The present invention relates to architectural molding, and more particularly, to architectural moldings placed between adjoining sections of drywall.
Typical drywall installations generate significant amounts of dust and debris when sealing the joints between adjoining sections of drywall. A gypsum joint compound, or “mud”, is typically applied to the gaps between adjoining drywall sections. Many times, a tape is applied to help span the gap and provide a surface for the mud compound.
Once the joint compound has dried, is then sanded to provide a seamless wall surface. However, the process of finishing drywall seams represents a substantial portion of the labor and materials associated with typical drywall installation and repairs. Moreover, the released gypsum particulates from the sanding present a health hazard to the workers.
Some architectural molding systems are available in the art, however, they still contemplate the use of joint compound or sealers. Once installed, none provide accessibility to the area beneath the molding without the subsequent removal of the joint compounds and sealers. Moreover, the limited systems available do not eliminate the need to tape and finish at least a portion of the drywall.
As can be seen, there is a need for a system of components that relies on a mechanical friction fit assembly for easy installation and removal of architectural moldings in the event of future renovation projects or to provide access to the cased areas for other repairs.
In one aspect of the present invention, an architectural molding assembly is provided for a mud free joint between adjacent wall boards applied to a wall surface of a room. The architectural molding assembly includes an elongate bracket having a flattened V-shape interior surface defined along a longitudinal length of the bracket. The angle of the V-shape is dimensioned to conform the interior surface to a tapered edge surface extending along a longitudinal length of the adjacent wall boards. An apex of the elongate bracket is configured to be positioned along adjacent edges of the adjacent wall boards. The bracket includes an upturned latching end defined along first and second lateral sides of the interior surface. The upturned latching ends are configured for a snap-fit engagement with a corresponding latch finger defined in a molding to enclose the elongate bracket.
In other aspects of the invention the architectural molding assembly includes a molding having a room facing surface, a wall facing surface, and lateral side surfaces. An inwardly turned latch finger extends from an intermediate portion of the wall facing surface between the lateral side surfaces and a centerline of the molding. The molding may also include a ridge extending along a longitudinal centerline of the wall facing surface of the molding. The ridge is configured to contact the vertex of the interior surface with the molding attached to the bracket. An engagement channel may be defined between the inwardly turned latch fingers and the wall facing surface. A hook may be defined at a tip of the upturned latching end, such that the hook is configured for the snap-fit engagement in the engagement channel.
In other aspects of the invention, an inwardly turned edge of the side facing surfaces is dimensioned so that it is positioned in abutment with a flat wall board surface adjacent to the tapered edge section of the wall board. In some embodiments, a channel is defined in an interior surface of the side surfaces.
The architectural molding assembly may also include a molding having a room facing surface, a wall facing surface, lateral side surfaces; and an inwardly turned latch finger extending from the lateral side surfaces of the molding that is configured for the snap-fit engagement with the upturned latching end of the bracket. The molding may also have an inwardly turned edge defined along the lateral side surfaces that is dimensioned so that it is positioned in abutment with a flat wall board surface adjacent to the tapered edge section of the wall board.
A plurality of holes may be disposed in a spaced apart relation along the longitudinal length of the interior surface of the bracket. The holes may receive a fastener to secure the bracket to a support member of the wall.
Yet other aspects of the invention include a method of removably applying an architectural molding for a mud free joint between adjacent wall boards in a wall surface of a room. The method includes applying an elongate bracket having a V-shape interior surface defined along a longitudinal length of the bracket, an upturned latching end defined along first and second lateral sides of the interior surface, wherein the angle of the V-shape is dimensioned to correspond to a tapered edge surface extending along a longitudinal length of the adjacent wall boards. An apex of the elongate bracket may be positioned along the adjacent edges of the wall boards. A fastener may be installed through the bracket to secure the bracket to the wall.
The method includes providing a molding having a room facing surface, a wall facing surface, and lateral side surfaces; and an inwardly turned latch finger extending from an intermediate portion of the wall facing surface between the lateral side surfaces and a centerline of the molding. The molding may then be attached to the bracket wherein the upturned latching end of the wall bracket is secured in a snap-fit engagement with the latch finger defined in the molding to enclose the elongate bracket and conceal the tapered edge surface of the adjacent wall boards.
These and other features, aspects and advantages of the present invention will become better understood with reference to the following drawings, description and claims.
The following detailed description is of the best currently contemplated modes of carrying out exemplary embodiments of the invention. The description is not to be taken in a limiting sense, but is made merely for the purpose of illustrating the general principles of the invention, since the scope of the invention is best defined by the appended claims.
Broadly, an embodiment of the present invention provides a system for finishing the walls of a room without the need for drywall joint compound. The components of the system generally include a bracket and a molding cover. The bracket is applied along a seam between one or more adjacent wall, ceiling, and floor members. The molding cover is configured for a snap fit connection to the bracket member to provide a desired architectural finish to the seams within the room. The moldings and brackets are preferably formed by an extrusion of any suitable material.
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The floor base bracket member 31 has a plurality of holes 37 disposed in a spaced apart relation in a wall facing channel face formed along a longitudinal length of the floor bracket member 31. The holes 37 receive a fastener, such as a screw, nail, or the like, to secure the bracket assembly to the structural members along the base of the wall.
