Moulding for building exterior and machine for cutting same

Abstract

A machine for cutting eavestrough into two segments. The machine has a guide plate and a pair of cutting wheels. The guide plate has an opening of a shape similar to that of the cross-section of the eavestrough but slightly larger so that as the eavestrough is fed through the opening, it is guided by the guide plate. The cutting wheels are positioned such that after the eavestrough exits from the opening, its bottom wall passes between the wheels where it is cut.

Description

FIELD OF THE INVENTION

This invention relates to moulding disposed beneath the roof, windows and doors of a building and more particularly to moulding composed of a length of eavestrough, a method of forming the moulding and to an apparatus for cutting the moulding from a length of eavestrough.

BACKGROUND OF THE INVENTION

A common feature of many buildings is a decorative crown moulding disposed beneath its eaves. The moulding is referred to variously as colonial trim, Victorian trim and frieze board depending on its design. The moulding is manufactured specifically for use as moulding and is generally relatively expensive.

I have invented moulding which is formed from lengths of eavestroughs. The means for forming the moulding is simple and straightforward and once formed, the moulding can be easily installed on the exterior of a building. The cost of such moulding is significantly less than that of conventional moulding yet is attractive and, like conventional moulding, enhances the appearance of a building. I have also invented a cutting machine for forming lengths of eavestrough into such moulding.

SUMMARY OF THE INVENTION

Briefly, the method of forming the moulding on the exterior of a building includes the following steps; first a longitudinally extending cut is formed in the bottom wall of a conventional eavestrough in order to separate the eavestrough into outer and inner segments. The outer segment is composed of the front wall and an outer portion of the bottom wall of the eavestrough while the inner segment is composed of the back wall of the eavestrough and a remaining inner portion of the bottom wall. The inner portion of the bottom wall is then positioned beneath the eaves or elsewhere on the exterior surface of a building such that the back wall projects outwardly from the exterior surface. The front wall of the eavestrough is then hung from the projecting end of the back wall so that it extends downwardly and inwardly toward the exterior surface of the building.

The apparatus for cutting the eavestrough includes a housing; a guide plate; and a pair of cutting wheels rotatably mounted to the housing. The guide plate has an opening of a shape similar to that of the cross-section of the eavestrough and is sufficiently large to permit the eavestrough to pass through it. However the opening is not large enough to permit significant lateral movement of the eavestrough. The cutting wheels are rotatable about parallel axes and each wheel has an outer cylindrical surface, oppositely facing side surfaces and a circular cutting edge at the intersection of the cylindrical surface and one of the side surfaces. The cutting wheels are positioned such that after the eavestrough exits from the opening in the guide plate, its bottom wall passes between the cutting edges with resulting formation of an elongated cut in the bottom wall.

DESCRIPTION OF THE DRAWINGS

The moulding, the method of forming the moulding and the cutting apparatus of my invention are described with reference to the accompanying drawings in which:

FIG. 1 is a perspective view of a conventional eavestrough or gutter and the location of cuts in it for forming the subject moulding;

FIG. 2 is a perspective view of the eavestrough of FIG. 1 after it has been cut;

FIG. 3 is a perspective view of one segment of the eavestrough illustrated in FIG. 2 in conjunction with eaves of a building;

FIG. 4 is a perspective view of all the segments illustrated in FIG. 2 in conjunction with the caves and overhanging roof of a building;

FIG. 5 is an side elevation of the segments of the eavestrough illustrated in FIG. 4;

FIG. 6 is a perspective of the machine for cutting the eavestrough;

FIG. 7 is a side elevation of the cutting machine together with a length of eavestrough in phantom lines;

FIG. 8 is a perspective view of the cutting machine in conjunction with a portion of an eavestrough; and

FIG. 9 is a front elevation of the cutting machine and a cross-section of an eavestrough.

Like reference characters refer to like parts throughout the description of the drawings.

DESCRIPTION OF PREFERRED METHODS AND EMBODIMENTS

With reference to FIG. 1, a conventional eavestrough or gutter, generally 10, has a bottom wall 12 and spaced apart upstanding back and front walls 14, 16, respectively. The front wall is visible from the exterior of the building and is usually provided with one or more curves 16a for aesthetic reasons. The upper portion of the front wall is folded inward at 16b and terminates at an upper edge or lip which is folded back on itself to form a loop 16c. The loop has an open mouth, generally 18 along the length of the front wall.

The back wall 14 of the eavestrough is usually nailed to a fascia of a building and is flat to ensure that it can be nailed or screwed firmly in place.

With reference to FIGS. 1 and 2, the bottom wall has a longitudinal cut 20 which separates the eavestrough into two segments, an outer segment, generally 22 which is composed of the front wall 16 and an outer cut portion 12a of the bottom wall and an inner segment, generally 26 which is composed of the back wall 14 and the remaining portion or inner cut portion 12b of the bottom wall.

