Abstract: Examples described herein relate to management of concurrent audio streams from different sources. Portable playback devices, such as wearable wireless headphones and earbuds, as well as portable battery-powered speakers, may include multiple network interfaces for connection to different types of networks, such as an 802.11-compatible network interface for connection to wireless local area networks (e.g., Wi-Fi® networks) and an 802.15-compatible network interface for connection to a mobile device via a personal area network (Bluetooth®). Via such connections, the playback devices may receive two or more concurrent streams. By managing these streams according to playback policies, the portable playback devices may play the user's intended audio without necessarily requiring user input to explicitly select among the concurrent streams.

Abstract: Example embodiments involve a metrics collection system for collecting software usage metrics from one or more client devices at deployments. A computer, such as a server configured to execute the metrics collection system, collects software usage metrics (e.g., as a metrics submission from a client device) of the software product at the deployment, identifies a metrics type of the software usage metrics collected, assigns the software usage metrics to a metrics category, and calculates and updates a metrics score of the metrics category, based on the software usage metrics collected.

Abstract: A height-adjustable desk is disclosed. Exemplary implementations may include a work surface, a left-side support structure, a right-side support structure, a core body, and a working body that provides the work surface. The core body may include lifting mechanisms such that the work surface of the desk may be positioned for a person in a standing and/or sitting position. The working body may include a control interface configured to be manually engaged by the user, to control lifting and/or lowering of the work surface of the desk.

Abstract: A desk with an upright partition is disclosed. The upright partition connects to the work surface of the desk. The upright partition is configured to support laterally-movable attachments. Exemplary implementations may include one or more of a work surface, a left-side support structure, a right-side support structure, a core body, a working body that provides the work surface, an upright partition that supports laterally-movable attachments, one or more laterally-movable attachments, and/or other components. The one or more laterally-movable attachments can be mechanically coupled to the upright partition and are supported by the upright partition.

Abstract: Embodiments herein describe a SoC with one or more untrusted islands that can host one or more roles or tenants in a data center environment (e.g., a cloud computing environment). In one embodiment, a secure shell encapsulates the untrusted islands with a secure application programming interface (API) to access other hardware resources in the SoC. Hardware resources in the SoC (e.g., HardIP, SoftIP, or both), can either be secure/trusted, or rely on the secure shell to ensure confidentiality.

Abstract: A height-adjustable desk is disclosed. Exemplary implementations may include a work surface, a left-side support structure, a right-side support structure, a core body, and a working body that provides the work surface. The core body may include lifting mechanisms such that the work surface of the desk may be positioned for a person in a standing and/or sitting position. The working body may include a control interface configured to be manually engaged by the user, to control lifting and/or lowering of the work surface of the desk.

Abstract: A desk with support structures configured to attach modular attachments is disclosed. Exemplary implementations may include a work surface, a left-side support structure, a right-side support structure, a core body, a working body that provides the work surface, one or more modular attachments, one or more mounting brackets, and/or other components. The one or more modular attachments can be mechanically coupled to and supported by either support structure.

Abstract: A height-adjustable desk is disclosed. Exemplary implementations may include a work surface, a left-side support structure, a right-side support structure, a core body, and a working body that provides the work surface. The core body may include lifting mechanisms such that the work surface of the desk may be positioned for a person in a standing and/or sitting position. The working body may include a control interface configured to be manually engaged by the user, to control lifting and/or lowering of the work surface of the desk.

Abstract: A desk with support structures configured to attach modular attachments is disclosed. Exemplary implementations may include a work surface, a left-side support structure, a right-side support structure, a core body, a working body that provides the work surface, one or more modular attachments, one or more mounting brackets, and/or other components. The one or more modular attachments can be mechanically coupled to and supported by either support structure.

