Abstract: A fire-rated receiver channel includes at least one intumescent or other fire-resistant material strip. The receiver channel can nest with a framing member, such as metal tracks, headers, header tracks, sill plates, bottom tracks, metal studs, wood studs or wall partitions, and placed at a perimeter of a wall assembly to create a fire block arrangement. In other arrangements, a track assembly includes two nested tracks, an inner track and outer track. The assembly is designed so that the outside width of the outer track is equal to or less than the outside width of the inner track to present a substantially flush external surface for attachment of exterior sheathing elements when the assembly is used in an external wall.

Abstract: An exterior wall or roof of a building comprises an inner sheathing member having an exterior facing surface, an outer building material installed adjacent and covering the exterior facing surface of the inner sheathing member, and a spacer secured between the inner sheathing member and the outer building material. The spacer is a continuous length of material formed by at least a first parallel set of ribs extending diagonally relative to a second parallel set of ribs thereby forming an openwork lattice structure. The first set of ribs forms a front face of the material, the second set or additional set of ribs forms a rear face of the material, and the first and second set of ribs are interconnected intermediate of the front and rear faces. Each of the first and second set of ribs extend diagonally relative to horizontal and vertical directions within the wall or roof.

Abstract: Enclosures are used to attenuate noise produced by a high decibel producing device, such as a gas turbine engine or other rotating machinery. However, enclosures that achieve high Sound Transmission Class (STC) ratings are generally expensive and immobile, whereas inexpensive and mobile enclosures are generally incapable of achieving high STC ratings. Accordingly, a composite noise-attenuating panel system is disclosed that can achieve the high STC ratings associated with immobile, site-erected enclosures, using subpanels that are separated by an air gap and an internal filler (e.g., mineral wool), while maintaining the weight, form factor, and ease of use associated with lightweight, modular mobile enclosures.

Abstract: A roof ventilation system can be installed between the rafters of an attic prior to the application of spray-in foam insulation. A roof ventilation system can be provided in 4-foot, 8-foot, or other lengths, of foam insulation board that have kerf cuts (i.e. partial cuts) separating the roof ventilation system into a main panel sized to fit between two rafters, and two side panels. The side panels can be folded over 180 degrees to meet the main panel, and an adhesive can secure them in place to form a foundation. The foundation of the roof ventilation system can include a roof adhesive that can secure the roof ventilation system to the underside of the roof between rafters.

Abstract: The present disclosure relates to a prefabricated module for a pitched roof element comprising a frame made of at least two first beams being arranged in a distance and running parallel to each other and two second beams running rectangular to the first beams and being connected to the ends of the first beams forming a compartment into which a first layer of an insulation is inserted and a pitched roof element for a building roof made of at least two modules, each comprising a frame made of at least first beams being arranged in a distance and running parallel to each other and two second beams running rectangular to the first beams and being connected to the ends of the first beams forming a compartment into which a first layer of an insulation is inserted.

Abstract: Air flow is reduced through a structure insulated with one more layers of fiber wool or particulate insulating material. A layer of a foamed fluid polymeric composition is applied onto the exposed surface of the insulation to cover the edges at which the exposed surface of the insulation meets an enclosing member of the structure. The layer is then cured to form a polymeric coating on the exposed surface of the insulation. The coating seals the edge or edges at which the exposed surface of the insulation meets the enclosing members of the structure.

Abstract: A system for insulating a building comprising a first layer of rolled insulation disposed atop a longitudinally extending upper chord of a roof truss, a purlin or a girt of a wall. Discrete insulating spacer members are intermittently disposed atop the first insulation layer and along the longitudinally extending chord, purlin or girt. A three sided bridge with a plurality of tab elements overlaying and contiguous with the insulating spacer members. A second layer of rolled insulation disposed atop the bridge and panel clips secured with a fastener extending through each of the second layer of insulation, bridge, insulating spacer member, first layer of insulation and upper chord.

