Abstract: Techniques are provided to calculate a “complexity score” (CS) and qualifying allocation score, which aims to address the gap between a performance score, which may represent a driver score of other suitable entity-based performance score. The CS may be calculated based upon the particular agent (e.g. a vehicle, an autonomous mobile robot (AMR), etc.), such as via the use of vehicle-based alerts, other types of alerts, environment-based data, etc., which are collected for specific navigation segments. The CS is then combined with the performance score to provide a qualifying allocation score, which is a context-sensitive view of the performance score. This context-sensitive view of the performance score may then be utilized for a determination regarding how to allocate the most well-suited entity (a driver, vehicle, AMR, etc.) to a subsequent route that includes the navigation segments.

Abstract: In some embodiments, a computer system chassis comprises a chassis side having an antenna portion and a fan portion. The antenna portion is located closer to an antenna located on an external surface of the chassis side than the fan portion. The antenna and fan portions comprise ventilation holes that provide for the venting of heated air from the chassis interior to the surrounding environment. In some embodiments, the ventilation holes in the antenna portion are thicker than the ventilation holes in the fan portion. The thicker ventilation holes provide an adequate level of EMI shielding for the antenna from platform noise generated by components (CPUs, GPUs, memories, etc.) located in the chassis interior. In other embodiments, the antenna portion comprises alternating positive and negative cross pattern ventilation holes and provides an adequate level of EMI shielding with the antenna portion ventilation holes having the same thickness as the fan portion ventilation holes.

Abstract: An apparatus, including: an interface configured to receive raw images of one or more objects across a timeseries of frames corresponding to a movement event from a perspective of a vehicle of interest (Vol); and processing circuitry that is configured to: track a change in intensity or direction information represented in motion vectors (MVs) generated based on the raw images; generate, based on the change in the intensity or direction information, a weight of an influence vector representing a Vol influence on the movement event; and transmit the weight of the influence vector and an identity of the movement event to an assessment system that is configured to utilize the weight of the influence vector in an assessment of the Vol.

Abstract: A vehicle navigation device may include a processor. The processor may receive an illumination map that includes route segments corresponding to an area. The illumination map may include a probability of solar radiation value for each of the route segments. The processor may receive a request to generate a navigation route from a start point to an end point within the area. The processor may determine navigable routes from the start point to the end point using the route segments. The processor may determine an overall probability of solar radiation value for each of the navigable routes based on the probability of solar radiation value for each route segment. The processor may identify a navigable route considering the overall probability of solar radiation values as an illumination route. The processor may generate an instruction to a display device to display the illumination route as a navigable route for the vehicle.

Abstract: Methods and apparatus to improve driver-assistance vision systems using object detection based on motion vectors are disclosed. An example apparatus includes a motion vector object detection analyzer to generate a motion vector boundary box around an object represented in a first image, the motion vector boundary box generated based on a comparison of the first image relative to a second image. The example apparatus also includes a boundary box analyzer to: determine whether the motion vector boundary box corresponds to any artificial intelligence (AI)-based boundary box generated based on an analysis of the first image using an object detection machine learning model; and, in response to the motion vector boundary box not corresponding to any AI-based boundary box associated with the first image, associate a label with the motion vector boundary, the label to indicate the object detection machine learning model did not recognize the object in the first image.

Abstract: A display based keyboard is described herein. The display based keyboard includes a bi-stable segmented-based display, a master controller, and a display driver. The bi-stable segmented-based display may include a front barrier layer, a top plane layer, a display technology specific layer, a back plane layer, and a rear barrier layer.

Abstract: Methods and apparatus to detect touch input gestures are disclosed. An example apparatus includes a touch sensitive display, a touch sensor to detect touches and hovers associated with the touch sensitive display, and a gesture handler including: an identifier to identify fingers associated with the touches and hovers, and a gesture detector to determine a gesture associated with the touches and hovers and determine an action associated with the gesture and the identified fingers.

Abstract: An embodiment of a semiconductor package apparatus may include technology to determine user-related concentration information, and adjust one or more parameters of a graphics subsystem based on the user-related concentration information. Other embodiments are disclosed and claimed.

