The present disclosure relates generally to faucets and, more particularly, to a mounting system for a two handle faucet, and a mounting system for a single mounting faucet assembly.
The installation of a faucet onto a mounting deck is often a difficult and time-consuming task. At least some of the installation may require the installer to work in the cramped and dimly lit work area under the sink or mounting deck. More particularly, faucets are typically attached to the mounting deck with threaded connections which must be made under and behind the sink basin wherein there is very little room to work.
As such, there is a need to provide a less cumbersome and complicated system of installing faucets or interchanging different faucet styles onto a mounting deck which can be done largely from the top of the countertop or sink.
According to an illustrative embodiment of the present disclosure, a faucet assembly may include a spout anchor including a spout anchor body having a first set of spout anchor threads. The faucet assembly may also include a valve anchor including an anchor body having a first set of valve anchor threads. The faucet assembly may also include a spout assembly including a bushing with threads disposed on an external surface, and an opening in the bushing extending from a first surface to a second surface, wherein the threads of the bushing engage with the first set of spout anchor threads. The faucet assembly may also include a valve cartridge surrounded by a locking ring, wherein the locking ring includes threads disposed on an external surface, the threads of the valve cartridge engaging with the first set of valve anchor threads.
In another illustrative embodiment of the present disclosure, a faucet assembly may include a spout anchor including a first set of spout anchor threads. The faucet assembly may also include a valve anchor including a first set of valve anchor threads. The faucet assembly may also include a spout assembly including a bushing with threads disposed on the external surface, and an opening in the bushing extending from a first surface to a second surface, wherein the threads of the bushing engage with the first set of spout anchor threads. The faucet assembly may also include a valve cartridge including a locking ring positioned on the external surface of the valve cartridge, wherein the locking ring includes threads disposed on the external surface, the locking ring threads engage with the first set of valve anchor threads, and the valve cartridge includes an inlet conduit and an outlet conduit, the inlet conduit and the outlet conduit being in fluid communication with the valve cartridge.
In yet another illustrative embodiment of the present disclosure, a faucet assembly may include an anchor having a first opening of a first diameter and comprising a lip structure, anchor threads, and one or more cleats disposed in one or more grooves, the one or more cleats operable to travel along the one or more grooves, the anchor operable to mount to a mounting deck. The faucet assembly may also include a faucet body comprising a waterway and a lip along the outer diameter of the faucet body. The faucet assembly may also include a locking ring surrounding the faucet body and comprising internal threads. The faucet assembly may also include a retaining ring surrounding the faucet body, the retaining ring sized so that the diameter of the retaining ring is smaller than the diameter of the faucet body lip, wherein the retaining ring engages the faucet body lip and retains the locking ring on the faucet body, wherein the internal threads of the locking ring releasably engage the anchor threads and releasably attach the faucet body to the anchor.
Additional features and advantages of the present disclosure 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 disclosure as presently perceived.
The detailed description of the drawings particularly refers to the accompanying figures in which:
Corresponding reference characters indicate corresponding parts throughout the several views. Unless otherwise stated, the drawings are proportional. The exemplifications set out herein illustrate exemplary embodiments of the disclosure and such exemplifications are not to be construed as limiting the scope of the disclosure in any manner.
The embodiments described herein are not intended to be exhaustive or to limit the disclosure to precise forms disclosed. Rather, the embodiments selected for description have been chosen to enable one skilled in the art to practice the disclosure.
With reference to
Each of the inlets 119a and 119b illustratively includes an end connector (not shown) configured to couple to a fluid coupling for supplying water from hot and cold water sources (not shown). The fluid couplings may comprise a quick release coupling, such as PMC Series couplings available from Colder Products Company of St. Paul, Minn. Other conventional fluid couplings may be substituted therefor, such as those detailed in U.S. Pat. No. 6,672,628.
Illustratively, the inlets 119a and 119b are formed of a flexible material to facilitate positioning of the respective end connectors (not shown) relative to the faucet assembly 101. In one illustrative embodiment, the inlets 119a and 119b and return conduit 120a and 120b are all formed of cross-linked polyethylene (PEX).
