Abstract:
The present invention provides a lath furring strip having improved water-resistant and insulation features. The lath furring strip has portions of the mounting leg height not exceeding 0.365 inches for proper plastering of a wall. The lath furring strip is integrated into other architectural structures such as reveals, expansion joints and window flange coverings. By integrating these structures with a lath furring strip having water proofing features, there is increased water proofing of the entire architectural structure. One or more moisture barriers can easily be applied to the wall or furring strips that prevents seepage of moisture from the stucco on the lath to a wall or framing. By using an improved lath furring strip, fewer penetrations are needed to secure the furring strip to a wall compared to securing a lath directly to a wall.

Description:
CROSS-REFERENCE TO RELATED APPLICATIONS 
     This continuation in part application claims the benefit of continuation in part patent application Ser. No. 13/455,046 now U.S. Pat. No. 8,646,234 filed on Apr. 24, 2012, which claims benefit of patent application Ser. No. 13/433,247 now U.S. Pat. No. 8,833,019 filed on Mar. 28, 2012, all of which are herein incorporated by reference. 
    
    
     FIELD OF THE INVENTION 
     This invention relates to lath furring strips. In particular, this invention relates to lath furring strips with improved water resistance and for accommodating insulation layers. 
     BACKGROUND OF THE INVENTION 
     The present invention is directed to overcoming problems associated with securing a lath to a sheathing (or a wall structure). In wall construction, plaster is generally applied to a flexible lath material instead of directly attaching the lath to a rigid structure, such as sheathing, because the current means of attaching a lath directly to a rigid structure can cause cracks. By applying plaster to a metal lath (which include structures such as welded wire, woven wire, and expanded metal lath), the plaster cracks less frequently than if compared to applying the plaster directly to the sheathing. The current method of fastening laths to sheathing is either with staples, nails or screws. Although a moisture barrier, such as building paper, can be placed between the lath and the sheathing, the moisture barrier must be penetrated by fasteners to secure the lath. This penetration creates holes which diminish the waterproofing features of the moisture barrier. When fasteners are driven into the sheathing, not only is the moisture barrier penetrated by the fastener, but often times the moisture barrier is torn by the lath, creating more possible water intrusion. Screw that press metal lath tear and cut the moisture barrier as they press the metal lath into the moisture barrier and sheathing. Since plaster is water absorbent, it can transmit water to more expensive and structurally important components of the building, such as the sheathing or the framing. 
     Lath furring strips are one way to reduce the number of penetrations into the moisture barrier because the lath is attached and secured to a furring strip, and not the sheathing or framing directly. An example of a lath furring strip is disclosed in U.S. Pat. No. 1,405,579 to Graham. This patent discloses placing a metal lath on a furring strip, which provides permanent spaces between the lath and the framing, which permits the ready application and attachment of continuous mesh reinforcements on a vertical stud. By using lath furring strips, fewer fasteners are needed to attach the furring strip to the sheathing, thus fewer penetrations are made into the moisture barrier. Furring strips have the added function of creating an air space between the sheathing and the lath, which serves the purpose of allowing the finishing material to key better, and creates insulation. 
     However, there are still problems with current lath furring strips. Although the use of furring strips reduces the number of holes in the moisture barrier compared to securing the lath to the moisture barrier directly, water can still seep into the sheathing and framing via the holes that were created by the furring strip fasteners. A problem with adding additional waterproofing layers to the furring strip is that any additional waterproofing on the furring strip would increase the profile height of the lath furring strip. For proper plastering of walls, the plaster thickness is commonly ⅞ of an inch, and the total height from the bottom of the furring strip cannot exceed ⅜ of an inch. However, one drawback of using a lath furring strip with a profile of less than ⅜ of an inch is that it may reduce the attachment strength on the furring strip where the lath is secured. This is due to the fact that an attachment hole, where a wire tie or clamp secures the lath to the furring strip, is situated on the mounting leg of a lath furring strip. The mounting leg is what gives most of the height to the lath furring strip. The attachment hole cannot be too large because the larger the attachment hole, the less metal there is between the outer edge of the attachment hole and the outer edge of the mounting leg. The less metal there is on this mounting leg, the more easily the lath can break off of the furring strip due to the small amount of metal holding the tie, lath, and mounting leg together. Although one might consider reducing the side of the attachment hole on the mounting leg, it takes skill insert wire ties through a lath and attachment hole, and reducing the size of the hole to leave more metal in between the attachment hole and the edge of the mounting leg would make it much more difficult for the practitioner to secure the lath to the mounting leg. 
     Additionally, some structures require increased insulation, and foam insulation on the outside of homes and buildings seems to be the current acceptable industry solution to the problems of new energy codes calling for higher R-values (a measure of thermal resistance used in the building and construction industry). Thermal bridging can be a major problem when structures are framed with metal studs because thermal bridging allows heat to pass through an insulating material via a conductive material that penetrates it. However, when lath is attached directly to foam insulation, there may be a lack of support because of the weight of the lath on the foam. Current methods use long fasteners, such as screws. These can be over three and one half inches long and puncture directly the thick foam insulation to secure the insulation to the framing. This attachment mechanism creates a potentially dangerous shear weight on the foam due to the weight of the plaster. Additionally, by using this method, there are as numerous penetrations in the weather resistant barriers behind the foam. Those penetrations have the potential for moisture intrusion into the building. When insulation is used as part of the furring strip assemblage, the height of the furring strip itself can be greater than ⅜ of an inches, but the distance from the lath to the insulation itself should be less than ⅜ of an inch for proper plastering of the wall. Currently there are no standardized three coat plaster systems that resolve the issues of thermal bridging, safe lath attachment, and penetration holes that reduce water resistance. 
     Therefore, there is a need for lath furring strips with properties that increase waterproofing without increasing the profile of the plaster thickness beyond ⅞ of an inch, and maintain mounting leg strength at the attachment site of the lath. Additionally, there is a need to integrally combine lath furring strips with other building structures to simplify construction and increase water proofing qualities of devices meant for the use plastering of walls. Finally, there is a need for lath furring strips that can resolve simultaneously the issues of thermal bridging, safe lath attachment, and problems relating to water resistive barrier penetrations. 
     SUMMARY OF THE INVENTION 
     In view of the foregoing, the present invention is directed to a lath furring strip and assembly of a lath furring system on a wall that allows for better waterproofing while maintaining mounting leg strength near a lath attachment hole and provide an area between the lath and furring strip for an insulating layer in some embodiments. 
     It is a purpose of the present invention to provide a low-profile lath furring strip that is more water resistant than currently available lath furring strips. The furring strip can be mounted onto the sheathing, framing or studding with a water resistive backing to reduce water seepage from the plaster to the wall, while maintaining a low height profile for proper plaster coating wall construction. 
     The present invention introduces such refinements. In a preferred embodiment, the invention comprises a lath furring strip that has a flexible elastic water resistive backing, such as a rubber sheet, on the bottom of the lath furring strip, which adheres or is secured to a moisture barrier such as building paper. The furring strip further comprises a mounting leg used to attach lath to furring strip. The total height from the top of the mounting leg to the bottom of the mounting plate (including all attachments to the base of the furring strip) is 0.365 inches or less. The mounting leg is hemmed such that there is additional metal between the edge of an attachment hole for a lath and the edge of the mounting leg. The fastener that attaches the wire lath to the furring strip can be a wire clip, a C ring, a wire tie, or other means to fasten a lath to a furring strip. The lath furring strip can also be incorporated into termination points, channel screeds, drips screeds and weep screeds to increase waterproofing material between a wall and plaster. 
     The rubber sheet can be fixed to the lath furring strip and has an adhesive coating, which may have a peelable layer, to temporarily secure the mounting plate on the furring strip to a solid barrier. A mounting device, such as a nail or screw, is inserted through the lath furring strip, to secure the furring strip to the sheathing or framing, and penetrates the moisture barrier. The furring strip may have pre-cut holes for mounting, or may have no mounting holes in its prefabrication embodiment, whereby the mounting holes are created with self-tapping screws or other mounting devices. The rubber backing on the furring strip aids in waterproofing because when the nail or screw that secures the furring strip to the sheathing applies pressure to the rubber backing, the rubber backing is squeezed such that it at least partially fills in any gaps that would normally allow water to seep through the mounting hole and building paper to the other side of the lath furring strip. This prevents water from seeping through any holes that were in the building paper and damaging more expensive structures such as sheathing, framing, or studding. 
     Incorporating a thick rubber sheet to the bottom of a lath furring strip increases waterproofing, but if a rubber sheet is too thick, such as 1/32, 1/16 or ⅛ of an inch, it would significantly raise the lath furring strip. This presents a problem because, the thicker the rubber sheet, the greater the height of the furring strip mounting leg. Preferably, the attachment hole is 5/16 of an inch for ease of a practitioner inserting an attachment device such as a wire tie. As the height of the lath furring strip increases with added layers such as rubber strips, the mounting legs must decrease to keep the overall height of the lath furring strip at or below 0.365 inches since the entire plastering thickness cannot exceed ⅞ of an inch. The lath furring strip can preferably be made from steel or other metals such as Galvanized steel or stainless steel. 