Abstract: One or more system, apparatus, method, and computer readable media for embedding supplemental data into a compressed data stream to form a supplemented compressed data stream. In embodiments, supplemental data is embedded at a run-length encoded (RLE) compression stage. In embodiments, supplemental data is extracted from a supplemented RLE stream to recover supplemental data and/or reconstruct the compressed data stream from which the supplemental data is extracted.

Abstract: A display based keyboard is described herein. The display based keyboard includes a bi-stable segmented-based display, a master controller, and a display driver. The bi-stable segmented-based display may include a front barrier layer, a top plane layer, a display technology specific layer, a back plane layer, and a rear barrier layer.

Abstract: A method for initializing a panoramic video by a graphical user interface (GUI) includes receiving a panoramic video, creating a three-dimensional mesh, and displaying a preview rendered from the three-dimensional mesh. The GUI displays a time selection interface and selects a frame time in the panoramic video with the time selection interface. The GUI displays a view selection interface and selects view parameters that define a camera orientation at the frame time of the panoramic video with the view selection interface. The GUI determines a selected frame of the panoramic video defined by the frame time and the view parameter, renders the thumbnail from the three-dimensional mesh based on the selected frame, and stores orientation data including the frame time and the view parameters.

Abstract: One or more system, apparatus, method, and computer readable media for embedding supplemental data into a compressed data stream to form a supplemented compressed data stream. In embodiments, supplemental data is embedded at a run-length encoded (RLE) compression stage. In embodiments, supplemental data is extracted from a supplemented RLE stream to recover supplemental data and/or reconstruct the compressed data stream from which the supplemental data is extracted.

Abstract: A display based keyboard is described herein. The display based keyboard includes a bi-stable segmented-based display, a master controller, and a display driver. The bi-stable segmented-based display may include a front barrier layer, a top plane layer, a display technology specific layer, a back plane layer, and a rear barrier layer.

Abstract: Embodiments of the present invention may provide a portable energy harvesting, energy storage and battery charging device. The portable device consistent with embodiments of the invention may be worn as, for example, a wrist application. The portable device may incorporate any one of, or a combination of, thermoelectric and solar energy harvesting technology as a source for charging, for example, at least one rechargeable battery. The energy may be stored for later use to, for example, recharge portable electronic devices on the go. In various embodiments, the portable device may be configured to provide a time, date and energy supply in a convenient display. Furthermore, the portable device may incorporate, into its design, integrated Universal Serial Bus (USB) connectors for convenient and direct charging of other portable electronic devices. The USB connector may also be configured to cause a charging of the battery of the portable device.

Abstract: Embodiments of the present invention may provide a portable energy harvesting, energy storage and battery charging device. The portable device consistent with embodiments of the invention may be worn as, for example, a wrist application. The portable device may incorporate any one of, or a combination of, thermoelectric and solar energy harvesting technology as a source for charging, for example, at least one rechargeable battery. The energy may be stored for later use to, for example, recharge portable electronic devices on the go. In various embodiments, the portable device may be configured to provide a time, date and energy supply in a convenient display. Furthermore, the portable device may incorporate, into its design, integrated Universal Serial Bus (USB) connectors for convenient and direct charging of other portable electronic devices. The USB connector may also be configured to cause a charging of the battery of the portable device.

Abstract: Multicarrier receivers and methods for carrier frequency offset correction and channel estimation for receipt of simultaneous transmissions over a multi-user uplink are generally described herein. Other embodiments may be described and claimed.

Abstract: Multicarrier receivers and methods for carrier frequency offset correction and channel estimation for receipt of simultaneous transmissions over a multi-user uplink are generally described herein. Other embodiments may be described and claimed.

Abstract: Multicarrier receivers and methods for carrier frequency offset correction and channel estimation for receipt of simultaneous transmissions over a multi-user uplink are generally described herein. Other embodiments may be described and claimed.

Abstract: Various embodiments of methods and apparatus to remove or reduce phase noise in a baseband signal at a receiver are generally described herein. Other embodiments may be described and claimed.