Abstract: The ball socket assembly includes a housing which has at least one open end and an inner bore that extends along a central axis. The ball socket assembly further includes a ball stud that has a ball portion and a shank portion. The ball portion is disposed in the inner bore of the housing, and the shank portion extends out of the inner bore through the at least one open end. At least one bearing is disposed in the inner, and the at least one bearing has a bearing surface which is in direct contact with the ball portion of the ball stud. The at least one bearing is made of a monolithic piece of a spring-like material and has a single gap and is flexed to preload the at least one bearing against the ball portion.

Abstract: An electronic rodent trap comprises a trap body, a high voltage killing circuit and a barrier. The trap body includes an upper wall assembly and a floor spaced from one another and joined by a left side and a right side. The upper wall assembly forms a fixed ceiling for the trap body. The trap body defines an open entrance end to provide rodents with access to an interior of the trap, and a closed baited end opposite the entrance end. The high voltage killing circuit includes at least three killing plates positioned on the floor in a spaced relationship to create a pathway for a rodent from the entrance end to the baited end. The plates include a first plate nearest the baited end, a second plate nearest the entrance end, and a center plate positioned between the first and second plates. The barrier extends downwardly from the trap ceiling into the trap interior and defines a bottom edge positioned above the center plate.

Abstract: An enclosure-type electronic rat trap having an interior accessed through a trap entrance and a rat pathway that leads from the entrance to a baited end opposite the entrance is provided. At least three killing plates coupled to a high voltage circuit are positioned along the pathway in spaced relationship and a barrier extends into and constricts the pathway at a specified distance from a center plate in order to reduce the ability of the rat to escape the trap once the rat has traveled along the pathway sufficiently to initiate a killing cycle.

Abstract: Devices and/or computer-implemented methods to facilitate a multipole filter on a quantum device with multiplexing capability and signal separation to mitigate crosstalk are provided. According to an embodiment, a device can comprise an interposer substrate comprising a readout resonator. The device can further comprise a qubit chip substrate comprising a qubit coupled to the readout resonator and to a multipole filter.

Abstract: Devices and/or computer-implemented methods facilitating static ZZ suppression and Purcell loss reduction using mode-selective coupling in two-junction superconducting qubits are provided. In an embodiment, a device can comprise a superconducting bus resonator. The device can further comprise a first superconducting qubit. The device can further comprise a second superconducting qubit, the first superconducting qubit and the second superconducting qubit respectively comprising: a first superconducting pad; a second superconducting pad; a third superconducting pad; a first Josephson Junction coupled to the first superconducting pad and the second superconducting pad; and a second Josephson Junction coupled to the second superconducting pad and the third superconducting pad. The first superconducting pad and the second superconducting pad of the first superconducting qubit and the second superconducting qubit are coupled to the superconducting bus resonator.

Abstract: Devices and/or computer-implemented methods to facilitate ZZ cancellation between qubits are provided. According to an embodiment, a device can comprise a coupler device that operates in a first oscillating mode and a second oscillating mode. The device can further comprise a first superconducting qubit coupled to the coupler device based on a first oscillating mode structure corresponding to the first oscillating mode and based on a second oscillating mode structure corresponding to the second oscillating mode. The device can further comprise a second superconducting qubit coupled to the coupler device based on the first oscillating mode structure and the second oscillating mode structure.

Abstract: Systems and techniques that facilitate mode-selective couplers for frequency collision reduction are provided. In various embodiments, a device can comprise a control qubit. In various aspects, the device can comprise a first target qubit coupled to the control qubit by a first mode-selective coupler. In various instances, the first mode-selective coupler can facilitate A-mode coupling between the control qubit and the first target qubit. In various embodiments, the device can comprise a second target qubit coupled to the control qubit by a second mode-selective coupler. In various aspects, the second mode selective coupler can facilitate B-mode coupling between the control qubit and the second target qubit. In various embodiments, the first mode-selective coupler can comprise a capacitor that capacitively couples a middle capacitor pad of the control qubit to a middle capacitor pad of the first target qubit.

