A control joint is a type of framing accessory used in the construction industry, particularly as part of wall assemblies. Traditionally, control joints have been used to “break up” vast expanses of drywall in wall assemblies, which can be prone to cracking. Building codes recommend the use of a control joint in conjunction with a gap in the drywall to allow the whole assembly to flex and move, thus avoiding or at least reducing cracking and the drywall being compromised. Control joints are typically made out of pure zinc alloy or a plastic, such as polyvinyl chloride (PVC).
As shown, control joint (10) includes a pair of flanges (12, 14) attached to and extending from either side of a flex portion (16). Flex portion (16) is configured to allow control joint (10) to flex in order to allow the wallboard panels (24, 26) to move relative to each other (e.g., wallboard panels (24, 26) could move closer to each other and close gap (22) or wallboard panels (24, 26) could move away from each other and widen gap (22)). Wallboard panels (24, 26) may comprise drywall, cement board, or any other material suitable to serve as a panel in the wall assembly. In this embodiment, control joint (10) also includes a removable protective strip (18) positioned over flex portion (16). Protective strip (18) may be configured to help prevent material, such as joint compound, plaster, paint or other similar finishing materials, from entering flex portion (16) during installation of control joint (10). Once control joint (10) is installed, then protective strip (18) may be removed leaving flex portion (16) substantially free of material that could negatively impact the performance or aesthetic appearance of control joint (10).
As shown in
While a variety of control joints have been made and used, it is believed that no one prior to the inventors has made or used an invention as described herein.
It is believed the present invention will be better understood from the following description of certain examples taken in conjunction with the accompanying drawings, in which like reference numerals identify the same elements and in which:
The drawings are not intended to be limiting in any way, and it is contemplated that various embodiments of the invention may be carried out in a variety of other ways, including those not necessarily depicted in the drawings. The accompanying drawings incorporated in and forming a part of the specification illustrate several aspects of the present invention, and together with the description serve to explain the principles of the invention; it being understood, however, that this invention is not limited to the precise arrangements shown.
The following description of certain examples of the invention should not be used to limit the scope of the present invention. Other examples, features, aspects, embodiments, and advantages of the invention will become apparent to those skilled in the art from the following description, which is by way of illustration, one of the best modes contemplated for carrying out the invention. As will be realized, the invention is capable of other different and obvious aspects, all without departing from the invention. Accordingly, the drawings and descriptions should be regarded as illustrative in nature and not restrictive.
It will be appreciated that any one or more of the teachings, expressions, embodiments, versions, examples, etc. described herein may be combined with any one or more of the other teachings, expressions, embodiments, versions, examples, etc. that are described herein. The following-described teachings, expressions, embodiments, versions, examples, etc. should therefore not be viewed in isolation relative to each other. Various suitable ways in which the teachings herein may be combined will be readily apparent to those of ordinary skill in the art in view of the teachings herein. Such modifications and variations are intended to be included within the scope of the claims.
In the illustrated embodiment, flex portion (114) comprises a V-shape. Flex portion (114) may comprise other shapes in other embodiments, such as a U-shape or other shapes suitable to provide the desired flexing capability. As shown, flex portion (114) includes a pair of angled sidewalls (113) connected at the respective second ends of each sidewall (113) by a curved base member (115). In some embodiments, the depth of flex portion (114) (i.e., the dimension from the plane containing outer portions (116b, 117b) of flanges (116, 117) to the bottom of base member (115)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable depths of flex portion (114) may be used depending on the particular application and in light of the teachings herein, including but not limited to a depth that is substantially equal to the thickness of two or more drywall panels.
In the illustrated embodiment, first leg (120) extends from flange (116) toward base member (115) in a plane that is substantially perpendicular relative to outer portion (116b) of flange (116). Specifically, first leg (120) extends from interior edge (116a) of flange (116) in the same direction as flex portion (114). As shown, first leg (120) and the adjacent sidewall (113) of flex portion (114) are arranged such that an acute angle is formed between first leg (120) and the adjacent sidewall (113) of flex portion (114). In some embodiments, the length of first leg (120) (i.e., the dimension from lip (119) to the distal end (120a) of first leg (120)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable lengths of first leg (120) may be used depending on the particular application and in light of the teachings herein, including but not limited to a length that is substantially equal to the thickness of two or more drywall panels. In some embodiments, the length of first leg (120) may be substantially equal to the depth of flex portion (114).
As shown, first leg (120) includes a fire resistant material strip (122) positioned on a portion of an interior surface of first leg (120) (i.e., the surface of first leg (120) facing flex portion (114)) such that the exposed or interior surface (122a) of fire resistant material strip (122) is facing flex portion (114). In some embodiments, fire resistant material strip (122) may cover a portion of the interior surface of first leg (120), while in other embodiments, fire resistant material strip (122) may cover the entire interior surface of first leg (120) from the distal end (120a) of first leg (120) to lip (119). In some embodiments, no portion of fire resistant material strip (122) is positioned on flex portion (114). In those embodiments, flex portion (114) may be substantially free of fire resistant material.
In some embodiments, fire resistant material strip (122) may be positioned on at least a portion of an exterior surface of first leg (120) (i.e., the surface of first leg (120) facing away from flex portion (114)). An example of this type of control joint is control joint (110′) shown in
Fire resistant material strip (122) can be attached or applied to first leg (120) with adhesive, mechanical fasteners, or any other suitable method of attachment. In some embodiments where the strip (122) is attached with adhesive, the adhesive may be fire resistant or, in other words, able to maintain its adhesive qualities at elevated temperatures by incorporating fire resistant properties. In some embodiments, fire resistant material strip (122) may be painted on, sprayed on or otherwise applied to first leg (120).
Fire resistant material strip (122) comprises a material configured to slow or stop the spread of fire and/or smoke. In some embodiments, the fire resistant material strip (122) may comprise intumescent material that expands, and, in some embodiments chars, in response to being subjected to elevated temperatures in order to resist fire. By way of example only, the intumescent material may be configured to expand when it is exposed to temperatures at or above about 300 degrees Fahrenheit. In other examples, the intumescent material may fully intumesce when exposed to temperatures at or above about 375 degrees Fahrenheit. The amount of intumescent material included in fire resistant material strip (122) may be sufficient to substantially seal gap (132) in assembly (130) (described below). In other embodiments, strip (122) may comprise non-intumescent fire resistant material, such as mineral wool. In still other embodiments, strip (122) may comprise a combination of both intumescent material and non-intumescent fire resistant material.
In some embodiments where fire resistant material strip (122) comprises intumescent material, strip (122) may comprise an intumescent tape that includes a layer of intumescent material with an adhesive layer on one side to allow the strip to be attached to an underlying surface (e.g., the interior surface of first leg (120)). One example of this type of material is BlazeSeal, sold by Rectorseal of Houston, Texas. In other embodiments where the fire resistant material strip comprises intumescent material, the strip may comprise an intumescent paint, caulk, or other similar intumescent material capable of being applied or attached to first leg (120). The intumescent material could be any material suitable to expand and substantially seal gap (132) (described below) when exposed to elevated temperatures.
In some embodiments, fire resistant material strip (122) may comprise a combination of a foam material, including but not limited to open cell foam or closed cell foam, and an intumescent material. In some of these embodiments, the foam material and intumescent material may be positioned in layers arranged on top of each other or arranged in a side-by-side orientation. In embodiments where the foam material and intumescent material are positioned in layers arranged on top of each other, in some embodiments, the fire resistant material strip (122) may be oriented so that the foam material is positioned between first leg (120) and the intumescent material, while in other embodiments, the fire resistant material strip (122) may be oriented so that the intumescent material is positioned between first leg (120) and the foam material. In other embodiments, the intumescent material may be infused in or otherwise incorporated within the foam material such that they comprise a single layer of material that includes both foam and intumescent material.
In other embodiments, the strip may comprise a foam material, including but not limited to open cell foam or closed cell foam, by itself, without any intumescent material. In such an embodiment, the foam may comprise fire resistant material or non-fire resistant material. The foam material may provide sound insulating properties. In other words, the strip may comprise foam material configured to inhibit sound from traveling through the strip. For example, the strip may comprise a foam material that has a density sufficient to allow the inclusion of the control joint in the wall assembly to increase the sound transmission class (STC) rating of the wall assembly. By way of example only, the foam material may have a density of about 3.0 lbs. per cubic foot to about 4.0 lbs. per cubic foot. In an embodiment where the strip comprises a foam material with no intumescent material, the foam material may be large enough to substantially surround the flex portion of the control joint and substantially fill the gap between the inner surface of the first leg and the edge of the opposing wallboard panel.
As shown in
After control joint (110) is installed in wall assembly (130), finishing material (135), such as joint compound or veneer plaster, can then be applied over flanges (116, 117) for a flush finish if desired. In embodiments where one or both flanges (116, 117) contain a plurality of openings (112), the openings (112) may facilitate application of the finishing material. Control joint (110) and removable tape (118) may be configured to prevent staining of the flex portion (114). For example, tape (118) may remain attached to control joint (110) while one or both of the wallboard panels (134, 136) are being finished (e.g., painted, plastered, etc.) so that excess finishing material (135) (paint, plaster, joint compound, etc.) may be applied to tape (118) instead of onto flex portion (114). After the finishing of wallboard panels (134, 136) is completed, then tape (118) can be removed to provide a clean finish to the joint between wallboard panels (134, 136).
As shown in
In the illustrated embodiment, control joint (110) is shown being installed in a vertically oriented gap between wallboard panels (134, 136). It will be appreciated based on the teachings herein that control joint (110) may also be installed in a horizontally oriented gap between two adjacent wallboard panels in other wall assemblies.
