Electronic faucet and method for controlling electronic faucet

Abstract

The present application relates to an electronic device (1) for controlling a faucet (10), the electronic device (1) comprising:-at least one first command (3) for selecting to supply water from at least one of a plurality of inlets (12-15) of the faucet (10) to an outlet (16) of the faucet (10); -a data processing unit (2) operatively associated to said at least first command (3); -a memory operably accessible from the data processing unit (2); the electronic device (1) is configured to be activated at least in a self-learning operational configuration in which the data processing unit (2) is activated in accordance with a connection of at least a first conditioned water source or fluid source (22) of the plurality of conditioned water sources or fluid sources (22-25) to at least one of the plurality of inlets (12-15), and the data processing unit (2) is activated in accordance with a connection of at least a second conditioned water source or fluid source (22) of the plurality of conditioned water sources or fluid sources (22-25) to at least one of the plurality of inlets (12-15). Automatically determining at least a first combination of actuation enabling the at least first command (3), thereby allowing a first configuration of water supply to the outlet (16) through water from at least a first selected one of the plurality of inlets (12-15) or from a first selected group of the plurality of inlets (12-15), the first inlet or the first group of inlets is uniquely associated with the first source of conditioning water or fluid (22) in association data (30) stored in the memory; the electronic device is configured to be activated at least in an assigned operating configuration, in which actuation of the first command (3) in the first actuation combination determines in an automatic manner by the data processing unit (2) to load first association data (30) from the memory, and dispensing water on the outlet (16) from the first selected one of the plurality of inlets (12-15) or from the first selected group of the plurality of inlets (12-15) according to the first association data (30).

Description

Technical Field

[0001] The present application relates to the field of water accessories and the field of electronic devices, in particular servo-controlled actuators. The present application also relates to the field of methods for dispensing treated water. Background Art

[0002] The faucets traditionally installed in houses have a body comprising a first and a second inlet for the outflow of hot and cold water, respectively. These faucets usually have a dispense command which allows the water flow at the outlet of the faucet to be regulated and also the temperature of the water flowing out of the faucet to be regulated. The dispense command acts as a shut-off valve for the flow from the first and / or second inlet.

[0003] Recently, faucets with additional functions (such as dispensing sparkling water, filtered water, water heated to near boiling temperatures or cooled to near freezing temperatures) in addition to integrating traditional functions of mixing hot and cold water flows and / or allowing adjustment of the water flow rate have become increasingly popular.

[0004] These faucets have a much greater number of water inlets than before. An appropriate source of conditioned water, such as a carbonator, heater, filter, or cooler, is connected to each of the faucet's water inlets.

[0005] It is the responsibility of the operator who installs the faucet to properly connect the faucet inlet to the correct conditioned water source.

[0006] These faucets are equipped with one or more commands that allow the selection of a specific conditioned water source to supply the outlet.

[0007] The applicant warns that unpleasant situations may occur if a source of hot water close to boiling temperature is connected in an inappropriate manner to the wrong inlet of the faucet. In this case, the user may put his hand under the outlet of the faucet and be hit by the scalding water.

[0008] US2007235091A1 discloses a faucet having two inlets (hot water and cold water) connected to an outlet. The faucet includes a control lever that allows a user to select the rate and type of water to be dispensed. The faucet includes a valve system that is connected to two source pipes on the one hand and to the inlet of the faucet on the other hand. The faucet also includes a control unit that is connected to a plurality of sensors; the control unit is configured to receive data related to the fluid from the plurality of sensors and determine, through a control program, whether the hot water and cold water pipes are correctly connected to the valve system: in the event of an incorrect connection, the control unit commands the valve system to correct the incorrect connection.

[0009] WO2021 / 142324A1 shows a method and system for measuring, mixing and dispensing liquids (including alcoholic and non-alcoholic beverages). The device of WO2021 / 142324A1 is equipped with a controller connected to some pumps and valves to help control the supply of liquids from multiple sources. The device may optionally have a scanner for reading labels on the source. Document WO2021 / 142324A1 aims to solve the technical problem of preparing beverages at the point of sale to avoid high transportation costs.

[0010] EP2672027 A1 discloses a faucet for drawing hot water, cold water and other conditioned water, the faucet comprising a hose, from which conditioned water flows through two control commands. The faucet described here is provided with a control unit connected to the two control commands.

[0011] There is a need to simplify the connection of a water source to a faucet; in particular, this need is to avoid the risk that a wrong connection between a specific inlet of a faucet and a specific conditioning water source may pose to the user. Taking a conventional faucet as an example, which is provided with a first inlet for hot water and a second inlet for cold water, it can be observed that the connection of the hot and cold water supply pipes to the respective inlets may be reversed, which may cause scalding to the user because the user is not aware of this reversal and adjusts the control lever to dispense cold water. In electronic faucets, there is also a need to simplify the command configuration of the faucet, especially when such a faucet has a large number of inlets. Summary of the invention

[0012] The objects and salient features of the present application are described herein, and these features are disclosed in the following aspects. These aspects can be combined with each other and / or with parts of the specification and / or with one or more of the claims.

[0013] According to the present invention, an electronic device 1 for controlling a faucet 10 is described, the electronic device 1 comprising a data processing unit 2, the data processing unit being configured to receive an input of at least one identification signal S of at least a first conditioning water or fluid source 22 of a plurality of conditioning water or fluid sources 22-25, the plurality of conditioning water or fluid sources being configured to be modularly connected to any one of a plurality of inlets 12-15 of the faucet 10,

[0014] The electronic device 1 comprises at least a first command 3 for selecting the supply of a fluid from at least one of the plurality of inlets 12-15 of the faucet 10 to the outlet 16 of the faucet 10; said at least first command 3 being operatively connected to said data processing unit 2;

[0015] The data processing unit 2 is configured to assign a logical association 30 between the at least first conditioning water source or fluid source 22 and an inlet among the multiple inlets 12-15 connected to the first conditioning water source or fluid source 22 to the at least first command 3, so that when the first command 3 is activated, the logical association 30 is called and the outlet 16 of the faucet 10 supplies the fluid supplied by the first conditioning water source or fluid source 22 at the inlet connected to the first conditioning water source or fluid source 22 by making the inlet a first specific inlet 12 logically associated with the first conditioning water source or fluid source 22.

[0016] According to another non-limiting aspect, the fluid is a potable fluid.

[0017] According to another non-limiting aspect, the signal S is a signal sent by the at least first conditioned water or fluid source 22 .

[0018] According to another non-limiting aspect, the signal S is an electromagnetic signal.

[0019] According to another non-limiting aspect, the data processing unit 2 is configured to store a logical association 30 between the at least first conditioned water or fluid source 22 and the first inlet 12 of the plurality of inlets 12-15 in a memory operatively associated with the data processing unit 2 and at least partially automated.

[0020] According to another non-limiting aspect, logical association 30 is a single logical association.

[0021] According to another non-limiting aspect, the data processing unit 2 is configured to receive the identification signal S of the first conditioned water or fluid source 22 via a wired data transmission channel and / or a wireless data transmission channel.

[0022] According to another non-limiting aspect, the electronic device 1 includes a wired transmission channel 41, 43, which includes at least one of the following:

[0023] a common data bus 43 for receiving at least said identification signal S of said first conditioned water or fluid source 22 or of a second conditioned water or fluid source 23 of said plurality of conditioned water or fluid sources 22-25,

[0024] - a plurality of data lines 41, each data line being singly associated with a respective one of the plurality of entries 12-15.

[0025] According to another non-limiting aspect, the data processing unit 2 is configured to store the logical association 30 by receiving the identification signal S on the data bus 43, wherein the identification signal S is an identification signal that clearly identifies a specific conditioning water source or fluid source, in particular the first conditioning water source or fluid source 22.

[0026] According to another non-limiting aspect, said data processing unit 2 is configured to store said logical association 30 by receiving said identification signal S of a first conditioned water or fluid source 22 on a data line 41 singly associated with said first inlet 12 .

[0027] According to another non-limiting aspect, said data bus 43 is a serial data bus, optionally a bus compliant with the RS485 standard.

[0028] According to another non-limiting aspect, the electronic device 1 comprises wireless data transmission channels 40 , 42 , in particular radio frequency wireless transmission channels, and comprises at least one antenna 40 operatively connected to said data processing unit 2 .

[0029] According to another non-limiting aspect, said data processing unit 2 is configured to store said logical association 30 by receiving said identification signal S via said antenna 40 .

[0030] According to another non-limiting aspect, the identification signal S is an identification signal that unambiguously identifies a specific conditioning water or fluid source, in particular the first conditioning water or fluid source 22 .

[0031] According to another non-limiting aspect, the electronic device 1 optionally includes a reader 61 for a wireless tag 60, which is operably connected to the data processing unit 2 and is configured and specifically designated to read the wireless tag 60 located on the first conditioning water source or fluid source 22 and to receive the identification signal S at the connection between the first conditioning water source or fluid source 22 and the first inlet 12, and the reader 61 for the wireless tag 60 is optionally positioned at a position substantially corresponding to the first inlet 12.

[0032] According to another non-limiting aspect, when said at least first command 3 is activated, said data processing unit 2 is configured to search said memory for a logical association 30 corresponding to said first command 3 .

[0033] According to another non-limiting aspect, when the at least first command 3 is activated, the data processing unit 2 is configured to transmit at least one of an activation signal toward the first conditioning water or fluid source 22 and a signal to open at least one valve 18 operatively associated with the first inlet 12 to determine that water from the first conditioning water or fluid source 22 and / or from the first inlet is supplied to the outlet 16 of the faucet 10.

[0034] According to another non-limiting aspect, the valve 18 is located within the faucet 10 or within the first conditioned water or fluid source 22 .

[0035] According to another non-limiting aspect, at least one of the activation signal toward the first conditioning water or fluid source 22 and the signal to open the at least one valve 18 operationally associated with the first inlet 12 is transmitted on the data bus 43 or on the data line 41 operationally associated with the first inlet 12 or on the wireless data transmission channel 40, 42.

[0036] According to another non-limiting aspect, the device 1 comprises a command module, and said at least first command 3 is located on said command module.

[0037] According to another non-limiting aspect, the at least first command 3 and / or the command module are configured to be installed at a remote location relative to the faucet 10, preferably at a remote location relative to the body 10B of the faucet 10, and / or are configured and specifically designated for installation above or embedded in the top 50 of a sink and / or kitchen.

[0038] According to another non-limiting aspect, said at least first command 3 is a virtual command accessible on a software platform installable on or electronically accessible via the electronic portable device.

[0039] According to another non-limiting aspect, the data processing unit 2 is configured to be able to dispense the conditioned water or fluid according to a customized dispensing amount of the conditioned water or fluid and / or according to a customized dispensing time of the conditioned water or fluid.

[0040] According to another non-limiting aspect, the allocation amount and / or allocation time is selected based on at least one predefined activation or execution sequence of at least the first command 3, preferably based on the first and second activation or execution sequences of the at least first command 3.

[0041] According to another non-limiting aspect, in the self-learning operation configuration, the data processing unit 2 is configured to: optionally, after the predefined activation or execution sequence of the at least first command 3, preferably after the first and second activation or execution sequences of the at least first command 3, store the dispensing data corresponding to the customized dispensing volume of the conditioned water or fluid and / or the customized dispensing time of the conditioned water or fluid in the memory.

[0042] According to another non-limiting aspect, in the operational configuration of the dispensing, the predefined activation or actuation sequence of the at least first command 3 determines the automatic loading of the dispensing data corresponding to the customized dispensing amount of the conditioned water or fluid and / or the customized dispensing time of the conditioned water or fluid from the memory.

[0043] According to another non-limiting aspect, in the dispensing operation configuration, the predefined activation or actuation sequence of the at least first command 3 determines the dispensing of a certain amount of conditioned water or fluid from the outlet 16, the amount and / or time corresponding to the customized dispensing amount of the conditioned water or fluid and / or the water dispensing time of the dispensing data.

[0044] According to another non-limiting aspect, the dispensing data corresponds to a user customized dispensing operation configuration.

[0045] According to another non-limiting aspect, the data processing unit 2 is configured to store at least one dispensing data in the memory, and optionally store multiple dispensing data for each of the multiple inlets 12-15 and / or each of the multiple conditioned water or fluid sources 22-25 to define corresponding multiple dispensing operation configurations customized by the user.

[0046] According to the present invention, there is also described an electronic faucet 10 for water dispensing, comprising:

[0047] - Faucet body 10B;

[0048] - at least a first dispensing command 10C for conditioning at least one of the water flow and the water temperature, said dispensing command 10C being preferably mounted on said body 10B;

[0049] - an outlet 16 for dispensing water, positioned at a predetermined position of said body 10B, preferably a terminal position;

[0050] - a plurality of inlets 12-15, modularly selectable and / or installable, each inlet being configured and dedicated for connection with any of a plurality of conditioned water or fluid sources 22-25 configured to supply conditioned water or fluid to the faucet 10 when in use;

[0051] - An electronic device 1 according to one or more aspects described herein.

[0052] According to another non-limiting aspect, the faucet 10 includes at least one, preferably a plurality of connection modules 100a, 100b, 100c for an inlet for conditioned water or fluid, wherein at least a portion of the multiple inlets 12-15 are arranged on the at least one, preferably a plurality of connection modules 100a, 100b, 100c; optionally, wherein at least a first portion of the multiple inlets 12-15 are arranged on the at least one module, preferably on each module of the multiple connection modules 100a, 100b, 100c, and wherein a second portion of the multiple inlets 12-15 are directly connected to the body 10B of the faucet 10, and wherein at least one module, preferably at least one of the multiple connection modules 100a, 100b, 100c, is configured and specifically designated for connection to an inlet of another connection module 100a, 100b, 100c, an inlet for conditioned water or fluid, or to one of the inlets in the second portion of the multiple inlets 12-15.

[0053] According to another non-limiting aspect, the plurality of inlets 12 - 15 are implemented directly on the faucet 10 , or in at least one connection module 100 a , 100 b , 100 c configured to be connected to the faucet 10 .

[0054] According to another non-limiting aspect, the inlets of the plurality of inlets 12-15 are equal to one another and are configured to be selectively and indiscriminately connectable to each of the plurality of conditioned water or fluid sources 22-25.

[0055] According to another non-limiting aspect, the plurality of inlets 12-15 includes inlets of the same size and / or shape and / or color and / or configuration.

[0056] According to another non-limiting aspect, each of the plurality of inlets 12-15 is a screw inlet.

[0057] According to another non-limiting aspect, the faucet 10 comprises a first operating inlet 11a configured to receive hot water supplied by a distribution network when in use, and a second operating inlet 11b configured to receive cold water supplied by the distribution network when in use.

[0058] According to another non-limiting aspect, the delivery network is a domestic delivery network.

[0059] According to another non-limiting aspect, the faucet 10 includes a plurality of valves 18, each valve being connected to a respective one of the plurality of inlets 12-15.

[0060] According to another non-limiting aspect, each valve of the plurality of valves 18 is a remotely controllable valve, in particular an electrically controllable valve, controlled by an opening signal transmitted from said data processing unit 2 .

[0061] According to another non-limiting aspect, said at least first dispensing command 10C is mounted on said body 10B or at a location separate from said body 10B.

[0062] According to the present invention, an electronic device 1 for controlling a faucet 10 is also described, the electronic device 1 comprising:

[0063] at least a first command 3 for selecting the supply of water from at least one of the plurality of inlets 12 - 15 of the tap 10 to the outlet 16 of the tap 10 ;

[0064] - a data processing unit 2 operatively associated with said at least first command 3;

[0065] - a memory operatively accessible from said data processing unit 2;

[0066] wherein the data processing unit 2 is configured to be able to dispense the conditioning water or fluid according to a customized dispensing volume of the conditioning water or fluid and / or according to a customized dispensing time of the conditioning water or fluid; the dispensing volume and / or the dispensing time are selected based on at least one predefined activation or execution sequence of at least the first command 3, preferably based on a first and a second activation or execution sequence of the at least first command 3, and / or wherein

[0067] The electronic device 1 is configured to be activated in at least one self-learning operation configuration, wherein in the self-learning operation configuration, the data processing unit 2 is configured to store in the memory dispensing data corresponding to the customized dispensing volume of the conditioned water or fluid and / or the customized dispensing time of the conditioned water or fluid, optionally after the predefined activation or execution sequence of the at least first command 3, preferably after the first and second activation or execution sequences of the at least first command 3.

