Not Applicable
Not Applicable
The present invention relates to a system for mounting a plurality of wall panels to an exterior surface of a wall.
Wall panels are currently mounted to interior surfaces of a wall and have certain difficulties that must be overcome in order to properly mount the wall panels to the interior surfaces of the wall. The panels may provide a unique design in order to change the ambience of the interior space of the building. Wall panels are also being applied to exterior surfaces of a building but external mounting of panels externally encounter other difficulties not related to mounting wall panels to interior surfaces of the wall.
Accordingly, there is a need in the art for an improved system for mounting wall panels to exterior surfaces of a building.
A system for mounting a plurality of wall panels to an exterior surface of a wall is disclosed herein. The system has a plurality of horizontal wall runners that space the plurality of wall panels away from the exterior surface of the wall. Optionally, vertical wall runners may also be used to space the plurality of wall panels away from the exterior surface of the wall. Rainwater that may seep between the wall panels and the wall is drained out therefrom through a series of holes that are formed in the horizontal wall runners to urge the rainwater by gravity downward and onto the ground. Moreover, the holes are located at the bottom of a trough of the horizontal wall runner in order to further urge the rainwater downward to the ground. The vertical wall runners, if used, also have a plurality of holes which in conjunction with the plurality of holes formed in the horizontal wall runners provide both vertical and lateral airflow behind the panels in order to dry out any water or moisture that may remain between the wall and the wall panels in order to equalize the moisture from therebetween and the ambient moisture. If no vertical wall runners are used, then lateral air flow behind the panels is increased compared to when vertical wall runners are used.
More particularly, an exterior wall panel system which mitigates pooling of water and mold is disclosed. The system may comprise a plurality of panels and horizontal wall runners. The plurality of panels may have a thickness between about ⅛ inch to about 1½ inches. The plurality of panels may be disposed adjacent to each other in a single plane. The plurality of horizontal wall runners may be attached to a wall and the plurality of panels. Each of the horizontal wall runners may have a base, a first panel attachment member and a spacer that attaches the panel attachment member to the base.
The spacer may have a funnel-shaped cross sectional configuration along at least a portion of a length of the horizontal wall runner and a plurality of holes along at least the portion of the length of the horizontal wall runner at a trough of the funnel-shaped cross sectional configuration for directing water introduced between the plurality of panels and the wall below the horizontal wall runner. The plurality of panels may have a second panel attachment member that is attachable to the first panel attachment member for securing the plurality of panels to the wall.
Each of the horizontal wall runners may have an upper first panel attachment member and an upper spacer and a lower first panel attachment member and a lower spacer wherein each of the upper and lower spacers have the funnel-shaped cross sectional configuration and the plurality of holes. The first panel attachment member may be an upwardly directed prong which may be removably attachable to the second panel attachment member of the panel. The second panel attachment member may be a clip attached to a back side of the panel wherein the first attachment member may be held between the clip and the panel.
The plurality of panels may be fabricated from phenolic. The plurality of horizontal wall runners may be fabricated from aluminum.
In another aspect, a variable distance mounting device for mounting horizontal runners to a wall is disclosed. The variable distance mounting device may also be used to mount vertical runners to the wall as well. However, the vertical runners are optional, and not required. The device may comprise a base and a sliding component. The base may be attached to a stud of the wall. The base may have first and second plates spaced apart from each other by a first distance. The first and second plates may be positioned parallel to each other. Each of the first and second plates may have an elongated slot perpendicular to a back surface of the base. The elongated slots of the first and second plates may be parallel to each other. The sliding component may have a thickness equal to about the first distance so that the sliding component can be traversed between the first and second plates in a direction of the parallel elongated slots of the first and second plates. The sliding component may have through holes aligned to the elongated slots and capable of receiving fasteners in order to fix a position of the sliding component between the first and second plates. The sliding component may have a mounting pad to mount the horizontal or vertical wall runner.
