An exemplary embodiment relates to a showerhead for use in a shower environment. The showerhead includes a plurality of replaceable covering panels, at least one integrated light, and at least one integrated speaker that is configured to emit music. The showerhead also includes a central showerhead and a separate structure external to the central showerhead. The central showerhead and the separate structure are configured to emit water in a plurality of spray patterns. The showerhead is also configured to emit the light, music, and water simultaneously.

BACKGROUND

The present disclosure relates generally to showerheads. More specifically, the present disclosure relates to showerheads that include a unique structural configuration that provides sprays at multiple levels, provides a unique changeable aesthetic, and that may include light, sound, or other features.

Such showerheads may include features for providing ambient lighting in showers and/or for providing information or indications relating to the showering experience such as the duration of the shower, the temperature of the water in the shower, and/or other information that a user may find useful.

Many residential spaces (e.g., homes, condos, apartments, hotels, motels, etc.) have showers. Often times, showers may be located in a space that is not well lit. For instance, where a home has a shower having a shower curtain, the shower may not be lit with ambient lighting or with a lighting fixture positioned within the showering enclosure for providing additional light for a user. When constructing a bathroom, some homeowners may install lighting within the shower space, such as recessed lighting, for instance. However, installing lighting in the shower space after a bathroom has already been constructed can be difficult and costly.

It would be advantageous to provide a showerhead that addresses one or more of the aforementioned issues.

SUMMARY

An exemplary embodiment relates to a showerhead that includes a first spray mechanism comprising a first plurality of nozzles and at least one lighting element; a second spray mechanism separate from and located a distance away from the first spray mechanism; and a surrounding structure comprising a plurality of members extending between the first spray mechanism and the second spray mechanism such that the first spray mechanism is at least partially surrounded by the surrounding structure.

Another exemplary embodiment relates to a shower assembly that includes a first sprayhead; a second sprayhead separate from the first sprayhead; a plurality of replaceable fins extending between the first and second sprayhead and defining a structure that at least partially surrounds the first sprayhead; at least one lighting element; and at least one speaker.

Another exemplary embodiment relates to a method of assembling a showerhead, the method comprising: placing a first shade mount and a second shade mount onto a jig; inserting a covering panel into the first shade mount by rolling a first end of the covering panel into a slot in the first shade mount; inserting a covering panel into the second shade mount by inserting a second end of the covering panel into a slot in the second shade mount; inserting a plurality of covering panels into the first shade mount and the second shade mount to form the overall shape of the showerhead; and fastening an upper portion of the second shade mount to a lower portion of the second shade mount using a fastener.

Another exemplary embodiment relates to a showerhead for use in a shower environment. The showerhead includes a plurality of replaceable covering panels, at least one integrated light, and at least one integrated speaker that is configured to emit music. The showerhead also includes a central showerhead and a separate structure external to the central showerhead. The central showerhead and the separate structure are configured to emit water in a plurality of spray patterns. The showerhead is also configured to emit the light, music, and water simultaneously.

Another embodiment relates to a shower assembly for use in a shower environment. The shower assembly includes a showerhead that includes a plurality of replaceable covering panels that form the overall shape of the showerhead. The showerhead also includes at least one integrated light where the light is emitted through a diffuser. The showerhead also includes at least one integrated speaker that is configured to emit music. The showerhead also includes a central showerhead and a separate structure external to the central showerhead where the separate structure is configured to be in a ring shape. The central showerhead and the separate structure are configured to emit water in a plurality of spray patterns. The shower assembly also includes a control unit operably coupled to the showerhead. The control unit is configured to control the light, the speaker, and the water simultaneously.

DETAILED DESCRIPTION

According to an exemplary embodiment, a showerhead includes a first spray mechanism (e.g., a sprayhead), a second spray mechanism (e.g., a sprayhead), and a surrounding structure to provide at least a portion of an overall aesthetic (e.g., profile, shape, etc.) for the showerhead. In some embodiments, the first spray mechanism is a sprayhead positioned internal to the surrounding structure, and may optionally include one or more lighting elements and/or one or more speaker elements. In some embodiments, the second spray mechanism may optionally include one or more lighting elements. A hose, pipe, or tube may extend between the first and second spray mechanisms to provide water from one to the other. In some embodiments, the surrounding structure may include one or more permanent or replaceable elements that have sizes, shapes, and configurations intended to provide an overall aesthetic for the showerhead. In some cases, such members may be radially-oriented fins or ribs that extend between the first and second spray mechanisms (e.g., where such members may be coupled or mounted to one or both of the first and second spray mechanisms or to other components coupled directly or indirectly to the first and second spray mechanisms, such that the members extend from a location proximate the first spray mechanism to a location proximate the second spray mechanism), although it should be understood that other configurations are also possible. In some embodiments, the permanent or replaceable members may partially or totally conceal one or both of the first and second spray mechanisms. In some embodiment, the showerhead may be configured to allow the synchronized delivery of two or more of water, sound (e.g., music), and lighting.

According to an exemplary embodiment, a showerhead or shower device includes an internal or central spray head and a structure external to the internal spray head that provides a unique overall external aesthetic for the showerhead. For example, the showerhead may include a plurality of permanent or replaceable members or elements (e.g., fins, ribs, covering panels, etc.) that are arranged around the spray head to provide an overall aesthetic appearance for the showerhead. In some embodiments, the permanent or replaceable members may be radially-oriented ribs or fins that may either be permanently affixed to the showerhead or may be removable and replaceable with other types of ribs or fins to change the overall appearance of the showerhead as desired. For ease of reference throughout the following description, the permanent or replaceable members will be referred to as “fins,” although it should be understood by those reviewing the present application that such members may have a wide variety of configurations other than those shown herein.

According to some embodiments, the external structure may be formed at least partially of components having a translucent or transparent material to allow light to travel therethrough. Such embodiments may allow for light of different colors and durations to be used to provide a lighting experience to a user of the showerhead.