With reference to
The anchors 151 and 153 illustratively include an anchor floor portion which is mounted from the top of the mounting deck 111 and rests on the upper surface 129 thereof. It should be noted that the anchors 151 and 153 may also be mounted from the underside of the mounting deck 111 below its lower surface. The anchors 151 and 153 may include a void to receive the waterway assembly, including the inlets 119a and 119b, the return conduits 120a and 120b, and/or the combined return conduit 122. First and second attachment posts 217a and 217b extend downwardly from the anchors 151 and 153. The attachment posts 217a and 217b each include a plurality of external threads and are configured to operably couple with the cleats 117a and 117b. An upper end of each post 217a and 217b extends through the anchor 115 and includes a head configured to be manipulated by a tool, such as a screwdriver or Allen wrench (not shown). Upper and lower apertures 711 and 709 receive each attachment post 217a and 217b, respectively. The upper apertures 711 and the lower apertures 709 are formed within the anchor 115. Further, the anchor includes grooves 133 (shown for attachment post 217a, not shown for attachment post 217b) for each of the attachment posts 217a and 217b. Grooves 133 are configured to receive the respective attachment post 217a and 217b and guide the respective cleats 117a and 117b in movement longitudinally therealong. In one illustrative embodiment, the anchors are formed, for example, through molding of a thermoplastic material.
The mounting plate cleats 117a and 117b each include a threaded opening configured to threadably engage the respective attachment post 217a and 217b. Each cleat 117a and 117b is substantially wedge shaped and includes an upper surface 703 configured to cooperate with the anchor floor portion 219 to clamp the anchor 115 to the mounting deck 111. When the anchor 115 is positioned on the mounting deck 111, the threaded attachment posts 217a and 217b are rotated to cause the mounting plate cleats 117a and 117b to move longitudinally up and down on the posts 217a and 217b, respectively. Illustratively, counterclockwise rotation of attachment posts 217a and 217b causes cleats 117a and 117b to move downwardly or away from mounting deck 111 to an unlocked position. The cleats 117a and 117b may be directed inside of the anchor 115, in a respective support structure (shown as 705 for cleat 117a, not shown for cleat 117b). The shape of the support structures 705 conform to the cross-sectional shape of cleats 117a and 117b
Clockwise rotation of attachment posts 217a and 217b causes cleats 117a and 117b to move upwardly or toward mounting deck 111 to a locked position. In the locked position, the upper surfaces 703 of the cleats 117a and 117b abuts the bottom or lower surface 127 of mounting deck 111, securing the anchor 115 thereto.
The cleats 117a and 117b are prevented from rotating with the attachment posts 217a and 217b as they are turned, by guide surfaces of each cleat 117a and 117b. The guide surfaces abut against cooperating stop surfaces of the grooves 133, upon rotation of the cleats 117a and 117b, respectively. This causes cleats 117a and 117b to ride up or down the attachment posts 217a and 217b within the grooves 133 as they are rotated instead of rotating 360 degrees with the rotation of the posts 217a and 217b. As noted above, attachment posts 217a and 217b are stabilized and secured at their bottom portions by the anchor 115 body.
Shown in
The anchor 153 and the handle 701 for a valve assembly 104 are described with reference to
The anchor 153, in an embodiment, includes the general features described above, and also includes a trim ring 709. The trim ring 709 is attached to the upper portion 401 of the anchor 153 that extends above the upper surface of the mounting deck 111, and hides the anchor 153 from view from the upper surface of the mounting deck 111. The trim ring 709 is positioned on the anchor 153 so that, on installation, the trim ring 709 abuts or is a short distance from the upper surface 1301 of the mounting deck 111. The handle anchor 153 also includes internal threads 721 configured to engage with external threads 719 of the locking ring 711, explained in more detail below. The anchor 153 may also include a foam or elastomeric gasket 315 to seal the anchor to the mounting deck 111. The gasket 315 may be held in place with a groove (not shown) disposed in the anchor 153, or the gasket 315 may be releasably attached to the anchor 153 with, for example, an adhesive.
