Abstract: A rotary joint includes a shaft having a first end, a second end, and a cavity. The rotary joint includes a first waveguide section having a first proximal end and a first distal end. The first proximal end of the first waveguide section is positioned within the cavity and secured to the inner surface of the shaft. The rotary joint includes a second waveguide section that includes a second proximal end and a second distal end. The second proximal end of the second waveguide section is positioned within the cavity of the shaft and unsecured to the inner surface of the shaft to form a radial gap between an outer surface of the second proximal end and a laterally adjacent portion of the inner surface of the shaft. The shaft and the first waveguide section are configured to rotate about the rotational axis and relative to the second waveguide section.

Abstract: A computer-implemented method for dynamically managing electronic transactions of petcare data is disclosed. The method includes hosting a user portal corresponding to at least one user and at least one pet, the user portal including at least one user profile and at least one pet profile, receiving a first data set from a first external system, in response to the receiving, calling a content management component using an API based on the first data set, in response to the calling, receiving a recommendation from the content management component, the recommendation based on the first data set, based on the receiving, updating one or more database records corresponding to the at least one user identifier and the at least one pet identifier, the updating based on the first data set and the recommendation, and displaying, by the one or more processors, the recommendation on a user interface of the user portal.

Abstract: Provided are systems, methods, and computer-readable medium for obtaining specific information about one or more psychological conditions. The information is obtained in a manner such that a second response is based on a first response. Once the information has been obtained, a customized content program for responding to the one or more psychological conditions may be generated.

Abstract: An example device includes a mounting structure including a first material having a first coefficient of thermal expansion (CTE). The mounting structure includes a center portion and an outer portion. The device further includes a magnetic core for an electrical component that is coupled to the outer portion of the mounting structure. The magnetic core includes a second material having a second CTE. The magnetic core is split into a plurality of sections separated by spaces extending from the center portion to an outer edge of the outer portion. Each of the plurality of sections is separately coupled to the mounting structure, and each of the plurality of sections is connected to the electrical component.

Abstract: Example embodiments relate to light detection and ranging (lidar) devices having a light-guide manifold. An example lidar device includes a transmit subsystem. The transmit subsystem includes a light emitter. The transmit subsystem also includes a light-guide manifold optically coupled to the light emitter. Further, the transmit subsystem includes a telecentric lens assembly optically coupled to the light-guide manifold. The lidar device also includes a receive subsystem. The receive subsystem includes the telecentric lens assembly. The receive subsystem also includes an aperture plate having an aperture defined therein. The aperture plate is positioned at a focal plane of the telecentric lens assembly. Further, the receive subsystem includes a silicon photomultiplier (SiPM) positioned to receive light traveling through the aperture.

Abstract: Provided are systems, methods, and computer-readable medium for operating a content delivery system. In various examples, the content delivery system can transmit a series of queries to a computing device for display in an application executing on the computing device. The content delivery service can receive a first set of responses, and determine from these response an additional series of queries. The additional series of queries can also be transmitted to the computing device. The content delivery service can receive a second set of responses for the additional series of queries. The content delivery service can further use the responses to determine a presentation for a program of content, the presentation including graphics, text, and audio. The content delivery service can transmit the present and the program of content to the computing device, where the computing device can render the presentation to modify an appearance of the program of content.

Abstract: Provided are systems, methods, and computer-readable medium for operating a content delivery system. In various examples, the content delivery system can transmit a series of queries to a computing device for display in an application executing on the computing device. The content delivery service can receive a set of responses, and determine from the responses scores for each of a set of drivers associated with a plurality of content sessions. The content delivery service can also select particular content sessions using the scores. The content delivery service can also determine an order and schedule for presenting the particular content sessions and output a customized content program according to the order and schedule.

Abstract: A computing device includes memory configured for storing executable instructions, a processor configured for executing the instructions, a foldable display layer configured for displaying information in response to the execution of the instructions, and a bend limit layer coupled to the foldable display layer and arranged substantially parallel to a display surface of the foldable display layer. The bend limit layer is configured to increase its stiffness non-linearly when a radius of a bend of the bend limit layer is less than a threshold radius of curvature of the foldable display layer, the threshold radius of curvature being greater than 1 mm and less than 20 mm.

Abstract: An apparatus utilizes multiple strain gauge (“SG”) sensing units which are each disposed adjacent an inner surface of the device housing. Electrical voltage generated by the SGs is amplified by one or more amplifiers to maximize the resolution between a voltage output of an SG when in a non-pressed state and a voltage output of the SG when in a pressed state. Additionally, an electronic circuit is configured to identify a baseline voltage output for an SG over a period of time for comparing to a voltage output for the SG when the SG is in a pressed state such that the pressed state of the SG can be identified by the electronic circuit by comparing a current output voltage of the SG to the identified baseline voltage.