[0068] According to another non-limiting aspect, the electronic device 1 is configured to be activated at least in a self-learning operating configuration, wherein the data processing unit 2 automatically determines, based on the connection of at least a first conditioning water or fluid source 22 of a plurality of conditioning water or fluid sources 22-25 to at least one of the plurality of inlets 12-15, at least a first actuation combination for enabling the at least first command 3, thereby allowing water to be supplied to the outlet 16 in a first configuration by water from at least a first selected inlet of the plurality of inlets 12-15 or from a first selected inlet group of the plurality of inlets 12-15, the first inlet or the first inlet group being singly associated with the first conditioning water or fluid source 22 in the association data 30 stored in the memory;

[0069] The electronic device is configured to be activated at least in a dispensing operation configuration, wherein activation of the first command 3 in the first actuation combination determines in an automatic manner by the data processing unit 2 to load first associated data 30 from the memory, and water from the first selected inlet among the multiple inlets 12-15 or from the first selected inlet group among the multiple inlets 12-15 is dispensed at the outlet 16 according to the first associated data 30.

[0070] According to another non-limiting aspect, at least one of the electronic device 1 and the faucet 10 comprises at least one sensor configured to transmit a signal to the data processing unit 2, said signal being indicative of a characteristic of said conditioned water or fluid.

[0071] According to another non-limiting aspect, the data processing unit 2 is configured to compare the signal with a range or threshold of selected values, and when a threshold is exceeded or the outlet is outside the range of selected values ​​of the signal, the data processing unit 2 is configured to determine to send an alarm message, and / or to determine to automatically and preferably immediately interrupt the dispensing of conditioned water or fluid from the outlet 16.

[0072] According to another non-limiting aspect, the sensor comprises at least one of a temperature sensor or a sensor adapted to detect the presence and / or amount of one or more chemical substances in the conditioned water and / or the fluids 22-25.

[0073] According to the present application, a method for connecting a conditioning water source or a fluid source to a faucet is further described, comprising:

[0074] - a supply of an electronic faucet 10 for water dispensing, comprising a body 10B, at least a first dispensing command 10C for conditioning at least one of water flow and water temperature, an outlet 16 for water dispensing located at a predetermined position (preferably a terminal position) of said body 10B, a plurality of inlets 12-15 which can be selected and / or installed modularly, each of which is configured and dedicated to be connected to any of a plurality of conditioning water or fluid sources 22-25, said plurality of conditioning water or fluid sources being configured to supply conditioning water or fluid to said faucet 10 in use, and a command 3 for selecting the supply of conditioning water or fluid from at least one of said plurality of inlets 12-15 to said outlet 16;

[0075] - connecting a first conditioned water or fluid source 22 of the plurality of conditioned water or fluid sources 22 - 25 to any of the plurality of inlets 12 - 15 of the faucet 10 .

[0076] According to another non-limiting aspect, the method comprises the following steps: connecting at least one, preferably a plurality of, connection modules 100a, 100b, 100c for inlets for conditioned water or fluid to the body of the faucet 10, so that at least a portion of the inlets 12-15 are arranged on the at least one module, preferably on the plurality of connection modules 100a, 100b, 100c; optionally, in such a way that at least a first portion of the plurality of inlets 12-15 are arranged on the at least one module, preferably on each of the plurality of connection modules 100a, 100b, 100c, and a second portion of the plurality of inlets 12-15 is directly connected to the body 10B of the faucet 10, the at least one module, preferably at least one of the plurality of connection modules 100a, 100b, 100c, being configured and specifically designated for connection to an inlet of another connection module 100a, 100b, 100c, an inlet for conditioned water or fluid, or to one of the inlets in the second portion of the plurality of inlets 12-15.

[0077] According to another non-limiting aspect, the method comprises a logical connection between the first source of conditioned water or fluid 22 and a data processing unit 2 of the electronic device 1 operatively connected to the faucet 10 .

[0078] According to another non-limiting aspect, the logical connection determines that at least one identification signal S of the first conditioned water or fluid source 22 is transmitted from the first conditioned water or fluid source 22 to the data processing unit 2 .

[0079] According to another non-limiting aspect, the method includes assigning a logical association 30 to a first command 3 of the faucet 10 to select supplying fluid to the outlet 16 of the faucet from an inlet of a plurality of inlets 12-15 of the faucet 10 to which the first conditioned water or fluid source 22-25 is connected.

[0080] According to another non-limiting aspect, the assigning causes the inlet to become the first inlet 12 logically associated 30 with the first source of conditioned water or fluid 22 .

[0081] According to another non-limiting aspect, said dispensing determines the subsequent step of supplying the outlet 16 of said faucet 10 with fluid supplied by said first conditioned water source or fluid 22 on said first inlet 12 upon activation of said first command 3 .

[0082] According to another non-limiting aspect, the method comprises a step of transmitting at least one identification signal S, said transmission being performed by said at least first source 22 of conditioned water or fluid.

[0083] According to another non-limiting aspect, the signal S is an electromagnetic signal.

[0084] According to another non-limiting aspect, said supplying step occurs by activation of said first command 3 .

[0085] According to another non-limiting aspect, the association is a single logical association.

[0086] According to another non-limiting aspect, the method includes at least partially automatically storing in a memory operatively associated with the data processing unit 2 a logical association 30 between the at least first conditioned water or fluid source 22 and the first inlet 12 of the plurality of inlets 12 - 15 .

[0087] According to another non-limiting aspect, the logical connection between the first conditioning water source or fluid source 22 and the data processing unit 2 determines the transmission of the at least one identification signal S of the first conditioning water source or fluid source 22 on a wired data transmission channel and / or a wireless data transmission channel.

[0088] According to another non-limiting aspect, the method comprises activating said first command 3 and the subsequent step of supplying the outlet 16 of said faucet 10 with fluid supplied from said first source of conditioned water or fluid 22 on said first inlet 12 .

[0089] According to another non-limiting aspect, the supplying step occurs by activating said first command 3 .

[0090] According to another non-limiting aspect, the logical connection between the first conditioned water or fluid source 22 and the data processing unit 2 determines the transmission of the at least one identification signal S of the first conditioned water or fluid source 22 on a wired data transmission channel, wherein the wired data transmission channel comprises at least one of the following:

[0091] - a common data bus 43 for receiving at least said identification signal S of said first conditioned water or fluid source 22 or second conditioned water or fluid source 23 of said plurality of conditioned water or fluid sources 22-25;

[0092] - a plurality of data lines 41, each data line being singly associated with a respective one of the plurality of entries 12-15.

[0093] According to another non-limiting aspect, the storing is performed after receiving said identification signal S on said data bus 43 , said identification signal uniquely identifying a specific conditioning water or fluid source, in particular said first conditioning water or fluid source 22 .

[0094] According to another non-limiting aspect, the storing is performed after receiving said identification signal S of the first source of conditioning water or fluid 22 on the data line 41 singly associated with said first inlet 12 .

[0095] According to another non-limiting aspect, the logical connection between the first conditioned water or fluid source 22 and the data processing unit 2 determines the transmission of the at least one identification signal S of the first conditioned water or fluid source 22 on the wireless transmission channel 40 , 42 .

[0096] According to another non-limiting aspect, the wireless transmission channel is a radio frequency wireless channel.

[0097] According to another non-limiting aspect, at least one antenna 40 is operatively connected to said data processing unit 2 .

[0098] According to another non-limiting aspect, the storing is performed after receiving said identification signal S through said antenna 40 .

[0099] According to another non-limiting aspect, the identification signal S is an identification signal that unambiguously identifies a specific conditioning water or fluid source, in particular the first conditioning water or fluid source 22 .

[0100] According to another non-limiting aspect, the logical connection between the first conditioning water or fluid source 22 and the data processing unit 2 determines the transmission of the at least one identification signal S of the first conditioning water or fluid source 22 through the wireless tag 60 located on the first conditioning water or fluid source 22.

[0101] According to another non-limiting aspect, the method includes receiving the identification signal S of the first conditioning water source or fluid source 22 through a reader 61 of a wireless tag 60, wherein the wireless tag 60 is operably connected to the data processing unit 2 and is configured and specifically used to read the wireless tag 60 located on the first conditioning water source or fluid source 22.

[0102] According to another non-limiting aspect, the reader 61 of the wireless tag 60 is optionally positioned to substantially correspond to the first entrance 12 .

[0103] According to another non-limiting aspect, the method comprises a step of activating said first command 3, a step of searching said memory for a logical association 30 corresponding to said first command 3, and a step of transmitting at least one of an activation signal towards said first conditioned water or fluid source 22 and a signal to open at least one valve 18 operatively associated with said first inlet 12, so as to allow water to be supplied to the outlet 16 of the faucet 10 by water or fluid from said first conditioned water or fluid source 22 and / or from said first inlet.

[0104] According to another non-limiting aspect, said searching step and said transmitting step occur after said activation of said first command 3 and as a result of said first command 3 .

[0105] According to another non-limiting aspect, the valve 18 is located within the faucet 10 or within the first conditioned water or fluid source 22 .

[0106] According to another non-limiting aspect, at least one of an activation signal toward the first conditioning water or fluid source 22 and a signal to open at least one valve 18 is transmitted to the data bus 43 or to the data line 41 operationally associated with the first inlet 12 or to the wireless data transmission channel 40, 42.

[0107] According to the present invention, there is also described a source 22-25 of conditioned water or fluid, which is configured to be connected to the inlet 12-15 of the electronic faucet 10 accordingly to supply conditioned water or fluid to the electronic faucet 10 when in use;

[0108] The conditioned water or fluid source has at least one transmitter which is configured to emit an identification signal S, optionally a univocal identification signal, for optionally univocal identification of the conditioned water or fluid source 22 - 25 .

[0109] According to another non-limiting aspect, the conditioned water source or fluid source 22-25 is configured to dispense a first type of conditioned water and at least a second type of conditioned water, optionally simultaneously in time, and / or is configured to dispense a first type of conditioned water and the fluid, optionally simultaneously in time.

[0110] According to another non-limiting aspect, the emitter is an electron emitter.

[0111] According to another non-limiting aspect, the transmitter is configured to transmit the identification signal S to the electronic device 1 of the faucet 10 or the electronic device 1 operatively connected to the faucet 10 .

[0112] According to the present invention, a kit is also described, comprising a faucet 10 according to one or more aspects described herein and a source according to the aforementioned aspects.

[0113] According to another non-limiting aspect, said conditioned water or fluid source 22-25 comprises at least one hydraulic connection configured to allow the introduction of water from a distribution network, preferably a distribution network for drinking water, in particular domestic water.

[0114] According to another non-limiting aspect, the conditioned water or fluid source 22-25 includes at least one data connection configured to allow data to be transmitted to the electronic device 1 and / or to the faucet 10 (optionally, data to be transmitted to the electronic device and / or to the faucet 10 (optionally, data to be transmitted to the electronic device and / or to the faucet 10 (optionally, data to be sent and received from the electronic device and / or to the faucet 10).

[0115] According to another non-limiting aspect, the transmitter is a wireless transmitter, optionally a wireless tag 60, preferably a tag RFid.

[0116] According to another non-limiting aspect, the source of conditioned water or fluid includes a hydraulic connector 26 that is configured and specifically designated for connection with the inlets 12 - 15 of the faucet 10 .

[0117] According to another non-limiting aspect, the transmitter is positioned substantially corresponding to the hydraulic connector 26 .

[0118] According to another non-limiting aspect, the conditioned water or fluid source 22-25 includes at least one of the following: a gasifier, an optional carbon dioxide addition device, a water heater or boiler, an optional water heater (which is configured to bring the temperature of the water to a value close to boiling temperature when in use), a water cooler, an optional water heater (which is configured to bring the temperature of the water to a value close to freezing temperature when in use), and a filter (which is optionally configured to mechanically and / or chemically filter the water).

[0119] According to another non-limiting aspect, the carbon dioxide dosing device includes a pressure bottle for adding carbon dioxide.

[0120] According to another non-limiting aspect, the method includes connecting at least one of a gasifier, an optional carbon dioxide addition device, a water heater or boiler, an optional water heater (which is configured to heat the temperature of water to a value close to boiling temperature when in use), a water cooler, an optional water heater (which is configured to heat the temperature of water to a value close to freezing temperature when in use), and a filter (which is configured to mechanically and / or chemically filter the water) to the inlet 12-15 of the faucet 10.

[0121] According to another non-limiting aspect, the conditioned water or fluid source 22 comprises a unit embedding the following components:

[0122] - a boiler 22b, configured to heat water to a value close to boiling temperature when in use,

[0123] - At least one of a filter 22f and a safety valve 22v, optionally a non-return valve.

[0124] According to another non-limiting aspect, the method includes connecting a conditioned water or fluid source 22 to an inlet 12-15 of a faucet 10, the connection including an embedded unit:

[0125] - a boiler 22b, configured to heat water to a value close to boiling temperature when in use,

[0126] - At least one of a filter 22f and a safety valve 22v, optionally a non-return valve.

[0127] According to another non-limiting aspect, the unit comprises an inlet 22k configured to be supplied, in use, with water from a distribution network, optionally a domestic network, the inlet 22k being directly connected to at least one of the filter 22f and / or the safety valve 22v.

[0128] According to another non-limiting aspect, the method comprises the step of supplying water from a distribution network, optionally a domestic network, to an inlet 22k of the device, said inlet 22k being directly connected to at least one of said filter 22f and / or said safety valve 22v.

[0129] According to another non-limiting aspect, the unit comprises an outlet 22u configured to be directly connected to the inlet 12-15 of the faucet 10, optionally through a pipe, the outlet 22u being directly connected to the outlet of the boiler 22b.

[0130] According to another non-limiting aspect, the method comprises connecting the outlet 22u of said unit to the inlet 12-15 of said tap, optionally through a pipe; said outlet 22u being directly connected to the outlet of said boiler 22b.

[0131] According to another non-limiting aspect, a three-way connection is arranged between at least one of the filter 22f and the check valve 22v and the inlet of the boiler 22b, and the three-way connection has: a first port, which is connected to the outlet of the filter 22f; a second port, which is connected to the inlet of the boiler 22b; and a third port, which is connected to the auxiliary outlet 22a of the device and is predetermined to be connected to the backflow prevention device 22i, and the backflow prevention device 22i is configured to be connected to the sewage outlet.

[0132] According to another non-limiting aspect, the method includes connecting the auxiliary outlet 22a of the unit to a backflow prevention device 22i, which is in turn configured to be connected to a sewage outlet.

[0133] According to another non-limiting aspect, the auxiliary outlet 22a is connected to a third way of a three-way connection provided between at least one of the filter 22f and the check valve 22v and the inlet of the boiler 22b.

[0134] According to another non-limiting aspect, the second passage is connected to an inlet of the boiler 22b, and wherein the first inlet of the connection is connected to an outlet of the filter 22f.

[0135] According to another non-limiting aspect, the method comprises a step of positioning said at least first command 3 on a command module.

[0136] According to another non-limiting aspect, the method includes installing the at least first controller 3 and / or the command module at a remote location relative to the faucet 10, preferably at a remote location relative to the body 10B of the faucet 10, and / or includes the step of installing the at least first controller 3 and / or the command module above the top 50 of the sink and / or the kitchen or embedded in the top 50 of the sink and / or the kitchen.

[0137] According to another non-limiting aspect, the method comprises a step of accessing said at least first command 3 through a software platform installed on the electronic portable device or accessed electronically through the electronic portable device.