Abstract: A prefabricated wall module may include framing members and one or more insulations members. The insulation member may have pre-incisions, as made by a hot-wire, defining service fitting accommodations. The service fitting accommodations are accessible on the inside face of the insulation. The service fitting accommodations may be either or both of vertically or laterally extending, and are located in the same places in each module, the vertical locations being next to the studs, to which service fittings may typically be mounted, the lateral accommodations being at heights typical of switches and wall outlets. The insulation members may be supplied with tabs filling the accommodations. The tabs may be snapped out as required. The insulation members may have stud channels that are shallower than the studs, such that an air gap is established between the insulation and the internal gypsum board covering.

Abstract: A rigid insulating body is mounted within a standing seam roof structure formed of roof supporting elements and roof panels spanning across the roof supporting elements. The body is suited for extending along a top side of a roof supporting element between an adjacent pair of roof panel mounting clips to occupy a vertical space between the top side of the roof supporting element and the bottom side of the roof panels. Blanket insulation spanning between the roof supporting elements and the roof panels is typically compressed at each roof supporting element by roof panel mounting clips fastened through the insulation from the roof panels to the roof supporting elements. The body is trapezoidal with sides which diverge from bottom to top so as to occupy the area of the blanket insulation compressed by the mounting clips at each roof supporting element.

Abstract: A construction for insulating the head-of-wall joint between a wall and a floor or roof thereabove which utilizes an insulating gasket construction positionable between the ceiling track and the building structure thereabove. The insulating gasket member includes two L-shaped sections which includes co-operate to firestop both outwardly facing sides of a head-of-wall joint, but which can also be used singly. Each L-shaped section is attached to an associated side section which extends over the outwardly facing surfaces of a ceiling track with being attached thereto. Each L-shaped insulation gasket section can include securement mechanism such as adhesive on the undersurface of the main upper horizontal portion to facilitate attachment to the top of the track therebelow and can be attached to an adjacent similarly configured L-shaped section by one or more connecting straps extending through slits defined therein.

Abstract: A foundation wall includes a frame having a front side and a back side. The frame further includes a plurality of vertical stud members having a first end and a second end, a top beam attached to the first end of the plurality of vertical stud members, and a bottom beam attached to the second end of the plurality of vertical stud members to define a plurality of cavities between adjoining vertical stud members. Rigid insulation is adapted for positioning in the plurality of cavities to become a load-bearing part of the frame. One or more structural sheets is affixed to the front side of the frame and to the back side of the frame. A waterproof bond is formed along an interface between edges of the one or more structural sheets and a periphery around the front side and the back side of the frame.

Abstract: This disclosure relates to an insulative system and materials therefor comprising a polymeric composition disposed at the junctions of the framing and exterior sheathing. In particular, an insulative system and materials therefor comprising a polymeric composition in the form of a sealing structure in contact with both the framing and exterior sheathing of a building are described.

Abstract: A solar heat pump building preferably includes a building, an air barrier insulation layer, a material insulation layer and a plurality of ducts. The air barrier insulation layer includes a ceiling air barrier insulation layer and a wall air barrier insulation layer. The ceiling air barrier insulation layer is a ceiling air gap created between a ceiling sheet and a roof panel. The wall air barrier insulation layer is a wall air gap created between the ceiling sheet and two opposing lengthwise wall panels, and two inner end wall sheets and two opposing end wall panels. Two lengthwise wall insulation layers are attached to vertical portions of the ceiling sheet. Two end wall insulation layers are attached to the two inner end wall sheets. A plurality of ducts include lengthwise ducts and end ducts, which are retained in the wall air barrier insulation layer to channel air.

Abstract: A method of reducing the amount of cooling energy required to heat and cool a building is provided. The method includes disposing a porous insulating material in the exterior walls and substantially covering the ceiling in the attic space of the building to a substantial depth. The porous insulating material includes a desiccant. The method further includes permitting the desiccant—bearing porous insulating material to adsorb water moisture from the attic space and then permitting the adsorbed water moisture to desorb from the desiccant—bearing porous insulating material into the enclosed room of the building, resulting in a reduction in the amount of energy required to heat and cool the building.

