The present application is a nonprovisional of U.S. Provisional Patent Application Ser. No. 60/243,424, filed Oct. 25, 2000, and a continuation of U.S. patent application Ser. No. 10/035,502 filed Oct. 25, 2001 now U.S. Pat. No. 6,611,969. The present application is based on and claims priority from these applications, the disclosures of which are hereby incorporated herein by reference.
This invention is directed to spa systems, and more specifically, to an alcove whirlpool seat or seats in a spa system that circulates water like a whirlpool.
People have been soaking in hot water for ages, and it is common knowledge that soaking in hot water is therapeutic, relaxing, romantic, and often an enjoyable social experience. The ancient Romans for example, had huge aquatic recreational areas in which hundreds of citizens soaked in hot water and socialized. In Japan, it has been a long-standing family tradition for the family to soak in wooden tubs called “ofuros.” And throughout the world, people enjoy soaking in natural hot springs where hot water bubbles from the earth itself. For the most part, soaking has been done in the company of more than one individual. It was the creation of spa systems, hot tubs, spas, individual bathtubs, and equivalent structures such as the JACUZZI® (collectively, “spa systems”), however, that turned the pastime of soaking in hot water into an individualized or private luxury.
Some spa systems use still water, relying primarily on the temperature of the water or minerals within the water to provide the therapeutic benefits.
Many spa systems, however, agitate the water. Sometimes the agitation simulates the bubbles rising from a natural hot spring. More often, the agitation is provided by a stream of water alone, a stream of air alone, or a stream of air/water mixture directed into the water that fills the spa system. This stream is generally created by jet nozzles (or other water and/or air ejectors discussed below) or equivalent structure. A term generally used to describe this type of agitation is “whirlpool agitation.”
In some cases, whirlpool agitation refers to the type of agitation in which the stream is directed toward the center of the water filling the spa system. In other cases the stream is directed straight out from the wall of the spa system and is therefore not directed directly toward the center of the water that fills the spa system. In still other cases, the streams are at least partially adjustable and may therefore be directed at various different angles.
Whirlpool agitation can also refer to the type of agitation in which a stream is directed toward a body part for therapeutic purposes. Directing a stream toward a body part is generally considered to have a therapeutic benefit on body parts such as the back or neck. This type of therapy, often referred to as “focused therapy,” relaxes the muscles that are directly in front of the jet nozzle. Exemplary references that disclose this type of whirlpool agitation include U.S. Design Pat. No. 294,863 to Kingsley, U.S. Design Pat. Nos. 359,113 and 362,049 to Remo Jacuzzi, and U.S. Design Pat. No. 305,061 to Pauls et al. Another exemplary reference that shows the use of directing a stream to a body part is U.S. Pat. No. 5,682,625 to Leaverton (the “Leaverton reference”) which discloses an adjustable head rest for use in a spa system. The adjustable headrest disclosed in the Leaverton reference includes a series of jets that are moved along with the headrest in one unit. These jets eject a concentrated jet stream onto the head, neck, or shoulders of a user.
Within some spa systems, jet nozzles provide streams that create the water agitation. Specifically, jet nozzles can be used to direct a stream of water, air, or an air/water mixture into the body of water enclosed in the spa system. One exemplary jet nozzle (as shown in
Although spa systems now come in a variety of shapes and sizes, most known spa systems generally have a single peripheral bench with perhaps a set of steps that interrupt the bench. Only recently have spa systems begun to offer specialized seating such as the lounge shown in U.S. Pat. No. 4,953,240 to Gardenier or the individual chair shown in U.S. Design Pat. No. 259,510 to Reineman. Use of a jet nozzle in one area of the older or the newer spa systems sends ripples and other forms of water agitation throughout the spa system.
The term “whirlpool” has many different definitions. As set forth above, a whirlpool can be defined as a spa system having jet streams that can be directed toward the center of a spa system or toward a body part, as for therapeutic purposes. A whirlpool is also defined as a rapidly rotating current of water. It is this type of whirlpool that the present invention seeks to emulate by rotating water in a substantially circular or oval fashion.
An alcove whirlpool seat of the present invention generally includes a seat member having a circumference with a seat back having integral or attached arm portions on opposite sides of the seat back). The seat back and at least part of the arm portions substantially define a whirlpool area and the arm portions define an open span through which the legs of a user extend when he is seated in the alcove whirlpool seat. At least one jet nozzle is used to direct a stream within the whirlpool area. The at least one jet nozzle, the seat back, and the arm portions together create a whirlpool within the whirlpool area. Exemplary alcove whirlpool seats may be an angled-arm embodiment or a horseshoe embodiment.
