Abstract: One or more computing devices, systems, and/or methods for determining statuses of objects using sensors are provided. For example, a first signal is received from a first device comprising a first sensor. The first signal is indicative of a first identifier associated with a first object that the first device is coupled to and/or one or more first properties detected by the first sensor. A first status associated with the first object is determined based upon the first identifier and/or the one or more first properties. In an example, a system comprises a first device coupled to a first object. The first device comprises a first sensor configured to detect one or more first properties of the first object. The first device comprises a first transmitter configured to transmit a first signal indicative of the one or more first properties and/or a first identifier associated with the first object.

Abstract: One or more computing devices, systems, and/or methods are provided. One or more first signals received from one or more first devices may be monitored. One or more first threat indicators within a first signal of the one or more first signals may be detected. One or more second signals may be analyzed to determine a probability of a threat event. One or more second devices of a plurality of devices may be selected, based upon the probability, for transmission of one or more messages associated with the threat event.

Abstract: One or more computing devices, systems, and/or methods are provided. One or more first signals received from one or more first devices may be monitored. One or more first threat indicators within a first signal of the one or more first signals may be detected. One or more second signals may be analyzed to determine a probability of a threat event. One or more second devices of a plurality of devices may be selected, based upon the probability, for transmission of one or more messages associated with the threat event.

Abstract: One or more computing devices, systems, and/or methods for determining statuses of objects using sensors are provided. For example, a first signal is received from a first device comprising a first sensor. The first signal is indicative of a first identifier associated with a first object that the first device is coupled to and/or one or more first properties detected by the first sensor. A first status associated with the first object is determined based upon the first identifier and/or the one or more first properties. In an example, a system comprises a first device coupled to a first object. The first device comprises a first sensor configured to detect one or more first properties of the first object. The first device comprises a first transmitter configured to transmit a first signal indicative of the one or more first properties and/or a first identifier associated with the first object.

Abstract: Disclosed are devices configured to execute multiple functions and methods for calculating a remaining power source life value. A method can include providing information related to the remaining power source life value correlated to operation of at least one of the multiple functions. Downloaded current drain information related to current drain during operation of at least one of multiple functions may be received by the device and/or may be internally detected. A current drain profile stored in memory may be updated based on current drain information. A remaining power source life value and/or a time-to-charge value can then be calculated, based on the updated current drain profile.

Abstract: MVS mainframe computer systems employ the ICF (Integrated Catalog Facility) catalog environment to manage numerous data sets. To provide nearly continuous availability of those data sets, the BCS catalog (250,270) must be re-organized while leaving the catalog open to access by applications. To perform a re-org while open, a data CI correlation table (500) can be constructed (314) and used to lay the data CIs into a backup file in logical order (316), so that they can be loaded into the new BCS catalog (324) without sorting, thereby reducing downtime.

Abstract: MVS mainframe computer systems employ the ICF (Integrated Catalog Facility) catalog environment to manage numerous data sets. To provide 24×7 availability of those data sets, the BCS (250,270) must be re-organized while leaving the catalog open to access by applications. To perform a re-org while open, a data CI correlation table (500) is constructed (314) and used to lay the data CIs into a backup file in logical order (316), so that they can be loaded into the new BCS (324) without sorting, thereby reducing downtime. Additionally, if the BCS is damaged during normal operation, repair of the structure must also be performed to ensure that correct access is maintained to all data that is cataloged in the BCS. Throughout the re-org process, structural integrity checks are performed on the data and index component of the BCS, and if errors are encountered, they can be repaired.