Abstract: A thermal barrier is formed into a hat-shape by folding sections of an extended length of board formed for assembly and insertion as a barrier to thermal radiation into a space between two joists or studs of a floor, wall, roof, or ceiling of a building for completely covering the space while also covering protruding edges of the joists or studs so as to reduce thermal energy transfer through the joists or studs themselves. A thermal barrier assembly is shown with an outer reflective surface and is also shown for assembly into a form having an inner enclosure for enclosing an inner thermal barrier also having a reflective surface for reducing thermal radiation transfer by reflection and protected from dust by virtue of the enclosure.

Abstract: A thermally insulating construction component for arranging between two load-bearing parts of a building includes an elongate insulating body and also reinforcing bars extending therethrough transversely with respect, to its longitudinal direction. Bearings project from side walls of the insulating body and absorb thrust and shear forces. The insulating body includes an upper and a lower parallelepipedal dimensionally stable box member filled with insulating material. The insulating body further includes a further dimensionality stable box member which is filled with an insulating material and which is arranged as a middle box member between the upper-box member and the lower box member. The middle box member is fixedly connected to the upper box member and the lower box member.

Abstract: An insulated roof deck system which can be used in installing metal roofs is set forth. The system includes a plurality of metal purlins (10), a plurality of metal roof panels (2), a plurality of thermal insulation blocks (4), cleats (14), and threaded fasteners (12). The metal purlins (10) can form a parallel array of purlins. The metal roof panels (2) can be attached to the metal purlins (10) in the parallel array. The thermal insulation blocks (4) can be disposed between the metal purlin (10) and the metal roof panel (2). The cleat (14) can be disposed between the thermal insulation blocks (4) and the metal roof panel (2) and has a protrusion which is capable of securing the thermal insulation block (4) and inhibits lateral movement between the thermal insulation block (4) and the cleat (14). The threaded fastener (12) secures the metal roof panel (2), the cleat (14), and the thermal insulation block (4) to the metal purlin (10).

Abstract: An energy barrier is made of adjustable width insulating rails, reflective insulation panels and a gasketing element to create a single layer or multi-layer stack of reflective dead air spaces within cavity spaces of framing members of a building envelope where an efficient energy barrier is desired.

Abstract: A system and method for insulating a metal roof includes a thermal block arrangement disposed over each of a pair of purlins. A vapor-barrier sheet spans between and is secured over the opposing pair of purlins, the vapor-barrier sheet being secured underneath each thermal block arrangement. A batt insulation receiving cavity is defined by an upper surface of the vapor-barrier sheet and between opposing faces of each of the thermal block arrangements.

Abstract: An insulated wall system and related methods of installing walls is set forth. The system includes a plurality of metal purlins (10), a plurality of outer panels (2), a plurality of thermal insulation blocks (4), cleats (14), and fasteners (12). The metal purlins (10) can form a parallel array of purlins. The outer panels (2) can be attached to the metal purlins (10) in the parallel array. The thermal insulation blocks (4) can be disposed between the metal purlin (10) and the outer panel (2). The cleat (14) can be disposed between the thermal insulation blocks (4) and the outer panel (2) and has a protrusion which is capable of securing the thermal insulation block (4) and inhibits lateral movement between the thermal insulation block (4) and the cleat (14).

Abstract: A system for effectively insulating piping in a manner that protects the piping from freezing is disclosed. The insulation block is dimensioned particularly for installation into a building wall cavity. The insulation block has an interior side and an exterior side and a slot formed therein for receiving a pipe to be insulated. More particularly, the thickness of the insulation block is configured to match the dimensions of standard framing members wherein the slot for receiving the piping insures that the piping is positioned immediately adjacent the back surface of the interior sheathing material. The insulation block reliably provides a thickness of insulation material behind the piping. The insulation maintains the piping in thermal contact with the rear surface of the interior wall sheathing to facilitate heat transfer and provides an anti-condensation layer for cold water piping.