Abstract: Systems and methods are disclosed for validating the installation and operation of a fault detection and diagnostic module that monitors a component of an HVAC system. A remote diagnostic server is in operative communication with the HVAC system, and with the fault detection and diagnostic module. A user device communicates data to the remote diagnostic server that defines an association between the fault detection and diagnostic module and the HVAC system. The remote diagnostic server initiates an installation validation by sending a command to the HVAC system that causes the monitored component to initiate an event that is expected to be reported by the fault detection and diagnostic module. For example, a fan motor is turned on. If correctly installed, the fault detection and diagnostic module senses the event, and reports the event to the remote diagnostic server, which confirms the association. The remote diagnostic server sends a message to the user device indicating the result of the validation.

Abstract: A system and method for managing power consumption of HVAC system includes a transfer switch, a detector interface and an HVAC controller of the HVAC system. The transfer switch is configured to switch a power line supplied to a load between a utility power source and a backup power source. The detector interface is in communication with the transfer switch or a controller of the backup power source and the HVAC controller. The HVAC controller is configured to receive data regarding the switching of power line supplied to the load between the utility power source and the backup power source and control an operation of components of the HVAC system based on the capacity of power source, thereby manages or lowers the power consumption of HVAC system. The detector interface is configured to provide switching information and capacity of the backup power source to the HVAC controller.

Abstract: A system and method for managing power consumption of HVAC system includes a transfer switch, a detector interface and an HVAC controller of the HVAC system. The transfer switch is configured to switch a power line supplied to a load between a utility power source and a backup power source. The detector interface is in communication with the transfer switch or a controller of the backup power source and the HVAC controller. The HVAC controller is configured to receive data regarding the switching of power line supplied to the load between the utility power source and the backup power source and control an operation of components of the HVAC system based on the capacity of power source, thereby manages or lowers the power consumption of HVAC system. The detector interface is configured to provide switching information and capacity of the backup power source to the HVAC controller.

Abstract: A method of operating a diagnostic data collection device and a diagnostic data bus for an HVAC system are disclosed. In an embodiment, the diagnostic data collection device includes a diagnostic communication interface and a flexible interface module. The interface module measures electrical properties associated with an HVAC component. Electrical properties may include a sensor output and may include analog and digital signals. The diagnostic data collection device generates an exception message if the sensed property is out of specification. Evaluation rules are provided to detect various types of failures, including transient failures, steady state failures, and trending failures. The diagnostic data collection device self-calibrates by recording electrical properties during normal operation of the HVAC equipment. A plurality of diagnostic data collection devices may be coupled by a diagnostic data bug independent of the HVAC system's control bus, to ensure operational integrity of the diagnostic system.

Abstract: System, apparatuses, and methods for processing feedstock have a decomposing stage for breaking down feedstock into liquid and gaseous products and a condensing stage for condensing gaseous products to a liquid condensate. A mixing stage can also be used to combine gaseous and liquid feedstock portions into a combined liquid feedstock to be fed to the decomposing stage. The decomposing stage can be one or more flux tanks having a field generator for creating an electromagnetic field through the flux tank configured to decompose feedstock inside. The condensing stage can have a catalyst tank, distillation tank, condensing pipes, or a combination thereof. The mixing stage can be a reformer device having pairs of plates, at least some of the plates are capable of rotating to generate a shear force that creates a cavitation effect to combine the gaseous and liquid feedstock portions.

Abstract: A patient monitor (8) includes a display (10). Patient values (38) are obtained for one or more known variables of a risk prediction function (30). One or more unknown variables of the risk prediction function are determined, and at least one hyperplane (40) is defined as values assumable by the one or more unknown variables. Values of the risk prediction function are computed over the at least one hyperplane using the obtained patient values. A visualization template is selected from a database of visualization templates (50) using template selection indices including the risk prediction function and the one or more unknown variables. Using the visualization template, a visualization (52) of the computed values of the risk prediction function over the at least one hyperplane is displayed.

