Abstract: Pipe insulation assemblies (10) comprising tubular insulation (100) having a longitudinal slit (400), a jacket (110), releasable tape (120), butt sealant strips (600), and/or closing adhesives are disclosed. The jacket (110) overlays the outer surface of the tubular insulation (100). The jacket (110) has an extended lip portion (200) extending beyond the longitudinal slit (400). An adhesive (420) and an internal release liner (130) are located on the extended lip portion (200).

Abstract: Pipe insulation assemblies (10) comprising tubular insulation (100) having a longitudinal slit (400), a jacket (110), releasable tape (120), butt sealant strips (600), and/or closing adhesives are disclosed. The jacket (110) overlays the outer surface of the tubular insulation (100). The jacket (110) has an extended lip portion (200) extending beyond the longitudinal slit (400). An adhesive (420) and an internal release liner (130) are located on the extended lip portion (200).

Abstract: A duct liner arranged in a roll including an insulation layer having a first face surface and a second face surface that is opposed to and spaced apart from the first face surface and a fiberglass mat facing disposed on the first face surface, such that the majority of the first face surface is covered by the facing, wherein the fiberglass mat facing is not disposed on the second face surface, and wherein the duct liner is rolled such that the fiberglass mat and first face surface is radially outward of the second face surface.

Abstract: A composition and method for making a faced insulation product having an asphalt adhesive layer is provided. The faced insulation product includes a facing layer laminated to a fibrous insulation layer by a waterless asphalt adhesive.

Abstract: An insulation blanket includes a blend of a first component and a second component. The first component is a first fiber material selected from a group consisting of glass fibers, mineral fibers, basalt fibers, natural fibers and mixtures thereof. The second component is made of a second material selected from a group consisting of thermoplastic copolymer bi-component fibers, monofilament fibers, a thermal setting resin and mixtures thereof.

Abstract: A kitchen range that includes a front panel, a rear panel, and a pair of opposed side panels. Each of the panels is connected to the front panel at a respective front corner. The range also includes a conduit configured to transport an airflow within the range. The opposed side panels can also include a front flange defining a channel. A channel wall is attached to each front flange. The channel wall is configured to enclose the sides of the channel to form a conduit. The conduit is configured to transport an airflow through the conduit.

Abstract: An apparatus for determining the density of insulation in a cavity of a structure that senses a force of the insulation against the sensor. The force is used to determine the density of the insulation, which, in turn, is used to determine the thermal resistance or R-value of the insulation. The apparatus may include a fixture for supporting the sensor and holding the sensor in the substantially fixed position. A method for determining the density of loose-fill, blown-in-place insulation in a wall cavity by the use of a sensor is that measures a force exerted on the sensor by the insulation. The measured force is used to determine the density of the insulation. The thermal resistance of the insulation is determined from the known cavity depth and insulation density.

Abstract: An apparatus for determining the density of insulation in a cavity of a structure that senses a force of the insulation against the sensor. The force is used to determine the density of the insulation, which, in turn, is used to determine the thermal resistance or R-value of the insulation. The apparatus may include a fixture for supporting the sensor and holding the sensor in the substantially fixed position. A method for determining the density of loose-fill, blown-in-place insulation in a wall cavity by the use of a sensor is that measures a force exerted on the sensor by the insulation. The measured force is used to determine the density of the insulation. The thermal resistance of the insulation is determined from the known cavity depth and insulation density.

Abstract: An apparatus for determining the density of insulation in a cavity of a structure that senses a force of the insulation against the sensor. The force is used to determine the density of the insulation, which, in turn, is used to determine the thermal resistance or R-value of the insulation. The apparatus may include a fixture for supporting the sensor and holding the sensor in the substantially fixed position. A method for determining the density of loose-fill, blown-in-place insulation in a wall cavity by the use of a sensor is that measures a force exerted on the sensor by the insulation. The measured force is used to determine the density of the insulation. The thermal resistance of the insulation is determined from the known cavity depth and insulation density.

Abstract: An insulation blanket includes a blend of a first component and a second component. The first component is a first fiber material selected from a group consisting of glass fibers, mineral fibers, basalt fibers, natural fibers and mixtures thereof. The second component is made of a second material selected from a group consisting of thermoplastic copolymer bi-component fibers, monofilament fibers, a thermal setting resin and mixtures thereof.

Abstract: An apparatus for determining the density of insulation in a cavity of a structure that senses a force of the insulation against the sensor. The force is used to determine the density of the insulation, which, in turn, is used to determine the thermal resistance or R-value of the insulation. The apparatus may include a fixture for supporting the sensor and holding the sensor in the substantially fixed position. A method for determining the density of loose-fill, blown-in-place insulation in a wall cavity by the use of a sensor is that measures a force exerted on the sensor by the insulation. The measured force is used to determine the density of the insulation. The thermal resistance of the insulation is determined from the known cavity depth and insulation density.

Abstract: An apparatus for determining the density of insulation in a cavity of a structure includes a sensor that is held in a substantially fixed position relative to the insulation for sensing the force of the insulation against the sensor. The force is used to determine the density of the insulation, which, in turn, is used to determine the thermal resistance or R-value of the insulation. The apparatus may include a fixture for supporting the sensor and holding the sensor in the substantially fixed position. A method for determining the density of loose-fill, blown-in-place insulation comprises the step of providing a structure with a cavity having a known depth. The cavity is covered with netting and filled with insulation. A sensor is held in a substantially fixed position relative to the insulation to measure force exerted on the sensor by the insulation. The measured force is used to determine the density of the insulation.

Abstract: A method of insulating an attic cavity includes assembling a plurality of trusses to define an attic cavity, the trusses having sloped top beams so that the attic cavity has a reduced height end portion at least one end of the trusses. A screen material is applied to the attic cavity at the reduced height end portion of the attic cavity. Loosefil insulation material is blown into the end portion of the attic cavity to insulate the end portion of the attic cavity. The remaining portion of the attic cavity is insulated.