Graphics Enough? . . . 31
5.6 Simulation as Part of the Curriculum . . . 31
5.7 Training to Proficiency on a VR Simulator . . . 32
5.8 Conclusion . . . 32
6 Organizing Surgical Simulation Centers in Response to Disruptive Technologies . . . 35
6.1 Making the Case for Simulation for Medical Education . . . 35
6.2 Simulation and Simulators for Medical Education: Past, Present, and Future . . . 36
6.2.1 Bench Models . . . 37
6.2.2 Laparoscopic Skills . . . 37
6.2.3 Gastrointestinal Endoscopy . . . 38
6.2.4 Endonasal Surgery . . . 38
6.2.5 Urology . . . 38
6.2.6 Bronchoscopy . . . 38
6.2.7 Anesthesiology . . . 38
6.2.8 Case Study: The National Capital Area Medical Simulation Center . . . 39
6.3 Conclusion . . . 44
7 Ideal VR systems: Is There a „Holy Grail“ in Simulation System Land? . . . 47
7.1 Curriculum . . . 50
8 The Medical Informatics Challenge in Surgery . . . 57
8.1 The Perioperative Environment . . . 57
8.1.1 Why Adapt Solutions from Other Industries? . . . 58
8.2 Radical Improvement in Quality of Patient Care is Possible 58
8.3 Toward a Solution: Adaptive Process Control . . . 59
8.4 Context-Aware Workflow as Autopilot . . . 60
Contents
8.5 Stealth Mode:
Automated Data Collection . . . 60
8.6 A RECIPE for Incremental Systems Evolution and Process Improvement 61
8.7 Applying the RECIPE to Perioperative Systems Design . . . 63
8.8 Perioperative Systems Acceleration Tool in the Preoperative Period . . . 63
8.9 PSPAT in the Intraoperative Period . . 65
8.10 PSPAT in the Postoperative Period . . . 65
8.11 PSPAT at the University of Maryland Medical Center . . . 65
8.12 PSPAT Components . . . 66
8.12.1 A Workflow Engine . . . 66
8.12.2 Adapters to Gather Information from any Human or Machine Source 67
8.12.3 MER: Virtual Information Repository for the Workflow Engine Access . . . 67
8.12.4 A Rules Engine to Provide Intelligent Agent Support for the Workflow Engine . . . 67
8.12.5 An Alerting System to Ensure Timely Completion of Clinical Events 68
8.12.6 A Reporting System to Access Outcomes Data in Real Time . . . 68
8.12.7 A Logistics Subsystem to Manage Inventory . . . 69
8.12.8 Web-Based Telemedicine View . . . 69
8.13 Research Directions . . . 69
8.14 Web Services . . . 69
8.15 Conclusion . . . 70
Part III Robotics and Novel Surgical Approaches
9 Robotics in General Surgery: Today and Tomorrow . . . 759.1 Introduction . . . 75
9.2 Cholecystectomy . . . 75
9.3 Bariatric Surgery . . . 75
9.3.1 Robotic-Assisted Roux-en-Y Gastric Bypass . . . 76
9.3.2 Robotic-Assisted Adjustable Gastric Banding . . . 77
9.3.3 Robotic-Assisted Biliary Pancreatic Diversion with Duodenal Switch . . . . 77
9.4 Esophageal Surgery . . . 78
9.4.1 Heller Myotomy . . . 78
9.4.2 Resection of Epiphrenic Diverticulum . . . 79
9.4.3 Total Esophagectomy . . . 79
9.4.4 Esophageal Leiomyoma . . . 79
9.5 Pancreatic Surgery . . . 80
9.6 Gastric Surgery . . . 80
9.7 Colorectal Surgery . . . 80
9.8 Adrenalectomy . . . 80
9.9 Donor Nephrectomy . . . 81
9.10 Conclusion . . . 82
10 Evolving Endoluminal Therapies . . . 85
10.1 Endoluminal Surgery . . . 85
10.2 Transvisceral Surgery . . . 86
Part IV Innovations in Surgical Instruments
11 Microtechnology in Surgical Devices . . . 8911.1 Introduction . . . 89
