Abstract: A power tool battery pack enclosure is configured to be coupled to battery pack receptacles of a plurality of power tools, each battery pack receptacle configured to removably receive a plurality of power tool battery packs. The enclosure includes a first clamshell member and a second clamshell member configured to be coupled around at least a portion of an exterior surface of each battery pack receptacle. Each of the first and second clamshell members have a top wall portion configured to be received over the exterior surface of the battery pack receptacle and a sidewall portion that extends downward from the top wall portion over at least a portion of the battery pack housing when the battery pack is received in the battery pack receptacle.

Abstract: A processor to execute a plurality of tasks comprising a first task and a second task. At least a part of the first task is to be executed simultaneously with at least a part of the second task. The processor comprises a handling unit to: determine an available portion of a storage available during execution of the part of the first task; determine a mapping between at least one logical address associated with data associated with the part of the second task and a corresponding at least one physical address of the storage corresponding to the available portion; and identify, based on the mapping, the at least one physical address corresponding to the at least one logical address associated with the data, for storing the data in the available portion of the storage.

Abstract: Examples are directed to a system, device and/or method comprising forming at least one lead portion of a medical lead body in a non-linear configuration from a thermoset material. Some examples are directed to a system, device and/or method comprising forming a body supporting at least one contact electrode, the body at least partially defining a re-closable lumen and comprising engaging portions, at least one of the engaging portions being formed from a silicone material.

Abstract: A heat-assisted magnetic recording head includes a laser, a near-field transducer, a primary waveguide, a secondary waveguide, and a photodiode. The laser is configured to emit electromagnetic radiation. The near-field transducer is configured to focus and emit an optical near-field. The primary waveguide configured to receive the electromagnetic radiation and propagate the electromagnetic radiation toward and proximal to the near-field transducer. The secondary waveguide configured to receive a portion of the electromagnetic radiation from the primary waveguide. The photodiode configured to receive the portion of the electromagnetic radiation from the secondary waveguide and emit a signal that represents a magnitude of the electromagnetic radiation that the laser emits.

Abstract: Mobile management method, system and client. Method includes receiving a DNS query for a host name from an application on client; retrieving reputation data associated with host name from a local cache on client; and determining a policy based on host name and the reputation data. Based on determined policy for the host name, blocking attempted network flows to a host corresponding to host name to produce blocked attempted network flows. Method also includes sending attempted network flow metadata related to the blocked attempted network flows to a collector on client; transmitting the attempted network flow metadata from the collector to a VPN server pool via a VPN tunnel; and producing an anomaly report from the transmitted attempted network flow metadata. The anomaly report includes at least one of anomalies, cohorts, trends, location boundaries, detected network security issues, detected compromised clients and/or optimized network usage.

Abstract: A processor arranged to compress neural network activation data comprising an input module for obtaining neural network activation data. The processor also comprises a block creation module arranged to split the neural network activation data into a plurality of blocks; and a metadata generation module for generating metadata associated with at least one of the plurality of blocks. Based on the metadata generated a selection module selects a compression scheme for each of the plurality of blocks, and a compression module for applying the selected compression scheme to the corresponding block to produce compressed neural network activation data. An output module is also provided for outputting the compressed neural network activation data.

Abstract: A method of diagnosing a pneumatic system that (1) pressurizes the system to a first inflation pressure, (2) ceases the pressurizing for a settling-in time period, (3) measures a settled-in pressure after the settling-in time period, (4) measures a decayed pressure after a decay time period, (5) determines a determined rate of decay of the pressure in the system over the decay time period, and (6) compares the determined rate of decay to a first stored decay rate.

Abstract: A neural network model is in communication with a plurality of sensors to evaluate and determining an operating condition and/or life expectancy of one or more electrical or mechanical subsystems of personal mobility vehicle. The neural network model evaluates subsystem operation in the context of a personal mobility vehicle operational state to determine component status and generate an output indicative of one of component state of health or subsystem operation.

Abstract: A neural network model is in communication with a energy storage device sensor that monitors, evaluates, and determines an operating condition and/or life expectancy of one or more electrical or mechanical subsystems of an energy storage device, such as a battery, and an associated device. A battery sensor includes a microcontroller that processes information from the neural network model and evaluates the battery subsystem operation to determine component status and generate an output indicative of one of component state of health or subsystem operation.

Abstract: A media processing device includes: a media processing head; a ribbon transport assembly configured to transport ribbon along a ribbon path between a ribbon dispenser and the media processing head; a graphite applicator disposed along the ribbon path, the graphite applicator configured to apply a combination of graphite and graphene to an active side of the ribbon via frictional engagement with the ribbon; and a media transport assembly configured to transport media from a media supply to the media processing head for transfer of at least a portion of the combination of graphite and graphene from the active side of the ribbon onto the media via application of at least one of heat and pressure at the media processing head.

Abstract: A utility metering system configured to provide flow rate information is described that includes a utility meter and a utility metering endpoint. The utility meter is configured to generate and report a flow rate as a percentage of the maximum flow rate of the meter.

