Abstract: A first access point (AP) device may include a transmitter and one or more processors. The transmitter may be associated with a first AP corresponding to a first basic service set identifier (BSSID). The one or more processors may be configured to generate a frame including information on a target wake time (TWT) schedule scheduled by a second AP corresponding to a second BSSID. The one or more processors may be configured to set a first subfield of the frame to indicate whether the first BSSID is the same as the second BSSID. The one or more processors may be configured to wirelessly transmit, via the transmitter over a wireless local area network (WLAN), the generated frame.

Abstract: Disclosed herein are aspects related to a device that can include a wireless communication interface and one or more processors. The one or more processors can generate a plurality of data packets. The one or more processors can allocate the plurality of data packets to a buffer for transmission to a network device. The one or more processors can determine an indication of a remaining time for transmission of at least one data packet of the plurality of data packets. The one or more processors can cause transmission, using the wireless communications interface, of the indication of the remaining time to the network device.

Abstract: Disclosed herein includes a system, a method, and a device for processing and converting data using matrix operations. Circuitry can partition an input of a first data format across a plurality of lookup tables each residing in a respective memory. The circuitry can access weight information from a load store memory, and the partitioned input on a per column basis from the plurality of lookup tables. The circuitry can perform a number of multiply-accumulate (MAC) operations per cycle between the weight information from the load store memory and the partitioned input read on a per column basis from the plurality of lookup tables. The number of MAC operations performed per cycle can correspond to a total number of columns of the plurality of lookup tables. The circuitry can generate, responsive to the MAC operations on the partitioned input, a plurality of outputs in a second data format.

Abstract: Disclosed herein are aspects related to a device that can include a wireless communication interface and one or more processors. The one or more processors can identify a capability of the device to control a parameter related to receiving a signal via the wireless communications interface. The capability can be representative of an improvement of reception by the device. The one or more processors can provide, to a network device using the wireless communications interface, a signal indicating the capability. The one or more processors can control operation of the wireless communications interface responsive to instructions received from the network device and related to the capability.

Abstract: An access point (AP) device may include a transmitter and one or more processors. The transmitter may be associated with a first basic service set identifier (BSSID). The one or more processors may be configured to generate a frame including information on a target wake time (TWT) schedule associated with a second BSSID. The one or more processors may be configured to set a first subfield of the frame to indicate whether the first BSSID is the same as the second BSSID. The one or more processors may be configured to wirelessly transmit, via the transmitter over a wireless local area network (WLAN), the generated frame.

Abstract: Systems and methods of protocol data unit (PDU) set discard policies may include a first device which receives a first PDU of a PDU set. The first PDU may include information relating to a PDU set discard policy. The first device may receive one or more second PDUs of the PDU set within a time window. The first device may apply the PDU set discard policy to the PDU set, based on a count of PDUs of the PDU set received within the time window, to selectively discard each of the PDUs of the PDU set according to the PDU set discard policy.

Abstract: Hyperlapse imaging is described. A device may include a camera, an ambient light sensor (ALS), and a data store. The camera is configured to capture images. The ALS is configured to detect associated ambient light properties for at least some of the captured images. The data store is configured to store the captured images and the associated ambient light properties. After a threshold amount, the stored captured images and the associated ambient light properties are processed in bulk to generate a hyperlapse video.

Abstract: The disclosed optical lens assemblies may include a deformable optical element including a substantially transparent transducer configured to deform, and thus change at least one optical property of, the deformable optical element. At least a portion of the substantially transparent transducer may be positioned within a substantially transparent optical aperture of the optical lens assembly. Various head-mounted displays incorporating such an optical lens assembly, and methods of fabricating the same, are also disclosed.

Abstract: A wrist-pose isolation system can infer a wrist pose (e.g., the user's hand position relative to her forearm) and can reduce wrist-induced jitter for projection casting in an XR environment. A user's projection cast can be determined as a combination of a “low-wrist contribution” component (e.g., a body-and-arm component) and a “high-wrist contribution” component (e.g., the pose of the wrist with respect to the arm). Using input from a gesture-tracking system, the contribution of the user's wrist pose to the user's current projection cast is calculated as a “wrist-contribution vector.” A projection cast direction can be determined as the interpolation of the current low-wrist contribution component and the high-wrist contribution component. This interpolation can be performed by weighting each by a specified amount and combining them.

Abstract: Disclosed herein is an extended reality system, and associated techniques, whereby personalized usage data of a user in one or more extended reality environments over a period of time can be collected and provided to a predictive model to determine optimal shortcut assignments for presentation to and subsequent use by the user. Determining the optimal shortcut assignments can involve estimating a plurality of interaction times for the user in the one or more extended reality environments, generating an optimized graphical user interface within the one or more extended reality environments with the optimal shortcut assignments reflected in the optimized graphical user interface, and rendering the optimized graphical user interface in the one or more extended reality environments to the user. The system may collect additional personalized usage data and periodically update the optimal shortcut assignments based on ongoing use of the system by the user.