Abstract: A method of making thermal insulation includes, forming a thermal insulation product precursor having randomly distributed inorganic fibers and about 5-500 wt. % heat-expandable hollow microspheres in dry or slurry form and having a polymeric shell and having disposed therein a blowing agent or gas, and calcium acetate or cupric carbonate, or a combination of calcium acetate and cupric carbonate, and heating the precursor to expand the microspheres.

Abstract: A modular shell system of a hard insulation material fabricated in a geometric shape that encapsulates a pipe in insulation is provided. In an attic installation for example, the entire insulation component is inserted over a pipe and into the space between the building structural wood framing members resting on the interior sheathing below. By placing a series of these interlocking insulating modules along a pipe that is run perpendicular to the building construction members, the piping is encapsulated in a continuous insulating system along its entire length. This design facilitates natural heat flow into the pipe with an open pipe slot cavity in the insulating module that allows natural convection heat to pass up through the elongated piping slot, allowing it to come into contact with this piping.

Abstract: The thermal energy venting system includes an insulation board disposed in the cavity between adjacent studs and other areas of a domicile or building to form venting channels directing excess heat through a roof/ridge vent. The insulation board is a non-porous laminate formed by a rigid foam core covered or sheathed with a reflective polymeric facer or plastic. The insulation board provides a thermal barrier for conduction, convection and radiation aspects of thermal energy transfer. The installation of the insulation board forms an envelope that reflects exterior thermal energy and interior thermal energy to maintain comfortable interior temperatures with minimal heating/cooling energy expenditure and costs.

Abstract: A prefabricated roof plate element (4), including one or more longitudinal box-shaped girders (24), each having two predominantly U-shaped metal sections (10, 18) which at mutually facing, open sides are interconnected along narrow outwards bent lateral edges (5). The girders (24) are connected at upper and lower sides (19) corrugated in longitudinal direction which office corrugated metal plates (7) which are corrugated in a transverse direction and have approximately the same width as the roof plate element (4). The girders (24) are disposed along opposed sides and at a center of the roof plate element (4). One of the sections (10, 18) is shorter than another one of the sections to forming eaves (6).

Abstract: A vapor retarder system includes a vapor retarder sheet. At least one and typically a plurality of parallel spaced-apart tie-straps are located adjacent an inner surface of the sheet, and the tie-strap extend across a width of the sheet and are connected to the sheet at multiple connection locations that are spaced from each other along a length of the tie strap. The sheet includes drape regions where the sheet is disconnected from the tie straps between successive connection locations. The tie-straps and drape regions ensure that the vapor retarder sheet is installed over roof purlins with the proper drape between the purlins to obtain the required insulation R-values. A fall-protection net or sheet can also be constructed and/or installed in the same manner.

Abstract: A radiant barrier rafter vent defining an elongate radiant heat reflective panel formed from a sheet of aluminum or other heat reflective material having longitudinal creases that permit compressing the panel a selected amount in a direction transverse to its length and panel strengthening spaced apart formations on the remainder of the panel. The panel have a high reflectivity and are installable in various buildings between the rafters or roof supports spaced apart from the roof and optionally coated with a sound absorbing material or include small perforations therein.

Abstract: An insulated roof deck or wall system which can be used in installing roofs and wall is set forth. The system includes a plurality of metal purlins (10), a plurality of outer panels (2), a plurality of thermal insulation blocks (4), cleats (14), fasteners (12), a first insulation layer (6) and a second insulation layer (7). The metal purlins (10) can form a parallel array of purlins. The outer panels (2) can be attached to the metal purlins (10) in the parallel array. The thermal insulation blocks (4) can be disposed between the metal purlin (10) and the outer panel (2). The cleat (14) can be disposed between the thermal insulation blocks (4) and the outer panel (2) and has a protrusion which is capable of securing the thermal insulation block (4) and inhibits lateral movement between the thermal insulation block (4) and the cleat (14). The first and second insulation layers can be placed on either side of the thermal insulation blocks.