     In one embodiment of the present invention, the lath furring strip can be of different shapes, such as a shape that fits an inside corner, or a shape that fits an outside corner. The lath furring strip that fits an inside corner comprises two sides that mount against the solid barrier, such as sheathing, framing, wall, studding, or moisture barrier. Extending from each mounting plate is a mounting leg that is bent inward relative to the mounting plates of the lath furring strip. The lath is attached via attachment holes on the mounting legs. In the embodiment where the lath furring strip fits an outside corner, the furring strip has two plates that mount against the solid barrier or moisture barrier on sheathing. Extending from each mounting plate is a mounting leg that is bent outward relative to the mounting plates of the lath furring strip. The height of the furring strip from the base of the furring strip or the moisture barrier to the tip of the mounting leg, where the lath is attached, cannot exceed 0.365 inches. In the corner lath furring strip embodiments, the furring strip comprises a flexible elastic water resistant barrier, a first mounting plate for mounting said furring strip onto a solid barrier, a second mounting plate adjacent to, and substantially perpendicular to the first mounting plate, a mounting leg extending substantially perpendicular from the first mounting plate, a second mounting leg adjacent to, and substantially perpendicular to the second mounting plate, a first attachment hole for attaching lath to the furring strip to the first mounting leg, and a second attachment hole for attaching the lath to the second mounting leg. The first mounting plate is substantially parallel to the second mounting leg. The second mounting plate is substantially parallel to said first mounting leg. The first mounting plate is substantially perpendicular to said first mounting leg. The second mounting plate is substantially perpendicular to said second mounting leg. The mounting legs can either be bent inward (for use as an inside corner lath furring strip) or outward (for use as an outside corner lath furring strip) with respect to the mounting plates of the lath furring strip. 
     In another embodiment of the present invention, the lath furring strip can have a mounting leg of different shapes. By bending or curving the mounting leg, the height of the overall lath furring strip (including all flexible elastic water resistive barriers) can still remain at or under 0.365 inches. The advantage of a bent leg is that more metal can be between the attachment hole where the lath attaches to the lath furring strip, and the lengthwise edge of the mounting leg. In one embodiment with a bent mounting leg, the mounting leg can have a hairpin loop such that the leg is hemmed. In another embodiment of a bent mounting leg, the mounting leg can be bent such that the mounting leg has an additional extension leg that protrudes perpendicularly form the mounting leg. Preferably, the mounting leg and the extended part of the mounting leg are each equal to or less than 0.365 inches, and does not increase the total profile height of the lath furring strip to greater than 0.365 inches. Preferably, the size of the attachment hole for the lath is 5/16 of an inch. When a rubber backing is added to these furring strips, it raises the height of the furring strip. Since the height of the furring strip cannot exceed 0.365 inches, the height of the mounting leg must be reduced. Reducing the height of the mounting leg by bending the mounting leg in various configurations solves the problem increasing the amount of metal between the edge of the attachment hole and the edge of the mounting leg. 
     In another embodiment of the present invention, the flexible elastic water resistive barrier fits within a recessed area around the mounting hole, or if the mounting hole is not pre-punched, in an area that will become the mounting hole. This recessed area may be a continuous recessed area that runs substantially along the length of the furring strip, or the recessed area may be localized to just around where the mounting hole is or will be. The flexible elastic water resistive barrier can be a rubber gasket that is a long strip, which runs across a continuous recessed groove on the furring strip, or the flexible elastic water resistive barrier can be a small rubber gasket that fits within a punched-out area localized to the mounting hole area. The punched-out area can be circular or another shape where the gasket fits snugly within the recessed punched-out cavity. The gasket can have a pre-punched hole for a nail or screw to enter, or can be solid, and a hole will be made when a nail or screw pierces the gasket when it attached to the solid barrier. The advantage of a flexible elastic water resistive barrier in the recessed groove or cavity is that when these gaskets are squeezed due to the pressure caused by a nail or screw securing the lath furring to the sheathing or framing, the rubber fills in spaces in the mounting hole where water might have seeped into or out of, had there been no gasket. Preferably, the lath furring strip can have attachment holes on the mounting leg to attach the lath to the furring strip, as previously described. The mounting legs can have the same hemmed mounting legs as previously described to increase the strength of the mounting leg near the attachment holes. 
     In another embodiment of the present invention, the lath furring strips in the previously mentioned embodiments can be assembled with the lath and attached to sheathing and framing with termination points such as channel screeds or termination stops to form a lath and furring attachment system. The lath furring strip can be of the shape of any of the aspects previously mentioned aspects, and can have the flexible elastic water resistive barrier of any of the previously mentioned embodiments. In one embodiment, the lath and furring attachment system is comprised of a furring, a lath, and attachment device for securing the lath to the furring strip, a moisture barrier such as building paper, and another attachment device for securing the furring strip to a solid barrier such as sheathing or framing. The attachment device to attach the lath to the furring can be a tie (such as a wire tie, preferably 18 gauge), a clip, or C ring. A C ring may have the advantage of reducing the height profile of the assembled lath and furring system because wire ties have extensions that may protrude up through the plaster, while a C rings do not. 
     To apply plaster, an important aspect is the termination point. An effective method of achieving this termination is through a termination stop such as J-Moulding or Milcor, which is commonly used around windows or doors. J-Moulding provides a clean transition from stucco to an alternative surface. A channel screed can also be used in a lath furring system which creates a recessed reveal that offers an architectural accent while providing a control joint to help minimize cracking. A moisture barrier such as building paper can be placed in between the J-Moulding termination stop or channel screed and the sheathing. When termination points are added, this allows water to migrate through the furring system when installed at termination points above doors and windows. Preferably, in one embodiment, the moisture barrier can be layered such it lays on top of the termination stop but behind the furring strip. The channel screed or termination stop can also have the previously mentioned embodiments of the flexible elastic water resistive barrier incorporated into it. The termination stop and channel screed can be attached to the solid barrier via attachment devices such as screws or nails. The height of the furring strip from the tip of the mounting leg to the bottom of the furring strip used in this embodiment still is a maximum of 0.365 inches. Lath is attached to the furring strip via attachment holes on the mounting leg. The lath furring strips of this embodiment can be of any of the shape, and can have the waterproofing embodiments waterproofing embodiments previously described, or other embodiment with a flexible elastic water resistant barrier and bent mounting leg on a lath furring strip. 
     In another embodiment of the invention, a lath mounting device for mounting to a wall is comprised of a mounting leg, a first mounting plate and a second mounting plate. The first mounting plate has a front side and back side. The first mounting leg is formed at a substantially right angle to the front side of the first mounting plate and has at least one hole formed in the mounting leg for attaching lath. The second mounting plate is connected to the first mounting plate in a manner to permit the second mounting plate to be substantially parallel to the back side of the first mounting plate, the second mounting plate has a length greater than the first mounting plate. The second mounting plate has a terminal end that includes an angled leg that crosses the plane of the first mounting plate. The lath mounting device provides a unitary structure that creates two layers of plates to inhibit water penetration to the wall and also provides an angled leg formed with the device to channel water away at the bottom of the wall. 
     In another embodiment, the terminal end of the second mounting plate that includes an angled leg that crosses the plane of the first mounting plate creates weep screed that will prevent water from wicking up into the exterior plaster walls and also will allow water that may get into the walls to migrate out. This type of furring strip allows water to drip from the plaster on the outside of a wall by a window to drip down and away from the wall from an extension leg from the drip screed which is part of the lath furring strip. The weep screed has a longitudinal backing which is a second mounting plate that lies against a wall or sheathing, which is adjacent to the first mounting plate of the furring strip, forming a double layer of protection made from the furring strip material. A moisture barrier, such as building paper, adds another layer of protection by lying over the lath furring strip drip screed and over the mounting device, such as a screw, which secures the lath furring strip weep screed to the wall or sheathing. This moisture barrier adheres though an adhesive to the mounting plate of the lath furring strip such that water cannot seep up the furring strip to the holes creating by the mounting device, such as a screw. The maximum height from the backing of the lath furring strip weep screed mounting plate to the top of the mounting leg, which attaches the lath, is 0.365 inches, and to reduce the height of this mounting leg, embodiments, such as the ones previously described, may be employed. 
     In another embodiment, the terminal end of the second mounting plate that includes an angled leg that crosses the plane of the first mounting plate creates a drip screed that will prevent water from wicking up into the exterior plaster walls and also will allow water that may get into the walls to migrate out. This type of furring strip allows water to drip from the plaster on the outside of a wall by a window to drip down and away from the wall from an extension leg from the drip screed which is part of the lath furring strip. The drip screed has a longitudinal backing that lies against a wall or sheathing, which is adjacent to the first mounting plate of the furring strip, forming a double layer of protection made from the furring strip material. A moisture barrier, such as building paper, adds another layer of protection by lying over the lath furring strip drip screed and over the mounting device, such as a screw, which secures the lath furring strip drip screed to the wall or sheathing. This moisture barrier adheres though an adhesive to the first mounting plate of the lath furring strip such that water cannot seep up the furring strip to the holes creating by the mounting device, such as a screw. The maximum height from the backing of the lath furring strip drip screed mounting plate to the top of the mounting leg, which attaches the lath, is 0.365 inches, and to reduce the height of this mounting leg, embodiments, such as the ones previously described, may be employed. 
     In another embodiment, the terminal end of the second mounting plate that includes an angled leg that crosses the plane of the first mounting plate. The angled leg is substantially at a 90 degree angle from the second mounting plate and extends beyond the mounting leg. This angled leg has an additional bend that is substantially parallel to both the first and second mounting plates, which creates a termination stop. The two mounting plates provide an additional layer of furring material between the lath and the wall or sheathing. A screw, nail, or other mounting device secures the lath furring strip termination stop to the wall. Preferably, a moisture barrier, such as building paper is placed on top of the first mounting plate of the furring strip closest to the lath, and covers the mounting device such that water cannot enter the a hole created by the mounting device into the wall or sheathing. The moisture barrier preferably has an adhesive that secures the moisture barrier to the top of first mounting plate nearest the mounting leg to prevent any water from the lath to get in between the moisture barrier and the hole created by the mounting device. The maximum height from the back of the second mounting plate to the top of the mounting leg, which attaches the lath, is 0.365 inches, and to reduce the height of this mounting leg, embodiments that reduce the height of the mounting leg, such as the ones previously described, may be employed. The termination stop furring strip preferably has a total profile height of ⅞ of an inch from the mounting plate against the wall to the end of the termination stop leg. 
