1. Field of the Invention
The present invention generally relates to water filtration systems, specifically for water filtration systems for large contained water bodies.
2. Description of the Related Art
A pond is a frequently used landscaping feature. To obtain the maximum benefit from having such ponds, they should be visually appealing, support plants, and provide a habitat for fish and other creatures such as birds, frogs, butterflies, and the like.
Clear water is a feature desired in most ponds so that fish and submerged plants may be visible. However, maintaining the clarity of the outdoor water can become difficult. Algae, for example, may cause the water to become cloudy. The excessive algae typically occurs when the water contains an excess of chemicals such as ammonia and phosphorous Ammonia and phosphorous is often deposited in the pond water by fish waste and fertilizer runoff from the land surrounding the pond. Although aquatic plants may consume a portion of the nutrients, the number of plants is typically insufficient to handle the amount of excessive nutrients in a pond. Algae, which feed on these nutrients, then multiply due to the abundance of nutrients. This multiplication may result in algae “blooms” which cause the pond water to become turbid.
One method of clarifying water is to add chemicals such as chlorine to the water in order to kill the algae. However, these chemicals may have undesirable side effects such as impacting the number and size of aquatic plants and fish. Also, the chemicals often require frequent reapplication.
An exemplary pond filter comprises a sidewall having an upper and lower section, the sidewall forming a perimeter and enclosing an interior region. A bottom wall spans the lower section of the sidewall, the joined sidewall and bottom wall defining an enclosure. A primary filter is sealably joined within the sidewall and spanning the width of the interior of the sidewall, defining an upper chamber and a lower chamber. The primary filter includes a plurality of water discharge apertures enabling controlled fluid communication between the upper chamber and lower chamber. An inlet is disposed on the sidewall portion of the lower chamber, whereby a fluid communication channel is defined from the inlet through the lower chamber through the water discharge apertures to the upper chamber, the fluid entering at the inlet, passing through the primary filter to the upper chamber.
These and other features, aspects, and advantages of the invention will become better understood with reference to the following description, and accompanying drawings.
Detailed descriptions of the preferred embodiment are provided herein. It is to be understood, however, that the present invention may be embodied in various forms. Therefore, specific details disclosed herein are not to be interpreted as limiting, but rather as a basis for the claims and as a representative basis for teaching one skilled in the art to employ the present invention in virtually any appropriately detailed system, structure or manner.
The present invention is directed to a water filter system for large contained water bodies such as ponds.
Referring to
The bottom wall 34 is at the bottom of the sidewall 30, spanning the sidewall, with the sidewall 30 and bottom wall 34 defining an enclosure. In exemplary configuration, the bottom wall 34 is composed of the same materials as the sidewall 30 and is integral with the sidewall 30.
As disclosed, the sidewalls 30 enclose an upper chamber 24 and a lower chamber 12. The lower chamber 12 is at the lower end of the sidewall 30 and the depicted configuration has a first width WI across the sidewall and a first height H1 from the bottom wall 34. An inlet 14 is disposed in the lower chamber 12 section of the sidewall 30, operable for slidable receipt of a hose 29 and enabling fluid communication from the exterior of the pond filter 10 to the lower chamber 12. The lower chamber 12 is dimensioned to permit water 06 flow while holding a desired amount of sedimentation between emptying. In further exemplary configuration, the lower chamber 12 is dimensioned to permit water 06 flow with minimal current flow disturbing the settled sedimentation, taking into account the inlet 14 position and other factors.
Referring to
Referring again to
The inlet 14 is disposed in the lower chamber 12 of the sidewall 30. The inlet 14 includes an opening from the lower chamber 12 to the exterior of the pond filter 10, providing fluid communication between the lower chamber 12 and the exterior of the pond filter 10. The depicted inlet 14 extends outwardly from the sidewall 30. The exemplary inlet 14 opening width is dimensioned to permit water flow but restrict large debris ingress into the pond filter 10. In such configuration, the inlet 14 restricts large debris such as leaves, branches, or garbage to enter the lower chamber 12.
