Abstract: The hand washing assembly includes a hood defining a cavity within the hood, a valve structure located at least partially within the cavity, and a lever handle. The lever handle is operatively coupled to the valve structure and configured to move the valve structure between a first position in which the valve structure prevents a flow of fluid through the valve structure and a second position in which the valve structure permits the flow of fluid through the valve structure. The lever handle includes a contact surface positioned within the cavity and configured to move toward a top wall of the hood as the valve structure moves into the second position and configured to move away from the top wall as the valve structure moves into the first position.

Abstract: A rotor assembly includes a shaft defining a lubricant inlet channel for receiving a lubricant and a lamination stack. The lamination stack is rotatably coupled to the shaft, extends between first and second lamination stack ends, and defines a lubricant cooling channel in fluid communication with the lubricant inlet channel. The rotor assembly also includes a first end cap adjacent to the first lamination stack end and a second end cap adjacent to the second lamination stack end. One of the first end cap and the second end cap defines an end cap inlet at a first radial distance from the shaft, a lubricant outlet channel defined to extend at least partially radially inward toward the shaft, and an end cap outlet at a second radial distance from the shaft which is less than the first radial distance for expelling the lubricant.

Abstract: A plumbing system is provided with a digital mixer valve providing a principal stream having a controlled temperature and flow rate. A fluid delivery device is also provided downstream of the digital mixer valve, the fluid delivery device having two or more sets of outlets, each of the two or more sets of outlets comprising at least two outlets, and having an outlet operating valve being disposed upstream of each set of outlets and being operable to control fluid flow to the set of outlets downstream thereof. A communication link is also provided between the digital mixer valve and the outlet operating valves. The digital mixer valve is configured, in use, to adjust the temperature and flow rate of the principal stream in dependence upon which set of outlets or combination of sets of outlets is in operation at a given time.

Abstract: A diverter valve assembly is provided, including a diverter valve chamber, an inlet to the diverter valve chamber, a first outlet, a second outlet, a first fluid flow path from the inlet to the first outlet, a second fluid flow path from the inlet to the second outlet, a diverter valve member, and a motor coupled to the diverter valve member. The motor drives movement of the diverter valve member within the valve chamber between a first end point and a second end point located further from the motor than the first end point. When the diverter valve member is at the first end point the second fluid flow path is open and the first fluid flow path is closed. When the diverter valve member is at the second end point the second fluid flow path is closed and the first fluid flow path is open.

Abstract: A rotor assembly includes a shaft defining a lubricant inlet channel for receiving a lubricant and a lamination stack. The lamination stack is rotatably coupled to the shaft, extends between first and second lamination stack ends, and defines a lubricant cooling channel in fluid communication with the lubricant inlet channel. The rotor assembly also includes a first end cap adjacent to the first lamination stack end and a second end cap adjacent to the second lamination stack end. One of the first end cap and the second end cap defines an end cap inlet at a first radial distance from the shaft, a lubricant outlet channel defined to extend at least partially radially inward toward the shaft, and an end cap outlet at a second radial distance from the shaft which is less than the first radial distance for expelling the lubricant.

Abstract: An exemplary embodiment relates to a showerhead for use in a shower environment. The showerhead includes a plurality of replaceable covering panels, at least one integrated light, and at least one integrated speaker that is configured to emit music. The showerhead also includes a central showerhead and a separate structure external to the central showerhead. The central showerhead and the separate structure are configured to emit water in a plurality of spray patterns. The showerhead is also configured to emit the light, music, and water simultaneously.

Abstract: A plumbing system is provided with at least one fluid delivery device having a plurality of spray modes. A controller is also provided to control operation of the fluid delivery device(s) in response to a user input. The controller allows a user to select between one or more scripted user experiences stored on a memory. Each scripted user experience lasts for a predetermined overall length of time, includes one or more switches between spray modes, and comprises a series of two or more program blocks. Each program block comprises instructions for two or more fluid delivery device operating characteristics including water flow rate and temperature. Each program block lasts for a predetermined length of time.

Abstract: A plumbing system is provided with a digital mixer valve providing a principal stream having a controlled temperature and flow rate. A fluid delivery device is also provided downstream of the digital mixer valve, the fluid delivery device having two or more sets of outlets, each of the two or more sets of outlets comprising at least two outlets, and having an outlet operating valve being disposed upstream of each set of outlets and being operable to control fluid flow to the set of outlets downstream thereof. A communication link is also provided between the digital mixer valve and the outlet operating valves. The digital mixer valve is configured, in use, to adjust the temperature and flow rate of the principal stream in dependence upon which set of outlets or combination of sets of outlets is in operation at a given time.

