The disclosure relates generally to waterproofing systems, and more particularly to drainage devices, systems, and methods.
In perimeter drainage systems, water flowing down a wall, such as water flowing exterior to a building and adjacent to a below-grade wall of surrounding earth, is collected in a drainage channel running proximate to the wall. The channel is installed to cause the falling water therein to flow towards a sump, from where it can be pumped away.
Without proper waterproofing and drainage, a building may be damaged. Remediation of damage due to water pooling can be costly and time-consuming. Achieving cost-effective drainage, particularly during building construction, is desirable.
In an aspect, the disclosure describes a drainage device for draining moisture. The drainage device includes an elongated body extending between forward and rearward ends of the elongated body along opposing sides of the elongated body, the elongated body defining an arcuate cross-section as viewed from the forward end and rearward ends such that the elongated body defines an open bottom extending between the opposing sides. The drainage device also includes a pair of side flanges extending from the elongated body along the opposing sides from the rearward end toward the forward end, the pair of side flanges being suitable for use in attaching the drainage device to a floor. The drainage device also includes a rear flange extending arcuately around the elongated body at the rearward end, the rear flange being suitable for being disposed against a wall adjacent to and projecting from the floor.
Implementations may include one or more of the following features. The rear flange may include a spacer above the elongated body projecting laterally away from a face of the rear flange and from the elongated body. The spacer may be suitable for spacing the elongated body away from the wall when the rear flange is disposed against the wall. The rear flange may include a dimpled backing defining a plurality of protrusions projecting laterally away from a face of the rear flange and from the elongated body. At least one protrusion of the plurality of protrusions may be formed above the elongated body. The dimpled backing may be suitable for spacing the elongated body away from the wall when the rear flange is disposed against the wall. Each side flange may be dimensioned to receive a plurality of fasteners to fasten the elongated body to the floor. The arcuate cross-section may be substantially U-shaped. The arcuate cross-section may be substantially parabolically shaped. The elongated body may define a semicylindrical surface. Each side flange may be suitable for receiving adhesive to attach the elongated body to the floor. Each side flange of the pair of side flanges may project away from a lower portion of the elongated body in opposing directions substantially within a bottom plane defined by the open bottom. The bottom plane may be substantially perpendicular to the lower portion, substantially perpendicular to a forward plane defined by the forward end, and substantially perpendicular to a rearward plane defined by the rearward end. The pair of side flanges may extend from the rearward end to the forward end. Implementations of the described aspects may include a device, a method or process, or assembly.
In an aspect, the disclosure describes a drainage system for draining moisture at a wall that is adjacent to and projects from a floor. The drainage system includes an elongated body extending between forward and rearward ends of the elongated body along opposing sides of the elongated body, the elongated body extending arcuately above the floor between the opposing sides disposed on and attached to the floor to define a channel between the elongated body and the floor for receiving moisture from proximate the wall at the rearward end. The drainage system also includes a barrier proximate the wall, the barrier having an opening to the wall adjacent to the floor that is dimensioned complementarily to the elongated body for receiving the elongated body into the opening. The drainage system also includes a rear flange extending around the elongated body at the rearward end, the rear flange being dimensioned to be captively received between the wall and the barrier via the opening for allowing the moisture between the barrier and the wall to drain into the channel via the rearward end.
Implementations may include one or more of the following features. The barrier may be substantially parallel to the wall and may include a dimpled backing defining a plurality of protrusions projecting laterally from a face of the barrier to space the face of the barrier away from the wall. The rear flange may include a dimpled backing defining a plurality of protrusions projecting laterally away from a face of the rear flange and from the elongated body towards the wall. The dimpled backing may space the elongated body away from the wall when the rear flange is disposed against the wall. The elongated body may extend substantially perpendicular to the wall such that the channel extends laterally away from the wall for draining the moisture away from the wall. A face of the rear flange may be substantially parallel to the wall. The elongated body may define an arcuate cross-section as viewed from the rearward end. The opening of the barrier may be shaped to receive the elongated body at the rearward end of the elongated body. The rear flange may be adjacent a non-opening portion of the barrier when the elongated body is received into the opening. The rear flange may extend arcuately and substantially completely around a circumferential length of the elongated body at the rearward end of the elongated body. The drainage system may further comprise a pair of side flanges extending from the elongated body along the opposing sides from the rearward end toward the forward end, the elongated body being attached to the floor by the pair of side flanges being attached to the floor. The elongated body may define an arcuate cross-section as viewed from the forward and rearward ends such that the elongated body defines an open bottom extending between the opposing sides. Each side flange of the pair of side flanges may project away from a lower portion of the elongated body adjacent to the open bottom in opposing directions substantially within a bottom plane defined by the open bottom. The bottom plane may be substantially perpendicular to the lower portion, substantially perpendicular to a forward plane defined by the forward end, and substantially perpendicular to a rearward plane defined by the rearward end. Implementations of the described aspects may include a device, a method or process, or assembly.