Abstract: A waterproof heat-insulation construction method aims to spread a layer of waterproof heat-insulation powder through a waterproof heat-insulation module on a work surface to form waterproof and heat insulation effect thereof. The method comprises the steps of: first, anchoring at least one waterproof heat-insulation module which can be arranged on the work surface; then holding the waterproof heat-insulation powder in the waterproof heat-insulation module in contact with the work surface to form a waterproof heat-insulation layer. The invention also provides a corresponding waterproof heat-insulation module which can be constructed in a modular fashion to achieve waterproof and heat insulation effect for buildings.

Abstract: The invention relates to an under rafters insulation system for a steep roof, comprising at least two mutually parallel extending building elements (3) which are spaced from each other, and insulation elements (4), in particular mineral fiber insulation elements, are arranged in a space between the building elements (3). The building elements (3) are mountable to rafters (2) of the steep roof by means of holding elements (5). For further developing an under rafters insulation system of the described type to the effect that the insulation elements (4) are easily supported between the building elements (3) at least over a period of time in which the under rafters insulation system (1) is not yet completed with a final cover, it is proposed that the holding elements (5) additionally secure the insulation elements (4) against falling out of the space between the building elements (3).

Abstract: An insulation batt is provided. The insulation batt includes an elongated blanket of fibrous insulation material adapted to be positioned entirely within a wall cavity. The elongated blanket has a face portion and edges defining a blanket width that is within the range of from about 102 percent to about 107 percent of the known nominal width of the wall cavity. A facing material is attached to the face portion of the elongated blanket of fibrous insulation material. The insulation batt has a stiffness characterized by an angle measurement that measures the amount of deflection of the insulation products as the insulation batts are draped over a support located perpendicular to the longitudinal center axis of the insulation product. The stiffness measurement is within the range from about 15 degrees to about 35 degrees. The width of the facing material and the width of the blanket are approximately the same.

Abstract: A metal building insulation system and method for by-pass wall girt metal building systems which facilitates the installation of wall insulation applied from the interior of the building for the full depth of the wall girt. Integrally faced vapor barrier blanket insulation combined with vapor barrier extensions installed behind perimeter structural and corner columns before wall girt erection are preferred system components.

Abstract: Each of a plurality of vertically disposed trusses having angled rafters and a joint is coupled to a ridge board. Upper TboxTrusses function as the rafters. Each upper TboxTruss has a planar plate. The planar plate has a hollow box depending downwardly there from. An interior sheet of fire resistant fabric sheet material is above the upper TboxTrusses. An exterior sheet of the fire resistant fabric sheet material is below the upper TboxTrusses. Insulation material is located between the interior and exterior sheets and bounded by adjacent hollow boxes.

Abstract: A PCM heat insulation blanket (10) is positioned in a wall structure of a building for modulating the transfer of heat to and from the controlled internal temperature of the building structure. The PCM heat insulation blanket includes an array of pods (12) with one group of pods 12A containing a first PCM and a second group of pods containing a second PCM 12B having a different phase change temperature than the first group of pods. The pods with different PCMs are substantially uniformly intermixed among each other. The pods are formed of laminated sheets, each of which may include a metal foil that is vapor impermeable and tends to maintain the PCMs in the blanket at approximately the same temperature, and which also functions to reflect radiant heat away from the temperature controlled internal space of the building structure.

Abstract: A method and system is provided for insulating piping installed in an exterior wall in a manner that protects the piping from freezing. Generally, the system includes an insulation block that has an interior side, an exterior side and a slot formed therein for receiving a pipe to be insulated adjacent the interior side, wherein the block is dimensioned particularly for installation into a building wall cavity. When installed, the block insures that the piping is positioned immediately adjacent the back surface of the interior sheathing material. The insulation block reliably provides a thickness of insulation material behind the piping such that the insulation material is positioned between the piping and the exterior wall surface while also maintaining the piping in contact with the rear surface of the interior wall sheathing to facilitate heat transfer from the interior of the building and into the piping.

