Abstract: A thermally insulated panel includes a first skin, a second skin spaced apart from the first skin, and a core that is disposed between and bonded to the first skin and the second skin such that the core transfers loads between the first skin and the second skin. The core includes a porous filler material that has a vacuum drawn therein such that the core resists transfer of thermal energy through the panel. A cargo container including thermally insulated panels and a method of manufacturing the thermally insulated panels are also disclosed. In addition, a method of repairing a vacuum insulated panel is disclosed.

Abstract: Described herein is a smoke and sound barrier for construction assemblies comprising a penetration wherein, optionally a packing material, and a non-porous adhesive article are used.

Abstract: An insulated panel having grooves and channels therein to serve as a template for the proper placement of framing members in the construction of a building structure such as a dwelling or commercial building.

Abstract: A vacuum insulated panel includes a fiberglass insulation blanket and a barrier layer. The barrier layer is sealed around the fiberglass insulation blanket. Gas inside the barrier layer is evacuated such that the fiberglass insulation blanket is compressed.

Abstract: A household appliance includes appliance walls which delimit a space. A covering plate is arranged on an outer face of at least one of the appliance walls so as to leave free a gap. The gap is sealed in an edge region of the covering plate by an acoustic sealing frame.

Abstract: An attic stairway insulator assembly configured for placement within a building scuttle is provided. The building scuttle has a length and a width. The attic stairway insulator assembly includes a base configured to cover the building scuttle. The base has a length and a width corresponding generally to the length and the width of the building scuttle. A bag is seated on the base and has insulative material within a jacket. The bag has a length that is longer than the length of the base and a width that is wider than the width of the base such that portions of the bag having the insulative material drape over portions of the base.

Abstract: A series of wall insulating panels (“WIPs”) for a modular wall insulating system, each WIP comprising at least the successive layers of: a first protective shell, one or more intermediate VIP panels; and a second protective shell. The WIPs of the series comprise two or more sets, each set comprising first and second protective shells having wholly or substantially the same outer dimensions, and at least first and second sets comprising a different number of the same VIP panels and/or differently shaped VIP panels. In this way, there can be provided to an architect, designer and/or installer of the WIPs, different sets of VIP wall insulation panels having a single ‘shape’ or ‘outer shape’. The designer, etc. can then more easily work out, plan or otherwise predict how many and which WIPs are required and where, both overall, and for each wall section, position or location, etc.

Abstract: A process for making a fibrous panel member. The process includes mixing a porous fiber material with a MDI adhesive. The fiber batt is compressed between a pair of porous belts. Steam and heat are applied to the compressed batt to form a bound flexible batting material.

Abstract: The present invention relates to a roof structure. The structure comprises support members defining openings. Bridge members extend between the support members. End portions of the bridge members are able to be received by the openings in the support members such that the end portions can be inhibited from being withdrawn from the openings. A safety barrier is supported by the bridge members. The structure also comprises an insulating layer including insulation pockets and being supported by the safety barrier.

Abstract: An acoustically insulating product for acoustically insulating a building structure includes a base entangled net material, and an acoustical nonwoven material. The acoustical nonwoven material is on at least one side of the base entangled net material. The acoustical nonwoven material has an increase in impact insulation class of 6 or greater.

Abstract: A structural insulated panel system includes a frame having a first and second vertical frame members and top and bottom frame members. First and second siding members are attached to opposite sides of the frame, the frame and the first and second siding members forming a cavity, with an insulation material within the cavity. The first vertical frame member includes recesses having a first depth and the second vertical frame member includes projections having a second depth. A first compressible seal is disposed within the recesses and is compressed by the projections of an adjacent panel upon assembly. A second compressible seal is disposed adjacent to each outside edge of the first or second vertical frame member and is compressed by the other frame member upon assembly. A plurality of voids are formed in at least one of the frame members and filled with the insulation fill material.

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: 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 compressible mineral fiber insulation element (1) having a first major surface (3) opposed to a second major surface (4), and having side surfaces (5) connecting the two major surfaces (3, 4) and defining a thickness of the insulation element (1). The thickness is at least 10 cm. The insulation element comprises a facing (20) provided with at least one extension flange (21) of which the outer end (22) is not secured to the insulation element. The facing (20) is attached to at least a part of the first major surface (3), and the extension flange (21) is prepared for extending over and covering a substantial part of the side surface (5) of the insulation element (1). A method of installing a compressible insulation element is also disclosed.

