HAPTIC INTERFACE WITH LOCALIZED FEEDBACK

• US 20170010671A1
• Filed: 07/10/2015
• Published: 01/12/2017
• Est. Priority Date: 07/10/2015
• Status: Abandoned Application

• Current Assignee: 8982406 Canada Inc.
• Original Assignee: 8982406 Canada Inc.
• Inventors: Ghaffari Toiserkan, Kamran
• Application Number:
  US14/796,068
• Publication Number:
  US 20170010671A1
• Time in Patent Office: Days
• US Class Current: 1/1
• CPC Class Codes: A61B 34/37 Master-slave robots A61B34/35 takes precedence
• CPC Class Codes: B25J 13/025 comprising haptic means
• CPC Class Codes: B25J 19/061 with audible signals audio controls B25J13/003
• CPC Class Codes: B25J 3/04 involving servo mechanisms servo-actuated heads B25J15/02
• CPC Class Codes: B25J 9/1676 Avoiding collision or forbidden zones
• CPC Class Codes: B25J 9/1689 Teleoperation
• CPC Class Codes: G02B 27/017 Head mounted
• CPC Class Codes: G06F 3/016 Input arrangements with force or tactile feedback as computer generated output to the user
• CPC Class Codes: G06F 3/167 Audio in a user interface, e.g. using voice commands for navigating, audio feedback

Abstract

Improvement to haptic systems and methods whereby environmental information is provided to a user via audio output device. The audio output device may be provided on a user-manipulable portion of a haptic robotic interface, e.g. a kinesthetic interface. The haptic robotic interface at least partially recreates a virtual environment by providing haptic feedback. The audio output device may provide sound from a source in the virtual environment which may be collocated with the user-manipulable portion of the robotic interface. The audio output device may provide other environmental information on the virtual environment such as proximity information on the proximity of an obstacle. This may be used in, e.g. telemanipulation operations where proximity information may be used to provide warning prior to collision of the slave device with an obstacle.

Claims

1. A haptic robotic interface for recreating a virtual environment in a real environment

comprising:

a. a grounded portion configured for being in a grounded configuration with respect to the real environment in which the haptic device is located;

b. a user-manipulable portion movable by a user with respect to the grounded portion;

c. at least one haptic feedback device in mechanical connection to the user-manipulable portion, the haptic feedback device being actuatable under an input to apply a force to the user-manipulable portion to simulate the application of a force in the virtual environment;

d. an audio output device located on the user-manipulable portion providing environmental information on the virtual environment.

2. The haptic robotic interface of claim 1, wherein the environmental information comprises sound from a source in the virtual environment collocated with the user-manipulable portion in the real environment and wherein the audio output device is configured to provide a link between the virtual environment and the real environment by outputting the sound at the user-manipulable portion.

3. The haptic robotic interface of claim 1, wherein the environmental information comprises proximity information indicative of the proximity of an obstacle in the virtual environment and wherein the audio output device is configured to provide a link between the virtual environment and the real environment by outputting a sound indicative of the proximity of the obstacle in the virtual environment.

4. The haptic robotic interface of claim 1, further comprising a communication interface for receiving the environmental information.

5. The haptic robotic interface of claim 4, wherein the communication interface is a computer interface configured for communicating with a computer for receiving the environmental information from a virtual source generated at the computer.

6. The haptic robotic interface of claim 4, wherein the haptic robotic interface is a first robotic device, the communication interface is a robot-to-robot interface configured for communicating with a second robotic device for receiving therefrom the environmental information.

7. The haptic robotic interface of claim 4, wherein the communication interface comprises an analog sound input port.

8. The haptic robotic interface of claim 4, wherein the communication interface is a digital interface configured for receiving haptic feedback data and environment information data.

9. The haptic robotic interface of claim 8, wherein the communication interface comprises a USB interface.

10. The haptic robotic interface of claim 1, wherein the haptic robotic interface is a kinesthetic robotic interface, the haptic feedback device being further in mechanical connection with the grounded portion for applying a force onto the user-manipulable portion relative to the grounded portion.

11. The haptic robotic interface of claim 10, wherein the haptic feedback device comprises a step motor having a stator in rigid connection with the grounded portion and a rotor connected to the user-manipulable portion.

12. The haptic robotic interface of claim 1, wherein the user-manipulable portion comprises an extension on which is mounted the audio output device, the extension forming a part of the user-manipulable portion and moving therewith in relation to the grounded portion.

13. The haptic robotic interface of claim 1, wherein the audio output device is a first audio output device, the haptic robotic interface comprising at least a second audio output device.