Each of the first and second plates may have two elongated slots which are sized and configured to receive a fastener. The base and the sliding component may be fabricated from aluminum with an aluminum extrusion process. The mounting pad may comprise two outwardly extending wings.
These and other features and advantages of the various embodiments disclosed herein will be better understood with respect to the following description and drawings, in which like numbers refer to like parts throughout, and in which:
Referring now to the drawings, a wall panel system 10 is disclosed wherein the wall panel system 10 comprises a plurality of panels 12 that are attachable to a wall 14. The plurality of panels 12 may be attached to an exterior wall 14 which is exposed to the environmental elements such as wind, rain, sun, debris, as shown in
Referring now to
The upper and lower prongs 52, 54 are oriented upwardly so that clips 56 secured to the back surfaces 58 of the panels 12 can be clipped over the upper and lower prongs 52, 54. The clips 56 receive the upper and lower prongs 52, 54 until the upper distal ends of the upper and lower prongs 52, 54 rest on the inner surfaces of the clips 56. The upper and lower prongs 52, 54 may have front surfaces 60 that contact the back surfaces 58 of the panels 12. The front surfaces 60 of the upper and lower prongs 52, 54 may be parallel with the back surface 42 of the base 40. As such, when the panels 12 are mounted to the horizontal wall runner 34, the panels 12 are positioned parallel to the outer surface 46 of the wall 14. The back surface 42 of the base 40 and the front surface 60 of the upper and lower prongs 52, 54 are generally flat as well to provide more convenient mounting to the wall 14 and the panels 12. The upper and lower prongs 52, 54 may also have protruding nubs 62 that extends away from the front surfaces 60 of the upper and lower prongs 52, 54. The protruding nub may extend out about 0.018 inches. The protruding nubs 62 of the upper and lower prongs 52, 54 mate with the clips 56 and the clips 56 extend over the protruding nubs 62 in order to provide pullout resistance to the panels 12. In order to pull out the panels 12, the user needs to lift the panels 12 with sufficient force in order to deflect the clips 56 over the protruding nubs 62.
The horizontal wall runner 34, as discussed above, has upper and lower prongs 52, 54. These prongs 52, 54 are separated from each other by distance 64. The distance 64 is sufficient in order to hide the screw 38 that secures the base 40 of the wall runner 34 to the wall 14 behind the upper panel 12 and also to hide the clip 56 attached to the lower panel 12. The screw 38 attached to the base 42 and the wall 14 is shown as being hidden behind the upper panel 12. However, it is also contemplated that the screw 38 may be inserted through the base 40 of the wall runner 34 at a lower position in order to hide the screw 38 behind the lower panel 12. In this regard, the screw 38 may be inserted into the other grooves 48 on the base 40 of the wall runner 34.
Each of the upper and lower prongs 52, 54 may be secured to the base 40 with respective upper and lower spacers 64. Each of the upper and lower spacers 64 may have a funnel shaped cross-sectional configuration and a plurality of holes 66 extending along a length of the horizontal runner 34. In particular, the funnel shaped cross-sectional configuration includes a downwardly sloping surface 68 that terminates at a trough 70. Water that drips on the vapor barrier 44 at the outer surface 46 of the wall 14 drips downward on the downwardly sloping surface 68 and into the hole 66 in order to flow the water downward and ultimately onto the ground 72 below. Preferably, the downwardly sloping surface is at a 28° angle 74 with respect to a horizontal plane. The angle 74 of the downwardly sloping surface may be increased or decreased depending on various factors up to 55° or as low as 10°.