Abstract: An electronic device can include a camera and a cover glass arrangement disposed over the camera. The cover glass arrangement includes a thinner region or cover glass that is positioned over a light-receiving region of the camera. Additionally, the thinner region or cover glass can be disposed over the light-receiving region and at least parts of one or more non-light receiving regions of the camera.

Abstract: A computing device is described that receives fingerprint data that is generated by at least one sensor of the computing device and determines, based on a comparison of the fingerprint data with data associated with a fingerprint of an authorized user of the computing device, whether to authorize access to one or more applications that are executable by the computing device. Responsive to determining that access to the one or more applications is authorized, the computing device determines a gesture indicated by the fingerprint data, selects, based on the gesture, an application of the one or more applications as a selected application, and outputs, for display, a graphical user interface of the selected application.

Abstract: An electronic device can include a camera and a cover glass arrangement disposed over the camera. The cover glass arrangement includes a thinner region or cover glass that is positioned over a light-receiving region of the camera. Additionally, the thinner region or cover glass can be disposed over the light-receiving region and at least parts of one or more non-light receiving regions of the camera.

Abstract: An electronic device can include a camera and a cover glass arrangement disposed over the camera. The cover glass arrangement includes a thinner region or cover glass that is positioned over a light-receiving region of the camera. Additionally, the thinner region or cover glass can be disposed over the light-receiving region and at least parts of one or more non-light receiving regions of the camera.

Abstract: An electronic device includes: an enclosure having a first surface, a second surface, and a side surface disposed between the first and second surfaces; an edge-to-edge component mounted in an edge-to-edge opening that extends across substantially an entire width of the side surface between the first surface and the second surface; and a brace disposed in the enclosure, the brace extending along the edge-to-edge opening.

Abstract: A computing device includes memory configured for storing executable instructions, a processor configured for executing the instructions, a foldable display layer configured for displaying information in response to the execution of the instructions, and a bend limit layer coupled to the foldable display layer and arranged substantially parallel to a display surface of the foldable display layer. The bend limit layer is configured to increase its stiffness non-linearly when a radius of a bend of the bend limit layer is less than a threshold radius of curvature of the foldable display layer, the threshold radius of curvature being greater than 1 mm and less than 20 mm.

Abstract: An apparatus for sensing user input includes a first strain gauge grouping attached to an inner surface of a housing of a device, and a second strain gauge grouping attached to the inner surface of the housing. The apparatus includes a circuit coupled to the first and second strain gauge groupings, the circuit being configured to: (i) receive a first parameter signal from the first strain gauge grouping in response to user input that interacts with the housing over a location of the first strain gauge grouping, (ii) indicate that a first type of user input has been received in response to receipt of the first parameter signal, (iii) receive a second parameter signal from the second strain gauge grouping in response to user input that interacts with the housing over a location of the second strain gauge grouping, and (iv) indicate that a second type of user input has been received in response to receipt of the second parameter signal.

Abstract: An apparatus utilizes multiple strain gauge (“SG”) sensing units which are each disposed adjacent an inner surface of the device housing. Electrical voltage generated by the SGs is amplified by one or more amplifiers to maximize the resolution between a voltage output of an SG when in a non-pressed state and a voltage output of the SG when in a pressed state. Additionally, an electronic circuit is configured to identify a baseline voltage output for an SG over a period of time for comparing to a voltage output for the SG when the SG is in a pressed state such that the pressed state of the SG can be identified by the electronic circuit by comparing a current output voltage of the SG to the identified baseline voltage.

Abstract: An electronic device includes: an enclosure having a first surface, a second surface, and a side surface disposed between the first and second surfaces; an edge-to-edge component mounted in an edge-to-edge opening that extends across substantially an entire width of the side surface between the first surface and the second surface; and a brace disposed in the enclosure, the brace extending along the edge-to-edge opening.

Abstract: An apparatus utilizes multiple strain gauge (“SG”) sensing units which are each disposed adjacent an inner surface of the device housing. Electrical voltage generated by the SGs is amplified by one or more amplifiers to maximize the resolution between a voltage output of an SG when in a non-pressed state and a voltage output of the SG when in a pressed state. Additionally, an electronic circuit is configured to identify a baseline voltage output for an SG over a period of time for comparing to a voltage output for the SG when the SG is in a pressed state such that the pressed state of the SG can be identified by the electronic circuit by comparing a current output voltage of the SG to the identified baseline voltage.