Abstract: Insulation is partially divided into segments (200a), wherein each of the segments (200a) has an R-value and thickness and has length and width dimensions of, at least somewhat greater than 9.5 inches by at least somewhat greater than 14.5 inches to fill band joist cavities between spaced apart joists (106); and the batt (200) is either three segments (200a) in length or four segments (200a) in length, or is folded at intervals of the three segments (200a) in length or four segments in length (200a), and the batt (200) has a width of either one segment (200a) or two segments (200a), and the segments (200a) of the same batt (200) are partially divided from one another and remain in the batt (200) until separated at the point of use or installation.

Abstract: Heat insulation tiles (20) are supported in a grid (14) of support bars (15 and 16) of a ceiling assembly (10) with the ceiling tiles being in the form of insulation boxes (21) that form a dead air spaces (24) therein. Reflective material (22) is applied to at least one of the interior surfaces of the box that faces the dead air space (24) and a layer of phase change material (40) is applied to the insulation boxes.

Abstract: Insulation is partially divided into segments (200a), wherein each of the segments (200a) has an R-value and thickness and has length and width dimensions of, at least somewhat greater than 9.5 inches by at least somewhat greater than 14.5 inches to fill band joist cavities between spaced apart joists (106); and the batt (200) is either three segments (200a) in length or four segments (200a) in length, or is folded at intervals of the three segments (200a) in length or four segments in length (200a), and the batt (200) has a width of either one segment (200a) or two segments (200a), and the segments (200a) of the same batt (200) are partially divided from one another and remain in the batt (200) until separated at the point of use or installation.

Abstract: An engineered wall system for use above or below ground constituted of zinc-borate treated timber strand studs with sheets of structural fiberglass reinforced plastic and rigid foam insulation. The invention is particularly suitable as an alternative to other materials and methods commonly used to construct foundations for residential structures. This wall system exhibits great strength, durability, as well as improved resistance to mold, insects, water and fire.

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: A kit of parts having batts (200) of insulation, and one or more batts (200) have partially divided segments (200a), wherein each of the segments (200a) has an R value and thickness and has length and width dimensions of, at least somewhat greater than 9.5 inches by at least somewhat greater than 14.5 inches to fill band joist cavities between spaced apart joists (106); and the batt (200) is either three segments (200a) in length or four segments (200a) in length, or is folded at intervals of the three segments (200a) in length or four segments in length (200a), and the batt (200) has a width of either one segment (200a) or two segments (200a), and the segments (200a) of the same batt (200) are partially divided from one another and remain in the batt (200) until separated at the point of use or installation.

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: A covering system for roofs and for the outside of building walls is provided in which, on top, a high range of various decorative materials and elements can be fixed without penetrating the watertight layer. The system contains protruding elements connected to the support and flexible watertight membranes arranged so as to cover and contact essentially the complete support surface, including the protruding elements. Panels, preferably rigid insulation panels with excellent resistance to water, are arranged so as to hold down the watertight membranes onto the support, thus protecting the membrane from thermal cycling, UV rays and physical damage. The panels can be fixed with non-penetrating fastening means to secure the complete system to the protruding elements and to the support.

Abstract: An insulation material comprising a substrate (5) having a plurality of spaced attachment portions (7), each attachment portion (7) being formed so that in use structural members on either side of said substrate (5) can be adhered to one another where they overlie the attachment portions, and a plurality of spaced insulation portions (6) attached to said substrate (5) between said attachment portions (7).

Abstract: A method of reducing the amount of cooling energy required to cool a building is provided. The method includes disposing a porous insulating material 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, whereby the temperature of the desiccant-bearing porous insulating material is reduced, resulting in a reduction in the amount of cooling energy required to cool the building.

Abstract: Disclosed herein is a rack apparatus and storage panel assembly for implementing across two or more beams. The storage panel assembly is most typically implemented in attic storage space lacking a flooring surface on which to place and store items. The storage panel assembly comprises at least one rack apparatus 10, two or more railings to be positioned onto a series of rack apparatus 10 and a panel 48 configured to rest on two parallel railings 46, 44. The assembly provides a continuous platform by sitting between the truss 42 creating a planer surface between the top of the panel 48 and the top of the truss 42. The method of assembly allows positioning of the rack apparatuses 10 between the truss connections and allows the railings 46, 44 and panel 48 to slide under any transverse obstructions bearing on top of truss 42.

