Title: Surgical Robotics: Future Technologies
1Surgical Robotics Future Technologies
- Victoria University
- August 2009
- Catherine Mohr, MD MSME
- Director, Medical Research
- Intuitive Surgical, Inc.
2 The first transistor out of Bell Labs Dec 16,
1947
3The first headlamp used in surgery with Cushing
at Harvard (1930)
4The first da Vinci setup joint (1996)
Will this be the beginning? the end? just a
step along the way? How do you know?
5Nuclear Telemanipulation Master-slave
6Various mechanisms developed to both track
movement and reflect forces (FREFLEX 1994)
7Started with fixturing and cutting
PROBOT TURP 1984
Minerva neurosurgery 1985
RoboDoc hip replacement 1995
8- Growth of Surgical Robotics
- Numerous variations over the years both
commercial and academic - Computer Motion laparoscopy
- Image Guide CT needle guidance
- Microdexterity ophthamology
- StereoTaxis interventional catheter
- Hansen Medical interventional catheter
- NeoGuide colonoscopy
- Cardiorobotics epicardial arrythmia
- Toshiba/Terumo laparoscopy
- DLR/Brainlab/Kuka - spine
- Hitachi neurosurgery
- Mazor spine
- Mako Surgical knee replacement
- Armstrong Medical various
9- Late 80s, DARPA funded a remote surgery program
targeted for the battlefield - SRI developed early technology around
telepresence - IBM developed remote center technology
- MIT developed cable-driven technology for low
friction manipulators - Intuitive licensed these technologies and started
the long process of turning good ideas into a
product
MIT
10The technology today
11So Where is the Next Innovation?
- In development
- Advanced instrumentation
- Energy
- Articulated stapling
- NIR vision
- Integrating Ultrasound
- Mid term (2-4 years)
- Image guidance?
- Haptics?
- NOTES?
- Focal therapy?
- Near Term (1-2 years)
- New robotic architectures
- Single-port
- Highly integrated
- Networking/telementoring
- Simulation
- Future (8 years)
- Automation?
- Procedure specific robots?
12Instruments
- Today
- Monopolar
- Bipolar
- RF
- Harmonic scalpel
- Tomorrow
- Laser
- Articulated stapling
- Plasma
- Powered Instruments
13Augmented Vision
14Intra-operative Imaging Ultrasound
15Telementoring/ Remote Proctoring
REMOTE PROCTOR INTERFACE
TILEPRO VIEW IN SURGEON CONSOLE
View sent to OR
Audio/video
INTERNET
Image files, video clips and Telestration
16Local Mentoring - Dual Console
Drivers Ed version of robotics where surgeons
can pass control back and forth or work
collaboratively
17Augmenting Vision
- Courtesy Blank Childrens Hospital
18Integrating Pre-op Information
- Augment the 3D visual field with real-time
information that will improve patient and surgeon
value - High resolution pre-op images
- Intra-operative imaging
- Navigation
-
19Haptics
- Adding the sense of touch to the robot
- Question of what is surgically relevant
- Sensing differences - texture
- Resolving absolute forces
- Two problems to solve
- Sensing forces at a level that is surgically
relevant - Displaying forces that are easily integrated into
surgery - Feasibility shown in a lab setting with
sensitivity in the range of 20 grams - Robustness, cost, sterilizability, etc.
20Robotic Architectures
- Single Port
- Give da Vinci like performance through a single
incision - True multi-quadrant access
- Perhaps enable flexible devices for NOTES
21Robotic Architectures
22Robotic Architectures - NOTES robots
23(No Transcript)
24Robotic Architectures - Microsurgical Robotics
25Microsuturing Results
26Further in the Future?
- How much of surgery will be automated and
pre-planned at a workstation? - What role will telesurgery play in global
healthcare? - How will we train young surgeons?
- Will we be able to guarantee outcomes?
- How will surgical robotics play with other
emerging healthcare technologies?
27Surgical Robotics A Central Role
Tele-Mentoring
Tele-operation
Simulation
Pre-op Planning
Augmented Reality
Connectivity
28Questions?
- Taking surgical precision and technique beyond
the limits of the human hand