As shown, body (101) of control joint (110) comprises a pair of flanges (116, 117), a flex portion (114) positioned between flanges (116, 117), lips (119), and a first leg (120) extending from an interior edge (116a) of flange (116). In some embodiments, flanges (116, 117), flex portion (114), and first leg (120) may be of unitary construction such that they are formed from a single integral piece of material. In some embodiments, the components of body (101) may be extruded or coextruded together. However, in other embodiments, one or more of flanges (116, 117), flex portion (114), and first leg (120) may comprise non-integral, separate components that are attached to each other. It will thus be appreciated that body (101) may have a unitary construction or be comprised of various components attached together to collectively form body (101). In some embodiments, body (101), including one or more of flanges (116, 117), flex portion (114), and first leg (120), may comprise polyvinyl chloride (PVC), steel, aluminum or any other suitable material, including but not limited to other suitable plastics, metals, paper products, and composites. In some embodiments, flanges (116, 117), flex portion (114), and first leg (120), may all comprise the same material, while in other embodiments flanges (116, 117), flex portion (114), and first leg (120) may comprise two or more different materials.
Some embodiments of body (101) may include materials having fire resistant and/or intumescent properties. In some embodiments, at least one portion of body (101) may comprise material having fire resistant and/or intumescent properties and at least one other portion of body (101) may comprise material that does not have fire resistant and/or intumescent properties, such that body (101) includes both fire resistant portions and non-fire resistant portions. In other embodiments, the entire body (101) may comprise material having fire resistant and/or intumescent properties. By way of example only, in some embodiments at least a portion of body (101) may comprise material having fire resistant and/or intumescent properties, such as the material described in U.S. Patent Publication No. 2016/0348357 (Smith et al.), published on Dec. 1, 2016, the disclosure of which is incorporated by reference herein. In some embodiments, body (101) may comprise material that contains graphite, sodium silicates, other additives, or combinations thereof. In some embodiments, body (101) may comprise a nanocomposite material with fire resistant properties, including but not limited to IntuPlas and/or BernoGraph, which are sold by Pyrophobic Systems Ltd. of Barrie, Ontario, Canada. By way of example only, body (101) may comprise a material having a composition such as those described in US. Pub. No. 2012/0022201, published Jan. 26, 2012, to Zhvanetskiy et al., the disclosure of which is incorporated herein by reference. Other examples of materials that could be used for body (101) include but are not limited to: Charmor™ which is sold by Perstorp Holding AB of Malmo, Sweden; Delphi Intumescent Material, which is sold by Delphi Automotive LLC of Gillingham, Kent, United Kingdom; intumescent PVC materials sold by Dugdale Limited of Sowerby Bridge, West Yorkshire, United Kingdom; PVC granules sold by Hangzhou Juntai Plastic Products Co., Ltd. of Hangzhou, Zheijang, China; and FireCarb, which is sold by LKAB Minerals AB of Lulea, Sweden.
Control joint (110′″) and removable legs (119a) may be configured to prevent staining of the flex portion (114). For example, removable legs (119a) may remain attached to control joint (110′″) while one or both of the wallboard panels (134, 136) are being finished (e.g., painted, plastered, etc.) so that excess finishing material (135) (paint, plaster, joint compound, etc.) may be applied to removable legs (119a) instead of onto flex portion (114). After the finishing of wallboard panels (134, 136) is completed, then removable legs (119a) can be removed to provide a clean finish to the joint between wallboard panels (134, 136). While removable legs (119a) are shown having a rectangular cross-section, it will be appreciated that removable legs (119a) may have any other cross-section suitable to help prevent of finishing material from being applied to flex portion (114) and facilitate gripping and removal of removable legs (119a). In some embodiments, removable legs (119a) may be used instead of removable tape (118), while in other embodiments removable legs (119a) may be used in conjunction with removable tape (118).
Control joint (110′″) may include a frangible connection extending between each lip (119) and its respective removable leg (119a). More particularly, the frangible connection may comprise a thin and/or weakened section of material configured to selectively fracture upon being manipulated by a user. A user may thus separate a removable leg (119a) from its respective lip (119) by grasping removable leg (119a) at any location along the longitudinal length of removable leg (119a) (e.g., a proximal end, a distal end, and/or a middle portion) and applying sufficient force to pull removable leg (119a) in a direction generally away from lip (119) (e.g., an upward force, a downward force, a rightward force, or an angled force generally away from lip (119)). As used herein, the term “fracture” generally refers to the failure of the material itself such that the material may crack, rip, and/or tear for separation of removable leg (119a) from control joint (110′″). The term “fracture” is not intended to unnecessarily limit the invention described herein. In instances where lip (119) is omitted from control joint (110′″), the frangible connection may be positioned along removable leg (119a) such that the portion of removable leg (119a) connecting to a respective flange (116, 117) has a thin and/or weakened material configured to selectively fracture in response to application of sufficient force.
In some embodiments, removable legs (119a) may include one or more apertures and/or perforations along the frangible connection between each removable leg (119a) and its respective lip (119) to further weaken the frangible connection. In these embodiments, the apertures and/or perforations along the frangible connection are configured to facilitate removal of removable leg (119a). It will be appreciated that such apertures and/or perforations are not required, but may be desirable to ease removal of removable leg (119a) depending on the material(s) from which control joint (110′″) may be manufactured. The apertures and/or perforations may be sized and shaped to enhance the ease in removing removable leg (119a) while still inhibiting a finishing material that is applied to flanges (116, 117) from contacting flex portion (114), as described above.
Removable legs (119a) may be configured to be gripped directly by hand by the user for removal from a respective lip (119). However, the user may alternatively grip removable leg (119a) indirectly with a tool, including but not limited to, a pair of pliers or other suitable gripping devices, to manipulate removable leg (119a) relative to its respective lip (119). In this instance, applying a necessary force to removable leg (119a) via the tool may be operable to fracture the frangible connection and thereby separate removable leg (119a) from lip (119). Other methods and/or tools for separating removable legs (119a) from control joint (110′″) may also be used. By way of example only, removable legs (119a) may be removed from its respective lip (119) by cutting removable leg (119a) along the frangible connection with a knife, scissors, boxcutter, and/or other various suitable cutting means. Other embodiments of control joints may include alternative connections between removable legs (119a) and lips (119) other than a frangible connection. As merely an illustrative example, an adhesive connection or mechanical connection may be employed to removably connect removable legs (119a) to lips (119) of control joint (110′″).
In the illustrated embodiment, flex portion (214) comprises a V-shape. Flex portion (214) may comprise other shapes in other embodiments, such as a U-shape or other shapes suitable to provide the desired flexing capability. As shown, flex portion (214) includes a pair of angled side walls (213) and a curved base member (215), similar to sidewalls (113) and base member (115) described above. In some embodiments, the depth of flex portion (214) (i.e., the dimension from the plane containing outer portions (216b, 217b) of flanges (216, 217) to the bottom of base member (215)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable depths of flex portion (214) may be used depending on the particular application and in light of the teachings herein, including but not limited to a depth that is substantially equal to the thickness of two or more drywall panels.
In the illustrated embodiment, first leg (220) and second leg (224) extend from flanges (216, 217) toward base member (215) in a plane that is substantially perpendicular relative to outer portions (216b, 217b) of flanges (216, 217). Specifically, first leg (220) extends from interior edge (216a) of flange (216) and second leg (224) extends from interior edge (217a) of flange (217). In this embodiment, first leg (220) and second leg (224) extend in the same direction as flex portion (214) and are substantially parallel relative to each other. As shown, first leg (220) and the adjacent sidewall (213) of flex portion (214) are arranged such that an acute angle is formed between first leg (220) and the adjacent sidewall (213) of flex portion (214). Similarly, as shown, second leg (224) and the adjacent sidewall (213) of flex portion (214) are arranged such that an acute angle is formed between second leg (224) and the adjacent sidewall (213) of flex portion (214). In some embodiments, the length of first leg (220) and second leg (224) (i.e., the dimension from lip (219) to the distal end (220a, 224a) of first leg (220) and second leg (224)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable lengths of first leg (220) and second leg (224) may be used depending on the particular application and in light of the teachings herein, including but not limited to a length that is substantially equal to the thickness of two or more drywall panels. In some embodiments, the lengths of first leg (220) and second leg (224) may be substantially equal to the depth of flex portion (214). In the illustrated embodiment, first leg (220) and second leg (224) have substantially the same length, but in other embodiments first leg (220) and second leg (224) may have different lengths.
As shown, legs (220, 224) each include a fire resistant material strip (222, 226) positioned on a portion of an interior surface of a respective leg (220, 224) (i.e., the surface of leg (220, 224) facing flex portion (214)) such that the exposed or interior surfaces (222a, 226a) of fire resistant material strips (222, 226) are facing flex portion (214). In some embodiments, fire resistant material strips (222, 226) may cover a portion of the interior surface of legs (220, 224), while in other embodiments, fire resistant material strips (222, 226) may cover the entire interior surface of legs (220, 224) from the distal end (220a, 224a) of a respective leg (220, 224) to a corresponding lip (219). In some embodiments, no portion of fire resistant material strips (222, 226) is positioned on flex portion (214). In those embodiments, flex portion (214) may be substantially free of fire resistant material.
In some embodiments, fire resistant material strips (222, 226) may be positioned on at least a portion of an exterior surface of a respective leg (220, 224) (i.e., the surface of a leg (220, 224) facing away from flex portion (214)). Still other embodiments may comprise one or more fire resistant material strips (222, 226) on at least a portion of both the interior surface and exterior surface of a respective leg (220, 224). In some of those embodiments, the control joint (210) may comprise a fire resistant material strip (222, 226) that wraps around the distal end (220a, 224a) of a respective leg (220, 224) so that the fire resistant material strip extends onto both the interior and exterior surfaces of the leg (220, 224), while in other embodiments, the control joint (210) may comprise two or more fire resistant material strips (222, 226) on a respective leg (220, 224), wherein at least one such strip (222, 226) is positioned on the interior surface of the respective leg (220, 224) and at least one other strip (222, 226) is positioned on the exterior surface of the respective leg (220, 224). In the illustrated embodiment, the number, size, and positioning of fire resistant material strips (222, 226) on legs (220, 224) are the same. In other embodiments, the number, size, and/or positioning of fire resistant material strip (222) on first leg (220) may be different than the number, size, and/or positioning of fire resistant material strip (226) on second leg (224). In some embodiments, one leg (220, 224) may include a fire resistant material strip (222, 226), while the other leg (220, 224) does not include a fire resistant material strip (222, 226). In still other embodiments, one leg (220, 224) may include a fire resistant material strip (222, 226), while the other leg (220, 224) includes a strip comprising material that is not fire resistant. In some embodiments, in order to minimize the amount of fire resistant material needed, which may reduce the cost to produce control joint (210), flex portion (214) may be substantially free from fire resistant material.