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: An insulation method and ducting configuration is provided. In an embodiment, an attic space of a house has at least one air duct running along a horizontal portion of said attic space. At least a portion of the at least one air duct is covered by a layer of foam insulation.

Abstract: A kraft paper sheet contains and/or is coated with a fungi growth-inhibiting agent that causes the kraft paper sheet to be fungi growth resistant. The kraft paper sheet alone or as part of a layered sheet material is used as a central field portion of facings for various faced building insulation assemblies. The facings, as part of an insulation assembly, are fungi growth resistant; may be perforated to provide the facing with a selected water vapor permeance; and/or may include a bonding layer, such as a heat activated bonding layer, that bonds the facing to an insulation layer of the assembly.

Abstract: There are several advantages to installing roof insulation in industrial and commercial buildings from above, rather than from below after the roof is sealed. A reinforced facing sheet is used that can be rolled out between the purlins that support the steel roofing. This reinforced facing material is located at the bottom of an insulation system and is used to support the insulation from below. The reinforced facing sheet must be anchored to reduce pillowing of the insulation and provide a neat appearance to the insulation job. The anchoring system for the reinforced facing material is made up of a metal angle that is firmly affixed to the top of a rafter between purlins. The reinforced facing material is, thus, sandwiched between the angle and the rafter top, and securely anchored, there. A channel-shaped lower support member, usually vinyl, is located beneath the reinforced facing material and the angle is pressed, from above, into the open part of the channel shape as it is situated on top if the rafter.

Abstract: The invention relates to a composite profile and to a method for the producing a composite profile. The profile is configured as an assembly with at least one metal profile and at least one insulating profile, wherein a tolerance-compensating gap is located between a metal profile and an insulating profile.

Abstract: Wall made of concrete or similar materials built from an unfold formwork integrated in the wall and including two formwork walls (8,8?,10) placed face to face and connected by connecting elements (1) articulated to the formwork walls by stiffeners (2) attached to the formwork walls. The interval between these formwork walls after being unfolded is filled with a filler (7) such as concrete. At least one of the formwork walls includes a casing (11,12) of concrete, mortar or similar, surcharged in relation to the stiffeners (2) and to the articulated connecting elements (1). This casing (11,12) is placed outside and/or inside the formwork wall, the stiffeners (2) and the articulated connecting elements (1) and the formwork wall 8 when it is coated forming an inner reinforcement of the wall submerged in the wall and covered by said casing. The use of separated stiffeners, which must be inserted before pouring the concrete, is thus avoided or highly reduced.

Abstract: A stud panel and method of making a stud panel where interior sheathing may be a temporary piece of transparent plastic or a permanent panel of sheet rock so as to retain insulation in place and minimize scarfing. The stud panel may include studs having through holes extending in a length direction of the stud panel such that insulation in adjacent inner regions separated by such studs interlock with each other and contribute to a structural integrity of the stud panel. The stud panel may include a space between inner studs and one of the exterior and interior sheathing so as to provide a thermal and sound break between the exterior and inner sheathing so as to minimize heat, air and sound transfer between the exterior and interior sheathing.

Abstract: The invention is intended to reduce heat accumulation in the heat insulator provided around the periphery of the living room of a house structure, thereby achieving simplification of a construction work, energy-saving, and rationalization in maintaining the living environment, and by covering the external face of the heat insulators (2) disposed around the periphery of partition sheet members surrounding the living room, such as the roof, ceiling, wall, and so forth, with the heat shielding members (1) provided with the heat reflection foil, so that radiant heat which will otherwise heat up the heat insulators (2) can be blocked, and heat accumulation in the heat insulators (2) can be reduced.

Abstract: An improved process and apparatus for insulating a building roof involves the use of a rigid thermal insulating panel supported between roof rafters. Brackets fastened to the rafters are used to support the rigid thermal insulating panels at a predetermined distance from the roof to provide an appropriate ventilation gap between the roof and the insulation.

Abstract: A plurality of sheet supports 50 or 70 of approximate rectangular configuration are placed on adjacent purlins 14 of a partially completed roof of an industrial building, about the second row of roof insulation support carriages 10. When the carriages are advanced along the lengths of the purlins to apply the sheet material 34 to the purlins, the sheet supports 50 or 70 move in unison with the carriages of the second row of carriages and the rear segment 54 supports the sheet material in the spaces 60 over which the carriage is mounted and the side segments 56 and 58 support the sheet material extending from the first row of carriages in the next adjacent spaces between the purlins. This avoids the sagging of the sheet material between the purlins at the time when the hard roof panels 37 are fastened to the purlins.

