Abstract: A baluster installation system. The system can comprise a connector comprising a first section for engaging an end of a baluster and a second end for engaging a route in a handrail. The first section can comprise a first shaft and a plurality of first ribs extending from the first shaft, and the second section can include a second shaft and a plurality of second ribs extending from the second shaft. The first ribs can be adapted to engage a portion of the baluster when the first section is engaged with the end of the baluster, and the second ribs can be adapted to engage sidewalls of the route when the second section is engaged with the route.

Abstract: A handrail attachment system. The system can comprise a connector comprising a body for being at least partially received in a recess in a support structure and an outer face for engaging an end face of a handrail. The connector can include a handrail mounting hole for at least partially receiving a first fastener for at least partially mounting the connector to the end face of the handrail and a support mounting hole for at least partially receiving a second fastener for mounting the connector to the support structure.

Abstract: Approaches are provided for a prediction model determining a prediction indicative of the authorized user being associated with at least one anomaly event. In one example, a computer system may receive data from different sources. For example, the system may receive data associated with use of one or more monitored units of an automated storage and retrieval location. The system may also receive request data associated with a request for execution of the monitored controlled unit by an authorized user to a target user. The prediction model of the system may utilize the received data to determine the prediction that the authorized user is associated with at least one anomaly event associated with a diversion of a monitored unit away from the target user. The system may then provide the prediction for presentation.

Abstract: A wireless sensor assembly incudes a housing, a wireless power source, a wireless communication component, and firmware. The housing defines a first aperture for receiving an external sensor and a second aperture defining a communication port configured to receive a wire harness. The wireless communications component and the firmware are powered by the wireless power source. The wireless communications component is configured to be in electrical communication with the external sensor and transmit data from the external sensor to an external device. The firmware is configured to manage a rate of data transmittal from the wireless communications component to the external device. The wireless power source, the wireless communications component, and the firmware are mounted within the same housing. The data from the external sensor is transmitted from the external sensor wirelessly through the wireless communications component or through the wire harness to the external device for processing.

Abstract: A handrail attachment system. The system can comprise a connector comprising a body for being at least partially received in a recess in a support structure and an outer face for engaging an end face of a handrail. The connector can include a handrail mounting hole for at least partially receiving a first fastener for at least partially mounting the connector to the end face of the handrail and a support mounting hole for at least partially receiving a second fastener for mounting the connector to the support structure.

Abstract: A system for lubricating multiple frac valves while allowing the operator to remain out of the red zone. A system of high flow mandrels and valves allows an operator to enter the red zone a minimal number of times. Generally, when using the system, the operator will enter the red zone prior to the fracking operation beginning to connect the various lines to each frac valve and then after the frac job is complete to disconnect the various lines from each frac valve. A high-pressure pump provides lubricant at a sufficient pressure and volume to a high-pressure manifold or high-pressure manifolds. The high-pressure manifolds supply the hose reels through valves located near the manifold. The hose reels in turn are the lines that are connected to each frac valve Using the system, the operator may remain outside of the red zone with the lubricant reservoir, the pump, the high-pressure manifolds, and the hose reels.

Abstract: A method for managing device lifecycles within an industrial automation environment includes receiving a request for lifecycle management data including a scanning configuration, producing configuration data obtained by scanning industrial devices specified by the scanning configuration, receiving lifecycle management data including a lifecycle phase for the industrial devices, generating a graphical representation of the lifecycle phase of the industrial devices, determining an identity of a replacement device for a first industrial device of the industrial devices having a predetermined lifecycle phase, generating a graphical representation of replacement information including the identity of the replacement device, and managing migration to the replacement device by initiating replacement of the first industrial device with the replacement device.

Abstract: A method for managing device lifecycles within an industrial automation environment. The method includes receiving a scanning configuration and a request for lifecycle management data through a user interface, and based on the scanning configuration, scanning a plurality of industrial devices within the industrial automation environment to produce configuration data for the industrial automation environment. The method also includes transferring the configuration data and the request for lifecycle management data to a product compatibility and download center through a communication interface, receiving lifecycle management data from the product compatibility and download center through the communication interface, and displaying the lifecycle management data to a user through the user interface.

Abstract: A sensor assembly includes a housing that defines an interior space. The sensor assembly includes a sensor connected to the housing at the aperture. The sensor assembly includes a wireless power source disposed within the interior space. The sensor assembly includes electronics disposed within the interior space and configured to receive power from the wireless power source. The electronics include a communication board and a sensor connector, and the sensor is configured to transmit data to the communication board via the sensor connector.

Abstract: A wireless sensor assembly incudes a housing, a wireless power source, a wireless communication component, and firmware. The housing defines a first aperture for receiving an external sensor and a second aperture defining a communication port configured to receive a wire harness. The wireless communications component and the firmware are powered by the wireless power source. The wireless communications component is configured to be in electrical communication with the external sensor and transmit data from the external sensor to an external device. The firmware is configured to manage a rate of data transmittal from the wireless communications component to the external device. The wireless power source, the wireless communications component, and the firmware are mounted within the same housing. The data from the external sensor is transmitted from the external sensor wirelessly through the wireless communications component or through the wire harness to the external device for processing.