     In another embodiment of the invention, the lath furring strip is integral with a decorative metal trim, commonly referred to as a “reveal” that is used in construction of structures that will have a plaster exterior finish. Architects may specify that at various points on a wall that a reveal should be incorporated with lath furring strip to change the aesthetics of the plaster finish. In this unique embodiment, the lath furring strip will preferably incorporate lath furring at a consistent three eighths of an inch and may provide openings every three and one quarter inches on the lath mounting leg for the wire tie method of lath attachment. The lath furring strip is installed to the wall or framing by fasteners, such as self-tapping screws, that secure mounting plates to a wall or framing covered by a moisture barrier, such as waterproof building paper. This embodiment has bottom mounting plates on each side of the reveal. The bottom side of the mounting plates attach to the wall or framing and form a bottom mounting plane against the wall. On top of each bottom mounting plate is a parallel top mounting plate, connected through a bend between the top and bottom mounting plates, forming a dual layer mounting plate on each side of the reveal. The reveal can preferably have triangular shaped protrusions, extending beyond the plane formed by the attached lath. Between the two triangular shaped protrusions is a recessed region that acts as part of the decorative trim. The embodiment may further have the flexible elastic water resistive backing on the furring strip to prevent moisture from seeping through holes created by the fastening device previously described, which can preferably be 1/32, 1/16, or ⅛ of an inch. This embodiment can also have the hemmed mounting legs to increase the amount of metal between the attachment holes on the mounting leg and the edge of the mounting leg to increase the stability of the structure between the attachment hole and the mounting leg edge. The lath furring strip has mounting legs with holes such that lath can be attached to this embodiment via a wire tie or other attachment device. The height of the lath furring strip from the bottom mounting planes of the furring strip to the top of the mounting legs is preferably 0.365 inches or less so that the lath can be at a consistent ⅜ of an inch from the wall or framing. 
     In still a further embodiment of the lath furring strip reveal, a moisture barrier can preferably be installed over the fasteners, and over the top mounting plates. This process will eliminate all of the penetrations in the moisture barrier secured by the lath. This process will eliminate the need for additional layers of moisture barriers that would be required around other types of decorative metal trim. 
     In another embodiment, the lath furring strip is a two-piece expansion joint used in construction of structures that will have a plaster finish on the exterior. Since construction codes call for plaster-finished exteriors to have expansion joints at specific intervals, this embodiment allows for the expansion and contraction of materials due to temperature changes. In this unique embodiment, each expansion joint is integral with a lath furring strip. This embodiment has two separate pieces, each piece can secure lath via an attachment device such as a wire tie, through holes on mounting legs. Each of the expansion joints can be secured to a wall or framing through via mounting devices such as screws, self-tapping screws, or nails. The two-piece expansion joint can be installed to provide a variable size to the expansion joint width depending on the width the architect would specify in the plans. In the first expansion joint, there are a is a bottom mounting plate and a top mounting plate, forming a dual layer mounting plate where the plates are substantially parallel to each other. The bottom side of the mounting plates attach to the wall or framing and form a bottom mounting plane against the wall. The dual layer mounting plates can be secured to a wall or framing by the use of a screw or nail. Extending substantially perpendicular from the top mounting plate is a mounting leg, which has holes for securing lath to the first expansion joint. The bottom mounting plate extends past the mounting leg to a distance such that the second expansion joint can overlap the first expansion joint. As the bottom mounting plate extends past the mounting leg, it bends to form a horizontal termination leg, which is parallel to the bottom mounting plate, forming a dual layered bottom mounting plate and horizontal termination leg. Extending substantially perpendicular from the horizontal termination leg is a vertical termination leg, extending preferably seven eighths of an inch. Extending substantially perpendicular from the vertical termination leg is a termination flange. 
     A second expansion joint can be placed over the first expansion joint such that the horizontal termination leg of the second expansion joint is on top of the horizontal termination leg of the first expansion joint. The second expansion joint is able to sit flush with the first expansion joint because the second horizontal termination leg is raised compared to the horizontal termination leg on the first expansion joint. This raised horizontal termination leg is achieved through a flared region on the bottom mounting plate on the second expansion joint. The bottom side of the mounting plate attaches to the wall or framing and form a bottom mounting plane against the wall. The flare extends away from the plane of the wall when the furring strip secured, creating a space for the first expansion joint to fit under the second expansion joint. This design is unique in that it provides a pre-tensioned bend in the metal to allow for a tight seal when the expansion joints are secured to a wall or framing with a lath furring strip. This greatly improves moisture intrusion protection. Parallel and on top of the bottom mounting plate on the second expansion joint is a top mounting plate formed by a bend between the top and bottom mounting plates. Extending substantially perpendicular from the top mounting plate is a mounting leg for attaching lath. The second expansion joint is secured to a wall or framing via a mounting device such as a screw, self-tapping screw, or nail. Preferably, between the wall and the two-piece expansion joint is a moisture barrier. Preferably, a water barrier will be installed over the fasteners that secure the expansion joints to the wall to eliminate all of the penetrations in the moisture barrier around the expansion joints. Preferably, the distance from the bottom mounting planes to the top of each mounting leg that secures the lath through attachment holes is 0.365 inches or less so that lath can be incorporated a consistent ⅜ of an inch from the wall or framing. This embodiment may further have the flexible elastic water resistive backing on the expansion joints, which can preferably be 1/32, 1/16, or ⅛ of an inch, to prevent moisture from seeping through holes created by the fastening device previously described. This embodiment may also have the hemmed mounting legs to increase the amount of metal between the attachment holes on the mounting legs and the edge of the mounting leg to increase the stability of the structure between the attachment holes and the mounting leg edges. 
     In another embodiment of the invention, a lath furring strip is incorporated with a window furring strip. This embodiment is for use around windows constructed with plaster depth grounds incorporated in the window design from the manufacturer. The furring strip has a bottom mounting plate which is parallel and integral with a top mounting plate, formed by a bend between the two mounting plates. Extending substantially perpendicular is a mounting leg for securing lath to the mounting leg via a hole on the mounting leg. Preferably, the distance from the plane formed by the bottom of the bottom mounting plate and the top of the mounting leg is not greater than 0.365 inches so that lath can be secured at a uniform ⅜ of an inch from the wall or framing. This embodiment is unique in that it designed to have a pre-tensioned shape in the metal or the strip to allow the embodiment to seal tightly against the window flange and also has a water resistant lath furring strip, which prevents water from penetrating the wall or framing. Preferably, a moisture barrier is placed on top of the top mounting plate and on top of the fastening device, which eliminates any moisture barrier penetration around the window and the need for additional water barrier product, such as Biuthane or rubber to be layered into the window flashing. Extending from the bottom mounting plate is a flared region that angles away form the plane of the bottom mounting plate. Extending from this flared region is a flashing plate. The combination of the flare and the flashing plate creates a space such that the flashing plate can lay on top of the window flange. When the furring strip is secured to the wall or framing, the flashing plate of the furring strip is pressed against the window flashing, creating a more waterproof barrier between the two. Preferably, the bottom mounting plate can have a flexible elastic barrier to improve water resistance, which can preferably be 1/32, 1/16, or ⅛ of an inch, and can prevent water from seeping from the plaster into the wall or framing. Preferably, a moisture barrier may be placed on top the top mounting plate such that any hold created by the screw or other mounting device the secured the furring strip to the wall is covered. Preferably, the mounting leg can be a hemmed mounting leg such that more metal is between any attachment hole on the mounting leg and the edge of the mounting leg. 
     In another embodiment of the invention, there is provided a space on the furring strip such that an insulation layer such as foam can be placed between the lath and the furring strip. Only the furring strip, and not the insulation is penetrated to secure it to a wall. This feature decreases the number of holes that penetrates into a wall, thus improving water resistance, as well as eliminates excessive sheer weight on the insulation, since the lath is attached to the furring strip and not the insulation directly. In this embodiment, the furring strip has a bottom mounting plate having an interior side that is substantially planar and the interior side is used for placement substantially flush against the wall. The lath furring strip also has a bottom mounting plate having an exterior side that is substantially planer. The top bottom mounting plate and the top mounting plate are substantially parallel to each other and secured together in a manner that maintains a gap between them. The insulation is positioned against the exterior side of the top mounting plate. A mounting leg is secured to, and extends substantially perpendicular from the stop mounting plate and also passes though the insulation. The mounting leg has at least one attachment hole for securing the lath the furring strip. This positioning of the insulation layer between the lath and the mounting plates allows only the penetration of the furring strip and not the insulation later. This protects against water intrusion between the insulation layer is not penetrated and also protects against thermal bridging. In one embodiment, the distance from the top vertical edge of the mounting leg to the attachment hole is not greater than 0.365 inches such that when the insulation is placed between lath and the furring strip, the distance from the top of the insulation to the lath does not exceed 0.365 inches. This distance ensures proper keying of the plaster. 
     In one embodiment of a lath furring strip for use with an insulation layer, the lath furring strip is designed to be placed over a window flange to better protect against water intrusion from around window. There is provided a flared extension extending angularly from the bottom mounting plate to accommodate the thickness of the window flange. From this flared extension is provided a flashing plate that is substantially planar and is placed substantially flush against a window flange. The flashing plate extends from the flare extension. This design allows for the furring strip to seal tightly against a window flange providing superior moisture protection. 