Abstract: Thermal insulation is provided which includes randomly distributed inorganic fibers and about 5-500 wt. % unexpanded hollow microspheres comprising a polymeric shell having disposed therein a blowing agent or gas, said unexpanded hollow microspheres increasing in size when heated. Also provided is an insulated attic, including a plurality of rafters, an attic floor and a thermal insulation comprising randomly distributed glass fibers in at least about 5 wt. % hollow expanded microspheres having a diameter of 20-140 microns, which have been expanded from about 6-40 microns. The hollow expanded microspheres reduce the thermal conductivity of the thermal insulation by at least about 5%, and have shown improvement up to 19.4% decreased thermal conductivity during tests at loadings from 30% to 257%. Additionally, calcium acetate and cupric carbonate additions to glass fiber insulation products showed improvement by at least about a 1% decrease in thermal conductivity.

Abstract: A system provides insulation products for a plurality of insulation wall cavities in buildings, where a substantial portion of the insulation wall cavities have a known nominal width. The system includes providing flangeless insulation products having a blanket of fibrous insulation material and having a facing material with a width substantially equal to the width of the insulation blanket, with the width of the insulation blanket and the width of the facing material being greater than the nominal width of the plurality of insulation cavities. The increased width of the facing material improves the seal of the facing material when the insulation product is placed within insulation wall cavities of the known nominal width in comparison to the seal provided by flanged insulation products applied with inset stapling to the same insulation wall cavities.

Abstract: The present invention provides thermal insulation products including a thermal insulation batt, board and loose fill, and methods of manufacture thereof, and a method of insulating an attic with loose fill, and an attic having the loose fill. The insulation products include randomly distributed inorganic fibers which are supplemented with microspheres, preferably hollow microspheres.

Abstract: The present invention provides thermal insulation products such as loose fill, bats and boards, such as duct boards and duct liner. The insulation products include randomly distributed inorganic fibers which are supplemented with at least about five weight percent microspheres, macrospheres, or both, preferably include hollow microspheres, which boost the insulation value of the fiberglass thermal insulation by at least about 0.5 R.

Abstract: A barrier or dam to contain loose insulation from falling through an attic access hatch or scuttle opening is provided. Embodiments include four pieces that can be assembled together around the perimeter of hatches of varying sizes. Two of the pieces may be male pieces and two may be female pieces. Each piece may have a securing tab on its bottom end to attach each piece to joists that define the hatch opening. A kit comprising the barrier pieces may be utilized by homeowners, contractors or insulation installers for quick and easy installation of the containment dam.

Abstract: The present invention provides thermal insulation products such as loose fill, batts and boards, such as duct boards and duct liner. The insulation products include randomly distributed inorganic fibers, which are supplemented with at least about five weight percent microspheres, macrospheres, or both, and preferably include hollow microspheres, which boost the insulation value of the fiberglass thermal insulation by at least about 0.5R.

Abstract: A thermal barrier is formed into a hat-shape by folding sections of an extended length of board formed for assembly and insertion as a barrier to thermal radiation into a space between two joists or studs of a floor, wall, roof, or ceiling of a building for completely covering the space while also covering protruding edges of the joists or studs so as to reduce thermal energy transfer through the joists or studs themselves. A thermal barrier assembly is shown with an outer reflective surface and is also shown for assembly into a form having an inner enclosure for enclosing an inner thermal barrier also having a reflective surface for reducing thermal radiation transfer by reflection and protected from dust by virtue of the enclosure.

Abstract: A fire-resistant assembly may be attached to a wall frame assembly of a building and configured to transfer loads from a load-bearing assembly into the wall frame assembly. The assembly provides for a desired amount of fire resistance by virtue of a fire-resistant filler and provides for a desired amount of structural capacity by virtue structural sheets that form a cavity for the filler. In addition, a load-limited connector may be coupled to the assembly to transfer loads from the load-bearing assembly up to a desired load threshold.

