This disclosure relates to rain gutters, and in particular, to downspouts.
Gutter systems can include gutters and downspouts that can be used to collect and divert fluid (e.g., rainwater) away from building structures. Gutters are typically open channel devices attached to building structures adjacent to a roof edge to collect rainwater deposited on the roof. Downspouts are typically closed conduits that can divert rainwater collected from a gutter on the building structures to the ground and/or into an underground water storage and drainage system. Gutters are often exposed to loose debris. The rainwater introduced into the gutters and directed through the downspout can often contain debris such as leaves, sticks, and other debris that have accumulated on the roof and are subsequently washed into the gutter.
Debris can often accumulate and clog the downspout and/or an underground water storage and drainage system that may be connected to the downspout. Clogging of the downspout and/or the underground water storage and drainage system can prevent the downspout from directing the rainwater away from the building structure and can cause damage. For example, a clogged downspout may cause the rainwater to back up within the downspout and overflow the edges of the gutters along the walls of the building, thereby damaging or defacing the building structure. A clogged underground water and drainage system can be difficult to clear, cause overflow, and prevent proper function of the gutter system.
The present disclosure is directed to a debris trap in a downspout. Using the debris trap of the present disclosure can provide an aesthetically pleasing debris trap that also allows a user to clean a clogged downspout quickly and easily. Additionally, the debris trap of the present disclosure can minimize debris falling below the debris trap during cleanout, which may result in clogging of a water storage and drainage system. The debris trap of the present disclosure can also minimize damage to the trap during cleanout, which could otherwise compromise the performance of the debris trap device.
In one aspect of the present disclosure, a debris trapping downspout includes a downspout having four sidewalls with a front sidewall and a rear sidewall. The front sidewall can define an opening that has an opening with a vertical extent along the downspout and a horizontal extent across a portion of the front sidewall. The debris trapping downspout can further include an angled grate having a top end secured to the rear sidewall at a first point, and a bottom end contacting the front sidewall at a second point lower than the first point. The angled grate can extend across an interior of the downspout at an angle between the first point and the second point with the bottom end contacting the front sidewall beneath the vertical extent of the opening. The debris trapping downspout can also include a baffle secured to the front sidewall in the interior of the downspout above the vertical extent of the opening. The baffle can extend across the horizontal extent of the opening and at least a portion of the vertical extent of the opening with the baffle angled inward relative to the front sidewall.
In another aspect of the present disclosure, a debris trap for catching debris in a downspout includes an angled grate having a top end secured to a rear of a downspout at a first point, and a bottom end secured to a front sidewall of the downspout at a second point lower than the first point. The angled grate can extend across an interior of the downspout at an angle between the first point and the second point. The angled grate can also have a series of holes configured to enable fluid to flow through the angled gate. The debris trap for catching debris in a downspout can further include a baffle having a top portion secured to the front sidewall of the downspout and a bottom portion extending inward toward the interior of the downspout at an angle relative to the front sidewall. The angled grate of the debris trap for catching debris can be located within an opening defined by the downspout with the bottom end secured to the front sidewall of the downspout below a vertical extent of the opening.
The following detailed description is exemplary in nature and is not intended to limit the scope, applicability, or configuration of the invention in any way. Rather, the following description provides some practical illustrations for implementing embodiments of the present invention. Examples of constructions, materials, and/or dimensions are provided for selected elements. Those skilled in the art will recognize that many of the noted examples have a variety of suitable alternatives.
The downspout 100 can be a part of a rain gutter system and can be formed from a single piece of material such as aluminum. The downspout 100 has four sidewalls including a front sidewall 118 and a rear sidewall 120. In some examples, to install the debris trap 102, an opening 110 can be cut into the downspout. The opening 110 can be cut in any sidewall but is preferably cut in either the front sidewall 118 or rear sidewall 120. The opening 110 of
In some examples, only one of the top end 122 or the bottom end 124 are secured to the downspout. For instance, in some examples, the top end 122 of the angled grate 104 secures to the rear sidewall 120 while the bottom end 124 only contacts the front sidewall. Alternatively, in some examples, the bottom end 124 of the angled grate 104 secures to the front sidewall 118 while the top end 122 only contacts the rear sidewall 120. In some examples, the angled grate can be secured to the other sidewalls of the downspout in addition to, or in lieu of being secured to the front and/or rear sidewalls.
