Abstract: Systems and methods may involve minimizing interference when synchronization information is being transmitted from multiple sources. This may include receiving a trigger signal wherein the trigger signal includes a timing parameter to be used by a user device to synchronize with a content platform, and transmitting a synchronization signal having a transmitter identification and the timing parameter.

Abstract: Active Space separates the Left Frame from the Right Frame in a frame packing format. A source device is expected to transmit a constant pixel value. A sink device is expected to ignore all data received during the Active space regardless of the value. Embodiments of the present invention involve the Source device to embed intelligent information in the Active Space in lieu of the recommended fixed pixel value. Then the Sink device may read the embedded information from the Active Space, and infer the transition between the left frame and the right frame which is useful, for example, to synchronize eyewear.

Abstract: Active Space separates the Left Frame from the Right Frame in a frame packing format. A source device is expected to transmit a constant pixel value. A sink device is expected to ignore all data received during the Active space regardless of the value. Embodiments of the present invention involve the Source device to embed intelligent information in the Active Space in lieu of the recommended fixed pixel value. Then the Sink device may read the embedded information from the Active Space, and infer the transition between the left frame and the right frame which is useful, for example, to synchronize eyewear.

Abstract: Polarized 3D viewing systems inherently cut the viewing resolution in half. While 3D content looks of good quality, the quality of any co-existing 2D content in windowed mode on the same screen looks poor. Embodiments may be directed to modifying the 2D content in real time and presents the enhanced 2D content (i.e. 2D+) to each eye as if it was 3D content targeted at each of the left and right eyes separately. The 2D+ content quality thus appears much better than when viewing the original 2D content on a polarized screen through polarized eyewear.

Abstract: Embodiments are directed to adaptive stable image timing in stereoscopic 3D systems which may include maximizing the ratio of the Addressable Video time to a total time between two horizontal Sync pulses and minimizing the ratio of “Addressable” Video time to a total time between two Vertical Sync pulses. As the resolution size of the display decreases, the ratio minimized gets even smaller, leading to longer stable image resulting in higher 3D viewing quality.

Abstract: Active Space separates the Left Frame from the Right Frame in a frame packing format. A source device is expected to transmit a constant pixel value. A sink device is expected to ignore all data received during the Active space regardless of the value. Embodiments of the present invention involve the Source device to embed intelligent information in the Active Space in lieu of the recommended fixed pixel value. Then the Sink device may read the embedded information from the Active Space, and infer the transition between the left frame and the right frame which is useful, for example, to synchronize eyewear.

Abstract: Active Space separates the Left Frame from the Right Frame in a frame packing format. A source device is expected to transmit a constant pixel value. A sink device is expected to ignore all data received during the Active space regardless of the value. Embodiments of the present invention involve the Source device to embed intelligent information in the Active Space in lieu of the recommended fixed pixel value. Then the Sink device may read the embedded information from the Active Space, and infer the transition between the left frame and the right frame which is useful, for example, to synchronize eyewear.

Abstract: Systems and methods may involve minimizing interference when synchronization information is being transmitted from multiple sources. This may include receiving a trigger signal wherein the trigger signal includes a timing parameter to be used by a user device to synchronize with a content platform, and transmitting a synchronization signal having a transmitter identification and the timing parameter.

Abstract: A mechanism is described for facilitating a universal and dynamic eyewear optical lens. A method of embodiments of the invention includes monitoring wave patterns of waves being emitted from a first media device to a lens of an eyewear device, and detecting a change in the wave patterns. The wave pattern change may be caused when a new wave emitting from a second media device is detected. The method may further include dynamically adjusting the lens of the eyewear device to accept the new wave to facilitate viewing of contents being transmitted by the second media device.