Fire resistant material strips (222, 226) can be attached or applied to a respective leg (220, 224) with adhesive, mechanical fasteners, or any other suitable method of attachment. In some embodiments where the strip (222, 226) is attached with adhesive, the adhesive may be fire resistant or, in other words, able to maintain its adhesive qualities at elevated temperatures by incorporating fire resistant properties. In some embodiments, fire resistant material strips (222, 226) may be painted on, sprayed on or otherwise applied to a respective leg (220, 224). In some embodiments, fire resistant material strips (222, 226) may be attached or applied to a respective leg (220, 224) in the same manner, while in other embodiments, fire resistant material strips (222, 226) may be attached or applied to a respective leg (220, 224) in different manners.
Fire resistant material strips (222, 226) comprise a material configured to slow or stop the spread of fire and/or smoke. Similar to fire resistant material strip (122) described above, in some embodiments, the fire resistant material strips (222, 226) may comprise intumescent material. The amount of intumescent material included in fire resistant material strips (222, 226) may be sufficient to substantially seal gap (232) in assembly (230) (described below). In some embodiments, fire resistant material strips (222, 226) may comprise the same fire resistant material, while in other embodiments, fire resistant material strips (222, 226) may comprise different fire resistant material. By way of example only, in some embodiments, one fire resistant material strip (222, 226) may comprise intumescent material, while the other fire resistant material strip (222, 226) may comprise non-intumescent fire resistant material, such as mineral wool. In still other embodiments, both strips (222, 226) may comprise non-intumescent fire resistant material, while in other embodiments one of or both strips (222, 226) may comprise a combination of both intumescent material and non-intumescent fire resistant material.
Similar to fire resistant material strip (122) described above, fire resistant material strips (222, 226) may comprise an intumescent tape, paint, caulk, or other similar intumescent material capable of being applied or attached to a respective leg (220, 224). The intumescent material could be any material suitable to expand and substantially seal gap (232) (described below) when exposed to elevated temperatures. Also similar to fire resistant material strip (122), fire resistant material strips (222, 226) may comprise a combination of a foam material, including but not limited to open cell foam or closed cell foam, and an intumescent material. In some embodiments, fire resistant material strips (222, 226) may comprise the same type of intumescent material, while in other embodiments, fire resistant material strips (222, 226) may comprise different types of intumescent material. By way of example only, in some embodiments, one fire resistant material strip (222, 226) may comprise intumescent tape and the other fire resistant material strip (222, 226) may comprise intumescent paint.
In some embodiments where at least one strip (222, 226) includes both foam material and intumescent material, the foam material and intumescent material may be positioned in layers arranged on top of each other or arranged in a side-by-side orientation. In embodiments where the foam material and intumescent material are positioned in layers arranged on top of each other, in some embodiments, one or both of the fire resistant material strips (222, 226) may be oriented so that the foam material is positioned between the respective leg (220, 224) and the intumescent material, while in other embodiments, one or both of the fire resistant material strips (222, 226) may be oriented so that the intumescent material is positioned between the respective leg (220, 224) and the foam material. In other embodiments, the intumescent material in one or both strips (222, 226) may be infused in or otherwise incorporated within the foam material such that they comprise a single layer of material that includes both foam and intumescent material.
In other embodiments, one or both of the strips may comprise a foam material, including but not limited to open cell foam or closed cell foam, by itself, without any intumescent material. In such an embodiment, the foam may comprise fire resistant material or non-fire resistant material. The foam material may provide sound insulating properties. In other words, the strip may comprise foam material configured to inhibit sound from traveling through the strip. For example, one or both of the strips may comprise a foam material that has a density sufficient to allow the inclusion of the control joint in the wall assembly to increase the sound transmission class (STC) rating of the wall assembly. By way of example only, the foam material may have a density of about 3.0 lbs. per cubic foot to about 4.0 lbs. per cubic foot. In an embodiment where one or both of the strips comprise a foam material with no intumescent material, the foam material may be large enough to substantially surround the flex portion of the control joint and substantially fill the gap between the inner surface of the first leg and inner surface of the second leg.
As shown in
After control joint (210) is installed in wall assembly (230), finishing material (235), such as joint compound or veneer plaster, can then be applied over flanges (216, 217) for a flush finish if desired. In embodiments where one or both flanges (216, 217) contain a plurality of openings (212), the openings (212) may facilitate application of the finishing material. Control joint (210) and removable tape (218) may be configured to prevent staining of the flex portion (214). For example, tape (218) may remain attached to control joint (210) while one or both of the wallboard panels (234, 236) are being finished (e.g., painted, plastered, etc.) so that excess finishing material (235) (paint, plaster, joint compound, etc.) may be applied to tape (218) instead of onto flex portion (214). After the finishing of wallboard panels (234, 236) is completed, then tape (218) can be removed to provide a clean finish to the joint between wallboard panels (234, 236).
As shown in
In the illustrated embodiment, control joint (210) is shown being installed in a vertically oriented gap between wallboard panels (234, 236). It will be appreciated based on the teachings herein that control joint (210) may also be installed in a horizontally oriented gap between two adjacent wallboard panels in other wall assemblies.
As shown, body (201) of control joint (210) comprises a pair of flanges (216, 217), a flex portion (214) positioned between flanges (216, 217), a first leg (220) extending from an interior edge (216a) of flange (216), and a second leg (224) extending from an interior edge (217a) of flange (217). In some embodiments, flanges (216, 217), flex portion (214), first leg (220), and second leg (224) may be of unitary construction such that they are formed from a single integral piece of material. In some embodiments, the components of body (201) may be extruded or coextruded together. However, in other embodiments, one or more of flanges (216, 217), flex portion (214), first leg (220), and second leg (224) may comprise non-integral, separate components that are attached to each other. It will thus be appreciated that body (201) may have a unitary construction or be comprised of various components attached together to collectively form body (201). In some embodiments, body (201), including one or more of flanges (216, 217), flex portion (214), first leg (220), and second leg (224), may comprise polyvinyl chloride (PVC), steel, aluminum or any other suitable material, including but not limited to other suitable plastics, metals, paper products, and composites. In some embodiments, flanges (216, 217), flex portion (214), first leg (220), and second leg (224), may all comprise the same material, while in other embodiments flanges (216, 217), flex portion (214), first leg (220), and second leg (224) may comprise two or more different materials.
Similar to body (101) described above, some embodiments of body (201) may include materials having fire resistant and/or intumescent properties. In some embodiments, at least one portion of body (201) may comprise material having fire resistant and/or intumescent properties and at least one other portion of body (201) may comprise material that does not have fire resistant and/or intumescent properties, such that body (201) includes both fire resistant portions and non-fire resistant portions. In other embodiments, the entire body (201) may comprise material having fire resistant and/or intumescent properties.
As shown in
In the illustrated embodiment, flex portion (314) comprises a V-shape. Flex portion (314) may comprise other shapes in other embodiments, such as a U-shape or other shapes suitable to provide the desired flexing capability. As shown, flex portion (314) includes a pair of angled side walls (313) and a curved base member (315), similar to sidewalls (113) and base member (115) described above. In some embodiments, the depth of flex portion (314) (i.e., the dimension from the plane containing outer portions (316b, 317b) of flanges (316, 317) to the bottom of base member (315)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable depths of flex portion (314) may be used depending on the particular application and in light of the teachings herein, including but not limited to a depth that is substantially equal to the thickness of two or more drywall panels.
In the illustrated embodiment, first leg (320) and second leg (324) extend between upper flanges (316, 317) and lower flanges (346, 347) in a plane that is substantially perpendicular relative to outer portions (316b, 317b) of flanges (316, 317) and lower flanges (346, 347). Specifically, first leg (320) extends from interior edge (316a) of upper flange (316) to interior edge (346a) of lower flange (346) and second leg (324) extends from interior edge (317a) of upper flange (317) to interior edge (347a) of lower flange (347). In this embodiment, first leg (320) and second leg (324) extend in the same direction as flex portion (314) and are substantially parallel relative to each other. As shown, first leg (320) and the adjacent sidewall (313) of flex portion (314) are arranged such that an acute angle is formed between first leg (320) and the adjacent sidewall (313) of flex portion (314). Similarly, as shown, second leg (324) and the adjacent sidewall (313) of flex portion (314) are arranged such that an acute angle is formed between second leg (324) and the adjacent sidewall (313) of flex portion (314). In some embodiments, the length of first leg (320) and second leg (324) (i.e., the dimension from lip (319) to the distal end (320a, 324a) of first leg (320) and second leg (324)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable lengths of first leg (320) and second leg (324) may be used depending on the particular application and in light of the teachings herein, including but not limited to a length that is substantially equal to the thickness of two or more drywall panels. In some embodiments, the lengths of first leg (320) and second leg (324) may be substantially equal to the depth of flex portion (314).
As shown, legs (320, 324) each include a fire resistant material strip (322, 326) positioned on a portion of an interior surface of a respective leg (320, 324) (i.e., the surface of leg (320, 324) facing flex portion (314)) such that the exposed or interior surfaces (322a, 326a) of fire resistant material strips (322, 326) are facing flex portion (314). In some embodiments, fire resistant material strips (322, 326) may cover a portion of the interior surface of legs (320, 324), while in other embodiments, fire resistant material strips (322, 326) may cover the entire interior surface of legs (320, 324) from the distal end (320a, 324a) of a respective leg (320, 324) to a corresponding lip (319). In some embodiments, no portion of fire resistant material strips (322, 326) is positioned on flex portion (314). In those embodiments, flex portion (314) may be substantially free of fire resistant material.
