The invention relates to the field of eaves troughs, and more particularly, to an eaves trough having a cover portion to prevent debris from entering the eaves trough.
It is well known that eaves troughs tend to collect leaves and other debris and thus must be cleaned at regular intervals to prevent clogging. Numerous designs have been previously proposed to prevent debris from entering an eaves trough. Generally, these designs fall into one of two categories. Eaves troughs of the first category of designs include an impervious cap that extends completely over the eaves trough. The caps of such eaves troughs typically include a geometrical feature on the outboard end thereof, such as a semi-circular lip, that directs water into the eaves trough but prevents entry of leaves or other debris. The second category of designs regards screens that are attachable to the top surface of the eaves trough or insertable into the eaves trough, wherein the screen allows water to flow therethrough but prevents leaves or debris from entering the eaves trough.
It is well-known that so-called seamless gutters may be fabricated at the job site from a coil of stock material using a machine that bends the material to a desired cross-sectional shape. However, providing a cap or screen for the eaves trough conventionally requires a separate fabrication step, as well as a separate installation step, which often includes the use of hardware that is separate from the hardware used to hang the eaves trough itself. Accordingly, a need remains for an eaves trough that prevents the entry of leaves or other debris without requiring complicated fabrication and installation procedures.
In accordance with one embodiment of the invention, the invention provides an eaves trough for receiving water from a structure. The eaves trough includes an elongated sheet that extends along a longitudinal axis and extends integrally from a first longitudinal edge to a second longitudinal edge. The sheet includes an upper portion that extends from the first longitudinal edge to a longitudinal transition. The sheet also includes a lower portion that extends from the longitudinal transition to the second longitudinal edge. The upper portion of the sheet at least partially overlies the structure. The lower portion of the sheet extends generally downward from the upper portion of the sheet at the longitudinal transition and extends under at least part of the upper portion of the sheet, such that the lower portion of the sheet defines a trough below the upper portion of the sheet. A plurality of apertures is formed through the upper portion of the sheet such that the apertures overlie the trough. The water travels from the structure onto the upper portion of the sheet and through the apertures to the trough.
The eaves trough may include an upper fastening structure that connects the upper portion of the sheet to the structure and a lower fastening structure that connects the lower portion of the sheet to the structure. Either or both of the upper and lower fastening structures may include a longitudinally extending first channel member that is connected to the structure and an engaging member that is disposed on the sheet for releasably engaging the channel member to releasably secure the sheet to the structure. Alternatively, either of the upper and lower fastening structures may include a plurality of fasteners that extend through the sheet.
The eaves trough may include a plurality of water-guiding members that are disposed on the upper portion of the sheet, wherein each water guiding member is adjacent to a respective aperture of the plurality of apertures to direct water into the respective aperture. Furthermore, a water flow path may be defined along the upper portion of the sheet substantially perpendicular to the longitudinal axis thereof, wherein each aperture is elongated and extends along an axis that forms an acute angle with the water flow path. Additionally, each aperture may have an upstream edge and a downstream edge with respect to the water flow path, where a water-guiding member extends at least partially upward from the upper portion of the sheet along the downstream edge of each aperture of the plurality of apertures to direct water into a respective aperture. Additionally, the apertures can be aligned in a side-by-side fashion along the longitudinal axis of the sheet.
The lower portion of the sheet may be substantially arcuate and may extend inward from the longitudinal transition toward the structure. The upper portion of the sheet may be substantially planar. Furthermore, the upper portion of the sheet may extend at an angle of about 90° with respect to the lower portion of the sheet at the longitudinal transition. The longitudinal transition could comprise a bend, a curve, or a flexible hinge.
The description herein makes reference to the accompanying drawings wherein like referenced numerals refer to like parts throughout several views and wherein:
Referring to the drawings, the present invention will now be described in detail with reference to the disclosed embodiment.