In various configurations, the inlet 14 is disposed at various positions relative to primary filter 20 and the bottom wall 34. In certain configurations, the inlet 14 is disposed just below the primary filter 20. In certain configurations, the inlet 14 is disposed above the baffles 16. In other configurations, the inlet 14 is disposed inline with the baffles 16.
The exemplary embodiments include a primary filter 20. The illustrated primary filter 20 is dimensioned to rest on the shoulder 18. In exemplary configuration, it is shaped similarly as the cross-sectional profile of the sidewall 30 and dimensioned to span the interior of the sidewall 30. It is further adapted to sealably join to the shoulder 18, presenting a rate flow controlled fluid barrier between the lower chamber 12 and the upper chamber 24.
The primary filter 20 contains one or a plurality of water discharge apertures 22 spaced about it. The primary filter 20 is operable to entrain debris and particulate matter such that it is blocked from passing through and entering the upper chamber 24. The water discharge apertures 22 are permit rate flow controlled fluid communication between the lower chamber 12 and the upper chamber 24, whereby a fluid communication channel is defined from the inlet 14 through the lower chamber 12 through the water discharge apertures 22 to the upper chamber 24. In exemplary configuration, the water discharge apertures 180 are spaced and dimensioned so as to permit water flow to the upper chamber 24, prevent any filter media from falling to the lower chamber 12, and minimize currents in the lower chamber 12 that would tend to disturb the particles such as sedimentation that have settled out. The primary filter 20 is composed of material which enables filtration such as wire mesh, plastic with holes, or other filter media. The baffles 16 are rigid and operable to bear vertical, downward load, providing additional rigidity to and maintaining the position of the primary filter 20 such that a constant volume is maintained in the lower chamber 12.
As disclosed, the sidewalls 30 enclose an upper chamber 24 and a lower chamber 12. The upper chamber 24 is at the upper end of the sidewall 30 above the shoulder 18. The depicted configuration has a second width W2 across the sidewall 30 at the shoulder 18 and a second height H2 from the shoulder 18. In exemplary configuration, width W2 is greater than width W1. The width of the sidewall 30 may vary as it extends upwardly. In certain configurations, the width increases as the distance from the shoulder 18 increases. Optionally, a spout 26 extends outwardly from the upper edge of the upper chamber 24 for directional control of water 06 overflow exiting the pond filter 10.
Certain configurations of the include additional filter media. The filter media is disposed in the upper chamber 24 and is operable to provide mechanical, biological, and/or chemical filtration of water passing through the upper chamber 24. Certain configurations of the pond filter 10 include gravel 08. Exemplary gravel 08 is granular gravel (about 2 to 4 mm), pebble gravel (about 4 to 64 mm), or a combination thereof.
Certain configurations of the pond filter 10 include soil. Exemplary soil are those that have an optimum density, porosity, and biological content for water filtration. For example, various sand, silt, and clay compositions may be employed individually or in combination.
Certain configurations of the pond filter 10 include root mass. Root mass is typically provided by live plants. Different species of plants can absorb different chemicals and have different effects on microbes. Exemplary plants include those have an optimum absorption for water filtration. For example, water lilies (nymphaeaceae), elephant ears (colocasia), and bird of paradise (strelitzia reginae) are representative suitable plant types.
Certain embodiments of the pond filter include a water pump 28 operable to move water from one. The water pump 28 includes a pump in order to move the water from the source 06 into the inlet 14 of the pond filter 10. The hose 29 of the water pump 28 is engaged to the inlet 14.
Referring to
Other embodiments and uses include use as a drain in a plant potting situation, or with attachment of hose, can serve as rain water catcher, could be a fountain.
Insofar as the description above and the accompanying drawing disclose any additional subject matter that is not within the scope of the single claim below, the inventions are not dedicated to the public and the right to file one or more applications to claim such additional inventions is reserved.
The present invention claims priority to provisional application 62/138,908, which has a filing date of Mar. 26, 2015 and is incorporated by reference.
Number | Date | Country | |
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62138908 | Mar 2015 | US |