Abstract: A sensor assembly for controlling a flow of water through a faucet includes a shank and a head. The shank is configured to pass through an aperture in a wall and terminates at a flange at a first end of the shank. The head is configured to be coupled to the shank. The head includes a base, a top portion, and circuitry. The base has a first side configured to be supported by a first side of the wall and a second side configured to interface with a first side of the flange. The base includes an opening configured to receive the flange and a hole configured to receive a portion of the shank. The circuitry is configured to be positioned between the cover and a second side of the flange opposite the first side of the flange. The circuitry interfaces with the second side of the flange.

Abstract: A sensor assembly for controlling a flow of water through a faucet includes a shank and a head. The shank is configured to pass through an aperture in a wall and terminates at a flange at a first end of the shank. The head is configured to be coupled to the shank. The head includes a base, a top portion, and circuitry. The base has a first side configured to be supported by a first side of the wall and a second side configured to interface with a first side of the flange. The base includes an opening configured to receive the flange and a hole configured to receive a portion of the shank. The circuitry is configured to be positioned between the cover and a second side of the flange opposite the first side of the flange. The circuitry interfaces with the second side of the flange.

Abstract: A sensor assembly for controlling a solenoid valve, the solenoid valve controlling the flow of water through a faucet, is described. The sensor assembly includes a head including a bottom portion configured to be supported by a wall and a top portion. The sensor assembly also includes a proximity sensor including a transmitter and receiver. The transmitter projects a beam into a detection zone. The sensor assembly also includes processing electronics configured to cause the solenoid valve to open in response to a receiver detecting a reflection from an object in the detection zone.

Abstract: A toilet has an electronic flush assembly operable in either a short or long flush sequence selectable by a user. The long flush sequence includes a pre-rinse cycle and a rinse cycle in which the a supply valve and a flush valve are both opened and closed twice, once each first during the pre-rinse cycle and again during a subsequent rinse cycle. The rim supply valve and the flush valve are opened during the pre-rinse and rinse cycles but are closed at the start and end of each cycle. An electronic control controls operation of the valves as well as water supply control components. Level sensors can also be included to provide feedback to the controller, for example, to prevent overflow conditions.

Abstract: A sensor assembly for controlling a solenoid valve, the solenoid valve controlling the flow of water through a faucet, is described. The sensor assembly includes a head including a bottom portion configured to be supported by a wall and a top portion. The sensor assembly also includes a proximity sensor including a transmitter and receiver. The transmitter projects a beam into a detection zone. The sensor assembly also includes processing electronics configured to cause the solenoid valve to open in response to a receiver detecting a reflection from an object in the detection zone.

Abstract: A toilet has an electronic flush assembly operable in either a short or long flush sequence selectable by a user. The long flush sequence includes a pre-rinse cycle and a rinse cycle in which the a supply valve and a flush valve are both opened and closed twice, once each first during the pre-rinse cycle and again during a subsequent rinse cycle. The rim supply valve and the flush valve are opened during the pre-rinse and rinse cycles but are closed at the start and end of each cycle. An electronic control controls operation of the valves as well as water supply control components. Level sensors can also be included to provide feedback to the controller, for example, to prevent overflow conditions.

Abstract: A toilet has an electronic flush assembly operable in either a short or long flush sequence selectable by a user. The long flush sequence includes a pre-rinse cycle and a rinse cycle in which the a supply valve and a flush valve are both opened and closed twice, once each first during the pre-rinse cycle and again during a subsequent rinse cycle. The rim supply valve and the flush valve are opened during the pre-rinse and rinse cycles but are closed at the start and end of each cycle. An electronic control controls operation of the valves as well as water supply control components. Level sensors can also be included to provide feedback to the controller, for example, to prevent overflow conditions.

Abstract: A toilet has an electronic flush assembly operable in either a short or long flush sequence selectable by a user. The long flush sequence includes a pre-rinse cycle and a rinse cycle in which the a supply valve and a flush valve are both opened and closed twice, once each first during the pre-rinse cycle and again during a subsequent rinse cycle. The rim supply valve and the flush valve are opened during the pre-rinse and rinse cycles but are closed at the start and end of each cycle. An electronic control controls operation of the valves as well as water supply control components. Level sensors can also be included to provide feedback to the controller, for example, to prevent overflow conditions.

Abstract: A combined utility meter and meter register assembly (10) is disclosed in which a housing (11, 13, 31) for both a utility metering element and a meter register has no visual readout or display of metering data. Metering data is signaled through a data port (33) or an antenna (36) to external equipment. The meter register is provided by electronic circuitry (29a, 29b) that is placed in an upper cavity (27) in the housing part (13) that is then closed by a cover (31) or a body of sealing material. A label (32) can be placed over the closure informational purposes. An additional embodiment of the housing is also disclosed.

Abstract: A combined utility meter and meter register assembly (10) is disclosed in which a housing (11, 13, 31) for both a utility metering element and a meter register has no visual readout or display of metering data. Metering data is signaled through a data port (33) or an antenna (36) to external equipment. The meter register is provided by electronic circuitry (29a, 29b) that is placed in an upper cavity (27) in the housing part (13) that is then closed by a cover (31) or a body of sealing material. A label (32) can be placed over the closure informational purposes. An additional embodiment of the housing is also disclosed.