Abstract: A compound having the following structure: wherein: R1 is a linker having the formula —(CH2)n-L1-, wherein L1 contains 1-6 carbon atoms and at least one —NH— linkage and at least one oxygen-containing or sulfur-containing linkage, and n is an integer of 0-3; R2 is a group having the formula —C(Y)-E, wherein Y is O or S, and E is a hydrocarbon group and either: (i) at least one carbon-carbon or carbon-nitrogen unsaturated bond or (ii) at least one alkyl halide group; R3 is selected from H, NR?2, NHC(O)R?, and —(CH2)p-T, wherein T contains at least one —NH— linkage; Ra, Rb, Rc, Rd, Re, and Rf are independently selected from of H, hydrocarbon groups containing 1-3 carbon atoms, fluorine atom, and chlorine atom; X is N or CR9, wherein R9 is selected from H, hydrocarbon groups containing 1-3 carbon atoms, fluorine atom, and chlorine atom; and pharmaceutically acceptable salts thereof.

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: Two genes required for this mercury methylation have been identified in bacteria and archaea. These genes are the hgcA gene and hgcB, a corrinoid protein that facilitates methyl group transfer to Hg, and a corrinoid protein-associated ferredoxin with two [4Fe-4S] binding motifs involved in generating cob(I)almin, respectively. The invention provides nucleic acid probes and primers for detecting methylmercury and or for assessing mercury methylation potential in environmental, clinical and other samples. The invention also provides antibodies against these proteins, antibodies against these proteins, methods of using the antibodies and methods of biocatalysis.

Abstract: A duct liner includes an insulation layer and a facing. The insulation layer having a first edge surface, a second edge surface that is spaced apart from the first edge surface, and a first and second face surfaces that extend from the first edge surface to the second edge surface. The facing is disposed on the first face surface, such that the first face surface is entirely covered by the facing. The facing is disposed on the first and second edge surfaces, such that the first and second edge surfaces are entirely covered by the facing. Two spaced apart strips of the facing are disposed on and cover a portion of the second face surface adjacent to the first and second edge surfaces, such that a portion of the second face surface between the strips is uncovered by the facing.

Abstract: Two genes required for this mercury methylation have been identified in bacteria and archaea. These genes are the hgcA gene and hgcB, a corrinoid protein that facilitates methyl group transfer to Hg, and a corrinoid protein-associated ferredoxin with two [4Fe-4S] binding motifs involved in generating cob(I)almin, respectively. The invention provides nucleic acid probes and primers for detecting methylmercury and or for assessing mercury methylation potential in environmental, clinical and other samples. The invention also provides antibodies against these proteins, antibodies against these proteins, methods of using the antibodies and methods of biocatalysis.

Abstract: A duct liner includes an insulation layer and a facing. The insulation layer having a first edge surface, a second edge surface that is spaced apart from the first edge surface, and a first and second face surfaces that extend from the first edge surface to the second edge surface. The facing is disposed on the first face surface, such that the first face surface is entirely covered by the facing. The facing is disposed on the first and second edge surfaces, such that the first and second edge surfaces are entirely covered by the facing. Two spaced apart strips of the facing are disposed on and cover a portion of the second face surface adjacent to the first and second edge surfaces, such that a portion of the second face surface between the strips is uncovered by the facing.

Abstract: A duct insulation laminate an insulation layer and a facing. The insulation layer includes an insulation layer having a first edge surface, a second edge surface that is spaced apart from the first edge surface, a first face surface that extends from the first edge surface to the second edge surface, and a second face surface that is opposed to and spaced apart from the first face surface. The second face surface extends from the first edge surface to the second edge surface. The facing is attached to the first face surface, and includes a polyester blended non-woven veil defining an outermost exterior surface of the duct insulation laminate.