The valve cartridge 707 includes a valve, a valve stem 705 to manipulate the valve, an inlet conduit 715, and an outlet conduit 717. Liquid from one or more sources enters the valve via the inlet conduit 715. The amount of liquid entering the outlet conduit 717 is dependent on the position of the valve stem 705. Rotation of the valve stem 705 increases or decreases the amount of liquid entering the outlet conduit 717.
The valve cartridge 707 also includes a locking ring 711 located on the outer surface of the valve cartridge 707. The locking ring 711 is captured by one or more projections 803 on the valve cartridge 707, so that the locking ring 711 may freely rotate around the valve cartridge 707, but the projections 803 prevent the locking ring 711 from substantially moving along the longitudinal axis of the valve cartridge 707. The locking ring 711 is substantially cylindrical, and includes external threads 719. The locking ring 711 also includes projections or indentations 805, shown with respect to
The valve cartridge 707 also includes an orientation ring 801, shown particularly in
The handle 701 may be a metal or plastic, and allows a user to manipulate the valve stem 705 to change the flow of liquid from an inlet conduit 715 to an outlet conduit 717. The projection may be a metal or plastic, and may be permanently or releasably attached to the handle 701. The handle may include internal projections or indentations to receive the valve stem 705 in one direction, and the projections or indentations may engage with complimentary projections or indentations on the valve stem 705 to allow the handle 701 to rotate the valve stem 705 to manipulate the flow of liquid in the valve. The handle may be releasably attached to the valve stem 705 via, for example, at set screw 703.
During installation, described with reference to
The installation tool 1001 is placed over the valve cartridge 707, so that the internal structure 1003 of the installation tool 1001 engages with the projections or indentations of the locking ring 711. The installation tool 1001 may be sized so that the valve stem 705 does not interfere with the installation tool 1001, or the installation tool 1001 may include one or more voids 1005 to allow the valve stem 705 to pass into or pass through the installation tool 1001. The user rotates the installation tool 1001, which rotates the locking ring 711. The external threads 719 of the locking ring 711 engage with the internal threads 721 of the anchor 153, and pull the locking ring 711 and the valve cartridge 707 to the anchor 153. The interference of the projections on the orientation ring 801 and the projections on the inner surface of the anchor 153 prevents the valve cartridge 707 from rotating within the anchor 153. When the locking ring 711 is tightened against the anchor 153, the installation tool 1001 is removed. The handle 701 is positioned over the valve cartridge 707, so that the handle 701 interacts with the valve stem 705, and a set screw 703 is installed into the handle 701 to hold the handle 701 in place.
The spout assembly 102 includes a spout 103 having a first opening 109 and a second opening 107. The outlet conduits of the valve assemblies join under the mounting deck into a combined outlet conduit 122. The combined outlet conduit 122 enters the anchor 151, extends through the mounting deck 111, enters the first opening 109 of the spout 103, extends through the spout 103, and exits the second opening 107 of the spout 103. The second opening 107 of the spout 103 may include, in an embodiment, an aerator or other structure to modify the flow of liquid from the combined outlet conduit 122. The faucet assembly 102 also includes a retaining structure 115 to hold a bushing 113 in place within the faucet assembly 102. The spout 103 also includes a third opening. The third opening allows the installation tool 1001 or the lift rod 123 to extend from above the spout 103 to the inner area of the spout 103.
The retaining structure 115, in the embodiment, includes two screws 121 to releasably attach the retaining structure 115 to the spout 103. The retaining structure 115 includes one or more projections to hold the bushing 113 within the spout 103, and also a void 307 to hold the bushing 113 and allow the void 309 of the bushing 113 to extend from the inner area 219 of the spout 103 through the first opening 109 of the spout 103. The projections allow the bushing 113 to rotate freely, and also allow for limited movement of the bushing 113 along the bushing's cylindrical axis, but prevent the bushing 113 from removal from the spout 103 or removal from the retaining structure 115. The retaining structure 115 also includes a void (not shown) to allow the combined outlet conduit 122 to pass from the inner area of the spout 103 through the first opening 109 of the spout 103 and into the anchor 151.