     In another embodiment of a lath furring strip for use with an insulation layer, the lath furring strip is integrated with a drip screed. The drip screed has a drip screed leg extending obtusely and contiguous with the lath furring strip bottom mounting plate. In this embodiment, any water from the plaster would drip down and drip away from the wall since the drip screed leg protrudes away from the wall. 
     In another embodiment of a lath furring strip for use with an insulation layer, the lath furring strip is integrated with a weep screed leg. The weep screed has a first weep screed leg extending away from the bottom mounting plate at an obtuse angle. There is provided a second weep screed leg which is contiguous with the first weep screed leg, which extends acutely from the first weep screed leg. The weep screed forms an open triangular-like shape, with the open part facing toward the wall when the furring strip is installed substantially flush against the wall. There may be provided an extension plate extending angularly from the second weep screed leg for placement of the extension plate substantially flush against the wall. This embodiment prevents water from wicking up into the exterior plaster wall, and also allows water that may get into the walls to migrate out, and has the additional features of allowing enough space to place an insulation layer between the lath and the to mounting plate of the furring strip. 
     In another embodiment of a lath furring strip for use with an insulation layer, the lath furring strip is integrated with a termination stop. The termination stop has a termination stop leg which extends substantially perpendicular to the bottom mounting plate, and substantially parallel to the mounting leg. The termination stop leg has a greater length than the mounting leg. There may be provided a termination stop leg extension which is substantially perpendicular to the termination stop leg. This provides an effective method of achieving stop points commonly used around windows or doors. 
     In another embodiment, the lath furring strip for use with an insulation layer can be designed for use around an outside corner of a wall. There is provided a first mounting plate having an interior side that is substantially planar, for placement substantially flush against the wall and an exterior side for placement of the insulation layer. There is also a second mounting plate having an interior side that is substantially planar, which has an interior side for placement substantially flush against the wall and a second exterior side for placement of the insulation layer. The second mounting plate is substantially perpendicular to the first mounting plate. This lath furring strip also has a first mounting leg extending angularly from the first mounting plate which has a first attachment hole for attaching lath. There is provided a second mounting leg extending angularly from the second mounting plate, which has a second attachment hole for attaching lath. The first and second mounting leg and second mounting leg are secured to each other. The insulation layer is positioned against the first and second exterior sides of the first and second mounting plates. There may be provided a top edge connecting the first and second mounting legs and the distance between the first and second attachment holes to the top edge is not greater than 0.365 inches. The first mounting leg may be obtusely angled from the first mounting plate and the second mounting leg may be angled obtusely from the second mounting plate. This arrangement for superior insulation and moisture protection when the insulation layer is placed between the mounting plates the lath because the only penetration into a wall is a screw or other attachment device that penetrates the furring strip and not the insulation layer itself. 
     In another embodiment of a lath furring strip for use with an insulation layer, a flexible elastic water resistive barrier fits within a recessed area on a mounting plate. There is provided a mounting plate having an interior side that is substantially planer, and the interior side has a recessed groove for placement of a flexible elastic barrier. The mounting plate also has an exterior side. A mounting leg is secured to and extends substantially perpendicular form the mounting plate. An insulation layer is positioned against the exterior side of the mounting plate and the mounting leg passes through the insulation. The recessed groove may run substantially across the length of the mounting plate. The mounting leg may have a top vertical edge and the distance between the attachment hole and the top vertical edge is not greater than 0.365 inches. The advantage of a flexible elastic water resistive barrier in the recessed groove is that when gaskets (i.e. the flexible elastic water resistive barrier) are squeezed due to the pressure caused by a nail or screw securing a furring strip to the wall, the elastic fills in spaces in the mounting hole where water might have seeped into or out of, had there been no gasket. 
    
    
     
       BRIEF DESCRIPTION OF THE DRAWINGS 
       The above and various other objects and advantages of the invention will be described and understood from the following description of the preferred embodiments of the invention, the same being illustrated in the accompanying drawing. 
         FIG. 1   a  is a side elevation view of a lath furring strip with a rubber backing, and a single mounting leg. 
         FIG. 1   b  is a perspective view of a lath furring strip having a rubber backing. 
         FIG. 2   a  is a side elevation view an inside corner lath furring strip having a rubber backing. 
         FIG. 2   b  is a perspective view of an outside corner lath furring strip. 
         FIG. 3   a  is a side elevation view of outside corner lath furring strip. 
         FIG. 3   b  is a perspective view of an outside corner lath furring strip. 
         FIG. 4   a  is a side elevation view of a lath furring strip having a hemmed mounting leg. 
         FIG. 4   b  is a perspective view of a lath furring strip having a hemmed mounting leg. 
         FIG. 4   c  is a side elevation view of a lath furring strip having a bent mounting leg. 
         FIG. 4   d  is a perspective view of a lath furring strip having a bent mounting leg. 
         FIG. 5   a  is a side elevation view of a lath furring strip having a continuous recess for a rubber gasket. 
         FIG. 5   b  is a perspective view of a lath furring strip having a continuous recess for a rubber gasket. 
         FIG. 6   a  is a sectional view of a lath furring strip having punched holes with rubber gasket inserts. 
         FIG. 6   b  is a side elevation view of a lath furring strip having punched holes with rubber gasket inserts. 
         FIG. 6   c  is a perspective view of a lath furring strip having punched holes with rubber gasket inserts. 
         FIG. 7  is a side elevation view of an assembled lath and lath furring strip mounted to a sheathing and framing. 
         FIG. 8  is a side elevation view of an assembled lath and lath furring strip mounted to a sheathing and framing with overlapping waterproof paper. 
         FIG. 9   a  is a side elevation view of a furring strip integrated with a weep screed. 
         FIG. 9   b  is a side elevation view of a furring strip integrated with a weep screed and with an assembled lath and mounting screw. 
         FIG. 10   a  is a side elevation view furring strip integrated with a termination stop. 
         FIG. 10   b  is a side elevation view of a furring strip integrated with a termination stop and assembled lath and mounting screw. 
         FIG. 11   a  is a side elevation view of a furring strip integrated with a drip screed. 
         FIG. 11   b  is a side elevation view of a furring strip integrated with a drip screed and assembled lath and mounting screw. 
         FIG. 12   a  is a side elevation view of a reveal furring strip. 
         FIG. 12   b  is a side elevation view of a reveal furring strip assembled with a lath and moisture barrier. 
         FIG. 13   a  is a side elevation view of a two-piece expansion joint furring strip. 
         FIG. 13   b  is a side elevation view of a two-piece expansion joint furring strip assembled with a lath and moisture barrier. 
         FIG. 14   a  is a side elevation view of a window furring strip. 
         FIG. 14   b  is a side elevation view of a window furring strip assembled with a lath and moisture barrier. 
         FIG. 15   a  is a side elevation view of a furring strip integrated with a weep screed for foam installation. 
         FIG. 15   b  is a side elevation view of a furring strip integrated with a weep screed and with an assembled lath and mounting screw for foam insulation. 
         FIG. 16   a  is a side elevation view of a furring strip integrated with a drip screed for foam insulation. 
         FIG. 16   b  is a side elevation view of a furring strip integrated with a drip screed and assembled lath and mounting screw for foam insulation. 
         FIG. 17   a  is a side elevation view furring strip integrated with a termination stop for foam insulation. 
         FIG. 17   b  is a side elevation view of a furring strip integrated with a termination stop and assembled lath and mounting screw for foam insulation. 
         FIG. 18   a  is a side elevation view of a lath furring strip having a continuous recess for a rubber gasket for foam insulation. 
         FIG. 18   b  is a perspective view of a lath furring strip having a continuous recess for a rubber gasket for foam insulation. 
         FIG. 18   c  is a side elevation view of a lath furring strip having a continuous recess for a rubber gasket assembled with a lath and mounting screw for foam insulation. 
         FIG. 19   a  is a side elevation view of an outside corner lath furring strip. 
         FIG. 19   b  is a side elevation view of an outside corner lath furring strip assembled with a lath and mounting screw for foam insulation. 
         FIG. 20   a  is a side elevation view of a window furring strip for foam insulation. 
         FIG. 20   b  is a side elevation view of a window furring strip assembled with a lath and moisture barrier for foam insulation. 
     
    
    
     DETAILED DESCRIPTION OF THE INVENTION 
     The following description is of the best-contemplated mode of carrying out the invention. This description is made for the purpose of illustrating the general principles of the invention and should not be taken in a limiting sense. The scope of the invention is best determined by reference to the appended claims. Preferable embodiments of the present invention are described with reference to the  FIGS. 1-20 .  FIG. 1 ,  FIG. 5 , and  FIG. 6  show various embodiments of increasing the waterproofing characteristics of the lath furring strip.  FIG. 2 ,  FIG. 3 , and  FIG. 4  show various embodiments of the shape of the lath furring strip without any waterproofing elements, but can incorporate the waterproofing elements of the embodiments in any other figure.  FIG. 7  and  FIG. 8  show various embodiments of how the lath furring strip and lath are assembled, and may incorporate any of the waterproofing or lath shapes in any of other figures.  FIG. 9 ,  FIG. 10 ,  FIG. 11 ,  FIG. 12 ,  FIG. 13 , and  FIG. 14  show various embodiments of integrating a lath furring strip with termination stops, screeds, such as weep screed and drip screed, window furring, reveal trims, and two-piece expansion joints.  FIG. 15 ,  FIG. 16 ,  FIG. 17 ,  FIG. 18 ,  FIG. 19 , and  FIG. 20  show various embodiments of integrating a lath furring strip in weep screeds, window heads, window stops, and O/S corners when insulation, such as foam insulation needs to be placed between the sheathing and the lath. These embodiments can be combined with other embodiments described below. 