Abstract: The ball socket assembly includes a housing which has at least one open end and an inner bore that extends along a central axis. The ball socket assembly further includes a ball stud that has a ball portion and a shank portion. The ball portion is disposed in the inner bore of the housing, and the shank portion extends out of the inner bore through the at least one open end. At least one bearing is disposed in the inner, and the at least one bearing has a bearing surface which is in direct contact with the ball portion of the ball stud. The at least one bearing is made of a monolithic piece of a spring-like material and has a single gap and is flexed to preload the at least one bearing against the ball portion.

Abstract: A method of operating a diagnostic data collection device and a diagnostic data bus for an HVAC system are disclosed. In an embodiment, the diagnostic data collection device includes a diagnostic communication interface and a flexible interface module. The interface module measures electrical properties associated with an HVAC component. Electrical properties may include a sensor output and may include analog and digital signals. The diagnostic data collection device generates an exception message if the sensed property is out of specification. Evaluation rules are provided to detect various types of failures, including transient failures, steady state failures, and trending failures. The diagnostic data collection device self-calibrates by recording electrical properties during normal operation of the HVAC equipment. A plurality of diagnostic data collection devices may be coupled by a diagnostic data bug independent of the HVAC system's control bus, to ensure operational integrity of the diagnostic system.

Abstract: An enclosure-type electronic rat trap having an interior accessed through a trap entrance and a rat pathway that leads from the entrance to a baited end opposite the entrance is provided. At least three killing plates coupled to a high voltage circuit are positioned along the pathway in spaced relationship and a barrier extends into and constricts the pathway at a specified distance from a center plate in order to reduce the ability of the rat to escape the trap once the rat has traveled along the pathway sufficiently to initiate a killing cycle.

Abstract: A tree stand is disclosed having few, if any, moving parts. The one-piece design, according to an exemplary embodiment, may make the tree stand simpler to use with less noise during use. The tree stand may include both a seat member and a standing member. A user may climb a tree by standing on the standing member, raising the seat member, sitting on the seat member, raising the standing member, and repeating this process to climb a tree, pole or the like.

Abstract: A diagnostic data collection device and a diagnostic data bus are disclosed. In an embodiment, the diagnostic data collection device includes a diagnostic communication interface and a flexible interface module. The interface module is configurable to measure one or more electrical properties associated with an HVAC component, such as voltage, current, resistance. Electrical properties may include a sensor output and may include analog and digital signals. The diagnostic data collection device generates an exception message if the sensed property is out of specification. Evaluation rules are provided to detect various types of failures, including transient failures, steady state failures, and trending failures. The diagnostic data collection device self-calibrates by recording electrical properties during normal operation of the HVAC equipment.

Abstract: The present disclosure is directed to a method for determining the operational state of an HVAC system. The method includes transmitting diagnostic data and/or commissioning settings to and from an HVAC system and server by means of a mobile device, comparing the data to a predetermined condition, and transmitting updated system information back to the HVAC system if needed.

Abstract: Systems and methods are disclosed for validating the installation and operation of a fault detection and diagnostic module that monitors a component of an HVAC system. A remote diagnostic server is in operative communication with the HVAC system, and with the fault detection and diagnostic module. A user device communicates data to the remote diagnostic server that defines an association between the fault detection and diagnostic module and the HVAC system. The remote diagnostic server initiates an installation validation by sending a command to the HVAC system that causes the monitored component to initiate an event that is expected to be reported by the fault detection and diagnostic module. For example, a fan motor is turned on. If correctly installed, the fault detection and diagnostic module senses the event, and reports the event to the remote diagnostic server, which confirms the association. The remote diagnostic server sends a message to the user device indicating the result of the validation.