The bushing 113, in the embodiment, is a metal or plastic. The bushing 113 is substantially cylindrical and includes a first end 313 and a second end 315, and has a void 309 with a first diameter that extends from the first end 311 to the second end 313. The void 309 at the first end 311 has a larger diameter than the void at the second end 313. The walls 201 at the void 309 at the first end 311 allow engagement of an installation tool 1001 to facilitate rotation of the bushing 113. The void 309 of the bushing 113 allows the lift rod 123 to pass through the void 309 without substantial interference. The installation tool 1001 has a diameter larger than the diameter of the lift rod 123, and the walls 201 of the void 309 at the first end 311 interfere with the installation tool 1001, allowing the installation tool 1001 to rotate the bushing 113. The bushing 113 includes threads 301 on the outer surface at the second end 313.
In the embodiment, the anchor 151 includes the general structure as described above. The anchor 151 also includes a first void 503 and a second void 501, shown with respect to
During installation, the faucet assembly 102 is placed over the anchor 115. The combined outlet conduit enters the first void 503 of the anchor 115 and extends through the anchor 115 and below the mounting deck 111. The faucet assembly 102 is placed over the anchor 115, and the projections or indentations on the faucet assembly 102 engage with the projections or indentations on the anchor 115 so that the faucet assembly 102 may be oriented in only one orientation with respect to the anchor 115. When the projections or indentations on the faucet assembly 102 and the anchor cooperate and the faucet assembly 102 is moved close to the assembly, the threads 301 of the bushing 113 align with the anchor threads 303.
The lift rod 123, which may include an end cap 105 or other decorative or functional cap, may be removed from the faucet assembly 102, or may have been removed before the faucet assembly 102 is positioned over the anchor 115, and the installation tool (not shown) is placed into the opening in the faucet assembly 102 for the lift rod 123. The spout installation tool (not shown) is lowered into the faucet assembly 102, and engages the walls 201 at the void 309 at the first end 311 of the bushing 113. Rotation of the spout installation tool (not shown) rotates the bushing 113, and the external threads 301 of the bushing 113 engage the anchor threads 303. Rotation of the spout installation tool (not shown) forces the faucet assembly 102 onto the anchor 115. The projections of the faucet assembly 102 and the projections of the anchor cooperate to prevent substantial rotation of the faucet assembly 102, and the engagement of the external threads 301 of the bushing 113 and the anchor threads 303 prevents movement perpendicular to the mounting deck 111. The spout installation tool (not shown) is removed from the faucet assembly 102, and the lift rod 123 is replaced in the faucet assembly 102. The lift rod 123 extends through the spout 103, through the bushing 113, through the anchor 115 via the second void 501 in the anchor, and below the lower surface of the mounting deck 111. The combined outlet conduit 122 is attached to the outlet conduits 120a and 120b from the valve assemblies.
In a further embodiment, shown in
The anchor structure 1103 may be similar to the anchor structure 113 previously shown with respect to anchors 151 and 153, however the anchor 1103 may provide external threads 1219 to releasably secure the faucet body or delivery spout 1101 to the anchor 1103. The anchor 1103 cleats 117a and 117b may releasably engage the bottom surface 127 of the mounting deck 111, and the top surface 1221 of the anchor 1103 may engage the top surface 1301 of the mounting deck 111, so that the anchor 1103 is releasably engaged with the mounting deck 111. The threads 1219 of the anchor 1103 may be used to releasably secure the delivery spout 1101 to the anchor 1103, and thus to the mounting deck 111, as more fully explained below.
In one embodiment, shown in
The trim ring 1203 may be a metal or plastic ring, which may be substantially circular. The trim ring 1203 may include internal threads 1205 on the inner surface of the trim ring 1203. The trim ring 1203 may be sized so that the inner diameter (ID1) is larger than the outer diameter (OD) of the delivery spout 1101. The bottom surface of the trim ring 1203 may abut the installation deck 111 upon installation, or the bottom surface of the trim ring 1203 may interact with a gasket or other structure supported by the mounting deck 111. The top inner surface of the trim ring 1203 may also include a gasket disposed therein. The gasket or gaskets may seal the inner surface of the trim ring 1203 to the remaining structure, and may keep moisture and/or debris confined to the outside of the trim ring 1203.