11.2 MST in Medical Devices: Challenges and Opportunities . . . 89
11.3 Areas of MST Applications in Medical Devices . . . 90
11.3.1 Extracorporeal MST-Enhanced Devices . . . 92
11.3.2 Intracorporeal MST-Enhanced Devices . . . 92
11.3.3 Implantable MST Devices . . . 93
11.3.4 MST in Endoscopy . . . 95
11.4 Discussion . . . 96
12 Innovative Instruments in Endoscopic Surgery . . . 99
12.1 Introduction . . . 99
12.2 Innovative Instruments for Laparoscopic Surgery . . . 99
12.2.1 Curved Instruments . . . 99
12.2.2 Instruments with All Degrees of Freedom for Suturing: the Radius Surgical System . . . 101
12.2.3 The Endofreeze System . . . 102
12.2.4 Combination Instruments for Endoscopic Surgery . . . 103
12.3 Endoluminal Surgery of Rectum and Colon . . . 103
12.4 Full-Thickness Resection Device, the Concept of a New Device for Removal of Polyps from the Rectum and Descending Colon 105
12.5 Conclusion . . . 106
13 New Hemostatic Dissecting Forceps with a Metal Membrane Heating Element 107
13.1 Introduction . . . 107
13.2 Materials and Methods . . . 107
13.3 Results . . . 109
13.4 Discussion . . . 110
Acknowledgment . . . 112
14 Radiofrequency and Hepatic Tumors . . . 113
14.1 Introduction . . . 113
14.2 Conclusions . . . 119 Contents
XII
15 Technological Innovations in Kidney and Liver Living-Donor–Related
Transplantation . . . 123
15.1 Introduction . . . 123
15.2 Robotic Technology in Laparoscopic Living-Donor Nephrectomy . . . 123
15.3 Surgical Technique . . . 125
15.4 Liver Transplantation . . . 126
15.4.1 Technological Innovations in Transplant Surgery: from “Crash Clamp Technique” to Modern Instruments of “Intelligent” Dissection, Hemostasis . . . 126
15.5 Transection Systems . . . 127
15.5.1 Ultrasonic Dissector . . . 127
15.5.2 Water-Jet Dissector . . . 127
15.6 Hemostasis Systems . . . 127
15.6.1 Staplers . . . 127
15.6.2 Floating Ball . . . 127
15.7 Simultaneous Hemostasis and Transection . . . 128
15.7.1 Thermal Methods . . . 128
15.7.2 Harmonic Scalpel . . . 128
15.7.3 Laparoscopic Donor Hepatectomy for Living-Related Transplantation 128
Part V Bioengineering
16 Tissue Engineering . . . 13316.1 Introduction . . . 133
16.2 Overview . . . 135
16.2.1 Skin . . . 135
16.2.2 Cartilage . . . 136
16.2.3 Bone . . . 137
16.2.4 Intestine . . . 139
16.2.5 Cardiovascular Tissue . . . 140
16.2.6 Liver . . . 143
16.3 Future Prospects . . . 144
16.4 Relevance for the Practicing Surgeon . . . 146
Part VI Beyond the Future
17 Adapting to Future Technologies . . . 15517.1 Introduction . . . 155
17.2 The Scientific Method . . . 155
17.3 Interdisciplinary Medicine . . . 156
17.4 Multiaccess Surgery . . . 156
17.5 Information Technologies . . . 157
17.6 Surgical Education and Certification 157
17.7 Surgical Simulation . . . 158
17.8 Artificial Organs and Transplantation . . . 158
17.9 Surgical Systems and Robotics . . . 159
17.10 Unconventional Surgery . . . 159
17.11 Conclusion . . . 160
Subject Index
. . . 163 Contents XIIIEnrico Benedetti
University of Illinois at Chicago College of Medicine
840 S. Wood Street Suite 402, CSB (M/C 958) Chicago, IL 60612 USA
Mark W. Bowyer MD, FACS Uniformed Services University of the Health Sciences
4301 Jones Bridge Road Bethesda, MD 20814-4799 USA
