This invention is related to connected mobile computing systems, methods, and configurations, and more specifically to mobile computing systems, methods, and configurations featuring at least one wearable component which may be utilized for virtual and/or augmented reality operation.
It is desirable that mixed reality, or augmented reality, near-eye displays be lightweight, low-cost, have a small form-factor, have a wide virtual image field of view, and be as transparent as possible. In addition, it is desirable to have configurations that present virtual image information in multiple focal planes (for example, two or more) in order to be practical for a wide variety of use-cases without exceeding an acceptable allowance for vergence-accommodation mismatch.
The invention provides a viewing system. Including an interpupillary distance (IPD) detector that is positionable to detect an IPD of a user and generate IPD data, a head movement detector device that generates head movement data based on movement of a head of the user, a correlator connected to the IPD detector and the head movement detection device to generate a correlation between the IPD data and the head movement data and a storing system connected to the correlator to store the correlation.
The viewing device may further include an apparatus frame securable to a head of the user, the IPD detector and head movement device being secured to the apparatus frame.
The viewing device may further include that the IPD detector is a camera with a field of capture oriented towards eyes of the user.
The viewing device may further include that the head movement detector includes one or more accelerometers, gyroscopes, inertial measurement units (IMU's) or cameras.
The viewing device may further include that the head movement detector determines a least one rotation and position of the head of the user.
The viewing device may further include a mouth bit interface for the user to bite on to fixedly attach the apparatus frame to the head of the user.
The viewing device may further include that the user can accelerate their head while the IPD data is collected.
The viewing device may further include an IPD compensation factor calculator that calculates an IPD compensation factor based on the correlation.
The viewing device may further include an augmented reality system that generates a visual presentation to a user based at least in part on an IPD of the user and an IPD compensator that adjusts the visual representation based on the IPT compensation factor.
The invention also provides a viewing system, including an augmented reality system that generates a visual presentation to a user based at least in part on an IPD of the user, and an IPD compensator that adjusts the visual presentation based on an IPD compensation factor.
The viewing system may further include a pitch angle detector that detects pitch angle of a head of the user, wherein the IPD compensation factor is dependent on the pitch angle by the pitch angle detector.
The viewing system may further include a viewing calibration system that guides the user through a series of viewing exercises to determine one or more IPD compensation factors.
The viewing system may further include an IPD detector that is positionable to detect an IPD of a user and generate IPD data, a head movement detector device that generates head movement data based on movement of a head of the user, a correlator connected to the IPD detector and the head movement detection device to generate a correlation between the IPD data and the head movement data and a storing system connected to the correlator to store the correlation.
The viewing system may further include an apparatus frame securable to a head of the user, the IPD detector and head movement device being secured to the apparatus frame.
The viewing system may further include that the IPD detector is a camera with a field of capture oriented towards eyes of the user.
The viewing system may further include that the head movement detector includes one or more accelerometers, gyroscopes, inertial measurement units (IMU's) or cameras.
The viewing system may further include that the head movement detector determines a least one rotation and position of the head of the user.
The viewing system may further include a mouth bit interface for the user to bite on to fixedly attach the apparatus frame to the head of the user.
The viewing system may further include that the user can accelerate their head while the IPD data is collected.
The invention is further described by way of example with reference to the accompanying drawings, wherein:
Referring to
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Using an experimental apparatus such as that depicted in
An apparatus such as that depicted in
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The system 142 further includes left and right projectors 166A and 166B and left and right waveguides 170A and 170B. The left and right projectors 166A and 166B are connected to power supplies. Each projector 166A and 166B has a respective input for image data to be provided to the respective projector 166A or 166B. The respective projector 166A or 166B, when powered, generates light in two-dimensional patterns and emanates the light therefrom. The left and right waveguides 170A and 170B are positioned to receive light from the left and right projectors 166A and 166B, respectively. The left and right waveguides 170A and 170B are transparent waveguides.
