The present invention relates to a water delivery device and, more particularly, to a faucet including a sprayhead or wand having a soap dispenser.
The present disclosure provides a convenient and eco-friendly way to provide soap through the wand or sprayhead of a kitchen faucet for doing dishes or hand washing, etc. The illustrative sprayhead of the present disclosure accomplishes such objectives with minimal cost/design impact or complexity, and in such a way that it is retrofitable to an existing faucet. The illustrative sprayhead is further configured to reduce plastic waste associated with single use plastic liquid soap containers.
The illustrative sprayhead of the present disclosure is provided with a soap compartment to receive a soap, such as a solid soap (e.g., powdered or tablet soap), a concentrated liquid soap, or a semi-solid soap (e.g., a gel). The illustrative sprayhead includes a momentary pushbutton diverter valve to divert water through the soap compartment to create soapy water. Soap is illustratively placed into the sprayhead by the user through an access port, such as an opening covered by a watertight door. Solid soap eliminates the need for plastic soap bottles, is lighter, and requires fewer carbon emissions in shipping. Concentrated solid soap also increases the amount of soap that can be contained in the sprayhead and reduces the complexity of implementation.
According to an illustrative embodiment of the present disclosure, a faucet includes a delivery spout defining a passageway, a water supply tube slidably received within the passageway of the delivery spout, and a sprayhead removably coupled to the delivery spout. The sprayhead includes an inlet fluidly coupled to the water supply tube, an outlet, and a soap compartment in fluid communication with the outlet and configured to receive a solid soap. A soap diverter valve is configured to provide selective communication between the inlet and the outlet.
According to a further illustrative embodiment of the present disclosure, a sprayhead includes an outer shell, a waterway received within the outer shell, the waterway defining an inlet, a first outlet, a second outlet, and a soap compartment in fluid communication with the second outlet and configured to receive a solid soap. A soap diverter valve is configured to provide selective communication between the inlet and one of the first outlet or the second outlet, wherein the soap diverter valve comprises a momentary diverter valve. The momentary diverter valve in a first mode provides fluid communication between the inlet and the first outlet, and the momentary diverter valve in a second mode provides fluid communication between the inlet and the second outlet. The momentary diverter valve is biased toward the first mode.
According to another illustrative embodiment of the present disclosure, a faucet includes a delivery spout defining a passageway, a water supply tube slidably received within the passageway of the delivery spout, and a sprayhead removably coupled to the delivery spout. The sprayhead includes an inlet fluidly coupled to the water supply tube, a first outlet, a second outlet, and a soap compartment in fluid communication with the second outlet and configured to receive a solid soap. A soap diverter valve is configured to provide selective communication between the inlet and one of the first outlet or the second outlet, wherein the soap diverter valve comprises a momentary diverter valve. The momentary diverter valve in a first mode provides fluid communication between the inlet and the first outlet, and the momentary diverter valve in a second mode provides fluid communication between the inlet and the second outlet. The momentary diverter valve is biased toward the first mode. A moveable door is operably coupled to the outer shell to provide access to the soap compartment, and a seal is positioned intermediate the door and the outer shell. A flow restrictor is positioned between the soap diverter valve and the soap compartment to control the flow of water.
Additional features and advantages of the present invention will become apparent to those skilled in the art upon consideration of the following detailed description of the illustrative embodiment exemplifying the best mode of carrying out the invention as presently perceived.
The detailed description of the drawings particularly refers to the accompanying Figures in which:
Referring initially to
With reference to
A retainer 54 illustratively secures the waterway 40 to the outer shell 42. The retainer 54 illustratively includes cooperating outer and inner rings 56 and 58, a threaded washer 60, and an annular gasket 61. A conventional fluid coupler 62, illustratively a hose retainer nut, may fluidly couple the inlet 44 of the waterway 40 to the water supply tube 22. Check valves 64 and 66 may be received within the waterway 40 downstream from the inlet 44.