[0138] According to the present invention, a method for controlling a faucet 10 is also described, comprising:

[0139] - activating a self-learning operating configuration, wherein a data processing unit 2 of an electronic device 1 for controlling said faucet 10 is operably associated with at least a first command 3 for selecting the supply of conditioned water or fluid from at least one of a plurality of inlets 12-15 of said faucet 10 to an outlet 16 of said faucet 10, and, as part of said electronic device 1, automatically enabling at least a first actuation combination of said at least first command 3 based on the connection of at least one first conditioned water or fluid source 22 of a plurality of conditioned water or fluid sources 22-25 to at least one of said plurality of inlets 12-15, and wherein said data processing unit 2 determines to store in said memory dispensing data corresponding to said customized dispensing volume of said conditioned water or fluid and / or said customized dispensing time of said conditioned water or fluid, optionally after said predefined activation or actuation sequence of said at least first command 3, preferably after a first and a second activation or actuation sequence of said at least first command 3.

[0140] and / or

[0141] The method comprises the following steps: the data processing unit 2 is capable of dispensing conditioned water or fluid according to a customized dispensing volume of the conditioned water or fluid and / or according to a customized dispensing time of the conditioned water or fluid; the dispensing volume and / or dispensing time are selected based on at least a predefined activation or execution sequence of the at least first command 3, preferably based on the first and second activation or execution sequences of the at least first command 3.

[0142] According to another non-limiting aspect, the method comprises:

[0143] - loading first association data 30 into said data processing unit 2 from an operatively accessible memory for identifying a single association between said first inlet or said first group of inlets and said first source of conditioned water or fluid 22;

[0144] - wherein the first actuation combination is specifically for allowing, in use, water to be supplied to the outlet 16 in a first configuration through water from at least the first selected inlet of the plurality of inlets 12-15 or from the first selected group of inlets of the plurality of inlets 12-15 according to the first association data 30;

[0145] - Activate a dispensing operation configuration, wherein, when the first command 3 is activated in the first actuation combination, the data processing unit 2 loads the first associated data 30 from the memory and causes water from the first selected inlet among the multiple inlets 12-15 or from the first selected inlet group among the multiple inlets 12-15 to be dispensed on the outlet 16.

[0146] According to another non-limiting aspect of the method, after activating the self-learning operation configuration, the data processing unit 2 determines to store at least one distribution data in the memory, and optionally stores multiple distribution data for each of the multiple inlets 12-15 and / or each of the multiple conditioning water sources or fluid sources 22-25 to define corresponding multiple distribution operation configurations customized by the user.

[0147] According to the present application, a computer program is described, which includes portions of software code, which, when executed, result in the execution of one or more steps of the method according to one or more aspects described herein.

[0148] According to the present invention, an electronic device 1 for controlling a faucet 10 is described herein, the electronic device 1 comprising:

[0149] at least a first command 3 for selecting the supply of water from at least one of the plurality of inlets 12 - 15 of the tap 10 to the outlet 16 of the tap 10 ;

[0150] - a data processing unit 2 operatively associated with said at least first command 3;

[0151] - a memory operatively accessible from said data processing unit 2;

[0152] The electronic device 1 is configured to be activated at least in a self-learning operating configuration, wherein the data processing unit 2 automatically determines a first configuration for enabling at least a first combined actuation of the at least first command 3, thereby allowing water to be supplied to the outlet 16 by water from at least a first selected inlet of the plurality of inlets 12-15 or from a first selected group of inlets of the plurality of inlets 12-15, the first inlet or the first group of inlets being singly associated with the first conditioned water or fluid source 22 in the association data 30 stored in the memory;

[0153] The electronic device is configured to be activated at least in a dispensing operation configuration, wherein activation of the first command 3 in the first actuation combination determines in an automatic manner by the data processing unit 2 to load first associated data 30 from the memory, and water from the first selected inlet among the multiple inlets 12-15 or from the first selected inlet group among the multiple inlets 12-15 is dispensed at the outlet 16 according to the first associated data 30.

[0154] According to the present invention, an electronic device 1 for controlling a faucet 10 is described herein, the electronic device 1 comprising:

[0155] at least a first command 3 for selecting the supply of water from at least one of the plurality of inlets 12 - 15 of the tap 10 to the outlet 16 of the tap 10 ;

[0156] - a data processing unit 2 operatively associated with said at least first command 3;

[0157] - a memory operatively accessible from said data processing unit 2;

[0158] The electronic device 1 is configured to be activated at least in a self-learning operating configuration, wherein, when activated in a first actuation combination, the at least first command 3 determines in an automatic manner by the data processing unit 2 a first supply configuration of the outlet 16 stored by first associated data 30, the supply configuration being provided by means of water from at least a first selected inlet among the multiple inlets 12-15 or from a first selected inlet group among the multiple inlets 12-15.

[0159] According to another non-limiting aspect, in the self-learning operation configuration, when activated with a second activation combination, the first command 3 automatically determines through the data processing unit 2 a second supply configuration of the outlet 16 stored through second associated data 30, the supply configuration being carried out with the aid of water from at least a second selected inlet among the multiple inlets 12-15 or from a second selected inlet group among the multiple inlets 12-15.

[0160] According to another non-limiting aspect, the electronic device is configured to be activated at least in a dispensing operation configuration, wherein activation of the first command 3 in the first actuation combination is determined by the data processing unit 2 in an automatic manner to load first associated data 30 from the memory, and water from the first selected inlet among the multiple inlets 12-15 or from the first selected inlet group among the multiple inlets 12-15 is dispensed at the outlet 16 according to the first associated data 30.

[0161] According to another non-limiting aspect, the electronic device is configured to be activated at least in a dispensing operation configuration, wherein activation of the first command 3 in the second activation combination is determined by the data processing unit 2 in an automatic manner to load second associated data 30 from the memory, and water from the second selected inlet among the multiple inlets 12-15 or from the second selected inlet group among the multiple inlets 12-15 is dispensed at the outlet 16 according to the second associated data 30.

[0162] According to another non-limiting aspect, in the self-learning operation configuration, the data processing unit 2 automatically determines at least a second activation combination to enable the at least first command 3 based on the connection of at least a second conditioned water source or fluid source 23 among the multiple conditioned water sources or fluid sources 22-25 with at least one of the multiple inlets 12-15, thereby allowing water to be supplied to the outlet 16 in a second configuration via water from at least a second selected inlet among the multiple inlets 12-15 or from a second selected inlet group among the multiple inlets 12-15.

[0163] According to another non-limiting aspect, the second activation combination is different from the first activation combination.

[0164] According to another non-limiting aspect, the second selected inlet is different from the first selected inlet and / or the second selected group of inlets is different from the first selected group of inlets.

[0165] According to another non-limiting aspect, the second inlet or the second group of inlets is uniquely associated with the second source of conditioned water or fluid 23 in second association data 30' stored in the memory.

[0166] According to another non-limiting aspect, in the distributed operating configuration, the activation of the at least first command 3 in the second activation combination determines, by the data processing unit 2 in an automatic manner, the loading of second associated data 30 ′ from the memory.

[0167] According to another non-limiting aspect, in the dispensing operation configuration, the activation of the at least first command 3 in the second activation combination determines in an automatic manner by the data processing unit 2 to dispense water from the second selected inlet among the multiple inlets 12-15 or from the second selected inlet group among the multiple inlets 12-15 at the outlet 16 according to the second association data 30'.

[0168] According to another non-limiting aspect, in the operational configuration of assigning the data processing unit 2, when the at least first command 3 is activated in the first or the second activation combination, it is configured to transmit at least one of the following signals: an activation signal toward the first conditioned water source or fluid source 22 or the second conditioned water source or fluid source 23; and a signal to open at least one valve 18, the valve 18 being operably connected to one of the multiple inlets 12-15 to determine the supply of water to the outlet 16 of the faucet 10 through water from the first selected inlet or from the first selected inlet group or from the second selected inlet group, respectively.

[0169] According to another non-limiting aspect, the at least first command 3 comprises at least a first and a second button, and / or comprises at least a rotatable and / or translatable controller, and / or comprises at least a monitor 3m, wherein the monitor 3m is operatively connected to the first and / or second button and / or the at least rotatable and / or translatable controller.

[0170] According to another non-limiting aspect, the first and / or the second activation combination includes a rotation and / or a translation of the rotatable and / or translatable controller, and / or wherein the activation of the at least first command 3 in the first or second activation combination determines the transmission of the first and second signals S1, S2 to the at least monitor 3m, and / or wherein in the self-learning operation configuration, the data processing unit 2 transmits at least one command signal S3 to the monitor 3m.

[0171] According to another non-limiting aspect, the rotatable and / or translatable controller includes at least one ring 3g, which can be rotated and / or translated clockwise or counterclockwise along at least one predefined axis X, Y, Z, preferably along at least one translation axis parallel to the rotation axis X of the ring and / or along at least one first axis Y, and optionally a second axis Z, at least one of the first axis and the second axis is orthogonal to the rotation axis X of the ring 3g, and optionally, at least one between the first activation combination and the second activation combination includes a compound movement of rotation and translation of the ring 3g.

[0172] According to another non-limiting aspect, the rotatable and / or translatable ring has at least a static stable position and an unstable position, and wherein the composite motion determines the movement of the ring from the static stable position to the unstable position.

[0173] According to another non-limiting aspect, at least one of the first or second signals S1, S2 comprises at least one data indicating the state of water dispensed through the outlet 16 of the faucet 10, in particular one data indicating the temperature, and / or vaporization and / or filtration of the water dispensed through the outlet 16 of the faucet 10.

[0174] According to another non-limiting aspect, at least one of the first signal or the second signal causes a graphical representation to appear on the monitor over time.

[0175] According to another non-limiting aspect, at least one of the first signal or the second signal includes identification data of a conditioned water or fluid source 22-25 operatively connected to the at least one inlet 12-15.

[0176] According to another non-limiting aspect, the electronic device 1 optionally comprises a vibration or sound unit 3v.

[0177] According to another non-limiting aspect, at least one of the first signal or the second signal results in a temporary activation of the vibration or sound unit 3v.

[0178] According to another non-limiting aspect, in the dispensing operation configuration, activation of the at least first command 3 in the first actuation combination and / or in the second activation combination determines the loading of the first relevant data 30 or the second relevant data 30' by the data processing unit 2 in an automatic manner.

[0179] According to another non-limiting aspect, in the dispensing operation configuration, the activation of at least the first command 3 in the first actuation combination and / or in the second activation combination determines in an automatic manner by the data processing unit 2 the dispensing of a predetermined amount of water defined based on volume and / or time at the outlet 16.

[0180] According to another non-limiting aspect, the at least first command 3 comprises a voice activation module.

[0181] According to another non-limiting aspect, the first actuation combination and / or the second activation combination is a combination that is at least partially voice activated.

[0182] According to another non-limiting aspect, the data processing unit 2 is configured to transmit control signals to the sources 22 - 25 of conditioned water or fluid.

[0183] According to another non-limiting aspect, the control signal is specifically used to place the at least one conditioning water source or fluid source 22-25 in a low energy consumption state and / or to disable the operating function of the conditioning water source or fluid source for a predetermined period of time; the control signal is optionally transmitted from the data processing unit 2 when the at least one command 3 is activated.

[0184] According to another non-limiting aspect, the conditioning water or conditioning fluid sources 22-25 are configured and specifically used to receive input control signals, which are specifically used to put them in a low-energy state and / or put them in an operational function disabled state.

[0185] According to the present invention, a method for controlling a faucet 10 is also described, comprising:

[0186] - an actuation self-learning operation configuration, wherein a data processing unit 2 of an electronic device 1 for controlling said faucet 10 is operatively associated with at least a first command 3 for selecting the supply of conditioned water or fluid from at least one of a plurality of inlets 12-15 of said faucet 10 to an outlet 16 of said faucet 10, and, as part of said electronic device 1, automatically enables at least a first actuation combination of said at least first command 3 in dependence on the connection of at least one first conditioned water or fluid source 22 of a plurality of conditioned water or fluid sources 22-25 to at least one of said plurality of inlets 12-15,

[0187] - loading first association data 30 from a memory operatively accessible to said data processing unit 2, said first association data 30 identifying a single association between said first inlet or said first group of inlets and said first source of conditioned water or fluid 22;

[0188] - wherein the first actuation combination is specifically for allowing, in use, water to be supplied to the outlet 16 in a first configuration through water from at least the first selected inlet of the plurality of inlets 12-15 or from the first selected group of inlets of the plurality of inlets 12-15 according to the first association data 30;

[0189] - Activate a dispensing operation configuration, wherein, when the first command 3 is activated in the first actuation combination, the data processing unit 2 loads the first associated data 30 from the memory and causes water from the first selected inlet among the multiple inlets 12-15 or from the first selected inlet group among the multiple inlets 12-15 to be dispensed on the outlet 16.

[0190] According to another non-limiting aspect, the first command 3 is part of said electronic device 1 .

[0191] According to another non-limiting aspect, the method comprises the step of enabling, by the data processing unit 2, to dispense the conditioned water or fluid according to a customized dispensing amount of the conditioned water or fluid and / or according to a customized dispensing time of the conditioned water or fluid.

[0192] According to another non-limiting aspect, the allocation amount and / or allocation time is selected based on at least one predefined activation or execution sequence of the at least first command 3, preferably based on a first and a second activation or execution sequence of the at least first command 3.

[0193] According to another non-limiting aspect, after activating the self-learning operation configuration, the data processing unit 2 determines to store in the memory the dispensing data corresponding to the dispensing volume of the user-customized conditioned water or fluid and / or the dispensing time of the user-customized conditioned water or fluid, optionally after the predefined activation or execution sequence of the at least first command 3, preferably after the first and second activation or execution sequences of the at least first command 3.

[0194] According to another non-limiting aspect, in the operational configuration of the dispensing, the predefined activation or actuation sequence of the at least first command 3 determines the automatic loading of the dispensing data corresponding to the customized dispensing amount of the conditioned water or fluid and / or the customized dispensing time of the conditioned water or fluid from the memory.

[0195] According to another non-limiting aspect, the method includes, in said dispensing operating configuration, dispensing conditioned water or fluid from said outlet 16 in an amount and / or time corresponding to a customized dispensing amount of conditioned water or fluid and / or a water dispensing time of said dispensing data.

[0196] According to the present invention, a method of controlling a faucet 10 having a plurality of inlets 12-15 configured to be connected to a corresponding plurality of conditioned water or fluid sources 22-25 is also described, wherein the method comprises:

[0197] - A self-learning operation configuration, wherein the data processing unit 2 of the electronic device 1 for controlling the faucet 10 is operationally associated with at least a first command 3, and when the first command 3 is activated with a first actuation combination, a first configuration is memorized in an automatic manner through first associated data 30, i.e., water is supplied to the outlet 16 of the faucet 10, the water coming from a first selected inlet among the multiple inlets 12-15, or from a first selected inlet group among the multiple inlets 12-15.

[0198] According to another non-limiting aspect, in the self-learning operation configuration, when the first command 3 is activated in a second activation combination, the data processing unit 2 automatically memorizes a second configuration for supplying water to the outlet 16 of the faucet 10 through second associated data 30, and the water comes from at least a second selected inlet among the multiple inlets 12-15, or from a second selected inlet group among the multiple inlets 12-15.

[0199] According to another non-limiting aspect, the method includes activating a dispensing operation configuration, wherein, when the first command 3 is activated in the first actuation combination, the data processing unit 2 loads the first associated data 30 from the memory and causes water from the first selected inlet among the multiple inlets 12-15 or from the first selected inlet group among the multiple inlets 12-15 to be dispensed on the outlet 16.

[0200] According to another non-limiting aspect, the method includes activating a distribution operation configuration, wherein, when the first command 3 is activated in the second activation combination, the data processing unit 2 loads the second associated data 30 from the memory and causes water from the second selected inlet among the multiple inlets 12-15 or from the second selected inlet group among the multiple inlets 12-15 to be distributed on the outlet 16.

[0201] According to another non-limiting aspect, when actuating the self-learning operation configuration, the data processing unit 2 automatically enables at least a second actuation combination of the at least first command 3 based on the connection of at least a second conditioned water source or fluid source 23 of the multiple conditioned water sources or fluid sources 22-25 with at least one of the multiple inlets 12-15.

[0202] According to another non-limiting aspect, the method comprises loading from a memory operatively accessible to said data processing unit 2 second association data 30 ′ identifying a single association between said second inlet or said second group of inlets and said second source of conditioned water or fluid 23 .