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 convection baffle for hollow blocks increases the R-value of a hollow block when one or more convection dampers are received within passages defined through the hollow block. The convection baffle includes an upper wall having laterally opposed first and second side edges, a lower wall having laterally opposed first and second side edges, first and second laterally opposed sidewalls, and a central wall having opposed upper and lower edges. The convection baffle is substantially G-shaped. The convection baffle decreases convection current flow within the passage of the hollow block to increase the overall R-value of the hollow block.

Abstract: The invention relates to a method of constructing a building, comprising the step of providing a skeleton for a building wall of the building. The skeleton includes at least upright building elements such as columns or dividing walls. At least one lightweight, heat insulating and fire retarding wall element is placed between each adjacent pair of said columns. The columns are covered to provide substantially closed wall surfaces. The wall surfaces are covered with a covering layer having properties so as to provide fire-resistance to the complete wall. The covering layer on the inside wall surface may include a base layer of modified resin mortar, and a top layer of plaster mortar. The covering layer on the outside wall surface may include a base layer of modified resin mortar and a top layer of mineral mortar.

Abstract: The present disclosure utilizes the phase change properties of various phase change materials, specifically of 1-decanol and 1-dodecanol. Blood platelets and biological tissues that are chemically unstable at high temperatures can be maintained between 20° C. and 24° C. using 1-Dodecanol in a disclosed container. Temperature sensitive pharmaceutical products may be maintained between 2° C. to 8° C. using 1-Decanol in a disclosed container. The present disclosure may be used to control the temperature of such products during transport by confining the temperature of the product within a predetermined range. This permits light weight packaging with the maintenance of temperatures in narrow, pre-selected ranges over extended periods of time. A nylon and low density polyethylene thermal blanket comprising cells substantially filled with phase change material, which is advantageously puncture proof, durable, and capable of surrounding any payload, is disclosed.

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: The present invention provides a building to be constructed without any troublesome work. The building is a building comprising a construction material 12, which has a plane heat insulation material 14 in which a madreporic core material is enclosed in a vacuum and a plate structural face material 12a, and whose heat insulation material 14 and structural face material 12a are combined in a way that a plane surface of the heat insulation material 14 faces to one side of a plane surface of the structural face material 12a, and further comprising a wooden base 9b assembled on the construction material 12 and an external wall finishing material 3 fixed on the wooden base 9b.

Abstract: A foam insulating liner includes a liner frame comprising a first side, a second side and a perimeter disposed about an injected foam insulating core. The method of its manufacture includes the steps of placing a first side of an insulating liner frame in a first half of a mold; placing a second side of said insulating liner frame in a second half of said mold; sealing together said first half and said second half of said mold; disposing a quantity of foam material between said first side and said second side of said insulating liner frame within said sealed mold; and removing a foam insulating liner from said mold.

Abstract: A method of sealing an attic access opening; a first step for which involves providing an attic access opening with a peripheral interior sidewall. A second step involves providing an insulated attic access cover, which consists of a first panel having a peripheral edge and a second panel having a peripheral edge. A flexible web connects the peripheral edge of the first panel with the peripheral edge of the second panel, and defines an insulation cavity between the first panel and the second panel filled with compressible insulation. A third step involves positioning the insulated attic access cover within an attic access opening and moving the first panel and the second panel toward each other to compress the insulation in the insulation cavity and cause the insulation to bulge outwardly to engage the peripheral interior sidewall of the attic access opening.

Abstract: A compressible mineral fibre insulation element (1) having a first major surface (3) opposed to a second major surface (4), and having side surfaces (5) connecting the two major surfaces (3, 4) and defining a thickness of the insulation element (1). The thickness is at least 10 cm. The insulation element comprises a facing (20) provided with at least one extension flange (21) of which the outer end (22) is not secured to the insulation element. The facing (20) is attached to at least a part of the first major surface (3), and the extension flange (21) is prepared for extending over and covering a substantial part of the side surface (5) of the insulation element (1). A method of installing a compressible insulation element is also disclosed.

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: 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 technique comprises the utilization of phase change materials to control the heat flux into and out of a building through the roof components. In order to effectively control the heat flux through the roof components, phase change materials are arranged in two locations inside the roof structure. A first phase change material is used in the upper part of the roof above the insulation. A second phase change material is used in the lower part of the roof below the insulation. The melting point of the first phase change material is higher than the crystallization point of the second phase change material. The phase change materials are incorporated into an elastomeric compound which is applied to one or both sides of a carrier fabric. The phase change materials are preferable non-combustible salt hydrates in order to meet fire-resistant requirements of building materials.

