Abstract: A system can include an axial field rotary energy device with an axis of rotation and a rotor coaxial with the axis and having a shaft, bearings, rotor disks that are coaxial and permanent magnets on each rotor disk. A printed circuit board (PCB) stator is located between the rotor disks to define an air gap on each side of the PCB stator. An enclosure has two enclosure sections with an inspection port. Bearing caps and bearings are mounted to the rotor. A variable frequency drive (VFD) assembly is coupled to the axial field rotary energy device. The VFD has a flexible conduit that extends between the VFD housing and the axial field rotary energy device. The flexible conduit can adapt to different sizes of axial field rotary energy devices.

Abstract: A system has an axial field rotary energy device with a housing, an axis and a rotor with a shaft, bearings, rotor disks and permanent magnets. A printed circuit board (PCB) stator is between the rotor disks to define an air gap on each side thereof. A variable frequency drive (VFD) assembly has a VFD housing and first pads coupled to inductors to facilitate heat removal from the inductors. A concave cradle is coupled to a ferromagnetic core and has a same contour as an outer surface of the ferromagnetic core. A second pad is coupled to a rectifier module. A third pad is coupled to switching devices and has pins to align the switching devices with the third pad. Standoffs are coupled to the VFD housing to support a first printed circuit board assembly (PCBA). A second PCBA is mounted to a shield plate above the first PCBA.

Abstract: A system can include an axial field rotary energy device with an axis of rotation and a rotor coaxial with the axis and having a shaft, bearings, rotor disks that are coaxial and permanent magnets on each rotor disk. A printed circuit board (PCB) stator is located between the rotor disks to define an air gap on each side of the PCB stator. An enclosure has two enclosure sections with an inspection port. Bearing caps and bearings are mounted to the rotor. A variable frequency drive (VFD) assembly is coupled to the axial field rotary energy device. The VFD has a flexible conduit that extends between the VFD housing and the axial field rotary energy device. The flexible conduit can adapt to different sizes of axial field rotary energy devices.

Abstract: In a preferred embodiment of the invention, transaction systems create instruments and transaction products using a transaction product computer. The transaction product computer accepts transaction product input as a means to customize a transaction product that can be offered to end users. The platform has a product engine that accepts parameters and builds an application programming interface transaction product that enables user devices to manage and configure aspects of the transaction product and value unit transactions at the product level and on a per-transaction basis.

Abstract: The technologies discussed herein relate to methods, systems, media, etc., for automatically triggering a user device action based on utilizing one or more ethanol sensor devices. In embodiments, an ethanol sensor device can detect ethanol vapor concentrations and determine whether the concentration is above a threshold. In embodiments, the ethanol sensor device can transmit the detected concentrations to one or more servers, which can cause the user device to initiate an action based on a concentration level that is above the threshold. For example, the server can provide one or more ride hailing services, such that the server initiates the user device action that includes providing, for display on a user interface of the user device, one or more selectable ride hailing transportation options from a location corresponding to the user device. In some embodiments, the server provides services corresponding to physical or mental health.

Abstract: The technologies discussed herein relate to methods, systems, media, etc., for transmitting out-of-band signals to initiate a user device trigger. In embodiments, an out-of-band node is configured to wirelessly transmit out-of-band signals to a user device that is within a threshold distance of the out-of-band node. For example, an out-of-band signal can include an ultrasonic wave. In some embodiments, two or more out-of-band nodes are positioned in an indoor room of a building. In embodiments, the transmitted out-of-band signals transmitted by the out-of-band node can include encoded data, which was received by the out-of-band node over a network from one or more servers, wherein the encoded data, when received by a user device via the out-of-band signal, triggers the user device to initiate an action. For example, the action may include automatically opening an application and initiating an update to a telecommunications service.

Abstract: Systems, methods, and computer-readable media are provided for performing a caching action based on end-user cues. An indication corresponding to the intent of a user is initially detected at a sensor associated with a display providing content. Based on the indication and historical information, the intent of the user is predicted. A caching action corresponding to additional content is provided based on the intent of the user. For example, the caching action may be to preemptively cache the additional content. Alternatively, the caching action is to cease preemptively caching the additional content.