In some embodiments, fire resistant material strips (322, 326) may be positioned on at least a portion of an exterior surface of a respective leg (320, 324) (i.e., the surface of a leg (320, 324) facing away from flex portion (314)). Still other embodiments may comprise one or more fire resistant material strips (322, 326) on at least a portion of both the interior surface and exterior surface of a respective leg (320, 324). In some of those embodiments, the control joint (310) may comprise a fire resistant material strip (322, 326) that wraps around the distal end (320a, 324a) of a respective leg (320, 324) so that the fire resistant material strip extends onto both the interior and exterior surfaces of the leg (320, 324), while in other embodiments, the control joint (310) may comprise two or more fire resistant material strips (322, 326) on a respective leg (320, 324), wherein at least one such strip (322, 326) is positioned on the interior surface of the respective leg (320, 324) and at least one other strip (322, 326) is positioned on the exterior surface of the respective leg (320, 324). In the illustrated embodiment, the number, size, and positioning of fire resistant material strips (322, 326) on legs (320, 324) are the same. In other embodiments, the number, size, and/or positioning of fire resistant material strip (322) on first leg (320) may be different than the number, size, and/or positioning of fire resistant material strip (326) on second leg (324). In some embodiments, one leg (320, 324) may include a fire resistant material strip (322, 326), while the other leg (320, 324) does not include a fire resistant material strip (322, 326). In still other embodiments, one leg (320, 324) may include a fire resistant material strip (322, 326), while the other leg (320, 324) includes a strip comprising material that is not fire resistant. In some embodiments, in order to minimize the amount of fire resistant material needed, which may reduce the cost to produce control joint (310), flex portion (314) may be substantially free from fire resistant material.
Fire resistant material strips (322, 326) can be attached or applied to a respective leg (320, 324) with adhesive, mechanical fasteners, or any other suitable method of attachment. In some embodiments where the strip (322, 326) is attached with adhesive, the adhesive may be fire resistant or, in other words, able to maintain its adhesive qualities at elevated temperatures by incorporating fire resistant properties. In some embodiments, fire resistant material strips (322, 326) may be painted on, sprayed on or otherwise applied to a respective leg (320, 324). In some embodiments, fire resistant material strips (322, 326) may be attached or applied to a respective leg (320, 324) in the same manner, while in other embodiments, fire resistant material strips (322, 326) may be attached or applied to a respective leg (320, 324) in different manners.
Fire resistant material strips (322, 326) comprise a material configured to slow or stop the spread of fire and/or smoke. Similar to fire resistant material strip (122) described above, in some embodiments, the fire resistant material strips (322, 326) may comprise intumescent material. The amount of intumescent material included in fire resistant material strips (322, 326) may be sufficient to substantially seal gap (332) in assembly (330) (described below). In some embodiments, fire resistant material strips (322, 326) may comprise the same fire resistant material, while in other embodiments, fire resistant material strips (322, 326) may comprise different fire resistant material. By way of example only, in some embodiments, one fire resistant material strip (322, 326) may comprise intumescent material, while the other fire resistant material strip (322, 326) may comprise non-intumescent fire resistant material, such as mineral wool. In still other embodiments, both strips (322, 326) may comprise non-intumescent fire resistant material, while in other embodiments one of or both strips (322, 326) may comprise a combination of both intumescent material and non-intumescent fire resistant material.
Similar to fire resistant material strip (122) described above, fire resistant material strips (322, 326) may comprise an intumescent tape, paint, caulk, or other similar intumescent material capable of being applied or attached to a respective leg (320, 324). The intumescent material could be any material suitable to expand and substantially seal gap (332) (described below) when exposed to elevated temperatures. Also similar to fire resistant material strip (122), fire resistant material strips (322, 326) may comprise a combination of a foam material, including but not limited to open cell foam or closed cell foam, and an intumescent material. In some embodiments, fire resistant material strips (322, 326) may comprise the same type of intumescent material, while in other embodiments, fire resistant material strips (322, 326) may comprise different types of intumescent material. By way of example only, in some embodiments, one fire resistant material strip (322, 326) may comprise intumescent tape and the other fire resistant material strip (322, 326) may comprise intumescent paint.
In some embodiments where at least one strip (322, 326) includes both foam material and intumescent material, the foam material and intumescent material may be positioned in layers arranged on top of each other or arranged in a side-by-side orientation. In embodiments where the foam material and intumescent material are positioned in layers arranged on top of each other, in some embodiments, one or both of the fire resistant material strips (322, 326) may be oriented so that the foam material is positioned between the respective leg (320, 324) and the intumescent material, while in other embodiments, one or both of the fire resistant material strips (322, 326) may be oriented so that the intumescent material is positioned between the respective leg (320, 324) and the foam material. In other embodiments, the intumescent material in one or both strips (322, 326) may be infused in or otherwise incorporated within the foam material such that they comprise a single layer of material that includes both foam and intumescent material.
In other embodiments, one or both of the strips may comprise a foam material, including but not limited to open cell foam or closed cell foam, by itself, without any intumescent material. In such an embodiment, the foam may comprise fire resistant material or non-fire resistant material. The foam material may provide sound insulating properties. In other words, the strip may comprise foam material configured to inhibit sound from traveling through the strip. For example, one or both of the strips may comprise a foam material that has a density sufficient to allow the inclusion of the control joint in the wall assembly to increase the sound transmission class (STC) rating of the wall assembly. By way of example only, the foam material may have a density of about 3.0 lbs. per cubic foot to about 4.0 lbs. per cubic foot. In an embodiment where one or both of the strips comprise a foam material with no intumescent material, the foam material may be large enough to substantially surround the flex portion of the control joint and substantially fill the gap between the inner surface of the first leg and inner surface of the second leg.
As shown in
After control joint (310) is installed in wall assembly (330), finishing material (335), such as joint compound or veneer plaster, can then be applied over flanges (316, 317) for a flush finish if desired. In embodiments where one or both flanges (316, 317) contain a plurality of openings (312), the openings (312) may facilitate application of the finishing material. Control joint (310) and removable tape (318) may be configured to prevent staining of the flex portion (314). For example, tape (318) may remain attached to control joint (310) while one or both of the wallboard panels (334, 336) are being finished (e.g., painted, plastered, etc.) so that excess finishing material (335) (paint, plaster, joint compound, etc.) may be applied to tape (318) instead of onto flex portion (314). After the finishing of wallboard panels (334, 336) is completed, then tape (318) can be removed to provide a clean finish to the joint between wallboard panels (334, 336).
In the illustrated embodiment, control joint (310) is shown being installed in a vertically oriented gap between wallboard panels (334, 336). It will be appreciated based on the teachings herein that control joint (310) may also be installed in a horizontally oriented gap between two adjacent wallboard panels in other wall assemblies.
As shown, body (301) of control joint (310) comprises a pair of upper flanges (316, 317), a pair of lower flanges (346, 347), a flex portion (314) positioned between flanges (316, 317, 346, 347), a first leg (320) extending from upper flange (316) to lower flange (346), and a second leg (324) extending from upper flange (317) to lower flange (347). In some embodiments, flanges (316, 317, 346, 347), flex portion (314), first leg (320), and second leg (324) may be of unitary construction such that they are formed from a single integral piece of material. In some embodiments, the components of body (301) may be extruded or coextruded together. However, in other embodiments, one or more of flanges (316, 317, 346, 347), flex portion (314), first leg (320), and second leg (324) may comprise non-integral, separate components that are attached to each other. It will thus be appreciated that body (301) may have a unitary construction or be comprised of various components attached together to collectively form body (301). In some embodiments, body (301), including one or more of flanges (316, 317, 346, 347), flex portion (314), first leg (320), and second leg (324), may comprise polyvinyl chloride (PVC), steel, aluminum or any other suitable material, including but not limited to other suitable plastics, metals, paper products, and composites. In some embodiments, flanges (316, 317, 346, 347), flex portion (314), first leg (320), and second leg (324), may all comprise the same material, while in other embodiments flanges (316, 317, 346, 347), flex portion (314), first leg (320), and second leg (324) may comprise two or more different materials.
Similar to body (101) described above, some embodiments of body (301) may include materials having fire resistant and/or intumescent properties. In some embodiments, at least one portion of body (301) may comprise material having fire resistant and/or intumescent properties and at least one other portion of body (301) may comprise material that does not have fire resistant and/or intumescent properties, such that body (301) includes both fire resistant portions and non-fire resistant portions. In other embodiments, the entire body (301) may comprise material having fire resistant and/or intumescent properties.
As shown in
In the illustrated embodiment, flex portion (414) comprises a V-shape. Flex portion (414) may comprise other shapes in other embodiments, such as a U-shape or other shapes suitable to provide the desired flexing capability. As shown, flex portion (414) includes a pair of angled side walls (413) and a curved base member (415), similar to sidewalls (113) and base member (115) described above. In some embodiments, the depth of flex portion (414) (i.e., the dimension from the plane containing outer portion (416b) of flange (416) to the bottom of base member (415)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable depths of flex portion (414) may be used depending on the particular application and in light of the teachings herein, including but not limited to a depth that is substantially equal to the thickness of two or more drywall panels.
In the illustrated embodiment, first leg (420) extends between upper flange (416) and lower flange (446) in a plane that is substantially perpendicular relative to outer portion (416b) of flange (416) and lower flange (446). Specifically, first leg (420) extends from interior edge (416a) of upper flange (416) to interior edge (446a) of lower flange (446) and second leg (424) extends from interior edge (417a) of upper flange (417) to free end (424a) of second leg (424). In this embodiment, first leg (420) and second leg (424) extend in the same direction as flex portion (414) and are substantially parallel relative to each other. As shown, first leg (420) and the adjacent sidewall (413) of flex portion (414) are arranged such that an acute angle is formed between first leg (420) and the adjacent sidewall (413) of flex portion (414). Similarly, as shown, second leg (424) and the adjacent sidewall (413) of flex portion (414) are arranged such that an acute angle is formed between second leg (424) and the adjacent sidewall (413) of flex portion (414). In some embodiments, the length of first leg (420) and second leg (424) (i.e., the dimension from lip (419) to the distal end (420a, 424a) of first leg (420) and second leg (424)) may be substantially equal to the thickness of a single drywall panel (e.g., from about 0.5 inches to about 0.625 inches). Other suitable lengths of first leg (420) and second leg (424) may be used depending on the particular application and in light of the teachings herein, including but not limited to a length that is substantially equal to the thickness of two or more drywall panels. In some embodiments, the lengths of first leg (420) and second leg (424) may be substantially equal to the depth of flex portion (414).