As will be explained in detail herein, the eaves trough 10 includes a body 11, an upper fastening structure 20, and a lower fastening structure 22. The body 11 can be fabricated from an elongate sheet material, such as steel or aluminum or vinyl, and is provided with a cross-sectional shape that defines an upper portion 12 of the body 11 and a lower portion 14 of the body 11 that each extend a long a longitudinal axis of the body 11. A plurality of apertures 16 are formed through the upper portion 12 of the body 11 so that water may flow from the roof surface 2 of the structure 1 onto the upper portion 12 of the body 11 of the eaves trough 10 and through the apertures 16 to a trough 18 that is defined by the lower portion 14 of the body 11 of the eaves trough 10. The upper fastening structure 20 connects the upper portion 12 of the body 11 of the eaves trough 10 to the structure 1, and the lower fastening structure 22 connects the lower portion 14 of the body 11 of the eaves trough 10 to the structure 1. Optionally, hanger assemblies 24 may also be provided to support the eaves trough 10 with respect to the structure 1.
As best seen in
The upper portion 12 of the body 11 is geometrically configured so that it may receive rainwater from the roof surface 2. Accordingly, the upper portion 12 of the body 11 could be substantially planar. Furthermore, the apertures 16 and their associated water guiding members 17 can be formed on the upper portion 12 of the body 11 such that they substantially overlie the trough 18 that is formed by the lower portion 14 of the body 11.
The lower portion 14 of the body 11 is geometrically configured to form the trough 18 underneath at least a portion of the upper portion 12 of the body 11. In particular, the trough 18 may be directly beneath the apertures 16. The lower portion 12 of the body 11 extends generally downward from the upper portion 12 of the body 11 at the longitudinal transition 34. When the eaves trough 10 is installed with respect to the structure 1, the lower portion 14 of the body 11 can extend generally inward from the longitudinal transition 34 of the body 11 toward the structure 1, such that the second longitudinal edge 32 of the body 11 is adjacent to or in engagement with the fascia 4 or another portion of the structure 1. The lower portion 14 of the body 11 may have a substantially arcuate cross section or a substantially rectangular cross section.
The upper fastening structure 20 and the lower fastening structure 22 may each include an engaging member 36 that is formed integrally with the body 11 and a channel member 38, as shown in
It should be understood that various structures could be employed as the upper fastening structure 20 and the lower fastening structure 22. For example, the engaging member 36 may include a plurality of generally upstanding tabs 50 that are formed integrally with the body 11, as shown in
In order to direct rainwater into the trough 18 that is formed by the lower portion 14 of the body 11 of the eaves trough 10, the apertures 16 are provided through the upper portion 12 of the eaves trough 10. As best seen in
In order to direct water into the apertures 16, the water-guiding members 17 may be provided adjacent to the apertures 16. As shown in
As shown in
In use, the body 11 of the eaves trough may be fabricated from a stock material, such as steel, aluminum, or vinyl, by bending or folding operations, as well as punching operations. A user installs the eaves trough 10 by connecting the upper fastening structure 20 and the lower fastening structure 22 to the structure 1, and connecting the body 11 to the upper fastening structure 20 and the lower fastening structure 22. The user may optionally install the hanger assemblies 24 to provide additional support for the body 11. Furthermore, the body 11 may be mounted with a slight longitudinal drop toward an outflow pipe (not shown). During a storm, rain water travels from the roof surface 2 of the structure 1 onto the top portion 12 of the body 11. The rain water is then directed into the apertures 16 by the water guiding members 17, and drops into the trough 18 that is formed by the lower portion 14 of the body 11.
While the invention has been described in connection with what is presently considered to be the most practical and preferred embodiment, it is to be understood that the invention is not to be limited to the disclosed embodiments, but to the contrary, it is intended to cover various modifications or equivalent arrangements included within the spirit and scope of the appended claims. The scope is to be accorded the broadest interpretation so as to encompass all such modifications and equivalent structures as is permitted under the law.
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Number | Date | Country |
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05209450 | Aug 1993 | JP |