A sealing element, in particular for sealing a frame element with respect to a building component, having a sandwich structure, including: a metallic primary layer which is creped at least in certain regions to form an elongation reserve of the sealing element; a secondary layer; and a bitumen-including filling layer which is arranged between the primary layer and the secondary layer.

A sealing element, in particular for sealing a frame element with respect to a building component, having a sandwich structure, including: a metallic primary layer which is creped at least in certain regions to form an elongation reserve of the sealing element; a secondary layer; and a bitumen-including filling layer which is arranged between the primary layer and the secondary layer.

A mounting device including a base having an open bottom, a longitudinal axis, and a linear guide on the base. The linear guide guides support hardware in linear movement along the longitudinal axis. An internal cavity is under the base for containing a sealant against and in cooperation with a roof when the mounting device is secured to the root. An opening is though the base is for receiving a fastener when the mounting device is secured to the roof. The opening is in communication with the internal cavity. The linear guide extends beyond the internal cavity.

An expansion joint seal system which includes intumescent to protect uncoated edges of substrates. A fire rated compressed expansion joint sealant is provided having an intumescent proximate, but below the water-resistant top of the fire-retardant foam, so that when exposed to fire, the intumescent expands to protect the exposed vertical surface of the adjacent concrete substrate. The end of the concrete is therefore protected in a manner which does not require joint overlap between the horizontal fire resistant coating and the compressible sealant.

An expansion joint seal includes a central portion having at least one central chamber disposed around a centerline, a first flange portion extending outwardly from the centerline and a second flange portion extending outwardly from the centerline in a direction opposite the first flange portion. When installed on the structure, the first flange portion is attachable to a first substrate of the structure and the second flange portion is attachable to a second substrate of the structure such that the central portion is disposed within and seals a gap formed between the first substrate and the second substrate of the structure. Movement of one or both of the first substrate and the second substrate causes a response in the central portion to maintain the seal.

A seismic protective structure (100) for protecting a board partition (190). The protective structure (100) comprises a first stud (110), a second stud (120), and a wedge (140). The first stud (110) is mounted against a neighbouring wall (150) and the second stud is being positioned spaced from the first stud so that a protective board (130) is mounted on the first stud and the second stud. The structure also comprises a wedge (140) mounted and positioned against the second stud (120) such that the protective board (130) mounted on the first (110) and second stud (120) is pushed at least partly out of the plane of the board partition (190) by the wedge (140) when a given level of seismic stress is appearing.

A profiled rail system (1) for covering at least one flooring end (11) comprises a base profiled rail (2) and a covering profiled rail (3), being connectable with each other by means of a mounting profiled rail (4). The covering profiled rail (3) comprising at least one covering wing (10) for overlapping the flooring end (11). The covering profiled rail (3) is mountable on the mounting profiled rail (4). The base profiled rail (2) comprises holding means for connecting the mounting profiled rail (4). Between the base profiled rail (2) and the mounting profiled rail (4) at least one elastic body (20) is provided, holding the mounting profiled rail (4) in an unloaded situation in a predefined position. The mounting profiled rail (4) can be pivoted relatively to the base profiled rail (2) by means of elastically deformation of the elastic body (20).

A fire barrier assembly includes a fire barrier, mounting elements and securement elements. The mounting elements are positioned along the length of the fire barrier on an inner surface of the fire barrier. The mounting elements engage one or more of the securement elements to the fire barrier. When installed within an expansions space, the securement elements are used to tension mount the fire barrier assembly securely and generally immovably within the expansion space, without the need for any mechanical, adhesive, or other fixed connection to anchor the fire barrier assembly in place. As such, no modification to the building structures defining the expansion space (e.g. no drilling holes, applying adhesive, etc.) is need to mount the fire barrier assembly. If desired, the fire barrier assembly may easily be detached and removed from the expansion space.

Embodiments of the present disclosure are directed to joint compounds for sealing exterior sheathing wallboards applied on the exterior of buildings. This invention also relates to a process of preparing such exterior joint compounds. The joint compounds of this invention comprise an aqueous emulsion system and provide water resistance comparable to the substrate on which they are applied, that is, the exterior sheathing wallboards.

Embodiments of the present disclosure are directed to joint compounds for sealing exterior sheathing wallboards applied on the exterior of buildings. This invention also relates to a process of preparing such exterior joint compounds. The joint compounds of this invention comprise an aqueous emulsion system and provide water resistance comparable to the substrate on which they are applied, that is, the exterior sheathing wallboards.