       FIG. 1   a  and  FIG. 1   b  depict a lath furring strip  10  which has a mounting plate  20  and a mounting leg  2 , which is substantially perpendicular to the mounting plate  20 . On the bottom  22  of the mounting plate  20  is a flexible elastic water resistive barrier  6  such as a rubber sheet, fixed to the bottom side  22  of the furring strip  10 . The height of the lath furring strip  10  from the bottom of the flexible elastic resistive barrier  6  to the top of the mounting leg  12  does not exceed 0.365 inches. The mounting side  20  has a top side  16  and a bottom side  22 . A mounting hole  8  traverses the mounting plate  20  and goes through the top side  16  to the bottom side  22 . A nail or screw can be inserted into the mounting hole  8  to secure the lath furring strip  10  to the solid barrier, such as sheathing, framing, studding, or wall, and may attach to a solid barrier through an intermediary moisture barrier, such as a building paper. The mounting hole can also be created by the use of self tapping screws. The mounting leg  2 , where the lath is attached, may attach attaches via a clip, wire tie, C ring, or other means of securing a lath to the attachment hole  14 . The attachment hole may span both the mounting plate  20  and mounting leg  2 . The mounting leg  2  is integral with lath furring strip  10  and created by a bend  4  that forms a substantially perpendicular mounting leg  2  relative to the mounting plate  20 . The flexible elastic water resistive barrier  6  may have an adhesive coating on the bottom of the flexible elastic water resistive barrier  6  such that the furring strip  10  can adhere to a solid barrier or moisture barrier. 
       FIG. 2   a  and  FIG. 2   b  show two views of an example of a furring strip  30  used for an inside corner of a wall. A first side  32  of the furring strip  30  has a mounting hole  36 . A screw or nail can be used to secure the first mounting plate  32  to a solid barrier such as a wall, sheathing, or framing, which has corner, and may attach to the solid barrier through an intermediary moisture barrier, such as building paper. A second mounting plate  34  of the furring strip  30  also has a second mounting hole  38  and is secured to a solid barrier. The corner  58  of the furring strip  30  nestles into the corner of the structure which the furring strip  30  attaches to. The furring strip  30  has a first mounting leg  40  and a second mounting leg  54 , which are each equal or less than 0.365 inches from the top of the mounting leg  46  to the bottom of the first mounting plate  32  or second mounting plate  34  of furring strip  30 . An attachment hole  60  on the first mounting plate  32  and an attachment hole  52  on the second mounting plate are used to attach a lath to the furring strip via a wire tie, clip or C ring. The attachment hole  60  may span both the first mounting plate  32  and the first mounting leg  40  through the corner  44  of the first mounting plate  32  and first mounting leg  40 . Similarly, the attachment hole  52  on the second mounting plate  34  may span the corner  56  of the second mounting plate  34  to the second mounting leg  54 . In a cross sectional view of the furring strip  30 , the furring strip  30  forms an open square-like structure as shown in  FIG. 2   a , where the first mounting plate  32  and the second mounting plate  34  are two sides of the open square, with the corner  58  between these two mounting plates  32 ,  34 . The first mounting side  32  and the first mounting leg  40  are at substantially a right angle to each other, and meet via a corner  42 . The second mounting plate  34  and second mounting leg  54  are substantially at a right angle to each other and meet via a corner  56 . A lath can take the cornering shape of the furring strip  30  by attaching a lath that is perpendicular to the mounting legs  40 ,  54 , and parallel to the two mounting plates  32 ,  34  via attachment devices that connect the lath to the attachment holes  52 ,  60 . The furring strip  30  can have a flexible elastic waterproof barrier as shown in  FIG. 1 ,  FIG. 5 ,  FIG. 6 , or other type of flexible elastic water resistive barrier. 
       FIG. 3   a  and  FIG. 3   b  show two views of an example of a furring strip  70  meant for use on an outside corner of a wall. A first mounting plate  76  of the furring strip  70  has a mounting hole  80  where a screw or nail can be inserted and secures the furring strip  70  to a solid barrier such as a sheathing, framing, or wall. A mounting hole  82  on a second mounting plate  74  secures the furring strip  70  to a solid barrier on an outside corner. The corner  88  of the furring strip  70  nestles in the corner of a wall for attachment. Extending from the first mounting plate  74  and the second mounting plate  76  are a first mounting leg  78  and a second mounting leg  72 , respectively. The first mounting leg  78  is substantially perpendicular to the first mounting plate  76  and meet at a corner  98 . The second mounting leg  72  is substantially perpendicular to the second mounting plate  74  and meet at a corner  96 . The height of furring strip  70  from the tip  92  of the first mounting leg  78  to the base of the first mounting plate  76  is equal to or less than 0.365 inches. Likewise, height from the tip  94  of the second mounting leg  72  to the base of the second mounting plate  74  is also equal to or less than 0.365 inches. An attachment hole  86  secures a lath to the furring strip  70 , and this attachment hole  86  may span both the first mounting side  76  and first mounting leg  78 . Another attachment hole  84  secures a lath the furring strip  70 , and this attachment hole  84  may span both the second mounting plate  74  and second mounting leg  72 . The first and second mounting plates  74 ,  76  can have the flexible elastic waterproof barriers as depicted in  FIG. 1 ,  FIG. 5 ,  FIG. 6 , or other embodiments of a flexible elastic waterproof barrier. 
       FIG. 4   a  and  FIG. 4   b  are two views of another embodiment of a furring strip  100 . In this embodiment, the mounting leg  122  is hemmed, such that it is bent on an edge  102 . The height from the bottom  114  of the furring strip  100  to the top of the bent edge  102  is no greater than 0.365 inches. This bend forms a hairpin loop  104  with an opening  106 , which increases the amount of total furring strip material from the attachment hole  124  to the edge of the mounting leg  122 . The furring strip  100  has a mounting hole  188  within the mounting plate  120 . A screw, nail, or other attachment device secures the furring strip  100  to a solid barrier, such as sheathing, framing, or wall. On top of this solid barrier there may be a moisture barrier such as building paper. The mounting plate  120  can have a flexible elastic water resistive barrier  116  on the bottom  114  of the mounting plate  120 , or can have flexible elastic water resistive barriers of other embodiments as depicted in  FIG. 1 ,  FIG. 5 ,  FIG. 6 , or other embodiments. The feature of a hemmed mounting leg  122  in  FIG. 4   b  increases the strength of the mounting leg  122  because of additional furring strip material between the attachment hole  124  and the edge of the mounting leg  122 . The furring strip  100  has an attachment hole  124  for attaching a lath to the furring strip  100 . 
       FIG. 4   c  and  FIG. 4   d  depict another embodiment of a furring strip  110  that increases the total amount of furring strip  110  material (such as steel or stainless steel) that is on the mounting leg  142 . The mounting leg  142  can be bent perpendicularly to make an edge  140 , such that the extension leg  138  of the mounting leg  142  is no longer than 0.365 inches, and the mounting leg  142  with the attachment hole  126  is also no longer than 0.365 inches. The attachment hole  126  may span the mounting plate  144  through a corner  134  that is formed between the mounting leg  142  and the mounting plate  144 . The total height from bottom  130  of the mounting plate  144  to the top of the extension leg  138  is no greater than 0.365 inches. The furring strip  110  may incorporate various embodiments of a flexible elastic water resistive barrier such as the embodiments depicted in  FIG. 1 ,  FIG. 5 ,  FIG. 6  or other embodiment of a flexible elastic waterproof barrier on a furring strip. 
       FIG. 5   a  and  FIG. 5   b  illustrate two views of a furring strip  150  with a recessed groove  154  for a rubber gasket  152 . The recessed groove  154  allows flexible elastic water resistive barrier, such as a rubber gasket  152  to line a mounting hole  168  without increasing the overall height of the furring strip  150 , such that the distance from the bottom side  172  of the mounting plate  164  to the tip  174  of the mounting leg  170  does not exceed 0.365 inches. The recessed groove  154  can be within the bottom side  172  of mounting plate  164  of the furring strip  150 . The top surface  178  of the mounting plate  164 , which has a mounting hole  168  can be raised out to provide a thickness of the recessed area of the furring strip  150  material equal to the thickness of the furring strip  150  material through the rest of the mounting plate  164 . The recessed groove  154  can be implemented in other designs of furring strips, such as the ones illustrated in  FIG. 2 ,  FIG. 3 , or  FIG. 4 . The recessed groove  154  can have a variety of shapes that enable it to fit a rubber gasket  152 . A first side  156  of the recessed groove  154  can be angled towards a mounting hole  168 , forming an obtuse angle from the bottom side  172  of the furring strip  150  towards the mounting hole  168 , and a second side  158  of the recessed groove  154 , which is closer to the mounting leg  170  also forms an obtuse angle from the bottom side  172  of the mounting plate  164  towards the mounting hole  168 . The top surface of the recessed groove  154  can be flat with no angles such that it fits a rubber gasket  152  with a flat top side. The recessed groove  154  can also be of other shapes that fit differently shaped gaskets. 
     In another embodiment, the recessed groove can be angled from the bottom side  172  of the mounting plate  164  such that a first side of the flare  160  closest to the mounting leg  170 , and the recessed groove closest to the non-raised portion  162  of the furring strip  150 , both recess in a perpendicular fashion in relation to the bottom side  172  of the mounting plate  164  before being angled in toward each other. A nail or screw attaches the furring strip  150  to a solid barrier such as a sheathing, wall, or framing by securing the furring strip  150  through via the mounting device through the mounting hole  168 . The furring strip  150  also has an attachment hole  173  to secure the lath to the furring strip  150 . 