Abstract: A high-voltage optical transformer may include (1) an array of light-emitting devices that are connected in parallel with one another and are electrically coupled to an electrical input, (2) a transfer medium, and (3) an array of photovoltaic cells that (A) are optically coupled to the array of light-emitting devices via the transfer medium, (B) are connected in series with one another, and (C) produce an electrical output whose voltage is higher than the electrical input. Various other apparatuses, systems, and methods are also disclosed.

Abstract: A virtual space configuration system of an artificial reality system can detect a user posture and provide various corresponding customizations of the system's virtual space. The virtual space configuration system can, when a user is in a seated posture, provide for seated virtual space customizations. In various implementations, these customizations can include allowing adjustment of a floor height; setting a flag that can be surfaced to applications to adjust the applications' mechanics for seated users; customizing display of virtual space boundaries when in seated mode to be less intrusive; providing options to detect when a user leaves seated mode and trigger corresponding actions; provide a passthrough workspace area allowing a user to interact with certain real-world objects naturally without having to remove a virtual reality headset; or automatically determining virtual space dimensions for seated users.

Abstract: In one example, a method comprises: exposing a first photodiode to incident light to generate first charge; exposing a second photodiode to the incident light to generate second charge; converting, by a first charge sensing unit, the first charge to a first voltage; converting, by a second charge sensing unit, the second charge to a second voltage; controlling an ADC to detect, based on the first voltage, that a quantity of the first charge reaches a saturation threshold, and to measure a saturation time when the quantity of the first charge reaches the saturation threshold; stopping the exposure of the first photodiode and the second photodiode to the incident light based on detecting that the quantity of the first charge reaches the saturation threshold; and controlling the ADC to measure, based on the second voltage, a quantity of the second charge generated by the second photodiode before the exposure ends.

Abstract: According to examples, a wearable device may include an imaging component, at least one wireless communication component, and a controller. The controller may activate the at least one wireless communication component to perform a wireless scan of at least one radio available to respond to the wireless scan. The controller may also receive, through the at least one wireless communication component, wireless scan data from the at least one radio and may embed the wireless scan data as part of a media metadata. The wireless scan data may be used to determine a location estimate of the at least one radio and thus, the wearable device. The location estimate of the wearable device may also be used to geotag media captured by the wearable device without using a GPS receiver on the wearable device or when a GPS receiver is unable to track a current location.

Abstract: A 3D conversation system can facilitate 3D conversations in an augmented reality environment, allowing conversation participants to appear as if they are face-to-face. The 3D conversation system can accomplish this with a pipeline of data processing stages, which can include calibrate, capture, tag and filter, compress, decompress, reconstruct, render, and display stages. Generally, the pipeline can capture images of the sending user, create intermediate representations, transform the representations to convert from the orientation the images were taken from to a viewpoint of the receiving user, and output images of the sending user, from the viewpoint of the receiving user, in synchronization with audio captured from the sending user. Such a 3D conversation can take place between two or more sender/receiving systems and, in some implementations can be mediated by one or more server systems. In various configurations, stages of the pipeline can be customized based on a conversation context.

Abstract: An eye tracking system employing three-dimensional (3D) sensing using time of flight is provided. Instead of directly measuring the time of arrival of the emitted photons, the light intensity of the transmitted laser beam is modulated, and a phase change of the return beam computed by comparison with the transmit waveform. The modulation frequency is resolved with radio frequency (RF) mixing and digital signal processing techniques. A variety of phase detection systems and techniques including, but not limited to, quadrature analog front end detection and analog homodyne phase detection are applied. The modulation frequency may, depending on phase detection technique, be sinusoidal or pulsed.

Abstract: In one example, a mobile device comprises: a physical link; a plurality of image sensors, each image sensor being configured to transmit image data via the physical link; and a controller coupled to the physical link, whereby the physical link, the plurality of image sensors, and the controller form a multi-drop network. The controller is configured to: transmit a control signal to configure image sensing operations at the plurality of image sensors; receive, via the physical link, image data from at least a subset of the plurality of image sensors; combine the image data from the at least a subset of the plurality of image sensors to obtain an extended field of view (FOV); determine information of a surrounding environment of the mobile device captured within the extended FOV; and provide the information to an application to generate content based on the information.

Abstract: An optical assembly a substrate having a first surface and a second surface that is opposite to and substantially parallel with the first surface. The first surface has a first curved profile and the second surface has a second curved profile. The optical assembly also includes a beam splitter on the first surface and a reflector on the second surface. The optical assembly is configured to transmit image light received at the first surface in an optical path that includes reflection at each of the reflector and the beam splitter before the image light is output from the second surface. The optical assembly is also configured to transmit ambient light received at the first surface such that the second light is output from the second surface without undergoing reflection at either the reflector or the beam splitter. A method of transmitting light through the optical assembly is also disclosed.