This disclosure relates to devices installed around a pool perimeter including gutter assemblies directing water from the pool to a filtration system and exhaust assemblies directing contaminate laden air from the surface of the pool and into an exhaust system.
The chemicals used to treat water in a swimming pool create contaminants that may be harmful to swimmers and others present within an enclosure housing a swimming pool (i.e., natatorium). The water in the swimming pool also creates water vapor (i.e., humidity) within the swimming pool facility. The contaminants (e.g., chloramine) can irritate the eyes and air passages of individuals in and around the pool area. The contaminants such as chloramine are present in the air within the swimming pool enclosure, but are concentrated in an area immediately above the surface of the swimming pool. Unfortunately, greater amounts of chloramine are created when the swimming pool is in use due to swimmers agitating the water (e.g., swimming and splashing). Moreover, the high humidity within the enclosure creates an uncomfortable environment for individuals and can affect the physical structure (e.g., girders and roofing) forming the enclosure (e.g., corrosion).
Moreover, the high humidity formed within the enclosure housing a swimming pool requires that a heating, ventilating, and air conditioning (HVAC) system run almost continuously to circulate and dehumidify the air contained within the enclosure. In addition, the HVAC system runs nearly continuously to circulate the air in order to avoid high concentrations of contaminants in the air.
It is desirable therefore to reduce the levels of contaminants and humidity within the enclosure housing a swimming pool. Moreover, it is desirable for swimming pool facilities to improve the efficiency of the HVAC system in order to reduce costs associated with circulating, filtering, and dehumidifying the air within the swimming pool facility.
Accordingly, the present invention addresses the requirements for an energy-efficient apparatus and method for evacuating contaminants and water vapor from a swimming pool facility.
A pool perimeter assembly extending along a portion of a pool perimeter includes a combined gutter assembly having a gutter conduit and a grate supported above the gutter conduit. The combined gutter assembly also has a partition dividing the gutter conduit to form an exhaust air plenum on one side of the partition. A surge tank is fluidly connected to through a modified converter box and a water-air line to the exhaust air plenum. An exhaust fan is connected to the surge tank, and the exhaust fan generates below atmospheric pressure within the surge tank and the exhaust air plenum so that the contaminated air on the pool surface is drawn through the grate and into the exhaust air plenum, through the water-air line, into the surge tank, and out of the surge tank through the exhaust fan.
A combined gutter assembly for a pool perimeter includes a gutter conduit located on a pool-side and having a grate supported above the gutter conduit, and an exhaust air plenum located on a deck-side and having the grate supported above the exhaust air plenum. The exhaust air plenum has a water-air line to communicate contaminated air out of the exhaust air plenum. A partition defines the gutter conduit on one side and the exhaust air plenum on the opposite side. The partition also has an opening to permit water to flow between the gutter conduit to the exhaust air plenum.
A water filtering and return assembly for a pool perimeter having a combined gutter assembly includes a modified converter box having a drain to receive fluid from an exhaust air plenum. The filtering and return assembly also includes a water-air line in fluid communication and downstream of the modified converter box, and a surge tank in fluid communication and downstream of the water-air line. The filtering and return assembly is for a combined gutter assembly having an exhaust air plenum partitioned from a gutter conduit, and the filtering and return assembly fluidly connects the surge tank to the exhaust air plenum through the modified converter box and the water-air line. An exhaust fan in downstream fluid communication with the surge tank generates below atmospheric pressure within the surge tank and the exhaust air plenum, so that the contaminated air on the pool surface is drawn through the exhaust air plenum, through the water-air line, into the surge tank, and out of the surge tank through the exhaust fan.
Further objects and advantage of the disclosure will become apparent to those of reasonable skill in the art from the following detailed description, as considered in conjunction with the accompanying drawings.
Turning now to the drawings, an embodiment of a pool perimeter assembly (20) is shown in
Turning now to
Partition (37) as shown in
Turning now to
In the embodiment shown in the drawings and described above, the combined water and air exhaust gutter (33) and modified converter boxes (23) are located at one end of the swimming pool. In other embodiments this assembly can be located at other places along the pool perimeter and with shorter or longer lengths. The assembly of the disclosure may extend around the entire perimeter of the pool if desired.
Further embodiments of the disclosure may comprise converting existing steel or concrete gutter systems to provide contaminant laden air exhaust functionality. Specifically, partitions (37) and bulkheads (35) can be installed in a portion of a previously existing gutter to form a combined water and exhaust air gutter assembly (33) in accordance with the disclosure. The invert of an existing converter box can be raised, or alternatively, one or more modified converter boxes (23) can be provided. Depending on the installation, the existing surge tank may require modification, including the provision of a stack and exhaust fan (49). Preferably a new grate (62) is provided to optimize air flow and to maximize exhaust of contaminant laden air in accordance with the disclosure.
While a preferred embodiment of the pool gutter and air exhaust assembly has been herein illustrated and described, it is to be appreciated the various changes, rearrangements and modifications may be made therein without departing from the scope of the disclosure.
This application claims the benefit of priority from U.S. Provisional Patent Application 62/990,219 filed Mar. 16, 2020, the entire disclosure of which is incorporated herein by reference in its entirety.
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Entry |
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Copending U.S. Appl. No. 16/704,120, filed Dec. 15, 2019. |
Number | Date | Country | |
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20210285247 A1 | Sep 2021 | US |
Number | Date | Country | |
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62990219 | Mar 2020 | US |