       FIG. 6   a ,  FIG. 6   b , and  FIG. 6   c  illustrate three views of a furring strip  180  with punched holes  196  for a rubber gasket  198 . This feature enables the furring strip  180  to have an flexible elastic water resistive barrier nestled within the furring strip  180 , but does not add any height to the furring strip  180 , such that the height from the tip  182  of the mounting leg  184  to the bottom of the bottom of the mounting plate  188  does not exceed 0.365 inches. The furring strip  180  is secured to a solid barrier such as sheathing, framing, or a wall via a screw or nail that goes through the mounting hole  196  and rubber gasket  198 . The rubber gasket  198  can have a hole  200  within it, such that the nail or screw can pass through the mounting side  190  more easily. The top of the mounting plate  192  can have a raised region  194  on top of the recessed cavity  202  which contains the mounting hole  196 , such that the thickness of mounting plate  190  around the recessed cavity  202  is equal to the thickness of mounting plate  190  in the raised regions. The mounting leg  184  is substantially perpendicular to the mounting plate  190  and meet at a corner  186 . The rubber gasket  198  can have circular shape, or other shape that can fit sit inside the recessed cavity  202 . The furring strip  180  has an attachment hole  203  to secure a lath to the furring may be on the mounting leg  184 . The recessed cavity  202  embodiments can be utilized in other furring shapes, such as the ones depicted in  FIG. 1 ,  FIG. 2 ,  FIG. 3 , and  FIG. 4 . 
       FIG. 7  shows an illustration of a lath furring strip system  210  attached to a wall, which is comprised of sheathing  220  and framing  222 . The lath furring strip  214  is secured to the sheathing  220  and framing  222  via a screw  218 . In this embodiment, there is a channel screed  230  also secured to the sheathing  220  and framing  222 , via two screws  224 . A metal lath  212  is attached to the mounting leg  228  via a wire tie  226 . Between the furring strip  214  and the sheathing  220  is a moisture barrier  216 , such as building paper. This barrier runs the entire length under the furring strip  214  and channel screed  230 . The screws  218 ,  224  pierce the moisture barrier  216 . The furring strip  214  can have the flexible elastic water resistive barrier embodiments of  FIG. 1 ,  FIG. 5 , and  FIG. 6  to protect water from seeping from the pierced moisture barrier  216  to the sheathing  220  and framing  222 . By securing the furring strip  214  with the screw  218  or other mounting device, the flexible elastic water resistive barrier squeezes into a shape where it fills in gaps in a mounting and prevents water from seeping to the sheathing  220  or framing  222 . In this embodiment of a lath and lath furring strip system,  210  a channel screed  230  creates a recessed reveal which offers an architectural accent while providing a control joint to help minimize cracking. 
       FIG. 8  is an illustration of a lath and lath furring strip system  240  where a furring strip  256  is secured to sheathing  246  and framing  248  via a mounting screw  260 . This embodiment also has a termination stop called a J-channel stop  242 , such as Milcor, which provides for better water drainage. A lath  258  is attached to a mounting leg  254  of the furring strip  256 . The termination stop  242  is attached to the sheathing  246  and framing  248  via a mounting screw  244 . A moisture barrier  252  sits on the top side  242  of a termination stop  242 . The moisture barrier  252  is also situated between the lath furring strip  256  and the sheathing  246  and is penetrated by the screw  260  of the lath furring strip  256 . To prevent moisture from passing from the lath furring strip system  240  into the sheathing  246  or framing  248 , the bottom of the lath furring strip  256  can have a flexible elastic water resistive barrier, such as the ones described in the embodiments of  FIG. 1 ,  FIG. 5 , and  FIG. 6 . 
       FIG. 9   a  and  FIG. 9   b  depict embodiments of an integrated lath furring strip weep screed  270 , and a lath furring strip weep screed  270  with an assembled lath and mounting device  290 . The lath furring strip weep screed  270  has a mounting leg  272  that has a profile height from the bottom of a second mounting plate  278  to the top of the mounting leg  272  of 0.365 inches or less. The mounting leg  272  has an attachment hole for attaching a lath  292  to the mounting leg  272  via an attachment device such as a wire tie  298 . The mounting leg  272  is substantially at a right angle to a first mounting plate  274 . A hairpin loop  276  bends the furring strip material substantially 180 degrees such that there is an extra layer of furring strip  270  material creating a second mounting plate  278  behind the first mounting plate  274 . A screw  288  or other mounting device secures the lath furring strip weep screed  270  into a wall or sheathing through both the first mounting plate  274  and second mounting plate  278 . A moisture barrier  294 , such as building paper, is placed between the lath and the furring strip mounting side  274 , which covers a hole created by the screw  288  or other mounting device, which secures the lath furring strip weep screed  270  to the wall. A moisture barrier  294  adheres to the top side of the first mounting plate  274 , which covers the screw  288  and top side of the first mounting plate  274  through an adhesive layer  296  which prevents water from seeping in between the lath  292  and the top side of the first mounting plate  274 . The second mounting plate  278  extends past the mounting leg  272  and angles toward the lath  292  and forms a first weep leg  280 . The first weep leg  280  is bent back at a point  284  to form a second weep screed leg  282  which also is angled to form a side  286  that sits flush with the wall. This allows water to drip from the plaster on the lath  292  away from the wall. 
       FIG. 10   a  and  FIG. 10   b  depict embodiments of an integrated lath furring strip termination stop  300 , and a lath furring strip termination stop assembly  330  with a mounting device  316  and lath  322 . The lath furring strip termination stop  300  has a mounting leg  306  that has a profile height from the bottom of the second mounting plate  308  to the top of the mounting leg  306  of 0.365 inches or less. The mounting leg  306  has an attachment hole for attaching a lath  322  to the mounting leg  306  via an attachment device such as a wire tie  324 . The mounting leg  306  is substantially at a right angle to a first mounting plate  304 . A hairpin loop  302  bends the furring strip material substantially 180 degrees such that there is an extra layer of furring strip material which make the first mounting plate  304  and the second mounting plate  308  parallel to each other. A screw  316  or other mounting device secures the lath furring strip termination stop  300  into a wall or sheathing through both the furring strip mounting side  304  and termination stop mounting side  308 . A moisture barrier  320  adheres to the top side of the first mounting plate  304 , which covers the screw  288  and top side of the first mounting plate  304  through an adhesive layer  318  which prevents water from seeping in between the lath  322  and the top side of the first mounting plate  304 . The second mounting plate  278  extends past the mounting leg  272  and turns at substantially a right angle angles toward the lath  322  and forms a termination stop leg  310 . The termination stop leg  310  is bent at substantially a 90 degree angle to become parallel to the second mounting plate  308 . This allows water to drip from the plaster on the lath  292  away from the wall. This termination stop structure is used where the plastering of a wall ends and other material begins, and prevents water from seeping into a wall. 
       FIG. 11   a  and  FIG. 11   b  depict embodiments of an integrated lath furring strip with a drip screed  340 , and a lath furring strip drip screed assembly  360  with a mounting device  362  and lath  358 . The lath furring strip drip screed  340  has a mounting leg  350  that has a profile height from the bottom of the second mounting plate  344  to the top of the mounting leg  350  of 0.365 inches or less. The mounting leg  350  has an attachment hole for attaching a lath  358  to the mounting leg  350  via an attachment device such as a wire tie  353 . The mounting leg  350  is substantially at a right angle to first mounting plate  352 . A hairpin loop  342  bends the furring strip material substantially 180 degrees such that there is an extra layer of furring strip material creating the second mounting plate  344  behind the first mounting plate  352 . A screw  362  or other mounting device secures the lath furring strip drip screed  340  into a wall or sheathing through both the first mounting plate  352  and second mounting plate  344 . A moisture barrier  356 , such as building paper, is placed between the lath  358  and the first mounting plate  352 , which covers a hole created by the screw  362  or other mounting device, which secures the lath furring strip  340  to the wall. The moisture barrier  356  adheres to the first mounting plate  352  by having an adhesive layer  354 . The second mounting plate  344  extends past the mounting leg  350  and angles toward the lath  358  and away from a wall, such that any water would fall down the drip screed leg  346  or off of an extension of that leg  348  away from the wall or window. 
       FIG. 12   a  and  FIG. 12   b  depict an embodiment of a lath furring strip with a reveal  370  and an assembled lath furring strip with a reveal  390 . The assembled lath furring strip with a reveal includes an attached lath  386  and a moisture barrier  384 . The embodiment of the lath furring strip with a reveal  370  and assembled lath furring strip with a reveal  390  is integrated with decorative metal trim. It is this decorative metal trim which is commonly referred to as a reveal  383 . The lath furring strip with a reveal  370 ,  390 , has two inner side protrusions  380 ,  318  and two outer protrusions  378 ,  379  which form two triangular-like shapes that form the reveal  383  and two furring strip sections  385 ,  387  on each side of the reveal  383 . The outer protrusions  378 ,  379  extend and form an obtuse angle with bottom mounting plates  376 ,  377  (forming bottom mounting planes at the base of the bottom mounting plates  376 ,  377 ) that may be placed against a wall framing that has a moisture barrier  384 . The bottom mounting plates  376 ,  377  are bent into second mounting plates  374 ,  375  on top of the bottom mounting plates  376 ,  377 . Extending perpendicular from the top mounting plates  374 ,  375  are mounting legs  372 ,  373  which has attachment holes for securing lath  386  by way of a wire tie  388  or other mechanism that can attach lath  386  to a furring strip  370 ,  390 . The height of the furring strip with a reveal  370 ,  390  from the base of the furring strip  370 ,  390  to the top of the mounting leg  388  is 0.365 inches or less so that the lath  386  can be consistently laid at ⅜ of an inch away from the framing. The furring strip with a reveal  370 ,  390  is secured to the framing by fasteners that penetrate both the first mounting plate  376 , second mounting plate  374 , and moisture barrier  384 . The bottom mounting plates  376 ,  377  are pressed against the moisture barrier  384  when secured to the framing via the screw or other mounting device. This pressure prevents moisture from seeping in from the plaster to through holes in the moisture  384 . The lath furring strip with a reveal  370 ,  390  can have the added strength of a hemmed mounting leg  122  as shown in  FIG. 4   b . Additionally, other embodiments featuring a furring strip with a reveal  370 ,  390  can have the flexible water resistive barrier  6  as shown in  FIG. 1   a , or  166  in  FIG. 4   b , to further prevent seepage of water from plaster through holes created through the moisture barrier  384  by nails or screws that penetrate the moistures barrier  384  that hold the lath furring strip with a reveal  370 ,  390  in place. 