Referring generally to the FIGURES, according to one exemplary embodiment, the showerhead includes a first spray mechanism shown as an internal or central spray system (e.g., a first sprayhead) and second spray mechanism shown as a rim or ring spray (e.g., a second sprayhead). For ease of reference, the first spray mechanism may be referred to as an internal spray system and the second spray mechanism may be referred to as a rim spray, although it should be understood that configurations other than those shown in the accompanying drawings are possible according to various exemplary embodiments. The internal spray system may be fluidly coupled to the showerhead via a first water supply line. The internal spray system may include a first plurality of nozzles, a light, a speaker, and a control unit operably coupled to the light and the speaker. The rim spray may include a second plurality of nozzles. The control unit further receives a first programmed command to sequentially change a condition of a spray mode outputted from the first plurality of nozzles and the second plurality of nozzles based on the first programmed command. The control unit further receives a second programmed command to sequentially change a condition of the light based on the second programmed command. In some embodiments, the spray mode transitions based on a first pre-programmed command. In some embodiments, a light condition transitions based on a second pre-programmed command.

According to an exemplary embodiment, the first spray mechanism and second spray mechanism may be provided at different levels. For example, where the showerhead is oriented such that the central longitudinal axis of the showerhead is oriented vertically, the first spray mechanism may be located at a height that is greater than the height of the second spray mechanism.

Referring toFIGS.1and2, a showerhead100is shown according to an exemplary embodiment. The showerhead100may be installed in a showering environment within a bathroom or elsewhere. The showerhead100may be a ceiling hanging showerhead according to an exemplary embodiment, although it should be understood that in some configurations, the showerhead may be mounted such that a water supply pipe for the showerhead may instead extend from another wall (e.g., a vertical wall), and that the manner of coupling the showerhead to a water supply is a matter of design choice.

The showerhead100may include a mounting structure that may include an escutcheon and/or a bracket (collectively referred to herein in the interest of brevity as mounting bracket110). The mounting bracket110may be coupled to the ceiling (or wall, as the case may be), where the mounting bracket110may be positioned on an outer surface of the ceiling (or wall). In some embodiments, the mounting bracket110may be positioned within the ceiling, where the showerhead100extends from the ceiling (or within the wall where the showerhead extends from a wall). The showerhead100may include a first water supply120. The first water supply120may extend through the mounting bracket110, where the first water supply120is fluidly coupled to a water source. As can be appreciated, the first water supply120may include two ends: one fluidly coupled to the water source and one fluidly coupled to one or more nozzles that are configured to dispense water into the shower environment.

The showerhead100may include a structure that fully or partially surrounds an internal spray system160(as will be described in greater detail below) to provide a particular overall aesthetic appearance for the showerhead, and which will be referred to herein for ease of reference as a surrounding structure130(or, alternatively, as a “covering” structure). The surrounding structure130may provide an appearance reminiscent of a lampshade or lighting fixture, and may act to protect and/or to completely or partially obscure or conceal the internal spray system160. The surrounding structure130may include one or more features (e.g., permanent or replaceable members or elements) referred to herein for ease of reference as fins140(e.g., “ribs” or “fins”). As illustrated inFIG.1, the fins140may be provided as a plurality of radial fins or ribs that extend outwardly away from an internal spray head. The fins140may extend around a side of the surrounding structure130, where a top and a bottom of the surrounding structure130may be open. According to an exemplary embodiment, the fins are configured to extend between or span the distance between the internal spray head and the rim spray. For example, one end or other portion of a fin may be coupled directly or indirectly to the internal spray head and another end or portion of the fin may be coupled directly or indirectly to the rim spray (or to other components that may be coupled directly or indirectly to such sprays). According to other exemplary embodiments, the fins may extend beyond the internal spray head and/or the rim spray (e.g., the upper end of a fin may extend beyond the upper end of the internal spray head and/or the lower end of a fin may extend beyond the lower end of the rim spray).

According to an exemplary embodiment, the fins140may be configured for providing a lighting effect. That is, the fins140may be configured to shade and/or direct light into the showering or other environment in which the showerhead100is provided. The lighting effect from the fins140may be controlled by the user to enhance the user experience. According to some embodiments, a user may choose the type of lighting effect based on user preferences.

Although the surrounding structure130shown inFIG.1is shown as having multiple fins140, the surrounding structure130may include a single fin140. In still other embodiments, the surrounding structure130may include no fins140. For example, as shown inFIG.6, the fins140may be provided in the form of “panels” that are substantially wider than the fins140shown inFIG.1. According to an exemplary embodiment, the surrounding structure130may include a total of 72 fins140, although a different number may be provided in other embodiments (e.g., such shown inFIG.6).FIGS.31-39show other embodiments having different configurations for the fins140, which may provide a different aesthetic appearance for the showerhead.FIGS.40-42show other embodiments where the fins may be a plurality of straight ribs, where the straight ribs may be different lengths. It should be understood that a wide variety of sizes, shapes, and configurations for the fins are possible, and that the embodiments illustrated in the accompany drawing figures are by no means exhaustive.

The fins140may be made from a variety of materials. For example, in an exemplary embodiment, the fins140may be made from an acrylic material. The acrylic material may have different finishes or colors, including but not limited to translucent mauve, frosted green, rainbow iridescent, clear, or opaque. Acrylic may be advantageous for this design because it may allow light to shine through the material and illuminate the shower to create a lighting effect that may enhance the user experience. In other embodiments, the fins140may be made from wood which may have different finishes or colors. Wood may be advantageous to this design because its aesthetic may create a different lighting effect and may enhance the user experience. It should be noted that any of a wide variety of materials may be used for the covering and the fins, including various plastics, woods, glasses, metals, and/or composite materials. Although the showerhead100shown inFIG.1is shown as having a surrounding structure130, the showerhead100may also be used without a surrounding structure130.

As shown inFIG.2, the showerhead100may include a member or element referred to herein as a first shade mount150. The first shade mount150may be concentrically provided about the showerhead100. The first shade mount150may include one or more notches, protrusions, fasteners, interfaces, or the like, configured to engage the fins140. That is, the fins140may be coupled to the one or more notches as such to couple the fins140to the showerhead100.