Abstract: An elongated fibrous insulation blanket is pre-cut for custom fitting the insulation blanket into wall, floor, ceiling and roof cavities of different widths formed by the framework of a building. The blanket has one or more cuts extending for the length of the blanket which separate the blanket into two or more longitudinally extending sections. Adjacent sections of the blanket are joined together along the cut(s) by separable adhesive connectors which hold together the sections of the blanket for handling, but are separable by hand along the cut(s) so that the blanket can be handled as a unit for insulating a cavity having a predetermined width or easily separated by hand into two or more sections at a cut for insulating a cavity having a lesser width. The pre-cut insulation blanket may have a facing sheet, overlaying and bonded to a major surface of the blanket, that is separable by hand along the cut(s).

Abstract: A faced insulation assembly has a facing sheet with a central field portion that overlays and is bonded to a major surface of the insulation layer. The sheet has two lateral tabs that are joined to the central field portion of the sheet along fold lines. The tabs are folded back to overlay the central field portion of sheet. The fold lines may include score lines or weld lines to help maintain the tabs in the folded position for handling. The tabs have tab strips bonded thereto that may be bonded to the tabs by a pressure sensitive adhesive whereby the tabs may be left in the folded position, unfolded for stapling to framing members, or have the tab strips removed for bonding to framing members either in a folded or an unfolded position.

Abstract: The facing of a faced insulation layer has Z-folded, double-folded, or single-folded lateral tabs extending the length of the facing sheet along or spaced inwardly from lateral edges of the facing sheet. Each lateral tab has multiple segments. One of the segments of each lateral tab has an adhesive thereon that can be exposed and extended beyond one of the lateral edges of the insulation layer for bonding the faced insulation layer to a framing member. Where the blanket is separable into sections, the facing has pairs of separable tabs that separate when the blanket is separated to expose surfaces of the separable tabs with adhesive thereon. The adhesive may be microencapsulated or have microencapsulated constituent(s).

Abstract: A method and apparatus for making an rigid foam insulating panel is disclosed. The panel includes an rigid foam sheet with a plurality of grooves or recesses in which reinforcing strips are placed. Both sides of the sub-assembly are covered with a reinforcing sheet made of plastic, paper, foil, or a combination thereof. These reinforcing sheets are bonded to the surface of the rigid foam sheet and provide structural support to the sheet, as well as retaining the reinforcing strips in place. They also provide a vapor barrier on both sides of the sheet to prevent the migration of moisture through the sheet toward the wall covering, which will typically be attached to the side of the sheet in which the reinforcing strips are inserted.

Abstract: An insulating unit for an electrical box for insulating an electrical box. The insulating unit for an electrical box includes a rear portion, a lower portion extending from the rear portion, an upper portion extending from the rear portion opposite of the lower portion, and a side portion extending from the rear portion defining a rectangular cavity for receiving the electrical box within. A cutout may be made within the upper portion, side portion or lower portion for receiving a wire. Sealants are preferably utilized for sealing and securing to a wall stud. The rear portion, lower portion, upper portion and side portion are preferably comprised of an insulating material.

Abstract: A modular wall component with an insulative thermal break for preventing the creation of a continuous thermal path across the modular wall component. The modular wall component may be formed with an insulated frame structure that is fixed to an open frame structure with an insulative thermal break interposed therebetween. The insulated frame structure may be formed with a plurality of vertical track members coupled to an upper track member and a lower track member. At least one sheet of insulative material is interposed into the insulated frame structure. The open frame structure may have a plurality of vertical framing studs coupled to an upper framing track and a lower framing track.

Abstract: The heat insulator includes a lower sheet (14) that is larger is both length and width than the upper sheet (12) so that the heat insulator can span over objects such as purlins, rafters and obstructions in a roof structure while maintaining the air gap (20) between the sheets. The air gap protects the reflectivity of the inner surfaces of the sheets, thereby preserving the ability of the sheets to reflect radiant heat. The larger, lower sheet can be formed in a single catenaries from edge to edge of the sheet, or in a multiple array of catenaries to form parallel, tubular air gaps (26), if desired. The heat insulator can be mounted to fibrous insulation (22) or to other more rigid structures, if desired, when placed in a roof structure.

