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Introduction | p. xi |
Characteristics and State of the Art | p. 1 |
Introduction | p. 1 |
Characteristics of medical robotics | p. 1 |
Potential advantages of using a robot in a medical procedure | p. 5 |
State of the art | p. 7 |
Surgery of the head and neck | p. 8 |
Orthopedic surgery | p. 13 |
Mini-invasive or laparoscopic surgery | p. 17 |
Interventional radiology and percutaneous procedures | p. 23 |
Remote ultrasound | p. 29 |
Radiotherapy and radiology | p. 33 |
Other applications | p. 39 |
Conclusion | p. 42 |
Bibliography | p. 42 |
Medical Robotics in the Service of the Patient | p. 55 |
Introduction | p. 55 |
Medical robotics: a field in full development | p. 55 |
How and why has there been such development? | p. 56 |
Medical service: a complex notion | p. 57 |
A cycle of medical service growth | p. 58 |
The actors | p. 58 |
A model for the development of the medical service | p. 61 |
Development diagram | p. 63 |
A case study: the ViKY robotic endoscope support system | p. 64 |
The context | p. 64 |
ViKY and the progression of medical service | p. 64 |
Relevance of the evaluation of the medical service | p. 66 |
Conclusion | p. 67 |
Bibliography | p. 67 |
Inter-operative Sensors and Registration | p. 69 |
Introduction | p. 69 |
Summary of the context and the problem | p. 69 |
Notions of registration, calibration and tracking | p. 70 |
Intra-operative sensors | p. 72 |
Imaging sensors | p. 72 |
Position sensors | p. 74 |
Surface sensors | p. 75 |
Other sensors | p. 76 |
Principles of registration | p. 76 |
Notations and definitions | p. 76 |
Nature of the transformation | p. 77 |
Matched information | p. 78 |
Similarity metrics | p. 79 |
3D/3D rigid registration | p. 84 |
Open questions | p. 86 |
Case studies | p. 87 |
Case no. 1 (interventional radiology) | p. 87 |
Case no. 2 | p. 88 |
Case no. 3 (Velocityy) | p. 90 |
Case no. 4 | p. 92 |
Discussion and conclusion | p. 96 |
Bibliography | p. 97 |
Augmented Reality | p. 101 |
Introduction | p. 101 |
3D modeling of abdominal structures and pathological structures | p. 104 |
3D visualization system for planning | p. 107 |
Interactive AR | p. 108 |
Concept | p. 108 |
An example application | p. 108 |
The limits of such a system | p. 110 |
Automatic AR | p. 110 |
Augumented reality with fixed camera(s) | p. 111 |
AR with a mobile camera | p. 120 |
Taking distortions into account | p. 122 |
Case Study | p. 124 |
Percutaneous punctures | p. 124 |
Bronchoscopic Navigation | p. 126 |
Neurosurgery | p. 127 |
Conclusions | p. 129 |
Bibliography | p. 130 |
Design of Medical Robots | p. 141 |
Introduction | p. 141 |
From the characterization of gestures to the design of robots | p. 145 |
Analysis of the gesture | p. 145 |
Kinematic and dynamic specifications | p. 145 |
Kinematic choices | p. 149 |
Design methodologies | p. 157 |
Concept selection | p. 158 |
Optimization of design parameters | p. 161 |
Technological choices | p. 165 |
Actuators | p. 165 |
Sensors | p. 166 |
Material | p. 167 |
Security | p. 167 |
Introduction | p. 167 |
Security and dependability | p. 168 |
Risks reduction in medical robotics | p. 168 |
Conclusion | p. 171 |
Bibliography | p. 172 |
Vision-based Control | p. 177 |
Introduction | p. 177 |
Configurations of the imaging device | p. 178 |
Type of measurement | p. 179 |
Type of control | p. 181 |
Sensors | p. 183 |
Imaging devices | p. 184 |
Localizers | p. 193 |
Acquisition of the measurement | p. 193 |
Acquisition of geometric primitives | p. 194 |
Tracking of anatomical targets | p. 202 |
Review of methods for image processing | p. 214 |
Control | p. 216 |
Modeling the visual servoing loop | p. 216 |
Online identification of the interaction matrix | p. 221 |
Control laws | p. 223 |
Perspectives | p. 224 |
Bibliography | p. 225 |
Interaction Modeling and Force Control | p. 233 |
Modeling interactions during medico-surgical procedures | p. 233 |
Introduction | p. 233 |
Properties of tissues with small displacements | p. 234 |
Non-viscoelastic models | p. 237 |
Estimation of force models | p. 238 |
Case study: needle-tissue interactions during a percutaneous intervention | p. 239 |
Force control | p. 243 |
Force control strategies | p. 244 |
Implicit force control | p. 244 |
Explicit force control | p. 247 |
Stability | p. 250 |
Choice of a control architecture | p. 251 |
Application examples | p. 251 |
Conclusion | p. 263 |
Bibliography | p. 263 |
Tele-manipulation | p. 269 |
Introduction | p. 269 |
The limitations of autonomy | p. 269 |
Non-autonomous modes of intervention | p. 270 |
Tele-manipulation in the medical field: interest and applications | p. 270 |
Tele-manipulation and medical practices | p. 271 |
Background | p. 271 |
Action and perception modalities | p. 273 |
Technology | p. 275 |
Tele-manipulation with force feedback | p. 278 |
Introduction | p. 278 |
Modeling master-slave tele-manipulators (MST) | p. 279 |
Transparency and stability | p. 281 |
Bilateral tele-operation control schemes | p. 284 |
Improvement of existing techniques for medical issues | p. 292 |
Example: tele-operated needle insertion in interventional radiology | p. 294 |
Prospects | p. 298 |
Bibliography | p. 298 |
Comanipulation | p. 303 |
Introduction | p. 303 |
Tele-manipulate, but without the distance | p. 303 |
Definitions | p. 305 |
Features and applications in medical and surgical robotics | p. 307 |
A word about terminology | p. 308 |
Contents | p. 308 |
General principles of comanipulation | p. 309 |
Serial comanipulation | p. 309 |
Parallel comanipulation | p. 313 |
Serial comanipulation: intelligent active instrumentation | p. 316 |
Dexterous instruments for minimally-invasive surgery | p. 316 |
Tremor filtering in microsurgery | p. 322 |
Compensation of physiological movements | p. 326 |
Parallel comanipulation | p. 331 |
Comanipulation in transparent mode | p. 331 |
Passive, active, static and dynamic guides | p. 334 |
Increase the quality of the tactile perception | p. 340 |
A human in the loop | p. 343 |
Bibliography | p. 346 |
Towards Intracorporeal Robotics | p. 351 |
Introduction | p. 351 |
Mini-manipulators/tele-operated instrument holders | p. 352 |
Objectives | p. 352 |
General description | p. 353 |
Challenges | p. 356 |
Robotized colonoscopes and autonomous capsules | p. 357 |
Objectives | p. 357 |
General description | p. 358 |
Challenges | p. 360 |
Active catheters | p. 362 |
Objectives | p. 362 |
General description | p. 363 |
Challenges | p. 363 |
Evolution of surgical robotics | p. 366 |
Towards more autonomous robots | p. 366 |
Towards a much less invasive surgery | p. 369 |
Towards the bio-nanorobotics | p. 371 |
Additional information | p. 386 |
Preamble | p. 386 |
The shape memory alloys (SMA) | p. 387 |
Electroactive polymers | p. 387 |
Bibliography | p. 388 |
Conclusion | p. 397 |
Notations | p. 399 |
Medical Glossary | p. 401 |
List of Authors | p. 407 |
Index | p. 409 |
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