Abstract: A novel composition of weatherable and semi-weatherable materials that can be injection molded or extruded into sheets or rolls to create a roofing product wherein the roofing product overlaps in order to provide a substantially weatherable covering on a roof. The roofing product has a top layer (14) made of weatherable polymers and multiple substrate layers (22, 30) made of semi-weatherable polymers. A decorative, three dimensional appearing layer (16) of colorants is uniquely applied to the bottom surface (15) of the top layer (14). The weatherable top layer (14) is preferably an ASA or acrylic-type copolymer. The semi-weatherable bottom layers (22, 30) are specialized formulations of fire resistant polymers, where the semi-weatherable bottom layers (22, 30) have had the Heat Deflection Temperature (HDT) uniquely improved for use in roofing. The product has multi-layering UV stability. The multiple layers can be injection molded or extruded or laminated or preferably multi-layer-extruded, thus bonded.

Abstract: A method of making an insulation product is provided. An uncured or partially cured mat containing randomly oriented inorganic fibers and a heat curable binder agent is formed. The mat has a pair of side portions and a first and second major surfaces thereon. A nonwoven sheet is applied to the first major surface. The nonwoven sheet comprises randomly oriented glass fibers. The uncured or partially cured mat is heated with the nonwoven sheet, wherein the mat is cured to form a low density mat and the nonwoven sheet is bonded to the first major surface by the heat curable binder agent.

Abstract: A flexible insulation material and method for using such an insulation material with an HVAC duct to provide noise suppression and thermal protection. The insulation material includes a lofted substrate and a facer sheet laminated thereto. The substrate contains nonwoven lofted fibers and the insulation material is attached to the duct such that a first surface of the substrate faces a wall surface of the duct and the facer sheet is on the opposite surface of the substrate. The facer sheet includes a polymeric film bonded to the substrate, a metallization layer on the polymeric film, and optionally a protective coating on the metallization layer. The insulation material can be used as an external duct wrap or an internal duct liner. In the former application, the insulation material preferably includes a second facer sheet on the first surface of the substrate.

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: A backing sheet, and a system and method of manufacturing a backing sheet with stapling tabs. The system includes a roller device configured to apply an adherent material to a first side of the backing sheet continuously fed from a feed roll. The sheet is then fed to a first pair of folders configured to fold the backing sheet along the edges such that the adherent material holds the first fold in place. The sheet passes through a second pair of folders that form a second fold along the edges of the sheet by folding in the opposite direction as in the first fold. Advantageously, an applicator device is configured to apply a tacky substance, such as a starch solution, between the contacting portions of the second fold, prior to the formation of the second fold. The tacky substance maintains the second fold and prevents the stapling tab from opening during further manufacturing and packaging processes.

Abstract: The present invention provides a heat-insulating structure using a fluff-like heat-insulating material such as cellulose insulation fibers, capable of allowing convenient handling and preventing a so-called settling-down phenomenon in which the top of the heat-insulating material will settle down with time. The heat-insulating structure comprises a plurality of strap-shaped partition members 2 arranged to define an array of heat-insulating segments therebetween, and cellulose insulation fibers filled in each of the heat-insulating segments. A surface member 3 such as an underlying member or a facing member may be adhesively attached to the exposed surface of the interleaved structure of the partition members and the heat-insulating segments filled with the cellulose insulation fibers to provide a discrete heat-insulating panel.

Abstract: The invention provides a rivet and method of installing the rivet to attach honeycomb material to other materials. The rivet is installed by drilling a hole through the materials. A back side sleeve of the rivet is inserted through one end of the hole while a front side sleeve with a stem member inserted therethrough is inserted through the other end of the hole such that the head of the stem member and the sleeve portion of the front sleeve are positioned within the sleeve portion of the back sleeve. The shank portion of the stem member is then pulled such that the head of the stem member expands the sleeve portions of the front and back sleeves into the materials to attach the rivet to the materials. A locking collar is also provided to lock the stem member to the front sleeve upon continued pulling of the stem member.

