METHOD AND APPARATUS FOR CONTROL OF MULTIPLE DEGREES OF FREEDOM OF A DISPLAY

• US 20100177053A2
• Filed: 04/30/2009
• Published: 07/15/2010
• Est. Priority Date: 05/09/2008
• Status: Abandoned Application

• Current Assignee: Taizo Yasutake
• Original Assignee: Taizo Yasutake
• Inventors: Yasutake, Taizo
• Application Number:
  US12/432,891
• Publication Number:
  US 20090278812A1
• Time in Patent Office: Days
• US Class Current: 345/173
• CPC Class Codes: G06F 3/04815 Interaction with a metaphor-based environment or interaction object displayed as three-dimensional, e.g. changing the user viewpoint with respect to the environment or object
• CPC Class Codes: G06F 3/0488 using a touch-screen or digitiser, e.g. input of commands through traced gestures

Abstract

A method for controlling multiple degrees of freedom of a display using a single contiguous sensing region of a sensing device is disclosed. The single contiguous sensing region is separate from the display. The method comprises: detecting a gesture in the single contiguous sensing region; causing rotation about a first axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a second direction; causing rotation about a second axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a first direction; and causing rotation about a third axis of the display if the gesture is determined to be a type of gesture that comprises multiple input objects. The first direction may be nonparallel to the second direction.

Claims

1. A program product comprising:

(a) a sensor program for controlling multiple degrees of freedom of a display in response to user input in a sensing region separate from the display, the sensor program configured to;

receive indicia indicative of user input by one or more input objects in the sensing region;

indicate a quantity of translation along a first axis of the display in response to a determination that the user input comprises motion of a single input object having a component in a first direction, the quantity of translation along the first axis of the display based on an amount of the component in the first direction; and

indicate rotation about the first axis of the display in response to a determination that the user input comprises contemporaneous motion of multiple input objects having a component in the second direction, the second direction substantially orthogonal to the first direction, wherein the rotation about the first axis of the display is based on an amount of the component in the second direction; and

(b) computer-readable media bearing the sensor program

2. The program product of claim 1, wherein the sensor program is further configured to:

indicate a quantity of translation along a second axis of the display in response to a determination that the user input comprises motion of a single input object having a component in the second direction, the second axis substantially orthogonal to the first axis, wherein the quantity of translation along the second axis of the display is based on an amount of the component of the single input object in the second direction;

indicate rotation about the second axis of the display in response to a determination that the user input comprises contemporaneous motion of multiple input objects all having a component in the first direction, the rotation about the second axis of the display based on an amount of the component of the multiple input objects in the first direction.

3. The program product of claim 1 wherein the display is substantially planar, and wherein the sensor program is further configured to:

indicate translation along a third axis of the display in response to a determination that the user input comprises a change in separation distance of multiple input objects, wherein the third axis is substantially orthogonal to the display;

indicate rotation about the third axis of the display in response to a determination that the user input comprises circular motion of at least one input object of a plurality of input objects in the sensing region.

4. The program product of claim 3, wherein the sensor program is further configured to:

indicate continued translation along the third axis of the display in response to a determination that the user input comprises the multiple input objects moving into and staying within extension regions after the change in separation distance of the multiple input objects, the extension regions comprising opposing corner portions of the sensing region.

5. The program product of claim 1, wherein the sensor program is further configured to:

indicate continued rotation about the first axis in response to a determination that the user input comprises the multiple input objects moving into and staying in a set of continuation regions after the motion of the multiple input objects having the component in the second direction, the set of continuation regions comprising opposing portions of the sensing region.

6. The program product of claim 1, wherein the sensor program is further configured to:

indicate continued rotation about the first axis in response to a determination that the user input comprises an increase in a count of input objects in the sensing region, the increase in the count of input objects being referenced to a count of input objects associated with the contemporaneous motion of the multiple input objects having the component in the second direction.

7. The program product of claim 1, wherein the sensor program is further configured to:

indicate a particular 3-dimensional degree of freedom control mode in response to a determination that the user input comprises a mode-switching input.

8. A method for controlling multiple degrees of freedom of a display using a single contiguous sensing region of a sensing device, the single contiguous sensing region being separate from the display, the method comprising:

detecting a gesture in the single contiguous sensing region;

causing rotation about a first axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a second direction;

causing rotation about a second axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a first direction, wherein the first direction is nonparallel to the second direction; and

causing rotation about a third axis of the display if the gesture is determined to be another type of gesture that comprises multiple input objects.

9. The method of claim 8 wherein the first and second axes are substantially orthogonal to each other, wherein the first and second directions are substantially orthogonal to each other, and wherein

the causing rotation about a first axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a second direction comprises:

determining an amount of rotation about the first axis based on a distance of travel of the multiple input objects along the second direction, and wherein

the causing rotation about a second axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a first direction comprises;

determining an amount of rotation about the second axis based on a distance of travel of the multiple input objects along the first direction.