In an aspect, the disclosure describes a method of draining moisture at a wall adjacent to and projecting from a floor. The method of draining moisture includes attaching to the floor an elongated body extending between forward and rearward ends of the elongated body along opposing sides of the elongated body using a pair of side flanges extending from the elongated body along the opposing sides from the rearward end of the elongated body towards the forward end, when the elongated body is positioned on the floor such that the rearward end is proximal to the wall and the elongated body extends arcuately above the floor to define a channel between the elongated body and the floor. The method of draining moisture also includes captively receiving, between the wall and a barrier, a rear flange extending arcuately around the elongated body at the rearward end of the elongated body by disposing of a barrier proximate to the wall when the barrier has an opening to the wall adjacent the floor that is dimensioned complementarily to the elongated body for receiving the elongated body into the opening.
The method may further comprise sealing a face of the rear flange to the barrier using a sealant to form a seal. Implementations of the described aspects may include a device, a method or process, or assembly.
Embodiments can include combinations of the above features.
Further details of these and other aspects of the subject matter of this application will be apparent from the detailed description included below and the drawings.
Reference is now made to the accompanying drawings, in which:
The following disclosure relates to draining moisture, e.g. from foundations. In some embodiments, the devices, systems, and methods disclosed herein facilitate more convenient, faster, and more cost-effective devices, systems, and methods compared to existing devices, systems, and methods.
Aspects of various embodiments are described in relation to the figures.
The drainage device 100 is suitable for draining moisture at the wall 102.
In various embodiments, the drainage device 100 may allow drainage of water or moisture from outside or exterior of the building into a location at the inside or interior of the building, e.g. an interior drain or sump. In various embodiments, the drainage device 100 may be fluidly connected to the location via a flow-through region. In various embodiments, the flow-through region may comprise high water flow material such as ¾″ clear gravel. In some embodiments, the flow-through region may be a floor region having a gradient and defining an opening channel to allow the moisture to flow to the location under gravity. In various embodiments, a concrete slab may be disposed (directly) on or formed over the drainage device 100 and may form a finished floor of the building.
As shown in the embodiment of
Still referring to the embodiment shown in
As shown in
In embodiments of
Still referring to the embodiment shown in
In various embodiments, the rear flange 116 extends arcuately and substantially completely around a circumferential length 130 of the elongated body 106 at the rearward end 110 of the elongated body 106.
The elongated body 106 defines an arcuate cross-section 118 as viewed from the rearward end 110 and/or the forward end 108 such that the elongated body 106 defines an open bottom 120 that extends along (and between) the opposing sides 112A, 112B, as illustrated in
In various embodiments, the arcuate cross-section 118 is substantially U-shaped. In an exemplary embodiment, the arcuate cross-section 118 comprises two legs proximal to the opposing sides 112A, 112B, respectively. The two legs may extend vertically and may be connected to each other via an arc, an arcuate portion, or a convex portion.
In various embodiments, the arcuate cross-section 118 is substantially parabolically shaped. A parabolic shape curves downward and away from a center such that the opposing ends defining the parabolic shape are further away from the center horizontally than any other point of the shape. Such an outspreading shape is suitable for supporting a large load on the elongated body 106.
In some embodiments, the elongated body 106 defines a semicylindrical surface such that the arcuate cross-section 118 is semicircular.
In various embodiments, a cross-sectional shape of the elongated body 106 viewed from the forward end 108 may be distinct from, or the same as, a cross-sectional shape viewed from the rearward end 110, e.g. their dimensions may be different and/or general profile shapes. In some embodiments, a cross-sectional shape of the elongated body 106 viewed from the forward end 108 is smaller than a cross-sectional shape viewed from the rearward end 110.
