A tile system comprises at least two tiles and at least one elongate support. Each tile is generally rectangular in shape and has a first edge, and a second edge, the second edge being generally opposite the first edge. Each elongate support has an attachment portion and a support portion. Proximate the first edge each tile is provided with a groove, the groove being configured to receive the support portion of one of the elongate supports and a portion of an adjacent tile proximate its second edge.

A system, device and method for reducing wind-induced vibration using cladding includes one or more movable panels attached to an outer façade of a high-rise building, skyscraper or any other structure subject to wind-induced vibration.

A construction system (1) for wall cladding having uprights (2) and cross-members (3) to be held between two uprights not aligned vertically, in which the cross-members (3) have two opposing terminals (33) of a deformable material with two bends. The uprights (2) have an anchor (22) where terminals (33) of the cross-members can be attached, with the anchor, for this purpose, having, for each terminal (33), at least two entry parts (A, B) arranged spatially to maintain the relationship with the two bends (a, b) of the terminal, with each bend insertable into one of the entry parts, first requiring elastically deforming one terminal (33) or the upright such that the bends are pressed against the entry parts. The system can be completed with a series of cladding pieces (10) prepared to be suspended from one or more cross-members (3) at the same time.

A vacuum insulating material providing assembly, which can be used to provide the vacuum insulating material to the interior corners, exterior corners and/or window edge portions of a building, includes corner members positioned at the interior corners, exterior corners or window edges of the building, wherein the corner member has: a base plate; a first cantilever plate extending from one end of the base plate in the vertical direction; and a second cantilever plate extending from the base plate in the direction parallel to the first cantilever plate.

An external cladding system includes at least one panel of sheet material, a series of vertically and horizontally oriented panel mounting extrusions, and a number of spaced apart apertures passing through a topmost/bottom most horizontal panel mounting extrusions on a wall. The apertures extend along a longitudinal axis of an internal horizontal portion of the topmost and bottom-most panel mounting extrusions. In use, the at least one panel is held in place on the panel mounting extrusions via: capping extrusions and resilient sealing strips, which are located between the panel and the capping extrusions. One or more spacer elements are located on the horizontally-oriented panel mounting extrusions, which support the bottom edge of a panel.

In certain embodiments, a system includes a support rail configured to attach to a wall and a veneer mounting plate configured to attach to the wall via the support rail. The mounting plate includes a first surface and an opposite second surface that faces the wall when the mounting plate is attached to the wall. The mounting plate includes a support shelf and a retention clip each extending from the first surface and spaced apart such that a channel is formed between them. A veneer object is attached to the mounting plate in the first channel by the retention clip and the support shelf. The retention clip and the support shelf are configured to contact first and second edges, respectively, of the veneer object. The veneer object is retained in position on the mounting plate at least in part by the retention clip and the support shelf.

A system, device and method for reducing wind-induced vibration using cladding includes one or more movable panels attached to an outer facade of a high-rise building, skyscraper or any other structure subject to wind-induced vibration.

In one of the embodiments of the disclosed system, the sliding support member may be comprised of the U-shaped plate that is separate from a forward extending support member, which further contains parallel capture walls. The U-shaped plate and the forward extending support member are then joined together using a dovetail joint, or another type of lock-and-key joint. The groove for such a joint is oriented at an angle, preferably a right angle to the direction of the slide of the sliding support member along the length of the base member. This embodiment of the sliding support member permits a mounting of the adjustable support member at an angle, preferably a right angle to the direction of travel of the sliding support member.

The present invention relates to a finishing panel fixing device, and more particularly, to a finishing panel fixing device that fixes a finishing panel so that the finishing panel can be stably fixed when installing the finishing panel for finishing an indoor or outdoor wall surface or a floor. The finishing panel fixing device according to the present invention is extremely simple to assemble and install, and thus can reduce the time required for assembly, installation, and disassembly. The finishing panel fixing device also enhances fixability with respect to the finishing panel so that movement of the finishing panel due to an external force is prevented, and thus can also be applied to the finishing of an outdoor wall. The finishing panel fixing device can also facilitate maintenance.

A panel splicing structure capable of repeated assembly and disassembly without damage and rapid splicing comprises a plurality of panels and a plurality of insertable locking plate structures. The panel is a hollow panel body. The panel is also provided with reinforcing support bars, insertion cavities and locking pin holes. The insertable locking plate structure comprises a hollow plate body, a plurality of locking pins and controlling rods. The locking pins protrude outside or retract inside the sides of the hollow plate body under control of the controlling rods. The panels are arranged side by side with each other. The insertable locking plate structures are inserted into the insertion cavities of the panels, and the locking pins are inserted into the locking pin holes by the controlling rods to assemble the panels to form an integrated panel.