A covering element support arrangement for attaching covering elements to a building or building component. The covering element support arrangement has a carrier means for receiving covering elements thereon. The covering element support arrangement further has an attachment means for attaching covering elements to the carrier means. The attachment means involves mechanical fastening means that can be fastened to the carrier means and that are engageable with covering elements to fix the covering elements to the carrier means. The carrier means is formed at least partially from a perforated sheet and the mechanical fastening means is engageable with the perforations. The frequency of the perforations is such that a covering element can be attached to the carrier means without requiring the covering element to be initially aligned relative to any single perforation. This thereby reduces the time required to fit covering elements.

Devices, systems, and associated methods for attaching materials girts, rails, cladding, and/or other cladding components to an exterior wall portion (e.g., an insulated exterior wall portion) or other substructure of a building are disclosed herein. In some embodiments, the system includes cladding component attachment devices and cladding anchors, each configured to extend between the exterior wall portion and the cladding component. Each cladding anchor can have a base configured to be attached to the exterior wall of the building and a rod attached to the base and projecting outwardly therefrom and having a distal end portion configured to be attached to the cladding component. One or more of the cladding anchors can be positioned between adjacent cladding component attachment devices.

An energy transmission control mount comprises a carrier having a first major surface, an opposite second major surface and an aperture provided therein. Channels are provided adjacent opposite ends of the first surface. Vibration dampening material is provided on the carrier. The vibration dampening material substantially lines the channels and the aperture and extends over at least a portion of the second surface.

A support assembly for mounting masonry veneer to supporting wall structure has a first shelf angle, a second shelf angle, and a first shelf angle mounting bracket. Each shelf angle mounting bracket has an upwardly extending back that mounts to the supporting wall structure, and a web extending forwardly away from the wall structure. The web has at least a first shelf angle mounting seats formed in a lower region thereof that hangs downwardly of a vertical load shear transfer connection. A brace is mounted to the bracket. The brace underhangs the cantilevered supporting structure, and provides a moment reaction. The brace has a non-intrusive interface with the supporting structure. That interface may be in compression and the brace may act as a strut. The brace may be thermally isolated from the bracket. The brace may fit within the space envelope of a stud wall.

The invention relates to a bracket arrangement for receiving horizontally arranged profiled supports (4), preferably for fastening façade panels, wherein the bracket (2) has a fastening leg (6), a supporting leg (7) and a bracket head (5), wherein the supporting leg (7) and the bracket head (5) have a receiving slot (9) for receiving the profiled support (4), and wherein the bracket head (5) has a receiving opening (10) with an oblong hole-like cross section, and wherein a fixing screw (11), which projects into or can be plugged into the receiving opening (10), is provided for fastening the inserted profiled support (4).

A bracket assembly comprising a bracket member, and a backer. The bracket member comprises a plurality of fibers contained within a resin matrix. The at least one bracket member includes a body wall and at least one end wall oriented one of oblique and perpendicular to the body wall along at a first end thereof. The bracket member defines a bracket member stiffness. The backer is positioned over a portion of at least one of an inner surface and an outer surface of the at least one end wall. The backer comprises a metal member, and the backer defining a backer stiffness. The bracket member stiffness is between two and twenty times greater than the backer stiffness.

An energy transmission control mount comprises a carrier having a first major surface, an opposite second major surface and an aperture provided therein. Channels are provided adjacent opposite ends of the first surface. Vibration dampening material is provided on the carrier. The vibration dampening material substantially lines the channels and the aperture and extends over at least a portion of the second surface.

A system includes a plurality of a clip, the clip comprises a securing mechanism, a first side, a second side, a bottom end, and a top end. During installation of an insulation system a plurality of the clip are coupled to a support beam and disposed within a plurality of notches of a second insulation board. The plurality of clips further include a width that is substantially equal to a width of the plurality of notches such that during the installation of the insulation system the plurality of clips are disposable within the plurality of notches to allow a second side of a first insulation board to contact a first side of the second insulation board and the securing mechanism secures a back surface of the first insulation board against the plurality of clips.

Wire Mounting Solutions providing low embodied carbon insulation and façade mounting systems having unmatched thermal and acoustic performance, high structural strengths, and better able to withstand seismic and hurricane activity where other mounting systems may fail due to being too rigid.

A wall cladding system includes a slab bracket, a connector tube, first and second façade panels, and first and second attachment rails. The slab bracket includes a base wall and first and second forward extending flanges defining a gap in which the connector tube is secured. The first attachment rail is secured along an upper edge the first façade panel and includes a mounting wall fastened to the connector tube and a support wall extending upward from the mounting wall, spaced from the connector tube to define a first slot. The second attachment rail is secured along a lower edge of the second façade panel and includes a downward extending hanger wall spaced apart from a rear surface of the second façade panel to define a second slot, with the hanger wall received in the first slot and the support wall received in the second slot.