Abstract: A building management system including one or more storage devices storing instructions thereon that, when executed by one or more processors, cause the one or more processors to ingest asset information; cause a graphical model of the building to include a fault indicator based on the asset information, the fault indicator corresponding to a fault occurring on a first physical asset corresponding to a first virtual asset; cause a display device of a user device to display the graphical model within a user interface; receive a selection of the fault indicator from a user via the user interface; and in response to receiving the selection, cause the user interface to navigate to a fault-driven view of the graphical model depicting the first virtual asset and one or more second virtual assets corresponding to one or more second physical assets affected by the fault occurring on the first physical asset.

Abstract: A corrective product addition treatment or surface treatment to a wellbore fluid is based on performing an artificial intelligence technique and/or a closed form solution with respect to one or more fluid properties. Pilot testing and operational testing to operatively dose a fluid at a drilling site may be integrated into the corrective product addition treatment or surface treatment to a wellbore fluid.

Abstract: A method for monitoring the oleophilic fluid to aqueous fluid ratio of a drilling fluid includes selecting a sample of the drilling fluid that has been recirculated, measuring the NMR response of the sample of the drilling fluid and determining the oleophilic fluid to aqueous fluid ratio of the drilling fluid based at least in part on the NMR response.

Abstract: Various embodiments include apparatus and methods to execute corrective product addition treatment or surface treatment to a wellbore fluid based on performing an artificial intelligence technique and/or a closed form 5 solution with respect to one or more fluid properties. Apparatus and methods can be implemented to integrate pilot testing and operational testing to operatively dose a fluid at a drilling site. Additional apparatus, systems, and methods are disclosed.

Abstract: A corrective product addition treatment or surface treatment to a wellbore fluid is based on performing an artificial intelligence technique and/or a closed form solution with respect to one or more fluid properties. Pilot testing and operational testing to operatively dose a fluid at a drilling site may be integrated into the corrective product addition treatment or surface treatment to a wellbore fluid.

Abstract: Various embodiments include apparatus and methods to execute corrective product addition treatment or surface treatment to a wellbore fluid based on performing an artificial intelligence technique and/or a closed form 5 solution with respect to one or more fluid properties. Apparatus and methods can be implemented to integrate pilot testing and operational testing to operatively dose a fluid at a drilling site. Additional apparatus, systems, and methods are disclosed.

Abstract: A method for monitoring the oleophilic fluid to aqueous fluid ratio of a drilling fluid includes selecting a sample of the drilling fluid that has been recirculated, measuring the NMR response of the sample of the drilling fluid and determining the oleophilic fluid to aqueous fluid ratio of the drilling fluid based at least in part on the NMR response.

Abstract: A guide rail system for guiding containers in preselected positions on one or more conveyors. The guide rail system has inner and outer subsystems for locating the containers on the conveyor. The inner subsystem includes one or more offset adjustable point devices, each located at a preselected offset location adjacent to a straight segment of the conveyor and spaced apart from a boundary between it and a curved segment by a preselected distance. The inner subsystem also has one or more first and second transition rail portions, each mounted to said at least one offset adjustable point device, for engaging the containers as they are moved on the straight segment and the curved segment respectively. The first and second transition rail portions are positionable by the offset adjustable point device to locate the containers in the preselected positions.

Abstract: A guide rail system for guiding containers moved by a conveyor defining a path with a curved segment. The guide rail system includes a number of contact portions, for engaging the containers, to at least partially locate the containers in preselected positions on the conveyor, and a number of adjustable point devices, for locating the contact portions in predetermined locations respectively relative to the conveyor. Each adjustable point device includes an adjustment element on which one or more of the contact portions is mounted. The system also includes a drive element connected to the adjustable point devices to locate the adjustment elements, including a flexible shaft substantially aligned with the curved segment, which is connected with selected ones of the adjustable point devices are spaced apart from each other along the curved segment.