As shown, legs (420, 424) each include a fire resistant material strip (422, 426) positioned on a portion of an interior surface of a respective leg (420, 424) (i.e., the surface of leg (420, 424) facing flex portion (414)) such that the exposed or interior surfaces (422a, 426a) of fire resistant material strips (422, 426) are facing flex portion (414). In some embodiments, fire resistant material strips (422, 426) may cover a portion of the interior surface of legs (420, 424), while in other embodiments, fire resistant material strips (422, 426) may cover the entire interior surface of legs (420, 424) from the distal end (420a, 424a) of a respective leg (420, 424) to a corresponding lip (419). In some embodiments, no portion of fire resistant material strips (422, 426) is positioned on flex portion (414). In those embodiments, flex portion (414) may be substantially free of fire resistant material.
In some embodiments, fire resistant material strips (422, 426) may be positioned on at least a portion of an exterior surface of a respective leg (420, 424) (i.e., the surface of a leg (420, 424) facing away from flex portion (414)). Still other embodiments may comprise one or more fire resistant material strips (422, 426) on at least a portion of both the interior surface and exterior surface of a respective leg (420, 424). In some of those embodiments, the control joint (410) may comprise a fire resistant material strip (422, 426) that wraps around the distal end (420a, 424a) of a respective leg (420, 424) so that the fire resistant material strip extends onto both the interior and exterior surfaces of the leg (420, 424), while in other embodiments, the control joint (410) may comprise two or more fire resistant material strips (422, 426) on a respective leg (420, 424), wherein at least one such strip (422, 426) is positioned on the interior surface of the respective leg (420, 424) and at least one other strip (422, 426) is positioned on the exterior surface of the respective leg (420, 424). In the illustrated embodiment, the number, size, and positioning of fire resistant material strips (422, 426) on legs (420, 424) are the same. In other embodiments, the number, size, and/or positioning of fire resistant material strip (422) on first leg (420) may be different than the number, size, and/or positioning of fire resistant material strip (426) on second leg (424). In some embodiments, one leg (420, 424) may include a fire resistant material strip (422, 426), while the other leg (420, 424) does not include a fire resistant material strip (422, 426). In still other embodiments, one leg (420, 424) may include a fire resistant material strip (422, 426), while the other leg (420, 424) includes a strip comprising material that is not fire resistant. In some embodiments, in order to minimize the amount of fire resistant material needed, which may reduce the cost to produce control joint (410), flex portion (414) may be substantially free from fire resistant material.
Fire resistant material strips (422, 426) can be attached or applied to a respective leg (420, 424) with adhesive, mechanical fasteners, or any other suitable method of attachment. In some embodiments where the strip (422, 426) is attached with adhesive, the adhesive may be fire resistant or, in other words, able to maintain its adhesive qualities at elevated temperatures by incorporating fire resistant properties. In some embodiments, fire resistant material strips (422, 426) may be painted on, sprayed on or otherwise applied to a respective leg (420, 424). In some embodiments, fire resistant material strips (422, 426) may be attached or applied to a respective leg (420, 424) in the same manner, while in other embodiments, fire resistant material strips (422, 426) may be attached or applied to a respective leg (420, 424) in different manners.
Fire resistant material strips (422, 426) comprise a material configured to slow or stop the spread of fire and/or smoke. Similar to fire resistant material strip (122) described above, in some embodiments, the fire resistant material strips (422, 426) may comprise intumescent material. The amount of intumescent material included in fire resistant material strips (422, 426) may be sufficient to substantially seal gap (432) in assembly (430) (described below). In some embodiments, fire resistant material strips (422, 426) may comprise the same fire resistant material, while in other embodiments, fire resistant material strips (422, 426) may comprise different fire resistant material. By way of example only, in some embodiments, one fire resistant material strip (422, 426) may comprise intumescent material, while the other fire resistant material strip (422, 426) may comprise non-intumescent fire resistant material, such as mineral wool. In still other embodiments, both strips (422, 426) may comprise non-intumescent fire resistant material, while in other embodiments one of or both strips (422, 426) may comprise a combination of both intumescent material and non-intumescent fire resistant material.
Similar to fire resistant material strip (122) described above, fire resistant material strips (422, 426) may comprise an intumescent tape, paint, caulk, or other similar intumescent material capable of being applied or attached to a respective leg (420, 424). The intumescent material could be any material suitable to expand and substantially seal gap (432) (described below) when exposed to elevated temperatures. Also similar to fire resistant material strip (122), fire resistant material strips (422, 426) may comprise a combination of a foam material, including but not limited to open cell foam or closed cell foam, and an intumescent material. In some embodiments, fire resistant material strips (422, 426) may comprise the same type of intumescent material, while in other embodiments, fire resistant material strips (422, 426) may comprise different types of intumescent material. By way of example only, in some embodiments, one fire resistant material strip (422, 426) may comprise intumescent tape and the other fire resistant material strip (422, 426) may comprise intumescent paint.
In some embodiments where at least one strip (422, 426) includes both foam material and intumescent material, the foam material and intumescent material may be positioned in layers arranged on top of each other or arranged in a side-by-side orientation. In embodiments where the foam material and intumescent material are positioned in layers arranged on top of each other, in some embodiments, one or both of the fire resistant material strips (422, 426) may be oriented so that the foam material is positioned between the respective leg (420, 424) and the intumescent material, while in other embodiments, one or both of the fire resistant material strips (422, 426) may be oriented so that the intumescent material is positioned between the respective leg (420, 424) and the foam material. In other embodiments, the intumescent material in one or both strips (422, 426) may be infused in or otherwise incorporated within the foam material such that they comprise a single layer of material that includes both foam and intumescent material.
In other embodiments, one or both of the strips may comprise a foam material, including but not limited to open cell foam or closed cell foam, by itself, without any intumescent material. In such an embodiment, the foam may comprise fire resistant material or non-fire resistant material. The foam material may provide sound insulating properties. In other words, the strip may comprise foam material configured to inhibit sound from traveling through the strip. For example, one or both of the strips may comprise a foam material that has a density sufficient to allow the inclusion of the control joint in the wall assembly to increase the sound transmission class (STC) rating of the wall assembly. By way of example only, the foam material may have a density of about 3.0 lbs. per cubic foot to about 4.0 lbs. per cubic foot. In an embodiment where one or both of the strips comprise a foam material with no intumescent material, the foam material may be large enough to substantially surround the flex portion of the control joint and substantially fill the gap between the inner surface of the first leg and inner surface of the second leg.
As shown in
After control joint (410) is installed in wall assembly (430), finishing material (435), such as joint compound or veneer plaster, can then be applied over upper flange (416) for a flush finish if desired. In embodiments where upper flange (416) contains a plurality of openings (412), the openings (412) may facilitate application of the finishing material. Control joint (410) and removable tape (418) may be configured to prevent staining of the flex portion (414). For example, tape (418) may remain attached to control joint (410) while one or both of the wallboard panels (434, 436) are being finished (e.g., painted, plastered, etc.) so that excess finishing material (435) (paint, plaster, joint compound, etc.) may be applied to tape (418) instead of onto flex portion (414). After the finishing of wallboard panels (434, 436) is completed, then tape (418) can be removed to provide a clean finish to the joint between wallboard panels (434, 436).
In the illustrated embodiment, control joint (410) is shown being installed in a vertically oriented gap between wallboard panels (434, 436). It will be appreciated based on the teachings herein that control joint (410) may also be installed in a horizontally oriented gap between two adjacent wallboard panels in other wall assemblies.
As shown, body (401) of control joint (410) comprises a pair of upper flanges (416, 417), a lower flange (446), a flex portion (414) positioned between upper flanges (416, 417), a first leg (420) extending from an interior edge (416a) of upper flange (416), and a second leg (424) extending from an interior edge (417a) of upper flange (417). In some embodiments, flanges (416, 417, 446), flex portion (414), first leg (420), and second leg (424) may be of unitary construction such that they are formed from a single integral piece of material. In some embodiments, the components of body (401) may be extruded or coextruded together. However, in other embodiments, one or more of flanges (416, 417, 446), flex portion (414), first leg (420), and second leg (424) may comprise non-integral, separate components that are attached to each other. It will thus be appreciated that body (401) may have a unitary construction or be comprised of various components attached together to collectively form body (401). In some embodiments, body (401), including one or more of flanges (416, 417, 446), flex portion (414), first leg (420), and second leg (424), may comprise polyvinyl chloride (PVC), steel, aluminum or any other suitable material, including but not limited to other suitable plastics, metals, paper products, and composites. In some embodiments, flanges (416, 417, 446), flex portion (414), first leg (420), and second leg (424), may all comprise the same material, while in other embodiments flanges (416, 417, 446), flex portion (414), first leg (420), and second leg (424) may comprise two or more different materials.
Similar to body (101) described above, some embodiments of body (401) may include materials having fire resistant and/or intumescent properties. In some embodiments, at least one portion of body (401) may comprise material having fire resistant and/or intumescent properties and at least one other portion of body (401) may comprise material that does not have fire resistant and/or intumescent properties, such that body (401) includes both fire resistant portions and non-fire resistant portions. In other embodiments, the entire body (401) may comprise material having fire resistant and/or intumescent properties.
The following examples relate to various non-exhaustive ways in which the teachings herein may be combined or applied. The following examples are not intended to restrict the coverage of any claims that may be presented at any time in this application or in subsequent filings of this application. No disclaimer is intended. The following examples are being provided for nothing more than merely illustrative purposes. It is contemplated that the various teachings herein may be arranged and applied in numerous other ways. It is also contemplated that some variations may omit certain features referred to in the below examples. Therefore, none of the aspects or features referred to below should be deemed critical unless otherwise explicitly indicated as such at a later date by the inventor or by a successor in interest to the inventor. If any claims are presented in this application or in subsequent filings related to this application that include additional features beyond those referred to below, those additional features shall not be presumed to have been added for any reason relating to patentability.