[0203] According to another non-limiting aspect, the first actuation combination is specifically configured to allow, in use, water to be supplied to the outlet 16 in a second configuration through water from at least the second selected inlet of the plurality of inlets 12-15 or from the second selected inlet group of the plurality of inlets 12-15 according to the first correlation data 30.

[0204] According to another non-limiting aspect, upon activation of said distribution operation configuration, when said first command 3 is activated in said second activation combination, the data processing unit 2 loads said second association data 30 ′ from said memory.

[0205] According to another non-limiting aspect, when activating the distribution operation configuration, when the first command 3 is activated in the second activation combination, the data processing unit 2 causes water from the second selected inlet among the multiple inlets 12-15 or from the second selected inlet group among the multiple inlets 12-15 to be distributed on the outlet 16.

[0206] According to another non-limiting aspect, in an operational configuration in which the data processing unit 2 is assigned, when the at least first command 3 is activated in the first or the second activation combination, at least one of the following transmissions is performed: an activation signal toward the first conditioned water source or fluid source 22 or the second conditioned water source or fluid source 23 and a signal to open at least one valve 18, the valve 18 being operatively associated with one of the plurality of inlets 12-15 for determining the supply of water to the outlet 16 of the faucet 10 via water from the first selected inlet or from the first selected inlet group or from the second selected inlet group, respectively.

[0207] According to another non-limiting aspect, the method comprises activating said command, comprising activating at least a first and a second button 3 of said command.

[0208] According to another non-limiting aspect, the method comprises activating at least one rotatable and / or translatable controller 3 of said command.

[0209] According to another non-limiting aspect, the method comprises interacting with at least one monitor 3m of said command 3.

[0210] According to another non-limiting aspect, said monitor 3m is operatively connected to said first and / or second buttons and / or said at least one rotatable and / or translatable controller.

[0211] According to another non-limiting aspect, the first activation combination and / or the second activation combination includes rotation and / or translation of the rotatable and / or translatable controller.

[0212] According to another non-limiting aspect, the activation of said at least first command 3 in said first or second activation combination determines the transmission of a first and a second signal S1 , S2 to said at least monitor 3 m.

[0213] According to another non-limiting aspect, in said self-learning operating configuration, said data processing unit 2 transmits at least one command signal S3 to said monitor 3m.

[0214] According to another non-limiting aspect, said first and / or said second actuation combination comprises activation of at least one ring 3g of said rotatable and / or translatable controller.

[0215] According to another non-limiting aspect, the ring 3g can rotate clockwise or counterclockwise and / or translate along at least predetermined axes X, Y, Z, preferably along a translation axis at least parallel to the ring's rotation axis X and / or along at least a first axis Y, and optionally a second axis Z.

[0216] According to another non-limiting aspect, at least one of the first axis and the second axis is orthogonal to the axis of rotation X of the ring 3g.

[0217] According to another non-limiting aspect, at least one of said first actuation combination and said second actuation combination comprises a combined rotational-translational movement of said ring 3g.

[0218] According to another non-limiting aspect, the rotatable and / or translatable ring has at least a static stable position and an unstable position.

[0219] According to another non-limiting aspect, the compound motion determines the movement of the ring from the static stable position to the unstable position.

[0220] According to another non-limiting aspect, at least one of the first or second signals S1, S2 comprises at least one data indicating the state of water dispensed through the outlet 16 of the faucet 10, in particular one data indicating the temperature, and / or vaporization and / or filtration of the water dispensed through the outlet 16 of the faucet 10.

[0221] According to another non-limiting aspect, at least one of the first signal or the second signal causes a graphical representation to appear on the monitor over time.

[0222] According to another non-limiting aspect, at least one of the first signal or the second signal includes identification data of a conditioned water or fluid source 22-25 operatively connected to the at least one inlet 12-15.

[0223] According to another non-limiting aspect, at least one of the first signal or the second signal causes a temporary activation of a vibration or sound unit 3v of the electronic device 1 .

[0224] According to another non-limiting aspect, in the dispensing operation configuration, activation of the at least first command 3 in the first actuation combination and / or in the second actuation combination determines the loading of the first relevant data 30 or the second relevant data 30' by the data processing unit 2 in an automatic manner.

[0225] According to another non-limiting aspect, in the dispensing operation configuration, the activation of at least the first command 3 in the first actuation combination and / or in the second actuation combination determines in an automatic manner by the data processing unit 2 the dispensing of a predetermined amount of water defined based on volume and / or time at the outlet 16.

[0226] According to another non-limiting aspect, the method comprises activating a voice activation module 3 of said at least first command.

[0227] According to another non-limiting aspect, the first actuation combination and / or the second actuation combination are combinations that are at least partially voice activated.

[0228] According to another non-limiting aspect, the method comprises transmitting a control signal from said data processing unit 2 to a source 22 - 25 of conditioned water or fluid.

[0229] According to another non-limiting aspect, the method comprises activating and / or maintaining active a sensor of the electronic device 1 and / or the faucet 10, said sensor being configured to transmit a signal to the data processing unit 2, said signal being indicative of a characteristic of said conditioned water or fluid.

[0230] According to another non-limiting aspect, the method includes a comparison step performed by the data processing unit 2; in the comparison step, the data processing unit 2 compares the signal with a range or threshold of selected values, and when an exceeding of the threshold occurs or the outlet exceeds the range of selected values ​​of the signal, the data processing unit 2 determines to send an alarm message, and / or determines to automatically and preferably immediately interrupt the dispensing of conditioned water or fluid from the outlet 16.

[0231] According to another non-limiting aspect, the characteristic of the conditioned water or fluid includes at least one of: temperature, pressure, determined presence or amount of one or more chemicals or minerals, bacteria or viruses.

[0232] According to another non-limiting aspect, the control signal is specifically used to place the at least one conditioning water or fluid source 22-25 into a low power consumption state and / or to disable an operational function of the conditioning water or fluid source for a predetermined period of time.

[0233] According to another non-limiting aspect, said control signal is transmitted from said data processing unit 2 when said at least one command 3 is active.

[0234] According to the invention, the use of an electronic device 1 and / or a tap 10 for dispensing conditioned water and / or fluids, in particular fluids for drinking, is described.

[0235] According to another non-limiting aspect, the fluid comprises one or more elements from the following list: wine, beer and its by-products, spirits, fruit juice, vegetable juice, fruit or vegetable smoothies, milk, yogurt or by-products, cream, oil, wine vinegar and fruit vinegar, beverages with added protein and / or vitamins.

[0236] According to the invention, the use of an electronic device 1 and / or a faucet 10 in a domestic application, preferably in a kitchen, is described. BRIEF DESCRIPTION OF THE DRAWINGS

[0237] Some embodiments of the inventive subject matter of the present application are described below; the following detailed description refers to the accompanying drawings, which are briefly described below.

[0238] Figure 1 An illustrative and non-limiting embodiment of a faucet according to the present application is shown; the faucet is provided with electronic means for controlling the dispensing of water from one or more conditioning water or fluid sources.

[0239] Figure 2 An alternative embodiment of a faucet according to the present invention is shown.

[0240] Figure 3 A first embodiment of a faucet of the present application is schematically shown, wherein the electronic device comprises a data bus for transmitting data for identification and / or control of one or more conditioning water or fluid sources.

[0241] Figure 4 A second embodiment of a faucet of the present application is schematically shown, wherein the electronic device includes a wireless channel for transmitting identification and / or control data of one or more conditioning water or fluid sources.

[0242] Figure 5 A third embodiment of a faucet of the present application is schematically shown, wherein the electronic device comprises a plurality of data lines, each data line being operatively associated with a respective hydraulic inlet adapted to be connected to a respective source of conditioning water or fluid.

[0243] Figure 6 A schematic diagram showing the logical association that exists between multiple sources of conditioned water or fluid and multiple inlets of a faucet.

[0244] Figure 7 A schematic diagram of a specific embodiment of the faucet object of the present application is shown, in which the reader of the tag RFid is positioned substantially corresponding to the inlet and is destined to read the tag RFid of the conditioning water source or fluid source.

[0245] Figure 8 A schematic diagram showing the hydraulic connections of a particular conditioned water or fluid source.

[0246] Fig. 9 A first specific variant of the command type of the electronic device mounted on the faucet of the present application is shown. This specific variant includes a plurality of buttons.

[0247] Fig.10 A second specific variant of the command type of the electronic device installed on the faucet of the present application is shown. This specific variant includes a monitor.

[0248] Fig.11A third specific variant of the command type of the electronic device installed on the faucet of the present application is shown. This specific variant includes a first and a second mechanical command.

[0249] Fig.12 A first configuration of a water supply system for a first particular conditioned water source or fluid source is shown.

[0250] Fig.13 A second configuration of the water supply system for a second specific conditioned water or fluid source is shown.

[0251] Fig.14 The specific configuration of the electronic device object of the present application is shown.

[0252] Fig.15 First and second configurations of the association between compound movement of a command ring of an electronic device and selection and / or dispensing of water from a water source are shown.

[0253] Fig.16 and Fig.17 First and second schematic diagrams are shown controlling first and second screens respectively present on a monitor.

[0254] Fig.18 Non-limiting examples of conditioned water or fluid sources according to the teachings of the present application are shown. DETAILED DESCRIPTION

[0255] The present application relates to an electronic device 1 suitable for being associated with a faucet 10, in particular configured to be operably connected to the faucet 10 or to be part of the faucet 10; the present application also relates to a method of connecting the faucet 10 and / or the electronic device 1 to one or more conditioning water sources or fluid sources. The present application also relates to a method of controlling a faucet. The present application also relates to an electronic faucet. In the following detailed description, there is not always a clear differentiated reference between the specific configuration of the electronic device 1 and / or the faucet 10 and the methods performed by them (or together with them). It should be understood that when the faucet 10 and / or the electronic device 1 have certain technical features or can be actuated in a certain manner, it should obviously also be considered that the corresponding implementation methods of the faucet 10 and / or the electronic device 1, the corresponding methods of connecting to the conditioning water source or fluid source and / or the corresponding control methods of the faucet 10 are disclosed.

[0256] For the purposes of this application, fluid refers to drinkable fluid, preferably a fluid containing one or more elements from the following list: wine, beer and its by-products, spirits, fruit juice, vegetable juice, fruit or vegetable smoothies, milk, yogurt or by-products, cream, oil, wine vinegar and fruit vinegar, beverages with added protein and / or vitamins.

[0257] The faucet 10 according to the present application comprises a body 10B, an outlet 16 for dispensing water and at least one module 100a (connection module) having a plurality of inlets 12-15. In an embodiment, the inlets are four, but this number is not limiting. The module 100a is preferably arranged under the top 50 of the kitchen or sink and / or configured to be hidden from the user's sight during normal use of the faucet.

[0258] The module 100 a may be formed integrally with the main body 10B of the faucet 10 , or may be separated therefrom, in particular, as a connection module 100 a specifically mounted and connected to the main body 10B of the faucet 10 .

[0259] Inlets 12 - 15 are hydraulic inlets which can be connected to outlet 16 alternately or in combination by appropriate commands, as will be better described below.

[0260] There is also a dispensing command 10C connected to the body 10B. This dispensing command 10C allows the flow rate of the water flowing at the outlet 16 to be varied and / or the temperature of the water produced at the outlet 16 to be varied.

[0261] The dispensing command 10C may be mounted on the body 10B of the faucet, as shown in the drawings, or may be mounted at a location separate from the body of the faucet 10. Some embodiments of the faucet 10 may include first and second dispensing commands 10C; in this case, the first and second dispensing commands 10C may be mounted corresponding to the body 10B of the faucet 10, or at least one of the first command and the second dispensing command 10C may be mounted at a location separate from the body of the faucet 10.

[0262] The tap 10 also comprises a first operating inlet 11a of conventional type and a second operating inlet 11b for cold water; the mixing of the water from the two inlets is conventionally controlled by a dispensing command 10C. Alternatively, the first and second operating inlets 11a, 11b may be mounted on the connection module 100a. The hot and cold water supplied to the first and second operating inlets 11a, 11b are supplied by a distribution network, preferably a domestic distribution network.

[0263] Each inlet 12-15 is connected to a corresponding source of conditioning water or fluid. The conditioning water or fluid sources are indicated in the drawings by reference numerals 22, 23, 24, 25. In the drawings, there are four conditioning water or fluid sources, but this number should not be considered limiting.

[0264] In one embodiment, portals 12-15 are all equipped with the same type of connector. Therefore, in this embodiment, the exact destination of the connection between a selected portal and a particular source cannot be identified.

[0265] Typically, the plurality of inlets 12-15 include inlets of the same size and / or shape and / or color and / or configuration. In one embodiment, each of the plurality of inlets 12-15 is provided with an inlet with a screw inlet.

[0266] The first source of conditioning water or fluid 22 is, for example, a hot water source, preferably configured to dispense water at a temperature close to boiling temperature (then approximately 100° C.).

[0267] The second conditioned water or fluid source 23 is, for example, a cold water source, preferably configured to dispense water at a near freezing temperature, such as about 5°C.

[0268] The third source of conditioned water or fluid 24 is, for example, a source of sparkling water, preferably configured to dispense water to which carbon dioxide has been added. The third source comprises a carbon dioxide doser. Conveniently, the carbon dioxide doser comprises a replaceable pressurized bottle for controlling the addition of carbon dioxide to the water dispensed through the outlet 16.

[0269] The fourth conditioned water or fluid source 25 is, for example, a filtered water source, preferably configured to dispense water free of minerals and / or contaminants through a mechanical and / or chemical filtration process.

[0270] Figure 2 An alternative embodiment of the faucet 10 is shown in which the plurality of inlets 12-15 are mounted on a plurality of connection modules 100a, 100b, 100c, and at least a portion of these connection modules are detachable and modularly configurable on the body of the faucet 10. Furthermore, the connection modules 100a, 100b, 100c are intended to be mounted below the top 50 of a kitchen or sink and / or to be hidden from view of a user during normal use of the faucet.

[0271] Specifically, Figure 2 The non-limiting embodiment shown shows an embodiment in which a first connection module 100a is connected in a direct manner to the body 10B of the faucet 10, the first connection module 100a accommodating the first and second operating inlets 11a, 11b, the second connection module 100b accommodating the first and second inlets 12, 13, and the third connection module 100c accommodating the third and fourth inlets 14, 15. Each of the second connection module 100b and the third connection module 100c includes an outlet connected to the inlet of the inter-module connection of the first connection module 100a.

[0272] Through this configuration, the step of connecting at least one, preferably multiple, connection modules 100a, 100b, 100c to the main body of the faucet 10 can generally be achieved, wherein the connection modules are used to introduce conditioned water or fluid into the main body of the faucet 10, so that at least a portion of the multiple inlets 12-15 are arranged on the multiple connection modules 100a, 100b, 100c; optionally, at least a first portion of the multiple inlets 12-15 are arranged on each of the multiple connection modules 100a, 100b, 100c, and a second portion of the multiple inlets 12-15 are directly connected to the main body 10B of the faucet 10.

[0273] At least one of the plurality of connection modules 100a, 100b, 100c is configured and specifically designated to be connected to an inlet of another connection module 100a, 100b, 100c, an inlet for conditioned water or fluid, or to one of the inlets in the second portion of the plurality of inlets 12-15.

[0274] The faucet 10 of the present application is then configured to allow modular connection of one or more conditioned water or fluid sources 22-25 to a respective inlet selected, in particular randomly selected, between the plurality of inlets 12-15.

[0275] As will be more clearly explained in the following description, each conditioned water or fluid source 22-25 is configured and specifically designated to transmit at least one own unique identification code, which in particular allows it to be distinguished from the other sources. Different configurations of conditioned water or fluid sources 22-25 have been envisaged, some of which are capable of transmitting this unique identification code on a wired data channel (data bus) of dedicated or universal type and / or on a wireless data channel.

[0276] Said at least own unique identification code is transmitted by means of a signal S of electromagnetic type.

[0277] If the conditioning water or fluid sources 22-25 are configured to transmit a single identification code on a wired data channel, each conditioning water or fluid source 22-25 will be equipped with its own data connector allowing the exchange of electrical and / or optical signals with the electronic device 1. In an embodiment, each conditioning water or fluid source 22-25 may optionally be equipped with a button suitable for allowing pairing in the mode described below.