The showerhead100may include member or element referred to herein as a second shade mount180. The second shade mount180may be concentrically provided about the showerhead100. The second shade mount180may include one or more notches, protrusions, fasteners, interfaces, or the like, configured to engage the fins140. That is, the fins140may be coupled to the one or more notches as such to couple the fins140to the showerhead100. The shade mounts150,180may cooperatively define a shade mount assembly configured to couple the fins140to showerhead100.

According to an exemplary embodiment the fins140may be removable and/or interchangeable. That is, the fins140may be removable from the showerhead100. The fins140may be removed from the one or more notches, protrusions, fasteners, interfaces, or the like on the shade mounts150,180. It should be noted that while the accompanying figures illustrate particular configurations for such features, it should be understood that other configurations are possible, and that all are intended to be encompassed by the present disclosure. Additionally or alternatively, secondary features such as fasteners may be used to couple the fins to the showerhead structure. The fins140may be replaced by fins140of similar or different shapes, sizes, materials, or colors, etc. utilizing the one or more notches, protrusions, fasteners, interfaces, or the like on the shade mounts150,180. The fins140may be removed without being replaced. Although the showerhead100inFIG.2is shown as including two shades mounts (e.g., shade mounts150,180), the showerhead100may also include more or less than two shade mounts. For example, the showerhead100may not include any shade mounts. In yet another example, the showerhead100may include a single shade mount. In yet another example, the showerhead100may include three or more shade mounts.

Positioned below the first shade mount150may be an internal spray system160. The internal spray system160may be fluidly coupled to the showerhead100via a first water supply120such that the first water supply120may deliver a flow of water to the internal spray system160. The internal spray system160may include one or more nozzles (shown as first nozzles240inFIG.4) that may be configured to output water from the first water supply120in a variety of patterns. The internal spray system160may also include a light165(e.g., one or more lighting elements such as LEDs, bulbs, etc.), a speaker250, and a control unit200operably coupled to the light and the speaker250. The internal spray system160may further include one or more LED diffusers210which may be configured to diffuse light emitted from the internal spray system160to uniformly distribute the light evenly within the shower environment. The control unit200may be configured to control and/or manage the internal spray system160. Additionally, the internal spray system160may be configured to emit sound into the shower environment.

The showerhead100may include a second water supply170(according to other exemplary embodiments, more than two water supplies may also be used). The second water supply170may be fluidly coupled to the first water supply120such that a flow of water within the first water supply120may be delivered into the second water supply170. In other embodiments, the water supplies120,170are individually coupled to the water source. The water supplies120,170may be hollow conduits configured to deliver a flow of water from the water source to a plurality of nozzles.

The showerhead100may include a second spray mechanism or device that is remote or separate (e.g., located a distance away from the first spray mechanism) from the internal spray system160, shown inFIG.2, for example, as a rim spray190. As illustrated, the rim spray190is provided in the form of a generally circular ring, although it should be understood that other configurations are possible (e.g., complete or partial rings, shapes other than circular, etc.).

The rim spray190may be fluidly coupled to the second water supply170such that the second water supply170may deliver a flow of water to the rim spray190. In some embodiments, the rim spray190may be fluidly coupled to the first water supply120. As shown, the rim spray190may be a ring concentrically provided about a lateral midpoint of the showerhead100, where a hollow portion (e.g., hole, cavity, etc.) is provided within the center of the rim spray190. As can be appreciated, a light emitted from the internal spray system160may be emitted through the hollow portion to provide light into a water spray region within the shower environment. In some embodiments, the rim spray may be integrated with the second shade mount180. As will be discussed in greater detail herein, the rim spray190may include one or more nozzles provided about a circumference of the rim spray190and may be configured to output water from the second water supply170.

As shown inFIG.5, the rim spray190may include a second plurality of nozzles, shown as second nozzles260. The second nozzles260may be configured to output a flow of water. That is, the second nozzles260may be fluidly coupled to the second water supply170such to output water from the second water supply170. The second nozzles260may include a single spray mode, where the second nozzles260selectively receive a flow of water to output water into the single spray mode. In other embodiments, the second nozzles260may include one or more spray modes and/or patterns, where the second nozzles260actuate based on the desired spray mode. In such an embodiment, the rim spray190may include an internal diverter system configured to divert water to the respective second nozzles260based on a desired spray mode (e.g., from a first set of the second nozzles260to a second set of the second nozzles260). According to an exemplary embodiment, the second nozzles260may output the flow of water in a direction that would apply the water distal the users head. For example, the second nozzles260may be directed to provide water more towards the shoulders and/or other parts of the body distal the head. As can be appreciated, this effect may create a more comfortable and relaxing shower environment.

Referring now toFIGS.3-5, the showerhead100may further include a control unit200. The control unit200may be positioned within the internal spray system160. In other embodiments, the control unit200may be a separate component from the showerhead100, where the control unit200is operably coupled to the showerhead100. Additionally or alternatively, the control unit200may be operably coupled to the internal spray system160to provide a command to at least actuate the internal spray system160between an on and an off mode. As shown inFIG.4, the internal spray system160may further include a first LED diffuser210, a plurality of nozzles, shown as first nozzles240, and a speaker250. The first LED diffuser210may be configured to diffuse light emitted from the internal spray system160to distribute the light within the shower environment. In an exemplary embodiment, the first LED diffuser210may be formed of a continuous piece in a ring shape around the first nozzles240. The first LED diffuser210may be made of a translucent material so that the first LED diffuser210may diffuse light uniformly around the internal spray system160so as to provide an appearance reminiscent of a lighting fixture. Additionally or alternatively, the first LED diffuser210may be configured to protect a user from the light emitted from the internal spray system160. For example, LED light165can emit a bright light that could potentially be uncomfortable for a user if the user looks directly at the light, so the first LED diffuser210can provide a level of protection to the user. The first LED diffuser210may be made of a translucent material to prevent a user from looking directly at the LED light165. The internal spray system160may include multiple LED lights165positioned proximate a bottom and a top of the internal spray system160. It should be understood that while a single diffuser210is illustrated, a plurality of diffusers having other configurations than that shown are also possible and included within the scope of the present disclosure. For example, in another embodiment the first LED diffuser210may be formed of a plurality of pieces that are positioned around the first nozzles240. Additionally or alternatively, in another embodiment the first LED diffuser210may be formed of a plurality of pieces that cover each LED light165individually.