Abstract: A fire resistant wall includes a frame assembly utilizing tubular steel studs having at least one opening at the bottom and at the top, a stratum of fire resistant material disposed in the inter-stud space, and a trim assembly structured to protect the gaps between adjacent panels. The openings in the studs allow hot fluid within the studs to be exhausted in a remote location and cool fluid to be drawn in from another remote location. The stratum of fire resistant material disposed in the inter-stud space resists heat and flames contacting the lateral sides of the studs when the inner stratum of the firewall collapses, or when gaps appear between adjacent inner stratum panels. The trim assembly preferably includes a metal bar with a concave back surface disposed over the gap between adjacent panels and an intumescent caulk disposed at least partially within the gap. An intumescent caulk expands when exposed to heat and fills the gap between inner stratum panels.

Abstract: A method for insulating and ventilating a space between rafters for supporting a roof includes, an elongated insulation mat having an integral baffle, at least one channel on a roof facing side of the baffle for passage of ventilating air, and at least one vapor permeable membrane covering at least a portion of the insulation mat facing the channel, wherein each vapor permeable membrane transmits water vapor emanating from the insulation mat.

Abstract: A sectional door insulation system has one or more insulation blocks attached to a protective sheet. Small grooves between the insulation blocks and the protective sheet accommodate brackets on the lower and upper walls of the section of a door, such as a garage door. The secure engagement of the brackets of the door and grooves of the panel holds the panel firmly attached to the door section. The protective panel may have a textured surface. The insulating block may optionally include a barrier foil and tabs.

Abstract: A radiant heat barrier may be installed under a wide variety of roofs between the roof supports. In one configuration, the radiant heat barrier is provided in the form of a plurality of boards that are each erectable into a barrier tray having at least one high-reflectivity, low-emissivity surface. The surface reflects a large percentage of the radiation energy back in the direction from where the radiation originated. Each board includes features that allow the board to be formed into different-sized trays. In one configuration, the trays may be configured to fit between the rafters of typical residential construction. The trays include tabs that allow the tray to be mounted to the supports.

Abstract: A system provides insulation products for a plurality of insulation wall cavities in buildings, where a substantial portion of the insulation wall cavities have a known nominal width. The system includes providing flangeless insulation products having a blanket of fibrous insulation material and having a facing material with a width substantially equal to the width of the insulation blanket, with the width of the insulation blanket and the width of the facing material being greater than the nominal width of the plurality of insulation cavities. The increased width of the facing material to improves the seal of the facing material when the insulation product is placed within insulation wall cavities of the known nominal width in comparison to the seal provided by flanged insulation products applied with inset stapling to the same insulation wall cavities.

Abstract: An insulation system of a building having a plurality of spaced-apart support members has an insulator with a plurality of ribs are formed thereon. A concave portion of each rib receives one of the support members. A panel covers, and is secured to the support members. An exterior covering element is secured to an exterior side of the panel. A radiant heat barrier is bonded between the insulator and the panel. The insulator defines air ventilation channels between the foam insulator and the panel for venting air from building. An insulator assembly for a building has a sheet of foam insulation with a plurality of channels intermittently formed in the sheet of insulation. Each channel has a concave side and a convex side. The concave side is adapted to receive a support member of the building. A radiant heat barrier is bonded to a surface of the foam insulation.

Abstract: The facing of a faced building insulation assembly includes a central field portion that is fungi growth resistant. The facing may include a fungi growth-inhibiting agent, be perforated to provide a selected water vapor permeance, and/or may include a heat activated bonding agent. The facing may have lateral tabs that are transparent, sufficiently open to enable wallboard to be directly bonded to framing members overlaid by the tabs, and/or of greater integrity than the field portion of the facing. The field portion of the facing may include a coating to stiffen the facing, inhibit fungi growth, and/or decrease flame spread and smoke formation.