[0278] The faucet 10 is configured to perform the identification process of the conditioned water or fluid source 22-25 in an at least partially automated manner and to allow for a logical association between a corresponding one of the plurality of inlets 12-15 and a selected one of the plurality of conditioned water or fluid sources 22-25, so that dispensing of water through one or more of the conditioned water or fluid sources 22-25 can be called upon by command without requiring an operator performing the installation of the faucet 10 to take care to connect the determined conditioned water or fluid source to the particular inlet 12-15 in a particular manner. Thus, the faucet described herein may be defined as a smart faucet. In one embodiment, the operator performing the connection can even randomly connect each of the multiple conditioning water sources or fluid sources 22-25 to the corresponding inlet and actuate or in any way wait for the completion of the self-configuration process, after which the faucet 10 will uniquely and correctly associate the command with the correct inlet of the specific and correct conditioning water source or fluid source 22-25 corresponding to the command or the opening of the valve of the correct inlet 12-15, or the sending of the distribution command toward the specific and correct conditioning water source or fluid source 22-25.

[0279] The faucet 10 is designed to simplify the connection of the various sources of conditioned water or fluid 22-25 to the corresponding inlets 12-15, even if these inlets are similar or even identical in appearance, and to prevent connection errors that could occur with faucets according to the known art, since a specific inlet among the multiple inlets present on the faucet is selected by command through an electronic association procedure carried out by a data processing unit and this selection is configured according to a procedure that is at least partially automated.

[0280] Due to this technical feature, not only is it no longer necessary to have a specific graphic and / or size coding for each inlet 12-15, but any one of the inlets of the faucet can be used to connect to any source of conditioning water or fluid 22-25. Therefore, even in terms of the position and / or orientation of the inlets 12-15, the relative positioning flexibility between the faucet 10 itself and the source of conditioning water or fluid 22-25 is improved.

[0281] To achieve this technical function, the tap 10 is provided with electronic means 1 comprising at least one command 3 , preferably a plurality of commands 3 - 5 , for allowing the selection of a command among the sources 22 - 25 of conditioning water or fluid for dispensing to the outlet 16 of the tap 10 .

[0282] The device 1 comprises a data processing unit 2 configured to receive as input at least one identification signal S of at least one first conditioning water or fluid source 22, which first conditioning water or fluid source 22 is connected, when in use, to a first inlet 12 of a plurality of inlets 12-15 of the tap 10. The data processing unit 2 is configured to store a logical association 30 between the at least one first conditioning water or fluid source 22 and the first inlet 12 of the plurality of inlets 12-15 in an at least partially automated manner.

[0283] A processor of a general type on which a predefined software program is executed, or a dedicated processor, and / or an AISC, and / or a small FPGA may be provided to perform the activities described in the present application. A memory (preferably a non-volatile memory) associated with the data processing unit 2 contains the data and / or software programs required to perform the activities described in the present application.

[0284] The software program includes code portions that can be written in any programming language. These code portions, when executed, determine the execution of one or more steps of the method for conditioning a connection between a water source or fluid source and a faucet as described herein and / or determine the execution of the method for controlling a faucet as described herein.

[0285] The electronic device 1 can be configured to be operatively paired with the faucet 10, and can then be manufactured or sold as a separate device relative to the faucet 10 itself. In an alternative embodiment, the faucet 10 includes the electronic device 1, so that the electronic device 1 is an integral part of the faucet itself. Although integral, the faucet 10 and the electronic device 1 can be two different entities.

[0286] The applicant has conceived various embodiments of the electronic device 1 and the faucet 10 , which will be discussed in detail below.

[0287] The first embodiment of the electronic device 1 is equipped with a data bus 43 which is operatively connected, in particular electrically connected, to the data processing unit 2. Electronic data are sent and received in the form of identification signals S of one or more conditioned water or fluid sources 22-25 on the data bus 43. In one embodiment, the data bus 43 is a serial type data bus.

[0288] The data processing unit 2 thus executes an electronic program for reading the data transmitted on the data bus 43. It should be noted that the data bus 43 is in particular bidirectional and can therefore both receive data transmitted by the conditioned water or fluid sources 22-25 and transmit data to the conditioned water or fluid sources 22-25 themselves.

[0289] like Figure 3As shown, a specific embodiment of the data bus 43 is represented by a serial type data bus, preferably a half-duplex type. In a non-limiting embodiment, the data bus 43 operates according to the standard EIA RS 485. EIA RS 485 identifies a specific ISO / OSI for half-duplex and multi-point type serial data transmission on the physical layer.

[0290] Each conditioning water source or fluid source 22-25 is provided with a respective connector for transmitting data on the data bus 43. The connector may be, for example, but not limited to, a 5-pin connector and / or a tray connector. Each conditioning water source or fluid source 22-25 is configured to transmit an identification signal S on the data bus 43, which distinguishes it from other conditioning water sources or fluid sources transmitting on the data bus 43.

[0291] A pairing operation is performed to allow for storage of a logical association between a particular conditioned water or fluid source 22-25 and a particular inlet 12-15. The pairing operation represents an associated operational configuration, which will be described in more detail below, and which may be activated, for example, by a particular activation combination of commands present on the faucet 10 or by an external computer operably associated with the electronic device 1 described herein.

[0292] The electronic device 1 is in a specific associated operating configuration, thanks to which the data processing unit 2 is in a configuration allowing it to “listen” to the transmission of its own identification code between the conditioned water or fluid sources 22 - 25 on the data bus 43 .

[0293] In this operating configuration, by means of command 3, an appropriate inlet is selected among the plurality of inlets 12-15. This appropriate inlet is, for example, the first inlet 12. Thus, the data processing unit 2 knows that it is "hearing" the transmission of the identification signal S of the conditioned water or fluid source 22-25, which is connected to a determined inlet among the plurality of inlets 12-15, for example the first inlet 12. Then, in this case, the operator connects the conditioned water or fluid source 22 to the first inlet 12 and places the electronic device 1 in an operating configuration in which it will keep listening, via the data bus 43, to the identification signal S of the conditioned water or fluid source 22-25 (for example, the "hot" identification signal S, which is then associated with the first conditioned water or fluid source 22 according to the example of the attached figure), which conditioned water or fluid source 22-25 will be logically associated with the first inlet 12.

[0294] When the data processing unit 2 receives the "hot" identification signal S, the data processing unit 2 memorizes the "hot" identification signal S as the identification signal associated with the first inlet 12. In this way, the electronic device 1 will know which of the first inlets 12 is connected to the first conditioning water source or fluid source 22.

[0295] In this operating configuration, the appropriate inlet is always selected between the plurality of inlets 12-15, either by command 3 or by second command 4. This inlet is, for example, the second inlet 13. The data processing unit 2 thus knows that it is "hearing" the transmission of the identification signal S of a conditioned water or fluid source 22-25, which is connected to a determined inlet between the plurality of inlets 12-15, for example the second inlet 13. Then, in this case, the operator connects the conditioned water or fluid source 23 to the second inlet 13 and places the electronic device 1 in an operating configuration in which it will continue to listen via the data bus 43 for the identification signal S of the conditioned water or fluid source 22-25 (for example, in the example in the figure, the "cold" identification signal S indicating the second conditioned water or fluid source 23), which will be logically associated with the second inlet 13.

[0296] When the data processing unit 2 receives the "cold" identification signal S, it memorizes the "cold" identification signal S as the identification signal associated with the second inlet 13. In this way, the electronic device 1 will know which of the second inlets 13 is connected to the second conditioning water source or fluid source 23.

[0297] The remaining conditioned water or liquid sources are processed in a similar manner; therefore, that sequence is not repeated herein.

[0298] The second embodiment of the electronic device 1 of the present invention is provided with a data processing unit 2, which is connected to or integrated with a wireless electronic transceiver module, and the wireless electronic transceiver module is connected to an antenna 40. Figure 4 shown.

[0299] Each conditioning water source or fluid source 22 - 25 is equipped with a corresponding wireless transmission module, which is in turn connected to a corresponding antenna 42 .

[0300] The operation process of the association configuration is similar to that described above, but unlike the previous case, the bus 43 is replaced by a wireless channel.

[0301] Also in this case, the electronic device 1 is placed in a specific associated operating configuration, whereby the data processing unit 2 is placed in a configuration allowing to "listen" to the wireless channel that transmits its identification code between the sources 22-25 of conditioned water or fluid.

[0302] In this operating configuration, by means of command 3, an appropriate inlet is selected among the plurality of inlets 12-15. This appropriate inlet is, for example, the first inlet 12. Thus, the data processing unit 2 knows that it is "hearing" the transmission of the identification signal S of the conditioned water or fluid source 22-25, which is connected to a determined inlet among the plurality of inlets 12-15, for example the first inlet 12. Then, in this case, the operator connects the conditioned water or fluid source 22 to the first inlet 12 and places the electronic device 1 in an operating configuration in which it will keep listening, via the wireless channel and the corresponding antenna 40, to the identification signal S (for example, the "hot" identification signal S) of the conditioned water or fluid source 22-25, which will be logically associated with the first inlet 12.

[0303] When the data processing unit 2 receives the "hot" identification signal S, the data processing unit 2 memorizes the "hot" identification signal S as the identification signal associated with the first inlet 12. In this way, the electronic device 1 will know which of the first inlets 12 is connected to the first conditioning water source or fluid source 22.

[0304] In this operating configuration, the appropriate inlet is always selected between the plurality of inlets 12-15, either by command 3 or by a second command 4. This appropriate inlet is, for example, the second inlet 13. Thus, the data processing unit 2 knows that it is "hearing" the transmission of the identification signal S of a conditioned water or fluid source 22-25, which is connected to a determined inlet between the plurality of inlets 12-15, for example the second inlet 13. Then, in this case, the operator connects the conditioned water or fluid source 23 to the second inlet 13 and places the electronic device 1 in an operating configuration in which it will keep listening, via the wireless channel and the corresponding antenna 40, to the identification signal S (for example, the "cold" identification signal S) of the conditioned water or fluid source 22-25, which will be logically associated with the second inlet 13.

[0305] When receiving the "cold" identification signal S from the data processing unit 2, the data processing unit 2 memorizes the "cold" identification signal S as the identification signal associated with the second inlet 13. In this way, the electronic device 1 will know which of the second inlets 13 is connected to the second conditioning water or fluid source 23.

[0306] Figure 5Another embodiment of the electronic device 1 and the faucet 10 is also shown. In this embodiment, there is a dedicated data channel, dedicated to each conditioned water or fluid source 22-25. The data channel is wired, and over the channel the data moves signals of an electrical and / or optical nature. There are a plurality of inlet data 41 on the electronic device 1. The number of inlet data 41 is equal to the number of inlets 12-15 of the faucet, and each inlet data 41 is operatively and explicitly pre-associated to a specific inlet among the inlets of the plurality of inlets 12-15.

[0307] In this particular embodiment, it is sufficient for each conditioning water or fluid source 22-25 to send its own identification signal S, without the need for a prior selection of a particular inlet 12-15.

[0308] In this particular embodiment, in the associated operating configuration, the operator only needs to continue connecting, for example, the first conditioning water source or fluid source 22 to the first inlet 12, and connect the connector of the first conditioning water source or fluid source 22 to the data line 41 (in particular, the inlet data 41) associated with the first inlet 12 so that the identification signal S of the first conditioning water source or fluid source 12 is transmitted to the inlet data 41, thereby allowing the logical association between the first inlet 12 and the first conditioning water source or fluid source 22 to be stored in a basically automated manner.

[0309] Figure 6 A schematic diagram showing associations stored in a memory operatively accessible from the data processing unit 2; having four inlets and four conditioned water or fluid sources, a table having at least two columns and four rows is present in the memory, each row identifying a logical association between an inlet and a particular conditioned water or fluid source. The table can be conveniently called upon when dispensing a particular type of conditioned water or fluid.

[0310] Applicants have envisaged a specific embodiment in which the connector associated with each inlet 12-15 is also embedded in the associated data input 41. In this case, in use, the physical water connection of the first conditioning water or fluid source 22-25, and therefore the physical water connection of the remaining conditioning water or fluid sources 23-25, automatically determines the connection of the source to the data line 41, and in particular to the data input 41.

[0311] like Figure 7As shown, another embodiment of the electronic device 1 and the faucet 10 is that a reader 61 of a wireless tag 60 (for example a tag RFid) is arranged at a position substantially corresponding to each inlet 12-15, which allows the transmission of an identification signal S of a specific conditioning water source or fluid source 22-25. In this case, the wireless tag 60 can be arranged at a position corresponding to the hydraulic connector 26 of the source connected to one of the inlets 12-15 in use, so that the proximity of the reader 61 and the wireless tag 60 determines the possibility of the data processing unit 2 receiving the identification signal S. Preferably, the reader 61 of the tag RFid is positioned at a position substantially corresponding to each inlet 12-15. Through the tag RFid, a radio communication channel can be realized within a short or very short distance, which is advantageous only in the case of contact with the hydraulic connector 26 (for example, Figure 7 Only when there is actually a connection (as shown, including the clamping nut) is it possible to identify the source of the conditioned water or fluid 22-25 connected to the faucet 10. Thus, erroneous identification of a source of conditioned water or fluid 22-25 placed only near the faucet (e.g. 5 or 6 meters) is avoided.

[0312] Different types of tags RFid can be used, but in a particular embodiment, the tags RFid are passive. The reader 61 emits a radio signal, the power of which is sufficient to activate the microchip of the tag RFid, providing the energy required to respond to the reader 61, retransmitting to it a signal containing the information stored in the microchip. Thus, in essence, thanks to the above technical features, the conditioned water or fluid sources 22-25 do not have to have a specific electronic "intelligence"; it is sufficient that they are able to send the identification signal S.

[0313] To enable selective dispensing of water from one or more conditioned water or fluid sources in a controlled manner, such as Figure 3 , 4 As shown in Figure 5, the body of the faucet 10 integrates a plurality of valves 18 (the number of valves in the figure is equal to four, which is then equal to the number of inlets), each valve being connected to a corresponding inlet 12-15. Each of these valves 18, in addition to the valves shown in the figure, can be arranged on a corresponding conditioning water source or fluid source 22-25.

[0314] The control line 19 is used to determine the opening, closing or partial closing of each valve 18, even independently of each other, according to the commands 3-6 selected by the user during use. During use, an activation signal for the valve 18 is provided on the control line 19; the activation signal 18 is transmitted by the data processing unit 2.

[0315] like Figure 8As schematically shown in FIG. 1 , it is noteworthy that, from a practical perspective, the first source of conditioned water or fluid 22 is not directly connected to the inlet 12-15 of the faucet 10; a safety valve 22v is located between the source and the faucet inlet. In turn, the safety valve 22v is paired with a backflow prevention device 22i, which preferably includes a free venting funnel or equivalent device, which is connected to the sewage outlet pipe by connection 22r. The purpose of the free venting funnel or equivalent device is to allow water that may flow back from the sewage outlet to flow out before the pipeline of the conditioned water source or fluid source becomes contaminated. The free venting funnel then allows the water flowing out of the safety valve 22v to flow to the sewage outlet, but if the water flows back directly from the sewage outlet to the safety valve 22v, the free venting funnel will allow the water from the sewage outlet to flow to the environment without contaminating the existing pipeline between the conditioned water source or fluid source 22 and the inlet 12-15 of the faucet 110. This pipeline is actually a clean or potable water pipeline that must be prevented from being contaminated by dirty or non-potable water.

[0316] Fig. 9 A first configuration of the faucet 10 is shown, in which multiple commands 3-6 are in the form of separate buttons, arranged on the body of the faucet 10, located in the base 10T of the body 10B, and when in use, the base 10T is located above the top 50 of the sink; each of the above-mentioned separate buttons is electronically connected to the data processing unit 2.

[0317] Fig.10 A second configuration of the faucet 10 is shown, in which the command 3 is a digital command having a monitor 3m from which a plurality of icons 3k can be displayed. This command 3 can conveniently replace or be combined with the above-mentioned monitor 3m, with a rotatable and / or axially movable annular ring for allowing selection and / or confirmation of which of the conditioned water or fluid sources 22-25 should be selected for dispensing from the outlet 16.