Abstract: A guide rail system for guiding containers on a conveyor on which the containers are moved. The guide rail system includes first and second contact portions for engaging the containers to at least partially locate the containers respectively in preselected positions on a surface of the conveyor, first and second adjustment elements positioned proximal to first and second sides of the conveyor respectively, on which the first and second contact portions are mounted, and first and second adjustable point devices spaced apart from each other along the first and second sides respectively, for moving the adjustment elements transversely. The system also includes one or more height adjustment assemblies for positioning side contact portions selected from the group consisting of the first contact portions, the second contact portions, and the first and second contact portions in predetermined locations therefor relative to the surface of the conveyor.

Abstract: A guide rail system for guiding containers in preselected positions on one or more conveyors. The guide rail system has inner and outer subsystems for locating the containers on the conveyor. The inner subsystem includes one or more offset adjustable point devices, each located at a preselected offset location adjacent to a straight segment of the conveyor and spaced apart from a boundary between it and a curved segment by a preselected distance. The inner subsystem also has one or more first and second transition rail portions, each mounted to said at least one offset adjustable point device, for engaging the containers as they are moved on the straight segment and the curved segment respectively. The first and second transition rail portions are positionable by the offset adjustable point device to locate the containers in the preselected positions.

Abstract: A guide rail system for guiding containers on a conveyor on which the containers are moved. The guide rail system includes first and second contact portions for engaging the containers to at least partially locate the containers respectively in preselected positions on a surface of the conveyor, first and second adjustment elements positioned proximal to first and second sides of the conveyor respectively, on which the first and second contact portions are mounted, and first and second adjustable point devices spaced apart from each other along the first and second sides respectively, for moving the adjustment elements transversely. The system also includes one or more height adjustment assemblies for positioning side contact portions selected from the group consisting of the first contact portions, the second contact portions, and the first and second contact portions in predetermined locations therefor relative to the surface of the conveyor.

Abstract: A guide rail system for guiding containers moved by a conveyor defining a path with a curved segment. The guide rail system includes a number of contact portions, for engaging the containers, to at least partially locate the containers in preselected positions on the conveyor, and a number of adjustable point devices, for locating the contact portions in predetermined locations respectively relative to the conveyor. Each adjustable point device includes an adjustment element on which one or more of the contact portions is mounted. The system also includes a drive element connected to the adjustable point devices to locate the adjustment elements, including a flexible shaft substantially aligned with the curved segment, which is connected with selected ones of the adjustable point devices are spaced apart from each other along the curved segment.

Abstract: A transformer assembly, particularly for data and audio signals, has first and second bobbins which are telescoped within one another. A method of assembling a transformer assembly is provided which comprises providing first and second bobbins, coils around the bobbins and, as a first step, slidably mounting the bobbins within one another. The core is preformed or comprises laminations formed as E's and I's, which are then fitted through the assembly cap and the bobbins. The cap provides a receptacle for the core, and retains the laminations in position. To secure the laminations in position, an assembly cup is mounted around the outside of the laminations. The assembly cup can include springs or the like, to maintain the laminations in position and allow for expansion and contraction. The springs can additionally mechanically secure the transformer in position. The bobbins, cap, core and cup can be encapsulated together.

Abstract: A transformer assembly, particularly for data and audio signals, has first and second bobbins which are telescoped within one another. An assembly cap is fitted around the bobbins and includes flanges for locating a core. The bobbins and the cap are designed such that creepage and clearance requirements are met. The core is preformed or comprises laminations formed as E's and I's, which are then fitted through the assembly cap and the bobbins. The cap provides a receptacle for the core, and retains the laminations in position. To secure the laminations in position, an assembly cup is mounted around the outside of the laminations. The assembly cup can include springs or the like, to maintain the laminations in position and allow for expansion and contraction. The springs can additionally mechanically secure the transformer in position. The bobbins, cap, core and cup can be encapsulated together.