Abstract: Polarized 3D viewing systems inherently cut the viewing resolution in half. While 3D content looks of good quality, the quality of any co-existing 2D content in windowed mode on the same screen looks poor. Embodiments may be directed to modifying the 2D content in real time and presents the enhanced 2D content (i.e. 2D+) to each eye as if it was 3D content targeted at each of the left and right eyes separately. The 2D+ content quality thus appears much better than when viewing the original 2D content on a polarized screen through polarized eyewear.

Abstract: Stereoscopic (3D) content streaming on PC from internet may become a commonplace practice. However, expecting a user to learn which formats and eyewear type to select for a particular display configuration type may be a challenge. Embodiments automatically discovers the PC system configuration and content formats being delivered, and using content-to-display format matching, adapts the content for best viewing quality for the user. The interactive application backed by a library instructs the user to setup the viewing configuration and conditions for optimum quality, removing the confusion choices can produce otherwise.

Abstract: Active Space separates the Left Frame from the Right Frame in a frame packing format. A source device is expected to transmit a constant pixel value. A sink device is expected to ignore all data received during the Active space regardless of the value. Embodiments of the present invention involve the Source device to embed intelligent information in the Active Space in lieu of the recommended fixed pixel value. Then the Sink device may read the embedded information from the Active Space, and infer the transition between the left frame and the right frame which is useful, for example, to synchronize eyewear.

Abstract: Embodiments are directed to adaptive stable image timing in stereoscopic 3D systems which may include maximizing the ratio of the Addressable Video time to a total time between two horizontal Sync pulses and minimizing the ratio of “Addressable” Video time to a total time between two Vertical Sync pulses. As the resolution size of the display decreases, the ratio minimized gets even smaller, leading to longer stable image resulting in higher 3D viewing quality.

Abstract: A vehicle having one or more small vehicle-mounted electricity generating wind turbines located within an area of wind recirculation. The electricity generated is used to recharge vehicle batteries, partially power an auxiliary electric propulsion motor, or supply vehicle parasitic loads.

Abstract: A vehicle having one or more small vehicle-mounted electricity generating wind turbines located within an area of wind recirculation. The electricity generated is used to recharge vehicle batteries, partially power an auxiliary electric propulsion motor, or supply vehicle parasitic loads.

Abstract: Embodiments of the invention provide a flexible probe head that improves contact force and uniform mechanical contact pressure between the probe feature and an engaged bond pad. Flexible probe head is formed from a plurality of conductive wires embedded in a high frequency elastomer material. During wafer sort, the flexible probe head is in contact communication with die under test. The flexible probe head assumes the natural co-planarity of the surface of the die under test and sort interface unit.

Abstract: An eye width characterization mechanism determines a pass setting of a sampling phase positioned within an eye width of received data. The sampling phase is incremented in a first direction from the pass setting until the sampling phase is outside the eye width of the received data. The sampling phase is then incremented in an opposite direction of the first direction starting again from the pass setting until the sampling phase is outside the eye width of the received data. The number of the sampling phase increments in the first direction is added to the number of the sampling phase increments in the opposite direction to characterize the eye width of the received data.

Abstract: A method of and an apparatus for designing a test environment providing reliable test signal integrity, and of evaluating performance of the test environment and an electronic device during testing of the electronic device. A virtual test environment is created emulating an actual test environment in which the electronic device is to be tested. A virtual calibration of the virtual test environment may be performed, to more closely emulate the actual test environment. A virtual device emulating the actual electronic device is implanted into the virtual test environment, and that virtual device is stimulated with an input test signal emulating the actual input signal that is applied to the actual electronic device in the actual test environment. The integrity of the input test signal and the resulting output signal is evaluated.

Abstract: An eye width characterization mechanism determines a pass setting of a sampling phase positioned within an eye width of received data. The sampling phase is incremented in a first direction from the pass setting until the sampling phase is outside the eye width of the received data. The sampling phase is then incremented in an opposite direction of the first direction starting again from the pass setting until the sampling phase is outside the eye width of the received data. The number of the sampling phase increments in the first direction is added to the number of the sampling phase increments in the opposite direction to characterize the eye width of the received data.