In some embodiments, ribs 126A, 126B extend radially outwardly from the elongated body 106. In some embodiments, the ribs 126A, 126B are dimensioned in accordance with the elongated body 106, such as being 8″ (approx. 200 mm) and 10″ (approx. 254 mm) away from the rear flange 116, thereby providing a convenient distance indicator for use during installation. For example, the ribs may be aligned with surrounding fixtures or other environmental features for ease of correct placement of the elongated body 106 or the rear flange 116, and/or may be used as a measurement tool when cutting the elongated body 106 in cases where a shorter elongated body 106 is desirable. The ribs 126A, 126B advantageously strengthen the elongated body 106 to better hold its shape. In at least the embodiment shown in
In some embodiments, the open bottom 120 is substantially perpendicular to a lower portion 128 of the elongated body 106 adjacent to the open bottom 120. In some embodiments, each of the side flanges 114A, 114B project away from the lower portion 128 in opposing directions substantially within a bottom plane defined by the open bottom 120, e.g. see
In various embodiments, the bottom plane may be substantially perpendicular to the lower portion 128 and/or substantially perpendicular to a forward plane defined by the forward end 108 and substantially perpendicular to a rearward plane defined a rearward end 110. In various embodiments, the forward plane and/or the rearward plane may be normal to the side flanges 114A, 114B.
In various embodiments, advantageously, the elongated body 106, the side flanges 114A, 114B, and/or the rear flange 116 may be in unitary construction or integrally coupled to each other. In some embodiments, one or more components may be constructed of a hard polymer, e.g. high density polyethylene (HDPE), and/or sheet metal. In the embodiment of
In embodiments associated with
In a typical installation, the barrier 132 is spaced apart from the wall 102. In some embodiments, the barrier 132 has a dimpled backing 134. The dimpled backing 134 defines a plurality of protrusions 136 projecting laterally from a face of the barrier 132 to space the face of the barrier away from the wall 102 when the barrier 132 is set against the wall 102 with one or more of the protrusions 136 contacting the wall 102.
In various embodiments, the barrier 132 may be a waterproof barrier. In some embodiments, the dimpled backing 134 may be adhered to a rigid barrier 132, e.g. using a sealant.
In some embodiments, the barrier 132 defines opening(s) 138 to the wall 102 dimensioned complementarily to the elongated body 106 to receive the elongated body 106 therein at the rearward end 110 of the elongated body 106 such that the rear flange 116 is interposed or sandwiched between the wall 102 and the barrier 132. Typically, the opening(s) 138 of the barrier are shaped in accordance with the arcuate cross-section 118 and may even frictionally engage the elongated body 106. When the rear flange 116 is sandwiched between the wall 102 and the barrier 132, the barrier 132 defines non-opening portion(s) adjacent to the opening(s) 138 that captively hold the rear flange 116. The non-opening portion(s) may or may not have protrusions 136.
In the embodiment shown in
The dimpled backing 140 is suitable for spacing the elongated body 106 away from the wall 102 when the rear flange 116 is disposed against the wall 102.
The dimpled backing 140 defines a plurality of protrusions 142 projecting laterally away from the rear face 124 of the rear flange 116. The protrusions 142 project towards the wall 102 when the drainage device 100 is installed against the wall 102. In some embodiments, the protrusions 142 are formed, such as by plastic injection molding or pressing into sheet metal, in the material of the rear flange 116.
Advantageously in some embodiments, at least one protrusion of the plurality of protrusions 142 is formed above the elongated body 106. For example, achieving spacing of the rear flange 116 from the wall 102 may be achieved compactly.
The dimpled backing 134,140 is in some embodiments a dimpled (waterproofing) membrane. In some embodiments, the dimpled backing 134,140 is available commercially off-the-shelf to facilitate manufacturing and assembly. In some embodiments, the dimpled backing 134,140 is constructed of high-density polyethylene (HDPE). In some embodiments, the barrier 132 and/or dimpled backing 134,140 is resiliently flexible. In various embodiments, the barrier 132 and/or the dimpled backing 134,140 permits cutting thereof, e.g. using a utility knife. For example, the openings 138 may be formed by cutting.
In reference to
Once positioned as described, the elongated body 106 is attached to the floor 104 by attaching the pair of side flanges 114A,114B to the floor 104. In some embodiments, the elongated body 106 is fastened to the floor using fasteners 144 such as nails, rivets, and/or threaded fasteners. Additionally or alternatively, the elongated body 106 may be adhered or otherwise attached to the floor using adhesive or other suitable attachment techniques. The side flanges 114A,114B are typically attached flat onto the floor 104. Advantageously, such positioning and attaching of the elongated body 106 can be performed quickly, e.g. precise positioning and ensuring sealed gaps is typically not necessary at this stage.
In reference to
In some installations, the barrier 132 is slid between rebar (not shown) and the wall 102, which in some cases will retainably secure the barrier 132 against the wall 102.