The first nozzles240may be configured to output a flow of water. That is, the first nozzles240may be fluidly coupled to the first water supply120so as to output water from the first water supply120. The first nozzles240may include one or more spray modes and/or patterns, where the first nozzles240actuate based on the desired spray mode. As can be appreciated, the internal spray system160may include an internal diverter system (e.g., solenoid350inFIG.7) configured to divert water to the respective first nozzles240based on a desired spray mode. In other embodiments, the diverter may be positioned distal the internal spray system160(e.g., in the ceiling, in the mounting bracket110, etc.).

The speaker250may be operably coupled to a device. The device may be a control system, wireless device (e.g., cellular phone, music player, etc.), sound system, or the like. The speaker250may be configured to output sound from the speaker250, where the sound is delivered from the device. The sound may be music, relaxation noise (e.g., background noise, etc.), any sound produced from the device, etc. The speaker250and/or device may be operably coupled to the control unit200, where the control unit200receives a feedback from the speaker250. The control unit200may be operably coupled to the internal spray system160to control components of the internal spray system160. The components of the internal spray system160may be controlled simultaneously by the control unit200. That is, the first LED diffuser210, the first nozzles240, and the speaker250may be controlled simultaneously so that light, spray, and sound may be emitted simultaneously to enhance the user experience. For example, the control unit200may actuate a diverter positioned within the internal spray system160to change a spray mode of the first nozzles240. In another example, the control unit200may receive the feedback from the speaker250(e.g., frequency, pitch, etc.) and control the spray mode based upon the speaker feedback. In another example, the control unit200may control a level and color of light emitted from the internal spray system160based upon the speaker feedback. In another example the control unit200may simultaneously control the spray mode, the brightness and color of light, and the sound emitted based on desired conditions.

WM Referring still toFIGS.3-5, the showerhead100may include a second LED diffuser220(or, in some embodiments, a plurality of LED diffusers). The second LED diffuser220may be substantially similar to the first LED diffuser210. The second LED diffuser220may be configured to diffuse light emitted from the internal spray system160to uniformly distribute the light evenly within the shower environment. In an exemplary embodiment, the second LED diffuser220may be formed of a continuous piece in a ring shape. The second LED diffuser220may be made of a translucent material so that the second LED diffuser220may diffuse light around the internal spray system160so as to provide an appearance reminiscent of a lighting fixture. Additionally or alternatively, the second LED diffuser220may be made of a translucent material to prevent a user from looking directly at the LED light165. The second LED diffuser220may be provided internal to the rim spray190such to prevent the second LED diffuser220from blocking the second nozzles260. It should be understood that while a single diffuser220is illustrated, a plurality of diffusers having other configurations than that shown are also possible and included within the scope of the present disclosure. For example, in another embodiment the second LED diffuser220may be formed of a plurality of pieces positioned proximate the rim spray190. Additionally or alternatively, in another embodiment the second LED diffuser220may be formed of a plurality of pieces that cover each LED light165individually.

The showerhead100may further include a ceiling mount diffuser230. The ceiling mount diffuser230may be substantially similar to the LED diffusers210,220. The ceiling mount diffuser230may define an annular profile with a hollow portion centrally provided therein. The ceiling mount diffuser230may be configured to diffuse light from the internal spray system160while permitting the flow of water from the showerhead100to the shower environment. As can be appreciated, the ceiling mount diffuser230may be provided outward the first nozzles240and inward the second nozzles260to permit the flow of water from the nozzles240,260.

FIGS.43-44show a jig602used to assemble the fins140to a first shade mount150and a second shade mount180. The first shade mount150and the second shade mount180may be placed on the jig602so that the fins140can be easily secured to the first shade mount150and the second shade mount180. Once secured, the fins140may surround or partially surround the first LED diffuser210and the second LED diffuser220. Both the first LED diffuser210and the second LED diffuser220may be made from a translucent material to shield the user from directly looking at the LED light165. Additionally or alternatively, both the first LED diffuser210and the second LED diffuser220may be made from a translucent material to distribute light uniformly around the showerhead100so as to provide an appearance reminiscent of a lighting fixture. In an exemplary embodiment, the first LED diffuser210may be configured to be two separate pieces that fit together to diffuse the LED light165. One piece is a top portion that fits over the fins140, and the other piece is a bottom portion that fits under the first shade mount150. The first LED diffuser210surrounds the LED lights165to diffuse light to create an enjoyable atmosphere. In an exemplary embodiment, the second LED diffuser220may be configured to be two separate pieces that fit together to diffuse the LED light165. The second LED diffuser220is positioned on the inner surface of the second shade mount180and diffuses LED light165at least in a direction toward the central axis of the showerhead100. Additionally or alternatively, each of the first LED diffuser210and the second LED diffuser220may be made from a plurality of pieces that form a ring shape wherein the pieces are not formed continuously. Additionally or alternatively, each of the first LED diffuser210and the second LED diffuser220may be made from a plurality of pieces that individually cover each LED light165. The jig602may be used during initial manufacturing to couple the fins140to the first shade mount150and the second shade mount180. The jig602may also be used by a consumer to replace the fins140with fins140of a similar or different shape or style.

The method for assembling the fins140is shown inFIGS.45A-50B.FIGS.45A-45Bshow step1of the method.FIG.45Aincludes an assembled first shade mount150coupled to an unassembled second shade mount180.FIG.45Bincludes placing the assembled first shade mount150coupled to an assembled second shade mount180on the jig602.

FIGS.46A-47Bshow step2of the method.FIGS.46A-46Binclude inserting a fin140into the first shade mount150by rolling a first end604of the fin140into a slot606in the first shade mount150. The first end604of the fin140has a curved tip so that it can roll into the slot606in the first shade mount150.FIGS.47A-47Bshow the first end604of the fin140completely inserted into the slot606in the first shade mount150. The curved design of the slot606allows for the first end604of the fin140to be securely fastened in the slot606. To remove the first end604of the fin140, the fin140may be rotated in the reverse direction of the direction of insertion.