Abstract: Methods and systems are provided for a pulley insert. In one example, a pulley insert for a FEAD pulley comprises a first member insertable into a pulley such that the first member is rotatable within the pulley, the first member comprising a cavity for receipt of a second member; and a second member insertable into the cavity of the first member such that, when the first member is inserted into a pulley and the second member is inserted into the cavity of the first member, the second member prevents rotation of the first member relative to the pulley.

Abstract: Systems and methods for managing an incident event by a public safety and security organization. The methods comprise: performing Near Field Communication (“NFC”) or Radio Frequency Identification (“RFID”) operations by a Land Mobile Radio (“LMR”) and a field computing device to check-in a field personnel member into an incident event; communicating check-in information to a remote computing device from the field computing device via a packet switched LMR infrastructure or a public network; and using the check-in information by the remote computing device to facilitate management of the incident event by the by public safety and security organization.

Abstract: Systems and methods for operating a Land Mobile Radio (“LMR”). The methods comprise: performing Near Field Communication (“NFC”) or Radio Frequency Identification (“RFID”) operations by the LMR and an external device; and sending from the LMR or receiving at the LMR information associated with the NFC or RFID operations via the packet switched LMR infrastructure. The information associated with the NFC or RFID operations includes, but is not limited to, check-in information for an incident event, check-out information for an incident, sensor data, authentication keys, verification keys, access codes, and LMR configuration (e.g. personality) information, LMR software code, and/or LMR firmware.

Abstract: Novel tools and techniques are provided for implementing logistical coordination, e.g., tracking of and coordination among technicians, vehicles, and inventory.

Abstract: Systems and methods for operating a Land Mobile Radio (“LMR”). The methods comprise: performing Near Field Communication (“NFC”) or Radio Frequency Identification (“RFID”) operations by the LMR and an external device; and sending from the LMR or receiving at the LMR information associated with the NFC or RFID operations via the packet switched LMR infrastructure. The information associated with the NFC or RFID operations includes, but is not limited to, check-in information for an incident event, check-out information for an incident, sensor data, authentication keys, verification keys, access codes, and LMR configuration (e.g. personality) information, LMR software code, and/or LMR firmware.

Abstract: Systems and methods for managing an incident event by a public safety and security organization. The methods comprise: performing Near Field Communication (“NFC”) or Radio Frequency Identification (“RFID”) operations by a Land Mobile Radio (“LMR”) and a field computing device to check-in a field personnel member into an incident event; communicating check-in information to a remote computing device from the field computing device via a packet switched LMR infrastructure or a public network; and using the check-in information by the remote computing device to facilitate management of the incident event by the by public safety and security organization.

Abstract: Methods and systems are provided for a pulley insert. In one example, a pulley insert for a FEAD pulley comprises a first member insertable into a pulley such that the first member is rotatable within the pulley, the first member comprising a cavity for receipt of a second member; and a second member insertable into the cavity of the first member such that, when the first member is inserted into a pulley and the second member is inserted into the cavity of the first member, the second member prevents rotation of the first member relative to the pulley.

Abstract: In various implementations, a first computing device (such as a cloud-based server) receives, from a second computing device (e.g., a notebook computer, tablet computer, or smartphone) a graphical annotation for a document displayed on the second computing device. The first computing device stores the graphical annotation in a database in a graphical annotation data entity and creates an association between an entity containing the portion of the document to which the graphical annotation is to be anchored and the graphical annotation entity.

Abstract: Systems, methods, and devices that provide personalized sleep improvement programs for improving sleep habits are described. The personalized sleep improvement programs may include sleep characteristics of a user, at least one factor impacting a sleep of the user, at least one sleep goal for the user, and a sleep-related performance of the user.

Abstract: In various implementations, a first computing device (such as a cloud-based server) receives, from a second computing device (e.g., a notebook computer, tablet computer, or smartphone) a graphical annotation for a document displayed on the second computing device. The first computing device stores the graphical annotation in a database in a graphical annotation data entity and creates an association between an entity containing the portion of the document to which the graphical annotation is to be anchored and the graphical annotation entity.