Abstract: There are advantages to installing roof insulation in industrial and commercial buildings from above, rather than from below after the roof is sealed. A reinforced facing sheet is used that is rolled out between purlins. This facing material is used to support the insulation from below. The facing sheet is anchored to reduce pillowing of the insulation. The anchoring system for the facing material comprises a metal angle, firmly affixed to the top of a rafter between purlins. The facing material is sandwiched between the angle and the rafter, and anchored. A channel-shaped lower support member is located beneath the facing material and the angle is pressed, from above, into the open part of the channel shape as it is situated on top if the rafter. Consequently, the facing material is also pressed into the lower support member, thus holding the facing material at the correct elevation.

Abstract: The facing of a faced building insulation assembly includes a central field portion that is fungi growth resistant. The facing, as part of an insulation assembly, is fungi growth-resistant, may be perforated to provide a selected water vapor permeance, and may include a bonding layer such as a heat activated bonding layer, that bonds the facing to an insulation layer of the assembly. The facing may be tabless or have tabs.

Abstract: The blanket heat insulation with facing radiant barrier includes a heat insulation blanket assembly (10) that is to be placed in a wall structure of a building. The heat insulation blanket assembly includes a blanket formed of fibrous materials such as fiberglass, with the fibers being arranged in random array and defining air gaps therebetween for insulation purposes. Flexible sheet material (26) is positioned in superposed relationship with respect to a broad surface of the blanket (12), and includes a reflective surface (42) that faces the blanket. The fibers of the blanket engage and support the flexible sheet material without requiring an adhesive or other connection therebetween. This leaves the air gaps between the fibers of the blanket exposed to the heat reflective surface of the flexible sheet material, so that the air gaps tend to maintain the reflective properties of the reflective surface of the flexible sheet material.

Abstract: A faced insulation assembly has a facing sheet with a central field portion that overlays and is bonded to a major surface of the insulation layer. The sheet has two lateral tabs that are joined to the central field portion of the sheet along fold lines. The tabs are folded back to overlay the central field portion of sheet. The fold lines may include score lines or weld lines to help maintain the tabs in the folded position for handling. The tabs have tab strips bonded thereto that may be bonded to the tabs by a pressure sensitive adhesive whereby the tabs may be left in the folded position, unfolded for stapling to framing members, or have the tab strips removed for bonding to framing members either in a folded or an unfolded position.

Abstract: A pre-cut resilient fibrous insulation blanket includes a plurality of longitudinally extending blanket sections that are formed in the blanket by a plurality of laterally spaced apart cut and separable connector arrangements that hold the insulation blanket together for handling but enable the insulation blanket to be separated at any of the cut and separable connector arrangements to form a reduced width resilient fibrous insulation blanket. The number and widths of the blanket sections together with the lateral compressibility and resilience of the insulation blanket or a reduced width insulation blanket formed from the insulation blanket enable the insulation of essentially any width framework cavity up to the width of the insulation blanket with no more than one separation of the insulation blanket.

Abstract: The facing of a faced insulation layer has Z-folded, double-folded, or single-folded lateral tabs extending the length of the facing sheet along or spaced inwardly from lateral edges of the facing sheet. Each lateral tab has multiple segments. One of the segments of each lateral tab has an adhesive thereon that can be exposed and extended beyond one of the lateral edges of the insulation layer for bonding the faced insulation layer to a framing member. Where the blanket is separable into sections, the facing has pairs of separable tabs that separate when the blanket is separated to expose surfaces of the separable tabs with adhesive thereon. The adhesive may be microencapsulated or have microencapsulated constituent(s).

Abstract: An elongated fibrous insulation blanket is pre-cut for custom fitting the insulation blanket into wall, floor, ceiling and roof cavities of different widths formed by the framework of a building. The blanket has one or more cuts extending for the length of the blanket which separate the blanket into two or more longitudinally extending sections. Adjacent sections of the blanket are joined together along the cut(s) by separable adhesive connectors which hold together the sections of the blanket for handling, but are separable by hand along the cut(s) so that the blanket can be handled as a unit for insulating a cavity having a predetermined width or easily separated by hand into two or more sections at a cut for insulating a cavity having a lesser width. The pre-cut insulation blanket may have a facing sheet, overlaying and bonded to a major surface of the blanket, that is separable by hand along the cut(s).

