The present invention relates to swimming pool lights and, more particularly, to a swimming pool light that is easily removable wherein a plurality of different light fixtures may be placed within the pool using a single connector for all light fixtures.
Currently water within a swimming pool is lighted by an incandescent light that is housed within a watertight fixture that is situated within a cavity that is within a pool wall, or a niche in a pool wall, below a water line. The cavity, or niche, is required in the wall of the pool because the incandescent light has a longitudinal length, wherein the niche is need to place the bulb so that it does not extend into the pool. Typically the niche is one of the greatest places for a leak to occur in a pool because of the size of the niche or area cut from the pool wall. Leaks occur because anytime you have a protrusion through a pool wall, such as a niche, the greater the protrusion, the greater the chance for a leak. The watertight fixture has an outer lens that may protrude slightly into the pool. When a new bulb is needed, the whole fixture is removed from the cavity, wherein a power cable supplying electricity to the light is long enough for the fixture to be safely positioned out of the pool water.
Typically, a clear, incandescent light bulb is placed in the fixture. If a colored effect is desired, such as blue, red or green, then a different color bulb is placed in the fixture. In another embodiment, typically used in spas, the outer lens is replaced with a colored lens, or a colored lens cover fits over the clear lens. In each of these situations, a user has to manually make a modification to the pool light to produce a desired color. However, if the user desires a continuously varying of colors where the intensity of the light is not lessened, such an option is not currently available.
Standard electrical wiring connects the watertight fixture to a 110-volt source. Providing a 110-volt source to such an underwater fixture presents an element of risk that many would prefer to avoid. Also, because of the illumination patterns of incandescent lamps, they frequently expose imperfections in the interior surface of the swimming pools as a consequence of the light's diffusion of light and the intensity of the light source.
It is known in the prior art to provide light emitting diode (“LED”) lighting assemblies for swimming pools, but such systems are frequently designed for aboveground pools and hot tubs. There are also known LED lighting assemblies for in-ground pools that house LED arrays that rotate to achieve variations of emitted color patterns. Typically such assemblies will employ a combination of red, green and blue LED arrays, which permit the generation of up to 26,000 colors, as is also well known in the art. For example, it is believed that U.S. Pat. No. 6,184,628 (the “'628 Patent”) teaches the use of predetermined arrays of a plurality of different color LED bulbs to replace an incandescent pool light, where the plurality of different color LED bulbs are wired in such a manner that the predetermined rays of a plurality of different colored LED bulbs activate at predetermined sequences for predetermined time intervals wherein the bulbs are encased in a lens. Even though LED bulbs are used, providing LED lighting fixtures with brightness to rival incandescent bulbs is still an issue, especially when not all of the LED bulbs are illuminated, as suggested in the '628 Patent. As is also evident with the '628 Patent, the '628 patent is disclosed for placement within a niche. Thus, removing the invention disclosed in the '628 Patent from the niche is just as cumbersome as removing an incandescent light bulb from a niche and its enclosure.
The present invention is directed to a detachable light assembly for a swimming pool, spa or another body of water where the light source does not have to be placed in a niche formed in a wall of a container holding the body of water, and where the primary light is removed and a plurality of other light assemblies may be connected to a power source while underwater. Towards this end, a swimming pool light assembly for connecting a light to a side wall of a pool is provided where a pool light niche is not needed. The assembly includes an interchangeable light, and a watertight connector to deliver power and/or control signals to the light. A cable for providing power from a power source and/or a control signal from a controller to the light is also provided. The light is operable for connecting and disconnecting from the watertight connector while both the connector and the light are submerged in water.
In another preferred embodiment, an underwater light system is disclosed. The underwater light system comprises a submersible light that is interchangeable with other lights and has a connection end. A watertight connector is also provided that is operable to receive power and/or a control signal for delivery to the light. A power source for providing power to the light and/or a controller for providing a control signal to the light is also provided. A cable with for providing power from the power source and/or a control signal from the controller to the light is also part of the system. The light may be connected and disconnected from the watertight connector while both the connector and light are submerged in water.