A construction component comprising: a. a first flange and a second flange; b. a flex portion positioned between the first flange and the second flange; c. a first leg, wherein the first leg extends from the first flange and comprises a first surface and a second surface, wherein the first surface and the second surface of the first leg face in opposite directions relative to each other; and d. a first strip positioned on at least a portion of the first surface of the first leg.
The construction component of the preceding example, wherein the first surface of the first leg comprises an interior surface facing the flex portion.
The construction component of Example 1, wherein the first surface of the first leg comprises an exterior surface facing away from the flex portion.
The construction component of any one or more of the preceding Examples, wherein the first leg comprises a distal end and the first strip wraps around the distal end such that the first strip is also positioned on at least a portion of the second surface of the first leg.
The construction component of any one or more of Examples 1-3, further comprising a second strip positioned on at least a portion of the second surface of the first leg.
The construction component of any one or more of the preceding Examples, wherein the first strip comprises fire resistant material.
The construction component of any one or more of the preceding Examples, wherein the first strip comprises intumescent material.
The construction component of any one or more of the preceding Examples, wherein the first strip comprises foam material.
The construction component of any one or more of the preceding Examples, wherein the first strip comprises foam material and intumescent material.
The construction component of any one or more of the preceding Examples, wherein the first leg extends substantially perpendicularly relative to the first flange.
The construction component of any one or more of the preceding Examples, wherein the first flange comprises a lip and an outer portion extending away from the lip.
The construction component of any one or more of the preceding Examples, wherein the flex portion comprises a substantially v-shaped profile.
The construction component of any one or more of the preceding Examples, wherein the flex portion comprises a first side wall, a second side wall and a base member, wherein the first side wall is connected to the second side wall via the base member.
The construction component of any one or more of the preceding Examples, further comprising a second leg, wherein the second leg extends from the second flange and comprises a first surface and a second surface, wherein the first surface and second surface of the second leg face in opposite directions relative to each other.
The construction component of Example 14, further comprising a second strip positioned on at least a portion of the first surface of the second leg.
The construction component of Example 15, wherein the second strip comprises fire resistant material.
The construction component of any one or more of Examples 15 and 16, wherein the second strip comprises intumescent material.
The construction component of any one or more of Examples 15-17, wherein the second strip comprises foam material.
The construction component of any one or more of Examples 15-18, wherein the second strip comprises foam material and intumescent material.
The construction component of any one or more of the preceding Examples, further comprising a third flange, wherein the third flange extends from a distal end of the first leg opposite the end of the first leg attached to the first flange.
The construction component of Example 20, wherein the third flange is substantially parallel to the first flange.
The construction component of any one or more of Examples 14-21, further comprising a fourth flange, wherein the fourth flange extends from a distal end of the second leg opposite the offend of the second leg attached to the second flange.
A wall assembly comprising: a. a first wallboard panel comprising a first edge; b. a second wallboard panel comprising a second edge, wherein the second wallboard panel is positioned adjacent to the first wall portion with a gap between the first edge of the first wall portion and the second edge of the second wall portion; c. a construction component, wherein the construction component is positioned adjacent to the gap and comprises: i. a first flange and a second flange; ii. a flex portion positioned between the first flange and the second flange; iii. a first leg, wherein the first leg extends from the first flange at a first end of the first leg; and iv. a first strip positioned on the first leg; wherein the construction component is positioned within the wall assembly such that the first leg is positioned between the first edge of the first wallboard panel and the flex portion.
The wall assembly of Example 23, wherein the first strip is positioned on the first leg such that an exposed face of the first strip faces the flex portion.
The wall assembly of Example 23, wherein the first strip is positioned on the first leg such that an exposed face of the first strip faces away from the flex portion.
The wall assembly of any one or more of Examples 23-25, wherein the first leg comprises a distal end and the first strip wraps around the distal end such that a first exposed face of the first strip faces the flex portion and a second exposed face of the first strip faces away from the flex portion.
The wall assembly of any one or more of Examples 23-26, wherein the first strip comprises fire resistant material.
The wall assembly of any one or more of Examples 23-27, wherein the first strip comprises intumescent material.
The wall assembly of any one or more of Examples 23-28, wherein the first strip comprises foam material.
The wall assembly of any one or more of Examples 23-29, wherein the first strip comprises foam material and intumescent material.
The wall assembly of any one or more of Examples 23-30, wherein the construction component further comprises a second leg, wherein the second leg extends from the second flange at a first end of the second leg, and, wherein the construction component is positioned within the wall assembly such that the second leg is positioned between the second edge of the second wallboard panel and the flex portion.
The wall assembly of Example 24, wherein the construction component further comprises a second strip positioned on the second leg such that an exposed face of the second strip faces the flex portion.
The wall assembly of Example 32, wherein the second strip comprises fire resistant material.
The wall assembly of any one or more of Examples 32 and 33, wherein the second strip comprises intumescent material.
The wall assembly of any one or more of Examples 32-34, wherein the second strip comprises foam material.
The wall assembly of any one or more of Examples 32-35, wherein the second strip comprises foam material and intumescent material.
The wall assembly of any one or more of Examples 23-36, wherein the construction component further comprises a third flange, wherein the third flange extends from a distal end of the first leg opposite the first end of the first leg.
The wall assembly of Example 37, wherein the first wallboard panel is positioned between the first flange and the third flange.
The wall assembly of any one or more of Examples 31-38, wherein the construction component further comprises a fourth flange, wherein the fourth flange extends from a distal end of the second leg opposite the first end of the second leg.
The wall assembly of Example 39, wherein the first wallboard panel is positioned between the first flange and the third flange and the second wallboard panel is positioned between the second flange and the fourth flange.
The wall assembly of any one or more of Examples 23-40, wherein the construction component is positioned within the wall assembly such that the first flange extends over an outer surface of the first wallboard panel.
The wall assembly of any one or more of Examples 23-41, wherein the construction component is positioned within the wall assembly such that the second flange extends over an outer surface of the second wallboard panel.
A wall assembly comprising: a. a first stud comprising a first web with a first interior surface; b. a second stud comprising a second web with a second interior surface, wherein the second stud is positioned adjacent to the first stud with a gap between the first interior surface of the first web and the second interior surface of the second web; c. a construction component, wherein the construction component is positioned adjacent to the gap and comprises: i. a first flange and a second flange; ii. a flex portion positioned between the first flange and the second flange; iii. a first leg, wherein the first leg extends from the first flange at a first end of the first leg; and iv. a first strip positioned on the first leg such that an interior face of the first fire resistant material strip faces the flex portion; wherein the construction component is positioned within the wall assembly such that the first leg is positioned between the first interior surface of the first web and the flex portion.
The wall assembly of Example 43, wherein the first strip comprises fire resistant material.
The wall assembly of any one or more of Example 43 and 44, wherein the first strip comprises intumescent material.
The wall assembly of any one or more of Examples 43-45, wherein the first strip comprises foam material.
The wall assembly of any one or more of Examples 43-46, wherein the first strip comprises foam material and intumescent material.
The wall assembly of any one or more of Examples 43-47, wherein the construction component further comprises a second leg, wherein the second leg extends from the second flange at a first end of the second leg, and, wherein the construction component is positioned within the wall assembly such that the second leg is positioned between second interior surface of the second web and the flex portion.
The wall assembly of Example 48, wherein the construction component further comprises a second strip positioned on the second leg such that an interior face of the second fire resistant material strip faces the flex portion.
The wall assembly of Example 49, wherein the second strip comprises fire resistant material.
The wall assembly of any one or more of Examples 49 and 50, wherein the second strip comprises intumescent material.
The wall assembly of any one or more of Examples 49-51, wherein the second strip comprises foam material.
The wall assembly of any one or more of Examples 49-52, wherein the second strip comprises foam material and intumescent material.
The wall assembly of any one or more of Examples 43-53, wherein the stud further comprises a first leg extending substantially perpendicularly to the first web and the construction component is positioned within the wall assembly such that the first flange of the construction component extends over a first outer surface of the first leg of the first stud.
The wall assembly of any one or more of Examples 43-54, wherein the second stud further comprises a second leg extending substantially perpendicularly to the second web and the construction component is positioned within the wall assembly such that the second flange of the construction component extends over a second outer surface of the second leg of the second stud.
Embodiments of the control joints described herein may be manufactured subject to manufacturing tolerances typically used for these types of products. In some embodiments, components of the control joints described herein may be perpendicular or parallel to each other within +/−2 degrees or +/−1 degree.
Having shown and described various embodiments of the present invention, further adaptations of the methods and systems described herein may be accomplished by appropriate modifications by one of ordinary skill in the art without departing from the scope of the present invention. Several of such potential modifications have been mentioned, and others will be apparent to those skilled in the art. For instance, the examples, embodiments, geometrics, materials, dimensions, ratios, steps, and the like discussed above are illustrative and are not required. Accordingly, the scope of the present invention should be considered in terms of any claims that may be presented and is understood not to be limited to the details of structure and operation shown and described in the specification and drawings.
This application claims priority to U.S. Provisional Pat. App. No. 63/112,925, entitled “Control Joint,” filed on Nov. 12, 2020, the disclosure of which is incorporated by reference herein.