The locking ring 1207 may be a plastic ring, which may be substantially circular. The locking ring 1207 may be sized so that the inner diameter (ID2) is larger than the outer diameter (OD) of the delivery spout 1101. The locking ring 1207 may include inner surface threads 1211 and outer surface threads 1209. The inner surface threads 1211 may engage the complimentary external threads 1219 on the anchor 1103, and the outer surface threads 1209 may engage the complimentary internal threads 1205 on the trim ring 1203. The locking ring 1207 may include one or more structures 1213, either projections or indentations, that may allow a tool (not shown) to engage the structures 1213 to rotate the locking ring 1207.
The retaining ring 1215 may be a plastic ring, which may be substantially circular, but which may not be continuous (i.e., split, in that the retaining ring 1215 may be broken in one or more places). The retaining ring 1215 may be sized so that the retaining ring 1215 may be opened and the diameter of the opened ring may be larger than the outer diameter (OD) of the delivery spout 1101, but that when the retaining ring 1215 is closed (i.e., when the broken ends of the retaining ring 1215 are in communication or are closer together than when the ring is in the open position), the diameter of the inner surface (ID3) of the retaining ring 1215 is smaller than the outer diameter (OD) of the lip 1223 of the delivery spout 1101, and so the retaining ring 1215 rests on the lip 1223 of the delivery spout 1101. When the retaining ring 1215 rests on the delivery spout 1101, the retaining ring 1215 may extend the effective diameter of the delivery spout 1101, and the increased diameter may be greater than the internal diameter of both the trim ring 1203 and the locking ring 1207. If the locking ring 1207 and the trim ring 1203 are installed around the delivery spout 1101, and then the retaining ring 1215 is installed around the delivery spout 1101, then the retaining ring 1215 and the trim ring 1203 may not be able to be removed from the delivery spout 1101, without first removing the retaining ring 1215.
During installation of the delivery spout 1101, the trim ring 1203 and the locking ring 1207 are positioned on the delivery spout 1101. The trim ring 1203 and the locking ring 1207 have a diameter that is larger than the diameter of the delivery spout 1101, so that the trim ring 1203 and the locking ring 1207 may be positioned on the delivery spout 1101. The retaining ring 1215 may then be positioned on the delivery spout 1101. The retaining ring 1215 may be substantially circular but may not be continuous. The inner surface of the retaining ring 1215 may be sized so that the retaining ring 1215 may rest on the lip 1223 of the delivery spout 1101, and may functionally extend the surface of the lip 1223 of the delivery spout 1101. The delivery spout 1101 is positioned over the anchor 1103, so that the sleeve 209 and the inlets (not shown) and the return (not shown) are positioned within the anchor 1103.
The inner threads 1211 of the locking ring 1207 engage with the threads 1219 of the anchor 1103. The top surface 1225 of the locking ring 1207 may abut the outer surface 1217 of the retaining ring 1215, and the inner surface 1227 of the retaining ring 1215 may abut the lip 1223 of the delivery spout 1101. The engagement of the inner threads 1211 of the locking ring 1207 and the threads 1219 of the anchor 1103 may thus force the delivery spout 1101 to the anchor 1103. The locking ring 1207 may not abut the mounting deck 111, so that the locking ring 1207 may be tightened to ensure a seal between the delivery spout 1101 and the anchor 1103. After the locking ring 1207 is tightened to the anchor 1103, the trim ring 1203 may be lowered onto the locking ring 1207, and the threads 1205 of the trim ring 1203 may engage the outer threads 1209 of the locking ring 1207. The bottom surface of the trim ring 1203 may abut the mounting deck 111. In another embodiment, and as shown in
Although the disclosure 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.
This application claims the benefit of U.S. Provisional Application Ser. No. 61/347,270, filed May 21, 2010, the disclosure of which is expressly incorporated by reference herein.
Filing Document | Filing Date | Country | Kind | 371c Date |
---|---|---|---|---|
PCT/US11/37613 | 5/23/2011 | WO | 00 | 10/30/2012 |
Number | Date | Country | |
---|---|---|---|
61347270 | May 2010 | US |