[0318] Fig.11 A third configuration of a tap 10 is shown, which is provided with first and second commands 3,4 in the form of mechanical switches, which act respectively on one or more valves 18 via control lines 19. Also in this case, the first and second commands 3,4 are operatively connected to a data processing unit 2.

[0319] although Fig. 9 , 10, 11 show an embodiment in which the controller 3 or multiple controllers 3-6 are integrated in the faucet body, but this particular configuration should not be intended in a limiting manner; in fact, in a non-limiting embodiment, the controller 3 or multiple controllers 3-6 can be integrated in a command module that is separate from the body of the faucet 10. The command module is destined to be installed above the top 50 of the sink or kitchen; or, the command module is destined to be embedded in the top of the kitchen or sink. Therefore, it is clear that the present application shows a command module and / or electronic device that can be remotely controlled relative to the body of the faucet 10.

[0320] The Applicant has conceived a particular embodiment of the electronic device 1 in which at least one command 3 is virtual and displayed in the form of a software platform on an electronic portable device, such as a smartphone. Alternatively, the command 3 is accessible electronically via the electronic portable device.

[0321] A second particular configuration of faucet 10 may occur differently when dispensing a particular type of water from a particular conditioning water source or fluid source.

[0322] In particular, when each conditioned water or fluid source 22-25 is always pressurized and / or ready to supply the inlet to which it is connected, it is sufficient that the valve 18 connected to the aforementioned inlet is at least partially opened when a dispense with a specific associated command inlet is selected. If the valve 18 is arranged in the faucet 10, it is not necessary to send any activation command to one of the conditioned water or fluid sources 22-25.

[0323] On the other hand, if valve 18 is arranged corresponding to each conditioned water or fluid source 22-25, and / or if the conditioned water or fluid source 22-25 needs to be activated regardless of the position of valve 18, the appropriate activation signal is transmitted to the conditioned water or fluid source 22-25 concerned.

[0324] If the embodiment of the electronic device 1 and / or the faucet 10 implies the presence of a data bus 43, the activation signal is operatively associated with an identification signal of the conditioned water or fluid source 22-25 of interest. In this way, the conditioned water or fluid source 22-25 can receive a signal identifying it and thereafter be activated and / or determine at least a partial opening of the valve 18.

[0325] If the embodiment of the electronic device 1 and / or the faucet 10 implies the presence of a wireless transmission channel, then in this case the activation signal is also operatively associated with the identification signal of the conditioning water source or fluid 22 - 25 of interest.

[0326] If an embodiment of the electronic device 1 and / or of the tap 10 implies that a data line 41, in particular at least one inlet datum 41, is selectively associated with each inlet, in this case it is not necessary to transmit an identification signal of the conditioning water source or fluid 22-25 of interest, since the identification of the latter is already automatically achieved by the procedure of the data processing unit 2 selecting the specific inlet datum 41 of interest paired with the associated command - conditioning water source or fluid 22-25.

[0327] Fig.12 In particular, a known arrangement for supplying a conditioning water source or fluid source 122 for dispensing water at near boiling temperature is shown. In the prior art, unfiltered water is obtained from a domestic water supply line at a first pressure P1, such as but not limited to P1 = 3 bar.

[0328] Water from the household water supply line is first filtered through a filter 100 (eg, a mechanical filter) and then supplied to a safety valve 122v (which is a non-return valve).

[0329] The water flowing out of the safety valve 122v is delivered to the boiler 122, and its second pressure P2 is higher than P1. The second pressure P2 is, for example, 8 bar. There is a backflow prevention device 122i between the safety valve 122v and the boiler 122, for example, including a free exhaust funnel, which is connected to the sewage outlet pipe. The purpose of the free exhaust funnel is to allow water that may flow back from the sewage outlet to flow out before contaminating the pipeline of the conditioning water source or fluid source. More specifically, the black water flowing back to the sewage pipeline will be dispersed into the environment, and cannot flow back to the clean water pipeline, so that the clean water pipeline will not be contaminated.

[0330] The boiler 122 is an electric boiler, preferably powered by a conventional power distribution network at 240 Vac, or if used in an industrial application, three phase 380 Vac.

[0331] The safety valve 122v, the boiler 122, the backflow prevention device 122i and the filter 100 are independent units, and there should be a sufficient number of connectors connecting them.

[0332] Applicants have contemplated one particular embodiment, namely, a conditioned water or fluid source 22 configured to dispense water at a temperature near boiling temperature that integrates a filter 22f, a safety valve 22v, and a boiler 22b in a unique unit (ie, in a single housing).

[0333] The device comprises an inlet 22k which is supplied with unfiltered water from a domestic water supply line. Water is supplied at the inlet at a first pressure, for example P1 = 3 bar.

[0334] The inlet 22k is directly connected to the filter 22f, which preferably, but not limited to, mechanically filters the water to remove large particles and / or a large amount of minerals that may affect the operation of the boiler 22b. The outlet of the filter 22f is directly connected to the inlet of the safety valve 22v, which is particularly a check valve configured to allow water to be supplied from its inlet to its outlet and prevent water from flowing back from the outlet to the inlet. Downstream of the safety valve 22v, the water is at a second pressure P2 higher than the first pressure P1. In a specific embodiment, the second pressure P2 is equal to 8 bars. The outlet of the safety valve 22v is connected to a three-way connector, particularly to the first way of the connector. The second way of the connector is connected to the inlet of the boiler 22b, the purpose of which is to make the temperature of the introduced water close to the boiling temperature. The outlet of the boiler 22b directly supplies the outlet of the unit 22u, which is in turn connected to the first inlet 12 of the faucet 10.

[0335] A third way of connecting is through the auxiliary outlet 22a of the device to a backflow prevention device 22i located outside the device. In a preferred but non-limiting embodiment, the device includes a free vent funnel that is connected to the sewage outlet pipe. The purpose of the free vent funnel is to allow water that may flow back from the sewage outlet to escape before contaminating the pipeline of the conditioning water source or fluid source. The backflow prevention device 22i should be located at a higher elevation relative to the elevation at which the sewage outlet siphon is located.

[0336] Then, at least one conditioned water or fluid source, in particular a plurality of conditioned water or fluid sources 22-25, adapted to be connected to the tap 10, is also part of the content of the present application. The conditioned water or fluid source is configured to supply at least one conditioned water or fluid in use for heating, in particular heating to a temperature close to boiling, cooling, in particular cooling to a temperature close to freezing, by gasification, in particular by adding carbon dioxide, and / or by filtering, in particular by mechanical or chemical filtration.

[0337] The plurality of conditioning water or fluid sources 22-25 include at least one data transmission module configured to transmit a clear identification signal S of a particular conditioning water or fluid source 22-25, such that the conditioning water or fluid source can be electronically distinguished and selectively activated relative to other conditioning water or fluid sources 22-25 simultaneously connected to the faucet 10.

[0338] The applicant particularly considers that the electronic device 1 and at least one conditioning water source or fluid source 22-25 can be sold as a set. In addition, the set can be realized by the faucet 10 and one of the conditioning water source or fluid source 22-25.

[0339] Although the present specification has mentioned a faucet provided with four inlets (first inlet 12, second inlet 13, third inlet 14, fourth inlet 15) for conditioning water sources or fluid sources 22-25, this number should not be understood as limiting, but it can be understood that the faucet described herein can allow modular connection of many conditioning water sources or fluid sources 22-25, and in particular can be equipped with fewer or more inlets than the stated number.

[0340] It should also be noted that the presence of valve 18, particularly when located within the body 10B of the faucet, allows the faucet to function even if some of the faucet's inlets 11-15 are not connected to any source of conditioned water or fluid 22-25.

[0341] In fact, the faucet 10 of the specific embodiment described herein can remain functional by isolating, for example, the third and fourth inlets 14, 15 by closing the valve 18, respectively. Obviously, some commands controlling the supply of the third 14 and fourth 15 inlets will not work or should be excluded, but the commands related to the connected inlets will work and be effective. To this end, it is convenient to implement the faucet 10 with a plurality of inlets 12-15, the number of which is equal to the maximum number of conditioned water or fluid sources 22-25 that are desired to be operatively associated with the faucet 10, and then proceed to connect, for example, two or three sources to any inlet between the plurality of inlets 12-15 (for example, the second and fourth inlets), and implement the logical association of commands with these inlets.

[0342] A particular embodiment of a faucet 10 according to the present application is described herein. In this embodiment, the electronic device comprises at least one first command 3 for selecting the supply of water from at least one inlet 12-15 to an outlet 16 of the faucet 10.

[0343] In this embodiment, there is always a data processing unit 2, which, also in this case, is operatively associated with the first command 3. The data processing unit 2 is operatively connected to the memory.

[0344] The electronic device 1 is configured to be activated in at least one self-learning operating configuration, wherein the data processing unit 2 automatically determines to enable at least a first combined actuation of the first command 3 based on the connection of at least a first conditioned water source or fluid source 22 to at least the inlet 12-15, thereby allowing a first supply configuration of the outlet 16 by water from at least a first selected inlet among the multiple inlets 12-15 or from a first selected inlet group among the multiple inlets 12-15.

[0345] In other words, in the self-learning configuration, the faucet 10 recognizes via the electronic device 1 which source is connected to one or more inlets 12-15 and configures the command 3 in an automatic manner based on previously stored parameters (to be described in more detail below) so that the connected source can be accurately selected after a specific activation combination. For example, the operator connects a first soda source to one or more inlets 12-15 of the faucet 10, for example, at the first inlet 12. The faucet 10 recognizes via the electronic device 1 that a source has been connected to the first inlet 12 and that the source is a soda source. The electronic device 1 automatically associates a left rotation command of the ring of the command 3 so that when the ring is rotated to the left in use, soda from the above-mentioned source is dispensed from the outlet 16.

[0346] Thus, the first inlet or first group of inlets is singly associated with the first source of conditioned water or fluid 22 in the association data 30 stored in the memory.

[0347] In view of the above examples, it is clear that the electronic device 1 is also configured to be activated at least in a dispensing operating configuration. In this configuration, the activation of the first command 3 in a first actuation combination determines in an automatic manner by the data processing unit 2 to load the first association data 30 from the memory and to dispense water from the first selected inlet or the first selected inlet group at the outlet 16 according to the first association data 30.

[0348] Obviously, self-learning is not limited to a single source. Thus, in the self-learning operating configuration, the data processing unit 2 automatically determines, based on the connection of at least a second conditioned water or fluid source 23 of a plurality of conditioned water or fluid sources 22-25 that may be connected to the inlets 12-15, at least a second actuation combination that enables the first command 3, thereby allowing the outlet 16 to be supplied with a second configuration by water from at least a second selected inlet or a second selected group of inlets.

[0349] Also in this case, the second inlet or the second inlet group is singly associated with the second conditioning water or fluid source 23 in the second association data 30 ′ stored in the memory.

[0350] In the second dispensing operating configuration, activation of the first command 3 in the second actuation combination determines in an automatic manner by the data processing unit 2 loading the second association data 30 ′ from the memory and dispensing water from the second selected inlet or group of inlets at the outlet 16 according to the second association data 30 ′.

[0351] From an electronic point of view, the activation of the first command 3 causes the data processing unit 2 to send an activation signal and a signal to open at least one valve 18 operatively associated with an inlet of the plurality of inlets 12-15 of the faucet to the first conditioned water or fluid source 22 or the second conditioned water or fluid source 23. This activation signal then indirectly determines that the outlet 16 of the faucet 10 is supplied with water from the first selected inlet or the first selected group of inlets or from the second selected inlet or the second selected group of inlets, respectively.

[0352] Fig.15 A specific and non-limiting embodiment of the command 3 is shown. The command comprises a controller and a monitor 3m. The monitor 3m can be regarded as an optional part of the content of the present application. If present, the monitor 3m is operably connected to the controller, and in particular is electrically and / or optically connected to the controller.

[0353] The controller and monitor 3m can be conveniently integrated into the faucet body in an attractive design, preferably corresponding to the base of the faucet, so that they are located a few centimeters from the base of the sink top 50 where the faucet is mounted when in use. In one embodiment, the monitor 3m is located slightly above the dispense command 10C, but this particular spatial arrangement should not be intended in a limiting manner. In fact, in another embodiment, the monitor 3m can be located below the dispense command 10C. This other embodiment is not shown. Preferably, the monitor 3m is tilted upwards to facilitate user reading.

[0354] The controller can rotate and / or translate. Thus, the first and / or second combined actuation comprises a rotational translation of the controller.

[0355] When the monitor 3 m is present, the activation of the command 3 , in particular according to the first actuation combination or the second actuation combination, determines the transmission of the first and second signals S1 , S2 to the monitor 3 m.

[0356] In the self-learning operation configuration, the data processing unit 2 sends a command signal S3 to the monitor 3m. The command signal can be used to let the main body configuring the faucet 10 and the electronic device 1 know that the self-learning has ended and / or understand how to perform the first and / or second combined operation.

[0357] More specifically, the rotatable and / or translatable controller comprises at least one ring 3g which can be rotated and / or translated clockwise or counterclockwise. The translation of the ring 3g can occur:

[0358] - along a translation axis parallel to the axis of rotation X of the ring; and / or

[0359] - Along a first axis Y and optionally additionally or alternatively along a second axis Z orthogonal to the axis of rotation X of the ring 3g.

[0360] It is worth noting that the first and second axes Y, Z are orthogonal to each other.

[0361] The user can then activate the ring 3g by a combined rotational-translational motion, whereby a large number of controls can be associated, thereby allowing a single ring to be used to control a large number of sources of conditioned water or fluid, all of which can be operatively associated with a single faucet.

[0362] It is worth noting that in a particular embodiment, the ring 3g may include at least one stable static position and at least one unstable position. In this case, the compound movement may determine the movement of the ring from the static stable position to the unstable position.

[0363] Returning again to the signals S1 and S2, it is worth noting that when the data processing unit 2 transmits these signals to the monitor 3m, they include at least one data indicating the state of the water dispensed through the outlet 16 of the tap 10, in particular data indicating the temperature, and / or the vaporization and / or filtration of the water dispensed through the outlet 16 of the tap 10. This data may result in the representation of symbols and / or alphanumeric characters associated with the specific type of conditioning brought about by the source of interest to the water. For example, when the source heats the water to a temperature close to boiling temperature, the signal S1 or the signal S2 may result in the appearance of a red symbol, while when the source cools the water to a temperature close to freezing temperature, the signal S1 or the signal S2 may result in the appearance of a blue symbol. In addition, the first or second signal S1, S2 may determine the temperature data of the water dispensed through the outlet 16 that appear on the monitor 3m.

[0364] The symbol and / or alphanumeric characters shown on the monitor 3m can be fixed in time and keep visible in the whole distribution duration, or the time variable and / or keep visible time is shorter than the distribution duration.Usually, therefore can indicate that at least one of the first or second signal causes the time-varying graphical representation to occur on the monitor 3m.In addition, the first and / or second signal S1, S2 is transferred to the monitor 3m from the data processing unit 2 and can determine the identification of the conditioning water source or fluid source involved in the distribution.In this case, the first and / or second signal S1, S2 comprises the identification data of the conditioning water source or fluid source 22-25 that are operably connected with at least one inlet 12-15.

[0365] Fig.16 and Fig.17 Two non-limiting embodiments are shown, in relation to schematic examples of graphical representations displayed on the monitor 3m. In particular, Fig.16 One embodiment is shown in which a symbol of a glass containing water is highlighted. Four icons arranged in an arc on the outer edge of the monitor 3m visually identify the characteristics of the water to be dispensed by different colors and can be attributed to the dispensing being performed by a specific source among the conditioning water source or fluid sources. In one embodiment. Fig.16 Another embodiment is shown in which a symbol of a glass of water is highlighted. The four icons described above appear again. The asterisk visually identifies the presence of cooling water, such as cooling water provided by a conditioning water source or fluid source configured to dispense water at a temperature of approximately 5°C. The selected source is identified by the representation of one of the four icons having a thicker thickness than one of the remaining icons. Fig.15 In the example, among the four icons 301-304 displayed on the monitor 3m, the icon 303 is the icon with the largest thickness. Fig.17 In the case of FIG. 1 , the icon with the larger thickness is the icon marked with the number 302 .