The inner segment 26 can optionally be severed into one or more relatively short pieces by means of horizontal and vertical cuts 28, 30 respectively. The upper edge or lip 14a of the back wall is folded back on itself to form a loop 14b. Like loop 16c, loop 14b has an open mouth, generally 32 along the length of the back wall.

The inner segment of the eavestrough is attached beneath the caves of a building and projects outwardly from an exterior wall of the building. The outer segment is attached to the projecting end of the inner segment and the two segments combine to form the moulding of the invention. The inner segment can also be attached beneath the windowsills or lintels of a building. The steps for attaching the inner segment beneath the caves is described with reference to FIGS. 3 to 5. The same steps are followed when the inner segment is attached beneath the windowsills or lintels.

With reference first to FIG. 3, a panel 38 is first attached to the fascia 40 beneath the eaves 42 of an overhanging roof 44. The panel can be attached to the fascia by conventional means such as nails or screws. The inner segment 26 of the eavestrough is then rotated one quarter turn from the position illustrated in FIGS. 1 and 2 so that its inner cut portion 12b is adjacent to the front face 38a of the panel and its back wall 14 projects outward from the panel.

With reference to FIGS. 4 and 5, the outer segment is then attached to the inner segment by fitting loop 16c into loop 14b. The front wall of the outer segment will then extend downward and cover the inner segment and the panel. The inner out portion 12b should then be moved up or down on the panel until the outer cut portion 12a is adjacent to the lower edge 38b of the panel. The inner cut portion 12b is then attached to the panel by nails or screws after which the outer cut portion 12a is attached to the lower edge of the panel in order to immobilize the outer segment.

As illustrated in FIGS. 1 and 5, the longitudinal cut 20 made in the bottom wall of the eavestrough should be such that the width of the outer cut portion 12a is slightly greater than the thickness 38c of the panel. The outer segment will then completely cover the panel.

With reference to FIG. 6-8, the cutting machine of the invention, generally 50, includes a housing 52 to which a guide plate 54 is bolted. An opening 56 for sliding receipt of the eavestrough is formed in the guide plate. The opening is of a shape similar to that of the cross-section of the eavestrough but is slightly larger than the cross-section so that the eavestrough will advance through the opening with minimal lateral movement as it does so.

Two vertically spaced brackets 60, 62 are attached to the front wall of the guide plate and separate cutting wheels 64, 66 are rotatably attached to each bracket.

With reference to FIG. 9, the wheels rotate about axes 64a-64a, 66a-66a which are parallel to each other and to the bottom portion 56a of the opening which admits the bottom wall of the eavestrough. Cutting wheel 64 has an outer cylindrical surface 64a oppositely facing side surfaces 64b,c and a circular cutting edge 64d at the intersection of the cylindrical surface 64a and side surface 64c. Cutting wheel 66 has an identical construction. The cutting wheels are positioned such that as the eavestrough advances into contact with the wheels, its bottom wall passes between cutting edges 64d and 66b with resulting formation of a longitudinally extending cut in its bottom wall.

The cutting wheels are positioned such that cutting wheel 64 is above the bottom wall while cutting wheel 66 is below the bottom wall. The cutting edges 64d, 66h lie in the same imaginary plane 70-70.

It will be understood of course, that modifications can be made in the moulding and the method of forming the moulding of my invention without departing from the scope and purview of the invention as defined in the appended claims.

Claims

1. A cutting machine for cutting a bottom wall of an eavestrough including: a housing; a guide plate; and a pair of cutting wheels rotatably mounted to said housing, said guide plate having an opening of a shape similar to that of the cross-section of said eavestrough and sufficiently large to permit said eavestrough to pass therethrough with minimal lateral movement thereof, said cutting wheels being rotatable about parallel axes, each said cutting wheel having an outer cylindrical surface, oppositely facing side surfaces and a circular cutting edge at the intersection of said cylindrical surface and one said side surface, said cutting wheels being positioned such that after said eavestrough advances through said opening, its said bottom wall passes between said cutting edges with resulting formation of an elongated cut in said bottom wall.

2. The cutting machine of claim 1 wherein the bottom wall of said eavestrough is defined by lower and upper oppositely facing elongated surfaces, said cutting wheels being positioned such that the cylindrical surface of one said cutting wheel contacts said lower elongated surface while the cylindrical surfaces of the other said cutting wheel contacts the upper elongated surface.

3. The cutting machine of claim 1 wherein the cutting edges of both said cutting wheels lie in the same imaginary plane.

4. The cutting machine of claim 2 wherein the cutting edges of both said cutting wheels lie in the same imaginary plane.