Abstract: Systems, methods, and computer-readable media are provided for leveraging physical state changes of user equipment (UE) for authentication. A series of unlock gestures comprising physical state changes are received via one or more sensors of the UE. The physical state changes may comprise detecting location of the UE, changes to movement of the UE, changes to orientation of the UE, contact with the UE, a volume of audible signals, or an intensity of light. After the series of unlock gestures are interpreted at the UE, at least a portion of the UE is unlocked to perform a specific action. The specific action may comprise unlocking the UE, opening an application on the UE, causing the UE to communicate information to another device, causing fake information to be displayed by the UE, causing sensitive information to be encrypted or unavailable, or blocking a portion of functionality of the UE.

Abstract: A gas-liquid contactor for capturing carbon dioxide (CO2) from ambient air includes a flow system comprising: a top basin containing a CO2 capture solution, and a liquid distribution pipe in fluid communication with a turbine nozzle. A pump flows the CO2 capture solution to the turbine nozzle to emit a pressurized flow of the CO2 capture solution. A hydraulic fan comprises a shaft, a hydraulic turbine mounted to the shaft, and fan blades mounted to the shaft. The fan blades are positioned adjacent to an outlet, and the hydraulic turbine is positioned adjacent to the turbine nozzle and rotates upon the pressurized flow of the CO2 capture solution from the turbine nozzle impacting the hydraulic turbine. Rotation of the hydraulic turbine causes rotation of the fan blades, circulation of the ambient air through an inlet and circulation of a CO2-lean gas through the outlet. Related systems and methods are disclosed.

Abstract: The technologies discussed herein relate to a biometrics system comprising one or more processors, computer storage memory having computer-executable instructions, surgically implantable devices, and wearables (e.g., an apparel item configured for an upper torso, an apparel item configured for a lower torso, a sock, a headband, other types of wearables, or one or more combinations thereof) having one or more biometric sensors (e.g., a heart rate sensor, a sweat sensor, a glucose sensor, other types of biometric sensors, or one or more combinations thereof) and one or more sensation devices (e.g., a plurality of visible light sources, a haptic feedback device, other types of sensation devices, or one or more combinations thereof). The wearables may also include one or more environmental sensors. The wearables emulate, transmogrify, or enhance one or more human senses using the one or more sensation devices based on biometric data or environmental data received.

Abstract: Techniques for generating action recommendations for a data tape system are disclosed. A data tape system generates action recommendations for a data tape based on library-based metadata messages as well as a measured data quality value of the data tape. The system initiates an operation resulting in the data tape interacting with a media drive. A data tape library controller generates one or more metadata messages based on a result of a requested operation. The metadata message may include information regarding the type of error and a default recommended course of action. The system generates the recommended action for the data tape using a trained machine learning model.

Abstract: Systems and methods for converting live weather data to a weather index for offsetting weather risk. Weather data source systems generate one or more weather data streams that include weather forecast model and observations data. A data distribution system receives a weather index request, identifies at least one instrument and at least one location associated with the request. Weather risk indication data is extracted among the weather data streams associated with the identified location based on predefined parameters associated with the identified instrument. The extracted data is converted into a set of weather index values corresponding to the location, based on a predetermined algorithm associated with the identified instrument. A weather index presentation package is generated that includes the set of weather index values for distribution to at least one user device. The weather index presentation package being distributed is updated concurrent with changes to weather risk indication data.

Abstract: Data integration and distribution systems. A system includes a graphical user interface (GUI). Weather and market data are collected. A weather symbology including symbol elements linked to segments of the collected weather data and rules for generating weather symbology instructions are stored. The GUI is generated for display on a user device. A weather symbology instruction is determined based on at least one requested symbol element indicated in a weather data request and the rules. A weather forecast dataset is created from among the collected weather data based on the weather symbology instruction. A presentation package including the weather forecast dataset and the collected market data is generated such that the weather forecast dataset is integrated with the collected market data. The presentation package is presented on the GUI and updated concurrent with changes to at least one of the weather data, the market data and user input.

