An installation structure for a solar cell module comprises engagement parts attached to a wall surface; and a plurality of solar cell modules which are installed on the wall surface by engaging with the engagement parts. An upper frame part of the solar cell module has an engaging part for engaging with the engagement parts, and the upper frame part has a hole for letting out a cable from the solar cell module to outside. For vertically adjacent solar cell modules, a space for connecting and installing the cable let out to the outside is present between the upper frame part of the lower solar cell module and a lower frame part of the upper solar cell module.

A complete insulation and panel mounting system utilizing a means to quickly install and hold insulation In place against a substrate with minimal materials and costs which includes an adjustable sub-girt mounting system. A panel system that quickly mounts to the sub-girts of the insulation mounting system to minimize labor at installation and degree of precision and skill required, and which allows for non-progressive (non-sequential) installation while allowing any panel to be removed and replaced without disturbing adjacent panels.

A building structure includes a mineral fibrous sheet material having a Temperature Index measured according to ISO 4589-3:2017 of 400° C. or higher, wherein the sheet material has a thickness of at most 1 mm, and wherein mineral fibers forming the sheet material are coated with a coating adapted for retarding fire.

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.

An aluminum interconnecting panel support has an insertion end with an inserting member for insertion into another support of a panel assembly. The interconnecting panel support includes a visible portion that is visible to human perception upon interconnecting the support within the panel assembly. The panel support also has a hidden portion that is hidden from perception upon interconnecting the support within the panel assembly. The panel support has a rectilinear body portion connected to the insertion end that spans a length of the support. The panel support has a curved support member that is disposed at a normal to the body portion. The visible portion of the panel support as assembled in the panel assembly includes the body portion. The hidden portion includes the curved support member, fasteners, or both. The curved support member adjoins additional panel members to previously assembled panel members, and it supports the body portion.

An arrangement for the medical care of a patient. The arrangement includes a total set of supply ports (22.1, 30.1), a frame (20), at least one detachably mountable wall panel (11.1, 11.4) and a respective wall panel fastening unit for each detachably mountable wall panel (11.1, 11.4). Each detachably mountable wall panel (11.1, 11.4) can be detachably fastened to the frame (20). The total set of supply ports (22.1, 30.1) provides the supply media, which all the medical devices need for intensive care. With the detachably mountable wall panels (11.1, 11.4) fastened to the frame (20), a remaining set of supply ports (22.1) remains free. This remaining set is capable of supplying the medical devices that are needed for normal care.

An improved J channel is provided for use when renovating or otherwise altering existing siding clad buildings, being designed with a profile resembling “h” so as to allow simplified installation and reduced labor by allowing for installation without the removal of siding panels beyond the area of the alteration.

The present invention is generally directed to energy storage systems comprising manufactured architectural materials having electrical battery systems embedded therein. The manufactured materials are generally provided as architectural panels, such as panels useful for interior or exterior cladding for buildings, flooring, countertops, or stairs. The panels comprise at least one battery device or battery assembly that is over-formed by and/or bonded with the architectural material. In preferred embodiments, the panels are formed by flowing a viscous architectural material precursor around the battery device or assembly and curing the precursor so as to solidify the architectural material. The panels may be electrically connected in any number of various arrangements, which can be chosen based on the specific application for the energy storage system.

A wall panel assembly for mounting to a support is disclosed. The support includes a support-defined communicating module that includes a support-defined counterpart of a connecting structure and a support-defined conductor. The wall panel assembly comprises a wall panel that is mountable to the support, and a wall panel assembly-defined communicating module that includes a wall panel assembly-defined counterpart of the connecting structure that is configured for releasably coupling to the support-defined counterpart of the connecting structure, and a wall panel assembly-defined conductor. In response to the releasable coupling of the wall panel assembly-defined and the support-defined counterparts of the connecting structure, the wall panel assembly-defined conductor becomes disposed in operable communication, for example, electrical communication or data communication, with the support-defined conductor. Once the coupling is released, the wall panel assembly-defined counterpart is releasably couplable to another support-defined counterpart of the connecting structure to reposition the wall panel assembly.

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.