FIGS.48A-48Cshow step3of the method.FIG.48Ashows a second end608of the fin140completely inserted into the second shade mount180.FIG.48Bshows a second end608of the fin140being inserted into the second shade mount180. When the second end608of the fin140is being inserted into the second shade mount180, the fin140lifts the upper portion of the second shade mount180. The second end608of the fin140lifts the upper portion of the second shade mount180until the second end608of the fin140is fully inserted into the second shade mount180. Once the second end608of the fin140is completely inserted into the second shade mount180as shown inFIG.48C, the second end608of the fin140is secured into the second shade mount180. The second end608of the fin140may be removed from the second shade mount180by lifting the upper portion of the second shade mount180and removing the second end608of the fin140from the second shade mount180.

FIG.49shows step4of the method.FIG.49shows a plurality of fins140inserted into and coupled to the first shade mount150and the second shade mount180. A user may customize the number of fins140to be inserted into the first shade mount150and the second shade mount180to form the overall shape of the showerhead.

FIGS.50A-50Bshow step5of the method.FIG.50Ashows the first shade mount150and the second shade mount180coupled to the maximum number of fins140and secured with a fastener610, such as but not limited to a screw.FIG.50Bshows fastening the upper portion of the of the second shade mount180to the lower portion of the second shade mount180using the fastener610. Once the upper portion of the second shade mount180and the lower portion of the second shade mount180are fastened together, the fins140are locked into place and cannot be removed without removing the fastener610.

Referring now toFIGS.51-60, a showerhead is shown according to another exemplary embodiment.FIG.51shows a perspective view of the showerhead. The showerhead may be substantially similar to showerhead100described above. The showerhead according to this exemplary embodiment includes fins140that surround the second LED diffuser assembly220. The second LED diffuser assembly220may include a plurality of different segments or portions that may be made from a translucent material to shield the user from directly looking at the LED lights. Additionally or alternatively, the second LED diffuser assembly220may be made from a translucent material to distribute light uniformly around the showerhead so as to provide an appearance reminiscent of a lighting fixture. The second LED diffuser assembly220may be made from a plurality of pieces or segments that couple together using clips225, wherein the pieces are not formed continuously. The second LED diffuser assembly220may diffuse LED light165at least in a direction toward the central axis of the showerhead.

FIG.52shows a perspective view of the showerhead. The showerhead includes fins140that surround the first LED diffuser assembly210. The first LED diffuser assembly210may also include a plurality of segments or portions that may be made from a translucent material. Additionally or alternatively, the first LED diffuser assembly210may be made from a translucent material to distribute light uniformly around the showerhead so as to provide an appearance reminiscent of a lighting fixture. The first LED diffuser assembly210may be made from a plurality of pieces that couple together using clips215, wherein the pieces are not formed continuously.

FIG.53shows an exploded view of the showerhead. The showerhead may include fins140that surround the first LED diffuser assembly210and the second LED diffuser assembly220. The showerhead may include the first LED diffuser assembly210formed of a plurality of separate pieces that couple together using clips215. The showerhead also may include the second shade mount180that may be concentrically provided about the showerhead. The second shade mount180may include one or more notches, protrusions, fasteners, interfaces, or the like, configured to engage the fins140. The showerhead may include second nozzles260which may be configured to output a flow of water. The showerhead also may include the LED light165that may be concentrically provided about the showerhead. The showerhead may also include the second LED diffuser assembly220formed of a plurality of separate pieces that couple together using clips225.

FIG.54shows a detailed view of a portion of the second LED diffuser assembly220. The second LED diffuser assembly220may be formed of a plurality of separate pieces. The second LED diffuser assembly220may fit around the second nozzles260. In this view, the clip225that couples the pieces of the second LED diffuser assembly220is not pictured and the LED light165is shown. The LED light165may emit light through the second LED diffuser assembly220at least in a direction toward the central axis of the showerhead.

FIG.55Ashows a perspective view of the second LED diffuser assembly220. The second LED diffuser assembly220may be hollow so that it can fit around the second nozzles260and the LED light165.FIG.55Bshows a detailed view of the second LED diffuser assembly220and the clip225. The clip225may couple the plurality of pieces of the second LED diffuser assembly220together, wherein the pieces are not formed continuously.FIG.55Cis a perspective view of the clip225that may couple the plurality of pieces of the second LED diffuser assembly220.FIG.55Dis a detailed view of a cross-section of the second LED diffuser assembly220and the clip225. The LED light165may be diffused through the second LED diffuser assembly220. The clip225and the second LED diffuser assembly220may be formed so that the second nozzles260may fit through them.

FIGS.56A and56Bshow two perspective views of another embodiment of the second LED diffuser assembly220. The second LED diffuser assembly220in this embodiment may be formed of a continuous piece instead of a plurality of separate pieces. The clips225may attach to the second LED diffuser assembly220so that light from the LED light165may not be diffused through the clips225. Therefore, light may not be diffused in a continuous ring around the showerhead.

FIGS.57A-57Cshow views of another embodiment of the showerhead. As shown inFIG.57A, the LED light165may be surrounded by a first transparent covering235. The first transparent covering235may be configured to protect the LED light165from water in the showerhead or water that may be emitted from the first nozzles240. The first transparent covering235may not diffuse light due to its transparent quality. Rather, light emitted from the LED light165may pass through the first transparent covering235, and further, may be diffused through the first LED diffuser assembly210.FIG.57Bshows a detailed view of the LED light165, the first transparent covering235, the first LED light diffuser assembly210, and the fins140.FIG.57Cshows a perspective view of the showerhead. The first transparent covering235may not be visible through the first LED diffuser assembly210. Additionally, the first LED diffuser assembly210may be made of a plurality of pieces that are coupled together by clips215.

