Poll, Christopher

A display device according to embodiments of the present disclosure includes a display panel including a display area with a plurality of pixels, an optical hole within the display area, and a hole bezel area surrounding the optical hole, a plurality of scan lines extending in a first direction in the display area and disconnected by the optical hole, a plurality of bypass connection lines disposed in the display area, the plurality of bypass connection lines connecting disconnected portions of the plurality of scan lines, and a plurality of data lines extending in a second direction in the display area and passing through the hole bezel area, the second direction intersecting the first direction.

A display device is provided showing, relative to conventional devices, improved performance after thermal degradation. The display device provides a reduced difference between luminance of a degraded device and luminance of a non-degraded device at extreme viewing angles, where this difference cannot be fully addressed by front compensation. Improvement over display devices having subpixels disposed in a regular two dimensional array is accomplished by offsetting a portion of subpixel light-emitting areas along a critical dimension within the plane of a flat screen relative to corresponding subpixel lenses, a design that compensates for shrinkage in subpixel light-emitting areas in degraded displays.

According to an aspect of the present disclosure, there is provided a display device. The display device includes a substrate comprising a display area and a non-display area and a circuit film electrically connected to at least one side in the non-display area of the substrate. The circuit film includes a plurality of first via holes configured to overlap the non-display area and formed through the circuit film. Some of the plurality of first via holes are included in a first group. Some of the remaining first via holes are included in a second group. The plurality of first via holes included in the first and second groups are arranged in a direction between a first direction and a second direction that is a direction intersecting the first direction. The first and second groups are disposed alternately in the first direction. Therefore, the display device reduce the size of the non-display area.

Techniques for determining vehicle trajectories to operate a vehicle according to a planned path are described herein. In an example, a vehicle computing system may determine a location of the vehicle at a first time. Based on the location, the vehicle computing system may determine an estimated location of the vehicle at a second time, the estimated location of the vehicle including a lateral coordinate and a longitudinal coordinate. The vehicle computing system may determine the longitudinal coordinate based on a vehicle trajectory associated with the first time (e.g., previously determined trajectory) and the lateral coordinate based on the planned path. The vehicle computing system may determine a second vehicle trajectory based in part on the estimated location and the first trajectory, and may control the vehicle according to the second vehicle trajectory.

A roof mounting system for installing a plurality of PV modules on a roof surface includes a waterproof base mount assembly for attaching to a roof surface. The waterproof base mount assembly includes: a base member having a top surface comprising a waterproofing means consisting of an upstanding portion that extends away from the roof surface, the upstanding portion defining a distal end aperture; a block member having an elevated seal portion configured to fit over the base member, a through hole configured to fit over the upstanding portion of the base member and a vertically extending engaging portion; a tightening means for attaching the base mount assembly to the roof surface by insertion through said through hole and said distal end aperture; and, a sealing washer for fitting on the tightening means and adapted to seal the through hole in the elevated seal portion to prevent seepage of water. The system further includes a clamp assembly for connecting a frame member of at least one PV module to the base mount assembly, and a structural member having a top portion for connecting to the clamp assembly and a bottom portion for connecting to the vertically extending engaging portion of the waterproof base mount assembly.

A seamless mobility domain (SMD) is described where a PTK for a wireless device is pre-computed or pre-generated before the client roams from a serving AP to a target AP in the SMD. The pre-computed PTK can be distributed (i.e., pushed) to one or more target APs before the wireless device roams, or the PTK can be stored in a key stored and then retrieved from the key store by a target AP once the wireless device roams to the target AP. In another embodiment, the PMK and/or PTK keys are generated using a SMD identifier, such as a SMD MAC address or a special ID for the SMD.

A display device may include: a display area and a non-display area outside the display area; a light emitting diode disposed in the display area and on a substrate; an insulating layer covering the light emitting diode and disposed in the display area and the non-display area; lenses disposed in the display area and on the insulating layer; a stopper disposed in the non-display area and on the insulating layer; first flatness-enhancing patterns disposed between the display area and the stopper; and a planarization layer covering the lenses, the stopper and the first flatness-enhancing patterns. The non-display area may include a first non-display area at a first direction from the display area and a second non-display area at a second direction from the display area. The first flatness-enhancing patterns may be disposed in the first non-display area and include a convex pattern or a concave pattern.

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