Abstract: Roof insulation applicator (10) for applying blanket insulation or other sheet material to the roof of an industrial building includes a carriage (12) for mounting on adjacent purlins (14 and 15) of a partially completed roof. Support roller (40) is applied by the carriage to the upper surfaces of the purlins (14 and 15) and the carriage is tiltable about the support roller (40). The center of gravity of the carriage (12) is applied rearwardly of the support roller (40), between the support roller (40) and the rear of the carriage. Purlin engager (60) is mounted to the front of the carriage and engages under the upper laterally extending flange (22) of the purlin (14). The purlin engager at the front of the carriage limits the downward pivoting of the rear end of the carriage so that a lever arm effect is applied by the weight of the rear portion of the structure to the support roller (40).

Abstract: The blanket heat insulation with facing radiant barrier includes a heat insulation blanket assembly (10) that is to be placed in a wall structure of a building. The heat insulation blanket assembly includes a blanket formed of fibrous materials such as fiberglass, with the fibers being arranged in random array and defining air gaps therebetween for insulation purposes. Flexible sheet (26) is positioned in superposed relationship with respect to a broad surface of the blanket (12), and includes a reflective surface (42) that faces the blanket. The fibers of the blanket engage and support the flexible sheet without requiring an adhesive or other connection therebetween. This leaves the air gaps between the fibers of the blanket exposed to the heat reflective surface of the flexible sheet material, so that the air gaps tend to maintain the reflective properties of the reflective surface of the flexible sheet material.

Abstract: Hold-down clips for insulation. The clips have U-shaped bases for wrapping about the exposed edges of framing members such as 2×4s, 2×6s, 2×8s, and 2×10s, and the like, that are used under roofs, ceilings, floors and walls. The clips have side extending arms that abut against the insulation materials and can include protruding portions which further press the insulation material in place. The U-shaped bases can further include inwardly protruding bent tabs, dimples, and spike portions for further locking the clips to the framing members. The clips can be easily installed without the need for tools such as hammers, nail guns, and staple type guns, as well as not need any additional fasteners such as nails, screws, and staples, in order to be installed. An optional through-hole in the base portion can allow for an extra fastener to be used where the through-hole provides direct guidance for placing the optional fastener.

Abstract: A structural panel for a building structure includes first and second stud members each including a neck. Openings and venturi bridges are formed in the neck. At least one flange is attached to the neck. A foam panel extends between the studs. The openings in the neck limit the heat transferred from the stud to the edge of the foam panel. The venturi bridges in the neck also limit the transfer of heat from the neck to the edge of the foam panel.

Abstract: A heat block (28) is positioned between the upper lateral flange (24) of a purlin (14) and the roof panel (16) supported by the purlin. The heat block is in the shape of a barbell in that it includes opposed side portions (33 and 34) that are sized and shaped to extend laterally beyond the purlin (14) out into the hot zone adjacent the upper portion of the purlin and the roof panel (16). The heat block is of greater stiffness than the adjacent blanket insulation so that the heat block reliably occupies the space in the hot zone. Phase change material (64) can be incorporated in the opposed side portions (33 and 34) of the heat block.

Abstract: Heat insulation is positioned in a building structure that includes radiant heat reflective sheet material that is placed in spaced relationship with respect to an adjacent body, such as fibrous blanket heat insulation material. The reflective sheet is protected from intrusion of dust, fibers, etc. and faces a dead air space.

Abstract: A greenhouse includes a frame structure (1), an outer transparent covering layer (2), and a transparent inner layer (7). A transparent insulating sheet-like material is located between the inner and outer layers in close proximity to the inner layer (8). The insulating sheet-like material has a cellular structure (4, 5) with the axis of its cells generally oriented normal to the plane thereof material so as to transmit incident light therethrough. The insulation material helps to retain heat within the structure while avoiding detrimental effects, such as loss of light transmissivity. The creation of an air gap on one side between the transparent insulation and one of the glazings allows for control of moisture and snow buildup.