Abstract: The invention relates, on the one hand, to a prismatic, especially panel-formed thermal insulation element which is enveloped in a gas-tight foil and evacuated, whereby a stable core pre-formed from a porous material is completely enveloped in a single cut sheet of the gas-tight foil; as well as a manufacturing process for same comprising the following steps: a) Manufacture of a prismatic core corresponding to the desired form of the thermal insulation element from a porous material; b) Enveloping of the principal faces of this core with a single sheet of the gas-tight foil; c) At least partial welding together of the foil which is drawn tight around the core along the face of the core; d) Folding-in of the welded seam area of the foil against the face of the core; e) Stress-free folding-together of the areas of the cut sheet of gas-tight foil projecting beyond the core, covering and in flat contact with the end surface(s) of the core; f) Welding together of the folded-together areas of foil on at least on

Abstract: A plastic ceiling board includes a hollow plastic body having an open front side and an open rear side, the hollow plastic body having an interior divided into a plurality of longitudinal chambers having an open front end and an open rear end, each of the longitudinal chambers being filled with liquid fire distinguishing material, a first plastic strip engaged with the front side of the hollow plastic body, and a second plastic strip engaged with the rear side of the hollow plastic body, whereby the plastic ceiling board can provide sufficient time for people to escape for a fire and alleviate the heat of summer.

Abstract: A lining (10) for a furnace the lining (10) having insulating material (12) attached to an inside wall (11) of the furnace, the insulating material (12) in use having a hot face (20) which faces inwardly of the furnace, and a cold face at or adjacent the furnace wall (11) characterized in that a protective element (26) is provided at least partially to cover the hot face (20), and/or the cold (C) face, the protective element (26) being secured relative to the face by a securing means (27, 27b), which co-operates with a member (25, 25a; 25b; 25c) which is embedded in the insulating material (12).

Abstract: The present invention provides a vacuum heat-insulating block including a honeycomb core, wherein the block structure prevents the honeycomb core having a low bulk specific gravity from collapsing by atmospheric pressure, the block attaining flexibility and sound absorption property. The vacuum heat-insulating block 100 according to the present invention is basically composed of a core utilizing a plurality of layered honeycomb members 50 (formed by bonding a honeycomb core member 51 to a support plate 55) and covering the core with a cover member 70. Moreover, a woven or non-woven fabric 60 having air permeability is disposed between the layers of honeycomb core members 51.

Abstract: The thermal insulation pad has a compressible insulation strip, a top flexible cover and a bottom flexible cover. A stapling flange and a flashing flange extend widthwise from the top and bottom cover strips respectively along a first side of the insulation strip and are sealed to each other along a bond line near the first side. An interior flange extends widthwise from the top cover strip, along the other side of the insulation strip. The flanges are usable to seal the thermal insulation pad against the weather and air barrier on the outside of a building wall and against the vapour barrier on the inside of a building wall. The flanges extending from the top cover strip are usable to stretch the top cover strip over the insulation strip to form a cushioned liner around a wall opening.

Abstract: Heat insulation blanket (10) includes a layer of inner cells (16) containing a phase change material, and opposed outer cells (18 and 19) containing dead air or other undisturbed gas. When placed in an attic or other insulated area, the phase change material changes phase when the outside atmospheric temperature passes the phase change temperature, resulting in a delay in the transfer of heat between the interior space and the atmosphere because of the heat required for or given up by the PCM during its change of phase. The outer plies of sheet material that form the superposed cells of the cell blanket are formed with a coating of heat reflective material that faces the interior of the cell blanket, whereby the reflective surfaces are protected against deterioration and retain their capacity to reflect radiant heat.

Abstract: The invention is directed to modular radiant heat panel system. In the preferred embodiment, the system comprises multiple radiant heat transfer panels (16), each of the panels having a thermal mass (18) and a conduit channel (20); a fluid conduit (21), the conduit communicating with an apparatus (23) for heating fluid (22) in the conduit; the multiple panels positioned adjacent each other such that the conduit extends through a series of the conduit channels; the panels, conduit and apparatus so configured and arranged to permit heat transfer from the fluid to the thermal mass of the panel, whereby heat radiates from the panel. The present invention also discloses a radiant heat transfer panel for engagement with a fluid conduit comprising: a formed tray (24); the tray defining a thermal volume (17) and a conduit channel; the volume containing a thermal mass; and the channel, volume and thermal mass configured and arranged to permit heat transfer between the conduit and the thermal mass.

Abstract: A fibrous insulation batt is encapsulated within an envelope to form an encapsulated insulation batt assembly. The envelope has pressure sensitive adhesive on lateral flanges or surfaces of the envelope for securing the encapsulated insulation batt assembly to spaced-apart frame members defining a cavity to be insulated. Release liners, on surfaces of the envelope or the lateral flanges, which overlay and are releasably secured to the pressure sensitive adhesive, are removed from the pressure sensitive adhesive immediately prior to bonding the encapsulated insulation batt assembly to the spaced-apart frame members. Preferably, the release liners for the pressure sensitive adhesive are contact areas on the surfaces of the envelope or the lateral flanges coated or otherwise treated with a release agent.