Gerhard F. Bueß, MD
Section for Minimally Invasive Surgery University of Tübingen
72072 Tübingen Germany
Adriano De Majo
Division of General Surgery Department of Surgery Tor Vergata University of Rome Viale Oxford, 81
00133 Rome Italy
Nicola Di Lorenzo, MD Division of General Surgery Department of Surgery Tor Vergata University of Rome Viale Oxford, 81
00133 Rome Italy
Anthony G. Gallagher, PhD Department of Surgery Emory University Hospital Room B206
1364 Clifton Road, NE Atlanta, GA 30322 USA
Timothy Ganous, MPA
University of Maryland School of Medicine 351 West Camden, CY-211
Baltimore, MD 21201 USA
Achille Lucio Gaspari, MD Division of General Surgery Department of Surgery Tor Vergata University of Rome Viale Oxford, 81
00133 Rome Italy
Santiago Horgan, MD Minimally Invasive Surgery University of Illinois 840 South Wood Street Room 435 E
Chicago, Il 60612 USA
Eiji Kanehira
Endosurgery Laboratory Kanehira (ELK) Kanazawa
Japan
Michael S. Kavic, MD
Director of Education, General Surgery St. Elizabeth Health Center
Professor of Clinical Surgery and Vice Chair, Department of Surgery
Northeastern Ohio Universities College of Medicine 1044 Belmont Avenue, P.O. Box 1790
Youngstown, OH 44501-1790 USA
Antonio Manzelli, MD Division of General Surgery Department of Surgery Tor Vergata University of Rome Viale Oxford, 81
00133 Rome Italy
List of Contributors
Jacques Marescaux, MD, FRCS, FACS IRCAD-EITS
1 Place de l’Hôpital 67091 Strasbourg Cedex France
Federico Moser, MD
Minimally Invasive Surgery Center University of Illinois
840 South Wood Street, Room 435 E Chicago, IL 60612
USA
Didier Mutter, MD, PhD IRCAD-EITS
1 Place de l’Hôpital 67091 Strasbourg Cedex France
Toru Nagase
Therapeutic Products Development Department Research & Development Division
Olympus Medical Systems Corporation Tokyo, Japan
Jeffrey L. Ponsky, MD Department of Surgery Mount Sinai Medical Center One Mount Sinai Drive Cleveland, OH 44106 USA
Piero Rossi
Division of General Surgery Department of Surgery Tor Vergata University of Rome Viale Oxford, 81
00133 Rome Italy
Richard M. Satava, MD FACS Professor of Surgery
Department of Surgery
University of Washington Medical Center 1959 NE Pacific St Rm BB487
Seattle, WA 98195 USA
and
Advanced Biomedical Technologies Program Defense Advanced Research Projects Agency Arlington, Virginia
USA
and
Telemedicine and Advanced Technology Research Center (TATRC)
US Army Military Research and Materiel Command (USAMRMC)*
Ft. Detrick, Maryland USA
Michael Shin, PhD Department of Surgery
Massachusetts General Hospital and Harvard Medical School 55 Fruit Street
Boston, MA 02114-2696 USA
Marc O. Schurr, MD IHCI Institute
Steinbeis University Berlin Gürtelstraße 29A/30 10247 Berlin Germany
J. Sutherland, MD University of Maryland School of Medicine 351 West Camden, CY-211 Baltimore, MD 21201, USA Joseph P. Vacanti, MD Department of Surgery
Massachusetts General Hospital and Harvard Medical School 55 Fruit Street
Boston, MA 02114-2696, USA Amy E. Waitman, MD St. Elizabeth Health Center Department of Surgery 1044 Belmont Avenue Youngstown, OH 44505, USA Masahiro Waseda, MD
Section for Minimally Invasive Surgery University of Tübingen
72072 Tübingen, Germany List of Contributors
XVI