An alcove whirlpool seat spa system of the present invention has an interior spa area. One or more whirlpool areas are defined by one or more alcove whirlpool seats within the interior spa area. Within the interior spa area (and outside the whirlpool area) is a spa water flow. The whirlpool flow within the whirlpool area is substantially separate from spa water flow.
The foregoing and other objectives, features, and advantages of the invention will be more readily understood upon consideration of the following detailed description of the invention, taken in conjunction with the accompanying drawings.
The present invention is directed to an alcove whirlpool seat spa system. For purposes of this invention, the whirlpool is a rotating current of water, which preferably provides a type of passive therapy to the human body. In contrast with focused therapy, which provides pressure point therapy to the human body by specifically placed jet nozzles that shoot air, water, or an air/water mixture directly onto pressure points on the human skin, the whirlpool of the alcove whirlpool seat employs passive therapy. In passive therapy, water is swirled gently around the person sitting in the alcove seat, thereby providing relaxed therapy to the human body.
The alcove whirlpool seat of the present invention is designed to create an area of containment within a complete spa system. A whirlpool may then be created within the alcove whirlpool seat using at least one jet nozzle 36.
Alcove Whirlpool Seats
As set forth above, the alcove whirlpool seat of the present invention is designed to create an area of containment within a complete spa system. A whirlpool may then be created within the alcove whirlpool seat using at least one jet nozzle 36 or other means for forcing a stream of water, air, or water/air mixture into the water that fills the spa system. Two exemplary alcove whirlpool seats are described herein: the angled-arm seat 22 and the horseshoe seat 24.
The seat member 30 may be round, oval, semi-circular, or any other shape suitable for sitting. Further, the seat member 30 may be angled slightly upward or downward to provide a suitable comfortable sitting position. Still further, the seat member 30 may be flat, contoured, padded, or otherwise designed for comfort.
The seat back 32 may be straight, angled, or convex. Like the seat member 30, the seat back 32 should be designed for comfort and therefore may be contoured or padded. An additional purpose of the seat back 32, however, is to help direct the flow of water, and therefore flow direction may play a significant part in the design of the seat back 32.
As shown in
The second arm 34b of the angled-arm seat 22 preferably includes at least one jet nozzle 36. The at least one jet nozzle 36 is preferably positioned to face the L-shaped bend in the second arm 34b. Additional jet nozzles 36 may be included to further enhance the whirlpool agitation. Further, additional jet nozzles 36 may be included so that the direction of the whirlpool flow can be changed.
The seat member 30 may be round, oval, semi-circular, or any other shape suitable for sitting. Further, the seat member 30 may be angled slightly upward or downward to provide a suitable comfortable sitting position. Still further, the seat member 30 may be flat, contoured, padded, or otherwise designed for comfort.
The seat back 32 may be straight, angled, or convex. Like the seat member 30, the seat back 32 should be designed for comfort and therefore may be contoured or padded. An additional purpose of the seat back 32, however, is to help direct the flow of water, and therefore flow direction may play a significant part in the design of the seat back 32.
Like the angled-arm seat embodiment 22, in the horseshoe seat embodiment 24 the “pair of arms” 38a, 38b may extend substantially from the floor of the spa system to substantially the top of the seat back. It should be noted that the arms 38a, 38b may not extend all the way to the floor of the spa system. In the shown horseshoe seat 24 embodiment, the arms 38a, 38b wrap around the seat member 30 and may be substantially identical. The shape of the pair of arms 38a, 38b of the horseshoe seat 24 generally creates a substantially enclosed area of containment in which the water circulates separate and possibly different from the flow of water outside the alcove whirlpool seat.
In the horseshoe seat 24 embodiment shown in
In the horseshoe seat 24 embodiment shown in
In the embodiment shown in
It should be noted that having a whirlpool within the alcove whirlpool seat allows for persons of different sizes and shapes to achieve various soaking positions. Further, the use of the alcove whirlpool seat allows a person to change his position within the alcove whirlpool seat and still maintain the benefits of the passive therapy from the whirlpool. It should be noted that the size and/or shape of the alcove whirlpool seat may be varied. For example, custom-designed alcove whirlpool seats may be made to accommodate a person having a particular size and shape.
Alcove Whirlpool Seat Spa Systems
As set forth above,
In the shown preferred embodiment of
In the shown preferred embodiment of
It should be noted that the number of jet nozzles 36 used in this system is highly dependent on the size of the spa system and the strength of the jet nozzles 36.