Abstract: Systems, program products, and methods for detecting thermal stability within gas turbine systems are disclosed. The systems may include a computing device(s) in communication with a gas turbine system, and a plurality of sensors positioned within or adjacent the gas turbine system. The sensor(s) may measure operational characteristics of the gas turbine system. The computing device(s) may be configured to detect thermal stability within the gas turbine system by performing processes including calculating a lag output for each of the plurality of measured operational characteristics. The calculated lag output may be based on a difference between a calculated lag for the measured operational characteristics and the measured operational characteristic itself. The calculated lag output may be also be based on a time constant for the measured operational characteristics. The computing device(s) may also determine when each of the calculated lag outputs are below a predetermined threshold.

Abstract: The present application is directed to a double seam modification tooling apparatus for double seam modification and the double seam modification process. More particularly, a tooling apparatus for double seam modification is provided which adds a third modification operation to the first and second double seam operations which form the finished double seam, as well as a process for modifying double seams to include patterns of integral slots, notches or threads, or the like, after the double seams have been previously completely formed by the double seam modification tooling apparatus. Child resistant lids can then be configured with mating tab notches or tab threads to allow for opening or closing the lid when the tabs are properly aligned with the notches and threads on the can rim modified double seams.

Abstract: A wireless sensor assembly includes a housing defining a first aperture for receiving an external sensor, and a second aperture defining a communication port, a wireless power source mounted within the housing, and electronics mounted to the housing and configured to receive power from the wireless power source and to be in electrical communication with the external sensor. The electronics include a wireless communications component, and firmware configured to manage a rate of data transmittal from the wireless communications component to an external device. The communication port is configured to receive a wire harness connected to the external sensor.

Abstract: A handrail attachment system. The system can comprise a connector comprising a body for being at least partially received in a recess in a support structure and an outer face for engaging an end face of a handrail. The connector can include a handrail mounting hole for at least partially receiving a first fastener for at least partially mounting the connector to the end face of the handrail and a support mounting hole for at least partially receiving a second fastener for mounting the connector to the support structure.

Abstract: A baluster installation system. The system can comprise a connector comprising a first section for engaging an end of a baluster and a second end for engaging a route in a handrail. The first section can comprise a first shaft and a plurality of first ribs extending from the first shaft, and the second section can include a second shaft and a plurality of second ribs extending from the second shaft. The first ribs can be adapted to engage a portion of the baluster when the first section is engaged with the end of the baluster, and the second ribs can be adapted to engage sidewalls of the route when the second section is engaged with the route.

Abstract: The present application is directed to a double seam modification tooling apparatus for double seam modification and the double seam modification process. More particularly, a tooling apparatus for double seam modification is provided which adds a third modification operation to the first and second double seam operations which form the finished double seam, as well as a process for modifying double seams to include patterns of integral slots, notches or threads, or the like, after the double seams have been previously completely formed by the double seam modification tooling apparatus. Child resistant lids can then be configured with mating tab notches or tab threads to allow for opening or closing the lid when the tabs are properly aligned with the notches and threads on the can rim modified double seams.

Abstract: A sensor assembly includes a power source configured to store and output electrical power, a wireless communication component, a sensor, and a microprocessor electrically coupled to the power source, the wireless communication component, and the sensor. The microprocessor is configured to receive a startup command. In response to receiving the startup command, the microprocessor is configured to determine whether an amount of electrical power stored by the power source is sufficient to complete the startup command, receive the electrical power output by the power source during a first time period in response to the amount of power being sufficient to complete the startup command, and receive the electrical power output by the power source during a second time period in response to the amount of power being insufficient to complete the startup command, where the second time period is greater than the first time period.

Abstract: In some examples, there may be provided systems, devices, and methods for using data from disparate sources to determine whether diversion events have occurred. A diversion event may be when a monitored unit intended for a target user is diverted away from the target user.

Abstract: Systems, program products, and methods for detecting thermal stability within gas turbine systems are disclosed. The systems may include a computing device(s) in communication with a gas turbine system, and a plurality of sensors positioned within or adjacent the gas turbine system. The sensor(s) may measure operational characteristics of the gas turbine system. The computing device(s) may be configured to detect thermal stability within the gas turbine system by performing processes including calculating a lag output for each of the plurality of measured operational characteristics. The calculated lag output may be based on a difference between a calculated lag for the measured operational characteristics and the measured operational characteristic itself. The calculated lag output may be also be based on a time constant for the measured operational characteristics. The computing device(s) may also determine when each of the calculated lag outputs are below a predetermined threshold.

Abstract: A system for flare combustion control includes a sound speed measurement device for measuring sound speed in a flare vent gas, and a flare combustion controller including a memory and a processor. The processor is configured to receive the measured sound speed and determine, based on the measured sound speed, a molecular weight of the flare vent gas. The processor is further configured to determine, based on the determined molecular weight, a net heating value of the flare vent gas, and adjust the net heating value of the flare vent gas by regulating an amount of a supplemental fuel gas in the flare vent gas.