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107604 | Dec 2005 | CA |
107605 | Dec 2005 | CA |
107606 | Dec 2005 | CA |
107607 | Dec 2005 | CA |
2856523 | Feb 2008 | CA |
127416 | Sep 2009 | CA |
2771711 | Mar 2011 | CA |
139128 | Jan 2012 | CA |
2816036 | May 2012 | CA |
2803439 | Aug 2013 | CA |
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151311 | Aug 2014 | CA |
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WO 2004044927 | May 2004 | WO |
WO 2007012897 | Feb 2007 | WO |
WO 2012131284 | Oct 2012 | WO |
WO 2014023620 | Feb 2014 | WO |
WO 2014154729 | Oct 2014 | WO |
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WO 2015015206 | Feb 2015 | WO |
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WO 2015158651 | Oct 2015 | WO |
WO 2016128301 | Aug 2016 | WO |
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WO 2016128552 | Aug 2016 | WO |
Entry |
---|
“#093 Zinc Control Joint (ZNCJ),” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/metal-trims-and-finishing-products/093-zinc-control-joint-zncj. |
“#15 Double-V Control Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/metal-expansion-control-joints/15-double-v-control-joint. |
“#15 Zinc Double-V Control Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/zinc-expansion-control-joints/15-zinc-double-v-control-joint. |
“#30 Corner Master™ Control Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 29, 2016 from http://www.clarkdietrich.com/products/metal-expansion-control-joints/30-corner-master-control-joint. |
“#40 Two-Piece Expansion Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/metal-expansion-control-joints/40-two-piece-expansion-joint. |
“#40 Zinc Two-Piece Expansion Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 29, 2016 from http://www.clarkdietrich.com/products/zinc-expansion-control-joints/40-zinc-two-piece-expansion-joint. |
“#66N Short Flange Casing Bead”, ClarkDietrich, 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.clarkdietrich.com/products/metal-corner-casing-beads/66n-short-flange-casing-bead. |
“#66N Zinc Short Flange Casing Bead”, ClarkDietrich, 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.clarkdietrich.com/products/zinc-corner-casing-beads/66n-zinc-short-flange-casing-bead. |
“#66X Expanded Flange Casing Bead”, ClarkDietrich, 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.clarkdietrich.com/products/metal-corner-casing-beads/66x-expanded-flange-casing-bead. |
“#66X Zinc Expanded Flange Casing Bead”, ClarkDietrich, 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.clarkdietrich.com/products/zinc-corner-casing-beads/66x-zinc-expanded-flange-casing-bead. |
“#701A/#801A J-Trim,” ClarkDietrich, 2015, 1 pg., downloaded Feb. 16, 2016 from http://www.clarkdietrich.com/products/metal-veneer-plaster-beads-trims/701a-801a-j-trim. |
“#701A/#801A Zinc J-Trim,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/zinc-veneer-plaster-beads-trims/701a-801a-zinc-j-trim. |
“#701B/#801B L-Trim,” ClarkDietrich, 2015, 1 pg., downloaded Feb. 16, 2016 from http://www.clarkdietrich.com/products/metal-veneer-plaster-beads-trims/701b-801b-l-trim. |
“#701B/#801B Zinc L-Trim,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/zinc-veneer-plaster-beads-trims/701b-801b-zinc-l-trim. |
“#XJ15 Double-J Control Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/metal-expansion-control-joints/xj15-double-j-control-joint. |
“#XJ15 Zinc Double-J Control Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/zinc-expansion-control-joints/xj15-zinc-double-j-control-joint. |
““F” Beads,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/f-beads. |
““F” Control Joints (Perforated Flanges),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/control-joints/f-control-joints-perforated-flanges. |
““F” Control Joints (Unperforated Flanges),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/control-joints/f-control-joints-unperforated-flanges. |
““J” Beads,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/j-beads. |
““L” Beads (L-Bead Perforated),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/l-beads-l-bead-perforated. |
“2″ J-Weep Low Back,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/metal-weep-sill-screeds/2-j-weep-low-back. |
“3-½″ J-Weep High Back,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/metal-weep-sill-screeds/3-1-2-j-weep-high-back. |
“Adjustable Corner Trim,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/adjustable-corner-trim. |
“Angled Casing Beads”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/angled-casing-beads. |
“Archmaker™ Casing Beads”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/archmaker-casing-beads. |
“Archmaker™/ Bandmaker™ Casing Beads”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/archmaker-bandmaker-casing-beads. |
“Backer Rod Products,” Best Materials discount warehouse, Mar. 2016, 9 pgs., (https://web.archive.org/web/20160301082146/https://www.bestmaterials.com/Backer_Rod.aspx). |
“BackerBead™ Drip Flashing—3½″ Flange,” ClarkDietrich, Dec. 2017, 2 pgs., (https://web.archive.org/web/20171210150830/http://www.vinylcorp.com/products/stucco-plaster/casing-beads/backerbead™-drip-flashing-3-12-flange). |
“BackerBead™,” Vinyl Corp., 2015, 1 pg. downloaded Dec. 6, 2016 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/backerbead%E2%84%A2. |
“Bandmaker Series Casing Beads”, Vinyl Corp., 2015. 1 pg, downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/bandmaker-series-casing-beads. |
“BlazeFrame (CJB): “CJB” (Control Joint Backer),” Product Submittal Sheet, ClarkDietrich, May 30, 2014, 1 pg. |
“BM 66 Series 1-Piece Bandmaker”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/bm-66-series-1-piece-bandmaker. |
“Bullnose Casing Beads”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/bullnose-casing-beads. |
“Casing Beads (with Weep Holes for ½″ Sheathing)”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/casing-beads-weep-holes-12-sheathing. |
“Casing Beads / Plaster Stops”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/casing-beads-plaster-stops. |
“Casing Beads with Reveal”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/casing-beads-reveal. |
“Casing Beads with Weep Holes”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/casing-beads-weep-holes. |
“Caulking Tips: Use Backer Rod,” Sashco, Inc., Oct. 2017, 3 pgs., (http://blog.sashco.com/blog/use-less-caulking-save-money). |
“Ceiling Mounted Deflection Bead,” Trim-Tex Drywall Products, Jun. 2016, 1 pg. (https://web.archive.org/web/20160619064021/https://www.trim-tex.com/products/overview/commercial-beads/deflection-beads/ceiling-mounted-deflection-bead/). |
“Ceiling Trim Surface Mount (L-Bead Perforated),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/ceiling-trim-surface-mount-1-bead-perforated. |
“Ceiling Trims (L-Bead Perforated),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/ceiling-trims-1-bead-perforated. |
“CEMCO Hotrod Type-X Compressible Firestopping,” CEMCO, Product Data Sheet, May 2019, 1 pg. (https://cemcosteel.com/steel-framing/head-wall/hot-rod-type-x). |
“CEMCO Smoke and Sound Stop,” CEMCO, Product Data Sheet, Aug. 2017, 1 pg. (https://cemcosteel.com/steel-framing/head-wall/fas-fas%c2%ae-track-1000-and-dda%e2%84%a2-head-wall-systems/smoke-and-sound-stop). |
“Control Joints & Reveal Combinations,” Vinyl Corp., 2015, 2 pgs. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/control-joints-reveal-combinations. |
“Control Joints (Perforated Flanges),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/control-joints/control-joints-perforated-flanges. |
“Control Joints (Surface Application with Removable Tape,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/control-joints/control-joints-surface-application-removable-tape. |
“Control Joints (Unperforated Flanges),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/control-joints/control-joints-unperforated-flanges. |
“Control Joints (with removable tape),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/control-joints-removable-tape. |
“Control Joints,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/control-joints. |
“Corner Control Joints (with Removable Tape),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/corner-control-joints-removable-tape. |
“Corner Expansion Joints,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/miscellaneous-accessories/corner-expansion-joints. |
“D-66 Drop Plaster Stop,” Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/d-66-drop-plaster-stop. |
“DEFS” F“Control Joints (w-Removable Tape),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-control-joints/defs-f-control-joints-w-removable-tape. |
“DEFS 45 Degree L-Bead,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-1-beads/defs-45-degree-l-bead. |
“DEFS Casing Beads (w-Drip),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-casing-beads/defs-casing-beads-w-drip. |
“DEFS Casing Beads (w-Weep),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-casing-beads/defs-casing-beads-w-weep. |
“DEFS Casing Beads,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-casing-beads/defs-casing-beads. |
“DEFS Control Joints (w-Removable Tape),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-control-joints/defs-control-joints-w-removable-tape. |
“DEFS L Stop Casing Beads (w-Splice),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-l-beads/defs-l-stop-casing-beads-w-splice. |
“DEFS L Stop Casing Beads,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-l-beads/defs-l-stop-casing-beads. |
“DEFS Weeped Starter Strip/Casing Beads (w-Drip),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/defs-starter-strip/defs-weeped-starter-stripcasing-beads. |
“Double Ground (Bandmaker™ Series)”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/double-ground-bandmaker-series. |
“Drip Casing Bead,” Vinyl Corp., 2014, 1pg., downloaded Feb. 5, 2018 from http://www.vinylcorp.com/products/stucco-plaster/drip-screed-reveals/drip-casing-beads. |
“Drip Casing Bead,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-casing-beads/drip-casing-bead. |
“DS15 Drip,” Vinyl Corp., 2015, 1 pg. downloaded Feb. 17, 2016 from http://www.vinylcorp.com/products/stucco-plaster/miscellaneous-accessories/angle-clips. |
“DX Expansion Joint,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/miscellaneous-accessories/dx-expansion-joint. |
“E-Flange™ Casing Bead, PVC Casing Bead with Embeddable Flange Design,” ClarkDietrich, Product Submittal Sheet, Dec. 2020, 1 pg., downloaded Feb. 4, 2021 from E-Flange™ Casing Bead | ClarkDietrich_Building_Systems. |
“E-Flange™ Control Joint, PVC Control Joint with Embeddable Flange Design,” ClarkDietrich, Product Submittal Sheet, Dec. 2020, 1 pg. downloaded Feb. 4, 2021 from E-Flange™ Control Joint | ClarkDietrich Building Systems. |
“Expansion Joints (Slip Joint),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/expansion-joints/expansion-joints-slip-joint. |
