Robohub.org
 

IBIS pneumatic keyhole surgery robot potentially 1/10 the cost of da Vinci


by
23 July 2013



share this:

IBIS pneumatic keyhole surgery robot potentially 1/10 the cost of da VinciThis is a robot system for keyhole surgery, consisting of a master unit operated by the surgeon, and a slave unit that moves on the patient side.

“A feature of the slave robot is, it’s powered entirely by air. Nearly all conventional robots are electrically powered, but by driving this robot pneumatically, we’ve made it possible to gently absorb the force when the robot touches something. The force on the tip of the robot is estimated from the air pressure data, and that information is sent to the surgeon’s master robot. So, it can be fed back to the surgeon’s hand. Alternatively, a large force can be produced by a very lightweight, compact unit. An advantage of this system is, the robot overall can be made extremely compact.”

“Here, the user is operating the master robot. This demonstration enables you to experience, for example, how you can feel the reaction force when you pull the rubber band.”

“Of course, you can eliminate shaking of the hand, change the motion ratio, and change the force feedback factor. So, depending on the medical staff and the situation, the parameters can be varied, to make the system easier to use on the spot.”

“Currently, we aim to build this system for one-third to one-tenth the cost of the da Vinci surgical system. So, we think we can make it better in terms of cost as well.”

“Right now, we’re working with surgeons, who are actually using this system and giving us feedback on how to improve it. We’re receiving support from MEXT, and we aim to achieve a practical version within 4 to 5 years.”



tags: ,


DigInfo TV is a Tokyo-based online video news platform dedicated to producing original coverage of cutting edge technology, research and products from Japan.
DigInfo TV is a Tokyo-based online video news platform dedicated to producing original coverage of cutting edge technology, research and products from Japan.

            AUAI is supported by:



Subscribe to Robohub newsletter on substack



Related posts :

Interactive world simulator for robot policy training and evaluation

  20 Jul 2026
Yixuan Wang discusses his faithful world simulator that allows robots to learn how to push, pick up, and grasp objects.

Undergrads’ weed-killing robot wins top prize

  17 Jul 2026
Their robot can travel through a vineyard or orchard without a human operator, zapping weeds with a small amount of electricity.

A flapping robot swims and flies like a diving bird

  15 Jul 2026
An aerial-aquatic vehicle developed at EPFL and MIT could lead to a new class of devices for ocean exploration.

Wristband enables wearers to control a robotic hand with their own movements

  13 Jul 2026
By moving their hands and fingers, users can direct a robot to play the piano, shoot a basketball, or manipulate objects in a virtual environment.

#RoboCup2026 social media round-up

  08 Jul 2026
Find out what the teams got up to at this year's RoboCup extravaganza in Incheon.

#RoboCup2026 – humanoid league knockout stages

  06 Jul 2026
Find out who won the small, middle and large divisions in Incheon.

#RoboCup2026 – humanoid league day 2

  03 Jul 2026
Find out the latest from day two of the competition.

Reflections from ICRA 2026

  02 Jul 2026
From dancing robots to moral machines: our Assistant Editor reflects on ICRA 2026.



AUAI is supported by:







Subscribe to Robohub newsletter on substack




 















©2026.05 - Association for the Understanding of Artificial Intelligence