FIGS.58A-58Cshow views of another embodiment of the showerhead. As shown inFIG.58A, the LED light165may be surrounded by a second transparent covering245. The second transparent covering245may be configured to protect the LED light165from water in the showerhead or water that may be emitted from the second nozzles260. The second transparent covering245may not diffuse light due to its transparent quality. Rather, light emitted from the LED light165may pass through the second transparent covering245, and further, may be diffused through the second LED diffuser assembly220.FIG.58Bshows a detailed view of the LED light165, the second transparent covering245, the second LED light diffuser assembly220, the clip225, the second nozzles260, and the fins140.FIG.58Cshows a perspective view of the showerhead. The second transparent covering245may not be visible through the second LED diffuser assembly220. Additionally, the second LED diffuser assembly220may be made of a plurality of pieces that are coupled together by clips225.

FIGS.59A and59Bshow views of clip225. The clip225may be connected to the second LED diffuser assembly220to couple the plurality of pieces together. The clip225may open for easier attachment to the second LED diffuser220.FIG.60shows a perspective view of the clip225connected to the second LED diffuser220and coupling the pieces of the second LED diffuser assembly220together. According to an exemplary embodiment, the clip225includes multiple segments joined together by hinges to allow for the opening and closing movement of the clip. The clip also includes complementary features for coupling the distal end of the clip to the main body of the clip so as to secure it in place when coupling adjacent segments of the LED diffuser assembly220together.

Referring now toFIG.7, a detailed view of the internal spray system160is shown according to one exemplary embodiment. The control unit200may receive a flow of water from the first water supply120. The flow of water may be delivered to a flow regulator330. By way of example, the flow regulator330may be configured to output at least one of a 2.5 GPM and a 1.75 GPM flow. The flow regulator330may be configured to regulate the flow of water delivered to the internal spray system160. More specifically, the flow regulator330may be configured to regulate the flow of water delivered to an air pump340. The air pump340may be fluidly coupled to the flow regulator330. In other embodiments, the air pump340may be directly coupled to the first water supply120. The air pump340may be configured to permit activation to one or more solenoid valves, shown as solenoid valves350. The solenoid valves350may be selectively repositionable between an open position and a closed position. As can be appreciated, the solenoid valves350permits a flow of water to the first nozzles240when the solenoid valve350is in the open position. According to an exemplary embodiment, the internal spray system160may include three solenoids350, where each solenoid valve350opens and closes in approximately 0.5 seconds. Each solenoid350may be configured to direct a flow of water to a desired spray pattern and/or outlet. For example, a first solenoid350may be fluidly coupled to a first spray pattern; a second solenoid350may be fluidly coupled to a second spray pattern; and a third solenoid350may be fluidly coupled to the second water supply170. The internal spray system160further includes a control board360. As will be discussed inFIG.8, the control board360may be configured to receive a command to control the internal spray system160.

Referring now toFIG.8, a control system for the internal spray system160is shown. The control system may be configured to send a command to the internal spray system160to actuate one or more components of the internal spray system160(e.g., speaker250, etc.). The control system may include the control unit200. The control unit200may be operably coupled to the control board360. The control unit200may be configured to receive a command from at least one of a controller (e.g., controller300ofFIG.28) and a digital device310. Additionally or alternatively, the control unit200may be configured to store programs of the showerhead100(e.g., shower program, music, valve controls, etc.). That is, the control unit200may be configured to receive at least one of a spray select, shower program, music play select, speaker volume, light actuation, light color, and Bluetooth pairing signal from the controller300. Additionally or alternatively, the digital device310may be communicably coupled to the control unit200(e.g., via Bluetooth, Wi-Fi, etc.). The digital device310may be configured to provide at least one of a shower program download, shower program customization, light actuation, light theme, light brightness, theme sound, music menu (e.g., playlist), music streaming application, and additional digital applications. The control board360may be configured to receive these commands and actuate the internal spray system160and/or control unit200accordingly.

Referring now toFIGS.9-27, various configurations of showerheads100are shown. A showerhead (e.g., showerhead100a,100b,100c,100d,100e,100f,100g,100h,100i,100j,100k,100l,100m,100n,100o,100p) may have a different combination of features of the showerhead100. As shown inFIGS.9-17, a showerhead (e.g., showerhead100a,100b,100c,100d,100e,100f,100g,100h,100i) may have a different combination of features (e.g., sound, light, spray pattern, shower theme, etc.). For example, the showerheads100a-100dand100f-100imay include a touchless controller, multiple spray patterns, multiple light colors, and sound capabilities. In yet another example, the showerhead100emay include a single light color, two spray patterns, and no music. As shown inFIGS.18-27, a showerhead (e.g., showerhead100j,100k,100l,100m,100n,100o,100p,100q,100r,100s) may have at least one of a spray mode. The spray modes may vary based on the number of water drops and diameter of drops. The spray mode may be a welcome rain, shown inFIG.18; a rain shower, shown inFIG.19; a cool rain, shown inFIG.20; a rainfall, shown inFIG.21; a summer rain, shown inFIG.22; a spring rain, shown inFIG.23; a rainy season, shown inFIG.24; a sunshower, shown inFIG.25, a drizzle, shown inFIG.26, and a spout, shown inFIG.27. In other embodiments, the spray mode may provide the experience of a mist/fog, a light rain, a moderate rain, a tropical rain, a heavy rain, a thunderstorm, a concentrated rain, or a cloudburst, etc. In other embodiments, the showerhead100may include spray modes that may include variations in water spray intensity, music, and light. In other embodiments, the showerhead100may include more spray modes. As shown inFIGS.9-27, the showerhead100a-100smay take on any geometrical configuration having any combination of features therein.

Referring now toFIG.28, the showerhead100may be operably coupled to a controller300. The controller300is operably coupled to the showerhead100. The controller300may be configured to send signals to the showerhead100to control the features (e.g., sound, light, spray pattern, shower theme, etc.). The features may be presets on the controller300, where each feature can be controlled independently. The signals sent by the controller300may be configured to at least provide commands to turn on the sound, change a volume of the sound, change the spray pattern, change a brightness and/or color of the light, etc. The features (e.g. sound, light, spray pattern, shower theme, etc.) may be selected so that the user may experience multiple features simultaneously. The features may be customizable so that the user may customize a shower experience. The controller300may be configured to be a wireless device. For example, the controller300may not need a communication cable to link to the showerhead100. The controller300may be defined to be selectively repositionable about the shower environment (e.g., mobile). The controller300may be selectively coupled to the shower environment by a coupling device (e.g., magnet, screw, bolt, suction, etc.). In some embodiments, the controller300may not be selectively repositionable about the shower environment and instead may be fixedly coupled to the shower environment.