“E-Z Bead™ Vinyl Casing Bead,” AMICO Building Products, Mar. 2016, 3 pgs., (https://web.archive.org/web/20160331140912/http://amico-lath.com/e-z-bead.htm). |
“F Control Joints (with removable tape),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/f-control-joints-removable-tape. |
“F” Series Control Joint and Vent, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/f-series-control-joint-and-vent#description. |
“FAS-093X, Fire Rated Control Joint, Drywall or veneer plaster fire rated control joint,” ClarkDietrich, Product Submittal Sheet, Jan. 2020, 1 pg. downloaded Feb. 4, 2021 from FAS-093X_Fire_Rated_Control_Joint_| _ClarkDietrich_Building_Systems. |
“FAS-093X-V (Vinyl) Fire Rated Control Joint,” CEMCO, Spec Sheet, Sep. 3, 2019, 1 pg., downloaded Feb. 24, 2021 from FAS 093X-V (Vinyl) Fire-Rated Control Joint | CEMCO (cemcosteel.com). |
“Female & Male Casing Expansion Joint Components,” Vinyl Corp., 2015, 2 pgs. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/miscellaneous-accessories/female-male-casing-expansion-joint-components. |
“Female Casing Expansion Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/vinyl-expansion-control-joints/female-casing-expansion-joint. |
“Inside Corner Control Joints,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/inside-corner-control-joints. |
“Installation Between Tees,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/acoustical-ceiling/vce-expansion-joints/installation-between-tees. |
“Installation Between Wall & Tees,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/acoustical-ceiling/vce-expansion-joints/installation-between-wall-tees. |
“Installation Drywall to Drywall,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/acoustical-ceiling/vce-expansion-joints/installation-drywall-drywall. |
“Installation on Wall to Drywall,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/acoustical-ceiling/vce-expansion-joints/installation-wall-drywall. |
“Long Flange Casing Beads/Plaster Stops,” Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/long-flange-casing-beads-plaster-stops. |
“Male Casing Expansion Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 29, 2016 from http://www.clarkdietrich.com/products/vinyl-expansion-control-joints/male-casing-expansion-joint. |
“Mid Wall Control Joints,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/mid-wall-control-joints. |
“Mini Control Joints,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/mini-control-joints. |
“Muddable “J” Beads (with removable leg),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/muddable-j-beads-removable-leg. |
“Muddable “J” Beads,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/drywall-veneer/beads-trims/muddable-j-beads. |
“Muddable “J” Beads,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/defs-j-beads/muddable-j-beads. |
“PB Control Joint,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-control-joints/pb-control-joint. |
“PB Header Weeped Starter Strip,” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-header-weeped-starter-strip. |
“PB Standard Starter Strip/Casing Beads (3/32″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-standard-starter-stripcasing-beads-332-finish. |
“PB Starter Strip (Back Weep Holes 3/32″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-starter-strip-back-weep-332-finish. |
“PB Starter Strip (Front & Back Weep Holes 3/32″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-starter-strip-front-back-weep-332-finish. |
“PB Starter Strip (Front Weep Holes 3/32″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-starter-strip-front-weep-332-finish. |
“PB Starter Strip/Casing Beads (1/16″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-starter-stripcasing-beads-116-finish. |
“PB Starter Strip/Casing Beads (w-Drip & Weep 1/16″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-starter-stripcasing-beads-w-drip-weep-116-finish. |
“PB Starter Strip/Casing Beads (w-Drip 1/16″ Finish),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pb-starter-stripcasing-beads-w-drip-116-finish. |
“Penetration Sealant Recommendations, Exterior Systems 600-300,” Northwest Wall and Ceiling Bureau, Dec. 2005, 1 pg., (http://web.nweb.org/CWT/External/WCPages/WCWebContent/WebContentPage.aspx?ContentID=116). |
“PM “F” Control Joints (w-Removable Tape ¼″ & ⅜″ Finish),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-control-joints/f-control-joints-w-removable-tape-14-38-finish. |
“PM Casing Bead,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-casing-beads/pm-casing-beads. |
“PM Control Joint (⅜″ Finish Systems),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-control-joints/pm-control-joint-38-finish-systems. |
“PM Control Joints (Surface Application w-Removable Tape),” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-control-joints/pm-control-joint-surface-application-w-removable-tape. |
“PM Starter Strip (Reinforced),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pm-starter-strip-reinforced. |
“PM Starter Strip/Casing Beads (w-Front Weep Holes),” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://www.vinylcorp.com/products/eifs-defs/eifs-starter-strips/pm-starter-stripcasing-bead-w-front-weep-holes. |
“PM Starter Strip/Casing Beads,” Vinyl Corp., 2015, 1 pg., downloaded Feb. 16, 2016 from http://vinylcorp.com/products/eifs-defs/eifs-starter-strips/pm-starter-stripcasing-bead. |
“PS26—“CJB” profiles for Protection of Control Joints,” Safti-Seal, Product Profile dimensions, 1 pg., downloaded Feb. 4, 2021 from Product Profile Dimensions (saftiseal.com). |
“Single V Hump Screed,” Vinyl Corp., 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.vinylcorp.com/products/stucco-plaster/control-joints/single-v-hump-screed. |
“Step Bead,” Vinyl Corp., 2015, 2 pgs., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/step-bead. |
“Track Within a Track Deflection Assembly,” Industry Technical Note, Cold Formed Steel Construction, Steel Stud Manufactures Association (SSMA), Apr. 2000, 4 pgs. (http://www.customstud.com/pdfs/Tech_Notes_Details.pdf). |
“Vinyl 093 Control Joint (VCJT),” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/vinyl-trims-and-finishing-products/vinyl-093-control-joint-vcjt. |
“Vinyl Casing Bead/Plaster Stop,” ClarkDietrich, 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.clarkdietrich.com/products/vinyl-corner-casing-beads/vinyl-casing-bead-plaster-stop. |
“Vinyl Control Joint W/Tape,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/vinyl-expansion-control-joints/vinyl-control-joint-w-tape. |
“Vinyl Control Joint,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/vinyl-expansion-control-joints/vinyl-control-joint. |
“Wall Mounted Deflection Bead,” Trim-Tex Drywall Products, Jul. 2016, 1 pg. (https://web.archive.org/web/20160710062112/https://www.trim-tex.com/products/overview/commercial-beads/deflection-beads/wall-mounted-deflection-bead/). |
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“XL Long Flange Casing Beads/ Plaster Stops”, Vinyl Corp., 2015, 1 pg., downloaded Nov. 16, 2015 from http://www.vinylcorp.com/products/stucco-plaster/casing-beads/xl-long-flange-casing-beads-plaster-stops. |
“Zinc Control Joints,” ClarkDietrich, 2015, 1 pg. downloaded Jan. 28, 2016 from http://www.clarkdietrich.com/products/zinc-expansion-control-joints/zinc-control-joints. |
3M Fire Protection Products, “Applicators and Specifiers Guide, 3M™ Expantrol™ Flexible Intumescent Strip E-FIS,” p. xviii, and “Article Information Sheet,” 2014, downloaded from https://www.3m.com/3M/en_US/company-us/all-3m-products/˜/3M-Expantrol-Flexible-Intumescent-Strip-E-FIS/?N=5002385+3293123900&rt=rud, 4 pgs. |
CEMCO, “FAS Reveal—18 Mil,” Product Data Sheet, Aug. 29, 2016, 1 pg. |
CEMCO, “FAS-RBR (Rated Base Reveal),” Product Data Sheet, Sep. 2016, 1 pg. (https://cemcosteel.com/steel-framing/fas-wall-products/fas-rated-base-reveal-rbr). |
CEMCO, “FAS-RBR Strap (Rated Base Reveal),” Product Data Sheet, Sep. 2016, 1 pg. (https://cemcosteel.com/steel-framing/fas-wall-products/fas-rbr-strap). |
Control Joint Gasket (CJG) & Fire Rated Gasket (FRG), Fire, Smoke & Sound Rating—Zinc or Vinyl Control & Mullion Joints, SaftiSeal, 2018, 2 pgs., downloaded Jul. 12, 2022 from https://www.saftiseal.com/documents/FlyerCJGchartcombo.pdf. |
Control Joint with Removable Tape, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/control-joint-removable-tape#description. |
Control Joint, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/control-joint#description. |
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Factory Fabricated Vinyl Control Joints, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/factory-fabricated-vinyl-control-joints#resources. |
Fire Rated Gasket—“FGR” Flex Lock Edge Joint Protection, SaftiSeal, 2018, 2 pgs., downloaded Jul. 12, 2022 from https://www.saftiseal.com/documents/Flyer-FRG-222.pdf. |
Grainger, “STI—Fire Barrier Foil Tape, 2″ Width,” 2015, downloaded from https://web.archive.org/web/20151001140949/https://www.grainger.com/product/STI-Fire-Barrier-Foil-Tape-4MM48, 2 pgs. |
Inside Control Joint (With Removable Tape), ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/inside-control-joint-removable-tape#description. |
International Fireproof Technology, Inc. (IFTI), “HITS—High Intumescent Sheet—Paint to Protect,” Information and Data Sheet, 2017, downloaded from https://www.painttoprotect.com/hits-intumescent-sheet/ 4 pgs. |
International Fireproof Technology, Inc. (IFTI), “INFS0812 Intumescent Strip,” Information and Data Sheet, 2018, https://www.painttoprotect.com/infs0812-intumescent-strip/ 5 pgs. |
Mid Wall Weep Screed—M Style, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/mid-wall-weep-screed-m-style#description. |
Mid Wall Weep Screed with Weed Holes/Tape, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/mid-wall-weep-screed-weep-holes-tape#description. |
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Soffit Vent Control Joint Combination, ClarkDietrich, 2020, 2 pgs., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/soffit-vent-control-joint-combination#description. |
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Vinyl 3-½″ Drip Screed W/Weep Holes and Tape, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/vinyl-3-1-2-drip-screed-w-weep-holes-and-tape#description. |
Zinc Control Joints #38, #50 & #75, ClarkDietrich, 2020, 1 pg., downloaded Jul. 12, 2022 from https://www.clarkdietrich.com/products/zinc-control-joints-38-50-75#description. |
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European Union Certificate of Registration for the Registered Community Design No. 004558666-0003, Registered Dec. 20, 2017, on behalf of Clarkwestern Dietrich Building Systems LLC, 9 pgs. |
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Number | Date | Country | |
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20220145640 A1 | May 2022 | US |
Number | Date | Country | |
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63112925 | Nov 2020 | US |