A fluid dispensing device and method for controlling the device are provided. The device includes a housing defining a fluid outlet. A valve controls the flow of fluid to the outlet. A sensor is configured to detect an object outside of and proximate to the housing. A solenoid is configured to move the valve between an open position and a closed position. A controller is configured to receive the output signal of the sensor, determine a characteristic of noise in the output signal such as a level of noise; adjust at least one of a sampling rate of the output signal and an amount of filtering of the output signal responsive to the characteristic of noise in the output signal, and transmit a control signal to the solenoid responsive to the output signal.

A sink includes a basin including a base wall and lateral walls adjoining the base wall, with the basin including a receiving area delimited by the base wall and the lateral walls. An insert plate separate from the basin is inserted into the receiving area and moveable by a lifting device relative to the basin. An interaction unit is provided to detect an influencing factor involving an operating state of the sink, and/or a change in the operating state of the sink, and/or an operating action by a user of the sink, with the lifting device automatically changing a position of the insert plate in response to a detection of the influencing factor by the interaction unit.

Methods and systems for the distribution, regulation and mixture of fluids, but particularly for the regulation of water flow through a tap, within a water distribution system, and for the regulation of the temperature of said flow from mixtures of smaller flows than the flow of the water distribution system, where at least one execution-by-the-user means is coupled, wherein the user has no contact with the mechanical parts of the system. Furthermore, systems for the reuse of water remaining in the pipelines, preventing waste and allowing remote activation, are revealed.

Methods and systems for the distribution, regulation and mixture of fluids, but particularly for the regulation of water flow through a tap, within a water distribution system, and for the regulation of the temperature of said flow from mixtures of smaller flows than the flow of the water distribution system, where at least one execution-by-the-user means is coupled, wherein the user has no contact with the mechanical parts of the system. Furthermore, systems for the reuse of water remaining in the pipelines, preventing waste and allowing remote activation, are revealed.

An automatic faucet assembly comprising a faucet body and spout; an electromechanical valve; a controller; and a power source, wherein the faucet body comprises an electrically conductive material and is configured to be associated with an electric field, the faucet spout is configured to deliver water when the electromechanical valve is in an open position and to not deliver water when the electromechanical valve is in a closed position, the controller, the faucet body, the electromechanical valve, and the power source are in electrical communication, and the controller is configured to detect motion of an end user in the electric field.

A smart shower head to regulate temperature of water being supplied is disclosed. The smart shower head comprises a showering section (101) for showering water, a shower head arm connecting the showering section (101) and supplying water to the showering section (101), and at least one compartmentalized nero-thermal coil 103 running through the length of the shower head arm (102) and the showering section (101).

A pot filler including a metered dispense input device for dispensing of predetermined volumes of water. The pot filler illustratively includes an electrically operable valve operably coupled to a metered dispense input unit, and a control module configured to control operation of the electrically operable valve.

A control system is provided for a fluid delivery device. The control system includes an emitter operable to emit a series of pulses of electromagnetic radiation, as well as a detector operable to detect as a series of detection events electromagnetic radiation pulses reflected by an object on which the emitted pulses of electromagnetic radiation are incident. The control system also includes a microprocessor operable to receive signals corresponding to each detection event from the detector, and to analyse a series of samples of the signals received from the detector. Each sample corresponds to a plurality of successive detection events. The microprocessor is also operable to subsequently generate one or more signals to control operation of the fluid delivery device depending on the results of the analysis.

A kitchen faucet with a garbage disposer comprises a faucet unit, the garbage disposer, and a sensing unit. The faucet unit comprises a water outlet passage unit, and the water outlet passage unit is disposed with a first control valve configured to control an opening and a closing of the water outlet passage unit. The garbage disposer is located under a water outlet of the water outlet passage unit of the faucet unit. The sensing unit is disposed on the faucet unit and is configured to generate a normal water outlet instruction and a garbage disposal instruction respectively according to a long sensing distance and a short sensing distance. The first control valve is configured to be opened and closed through the normal water outlet instruction, and the first control valve and the garbage disposer are respectively configured to be opened and closed through the garbage disposal instruction.

The invention relates to Nozzle, comprising a liquid inlet channel (LIN) for water or other liquid, the liquid inlet channel having an exit mouth (LINM) for letting liquid out from the liquid inlet channel, a pressurized air inlet channel (AIN) having an exit mouth (AINM) for letting pressurized air out from the pressurized air inlet channel (AIN). In the invention the liquid inlet channel (LIN) and pressurized air inlet channel (AIN) are positioned in such way that the pressurized air inlet channel (AIN) at least partially surrounds the liquid inlet channel (LIN) so as to create mist from exiting liquid and exiting pressurized air.