The invention relates to suspended ceiling systems and, in particular, to individually suspended ceiling panels.
Various systems have been developed to construct a suspended ceiling. Most commonly, these ceilings comprise a rectangular grid on which are carried panels or tiles. Typically, these systems leave lower faces of the grid elements exposed. Less common, are systems in which faces of the grid elements are partially or wholly concealed.
Architects and interior designers have a continuous need to create new and distinguished ceiling treatments.
The invention provides a system of individually suspended ceiling panels. The inventive panels can be provided in a variety of rectangular shapes and sizes and can be readily used with any spacing and/or elevation. The system thereby offers the ceiling designer extensive freedom of design.
The panels, preferably fabricated of sheet metal, are characterized by a mounting structure that rigidifies the panels and offsets the suspension wires or cables from the panel edges to conceal or at least minimize their visibility. The mounting structure is provided as a metal bracket in the form of an inverted channel adjacent each panel corner. The disclosed hanger bracket affords several suspension options.
The disclosed hanger bracket is attached to reentrant flanges on the upper end of the panel sides thereby leaving the visible finish of the panel face and sides undisturbed. The hanger brackets distribute suspension forces from the weight of the panel along the sides of the panel to avoid distortion causing point loading on the panel. A bendable tab at each end of the hanger bracket is inserted in a receiving slot of a respective flange, folded over and fastened to ensure a reliable assembly with the panel.
The disclosed hanger bracket includes integral clips that can optionally be used to connect with horizontal stabilizer rods that bridge between adjacent panels to maintain the panels in a desired position.
By way of example but not limitation, the sides can be 1¾ inch wide and the flanges can be ½ inch wide; these dimensions can be varied as needed or desired. The panel flanges 15 are formed with slots 18 configured to receive parts of a support bracket described below.
Each corner of the panel assembly 10 is reinforced by an identical triangular plate 19 shown in
An identical hanger bracket 21 is associated with each panel corner. Details of the bracket 21 are illustrated in
A suspension tab 28 is stamped in the bracket web 22 adjacent its center by cutting a U-shaped slot 29 in the web. The suspension tab 28 has a hole 31 for reception of a suspension wire 32 (seen in
Adjacent each end of the bracket 21 is formed an integral clip 41 standing above the plane of the web 22. The clip 41, shown in section in
A hanger bracket 21 is installed on the main body 11 by positioning the bracket in the interior of the panel, aligning the mounting tabs 36 with slots 18 in the panel flanges 15, moving the bracket 21 to extend both of its mounting tabs fully through the slots, and abutting the bracket with the underside of the respective flanges 15 and then folding or bending the tabs flat against the outer surface of the respective flanges. In this position of the mounting tabs 36, the holes 37 in the tab and the holes 38 in the web are aligned and a fastener such as a rivet or screw is assembled and tightened against the tab and flange. Each panel corner has a respective hanger bracket 21 associated with it.
The flanges 15 represent the backside of the panel assembly 10. The side of the planar section 12 opposite to that shown in
A panel assembly 10 is normally suspended with suspension wires, one on each hanger bracket 21, which can be, for example, the standard 12 gauge wire used in the conventional suspended ceiling construction to suspend the grid runners or tees. In the illustration of
Typically, the panel assemblies 10 will be horizontally spaced from one another a distance specified by the ceiling designer. The panel assemblies 10 can be held at a desired relative distance by positioning rods or wires in the clips 41. The clips 41 are proportioned to provide a tight friction fit for conventional 12 gauge suspension wires. As shown in
It should be evident that this disclosure is by way of example and that various changes may be made by adding, modifying or eliminating details without departing from the fair scope of the teaching contained in this disclosure. The invention is therefore not limited to particular details of this disclosure except to the extent that the following claims are necessarily so limited.
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