[0366] The applicant points out that a particularly advanced embodiment of the electronic device 1 described herein is that, in the dispensing operating configuration, the first and / or second actuation combination activation command 3 is used to determine the loading of the first associated data 30 and / or the second associated data 30' and subsequently dispense water at the outlet 16, the dispensing time and / or the amount of water depending on the time of the activation itself.

[0367] In particular, in practice, the data processing unit 2 allows, by means of a command 3, to enter a preset function, which the user can easily identify by means of a gear-shaped icon displayed on the monitor 3m, for example, which allows, for example, automatic preselection of one or more dispensing parameters; in particular, in the preset function, the amount of water dispensed from the outlet 16 of the tap 10 can be regulated. In this function, for example, a clockwise rotation of the ring increases the amount of water or fluid dispensed in use by defined steps (for example, 50 ml or 100 ml, or 200 ml or 500 ml). The amount of conditioned water or fluid required by the user can be confirmed by means of an axial movement of the ring 3g along the axis X. In an embodiment, the change in the dispensed amount selected by means of the ring 3g can be automatically associated with a change in the message displayed on the monitor 3m; in particular, the increase in the dispensed amount of water can be displayed by means of an icon representing a water wave, the height of which increases as the dispensed amount preselected by the user increases. In particular, the user can select, by means of a command 3, the water dispensed in the international metric system, in liters or in the Anglo-Saxon system.

[0368] The applicant specifically notes that a user may need to fill a certain water container with the same, predetermined amount of water or liquid multiple times. The applicant notes that it is convenient for the user to store the dispensed amounts in the smart faucet.

[0369] In another embodiment, by means of command 3 the user can start dispensing the amount of water predefined by the user by a first action on command 3 and end dispensing the determined amount of water by a new (second) action on command 3 .

[0370] In one embodiment, the user then enters the self-learning setting via command 3, follows command 3, for example pressing it, resulting in the automatic start of dispensing of conditioned water or fluid from outlet 16; the electronic device starts counting the dispensing time and / or the steps of the dispensed amount of conditioned water or fluid. Once the desired amount is reached, the user releases command 3, determining the automatic stop of dispensing of conditioned water or fluid.

[0371] In an alternative embodiment, the user enters the self-learning setting via command 3, and following command 3, for example pressing it for the first time, causes the automatic start of dispensing of conditioned water or fluid from outlet 16; the electronic device starts counting the dispensing time and / or the steps of the dispensed amount of conditioned water or fluid. Once the desired amount is reached, the user presses command 3 again to determine the automatic stop of dispensing of conditioned water or fluid.

[0372] In this way, the user may also not know the actual capacity of the container to be filled, but in any case, by simply stopping dispensing when the container is filled with the amount desired by the user (e.g., completely filled), the user is able to determine the storage capacity of the determined container, or equivalently, the correct dispensing time.

[0373] In view of the above, it is obvious that the present application also relates to a specific embodiment of the electronic device 1, including:

[0374] at least a first command 3 by which the user can choose to supply water from at least one of the plurality of inlets 12 - 15 of the tap 10 to the outlet 16 of the tap 10 ;

[0375] - a data processing unit 2 operatively associated with at least a first command 3;

[0376] - a memory operatively accessible from the data processing unit 2 .

[0377] In the electronic device described herein, the data processing unit 2 is configured to be able to dispense conditioned water or fluid according to a customized dispensing amount of the conditioned water or fluid and / or according to a customized dispensing time of the conditioned water or fluid.

[0378] The dispensing amount and / or the dispensing time are selected based on at least one predefined activation or actuation sequence of at least the first command 3 , preferably based on at least a first and a second activation or actuation sequence of the first command 3 .

[0379] Therefore, the electronic device 1 is configured to be activated in at least one self-learning operation configuration, wherein, in the self-learning operation configuration of the data processing unit 2, it is configured to store at least one dispensing data in a memory, which dispensing data corresponds to a customized dispensing amount of conditioned water or fluid from a user and / or a customized dispensing time of conditioned water or fluid, optionally after a predefined activation or actuation sequence of at least a first command 3, preferably after a first and a second activation or actuation sequence of at least the first command 3.

[0380] More preferably, for each inlet 12-15 (or equivalently for each source 22-25), a single dispensing data customized by the user, or a plurality of dispensing data customized by the user can be stored. In the latter case, in addition to or as an alternative to the preset data, the user can define a customized dispensing equal to a volume of 550 ml (first dispensing data customized by the user) and a customized dispensing equal to a volume of 575 ml (second dispensing data customized by the user), wherein at the company level the dispensing data corresponding to the above 50 ml or 100 ml, or 200 ml or 500 ml are stored (not customized by the user, but can be selected at will by the user). It is then clear that the device described so far is in fact very flexible, allowing the user to select the amount of water preset at the factory or selected by him according to the operation of command 3.

[0381] The electronic device 1 is configured to be activated in at least one self-learning operating configuration, wherein the data processing unit 2 automatically determines, based on the connection of at least one first conditioning water or fluid source 22 of the plurality of conditioning water or fluid sources 22-25 already mentioned to at least one inlet of the plurality of inlets 12-15, to enable the actuation of at least one first combination of at least one first command 3, thereby allowing the supply of water to the outlet 16 in a first configuration by water from at least one first selected inlet of the plurality of inlets 12-15 or from a first selected group of inlets of the plurality of inlets 12-15. The first inlet or the first group of inlets is singly associated with the first conditioning water or fluid source 22 in the association data 30 stored in the memory.

[0382] The electronic device is then configured to be activated at least in a dispensing operation configuration, wherein activation of the first command 3 in a first actuation combination determines in an automatic manner by the data processing unit 2 the loading of first association data 30 from the memory and the dispensing of water from a first selected inlet of the plurality of inlets 12-15 or a first selected inlet group of the plurality of inlets 12-15 at the outlet 16 according to the first association data 30.

[0383] In this way, a water dispensing time (indicatively corresponding to a determined amount) or a determined amount of water dispensed by the tap 10 is stored in a memory operatively accessible to the data processing unit 2. During the dispensing process, the monitor 3m can conveniently display an icon that changes over time, such as a liquid level that gradually increases with the dispensing time and / or amount. Conveniently, in the latter case, the tap 10 can be equipped with a sensor suitable for measuring the dispensed amount. The dispensing time or amount is a non-limiting example of a water dispensing parameter that the user can freely set within the limits specified by the manufacturer of the electronic device 1 and / or the manufacturer of the conditioned water source or fluid source. Further non-limiting examples of dispensing parameters that the user can freely set are the temperature of the water and / or the percentage of CO2 added to the dispensed water.

[0384] The data processing unit 2 of the electronic device 1 also allows resetting one or more dispensing parameters set by the user. The data processing unit 2 also allows resetting the electronic device 1 to factory values.

[0385] A specific embodiment of the electronic device 1 allows customization of a specific actuation sequence of the command 3 that should be executed to allow water to be dispensed from the outlet 16 through one or more inlets 12-15. In this case, the electronic device 1 allows actuation of a self-learning operating configuration, wherein, when the command 3 is activated with a first actuation combination, the data processing unit 2 automatically memorizes, by means of the first association data 30, a first supply configuration of the outlet 16 of the faucet 10, wherein water comes from a first selected inlet among the plurality of inlets 12-15 or from a first selected group of inlets among the plurality of inlets 12-15. In this self-learning operating configuration, when the command 3 is activated with a second actuation combination, the data processing unit 2 memorizes, by means of the second association data 30, a second configuration of supplying water to the outlet 16 of the faucet 10 in an automatic manner, wherein water comes from at least a second selected inlet among the plurality of inlets 12-15 or from a second selected group of inlets among the plurality of inlets 12-15.

[0386] After completing the self-learning operation configuration, the electronic faucet described herein can be arranged in a dispensing operation configuration, wherein, when the command 3 is activated in the first actuation combination, the data processing unit 2 loads the first association data 30 from the memory, and causes water to be dispensed from a first selected inlet among the plurality of inlets 12-15 or from a first selected inlet group among the plurality of inlets 12-15 to the outlet 16. Furthermore, in this dispensing operation configuration, when the command 3 is activated in the second actuation combination, the data processing unit 2 loads the second association data 30 from the memory, and causes water to be dispensed from a second selected inlet among the plurality of inlets 12-15 or from a second selected inlet group among the plurality of inlets 12-15 to the outlet 16.

[0387] In the stationary state, the electronic device 1 may be configured to display a predefined message on the monitor 3m, for example time-varying; in an embodiment, the predefined message comprises a date and / or a time.

[0388] Other adjustment functions can also be implemented by the data processing unit 2. In particular, the brightness, the display language of one or more messages can be adjusted. Specific data are stored in the memory of the data processing unit 2 to allow such adjustments to be performed by the command 3.

[0389] Further embodiments of the electronic device 1 will be described below. In these embodiments, a vibration or sound unit 3v may be present. In this case, at least one of the first or second signal S1, S2 determines a temporary activation of the vibration or sound unit 3v when transmitted.

[0390] In one embodiment, the data processing unit 2 can also be configured to receive data related to the status of the source itself from one or more conditioning water or fluid sources 22-25, and automatically transmit a status signal to the monitor 3m when the determined criteria are verified. In particular, if the conditioning water or fluid source includes a filter, the status signal can advantageously indicate the status of the filter, and in particular, can allow an icon or message to be displayed on the monitor indicating that the filter needs to be replaced or that the filter is clogged. On the other hand, if the conditioning water or fluid source includes a vaporizer, the status signal will allow an icon or message to be displayed on the monitor indicating that the vaporizer bottle needs to be replaced. In one embodiment, the data processing unit 2 can be configured to activate the vibration or sound unit 3v by transmitting the status signal.

[0391] It should be noted that the electronic device 1 may be provided with a voice activation module, which may include (or be configured with) a microphone and is operatively connected to the data processing unit 2 .

[0392] By means of the voice activation module, the voice assignment command can be issued without touching the ring 3g, or by moving the ring 3g by simple complex movements, thereby activating the reception of voice signals, which are then processed by known techniques, for example, in the data processing unit 2. The voice activation module is preferably arranged in the vicinity of the ring 3g. It is particularly noted that, for this reason, the first combined actuation and / or the second combined actuation can be a combination activated at least in part by voice.

[0393] Finally, it should be noted that the conditioning water or fluid sources 22-25 can be placed in a state of low or reduced energy consumption by means of control signals sent from the data processing unit 2 in one or more of the above-mentioned modes. In particular, the data processing unit 2 can send control signals to one or more of the conditioning water or fluid sources 22-25, which control signals allow the energy consumption of said one or more conditioning water or fluid sources 22-25 to be reduced during a determined predefined time interval (for example, at night or during holidays), and / or allow the energy consumption of said one or more conditioning water or fluid sources 22-25 to be reduced by reducing the activity of one or more power subsystems of the source itself and thus reducing its energy consumption; the latter configuration means that the operating functions of the conditioning water or fluid source are substantially deactivated. For example, if the conditioning water or fluid source is destined to produce water with a temperature close to boiling temperature, the control signal can determine that the reduction range of the water dispensing temperature is preferably between 60° C. and 70° C., more preferably substantially equal to 65° C.

[0394] Applicants have finally realized a specific embodiment of an electronic device 1 that is configured to electronically control at least one characteristic of conditioned water and / or fluid dispensed through the outlet 16 of the faucet 10 and interrupt or prevent dispensing (e.g., by disabling one or more conditioned water or fluid sources 22-25) if these characteristics are outside a selected range of values ​​or exceed a threshold value. These characteristics can be, for example, temperature characteristics and / or water quality characteristics (e.g., chemical composition characteristics).

[0395] In this embodiment, at least one of the electronic device 1 and the faucet 10 includes at least one sensor, such as but not limited to a temperature sensor or a sensor suitable for detecting the presence of one or more chemical substances (including at least one determined type of mineral), capable of generating a signal, and the data processing unit 2 compares the signal with a selected value range or threshold; when a threshold is exceeded or the outlet exceeds the selected value range, the data processing unit 2 determines to send an alarm message, such as a visual and / or sound message, and determines to automatically (preferably immediately) interrupt the dispensing of conditioned water or fluid from the outlet 16.

[0396] It is therefore apparent that the present application describes an electronic device 1 and a corresponding method, wherein a data processing unit 2 receives a control signal via a sensor configured to detect at least one characteristic of a fluid, preferably at least one of a temperature characteristic and / or a quality characteristic of the fluid, and is configured to compare the control signal with at least one predetermined threshold value, and after exceeding the at least one predetermined threshold value, to limit and / or interrupt the dispensing of conditioned water from the at least one first conditioned water source or fluid source 22-25 in an automatic manner.

[0397] In general, the properties of water (and more generally of fluids) detectable by the sensor may be temperature, pressure, chemicals, presence of bacteria and / or viruses.

[0398] In view of the above description, the advantages of the faucet 10 and the electronic device 1 described herein are obvious. As can be clearly seen from the above description, the faucet 10 is preferably used in domestic applications, such as kitchens, and can be installed in a very simple manner, and the operator performing the installation does not need to pay great attention to correctly connecting the conditioning water or fluid source 22-25 to the correct inlet. Or, for example, the faucet 10 can be installed in a bathroom or outdoor environment, for example. In addition, the faucet 10 can produce multiple inlets, which is also more than the number of conditioning water or fluid sources 22-25 that will actually be connected to it, and can also be produced without accurately considering which one of the potential conditioning water or fluid sources 22-25 that can be connected to its inlet is actually connected.

[0399] The commands 3 of the electronic device 1 are intuitive to use and the end user does not need to configure the commands 3 in a complicated manner when connecting one or more conditioned water or fluid sources.

[0400] Fig.18 Finally, a specific configuration of a conditioned water or fluid source according to the present application is shown. The conditioned water or fluid source comprises a substantially closed housing, preferably provided with a front door 22r that can be opened and closed to allow a professional operator and / or user to enter the interior of the source itself. For example, if the conditioned water or fluid source 22 comprises a vaporizer, this front door 22r will allow access to the interior of the source to replace the CO2 bottle.

[0401] The conditioned water or fluid source also includes a user interface 22m, where Fig.18 In the illustrated embodiment, the user interface 22m includes a monitor and a plurality of control buttons. Through the user interface 22m, the status of the source can be checked and / or the source can be configured in a manner connected to the electronic device 1 described herein. One or more operating parameters of the source can also be adjusted, including (without limitation) water temperature, amount of gas added to the water, level of filtration of the water, and flow rate to the faucet.

[0402] On the rear side, i.e. opposite the front door 22r, a plurality of electrical and hydraulic connections are provided to ensure the operation of the water sources. Between the hydraulic connections on the rear side of each water source, there is a connection for sucking pressurized water from a water distribution network, in particular a drinking water distribution network, in particular a domestic drinking water distribution network. This connection allows the supply of water to a conditioning water source or fluid, which will later be conditioned by the water source itself.

[0403] It should be noted that multiple conditioned water or fluid sources 22-25 can be housed in a housing; in this case, the collection of multiple conditioned water or fluid sources and the housing, optionally including a front door 22r and / or a user interface 22m, implements a conditioned water or fluid source group for supplying the faucet 10, and the source group will be provided with multiple hydraulic connections to connect to one or more of the previously described inlets 12-15.

[0404] Finally, it should be noted that at least one conditioned water source or fluid source can be specifically configured to first dispense a first type of conditioned water and / or fluid, and then dispense a second type of conditioned water and / or fluid. Specifically, the source can be specifically configured to first dispense sparkling water, and then dispense sparkling water with lemon juice added.

[0405] The present invention is not limited to the embodiments shown in the drawings; therefore, reference numerals appearing in the claims are merely used to increase the intelligibility of the claims and are not intended to be limiting.

[0406] Finally, it should also be clear that additions, modifications or variations obvious to a person skilled in the art may be applied to the purpose of the present application without departing from the scope of protection provided by the accompanying claims.