Referring toFIG.29, the showerhead100may include a nozzle driver430coupled to a plurality of nozzles450, and a light system440communicably coupled to a plurality of lights460. Both the nozzle driver430and the light system440may be operably coupled to the control unit200. The nozzles450may be located within the showerhead100. The nozzle driver430may include a diverter435(e.g., solenoid valve350) configured to direct a flow of water to desired nozzles450to actuate a spray mode. The lights460may be located within the showerhead100, proximate nozzles450. The light system440may include a memory442and a communications interface444. As described in greater detail below, the showerhead100may be configured to determine various conditions of water output from the nozzles450, and control the lights460to output light having a state corresponding to the determined conditions. That is, the showerhead100may be configured to generate control signals to turn on and off various lights460, dim various lights460, change a color or warmth of light output from the lights460, change spray modes and so forth based on a program.

The lights460may be light emitting diodes (LEDs), organic LEDs, plasma display panel (PDP), liquid crystal display LCD), or other types or forms of lights. The lights460may be configured to output light by receiving a control signal from the light system440. The lights460may be configured to have various states. The states may be, for instance, an on state (e.g., where the lights460output light), an off state (e.g., where the lights460do not output light), a dim state (e.g., where the lights460output light having a luminescence or brightness less than the on state), various colored states, and so forth. The lights460may be configured to output light having a selectable color within the visible color spectrum. In some embodiments, the showerhead100may include several zones of lights. Each zone may be dedicated to a particular color. The showerhead100may include any number of zones. In some embodiments, the lights460may be configured to output light in the warm light spectrum (e.g., between 2000 kelvin (K) and 3000 K), in the cool light spectrum (e.g., between 3100 K and 4500 K), in the daylight spectrum (e.g., between 4600 K and 6500 K), and/or various other color temperatures (e.g., between 1000 K and 2000 K, between 6500 K and 10,000 K, etc.). The lights460may be configured to convey various information as well as providing ambient lighting conditions within the shower space, as described in greater detail below.

The showerhead100may include a power source. In some embodiments, the power source may be internal to the showerhead100. For instance, the power source may be a hydro-generator410(e.g., a micro hydro-generator). The hydro-generator410may be installed in-line between the water source and the nozzles450of the showerhead100. The hydro-generator410may be configured to generate power as water flowing from the water source turns a turbine within the hydro-generator410. The hydro-generator410may be configured to generate power to charge an internal battery (and/or capacitor) of the showerhead100, which in turn powers various electrical components of the showerhead100(e.g., the light system440, the lights460, etc.). In embodiments in which the hydro-generator410generates power to charge (at least) a capacitor, the capacitor may act as a “temporary battery” by discharging during instances of intermittent power generation via the hydro-generator410to stabilize brightness or consistency of the lights460. While described as a hydro-generator410, it is noted that the showerhead100may include various other types or forms of power sources internal to the showerhead100(e.g., one or more batteries such as lithium-ion batteries, etc.) which may be removable from the showerhead100for charging and/or replacing. Additionally, the showerhead100may be powered by various external power sources.

The showerhead100may include the control unit200. The control unit200may be configured to provide a programmed command to at least the nozzle driver430and the light system440. In other embodiments, the control unit200may be communicably coupled to one of the nozzle driver430and the light system440. The control unit200may be configured to provide the programmed command to the nozzle driver430and the light system440, where the programmed command has at least one pre-set condition. The programmed command may provide a spray pattern sequence, light sequence, etc. More specifically, the programmed command may provide a combination of spray patterns and light condition based on timing. For example, the programmed command may provide a command to the nozzle driver430to have a first spray pattern for three seconds, transition to a third spray pattern for ten seconds, transition to a combination of a second spray pattern and a fourth spray pattern for six seconds, etc. Simultaneously, the programmed command may send a similar command to the light system440. For example, the control unit200may provide a command substantially similar to the nozzle driver command, where the light system430may have a first lighting condition for three seconds, transition to a third lighting condition for ten seconds, etc.

The control unit200may be configured to determine various conditions corresponding to the showerhead100based upon the programmed command. The conditions may be or include light color, light brightness, spray mode, sound, aroma, etc. The control unit200may be configured to use the condition(s) corresponding to the showerhead100for generating control signals to control spray mode and light output from the lights460. According to the embodiments described herein, the control unit200may control the spray mode through the nozzles450and the lights460to provide the user with both modulating spray mode of the showerhead100and ambient lighting conditions within the shower space.

The condition may be a spray mode. The control unit200may be communicably coupled to the nozzle driver430. The control unit200may be configured to generate a command for the nozzle driver430, where the nozzle driver430may change a spray mode from the nozzles450based on the command. That is, the nozzle driver430may change the spray mode in sequence or pattern of the command. For example, if the control unit200provides a first programmed command, the nozzle driver430may actuate into a first programmed spray mode. In such an example, the nozzle driver430may slowly transition between soft spray modes based on the pre-set program conditions. In yet another example, if the control unit200provides a second programmed condition, the nozzle driver430may actuate into a second programmed spray mode. In such an example, the transition between the spray modes may be fluent to eliminate body shock on the user.

The condition may be a light condition. The control unit200may be communicably coupled to the light system440. The control unit200may be configured to generate a command for the light system440, where the light system440may change a condition of the lights460based on the command. That is, the light system440may change a brightness and/or color of the lights460in sequence or pattern of the command. For example, if the control unit200provides a first programmed command, the light system440may actuate the lights460into a first programmed light mode. In such an example, the light system440may control the lights460to produce a color light having softer colors, where the colors are slowly transitioned therebetween. In yet another example, if the control unit200provides a second programmed command, the light system440may actuate the lights460into a second programmed light mode. In such an example, the transition between the light colors may be fluent to eliminate body shock on the user.