       FIG. 13   a  and  FIG. 13   b  depict a two-piece expansion joint  400  and an assembled two-piece expansion joint  440  with lath  416 , wire ties  432 , screws  418 , and moisture barrier  420 . Construction codes call for plaster-finished exteriors to have expansion joints at specific intervals allowing for the expansion and contraction of materials that occur during temperature changes throughout the day. In a first piece  411 , there is a bottom mounting plate  428  and a top mounting plate  430 . The top mounting plate  430  has a mounting leg  434  for attaching lath  416  to the mounting leg  434  with a wire tie  432  or other means for attachment. The top mounting plate  430  is substantially parallel to the bottom mounting plate  428 . The bottom mounting plate  428 , which at its base forms a bottom mounting plane, extends past the mounting leg  434 . The bottom mounting plate  428  is bent to then form an integral first overlapping plate  426  on top of the first mounting plate  428 . Extending perpendicular from the first overlapping plate  426  is a first joint-termination leg  424 , which extends beyond the plane of the top of the mounting leg  434  and beyond the lath  416  when assembled. Extending perpendicular to the first joint-termination leg  424  is a first overhanging leg  422 . The first expansion joint  411  can be placed at various distances from a second expansion joint  413  and the second expansion joint  413  is capable of sliding over the first expansion joint  411 . The second expansion joint  413  has a bottom mounting plate  410 , which at its base forms a bottom mounting plane. One on end of the bottom mounting plate  410  is a flashing  408  that rises and then forms the second expansion joint overlapping plate  406 . The flashing  408  provides a pre-tensioned bend in the metal to allow for a tighter seal against the first expansion joint  411  when a screw  418  secures the second expansion joint  413  to a wall or framing through a moisture barrier  420 . The second expansion joint  413  has a second overlapping plate  406 , which is substantially parallel to the first expansion joint overlapping plate  426 , such that the second expansion joint overlapping plate  406  lays on top of the first expansion joint overlapping plate  426  when assembled together to form the two-piece expansion joint  400 ,  440 . Extending substantially perpendicular from the second expansion joint overlapping plate  406  is a second expansion joint termination leg  404 . Extending substantially perpendicular from the second expansion joint termination leg  404  is a second overhanging leg  402 . The first overhanging leg  422  and second overhanging leg  402  are substantially in the same plane as each other. The space between the first termination leg  424  and second termination leg  404  can expand or contract when the temperature changes. The second overlapping plate  406  can slide back and forth over the first overlapping plate  426  when the temperature changes. The second expansion joint  410  has an top mounting plate  412  on of its bottom mounting plate  12 . Extending perpendicular from the top mounting plate  412  is a second mounting leg  432 , where lath  416  is attached through a hole on the mounting leg  414 . Both the first expansion joint  411  and second expansion joint  413  secured to a wall or framing by penetrating the top and bottom mounting plates  430 ,  428 ,  412 ,  413  of each expansion joint  411 ,  410  to a wall of framing via a screw  418  or other mounting device. The first expansion joint  411  and the second expansion joint  413  can have the added strength of a hemmed mounting leg  122  as shown in  FIG. 4   b . Additionally, other embodiments featuring a two piece expansion joint  400 ,  440  can have the flexible water resistive barrier  6  as shown in  FIG. 1   a , or  166  in  FIG. 4   b , to further prevent seepage of water from plaster through holes created through the moisture barrier  420  by the screws  418  that penetrate the moisture barrier  420  that hold two-piece expansion joint  400 ,  440  to the wall or framing. The height of the first expansion joint  411  and the second expansion joint  413  from the base of each expansion joint  411 ,  413  to the top of each mounting leg  434 ,  414  is 0.365 inches or less so that the lath  416  can be consistently laid at ⅜ of an inch away from the framing. 
       FIG. 14   a  and  FIG. 14   b  depict a window lath furring strip  450  and an assembled window lath furring strip  470  assembled with a lath  468 , wire tie  466 , moisture barrier  464 , over a window flange  463  of a window  462 . The lath furring strip  450 ,  470  has a bottom mounting plate  456  and an integral top mounting plate  458 . A bottom mounting plane is formed at the base of the bottom mounting plate  456 . Extending from the top mounting plate  458  is a mounting leg  460  where lath  468  attaches to the mounting leg  460  via a wire tie  466 . Extending from the bottom mounting plate  456 , beyond the mounting leg  460  is a flare  454  designed to have a pre-tensioned shape in the metal to allow the furring strip  450  to seal tightly against the window flange  463  when a screw  472  penetrates through the top mounting plate  458  and the bottom mounting plate  456  into a wall or framing. This creates a tight seal between the lath furring strip  450  and the window flange  463 , which prevents moisture that may gather around the window  462  from seeping from the plaster on the lath  668  into the wall. A moisture barrier  464  is installed on top of the head of the screw  474 , on the top mounting plate  458  to eliminate any moisture barrier penetration from plaster to the wall created by the penetration of the screw  472  into the top mounting plate  458 , and bottom mounting plate  456  into the wall. The furring strip  450 ,  470  can have the added strength of a hemmed mounting leg  122  as shown in  FIG. 4   b . Additionally, other embodiments featuring a window furring strip  400  can have the flexible water resistive barrier  6  as shown in  FIG. 1   a , or  166  in  FIG. 4   b , to further prevent seepage of water from plaster through holes created by a screw  472 . The height of the window furring strip  450 ,  470  from the bottom mounting plate  456  to the plane formed by the top of the mounting leg  460  is 0.365 inches or less so that the lath  468  can be consistently laid at ⅜ of an inch away from the framing. 
       FIG. 15   a  and  FIG. 15   b  depict embodiments of an integrated lath furring strip weep screed  480 , and a lath furring strip weep screed  480  with an assembled lath and mounting device  500  and foam insulation  502 . The lath furring strip weep screed  480  has a mounting leg  488 . The mounting leg  272  has an attachment hole (see  FIG. 18  for location of an attachment hole  636  on a mounting leg  638 ). The attachment hole is used for attaching a lath  508  to the mounting leg  488  via an attachment device such as a wire tie  504 . The mounting leg  488  is substantially perpendicular to a top mounting plate  486  having an exterior side  487 . A loop  484  bends the furring strip material substantially 180 degrees such that there is a bottom mounting plate  482  having an interior side  483  that sites flush against the wall  512  and is parallel to the top mounting plate  486  leaving a gap  489  between the top mounting plate  486  and bottom mounting plate  482 . A screw  510  or other mounting device secures the lath furring strip weep screed  480  into a wall or sheathing  512  through both the bottom mounting plate  482  and the top mounting plate  486 . A moisture barrier  498 , such as building paper, is placed between the foam  502  and the exterior side  487  of top mounting plate  486 , which covers a hole created by the screw  510  or other mounting device, which secures the lath furring strip  480  to the wall  512 . The moisture barrier  498  is placed on top of the head of a screw  510  and the exterior side  487  of the top mounting plate  482  to eliminate any moisture penetration from the plaster to the wall  512 . The moisture barrier  498  adheres to the top mop mounting plate  486  via an adhesive layer  506  to the exterior side  487  of the top mounting plate  486 . The bottom mounting plate  482  extends past the mounting leg  488  and is angled to form a first weep screed leg  490 . The first weep screed leg  490  is bent at a point  492  to form a second weep screed leg  494 , which is angled to form a weep screed extension  496  that sits flush with the wall  512 . This allows water to drip from the plaster on the lath  508  away from the wall that has penetrations. When the assembled, the lath furring strip weep screed  500  has a layer of insulation  502  in between the lath furring strip  480  and the lath  508 . The insulation layer  502  sits on the exterior side  487  of the top mounting plate  486 , which has a moisture barrier  498  between the insulation layer  502  and the exterior side  487 . From the top of the insulation layer  502  (where the attachment hole is located on the mounting leg  488 ), to the top of the mounting leg  491  may be 0.365 inches for less, so that the distance from the plaster on the lath  508  to the insulation layer  502  is not greater than 0.365 inches, for proper keying of the plaster. 