Claims

1. An electronic device (1) for controlling a faucet (10), the electronic device (1) comprising: at least one first command (3) for selecting the supply of water to the outlet (16) of the tap (10) from at least one of a plurality of inlets (12-15) of the tap (10), the plurality of inlets (12-15) being implemented directly on the tap (10) or in at least one connection module configured to be connected to the tap; - a data processing unit (2) operatively associated to said at least first command (3); a memory operatively accessible from the data processing unit (2); The electronic device (1) is configured to be activated at least in a self-learning operating configuration, wherein the data processing unit (2) automatically determines, based on the connection of at least a first conditioning water or fluid source (22) of a plurality of conditioning water or fluid sources (22-25) to at least one of the plurality of inlets (12-15), at least a first actuation combination for enabling the at least first command (3), thereby allowing a first configuration for supplying water to the outlet (16) through water from at least a first selected inlet of the plurality of inlets (12-15) or from a first selected inlet group of the plurality of inlets (12-15), the first inlet or the first inlet group being singly associated with the first conditioning water or fluid source (22) in the association data (30) stored in the memory; The electronic device is configured to be activated at least in a dispensing operation configuration, wherein actuation of the first command (3) in the first actuation combination determines in an automatic manner through the data processing unit (2) to load first associated data (30) from the memory and to dispense water from the first selected inlet of the plurality of inlets (12-15) or from the first selected inlet group of the plurality of inlets (12-15) at the outlet (16) according to the first associated data (30).

2. A device according to claim 1, wherein the data processing unit (2) is configured to be able to dispense conditioning water or fluid according to at least one user-customized or preset dispensing amount of conditioning water or fluid and / or according to at least one user-customized or preset dispensing time of conditioning water or fluid; the dispensing volume and / or dispensing time are selected based on at least one predefined actuation or actuation sequence of the at least first command (3), preferably based on the first and second actuation or actuation sequence of the at least first command (3), and / or wherein, In the self-learning operation configuration, the data processing unit (2) is configured to store in the memory distribution data corresponding to the distribution volume of the user-customized conditioning water or fluid and / or the distribution time of the user-customized conditioning water or fluid, optionally after the predefined actuation or actuation sequence of the at least first command (3), preferably after the first and second actuation or actuation sequence of the at least first command (3), the distribution data corresponding to the user-customized operation distribution configuration.

3. The device according to claim 2, wherein: In the dispensing operation configuration, the predefined actuation or actuation sequence of the at least first command (3) determines the automatic loading of the dispensing data corresponding to the customized conditioned water or fluid dispensing amount and / or the customized conditioned water or fluid dispensing time from the memory, and determines the dispensing of conditioned water or fluid from the outlet (16), the dispensing amount and / or time of which corresponds to the customized conditioned water or fluid dispensing amount and / or the water dispensing time of the dispensing data.

4. An apparatus according to claim 3, wherein the data processing unit (2) is configured to store at least one allocation data in the memory, and optionally to store multiple allocation data for each of the multiple inlets (12-15) and / or each of the multiple conditioning water or fluid sources (22-25) to define a corresponding multiple user-customized allocation operation configurations, and / or wherein the inlets of the multiple inlets (12-15) are identical to each other and are configured to be selectively and indiscriminately connected to each of the multiple conditioning water or fluid sources (22-25).

5. Device according to one or more of the preceding claims, wherein: In the self-learning operation configuration, the data processing unit (2) automatically determines, based on the connection of at least a second conditioning water source or fluid source (23) of the plurality of conditioning water sources or fluid sources (22-25) to at least one of the plurality of inlets (12-15), at least a second actuation combination for enabling the at least first command (3) to allow a second supply configuration of the outlet (16) to be achieved through water from at least a second selected inlet of the plurality of inlets (12-15) or from a second selected inlet group of the plurality of inlets (12-15), the second inlet or the second inlet group being singly associated with the second conditioning water source or fluid source (23) in second association data (30') stored in the memory; Wherein, in the dispensing operation configuration, the actuation of the at least first command (3) in the second actuation combination is determined by the data processing unit (2) in an automatic manner to load second associated data (30') from the memory, and water from the second selected inlet among the multiple inlets (12-15) or from the second selected inlet group among the multiple inlets (12-15) is dispensed on the outlet (16) according to the second associated data (30').

6. Device according to one or more of the preceding claims, wherein: In an operational dispensing configuration, when the at least first command (3) is actuated in the first or the second actuation combination, the data processing unit (2) is configured to transmit at least one of an actuation signal for the first conditioned water source or fluid source (22) or the second conditioned water source or fluid source (23) and an opening signal for at least one valve (18) operatively associated with one of the plurality of inlets (12-15) to determine the supply of water to the outlet (16) of the faucet (10) via water from the first selected inlet or the first selected inlet group or from the second selected inlet or the second selected inlet group, respectively.

7. Device according to one or more of the preceding claims, wherein said at least first command (3) comprises at least a first and a second button, and / or comprises at least a rotatable and / or translatable controller and / or comprises at least one monitor (3m) operatively connected to said first and / or second button and / or said at least rotatable and / or translatable controller; Optionally, the first and / or the second actuation combination includes rotation and / or translation of the rotatable and / or translatable controller, and / or wherein the actuation of at least the first command (3) in the first or second actuation combination determines the transmission of first and second signals (S1, S2) to the at least one monitor (3m), and / or wherein in the self-learning operation configuration, the data processing unit (2) transmits at least one command signal (S3) to the monitor (3m).

8. Device according to claim 7, wherein the rotatable and / or translatable controller comprises at least one ring (3g) which is rotatable clockwise or counterclockwise and / or translatable along at least one predefined axis (X, Y, Z), preferably along at least one translation axis parallel to the rotation axis (X) of the ring and / or along at least one first axis (Y) and optionally a second axis (Z), at least one of the first axis and the second axis being orthogonal to the rotation axis (X) of the ring (3g), and optionally wherein at least one of the first actuation combination and the second actuation combination comprises a compound rotational-translational movement of the ring (3g), Optionally, wherein the rotatable and / or translatable ring has at least a static stable position and an unstable position, and wherein the composite motion determines the movement of the ring from the static stable position to the unstable position.

9. Device according to claim 7 or 8, wherein at least one of the first or second signals (S1, S2) comprises at least one data indicating the state of water dispensed through the outlet (16) of the tap (10), in particular data indicating the temperature of the water dispensed through the outlet (16) of the tap (10), and / or data indicating the vaporization and / or filtration, and / or wherein at least one of the first or second signals results in a graphical representation of changes over time on the monitor, and / or wherein at least one of the first or second signals contains data identifying a source of conditioned water or fluid (22-25) operatively connected to the at least one inlet (12-15); The electronic device (1) optionally comprises a vibration or sound unit (3v), and wherein at least one of the first signal or the second signal results in a temporary activation of the vibration or sound unit (3v).

10. Device according to one or more of the preceding claims, wherein: In the dispensing operation configuration, the actuation of the at least first command (3) in the first actuation combination and / or the second actuation combination determines the loading of the first association data (30) or the second association data (30') in an automatic manner by the data processing unit (2) and dispenses a predetermined amount of water defined based on volume and / or time at the outlet (16), and / or wherein the at least first command (3) comprises a voice activation module and / or wherein the first actuation combination and / or the second actuation combination is at least partially a voice actuation combination, And / or wherein the data processing unit (2) is configured to transmit a control signal to a conditioning water source or a fluid source (22-25), wherein the control signal is specifically used to place at least one conditioning water source or a fluid source (22-25) in a low power consumption state and / or to deactivate an operating function of the conditioning water source or the fluid source within a predetermined time period; the control signal is optionally transmitted from the data processing unit (2) when the at least one command (3) is activated.

11. An electronic faucet (10) for dispensing water, comprising: - the body of the faucet (10B); - at least a first dispensing command (10C) for regulating at least one of the water flow and the water temperature, preferably, the dispensing command (10C) is mounted on the body (10B); - an outlet (16) for dispensing water, positioned at a predetermined position of said body (10B), preferably a terminal position; - a plurality of inlets (12-15) of the body (10B) that can be selected and / or installed in a modular manner, each inlet being configured and dedicated for connection with any of a plurality of conditioned water or fluid sources (22-25) configured to supply conditioned water or fluid to the faucet (10) when in use; - Electronic device (1) according to one or more of the preceding claims.

12. A method for controlling a faucet (10), comprising: - Activation of a self-learning operating configuration, wherein a data processing unit (2) of an electronic device (1) for controlling the faucet (10) is operatively associated with at least a first command (3) for selecting the supply of conditioned water or fluid from at least one of a plurality of inlets (12-15) of the faucet (10) to an outlet (16) of the faucet (10), the plurality of inlets (12-15) being implemented directly on the faucet (10) or in at least one connection module configured to be connected to the faucet, the first command (3) being part of the electronic device (1), automatically executing the activation of at least a first actuation combination of the at least first command (3) according to the connection of at least one first conditioned water or fluid source (22) of a plurality of conditioned water or fluid sources (22-25) to at least one of the plurality of inlets (12-15), - loading first association data (30) from an operatively accessible memory into said data processing unit (2), said first association data (30) identifying a single association between said first inlet or said first group of inlets and said first source of conditioned water or fluid (22); - wherein the first actuation combination is specifically used to allow the outlet (16) to be in a first supply configuration by water flowing out of at least the first selected inlet of the plurality of inlets (12-15) or from the first selected group of inlets of the plurality of inlets (12-15) according to the first association data (30) in use; - activating a dispensing operation configuration, wherein, when said first command (3) is actuated in said first actuation combination, the data processing unit (2) loads said first associated data (30) from said memory and causes water from said first selected inlet of said plurality of inlets (12-15) or from said first selected inlet group of said plurality of inlets (12-15) to be dispensed at said outlet (16).

13. The method according to claim 12, comprising the steps of: The data processing unit (2) is used to dispense conditioned water or fluid according to at least a user-customized or preset dispensing amount of conditioned water or fluid and / or according to at least a user-customized or preset dispensing time of conditioned water or fluid; the dispensing volume and / or dispensing time are selected based on at least one predetermined actuation or actuation sequence of the at least first command (3), preferably based on the first and second actuation or actuation sequences of the at least first command (3), and / or wherein, after activating the self-learning operation configuration, the data processing unit (2) determines to store dispensing data corresponding to the user-customized dispensing volume of the conditioned water or fluid and / or the user-customized dispensing time of the conditioned water or fluid in the memory, optionally after the predetermined actuation or actuation sequence of the at least first command (3), preferably after the first and second actuation or actuation sequences of the at least first command (3), the dispensing data corresponds to the user-customized dispensing operation configuration.

14. The method according to one or more of the preceding claims 12-13, wherein: In the dispensing operation configuration, the predefined actuation or actuation sequence of the at least first command (3) determines that the dispensing data corresponding to the customized conditioned water or fluid dispensing amount and / or the customized conditioned water or fluid dispensing time is automatically loaded from the memory, and conditioned water or fluid is dispensed from the outlet (16), and its dispensing amount and / or time corresponds to the customized conditioned water or fluid dispensing amount and / or water dispensing time of the dispensing data.

15. A method according to claim 14, wherein after activating the self-learning operation configuration, the data processing unit (2) determines to store at least one allocation data in the memory, and optionally stores multiple allocation data for each of the multiple inlets (12-15) and / or each of the multiple conditioning water sources or fluid sources (22-25) to define a corresponding multiple user-customized allocation operation configurations, and / or wherein the inlets of the multiple inlets (12-15) are identical to each other and are configured to be selectively and indiscriminately connected to each of the multiple conditioning water sources or fluid sources (22-25).

16. The method according to one or more of the preceding claims 12 to 15, wherein: - in the activation of the self-learning operating configuration, the data processing unit (2) automatically performs the activation of the at least second actuation combination of the at least first command (3) according to the connection of at least one second conditioning water or fluid source (23) of the plurality of conditioning water or fluid sources (22-25) to at least one of the plurality of inlets (12-15), - the method comprises loading second association data (30') into said data processing unit (2) from an operatively accessible memory, said second association data identifying a single association between said second inlet or said second group of inlets and said second source of conditioned water or fluid (23); - the first actuation combination is specifically used to allow the outlet (16) to achieve a second supply configuration by water flowing out of at least the second selected inlet of the plurality of inlets (12-15) or from the second selected group of inlets of the plurality of inlets (12-15) according to the first association data (30) in use; - After activating the dispensing operation configuration, when the first command (3) is actuated in the second actuation combination, the data processing unit (2) loads the second associated data (30') from the memory and causes water from the second selected inlet of the plurality of inlets (12-15) or from the second selected inlet group of the plurality of inlets (12-15) to be dispensed at the outlet (16).

17. The method according to one or more of claims 12-16, wherein: In an operational configuration in which the data processing unit (2) is allocated, when the at least first command (3) is actuated in the first or the second actuation combination, at least one transmission between an actuation signal toward the first conditioning water source or fluid source (22) or the second conditioning water source or fluid source (23) and an opening signal of at least one valve (18) operatively connected to one of the plurality of inlets (12-15) is performed to determine the supply of water to the outlet (16) of the faucet (10) via water from the first selected inlet or from the first selected inlet group or from the second selected inlet group, respectively.

18. Method according to one or more of claims 12-17, wherein the actuation of the command comprises the actuation of at least a first and a second button of the command (3), and / or comprises the actuation of at least a rotatable and / or translatable controller of the command (3) and / or comprises the interaction with at least a monitor (3m) of the command (3), the monitor (3m) being operatively connected to the first and / or second button and / or the at least rotatable and / or translatable controller; Optionally, the first and / or the second actuation combination includes rotation and / or translation of the rotatable and / or translatable controller, and / or wherein the actuation of at least the first command (3) in the first or second actuation combination determines the transmission of a first and a second signal (S1, S2) to at least the monitor (3m), and / or wherein in the self-learning operation configuration, the data processing unit (2) transmits at least one command signal (S3) to the monitor (3m).

19. A method according to claim 18, wherein the first and / or the second actuation combination comprises an actuation of at least one ring (3g) of the rotatable and / or translatable controller, the ring (3g) being rotatable clockwise or counterclockwise and / or translatable along at least one predefined axis (X, Y, Z), preferably along at least one translation axis parallel to the rotation axis (X) of the ring and / or along at least one first axis (Y) and optionally a second axis (Z), at least one of the first axis and the second axis being orthogonal to the rotation axis (X) of the ring (3g), and optionally, wherein at least one of the first and the second actuation combinations comprises a compound rotational-translational movement of the ring (3g), Optionally, wherein the rotatable and / or translatable ring has at least a static stable position and an unstable position, and wherein the composite motion determines the movement of the ring from the static stable position to the unstable position.

20. A method according to claim 18 or 19, wherein at least one of the first or second signals (S1, S2) comprises at least one data indicating the state of water dispensed through the outlet (16) of the tap (10), in particular data indicating the temperature of the water dispensed through the outlet (16) of the tap (10), and / or data indicating the vaporization and / or filtration, and / or wherein at least one of the first or second signals results in a graphical representation of changes over time on the monitor, and / or wherein at least one of the first or second signals contains data identifying a source of conditioned water or fluid (22-25) operatively connected to the at least one inlet (12-15); And wherein at least one of the first signal or the second signal results in a temporary activation of a vibration or sound unit (3v) of the electronic device (1).

21. The method according to one or more of the preceding claims 12-20, wherein: In the dispensing operation configuration, the actuation of the at least first command (3) in the first actuation combination and / or the second actuation combination determines the loading of the first association data (30) or the second association data (30') in an automatic manner by the data processing unit (2) and dispenses a predetermined amount of water defined based on volume and / or time at the outlet (16), and / or wherein the method comprises activating a voice activation module of the at least first command (3) and / or wherein the first actuation combination and / or the second actuation combination is at least partially a voice actuation combination, And / or wherein the method comprises transmitting a control signal from the data processing unit (2) to a conditioning water source or a fluid source (22-25), wherein the control signal is specifically used to place at least one conditioning water source or a fluid source (22-25) in a low power consumption state and / or to deactivate an operating function of the conditioning water source or a fluid source for a predetermined period of time; the control signal is optionally transmitted by the data processing unit (2) when activating at least one command (3).

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