In the shown preferred embodiment of
Jet Nozzles
As set forth in the Background of the Invention, jet nozzles 36 are known as a means of providing streams that create the water agitation. This stream is generally created by jet nozzles 36 (or other water and/or air ejectors discussed below) or equivalent structure. Specifically, jet nozzles 36 can be used to direct a stream of either water or an air/water mixture into the body of water enclosed in the spa system. One exemplary jet nozzle 36, as shown in
The high flow jet nozzle 36 can deliver a large amount of water into the spa system using a relatively small jet nozzle 36. Conventional jet nozzles generally require bulky plumbing, using 1.5-2 inch hoses to attach a water or air hose to the back of the jet nozzle 36. Bulky plumbing increases space requirements between the molding of the spa system and the outer frame of the spa system. Increased space requirements also tend to decrease the size of the spa shell itself. The high flow jet nozzle 36 of the present invention requires only a 0.75 inch hose to be attached to the back of the jet nozzle 36. This allows for more compact fitting within the space between the shell of the spa system and the outer frame of the spa system while still providing the same amount of water as conventional jet nozzles 36.
The shown exemplary high-flow jet nozzle 36 includes a jet body 50, an air inlet port 52, optional ribs 54, a water inlet port 56, a faceplate 58, and an optional cover 60. These components may be manufactured from PVC, ABS, polycarbonate, polyethylene, polypropylene, polystyrene material, metals, plastics, or other suitable material.
The jet body 50 is preferably a substantially cylindrical body designed so that the air inlet port 52 is connected perpendicular to the jet body 50, the optional ribs 54 may provide reinforcement, the water inlet port 56 is at a first open end of the jet body, and the faceplate 58 is at the second opposite open end of the jet body.
Optionally attached to the jet body 50 is at least one support rib 54 that substantially coextends with the jet body 50. The ribs 54 provide strength and structure to the jet body 50, and during final installation of the jet nozzle 36 into the spa system, the ribs 54 prevent the jet body 50 from spinning within the spa system, thereby creating a more efficient jet nozzle 36.
Attached to or integral with the first open end of the jet body 50 is the water inlet port 56 to which a water hose may be attached. The water inlet port 56 is a hollow cylinder located at the bottom of the jet body 50 and is preferably smaller in diameter than the jet body 50. The water inlet port 56 preferably shares the same longitudinal axis as the jet body 50 so that it extends straight from the jet body 50. This straight configuration prevents water flowing through the jet nozzle 36 from having to make abrupt turns. This configuration, therefore, decreases the water turbulence that is created when water is pushed through bends and turns in a water inlet port 56. In other words, the straight configuration ultimately increases the efficiency of the jet nozzle 36.
The faceplate 58 radially extends outward from the second open end of the jet body 50. The shown faceplate 58 is composed of an upper annular lip and a lower annular lip, the lips being separated by an external circumferential groove. Preferably the external circumferential groove is located where the spa wall is inserted during installation of the jet body 50 into the spa system.
An optional escutcheon in the faceplate 58 may be provided so that an optional cover 60 may be placed on the upper lip of the faceplate 58 that will be showing within the spa system after the jet nozzle 36 has been installed.
It should be noted that streams may be created by any type of jet nozzle 36, water and/or air ejector, or equivalent stream-producing structure. It should also be noted that although the term “water” was used throughout this specification, other fluids could be used without affecting the scope of the invention. Further, although some embodiments are discussed in terms of single jet nozzles or sets of jet nozzles, the number of jet nozzles may be determined by the desired strength of the stream. It should further be noted that additional jet nozzles 36 may be added in the seat back 32 so that the alcove whirlpool seat may be used for traditional focused therapy with or without the use of the whirlpool. Still further, additional jet nozzles 36 may be added at the end of one or more of the arms (see
The terms and expressions that have been employed in the foregoing specification are used as terms of description and not of limitation and are not intended to exclude equivalents of the features shown and described or portions of them. The scope of the invention is defined and limited only by the claims that follow.
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4953240 | Gardenier | Sep 1990 | A |
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D321555 | Dannenberg | Nov 1991 | S |
5172433 | Lake | Dec 1992 | A |
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5228148 | Weir | Jul 1993 | A |
5333322 | Weir | Aug 1994 | A |
5682625 | Leaverton et al. | Nov 1997 | A |
5682626 | Banks, Jr. et al. | Nov 1997 | A |
D393056 | Kolada | Mar 1998 | S |
D395075 | Kolada | Jun 1998 | S |
D405182 | Larsen | Feb 1999 | S |
D405185 | Larsen | Feb 1999 | S |
D405186 | Larsen | Feb 1999 | S |
D431297 | Larsen et al. | Sep 2000 | S |
D433510 | Jacuzzi | Nov 2000 | S |
D436178 | Larsen et al. | Jan 2001 | S |
D445904 | Larsen | Jul 2001 | S |
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D446310 | Bower | Aug 2001 | S |
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Number | Date | Country | |
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20040034919 A1 | Feb 2004 | US |
Number | Date | Country | |
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60243424 | Oct 2000 | US |
Number | Date | Country | |
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Parent | 10035502 | Oct 2001 | US |
Child | 10646057 | US |