A system for assembling elements into framing components is provided along with a method for the use thereof. The system may comprise a frame, a fastening tool, a first conveyor, a second conveyor, and a holder. The pieces of the system may be connected so that they may operate automatically, with only minimal operation by a user. The system increases the speed, efficiency, precision, repeatability, and safety of assembling framing components.

Aspects of the disclosure relate to a drain assembly that incudes first and second plates, moisture inlet and outlet, a flexible sheet disposed between the first and second plates and extending between the moisture inlet and outlet. The flexible sheet is configured to wick moisture. The drain assembly is configured to position in an opening in a building envelope assembly, seal between the moisture inlet and the moisture outlet adjacent the flexible sheet, and transport moisture from the moisture inlet to the moisture outlet to transport moisture from an interior side of an envelope penetrating component positioned within the opening to an exterior side of a water separation plane.

Building stud (10) for forming a framework for mounting wall panels, comprising a first (12) and a second (14) flange portion and a web portion (16) interconnecting the flange portions. The flange portions comprise a planar, elongated wood fibre member (18, 20), and the web portion comprises a sheet metal member (22) including a first (24) and a second (26) rectilinear line of weakness, which lines of weakness are parallel and along which the sheet metal member is foldable to enable folding the building stud from a retracted storage position to an expanded mounting position.

Building stud (10) for forming a framework for mounting wall panels, comprising a first (12) and a second (14) flange portion and a web portion (16) interconnecting the flange portions. The flange portions comprise a planar, elongated wood fibre member (18, 20), and the web portion comprises a sheet metal member (22) including a first (24) and a second (26) rectilinear line of weakness, which lines of weakness are parallel and along which the sheet metal member is foldable to enable folding the building stud from a retracted storage position to an expanded mounting position.

An adjustable support system has a base bracket member, a clip member, and an outer bracket. The base bracket member has a first end wall that overlays a substrate, a body wall extending outwardly therefrom and a second end wall opposite the first end wall. The clip member has a base bracket member coupling, and a projecting arm. The base bracket member coupling is attached to the first end wall and overlies a portion of the body wall. The projecting arm is spaceable apart from the body wall. The outer bracket has a spanning wall with inner and outer sides. An outer end wall extends from the outer side. The spanning wall is slidably positionable between the body wall of the base bracket member and the at least one clip member, to sandwich the same. Wall assemblies and methods are likewise disclosed.

Modules providing structural platforms for floors, ceilings, walls, and a roof of a wood frame building are shown and described. Once installed, modules receive suitable finishing materials providing continuous, flat surfaces, with exceptions for penetrations. Each module may include a wood perimeter, upper joist boards or roof rafters, coupled to the wood perimeter at relatively high positions thereon, and lower joist boards or roof rafters coupled to the bounded wood perimeter at relatively low positions thereon. Within each module, each upper joist board or upper roof rafter has a lowermost edge above a level of an uppermost edge of each said lower joist board or lower roof rafter. A gap between the lowermost edge and every lower joist board or roof rafter accommodates ducts, wiring, and plumbing. Each upper joist board or roof rafter is staggered in plan view relative to the lower joist boards or roof rafters.

Modules providing structural platforms for floors, ceilings, walls, and a roof of a wood frame building are shown and described. Once installed, modules receive suitable finishing materials providing continuous, flat surfaces, with exceptions for penetrations. Each module may include a wood perimeter, upper joist boards or roof rafters, coupled to the wood perimeter at relatively high positions thereon, and lower joist boards or roof rafters coupled to the bounded wood perimeter at relatively low positions thereon. Within each module, each upper joist board or upper roof rafter has a lowermost edge above a level of an uppermost edge of each said lower joist board or lower roof rafter. A gap between the lowermost edge and every lower joist board or roof rafter accommodates ducts, wiring, and plumbing. Each upper joist board or roof rafter is staggered in plan view relative to the lower joist boards or roof rafters.

A method of raising a framed structure. The method comprises the steps of: supporting a roof structure of the framed structure, cutting a stud of the framed structure at a desired level, leaving a bottom portion of the stud in place, removing a top portion of the stud, raising the roof structure of the framed structure, installing a flooring structure on the bottom portion of the stud, building a wall structure using a second stud supported by and secured to the flooring structure, lowering the roof structure onto the wall structure, and securing the roof structure to the wall structure. The method also allows for the leveling of the framed structure without modifications to the foundation. The method further allows for newly raised structures to have higher ceilings and modified floor plans without changes to the foundation.

The invention refers to a method of joining a nogging to a stud to form a sub-module of a prefabricated building module. The method comprises the acts of: providing (1000) a stud (2) and orienting the stud with a longitudinal extension of the stud along a first direction (A); providing (2000) a nogging material having a longitudinal extension being greater than an intended length of the nogging, and orienting the nogging material with a longitudinal extension along a second direction (B) being transverse to the first direction (A); moving (3000) a first free end of the nogging material into abutment with a first side surface of the stud (2) and cutting the nogging material to form a first nogging (3a); fixating (5000) and joining the free end of the nogging (3a) with the stud (2); moving (6000) the stud (2) and the first nogging (3a) along the first direction (A); and moving (7000) the free end of the nogging material into abutment with the stud (2); cutting (8000) the nogging material at a distance from the abutment, thereby forming a second nogging (3b); and fixating (9000) and joining the stud (2) and the second nogging (3b).

An installation and construction method of a wall panel is provided for installing the wall panel to a pair of wooden columns and a wooden horizontal member, the wooden columns being installed in a standing manner so as to be spaced apart from each other, the wooden horizontal member being installed to the wooden columns. The method includes: forming the wall panel by connecting mutually adjacent end portions of a plurality of surface members in a horizontal direction by a half column extending in a vertical direction, studs being fixed on first plate surfaces of the plurality of surface members; and after installing the wooden horizontal member to the wooden columns and adjusting erection of the wooden columns, fixing edge end portions of the surface members of the wall panel to front surfaces of the wooden columns and a front surface of the wooden horizontal member.