In use, a user mounts the head mountable frame 140 to their head. Components of the head mountable frame 140 may, for example, include a strap (not shown) that wraps around the back of the head of the user. The left and right waveguides 170A and 170B are then located in front of left and right eyes 220A and 220B of the user.
The rendering engine 130 enters the image data that it receives into the stereoscopic analyzer 144. The image data is projected onto a plurality of virtual planes. The stereoscopic analyzer 144 analyzes the image data to determine left and right image data sets based on the image data for projection onto each depth plane. The left and right image data sets are data sets that represent two-dimensional images that are projected in three-dimensions to give the user a perception of a depth.
The stereoscopic analyzer 144 enters the left and right image data sets into the left and right projectors 166A and 166B. The left and right projectors 166A and 166B then create left and right light patterns. The components of the system 142 are shown in plan view, although it should be understood that the left and right patterns are two-dimensional patterns when shown in front elevation view. Each light pattern includes a plurality of pixels. For purposes of illustration, light rays 224A and 226A from two of the pixels are shown leaving the left projector 166A and entering the left waveguide 170A. The light rays 224A and 226A reflect from sides of the left waveguide 170A. It is shown that the light rays 224A and 226A propagate through internal reflection from left to right within the left waveguide 170A, although it should be understood that the light rays 224A and 226A also propagate in a direction into the paper using refractory and reflective systems.
The light rays 224A and 226A exit the left light waveguide 170A through a pupil 228A and then enter a left eye 220A through a pupil 230A of the left eye 220A. The light rays 224A and 226A then fall on a retina 232A of the left eye 220A. In this manner, the left light pattern falls on the retina 232A of the left eye 220A. The user is given the perception that the pixels that are formed on the retina 232A are pixels 234A and 236A that the user perceives to be at some distance on a side of the left waveguide 170A opposing the left eye 220A. Depth perception is created by manipulating the focal length of the light.
In a similar manner, the stereoscopic analyzer 144 enters the right image data set into the right projector 166B. The right projector 166B transmits the right light pattern, which is represented by pixels in the form of light rays 224B and 226B. The light rays 224B and 226B reflect within the right waveguide 170B and exit through a pupil 228B. The light rays 224B and 226B then enter through a pupil 230B of the right eye 220B and fall on a retina 232B of a right eye 220B. The pixels of the light rays 224B and 226B are perceived as pixels 134B and 236B behind the right waveguide 170B.
The patterns that are created on the retinas 232A and 232B are individually perceived as left and right images. The left and right images differ slightly from one another due to the functioning of the stereoscopic analyzer 144. The left and right images are perceived in a mind of the user as a three-dimensional rendering.
As mentioned, the left and right waveguides 170A and 170B are transparent. Light from a real-life object such as the table 116 on a side of the left and right waveguides 170A and 170B opposing the eyes 220A and 220B can project through the left and right waveguides 170A and 170B and fall on the retinas 232A and 232B.
The viewing calibration system 316 prompts the user through a series of vision tests to generate one or more IPD compensation factors such as the IPD compensation factor calculator 312.
While certain exemplary embodiments have been described and shown in the accompanying drawings, it is to be understood that such embodiments are merely illustrative and not restrictive of the current invention, and that this invention is not restricted to the specific constructions and arrangements shown and described since modifications may occur to those ordinarily skilled in the art.
This application is continuation of U.S. patent application Ser. No: 16/530,776, filed Aug. 2, 2019, which claims priority from U.S. Provisional Patent Application No. 62/714,056, filed on Aug. 2, 2018, all of which is incorporated herein by reference in its entirety.
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Number | Date | Country | |
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20210341996 A1 | Nov 2021 | US |
Number | Date | Country | |
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62714056 | Aug 2018 | US |
Number | Date | Country | |
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Parent | 16530776 | Aug 2019 | US |
Child | 17378156 | US |