With reference to
A soap diverter valve 74 is illustratively received within a first diverter chamber 76 of the first portion 50 of the waterway 40, and is in fluid communication with, and downstream from, the inlet 44. A spray mode diverter valve 78 is illustratively received within a second diverter chamber 80 of the first portion 50 of the waterway 40, and is in selective fluid communication with, and downstream from, the soap diverter valve 74.
The soap diverter valve 74 is configured to provide selective communication between the inlet 44 and at least one of the first outlet 46 or the second outlet 48. The soap diverter valve 74 illustratively comprises a momentary diverter valve 82 having a first mode of operation for providing fluid communication between the inlet 44 and the first outlet 46 (via the spray mode diverter valve 78), and a second mode of operation providing fluid communication between the inlet 44 and the second outlet 48 (via the soap compartment 70). In other illustrative embodiments, the soap diverter valve 74 may be a non-momentary diverter valve including, for example, a button or rocker switch that may be maintained in either the first mode of operation or the second mode of operation.
In the illustrative embodiment, a first passageway or flow path 84 (
The momentary diverter valve 82 illustratively includes a piston or shaft 88 slidably received within the first diverter chamber 76. The piston 88 is retained within the waterway 40 by a valve housing or retainer 90. Seals 92 and 94, such as o-rings, are supported by the piston 88. A spring 95 biases the piston 88 toward the first mode of operation. A push button 96 is operably coupled to the piston 88 and extends within an opening 98 in the outer shell 42. As may be appreciated, a user pressing the push button 96 causes the piston 88 to act against the spring 95.
The mode diverter valve 78 illustratively includes a piston or shaft 102 slidably received within the second diverter chamber 80. The piston 102 is retained within the waterway 40 by a valve housing or retainer 104. Seals 106 and 108, such as o-rings, are supported by the piston 102. A rocker switch 110 includes a support 112 operably coupled to a pivot 114 for pivoting movement to axially move the piston 102. The rocker switch 110 extends through the opening 98 in the outer shell 42. A valve cap or bracket 116 is operably coupled to the waterway 40 to secure the valve retainers 90 and 104 thereto.
The first outlet 46 illustratively includes a conventional flow device, such as an aerator 118. The first outlet 46 may also include a plurality of spray outlets 120, such as conventional spray nozzles. The spray mode diverter valve 78 may be provided downstream from the soap diverter valve 74 and is configured to provide selective communication between the soap diverter valve 74 and one of the aerator 118 and the plurality of spray nozzles 120. The second outlet 48 illustratively includes a conventional flow device, such as an aerator 122.
In operation, water from the hot water source 28 and the cold water source 32 is provided to respective inlets of the mixing valve 24. By a user operating the handle 34, the outlet of the mixing valve 24 provides water to the water supply tube 22. Water from the water supply tube 22 flows into the inlet 44 of the waterway 40 of the sprayhead 18. With the soap diverter valve 74 in the first mode as shown in
The spray mode diverter valve 78 may operate in a conventional manner. In the position shown in
By the user depressing the button 96, the soap diverter valve 74 operates in the second mode as shown in
In an illustrative embodiment, a mixing device 130 may be fluidly coupled to the soap compartment 70. More particularly, the mixing device 130 may be installed upstream of the soap compartment 70 to facilitate dissolving of the soap tablet 72 into the water. The illustrative mixing device 130 can be any device that agitates the water flow to facilitate the interaction between the soap tablet 72 and the water, such as, for example, a venturi, a turbine, a dispersing mechanism, mixing vanes, etc.
Although the invention has been described in detail with reference to certain preferred embodiments, variations and modifications exist within the spirit and scope of the invention as described and defined in the following claims.
The present application claims priority to U.S. Provisional Patent Application Ser. No. 63/223,187, filed Jul. 19, 2021, the disclosure of which is expressly incorporated herein by reference.
Number | Date | Country | |
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63223187 | Jul 2021 | US |