Pushing the barrier 132 against the wall 102 typically has the effect of pushing a rear face of the barrier 132 against the rear flange 116. The rear flange 116 is preferably adjacent to non-opening portion(s) of the barrier 132. In some cases, a sealant is applied onto the rear flange 116 to seal the rear flange 116 against the barrier 132. In some embodiments, the size of the rear flange 116 is dimensioned based on dimpled backing 134 of the barrier 132. For example, the openings 138 may be dimensioned to allow the rear flange 116 to contact a face of the dimpled backing 134 (and/or barrier 132) and not the plurality of protrusions 136. It is understood that the plurality of protrusions 136 may or may not be touching the wall 102 when the barrier 132 is pushed against the wall 102. In some embodiments, the rear flange 116 is substantially fully covered by the barrier 132 when the elongated body 106 is received into the opening 138.
In the embodiment of
In reference to
In the system 400A, the rear flange 116 and the barrier 132 are both free of protrusions for spacing the respective components away from each other and the wall 102. Instead, the wall 102 has sufficient roughness 152 defining a plurality of roughness elements that serve to space the rear flange 116 away from the wall. The rear flange 116 thus spaces the barrier 132 away from the wall. In variations, the roughness 152 may be formed intentionally, e.g. by spraying concrete or by implementing other type(s) of constructed roughness(es).
In the system 400B, the rear flange 116 is in some embodiments coupled to a spacer 154. When a spacer 154 is employed, the barrier 132 need not have a dimpled backing. The spacer 154 is preferably disposed above the elongated body 106 projecting laterally away from a face 124 of the rear flange 116 and from the elongated body 106. The spacer 154 is suitable for spacing the elongated body 106 away from the wall 102 when the rear flange 116 is disposed against the wall 102. In a variation of the system 400B of
As shown in
In various embodiments, the rear flange 116 may be at least partially overlapping with the barrier 132, e.g. to facilitate creation of a seal between the rear flange 116 and the barrier 132.
In some embodiments, the rear flange 116 is adhesively coupled to the dimpled backing 134, e.g. to a protrusion of the dimpled backing 134.
In some embodiments, the rear flange 116 is spaced a distance away from the wall 102, such as to accommodate an expected flow volume into the drainage channel. The distance is in some embodiments within the range of 0.25″ (approx. 6.4 mm) to 2″ (approx. 51 mm), and is 0.5″ (12.7 mm) in some embodiments for example.
In some embodiments, the barrier 132, with the dimpled backing 134, may be provided with cut-outs at a lower end thereof that are adapted to allow or facilitate flow of moisture therethrough, and then positioned or disposed against the wall 102. The rear flange 116 may be then attached, fastened, and/or adhered to the barrier 132 at an outward face thereof such that the dimpled backing 134 spaces the drainage device 100 away from the wall 102 and the cut-outs in the barrier 132 fluidly connect a region adjacent to the wall 102 to a channel formed between the elongated body 106 and the floor 104 to allow moisture to flow from the wall 102 through the channel for drainage.
Step 502 of the method 500 includes attaching to the floor an elongated body extending between forward and rearward ends of the elongated body along opposing sides of the elongated body using a pair of side flanges extending from the elongated body along the opposing sides from the rearward end of the elongated body towards the forward end, when the elongated body is positioned on the floor such that the rearward end is proximal to the wall and the elongated body extends arcuately above the floor to define a channel between the elongated body and the floor.
Step 504 of the method 500 includes captively receiving, between the wall and a barrier, a rear flange extending arcuately around the elongated body at the rearward end of the elongated body by disposing of a barrier proximate to the wall when the barrier has an opening to the wall adjacent the floor that is dimensioned complementarily to the elongated body for receiving the elongated body into the opening.
Some embodiments of the method 500 includes adhering a face of the rear flange to the barrier using a sealant to form a seal.
In an exemplary implementation, the drainage system 400A (
As can be understood, the examples described above and illustrated are intended to be exemplary only.
The embodiments described in this document provide non-limiting examples of possible implementations of the present technology. Upon review of the present disclosure, a person of ordinary skill in the art will recognize that changes may be made to the embodiments described herein without departing from the scope of the present technology. For example, the side flanges may extend only partially between the rearward and forward ends, the side flanges may be small tabs, and the rear flange may have a dimpled backing or otherwise be dimpled while being adhesively coupled to a barrier that has no dimpled backing. Yet further modifications could be implemented by a person of ordinary skill in the art in view of the present disclosure, which modifications would be within the scope of the present technology.