14. A telemanipulation system comprising:

a. a first robotic interface for recreating in a first real environment a virtual environment simulating a second real environment comprising;

i. a grounded portion configured for being in a grounded configuration with respect to the first real environment;

ii. a user-manipulable portion movable by a user with respect to the grounded portion;

iii. at least one haptic feedback device in mechanical connection to the user-manipulable portion, the haptic feedback device being actuatable under an input to apply a force to the user-manipulable portion to simulate the application of a force in the virtual environment; and

iv. an audio output device located on the user-manipulable portion providing environmental information on a remote environment;

v. a first robotic interface communication interface configured for;

1. transmitting in response to a user manipulation a user state data indicative of the user manipulation, and

2. receiving environmental information data;

b. a second robotic interface for being controlled in the second real environment comprising;

i. an actuatable portion configured to be actuated in the second real environment in response to actuation data;

ii. a grounded portion configured for being fixed relative to the actuatable portion such that when actuated the actuatable portion moves in relation to the grounded portion;

iii. an environmental information sensor configured for sensing an environmental condition and for generating an output representative of the environmental condition;

iv. a second robotic interface communication interface configured for;

1. receiving from the first robotic interface the state data from the first robotic interface, deriving therefrom actuation data, and providing the actuation data to the actuatable portion, and

2. generating on the basis of the output of the environmental sensor environmental information data for transmission to the first robotic interface.

15. The telemanipulation system of claim 14, wherein the second robotic interface environmental information sensor comprises a microphone as a sound source in the second real environment, the environmental information data comprising sound data;

and wherein the audio output device comprises a speaker located on the user-manipulable portion at a location corresponding to the location of the microphone on the second robotic interface to recreate sound in the virtual environment at a location corresponding to the sound source in the second real environment being simulated.

16. The telemanipulation system of claim 14, wherein the second robotic interface environmental information sensor comprises a proximity sensor for detecting the proximity of an obstacle to the actuatable portion, the environmental information data comprising proximity data;

and wherein the first robotic interface is configured to output at the audio output device an audible indication of a proximity of the obstacle.

17. The telemanipulation system of claim 14, wherein the second robotic interface communication interface comprises an analog audio output interface for outputting analog audio over a communication link, and wherein the first robotic interface communication interface comprises an analogue audio input interface for receiving analog audio and providing it to the audio output device.

18. The telemanipulation system of claim 14, wherein the second robotic interface communication interface is a digital interface configured for receiving digital state data and for transmitting digital environmental information data, and wherein the first robotic interface communication interface is a digital interface configured for transmitting digital state data and for receiving digital environment information data.

19. The telemanipulation system of claim 18, wherein the first robotic interface communication interface and the second robotic interface communication interface each comprise a wifi interface.

20. The telemanipulation system of claim 14, wherein the first and second robotic interfaces are bidirectional robotic interfaces, each being configured for assuming both the master and the slave status in a telemanipulation operation, wherein the virtual environment recreated by the first robotic interface is a first virtual environment, the second the second robotic interface recreating a second virtual environment simulating the first real environment, wherein the second robotic interface comprises

a. a grounded portion configured for being in a grounded configuration with respect to the second real environment;

b. a user-manipulable portion movable by a user with respect to the grounded portion;

c. at least one haptic feedback device in mechanical connection to the user-manipulable portion, the haptic feedback device being actuatable under an input to apply a force to the user-manipulable portion to simulate the application of a force in the second virtual environment; and

d. an audio output device located on the user-manipulable portion providing environmental information on a remote environment;

and wherein the second robotic interface communication interface is configured for;

i. transmitting in response to a user manipulation state data indicative of the user manipulation, and

ii. receiving environmental information data;

and wherein the first robotic interface comprises;

e. an actuatable portion configured to be actuated in the first real environment in response to actuation data;

f. an environmental information sensor configured for sensing an environmental condition and for generating an output representative of the environmental condition;

and wherein the second robotic interface communication interface is configured for;

i. receiving from the second robotic interface the state data from the second robotic interface, deriving therefrom actuation data, and providing the actuation data to its respective actuatable portion, and

ii. generating on the basis of the output of the environmental sensor environmental information data for transmission to the second robotic interface.

21. The telemanipulation system of claim 20, wherein the user-manipulable portion of the first robotic interface is the actuatable portion of the first robotic interface, and the user-manipulable portion of the second robotic interface is the actuatable portion of the user-manipulable portion, the force-feedback devices of the first and second robotic interfaces, respectively, providing the actuating force for actuation.

22. A method of creating a realistic virtual environment using a haptic robotic interface device in a real environment, the method comprising:

a. accepting user manipulations on a haptic robotic interface at a user-manipulable portion, the user manipulation corresponding to manipulation commands for an object in the virtual environment;

b. providing haptic feedback to the user-manipulable portion to simulate the virtual environment;

c. receiving from an external source environmental information data representative of environmental information;

d. providing at an audio output device on the user-manipulable portion an audio representation of the environmental information.

23. The method of claim 22, wherein the environmental information data is representative of a sound at a particular sound source in the virtual environment, wherein providing at an audio output device on the user-manipulable portion an audio representation of the environmental information comprises outputting the sound at an audio output device that is collocated in the real environment that is collocated with the sound source in the virtual environment.

24. The method of claim 22, wherein the environmental information comprises proximity information indicative of the proximity of an obstacle in the virtual environment, and wherein providing at an audio output device on the user-manipulable portion an audio representation of the environmental information comprises outputting a sound indicative of the proximity of the obstacle in the virtual environment.