Abstract: A rotary cutting apparatus includes a support assembly, a rotary cutter connected to the support assembly, and a slide pad connected to the rotary cutter. The rotary cutter is configured to cut low density fibrous material having an area of relatively heavier density and an area of relatively lighter density. The slide pad moves relative to and along an axial direction of the rotary cutter to compress the fibrous material to a desired compression when one of the areas of relatively heavier density and lighter density is proximate to the slide pad. As the fibrous material moves relative to the slide pad such that the other of the areas of relatively heavier density and lighter density is proximate to the slide pad, the slide pad moves along the axial direction, based on the density of the fibrous material proximate to the slide pad, to substantially maintain the desired compression of the fibrous material.

Abstract: A decorative panel includes a body constructed from a single layer of a polymer based blanket material having a surface zone. Printing is directly applied to an exposed face of that surface zone. The surface zone may be densified relative to the remainder of the body to tune the acoustical and physical properties of the panel for a particular application and/or to allow for high definition printing.

Abstract: A fibrous insulation product having at least one facing material adhered thereto is provided. The facing includes a pre-applied waterless, thin-film adhesive that is thermoplastic and heat activated. Accordingly, the facing may be repaired or repositioned in the field with the use of a hot applicator. In at least one embodiment, the fibrous insulation product is a duct board formed of an insulation layer with a vapor barrier adhered to a first major surface and a fibrous web adhered to a second major surface. The vapor barrier is preferably wider than the insulation layer to form a sealing flange. The waterless, thin-film adhesive may be placed on a sealing flange and heat sealed without the use of hand applied foil tape. The waterless, thin-film adhesive reduces odor potential and improves fiberglass recovery. In addition, the waterless, thin-film adhesive requires less energy to cure than a water-based adhesive, thereby reducing cost.

Abstract: A method of forming a box-like acoustical substrate is provided. Portions of an acoustical substrate having a decorative surface are compressed to form a flange, a first compressed region, a second compressed region, and a third compressed region. First, second, central, and third uncompressed regions are positioned respectively adjacent to the compressed regions. A left first surface and a right first surface of the acoustical substrate may be folded toward the back surface of the substrate until the second compressed region and the third compressed regions are flush with the central uncompressed region. An outer portion of the left surface may then be folded towards the back surface until the flange is flush with the right edge. The acoustical product may be used as an acoustical trap or duct. When the acoustical product is utilized as a duct, an air impermeable sheet may be positioned on the external surface.

Abstract: A mold for molding fibrous molding media includes upper and lower mold bodies defining a mold cavity, the upper and lower mold bodies being movable relative to each other to close the mold. The upper and lower mold bodies have respective upper and lower mold surfaces for contacting the fibrous molding media positioned within the mold, and have gas flow openings configured to direct gases into contact with the fibrous molding media. The mold also includes a source of gas connected to the gas flow openings.

Abstract: A mold for molding fibrous molding media includes upper and lower mold bodies defining a mold cavity, the upper and lower mold bodies being movable relative to each other to close the mold. The upper and lower mold bodies have respective upper and lower mold surfaces for contacting the fibrous molding media positioned within the mold, and have gas flow openings configured to direct gases into contact with the fibrous molding media. The mold also includes a source of gas connected to the gas flow openings.

Abstract: A decorative panel includes a body constructed from a single layer of a polymer based blanket material having a surface zone. Printing is directly applied to an exposed face of that surface zone. The surface zone may be densified relative to the remainder of the body to tune the acoustical and physical properties of the panel for a particular application and/or to allow for high definition printing.

Abstract: The present invention involves the use of a braze preform (28) for sealing and maintaining a vacuum in an insulation vessel (10). The braze preform (28) comprises particles of a braze material that are at least partially sintered together and at least substantially free of a binder. An assembly is provided for use in a method of manufacturing a vacuum insulation vessel (10). The assembly comprises a metal jacket (12) defining an interior space (20) to be evacuated and one or more evacuation ports (24) formed through a wall of the jacket (12). The evacuation ports (24) provide an opening to the interior space (20). The sintered braze preform (28) is located adjacent to the evacuation ports (24) so as to seal the evacuation ports (24) upon the melting of the brazing material. After the interior space (20) of the jacket (12) is evacuated, the preform (28) can be melted and allowed to solidify and seal the evacuation ports (24). In this way a vacuum can be maintained in the interior space (20).