TELEOPERATOR SYSTEM WITH MASTER CONTROLLER DEVICE AND MULTIPLE REMOTE SLAVE DEVICES

• US 20120041599A1
• Filed: 08/11/2011
• Published: 02/16/2012
• Est. Priority Date: 08/11/2010
• Status: Abandoned Application

• Current Assignee: Barrett Technology LLC
• Original Assignee: Barrett Technology LLC
• Inventors: Townsend, William T., Wilkinson, David, Zenowich, Brian
• Application Number:
  US13/207,928
• Publication Number:
  US 20120041599A1
• Time in Patent Office: Days
• US Class Current: 700/275
• CPC Class Codes: B25J 13/025 comprising haptic means
• CPC Class Codes: B25J 3/04 involving servo mechanisms servo-actuated heads B25J15/02
• CPC Class Codes: B25J 9/1689 Teleoperation

Abstract

This invention enables the affordability of an elaborate, high-performance teleoperator master controller while encouraging continual operator training by supporting a teleoperator system in which one centralized master controller controls multiple field slaves sequentially.

Claims

1. A telerobotic system comprising a master controller and a plurality of slave devices, wherein the master controller can operatively control each of the plurality of slave devices, and further wherein the master controller can only control one slave device at any given time.

2. A telerobotic system according to claim 1 wherein the system includes full force and torque feedback in either joint or Cartesian space.

3. A telerobotic system according to claim 1 wherein the master controller controls degrees of freedom via the hands and arms of the human operator.

4. A telerobotic system according to claim 1 wherein the master controller controls degrees of freedom via the full body of the human operator.

5. A telerobotic system according to claim 1 wherein the human operator is immersed in video feedback via large monitors or screens, a heads-up display, or virtual-reality eyeglasses.

6. A telerobotic system according to claim 1 that employs any combination of force and torque feedback, up to full body master control, and immersive virtual reality video feedback.

7. A telerobotic system according to claim 1 wherein the master controller and each of the plurality of slave devices is a node on a communications network.

8. A telerobotic system according to claim 7 wherein the communications network comprises nodes in addition to the master controller in each of the plurality of slave devices.

9. A telerobotic system according to claim 7 wherein the communications network is an Ethernet-based network.

10. A telerobotic system according to claim 7 wherein the master controller and each of the plurality of slave devices is assigned a unique IP address.

11. A telerobotic system comprising a plurality of master controllers and a plurality of slave devices, wherein each master controller can operatively control each of the plurality of slave devices, and further wherein each master controller can only control one slave device at any given time.

12. A telerobotic system according to claim 11 wherein the number of slave devices significantly exceeds the number of master controllers.

13. A telerobotic system according to claim 11 wherein each master controller is operated by a single operator.

14. A method for performing a task, the method comprising:

providing a telerobotic system comprising a master controller and a plurality of slave devices, wherein the master controller can operatively control each of the plurality of slave devices, and further wherein the master controller can only control one slave device at any given time;

selecting one slave device to be operatively controlled by the master controller; and

using the master controller to operatively control the selected slave device to perform a task.

15. A method according to claim 14 further comprising selecting a different slave device to be operatively controlled by the master controller;

and

using the master controller to operatively control that different slave device to perform a task.