Abstract: In a described example, a circuit includes a synchronization control circuit having a sync input and a sync control output, in which the sync input is coupled to a sync terminal configured to receive an external clock signal. An internal clock generator circuit has a control input and an output. The control input is coupled to the sync control output. An output circuit has first and second signal inputs, a mode control input and a clock output. The first signal input is coupled to the sync input, and the second signal input of the output circuit is coupled to the output of the internal clock generator circuit. The mode control input is coupled to the sync control output, and the clock output adapted to be coupled to a controller.

Abstract: A system can include an axial field rotary energy device with an axis of rotation and a rotor coaxial with the axis and having a shaft, bearings, rotor disks that are coaxial and permanent magnets on each rotor disk. A printed circuit board (PCB) stator is located between the rotor disks to define an air gap on each side of the PCB stator. An enclosure has two enclosure sections with an inspection port. Bearing caps and bearings are mounted to the rotor. A variable frequency drive (VFD) assembly is coupled to the axial field rotary energy device. The VFD has a flexible conduit that extends between the VFD housing and the axial field rotary energy device. The flexible conduit can adapt to different sizes of axial field rotary energy devices.

Abstract: Systems and methods for converting live weather data to a weather index for offsetting weather risk. Weather data source systems generate one or more weather data streams that include weather forecast model and observations data. A data distribution system receives a weather index request, identifies at least one instrument and at least one location associated with the request. Weather risk indication data is extracted among the weather data streams associated with the identified location based on predefined parameters associated with the identified instrument. The extracted data is converted into a set of weather index values corresponding to the location, based on a predetermined algorithm associated with the identified instrument. A weather index presentation package is generated that includes the set of weather index values for distribution to at least one user device. The weather index presentation package being distributed is updated concurrent with changes to weather risk indication data.

Abstract: A system has an axial field rotary energy device with a housing, an axis and a rotor with a shaft, bearings, rotor disks and permanent magnets. A printed circuit board (PCB) stator is between the rotor disks to define an air gap on each side thereof. A variable frequency drive (VFD) assembly has a VFD housing and first pads coupled to inductors to facilitate heat removal from the inductors. A concave cradle is coupled to a ferromagnetic core and has a same contour as an outer surface of the ferromagnetic core. A second pad is coupled to a rectifier module. A third pad is coupled to switching devices and has pins to align the switching devices with the third pad. Standoffs are coupled to the VFD housing to support a first printed circuit board assembly (PCBA). A second PCBA is mounted to a shield plate above the first PCBA.

Abstract: Systems and methods are provided for personalizing video content using information associated with a viewer of the video content. An indication is received from a host device that dynamic user background replacement is to be used for the video content. An indication is then received of one or more aspects of the video content to be personalized. Potential viewers of the video content are identified. Once identified, a database is queried for personalized information associated with a first viewer of the potential viewers of the video content. Based on the personalized information associated with the first viewer, an original video content version of the video content is modified to generate a first video content version of the video content.

Abstract: Methods and systems employing augmented reality techniques via real-world objects for various purposes. Computer implemented methods are provided for animated augmentation of real-time video of static real-world objects. A computing device receives first data defining features and movements of a human subject, captures a video image of an object having features corresponding to human features, maps features defined by first data to corresponding features of the object, and uses the first data to animate the corresponding features of the object to correspond with the movements of the human subject defined by the first data. The object may be a physical 3D object. Embodiments may include positioning and orienting a 3D mesh representation of the object in registration with the object video image, prior to mapping the features defined by the first data to corresponding features on the 3D mesh. Recorded audio messages may be played in synchronism with the object.

Abstract: In described examples, a method includes receiving, by a power delivery (PD) controller, a first sensed voltage, while the PD controller is producing a first control signal and in response to determining that the first sensed voltage passes a threshold voltage, starting, by the PD controller, a timer, where the threshold voltage is a first threshold, a second threshold, or a third threshold. The method also includes during a time period of the timer, producing, by the PD controller, the first control signal and during the time period of the timer, receiving, by the PD controller, a second sensed voltage. Additionally, the method includes after expiration of the timer, producing, by the PD controller, a second control signal based on the second sensed voltage.