Abstract: Heat insulated wall structure includes interior blanket insulation positioned between adjacent ones of studs, interior of the exterior wall board. Reflective sheet material is placed adjacent the blanket insulation, and the interior wall board is applied over the reflective sheet material to the studs. Spacers are applied to the heat reflective sheet material so as to maintain the facing surfaces of the reflective sheet material and the next adjacent surface in spaced relationship, forming a dead air space therebetween. The dead air space adjacent the heat reflective sheet material maintains the high reflectivity properties of the reflective sheet material, giving the enhanced ability to reflect heat away from the interior of the wall structure.

Abstract: Radiant heat reflective cell blanket (10) is formed with superposed support sheets (12 and 13) that form an array of cells thereover. A dead air space is maintained in each cell, and heat reflective sheets (20 and 21) are located within each cell. The reflective sheets (20 and 21) are adhesively connected to the upper and lower support sheets (12 and 13) to maintain a dead air space therebetween. The cells avoid the accumulation of dust, dirt, and fibrous material on the reflective surfaces of the blanket, thereby maintaining the reflectivity of the blanket, and the cells avoid outside contact by other objects that might reduce the reflectivity of the blanket.

Abstract: A roof covering includes a thin film safety barrier coupled between the lower flanges of spaced roof purlins for supporting the weight of a person thereon in the space between the purlins. The preferred safety barrier includes a plurality of layers with at least one of the layers being vapor impervious. In the preferred embodiment, fasteners are used to couple straps to the purlin lower flange with the barrier there between in order to secure the barrier to the purlins.

Abstract: A modular wall component with an insulative thermal break for preventing the creation of a continuous thermal path across the modular wall component. The modular wall component may be formed with an insulated frame structure that is fixed to an open frame structure with an insulative thermal break interposed therebetween. The insulated frame structure may be formed with a plurality of vertical track members coupled to an upper track member and a lower track member. At least one sheet of insulative material is interposed into the insulated frame structure. The open frame structure may have a plurality of vertical framing studs coupled to an upper framing track and a lower framing track.

Abstract: A method of providing a roof structure having a plurality of purlins spaced apart from one another in a parallel arrangement includes the first step of providing a carriage carrying a supply of netting. The carriage is then moved along the length of the purlins in a first direction from a first portion of the roof structure to a second portion of the roof structure, such as for example, one end of the roof structure to the other end. Movement of the carriage dispenses the netting between the first and second portions. A supply of support sheet is then provided. A first section of the roof structure is constructed which includes purlins, the netting, and the support sheet. The carriage is then moved along the length of the purlins in a second direction opposite the first direction and towards the first portion of the roof structure. Movement of the carriage dispenses the support sheet above the netting.

Abstract: An insulated roof panel comprising a plurality of longitudinally extending spaced parallel web trusses secured to an inner sheathing and an outer sheathing. Each of the web trusses comprises at least one top cord, a bottom cord and a plurality of webs joining the cords together. A vapor barrier is sandwiched between the bottom cords of the web trusses and the inner sheathing. Insulation extends upwardly from the vapor barrier to a height less than the height of the insulated roof panel in order to allow air to flow over the insulation.

Abstract: There is provided a premanufactured structural building panel system for effectively promoting the efficient construction of the exterior wall members of a building having improved insulation, sound absorption, fire retardant and structural properties. The premanufactured structural building panels are made of a pair of C-shaped structural channels having first and second flanges. The channels are secured to a foam insulation member to form the panels. A fire retarding member can be secured to a flange of at least one of the channels to define an interior surface. The structural panels are supported on wall support members and connected to each other in a side-by-side fashion to form an exterior wall member of a building. The exterior wall members include vertical sidewalls, a horizontal roof and ceiling wall, and a pitched roof system. The interior surface of the walls can be prepared for finishing. Affixed to the exterior of the wall members is a weatherable covering.

Abstract: A method of forming an insulated ceiling includes attaching an insulated panel to the lower flange of the purlins to form an insulatable space between the panel, the purlins, and the exterior skin of a building. The space is then filled with insulation material. An insulation delivery system can be utilized for the filling process, especially when loose-fill insulation is used. The delivery system includes a blower connected to a source of blowable insulating material, and a special manifold connected to the blower and adapted to deliver the material into the space. The manifold has a manifold plate that is slidingly insertable in the space. The manifold plate includes a peripheral seal and at least one air hole therethrough so that air can escape the space while the insulation is being blown in. The manifold allows the space to be filled with insulating material to a desired density or R-value.