       FIG. 16   a  and  FIG. 16   b  depict embodiments of an integrated lath furring strip with a drip screed  520 , and an assembled lath furring strip  550  integrated with a mounting device  542 , lath  544 , and insulation layer  540 , on a wall  536 . The lath furring strip drip screed  520  has a mounting leg  528 , a top mounting plate  526  with an exterior side  527 , a bottom mounting plate  522  with an interior side  523  that lays flush against a wall  536 . There is a gap  529  between the bottom mounting plate  522  and top mounting plate  526 . The mounting leg  528  has an attachment hole (see  FIG. 18  for location of an attachment hole  636  on a mounting leg  638 ). The lath  544  is secured to the mounting leg  528  via a wire tie  546  or other attachment device. An insulation layer  540  is placed between the lath  546  and the lath furring strip  520 . The mounting leg  528  is substantially at a right angle to the top mounting plate  526 . A loop  524  bends the furring strip material substantially 180 degrees such that there is a second layer of furring strip material creating the bottom mounting plate  522 . A screw  542  or other mounting device secures the lath furring strip drip screed  520 ,  550  into a wall or sheathing  536  through both the top mounting plate  526  and the bottom mounting plate  522 . A moisture barrier  538 , such as building paper, is placed between the foam insulation  540  and the top mounting plate  526 . The moisture barrier  538  is installed on top of the head of the screw  542  or other mounting device, which secures the lath furring strip  520  to the wall  536 . This placement eliminates any moisture barrier penetration from plaster to the wall  536  created by the penetration of the screw  542  into the top mounting plate  526 . The moisture barrier  538  adheres to the top mounting plate  526  by having an adhesive layer  529 . The bottom mounting plate  522  extends past the mounting leg  528  at an obtuse angle from the bottom mounting plate  522 , such that any water would fall down the drip screed leg  530 . From the top of the insulation layer  540  (where the attachment hole is located on the mounting leg  528 ) to the top edge  531  of the mounting leg  528  is 0.365 inches so there is proper keying of plaster. The drip screed leg  530  may have a drip screed leg extension  532  or an additional angled extension  534  to further allow water to drip away from a wall  536 . 
       FIG. 17   a  and  FIG. 17   b  depict embodiments of an integrated lath furring strip termination stop  560 , and a lath furring strip termination stop assembly  590  with a mounting device  581  and lath  580 . The lath furring strip termination stop  560  has a bottom mounting plate  562  having an interior side  663  that is positioned flush against a wall  576 , a top mounting plate  578  having an exterior side  567  where a moisture barrier  575  and insulation layer  574  can be positioned, and mounting leg  568  having a top edge  571 , and a gap  569  between the top mounting plate  566  and bottom mounting plate  562 . The mounting leg  568  has an attachment hole for attaching a lath  580  to the mounting leg  568  via an attachment device such as a wire tie  582  (see  FIG. 18  for location of an attachment hole  636  on a mounting leg  638 ). The mounting leg  568  is substantially at a right angle to a bottom mounting plate  562 . The distance from the top of the insulation layer  574  to the top edge  571  of the mounting leg  568  not greater than 0.365 inches in ensure proper keying of the plaster. theA loop  564  bends the furring strip material substantially 180 degrees such that there is a second layer of furring strip material which forms the top mounting plate  566 , which is substantially parallel to a bottom mounting plate  562 . A screw  581  or other mounting device secures the lath furring strip termination stop  560  onto a wall or sheathing  576  through both the furring top mounting plate  566  and bottom mounting plate  562 . A moisture barrier  576  is installed such that it is placed on top of the head of the screw  581  and the top mounting plate  566  to eliminate any moisture barrier penetration from plaster to the wall  576  created by the penetration of the screw  581  into the top mounting plate  566 , and bottom mounting plate  562  into the wall  576 . The moisture barrier  576  adheres to the exterior of the top mounting plate  566  via an adhesive layer  578 , which prevents water from seeping in between the lath  580  or insulation layer  574  and the top mounting plate  566 . The bottom mounting plate  562  extends past the mounting leg  568  and forms a termination leg  570  substantially perpendicular to the bottom mounting plate  562  and parallel to the mounting leg  568 . The termination leg  570  has a termination leg extension  572  substantially perpendicular to the termination leg  570 . This allows water to drip from the plaster on the lath  580  away from the wall  576 . This termination stop structure is used where the plastering of a wall ends and other material begins, and prevents water from seeping into a wall  576 . An insulation layer  574  is positioned on top of the exterior side of the top mounting plate  566 , and has a moisture barrier  575  between the insulation layer  574  and the top mounting plate  566 . 
       FIG. 18   a  and  FIG. 18   b  and  FIG. 18   c  illustrate three views of a furring strip  600  having a recessed groove  616  for a rubber gasket  618 , and an assembled lath furring strip  640  secured to a wall  620  and frame  624  having an insulation layer  628 . The recessed groove  616  allows a flexible elastic water resistive barrier, such as a rubber gasket  618  to line a mounting hole  614  without increasing the overall height of the furring strip  600 . The recessed groove  616  is within the interior side  612  of the mounting plate  610 . A raised region  606  on the exterior side  608  of the mounting plate  610  has a mounting hole  614 . The lath furring strip  600  can be secured to the wall via a screw  622 . The recessed groove  616  can have a variety of shapes that enable it to fit a rubber gasket  618 . A mounting leg  604  having a top vertical edge  602  is substantially perpendicular to the mounting plate  610  and has an attachment hole  636  for attaching lath  630  via a tie  632  or other attachment device. When assembled, there is a water resistive barrier  626 , such as building paper, contacting the interior side of the mounting plate  612  and the wall  620 . A screw  622  or other securing device penetrates the rubber basket  618 , wall  620 , and framing  624 . An insulation layer  628  is layered between the lath  630  and the exterior side of the mounting plate  610 . In order to achieve the proper spacing between the insulation layer  628  and lath  630 , the distance from the top of the insulation layer  628  (where the attachment hole  636  on the mounting leg  604  is located) to the top vertical edge  602  of the mounting leg  604  is not greater than 0.365 inches. However the height of the mounting leg  604  height can vary in size in different embodiments to accommodate different thicknesses of insulation layers  628 . 
       FIG. 19   a  and  FIG. 19   b  depict an embodiment of an outside corner lath furring strip  650  and an assembled outside corner lath furring strip  680  with insulation  662  secured to a wall  664  and framing  666  via a screw  668 . The furring strip  650  has a first mounting plate  658  with an interior side  661  and an exterior side  663 , and a second mounting plate  660  with an interior side  665  and exterior side  667 . The first mounting plate  658  and second mounting plate  660  are substantially perpendicular to each other and fit around an outside corner of a wall  664  and lay substantially flush against the wall  664 . Integral with the first mounting plate  658  and second mounting plate  660  are a first mounting leg  652  and a second mounting leg  656  that are parallel to each other and connected through a top edge bend  654  in the furring strip  650 . Each mounting leg  652 ,  656  has an attachment hole (see  FIG. 18  for location of an attachment hole  636  on a mounting leg  638 ), where lath  663  is attached to the furring strip via a wire tie  674 . Between the lath  663  and the mounting plates  658 ,  660  and insulation layer  662  is placed. A moisture barrier  670  is placed on the exterior sides  663 ,  667  each mounting plate  658 ,  660  covering of the head of the screw  668  to eliminate any moisture barrier penetration from plaster to the wall  664  created by the penetration of the screw  668  into the mounting plate  658  into the wall  664 . The moisture barrier  670  attaches to the mounting plates  658 ,  660  via an adhesive layer  672 . In order to achieve the proper spacing between the insulating layer  665  and the plaster or lath  663 , the distance from the top of the insulation layer  662  (where the attachment hole on the mounting legs  652 ,  656  are located) to the top edge bend  654  connecting the two mounting legs  652 ,  656  is not greater than 0.365 inches, however the height of the mounting legs  652 ,  656  can vary in length in order accommodate different thicknesses of insulation layers  662 . 
       FIG. 20   a  and  FIG. 20   b  depict embodiments of a window furring strip  690  and an assembled furring strip  720  with a lath  706 , mounting device  714 , and an insulation layer  710 . The window furring strip  690  has a bottom mounting plate  696  having and interior side  703  that sites flush against a wall, a top mounting plate  698  having an exterior side  699  where a moisture barrier  712  and insulation layer  710  can be placed, and mounting leg  700  having a top vertical edge  705 . The mounting leg  700  has an attachment hole (see  FIG. 18  for location of an attachment hole  636  on a mounting leg  638 ). The attachment hole is used for attaching a lath  706  to the mounting leg  700  via an attachment device such as a wire tie  708 . The mounting leg  700  is substantially at a right angle to a bottom mounting plate  696 . A top mounting plate  698  is integral and substantially parallel to the bottom mounting plate  696  and has a gap  701  between the two plates  696 ,  698 . A screw  714  or other mounting device secures the window furring strip  690  a wall or sheathing through both the bottom mounting plate  696  and the top mounting plate  698 . A moisture barrier  712 , such as building paper, is placed between the insulation layer  710  and the top mounting plate  698 , which covers a hole created by the screw  510  or other mounting device. The moisture barrier  712  adheres to the exterior side  699  of the top mounting plate  698 , which covers the screw  510  and exterior side  698  of the top mounting plate  486  via an adhesive layer  627 . The moisture barrier  712  prevents water from seeping in from between the insulation layer  710  and the top mounting plate  698 . Extending from the top mounting plate  698  is a mounting leg  700  where lath  706  attaches to the mounting leg  702  via a wire tie  708 . Extending from the bottom mounting plate  696  is a flared plate  694  designed to have a pre-tensioned shape in the metal to allow the furring strip  690  to seal tightly against the window flange  702  on a window frame  704  when a screw  714  penetrates through the top mounting plate  698  and the bottom mounting plate  696 . This assembly creates a tight seal between the lath furring strip  690  and the window flange  702 , which prevents moisture that may gather around the window  704  from seeping from the plaster on the lath  706  into the wall. In order to achieve the proper spacing between the insulating layer  710  and the plaster or lath  706 , the distance from the top of the insulation layer  710  (where the attachment hole of the mounting leg  700  is located) to the top edge  705  of the mounting leg  700  is not greater than 0.365 inches to ensure proper keying of the plaster, however the height of the mounting leg  700  can vary in size in different embodiments in order accommodate different thicknesses of insulation layers  710 . 
     The invention has been described in terms of preferred embodiments thereof, but is more broadly applicable as will be understood by those skilled in the art. The scope of the invention is only limited by the scope of the following claims and equivalents thereof.