The angled grate can be secured to any of the sidewalls via any securing means. Additionally, the baffle 106 can be secured to any of the sidewalls via any securing means. For instance, in the illustrated example of
The angled grate 104 angles downward from the first point 126 to the second point 128. The angled grate 104 has an angle “B” defined between the angled grate 104 and the downspout 100. In some examples, the angle “B” is between 25 degrees and 65 degrees. However, in some exemplary embodiments, the angle “B” is approximately 45 degrees. Having the angled grate 104 at an angle relative to the downspout can be advantageous over having the angled grate orthogonal to the downspout as fluid that flows down the downspout 100 is less likely to splash out or leak from the debris trap. For instance, water that hits the angled grate 104 will be directed to the cover piece and subsequently run downward without splashing out of any seams.
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The top flange 130 of the cover piece is bent inward relative to the main portion 134 of the cover piece 108 which can enable the top flange 130 to fit between the baffle 106 and the front sidewall 118 while keeping the main portion of the cover piece 108 in-line (e.g., flush) with the front wall of the downspout. The bottom flange 132 is also bent inward relative to the main portion 134 of the cover piece 108 which can enable the bottom flange 132 to rest on the angled grate 104 and/or the portion of the downspout 100 above the second point 128. Additionally, the bend of the bottom flange helps prevent fluid from hitting the angled grate 104, going under the cover piece 108, and leaking out of the opening 110.
In an example operation of securing the cover piece 108 to the downspout 100, the cover piece 108 is tilted such that the top flange 130 of cover piece 108 can be inserted between the baffle 106 and the front sidewall 118 of the downspout. In some examples, the cover piece 108 is tilted about its short axis and rotated about its long axis to insert the top flange 130. Next, the bottom flange 132 is directed inward toward the angled grate until the main portion 134 is approximately in line with the front sidewall 118. Next, the cover piece 108 is released, whereby it drops down and rests on the angled grate 104 and/or the portion of the downspout 100 above the second point 128.
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In the illustrated example, the angled grate 104 fills nearly the entire interior portion of the downspout 100. Specifically, the angled grate 104 contacts all four sidewalls of the downspout 100 and covers nearly an entire cross-sectional area of the downspout 100. In some examples, some empty space exists between the edges of the angled grate 104 and the downspout 100. This empty space can be due to the edge of the angled grate not perfectly aligning with the bends in the downspout that are used for strengthening. However, in such examples, the empty space is smaller than the holes 116 of the angled grate 104 and prevents debris from flowing past the angled grate 104 while still enabling fluid to flow through the empty space. In some examples, the angled grate does not have empty space between it and the downspout. For instance, both the downspout and the angled grate can be round with the angled grate fit to the downspout without gaps.
Various embodiments of a debris trap for a downspout have been described. The various debris trap examples described can have several advantages over other debris traps. For instance, the cover piece is easily secured to, and removed from, the downspout, thereby enabling easier removal of built-up debris caught in the debris trap. Additionally, the baffle can both provide a securing means for the cover piece and prevent water from leaking from the top of the opening. Further, because the grate is angled instead of flat, it can direct splashing in one direction, toward the cover piece. As the cover piece can be a single piece of material, sits above a portion of the downspout, and has a bottom flange that is directed inward, the splashing fluid hitting the angled grate does not leak as much as other designs. Also, compared to debris trap designs that are slid in from the shorter sides of the downspout, the debris trap of the present disclosure is inserted and accessible from the larger side (e.g., front sidewall), enabling easier installation and maintenance (e.g., cleaning out debris).
Various examples have been described. These and other examples are within the scope of the following numbered embodiments.