A floor base spacer 32 may be secured to the floor base bracket member 31 by a plurality of tabs, or pins 34 extending from a wall facing surface of the spacer 32. The tabs 34 are received through a plurality of holes (not shown) that are defined in a spaced apart relation along a room facing channel face of the bracket 31. The tabs 34 secure the floor base spacer 32 to the floor base bracket member 31. The floor base spacer 32 may include a plurality of grooves defined in a room facing surface of the spacer. The grooves form a plurality of extensions that are adapted for shock absorption for items that may strike the base molding assembly 30.
The floor base molding 30 may be formed so as to cover and substantially enclose the bracket 31. The top edge of the floor base molding 30 is provided with a finger 38 extending from a wall facing surface of the molding 30. The finger 38 extends so as to be positioned adjacent or in abutment with the wall surface. An arm 33 runs along the longitudinal of the base molding 30 subjacent to the finger 38. The arm 33 defines a channel along an interior surface of the base molding 30 and is adapted to receive the upper edge surface of the floor base bracket 31 so as to retain the upper portion of the base molding with the bracket 31.
A lower edge surface of the base molding 30 is defined with a latch 35 with a room facing protrusion extending from the latch 35. The protrusion is adapted to engage with the wall facing lip 36 of the bracket 31 to engage the base molding 30 in a snap-fit manner. A toe molding arm extends from a room facing surface of the molding 30 to define a toe molding along the longitudinal length of the base molding 30. The toe molding arm is shaped to conceal the wall facing lip 36 with and end thereof positioned adjacent to the floor.
The base molding 30 may also have a ledge formed at an upper portion of thereof that extends from the wall facing surface of the molding 30. The ledge is adapted to rest upon a top room facing edge of the spacer 32 and the face of the spacer may be positioned against the wall facing surface on the interior of the molding 30.
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The molding 40 has a substantially flat room facing surface with outwardly turned side facing surfaces 41. An inwardly turned edge of the side facing surfaces 41 are dimensioned so that they are in abutment with a flat surface of the wall board adjacent to the tapered edge section of the wall boards. A channel 48 may be defined in an interior surface of the side surfaces 41 to provide structural strength and a fulcrum for securing the molding 40 to the bracket 43.
A ridge 42 is formed and extends along a midline of the wall facing surface of the molding 40. The pair of opposed inwardly facing latch fingers 44 are formed along an intermediate line of the wall facing surface of the wall molding 40. The latch fingers 44 define an engagement channel 45 oriented towards the centerline of the molding 40. The upturned ends 46 of the bracket are adapted to be received by the engagement channel 45 of and the latch fingers 44 in a snap-fit arrangement to secure the wall molding 40 to the bracket 41.
The ridge 42 is dimensioned to contact the bracket 43 at the apex 47 with the molding 40 operatively attached to the bracket 43. The ridge 42 may be configured to impart a slight flexing moment to the molding 40 so that the latch fingers 44 maintain the molding 40 in a snug fitting arrangement with the bracket 41. A plurality of holes 49, seen in reference to
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Like the wall molding bracket 43, the ceiling beam bracket 73 has a pair of upturned arms 77 with a slightly hooked portion 75 defined along the longitudinal length of the bracket 73. The latch fingers 74 have protrusions adapted to engage with the hooked portion 75 of the upturned arms 77 to secure the beam molding to the bracket 73. The bracket 73 is provided with a plurality of spaced apart holes 76 to receive a fastener, such as a screw or a nail to secure the bracket 73 to a ceiling structural member. The beam molding 70 may define a cavity 72.
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As indicated, the architectural molding system of the present invention provides for a complete fitting to a room that may be applied to finish the seams between adjoining drywall panels without the use of a joint compound and the associated particulate hazards. According to the system of the present invention, the wall surfaces may also be treated, such as with paint, wall paper, or other treatments before architectural members of the present invention are installed. This will protect the moldings from being marred with paint or paste drippings.
To install the system, the room may first be fitted with the attachment brackets designed to the particular part of the room. The length of the brackets are cut to accommodate the respective corner components, whether a floor base pedestal or a corner capital and their associated supports. The brackets are secured to the structural members of the room with a fastener, such as a screw or a nail. Once the respective brackets have been installed, the associated moldings may be cut to length and snap fit to their corresponding brackets.
In the event that the room needs to be redecorated, the moldings may be removed from the brackets. The walls may then be retreated while again protecting the moldings from being damaged or marred by spillage or drippings. Once the wall treatment has been applied the moldings may be returned to the brackets. Similarly, if the interior of the walls need to be accessed for plumbing, ventilation, or wiring, the moldings and brackets may be removed and reutilized. The wall panels may be removed without significant destruction or demolition. In like manner, should a molding become damaged, particularly for the floor base moldings, it may be readily replaced without the need for carpentry and painting.
It should be understood, of course, that the foregoing relates to exemplary embodiments of the invention and that modifications may be made without departing from the spirit and scope of the invention as set forth in the following claims.
This application is a continuation of U.S. patent application Ser. No. 15/059,935 filed Mar. 3, 2016 the contents of which are herein incorporated by reference. This application also claims the benefit of priority of U.S. provisional application No. 62/127,615, filed Mar. 3, 2015 the contents of which are herein incorporated by reference.
Number | Date | Country | |
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62127615 | Mar 2015 | US |
Number | Date | Country | |
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Parent | 15059935 | Mar 2016 | US |
Child | 15728855 | US |