The clips 56 are secured to the back surfaces 58 of the panels 12 by way of screws 38. The clips 56 have a foot 76 through which one or more screws 38 attach the clip 56 to the panel 12. The clips 56 may additionally have a downwardly extending prong 78 having an inner surface 80 that mates with the protruding nub 62 in order to provide pull out resistance when the panels 12 are being lifted upward for removal. This prevents inadvertent removal during earthquakes and also by vandals that might want to remove panels 12 from the wall 14 without authorization. The clips 56 also have a bent lip 82 that helps to insert the prongs 52, 54 between the downwardly extending prong 78 of the clip 56 and the panel 12. A distal end of the bent lip 82 may be about 3/16″ gapped away from the bottom of the trough to allow for movement of the panel during natural movement of the ground or building. The bent lip 82 has an enlarged opening that the upwardly extending prongs 52, 54 can catch for inserting the prongs 52, 54 between the clip 56 and the panel 12. Additionally, the bent lip 82 also guides water that drips on the clip 56 into the holes 66 to further urge water downward to the ground 72.
Referring now to
Referring now to
Referring now to
The plurality of wall panels 12 may also be disposed circumferentially about the door 26 and a window 96.
The plurality of wall panels 12 mounted to the wall 14 may have a flashing 98 (see
The wall panel system 10 may be mounted to an exterior wall 14. The wall panel system 10 may be exposed to rainwater that enters between the panel 12 and the wall 14 through the reveals 20. The wall panel system 10 must either remove the rainwater by flowing the rainwater downward onto the ground 72 or allow sufficient airflow laterally and vertically in order to dry out the water and remove any moisture between the panel 12 and the wall 14 that may cause detrimental effects. In order to allow for sufficient airflow vertically and laterally as well as sufficient downward fall of water, the plurality of holes 66 may be a hole or an elongate slot. The hole may have a diameter of about 3/16 inch. If the hole 66 is an elongate slot, then the elongate slot may be about 3/16 inch in width and about ¾ inch in length. The holes 66 may be spaced apart about 3 inches from the adjacent hole 66 center to center. Moreover, the plurality of holes 66 may be formed along the entire length of spacers 64, 64a, as shown in
The clips 56, horizontal wall runners 34, 34a may be fabricated from an extrusion process and the holes 66 made through a subsequent drilling, stamping or machining process. The clips 56 and horizontal wall runners 34, 34a may be fabricated from a metallic material including but not limited to aluminum, steel and other materials that may be developed in the future or known in the art.
Referring now to
Referring now to
The variable distance mounting device 100 may have a wall mount 104 and a sliding component 106. The wall mount 104 may have a base 108 with at least two holes 110 for mounting the horizontal wall runners 34, 34a. In particular, the two holes 110 are vertically aligned so that fasteners 112 can proceed through the holes 110 and mount to the vertical stud 102. The base 108 may have two additional holes 114 for mounting the vertical wall runners 84, 90 as shown in
The variable distance mounting device 100 allows the installer to provide for an adjustable distance between the back surface of the panel 12 to the outer surface of the wall 14 so that the space therebetween may be filled with material including but not limited to insulation. Preferably, the distance may be set to between about 3½ inches to about 5 inches. In this sense, the slot 120 may be about 2 inches long.
The panel 12 discussed herein may have a thickness between about 3/16″ to about 1″, and is preferably between about 5/16″ to about ½″. Along these lines, the thickness of the panels may be 5/16″, ⅜″ or ½″. The horizontal and vertical wall runners 34, 34a, 84 and 90 may be fabricated from an aluminum material and may be anodized. The holes 66 have an inner slotted dimension of about ¾″× 3/16″ and be spaced apart about 1½ inches to about 4 inches (more preferably about 3 inches center to center) center to center from an immediately adjacent hole 66. The depth of the hole 66 may be 3/16″. In the embodiments shown in
In the wall panel systems 10, 10a described herein, lateral air flow may be encouraged by not using any vertical wall runners. However, if vertical wall runners are utilized, then the vertical wall runners are formed with the holes 66 described herein.
The above description is given by way of example, and not limitation. Given the above disclosure, one skilled in the art could devise variations that are within the scope and spirit of the invention disclosed herein, including various ways of fabricating the components. Further, the various features of the embodiments disclosed herein can be used alone, or in varying combinations with each other and are not intended to be limited to the specific combination described herein. Thus, the scope of the claims is not to be limited by the illustrated embodiments.
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