A bracket is disclosed. The bracket is coupled to a joist by rotating the bracket relative to the joist until the longitudinal axis of the bracket is aligned in parallel orientation with the longitudinal axis of the joist to achieve a snap-in engagement. The bracket includes a first bracket section having a first lateral wing and an opposite second lateral wing extending outwardly from a base of the first bracket section and a second bracket section that is aligned in perpendicular orientation relative to the first bracket section. The first lateral wing is configured to flex relative to the base, and the second lateral wing is configured to flex relative to the base during engagement of the bracket to a joist.

A fire-rated head-of-wall assembly includes a header track having bendable tabs, a pair of which is configured to hold a wall stud in place relative to the header track. An upper wallboard piece abuts against the ceiling and a lower wallboard piece is spaced from the upper wallboard piece to form a gap. A fire-resistant material, such as mineral wool, is positioned within the gap. An outer wallboard piece spans across the gap.

A framing assembly is disclosed. The framing assembly includes a bracket defining a first bracket section and a second bracket section aligned in perpendicular relation relative to the first bracket section along a bracket bend. The bracket includes a first slit and a second slit formed along the second bracket section. The first slit and the second slit define a tapered or triangular shape. The first bracket section includes a plurality of linear sides and corners defined along the linear sides. The first bracket section may be coupled to a joist by disposing the first bracket section within an interior portion of a joist defined by a web, flanges, and returns of the joist. The linear sides and the corners of the bracket facilitate the bracket to snap in place within the interior portion of the joist and the first slit and the second slit receive the returns of the joist.

A connection is provided between first and second building structural members, wherein a connector is made up of a stiffener and a connection element, and the stiffener nests within the connection element, and both the stiffener and the connection element are attached to the second building structural member with the same fastener or fasteners, and similarly, both the stiffener and the connection element are attached to the first building structural member with the same fastener or fasteners.

A framing assembly is disclosed. The framing assembly includes a bracket defining a first bracket section and a second bracket section aligned in perpendicular relation relative to the first bracket section along a bracket bend. The bracket includes a first slit and a second slit formed along the second bracket section. The first slit and the second slit define a tapered or triangular shape. The first bracket section includes a plurality of linear sides and corners defined along the linear sides. The first bracket section may be coupled to a joist by disposing the first bracket section within an interior portion of a joist defined by a web, flanges, and returns of the joist. The linear sides and the corners of the bracket facilitate the bracket to snap in place within the interior portion of the joist and the first slit and the second slit receive the returns of the joist.

A bracket is disclosed. The bracket is coupled to a joist by rotating the bracket relative to the joist until the longitudinal axis of the bracket is aligned in parallel orientation with the longitudinal axis of the joist to achieve a snap-in engagement. The bracket includes a first bracket section having a first lateral wing and an opposite second lateral wing extending outwardly from a base of the first bracket section and a second bracket section that is aligned in perpendicular orientation relative to the first bracket section. The first lateral wing is configured to flex relative to the base, and the second lateral wing is configured to flex relative to the base during engagement of the bracket to a joist.

An exemplary demountable barrier system includes a panel, a frame structure having a channel to receive the panel, and a seal compressing against the panel to hold the panel. The seal is slideably attached to the frame structure.

A track for a wall construction for use in building construction is disclosed. Embodiments can include a track having a plurality of bendable tabs that can be manipulated to grip or release wall studs to prevent lateral or side to side movement of the studs. Embodiments can include tracks which incorporate various geometries capable of receiving fire-retardant material, including but not limited to intumescent material.

An extrusion profile and cap system is provided. The extrusion profile may be made of metals, polymers, ceramics, and the like. The extrusion profile may include an outer perimeter forming an internal cavity. At least one channel may be formed along the outer perimeter and protruding into the internal cavity. The cap is releasably attachable to the extrusion profile and may cover at least a portion of the channel. The cap may hide bolts, screws, angle bars, wires and the like within the channel.

A partition system includes a primary wall and a secondary wall. The primary wall has a first frame. The secondary wall has a second frame secured to the first frame such that the secondary wall is rotatable about a first axis between a substantially planar position and a nonplanar position relative to the primary wall.