Abstract: A wearable heads-up display (“HUD”) for a pharmacy workflow management system is disclosed herein. An example HUD includes smart-glasses that are communicatively coupled to a client device. The smart-glasses include at least one camera and/or barcode scanner to record information needed for the verification of a medication dose during medication formulation preparation. The smart-glasses include at least one microphone to record voice commands. Further, the smart-glasses include at least one embedded display screen that shows sequential steps of a preparation protocol for guiding a pharmacy technician to prepare a medication dose. An application on the client device and/or the smart-glasses is configured to recognize and use voice commands to provide navigation for the embedded display screen. The voice commands may also be used to provide data entry for medication dose preparation verification. Gestures may be detected by the camera and translated by the application into navigation or data entry commands.

Abstract: Disclosed herein are delayed reaction threshold temperature indicators and methods of making and activating the same, the delayed reaction threshold temperature indicators including a first substrate, first and second layers, and a housing secured to the substrate. The first layer includes a first reactant and an optional meltable polymer, and the second layer includes a meltable polymer and a second reactant. The meltable polymer is configured to keep the first and second reactants from interacting with each other. When exposed to temperatures at and/or above a desired threshold for a period of time, the meltable polymer melts and allows the first and second reactants to come into contact with each other, thereby producing a visual change in appearance.

Abstract: Apparatuses, systems, and associated methods of manufacturing are described that provide for improved sensor devices. An example sensor device includes a magnet mounting tube and a magnet supported within the magnet mounting tube. The sensor device includes a sensor mounting tube that receives at least a portion of the magnet mounting tube and supported magnet therein. The sensor device includes a magnetic sensor affixed to the sensor mounting tube. The sensor device includes a spring positioned around the magnet mounting tube and the sensor mounting tube such that the magnet and the magnetic sensor are surrounded by the spring. In an instance in which a load is applied to either a first end or second end of the spring, the magnet mounting tube translates relative the sensor mounting tube so as to induce a change in magnetic flux identified by the magnetic sensor indicative of a weight of the load.

Abstract: A media processing device includes: a media processing head; a ribbon transport assembly configured to transport ribbon along a ribbon path between a ribbon dispenser and the media processing head; a graphite applicator disposed along the ribbon path, the graphite applicator configured to apply a combination of graphite and graphene to an active side of the ribbon via frictional engagement with the ribbon; and a media transport assembly configured to transport media from a media supply to the media processing head for transfer of at least a portion of the combination of graphite and graphene from the active side of the ribbon onto the media via application of at least one of heat and pressure at the media processing head.

Abstract: Disclosed herein are delayed reaction threshold temperature indicators and methods of making and activating the same, the delayed reaction threshold temperature indicators including a first substrate, first and second layers, and a housing secured to the substrate. The first layer includes a first reactant and an optional meltable polymer, and the second layer includes a meltable polymer and a second reactant. The meltable polymer is configured to keep the first and second reactants from interacting with each other. When exposed to temperatures at and/or above a desired threshold for a period of time, the meltable polymer melts and allows the first and second reactants to come into contact with each other, thereby producing a visual change in appearance.

Abstract: An activatable print medium is disclosed. The print medium includes a first reactive component, a second reactive component, wherein the first and second reactive components are configured to react to initiate a state change of the activatable print medium when exposed to each other and a barrier that is initially in an unactivated form and configured to transition to an activated form when activated by an application of at least one of an activation heat and an activation pressure wherein after the barrier is activated, but not before, the activatable print medium is configured so that the first and second reactive components interact in response to a predetermined environmental stimulus or interact over time at a rate dependent on an environmental stimulus, thereby providing an indication of the cumulative historical exposure of the activatable print medium to the environmental stimulus.

Abstract: Apparatuses, systems, and associated methods of manufacturing are described that provide for improved sensor devices. An example sensor device includes a magnet mounting tube and a magnet supported within the magnet mounting tube. The sensor device includes a sensor mounting tube that receives at least a portion of the magnet mounting tube and supported magnet therein. The sensor device includes a magnetic sensor affixed to the sensor mounting tube. The sensor device includes a spring positioned around the magnet mounting tube and the sensor mounting tube such that the magnet and the magnetic sensor are surrounded by the spring. In an instance in which a load is applied to either a first end or second end of the spring, the magnet mounting tube translates relative the sensor mounting tube so as to induce a change in magnetic flux identified by the magnetic sensor indicative of a weight of the load.

Abstract: A media processing device includes: a media processing head; a ribbon transport assembly configured to transport ribbon along a ribbon path between a ribbon dispenser and the media processing head; a graphite applicator disposed along the ribbon path, the graphite applicator configured to apply a combination of graphite and graphene to an active side of the ribbon via frictional engagement with the ribbon; and a media transport assembly configured to transport media from a media supply to the media processing head for transfer of at least a portion of the combination of graphite and graphene from the active side of the ribbon onto the media via application of at least one of heat and pressure at the media processing head.