Abstract: Systems, apparatuses, methods, and computer program products are disclosed for pricing a callable instrument. A plurality of paths corresponding to the value of an underlying entity of the callable instrument are determined corresponding to a set of dates. The set of dates includes a particular exercise date of the callable instrument. A deep neural network (DNN) of a backward DNN with value reset solver is trained until a convergence requirement is satisfied. The backward DNN with value reset solver propagates in reverse time order from a final value to an initial value based on the path. At the particular exercise date, an expected value is determined and compared to criteria. If the criteria are satisfied the value of the callable instrument at the particular exercise date is set to a reset value, otherwise the value at the particular exercise date is maintained as a value determined via the propagation.

Abstract: Apparatus and methods for restricting egress of sensor data from a feature detection process to an interactor process. The sensor data can include audio data, image data, location data, and/or other sensor-based data. The feature detection process is sandboxed to restrict the egress of data from the component. Once the feature detection process determines that a feature has been detected in sensor data, the interactor process can be provided with the sensor data and/or additional sensor data. The sensor data and/or the additional sensor data can be provided directly by an operating system and not via the feature detection process. In some implementations, a notification can be rendered once data is sent to the interactor process. The notification can indicate that the sensor data is being accessed. Rendering of the notification can be suppressed when only the sandboxed feature detection process is accessing the sensor data.

Abstract: The invention generally relates to analyzing yeast viability and reproduction rate of yeasts. More particularly, the invention relates to efficient and effective methods and compositions for accessing and measuring budding percentages, viability and concentration of yeast cells.

Abstract: The invention provides a method for accurate, efficient and high-throughout measurement of cell viability of diverse biological samples.

Abstract: The invention generally relates to analyzing yeast viability and reproduction rate of yeasts. More particularly, the invention relates to efficient and effective methods and compositions for accessing and measuring budding percentages, viability and concentration of yeast cells.

Abstract: Examples are disclosed that facilitate using enhanced cell global identifier to effectively manage the handover of cellular communication services for a mobile device in an LTE network from a source, or serving, evolved Node B (eNB) to a target home evolved Node B (HeNB). The increased use of HeNBs to provide service to mobile devices creates issues for the management of tracking area identifiers associated with the eNB and HeNBs and may increase tracking area update (TAU) signaling in the cellular network. The handover of a mobile device moving from an eNB coverage area to a neighboring HeNB coverage area is managed without use of a tracking area identifier by using enhanced cell global identifiers assigned to the respective HeNB. The following provides examples for minimizing the burden on the network devices to manage the administration of TAIs and that may reduce TAU signaling in the cellular network.

Abstract: The invention generally relates to analytical and monitoring systems useful for analyzing and measuring cells and biological samples. More particularly, the invention provides systems and methods for internal calibration and focus reference for cytometry imaging.

Abstract: The operational status of devices (such as routers, gateways, etc.) may be determined automatically, without the need for a user to look up status lights or sounds in a manual. A particular device may be automatically identified (e.g., by image recognition techniques), and the operational status may also be automatically identified. For example, a user device may capture an image, video, and/or audio of the device, and may automatically identify an operational status of the device based on the captured image, video, and/or audio. A message and/or suggested set of actions may also be presented to the user, which may indicate the operational status and instructions for one actions that the user may perform to improve the operational status of the device.

Abstract: The operational status of devices (such as routers, gateways, etc.) may be determined automatically, without the need for a user to look up status lights or sounds in a manual. A particular device may be automatically identified (e.g., by image recognition techniques), and the operational status may also be automatically identified. For example, a user device may capture an image, video, and/or audio of the device, and may automatically identify an operational status of the device based on the captured image, video, and/or audio. A message and/or suggested set of actions may also be presented to the user, which may indicate the operational status and instructions for one actions that the user may perform to improve the operational status of the device.

Abstract: Examples are disclosed that facilitate using enhanced cell global identifier to effectively manage the handover of cellular communication services for a mobile device in an LTE network from a source, or serving, evolved Node B (eNB) to a target home evolved Node B (HeNB). The increased use of HeNBs to provide service to mobile devices creates issues for the management of tracking area identifiers associated with the eNB and HeNBs and may increase tracking area update (TAU) signaling in the cellular network. The handover of a mobile device moving from an eNB coverage area to a neighboring HeNB coverage area is managed without use of a tracking area identifier by using enhanced cell global identifiers assigned to the respective HeNB. The following provides examples for minimizing the burden on the network devices to manage the administration of TAIs and that may reduce TAU signaling in the cellular network.

Abstract: Examples are disclosed that facilitate using enhanced cell global identifier to effectively manage the handover of cellular communication services for a mobile device in an LTE network from a source, or serving, evolved Node B (eNB) to a target home evolved Node B (HeNB). The increased use of HeNBs to provide service to mobile devices creates issues for the management of tracking area identifiers associated with the eNB and HeNBs and may increase tracking area update (TAU) signaling in the cellular network. The handover of a mobile device moving from an eNB coverage area to a neighboring HeNB coverage area is managed without use of a tracking area identifier by using enhanced cell global identifiers assigned to the respective HeNB. The following provides examples for minimizing the burden on the network devices to manage the administration of TAIs and that may reduce TAU signaling in the cellular network.

Abstract: Examples are disclosed that facilitate using enhanced cell global identifier to effectively manage the handover of cellular communication services for a mobile device in an LTE network from a source, or serving, evolved Node B (eNB) to a target home evolved Node B (HeNB). The increased use of HeNBs to provide service to mobile devices creates issues for the management of tracking area identifiers associated with the eNB and HeNBs and may increase tracking area update (TAU) signaling in the cellular network. The handover of a mobile device moving from an eNB coverage area to a neighboring HeNB coverage area is managed without use of a tracking area identifier by using enhanced cell global identifiers assigned to the respective HeNB. The following provides examples for minimizing the burden on the network devices to manage the administration of TAIs and that may reduce TAU signaling in the cellular network.

Abstract: The invention generally relates to analytical and monitoring systems useful for analyzing and measuring cells and biological samples. More particularly, the invention relates to systems and methods for imaging, measuring, counting, analyzing, and monitoring microscopic particles such as cells and biological molecules in solution samples.

Abstract: The invention generally relates to analytical and monitoring systems useful for analyzing and measuring cells and biological samples. More particularly, the invention provides systems and methods for internal calibration and focus reference for cytometry imaging.

Abstract: One or more devices may receive information that identifies a format of an identifier of a network device. The format of the identifier may indicate a portion of the identifier that identifies a type of the network device. The one or more devices may receive the identifier of the network device based on a user device connecting with the network device to communicate via the network device; determine the type of the network device connected to the user device based on the portion of the identifier and a format of the identifier that identifies the type of network device; and execute a processing instruction based on the type of network device connected to the user device.