Abstract: A method and apparatus are provided for forming textile pads from a textile batt. The method includes the steps of splitting an incoming single textile batt and forming partial thickness textile batts, applying an adhesive to outer surfaces of the partial thickness textile batts, and adhering vapor barriers to the partial thickness textile batts. The apparatus comprises a pair of feed rollers for receiving a textile batt, a splitting knife downstream of the pair of feed rollers, adhesive appliers positioned downstream of the splitting knife and capable of applying an adhesive to outer surfaces of the partial thickness textile batts, vapor barrier supply positioned downstream of the adhesive appliers and capable of supplying vapor barriers that contact the outer surfaces of the partial thickness textile batts, pressure rollers positioned downstream of the pair of vapor barrier supply rollers.

Abstract: This composite building stud combines two metal shapes, inner and outer, with an insulating material to form a composite structural member having excellent acoustical properties. The stud also has an insulating valve (R-value) greater than a similar metal member normally used as a stud in a residential structure. The composite also has a strength comparable to that of a similar steel member normally used as a stud in a residential structure. One shape encompasses the other shape. The composite structural member eliminates any direct metal connections and thus eliminates any thermal shorts that reduce the overall insulating value (R-value) of the composite member.

Abstract: A resilient pre-cut fibrous insulation blanket includes first and second insulation blankets. The blankets each have a first major surface with one or more longitudinally extending cuts in the surface that are spaced inwardly from lateral edges of the surface and spaced apart from each other. The cuts only partially sever the blankets to form separable connectors in the blankets that join adjacent blanket sections formed by the cuts. The first major surfaces of the blankets are bonded to each other, with the cuts in the major surfaces of the blankets aligned longitudinally, to form a batt with longitudinally extending batt sections joined by the separable connectors in the blankets whereby the batt can be handled as a unit or one or more batt sections can be separated from the remainder of the batt by hand to form a batt of lesser width.

Abstract: A thermal insulation panel exhibits little or no warping due to temperature differences between different portions of the panel. The panel comprises insulation material and an envelope for encapsulating the insulation material. The envelope comprises a base member and a cover member. The cover member is supported by the base member in a floating and sealing engagement with the base member. The cover member can slide relative to the base member to compensate for differential thermal expansion effects on the respective base member and cover member. In an alternative embodiment the cover member is adapted to be exposed to a temperature significantly below the temperature to which the base member is exposed. The cover member is formed of a metal having a low coefficient of thermal expansion to compensate for differential thermal expansion effects in the respective base member and cover member. The cover member and the base member are joined to provide the envelope with a hermetic seal.

Abstract: A moisture and air tight barrier for windows, doors and sliders having improved installation and sealing characteristics, comprising a moisture and air tight wrap comprising a capsule portion and flange portion; and insulating material encapsulated in the capsule portion.

Abstract: An insulating polymer foam sheet having two major sides and at least one groove in at least one of said sides. At least a portion of the foam sheet adjacent to the groove is compressible and resilient, and has a length and height the same as the adjacent groove. Each groove and compressible portion is of a width that permits the groove to receive and tightly fit around a support member in a frame building construction.

Abstract: An insulation assembly includes an elongated batt of fibrous insulation material having two opposed major surfaces, where the batt has a first facing secured on its first major surface. The first facing extends beyond the side edges of the batt to form opposed flanges suitable for attaching the insulation assembly to a building structure. The batt has a second facing secured on its second major surface, with the second facing extending beyond the side edges of the batt to form opposed flanges suitable for attaching the insulation assembly to a building structure. The method of making an insulation assembly includes moving a pack of fibrous insulation material along a path, where the fibrous insulation material has two opposed major surfaces. A continuous encapsulation material is applied to the pack, and a portion of the encapsulation material is continuously gathered to form a two part fold.

Abstract: A ventilating radiant barrier for reducing the solar or thermal load into a home through a rood while also providing ventilation beneath the exterior of the roof to protect the roof from moisture damage. The ventilating radiant barrier includes a panel has a pair of faces, a pair of end edges and a pair of side edges extending between the end edges of the panel. A first of the faces of the panel has a spaced apart pair of perforations rows extending between the end edges of the panel. The second face of the panel has a spaced apart pair of perforations rows extending between the end edges of the panel. The perforation rows of the second face of the panel are positioned between the perforation rows of the first face of the panel.