Abstract: The hand washing assembly includes a hood defining a cavity within the hood, a valve structure located at least partially within the cavity, and a lever handle. The lever handle is operatively coupled to the valve structure and configured to move the valve structure between a first position in which the valve structure prevents a flow of fluid through the valve structure and a second position in which the valve structure permits the flow of fluid through the valve structure. The lever handle includes a contact surface positioned within the cavity and configured to move toward a top wall of the hood as the valve structure moves into the second position and configured to move away from the top wall as the valve structure moves into the first position.

Abstract: A handwashing valve structure includes a mounting structure, a dispensing structure, and a control structure. The mounting structure is configured to attach to a liquid vessel. The dispensing structure is configured to dispense a liquid from the liquid vessel and is movable between a closed position and an open position. The control structure is configured to move the dispensing structure between the closed position and the open position. The control structure is configured to be moved by pressure from a portion of a user's body to move the dispensing structure from the closed position to the open position. The dispensing structure is configured to automatically move from the open position to the closed position in the absence of any pressure from the portion of the user's body onto the control structure.

Abstract: A handwashing valve structure includes a mounting structure, a dispensing structure, and a control structure. The mounting structure is configured to attach to a liquid vessel. The dispensing structure is configured to dispense a liquid from the liquid vessel and is movable between a closed position and an open position. The control structure is configured to move the dispensing structure between the closed position and the open position. The control structure is configured to be moved by pressure from a portion of a user's body to move the dispensing structure from the closed position to the open position. The dispensing structure is configured to automatically move from the open position to the closed position in the absence of any pressure from the portion of the user's body onto the control structure.

Abstract: A handwashing valve structure includes a mounting structure, a dispensing structure, and a control structure. The mounting structure is configured to attach to a liquid vessel. The dispensing structure is configured to dispense a liquid from the liquid vessel and is movable between a closed position and an open position. The control structure is configured to move the dispensing structure between the closed position and the open position. The control structure is configured to be moved by pressure from a portion of a user's body to move the dispensing structure from the closed position to the open position. The dispensing structure is configured to automatically move from the open position to the closed position in the absence of any pressure from the portion of the user's body onto the control structure.

Abstract: A one-way ratchet overrunning clutch includes first and second concentric races, the first race having pockets configured to contain pawls, each pocket including a boss having an exterior convex surface defining an arc of about 180°. Each pawl is supported on one boss, and is adapted to ratchet about the boss to selectively lock the races together. Each pawl has a J-shaped body including a pair of legs joined by a hook portion that with one of the legs defines a concave surface. The concave surface is configured to partially engage a complementary exterior convex surface of a corresponding boss, and the concave surface defines an arc ranging from 90° to at least 150° adapted to circumscribe an identical range of the convex surface of the corresponding boss. The interactive convex and concave surfaces of respective pawl and boss elements provide an effective pawl retention system under centrifugal forces.

Abstract: A one-way ratchet overrunning clutch includes first and second concentric races, the first race having pockets configured to contain pawls, each pocket including a boss having an exterior convex surface defining an arc of about 180°. Each pawl is supported on one boss, and is adapted to ratchet about the boss to selectively lock the races together. Each pawl has a J-shaped body including a pair of legs joined by a hook portion that with one of the legs defines a concave surface. The concave surface is configured to partially engage a complementary exterior convex surface of a corresponding boss, and the concave surface defines an arc ranging from 90° to at least 150° adapted to circumscribe an identical range of the convex surface of the corresponding boss. The interactive convex and concave surfaces of respective pawl and boss elements provide an effective pawl retention system under centrifugal forces.

Abstract: A method of detecting a lateral boundary of a compacting or expanding region in a subsurface formation, which method comprises determining non-vertical deformation of the earth' s surface above the subsurface formation over a period of time; identifying at least on contraction area and at least one adjacent dilatation area of the earth' s surface from the non-vertical deformation over the period of time; and using the contraction area and the adjacent dilatation area as an indication of a lateral boundary of the compacting or expanding region; and a method for producing hydrocarbons.

Abstract: A method of monitoring a subsurface formation underneath a sea bed, the method comprising determining non-vertical deformation of the sea floor over a period of time and inferring a parameter related to a volume change in the subsurface formation from the non-vertical deformation of the sea. Determining the non-vertical deformation of the sea floor comprises selecting a plurality of locations on the sea floor and determining a change in distance between at least one pair of the locations over the period of time.