In some embodiments, the condition may be an aroma. In such an embodiment, the showerhead100may be configured to emit an aroma into the shower environment based on the signal generated from the control unit200. The aroma could be a single aroma or could be a combination of multiple types of aromas. In some embodiments, the condition may be a sound. In such an embodiment, the showerhead100may be configured to emit a sound into the shower environment based on the signal generated from the control unit200.

Referring now toFIG.30, depicted is a flowchart showing a method500of controlling a showerhead100in a shower space, according to an illustrative embodiment. The method500may be implemented by the components described above with reference toFIG.1throughFIG.24. As a brief overview, at step510, a pre-programmed command determines a first condition corresponding to a showerhead100. At step520, the light system440determines a state for a plurality of lights460of the showerhead100based on the first condition. At step530, the nozzle driver430determines a state for a plurality of nozzles450of the showerhead100based on the first condition. At step540, the light system440generates a control signal for at least some of the plurality of lights460to output light using the determined state. At step550, the nozzle driver430generates a control signal for at least some of the plurality of nozzles450to change a spray mode using the determined state.

At step510, the control unit200determines a first condition corresponding to a showerhead100. The control unit200may determine the first condition based on data from the control unit outputted from the showerhead100, etc. The control unit200may determine the condition based on programmed data within the control unit200. By way of example, the control unit200may receive a command corresponding to a specific pre-programmed command (e.g., first programmed command, second programmed command, third programmed command, etc.), where the control unit200determines the first condition based on the desired programmed command.

At step520, the light system440determines a state for a plurality of lights460of the showerhead100based on the first condition (e.g., determined at step510). The light system440may cross-reference the conditions with data stored in memory442. For instance, memory442may include a table including various conditions or ranges of conditions and corresponding states of the lights460. For instance, the table may include various colors for which the lights460are to output light. The light system440may use data from the control unit200to perform a look-up function in the table to determine a corresponding color for the programmed command outputted from the control unit200of the showerhead100. As another example, the table may include various warmth transitions for which the lights460are to output light and corresponding times of day.

At step530, the nozzle driver430determines a state for a plurality of nozzles450of the showerhead100based on the first condition (e.g., determined at step510). The nozzle driver430may cross-reference the conditions with data stored in the nozzle driver430. For instance, the nozzle driver430may include a table including various conditions or ranges of conditions and corresponding states of the nozzles450. For instance, the table may include various spray modes for which the nozzles450are to output water based on the programmed command from the control unit200. The nozzle driver430may use data from the control unit200to perform a look-up function in the table to determine a corresponding spray mode for the programmed command outputted from the control unit200of the showerhead100. As another example, the table may include various spray mode transitions for which the nozzles450are to change spray modes.

At step540, the light system440generates a control signal for at least some of the plurality of lights460to output light using the determined state (e.g., determined at step520). The light system440may generate a control signal to cause the lights460to output light according to the state. The light system440may transmit the control signal to the lights460to cause the lights460to turn on or off, to change a warmth of the white light, to change a color of the light, etc. based upon the programmed command. For example, the programmed command may correlate to a first programmed light command, where the lights460receive a command in coordination with the first programmed light command (e.g., first light mode for three seconds, second light mode for seven seconds, etc.).

In some embodiments, the light system440may determine a state of the lights460(e.g., at step520) and generate control signals for the lights460(e.g., at step540) to output light based on various combinations of the condition detected at step510. For instance, the light system440may determine both a color (or warmth) for the lights460based on the programmed command. The light system440may generate a control signal that causes the lights460to output light having the determined color or warmth to convey a pre-programmed time constraint and to provide ambient lighting conditions in the shower space. Similarly, the light system440may determine both a color or warmth for the lights460based on the pre-programmed time constraint.

In some embodiments, the light system440may determine a series of states for the lights460based on the conditions. For instance, when the showerhead100is turned on, the light system440may determine a first state for the lights460based on the programmed command. The light system440may generate a control signal for the lights460to cause the lights460to output light having a color which changes with the pre-programmed command (e.g., blue to green to yellow to orange to red as the water temperature increases, for instance). Hence, the first state may be a particular color or color spectrum.

At step550, the nozzle driver430generates a control signal for at least some of the plurality of nozzles450to change spray mode using the determined state (e.g., determined at step530). The nozzle driver430may generate a control signal to cause the nozzles450to change spray mode according to the state. The nozzle driver430may transmit the control signal to the nozzles450to cause the nozzles450to turn on or off to ultimately change the spray mode based upon the programmed command. For example, the programmed command may correlate to a first programmed spray mode command, where the nozzles450receive a command in coordination with the first programmed spray mode command (e.g., first spray mode for three seconds, second spray mode for seven seconds, etc.).

In some embodiments, the nozzle driver430may determine a state of the nozzles450(e.g., at step530) and generate control signals for the nozzles450(e.g., at step550) to change spray mode based on various combinations of the condition detected at step510. For instance, the nozzle driver430may determine one or more spray modes for the nozzles450based on the pre-programmed command. The nozzle driver430may generate a control signal that causes the nozzles450to change spray mode having a similar style to convey a pre-programmed time constraint and to provide an enjoyable shower experience.

In some embodiments, the nozzle driver430may determine a series of states for the nozzles450based on the conditions. For instance, when the showerhead100is turned on, the nozzle driver430may determine a first state for the nozzles450based on the pre-programmed time constraint. The nozzle driver430may generate a control signal for the nozzles450to cause the nozzles450to change spray mode having a first spray mode which changes with the pre-programmed command (e.g., first spray mode to second spray mode, combination of multiple spray modes to third spray mode, for instance). Hence, the first state may be a spray mode or combination of spray modes.

It is important to note that the construction and arrangement of the cord management system as shown in the various exemplary embodiments is illustrative only. Additionally, any element disclosed in one embodiment may be incorporated or utilized with any other embodiment disclosed herein. For example, the showerhead of the exemplary embodiment shown inFIGS.1-6may be incorporated in the other exemplary embodiments to provide different aesthetic features. Although only one example of an element from one embodiment that can be incorporated or utilized in another embodiment has been described above, it should be appreciated that other elements of the various embodiments may be incorporated or utilized with any of the other embodiments disclosed herein.