10. The method of claim 8 wherein the display is substantially planar, wherein the first and second axes are substantially orthogonal to each other and define a plane substantially parallel to the display, and wherein the third axis of the display is substantially orthogonal to the display, the method further comprising:

causing translation along the first axis of the display if the gesture is determined to comprise a single input object traveling along the first direction, wherein an amount of translation along the first axis is based on a distance of travel of the single input object along the first direction;

causing translation along the second axis of the display if the gesture is determined to comprise a single input object traveling along the second direction, wherein an amount of translation along the first axis is based on a distance of travel of the single input object along the second direction; and

causing translation along the third axis of the display if the gesture is determined to comprise at least one of a change in separation distance of multiple input objects, with respect to each other and at least four input objects concurrently moving substantially in a same direction, wherein

the causing rotation about a third axis of the display if the gesture is determined to be a type of gesture that comprises multiple input objects comprises;

causing rotation about the third axis of the display if the gesture is determined to comprise circular motion of at least one of the multiple input objects

11. The method of claim 8, wherein the first direction and the second direction are predefined, and wherein

the causing rotation about a first axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a second direction comprises:

determining if the gesture comprises multiple input objects concurrently traveling predominantly along the second direction, such that rotation about the first axis of the display occurs only if the gesture is determined to comprise the multiple input objects concurrently traveling predominantly along the second direction, and wherein

the causing rotation about a second axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a first direction comprises;

determining if the gesture comprises multiple input objects concurrently traveling predominantly along the first direction, such that rotation about the second axis of the display occurs only if the gesture is determine to comprise the multiple input objects concurrently traveling predominantly along the first direction.

12. The method of claim 8, wherein the first axis and second axis are substantially orthogonal to each other, and wherein the first direction and the second direction are predefined and substantially orthogonal to each other, wherein

the causing rotation about a first axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a second direction comprises:

determining an amount of rotation about the first axis based on an amount of travel of the multiple input objects along the second direction, and wherein

the causing rotation about a second axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a first direction comprises;

determining an amount of rotation about the second axis based on an amount of travel of the multiple input objects along the first direction, such that multiple input objects concurrently traveling along both the second and first directions would cause rotation about both the first and second axes.

13. The method of claim 8, wherein the single contiguous sensing region comprises a first set of continuation regions and a second set of continuation regions, the first set of continuation regions at first opposing outer portions of the single contiguous sensing region and the second set of continuation regions at second opposing outer portions of the single contiguous sensing region, the method further comprising:

causing rotation about the first axis in response to input objects moving into and staying in the first set of continuation regions after multiple input objects concurrently traveled along the second direction; and

causing rotation about the second axis in response to input objects moving into and staying in the second set of continuation regions after multiple input objects concurrently traveled along the first direction.

14. The method of claim 8, further comprising:

causing continued rotation in response to an increase in a count of input objects in the single contiguous sensing region after multiple input objects concurrently traveled in the single contiguous sensing region.

15. The method of claim 8, wherein the single contiguous sensing region comprises a set of extension regions at diagonally opposing corners of the single contiguous sensing region, the method further comprising:

causing continued translation along the third axis of the display in response to input objects moving into and staying in at least one of the extension regions a same portion of the single contiguous sensing region after multiple input objects has moved relative to each other in the sensing region such that a separation distance of the multiple input objects with respect to each other changes.

16. The method of claim 8, further comprising:

entering a particular 3-dimensional degree of freedom control mode in response to a mode-switching input.

17. The method of claim 16, wherein the mode-switching input comprises multiple input objects simultaneously in specified portions of the single contiguous sensing region.

18. The method of claim 16, wherein the mode-switching input comprises at least one input selected from the group consisting of:

at least one input object tapping more than three times in the single contiguous sensing region, at least three input objects substantially simultaneously entering the single contiguous sensing region, and an actuation of a mode-switching key.

19. A proximity sensing device having a single contiguous sensing region usable for controlling multiple degrees of freedom of a display separate from the single contiguous sensing region;

the proximity sensing device comprising;

a plurality of sensor electrodes configured for detecting input objects in the single contiguous sensing region; and

a controller in communicative operation with the plurality of sensor electrodes, the controller configured to;

receive indicia indicative of one or more input objects performing a gesture in the single contiguous sensing region;

cause rotation about a first axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a second direction;

cause rotation about a second axis of the display if the gesture is determined to comprise multiple input objects concurrently traveling along a first direction, wherein the first direction is nonparallel to the second direction; and

cause rotation about a third axis of the display if the gesture is determined to be another type of gesture that comprises multiple input objects.

20. The proximity sensing device of claim 19 wherein the display is substantially planar, wherein the first and second axes are orthogonal to each other and define a plane substantially parallel to the display, wherein the third axis is substantially orthogonal to the display, and wherein the controller is further configured to:

cause translation along the first axis of the display if the gesture is determined to comprise a single input object traveling along the first direction, wherein an amount of translation along the first axis is based on a distance of travel of the single input object along the first direction; and

cause translation along the second axis of the display if the gesture is determined to comprise a single input object traveling along the second direction, wherein an amount of translation along the first axis is based on a distance of travel of the single input object along the second direction.