In another preferred embodiment, a submersible light system for replacing a niche light system in swimming pools wherein a niche is already cut into a side of the swimming pool is disclosed. The system comprises a plate to fit within the niche comprising a hole formed therethrough the plate. A submersible light comprising a lens cover and a connection end is provided. A watertight connector to receive power and/or a control signal and to deliver power and/or a control signal to the light is also part of the system. A cable with a first end connected to the connector for providing power from a power source and/or a control signal from a controller to the light is also part of the system. The plate closes the niche and the light is operable for connecting and disconnecting from the watertight connector through the plate while both the connector and light are submerged in water.
The invention itself, both as to organization and method of operation, may best be understood by reference to the following description in conjunction with accompanying drawings, in which like numbers represent parts throughout the drawings and in which:
With reference to the figures, exemplary embodiments of the invention will now be described. The scope of the invention disclosed is applicable to a plurality of uses. Thus, even though embodiments are described specifically to swimming pool light fixtures, the present invention is applicable to other uses or applications such as, but not limited to, spas, ponds, and man-made lakes. Additionally, other examples include uses in the area of architectural lighting such as interior and exterior lighting of residential homes, office complexes and/or other buildings. Similarly, the same or other embodiments may be used in landscaping, such as illuminating sidewalks, pools of water, waterfalls or any other area that needs to be illuminated, including underwater applications. Furthermore, though the present invention is disclosed specific to LED lights, other forms of lights, such as fiber optic lighting and laser lighting, but not limited to these three forms of lighting, are also applicable to the present invention. Finally, the present invention is illustrated primarily with respect for use with gunite swimming pools wherein certain aspects of the invention are specific to gunite pools. Those skilled in the art will readily recognize that a plurality of ways are available to implement the present invention depending on the type of pool the present invention is being applied to.
For a gunite pool, an adapter 22 is fitted into the pipe 10 and around the power cable 14 wherein the watertight connector 16 is fitted to the adapter 22. In constructing the gunite pool, once the adapter 22 is placed within the opening 9 through the base wall 12, gunite 25 is applied around the part of the adapter 22 that extends from the base wall 12. In a preferred embodiment, the adapter 22 still has an edge that extends beyond the gunite 25 surface 32. In another preferred embodiment, the edge does not extend beyond the gunite 25 surface 32. In one preferred embodiment, at the area between the back surface 30 of a light 20 and the gunite 25 surface 32 of the pool, a foam insert (not shown) is positioned in this opening 40 prior to inserting the light 20 into the underwater connector 16. The light assembly 20 is connected into the adapter 22 via connectors 42, such as, in a preferred embodiment, by bolts, such as three bolts 42.
In one embodiment, the bolts 42 engage respective receptacles 43 in the adapter 22. In another preferred embodiment, connectors, such as bolts 42, engage respective receptacles (not shown) in the swimming pool wall. In another preferred embodiment an adapter 22 and connector 16 are a single, integrated unit wherein the receptacles 43 are disclosed in this integrated unit. As illustrated in
In a preferred embodiment, a watertight indicator 35 is provided, such as a reverse plunger, wherein when the light 20 is properly secured, the plunger 35, which starts beneath the surface of the outer lens cover 33 of the light 20, rises as the bolts 42 are tightened until the light 20 has achieved a secured watertight seal. When the watertight seal is achieved, the top of the plunger 35 is level with the top cover of the lens 33 or is flush with surface of the lens cover 33.
As illustrated in
In another preferred embodiment, exemplarily illustrated in
Thus, once the watertight connector 16 is properly secured and is in place, a user can easily exchange or remove the light 20 that is currently in place and replace it with a plurality of other lights 40 of varying sizes and shapes, as is exemplarily illustrated in
While the invention has been described in what is presently considered to be a preferred embodiment, many variations and modifications will become apparent to those skilled in the art. Accordingly, it is intended that the invention not be limited to the specific illustrated embodiment, but be interpreted within the full spirit and scope of the appended claims.
This continuation-in-part application claims of Utility patent application Ser. No. 10/237,634, filed on Sep. 9, 2002.
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Number | Date | Country | |
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20040047145 A1 | Mar 2004 | US |
Number | Date | Country | |
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Parent | 10237634 | Sep 2002 | US |
Child | 10292664 | US |